INSERT INTO `sys_history` (`uid`, `pid`, `sys_log_uid`, `history_data`, `fieldlist`, `recuid`, `tablename`, `tstamp`, `history_files`, `snapshot`) VALUES
(4932, 0, 18400, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:5785:"For use with the OCA 20, OCA 35, OCA&nbsp;40, and their variants. For the software controlled (automatic) selection and positioning (±0.05 mm) of the dosing needles. Available in four variants, each with the option of further enhancement to the &quot;plus&quot; version with increased positioning accuracy ( ±0.005 mm):\r\n<ul><li>E-MD/2 and E-MD/2plus for max. two dosing needles.</li><li>E-MD/3 and E-MD/3plus for max. three dosing needles.</li><li>E-MD/4 and E-MD/4plus for max. four dosing needles.</li><li>E-MD/6 and E-MD/6plus for max. six dosing needles.</li></ul>\r\n<h2>Electronic multiple direct dosing system TD-DE/3</h2>\r\nFor use with the OCA 20, OCA 35, OCA&nbsp;40, and their variants. For the software controlled (automatic) selection and positioning of up to three direct dosing modules. Combinable with maximum three electronic syringe modules ES-D/M.\r\n<h2>SIngle-Direct dosing systems SD-Dx</h2>\r\nPaints, varnishes, glues and latex dispersions are typical applications for the&nbsp;SD-DMand&nbsp;SD-DE&nbsp;direct dosing systems. Both direct dosing systems can be used to dose either pendant or sessile liquid drops (on a substrate) through disposable syringes and needles without the need for tubing. The SD-DE is an attachment to the E-MD electronic multiple dosing system, whereas the SD-DM is mounted as a stand-alone system directly on the illumination housing of all OCA instruments.&nbsp;<br />Consisting of syringe module carrier with fine adjusting bolts for the axial and horizontal syringe module positioning and a connection cable\r\n<h2>Double-Direct dosing system DD-DM</h2>\r\nPaints, varnishes, glues and latex dispersions are typical applications for the&nbsp;DD-DMdouble direct dosing system. Thedouble direct dosing system can be used to dose two different sessile liquid drops (on a substrate), for the determination of the surface free energy, through disposable syringes and needles without the need for tubing. The DD-DM is mounted directly on the illumination housing of all OCA instruments.&nbsp;<br />Consisting of two syringe module carrier with fine adjusting bolts for the axial and horizontal syringe module positioning and two connection cables.\r\n<h2>Electronic syringe module ES</h2>\r\nSoftware controlled (automatable) dosing volume (min. 50 nl) and dosing rate (0.06&nbsp;µl/s...26.4 µl/s). Also in a vairant for the direct dosing systems SD-DM, SD-DE and TD-DE available. Easy expandable with the syringe heating device SHD.<br /><link http://www.dataphysics.de/?action=zoom_view&id=765&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>Nanoliter dosing system on an OCA 40 Micro consisting of PCU Nanodrop, 3 DUN/E-MD, and 3 NDV INKA\r\n<h2>Nanoliter dosing system</h2>\r\nThe software controlled nanoliter dosing system -comprising the pressure control unitPCU Nanodrop&nbsp;and up to four nanodrop dosing valves&nbsp;NDV xx- enables the automatic measurement of wetting properties of microscopic samples using droplets in the nanoliter range (1...500 nl). The dosing valves were mounted with the holderDUN/SD-DM&nbsp;for a direct dosing system or&nbsp;DUN/E-MD&nbsp;for the electronic multiple dosing system E-MD/x plus.\r\n<h2>Picoliter dosing system</h2>\r\nThe innovative picoliter dosing system comprises a dosing unit, picodrop DUP/xx and a Picodrop dispenser head, PDH/xx. It enables the analysis of surfaces in sub-microscopic dimensions by dispensing single droplets of 15 to 400 pl precisely to the pre-defined position.<br /><link http://www.dataphysics.de/?action=zoom_view&id=848&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link><br />Picoliter droplet on an human hair\r\n<h2>Refill and rinse system with liquid pump cleaner RRS-LPC 3/1</h2>\r\nFor the automated, software controlled, refill and rinse of the dosing syringes and for the suction cleaning of a sample onto which liquid has been previously dosed. To be used with the following optional components:\r\n<ul><li>electronic multiple dosing system,&nbsp;E-MD/4.</li><li>3 electronic syringe modules,&nbsp;ES.</li><li>suction cleaning system,&nbsp;LPC OCA.</li><li>Vacuum pump,&nbsp;MVP.</li></ul>\r\n<h2>Dosing syringes DS xx</h2>\r\nSubsequent a selection of the most important dosing syringes:\r\n<ul><li>DS 100/GT&nbsp;gas tight 100 µl syringe.</li><li>DS 500/GT&nbsp;gas tight 500 µl syringe.</li><li>DS 1000/GT&nbsp;gas tight 1000 µl syringe.</li><li>DS-D 1000&nbsp;1000 µl disposable syringe.</li><li>DS-D 1000 SF&nbsp;1000 µl disposable syringe, silicone free.</li></ul>\r\n<h2>Dosing needles SN xx</h2>\r\nOur stock needle options comprises of more than 40 different possibilities, made of stainless steel, hydrophobic coated stainless steel and PTFE arranged in groups according to the standard application of the needle:\r\n<ul><li>SNS xx&nbsp;dosing needles for sessile drop measurements.</li><li>SNP xx&nbsp;dosing needles for pendant drop measurements.</li><li>SNC xx&nbsp;upwards bended dosing needles for captive bubble measurements.</li><li>SNS-D xx&nbsp;disposable dosing needles for sessile drop measurements.</li><li>SNP-D xx&nbsp;disposable dosing needles for pendant drop measurements.</li></ul>\r\n<h2>Dosing tubes DT xx</h2>\r\nIf using a standard dosing system (SD, MD/4, or E-MD/x) the dosing needle is connected, to the syringe, by a stainless steel tLuer Lock adapter,&nbsp;LL A. (The Luer Lock adaptor also serves as a means of securing the position of the needle relative to the dosing system)&nbsp; A dosing tube&nbsp;DT xx&nbsp;(made of PTFE) connects the dosing syringe,DS xx, to the needle.&nbsp;<br />HY-Kit\r\n<h2>Hydrophobisation kit for dosing needles SNS/SNP HY-Kit</h2>\r\nSpecial hydrophobic coating kit to prevent the wetting of the outer surface of the dosing needles.";}s:9:"newRecord";a:1:{s:8:"bodytext";s:5342:"For use with the OCA 20, OCA 35, OCA&nbsp;40, and their variants. For the software controlled (automatic) selection and positioning (±0.05 mm) of the dosing needles. Available in four variants, each with the option of further enhancement to the &quot;plus&quot; version with increased positioning accuracy ( ±0.005 mm):\r\n<ul><li>E-MD/2 and E-MD/2plus for max. two dosing needles.</li><li>E-MD/3 and E-MD/3plus for max. three dosing needles.</li><li>E-MD/4 and E-MD/4plus for max. four dosing needles.</li><li>E-MD/6 and E-MD/6plus for max. six dosing needles.</li></ul>\r\n<h2>Electronic multiple direct dosing system TD-DE/3</h2>\r\nFor use with the OCA 20, OCA 35, OCA&nbsp;40, and their variants. For the software controlled (automatic) selection and positioning of up to three direct dosing modules. Combinable with maximum three electronic syringe modules ES-D/M.\r\n<h2>SIngle-Direct dosing systems SD-Dx</h2>\r\nPaints, varnishes, glues and latex dispersions are typical applications for the&nbsp;SD-DMand&nbsp;SD-DE&nbsp;direct dosing systems. Both direct dosing systems can be used to dose either pendant or sessile liquid drops (on a substrate) through disposable syringes and needles without the need for tubing. The SD-DE is an attachment to the E-MD electronic multiple dosing system, whereas the SD-DM is mounted as a stand-alone system directly on the illumination housing of all OCA instruments.&nbsp;<br />Consisting of syringe module carrier with fine adjusting bolts for the axial and horizontal syringe module positioning and a connection cable\r\n<h2>Double-Direct dosing system DD-DM</h2>\r\nPaints, varnishes, glues and latex dispersions are typical applications for the&nbsp;DD-DMdouble direct dosing system. Thedouble direct dosing system can be used to dose two different sessile liquid drops (on a substrate), for the determination of the surface free energy, through disposable syringes and needles without the need for tubing. The DD-DM is mounted directly on the illumination housing of all OCA instruments.&nbsp;<br />Consisting of two syringe module carrier with fine adjusting bolts for the axial and horizontal syringe module positioning and two connection cables.\r\n<h2>Electronic syringe module ES</h2>\r\nSoftware controlled (automatable) dosing volume (min. 50 nl) and dosing rate (0.06&nbsp;µl/s...26.4 µl/s). Also in a vairant for the direct dosing systems SD-DM, SD-DE and TD-DE available. Easy expandable with the syringe heating device SHD.\r\n<h2>Nanoliter dosing system</h2>\r\nThe software controlled nanoliter dosing system -comprising the pressure control unitPCU Nanodrop&nbsp;and up to four nanodrop dosing valves&nbsp;NDV xx- enables the automatic measurement of wetting properties of microscopic samples using droplets in the nanoliter range (1...500 nl). The dosing valves were mounted with the holderDUN/SD-DM&nbsp;for a direct dosing system or&nbsp;DUN/E-MD&nbsp;for the electronic multiple dosing system E-MD/x plus.\r\n<h2>Picoliter dosing system</h2>\r\nThe innovative picoliter dosing system comprises a dosing unit, picodrop DUP/xx and a Picodrop dispenser head, PDH/xx. It enables the analysis of surfaces in sub-microscopic dimensions by dispensing single droplets of 15 to 400 pl precisely to the pre-defined position.\r\n<h2>Refill and rinse system with liquid pump cleaner RRS-LPC 3/1</h2>\r\nFor the automated, software controlled, refill and rinse of the dosing syringes and for the suction cleaning of a sample onto which liquid has been previously dosed. To be used with the following optional components:\r\n<ul><li>electronic multiple dosing system,&nbsp;E-MD/4.</li><li>3 electronic syringe modules,&nbsp;ES.</li><li>suction cleaning system,&nbsp;LPC OCA.</li><li>Vacuum pump,&nbsp;MVP.</li></ul>\r\n<h2>Dosing syringes DS xx</h2>\r\nSubsequent a selection of the most important dosing syringes:\r\n<ul><li>DS 100/GT&nbsp;gas tight 100 µl syringe.</li><li>DS 500/GT&nbsp;gas tight 500 µl syringe.</li><li>DS 1000/GT&nbsp;gas tight 1000 µl syringe.</li><li>DS-D 1000&nbsp;1000 µl disposable syringe.</li><li>DS-D 1000 SF&nbsp;1000 µl disposable syringe, silicone free.</li></ul>\r\n<h2>Dosing needles SN xx</h2>\r\nOur stock needle options comprises of more than 40 different possibilities, made of stainless steel, hydrophobic coated stainless steel and PTFE arranged in groups according to the standard application of the needle:\r\n<ul><li>SNS xx&nbsp;dosing needles for sessile drop measurements.</li><li>SNP xx&nbsp;dosing needles for pendant drop measurements.</li><li>SNC xx&nbsp;upwards bended dosing needles for captive bubble measurements.</li><li>SNS-D xx&nbsp;disposable dosing needles for sessile drop measurements.</li><li>SNP-D xx&nbsp;disposable dosing needles for pendant drop measurements.</li></ul>\r\n<h2>Dosing tubes DT xx</h2>\r\nIf using a standard dosing system (SD, MD/4, or E-MD/x) the dosing needle is connected, to the syringe, by a stainless steel tLuer Lock adapter,&nbsp;LL A. (The Luer Lock adaptor also serves as a means of securing the position of the needle relative to the dosing system)&nbsp; A dosing tube&nbsp;DT xx&nbsp;(made of PTFE) connects the dosing syringe,DS xx, to the needle.&nbsp;<br />HY-Kit\r\n<h2>Hydrophobisation kit for dosing needles SNS/SNP HY-Kit</h2>\r\nSpecial hydrophobic coating kit to prevent the wetting of the outer surface of the dosing needles.";}}', 'bodytext', 1143, 'tt_content', 1429620975, NULL, 0),
(4933, 0, 18401, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:7652:"For use with the OCA 20, OCA 35, OCA&nbsp;40, and their variants. For the software controlled (automatic) selection and positioning (±0.05 mm) of the dosing needles. Available in four variants, each with the option of further enhancement to the &quot;plus&quot; version with increased positioning accuracy ( ±0.005 mm):\r\n<ul><li>E-MD/2 and E-MD/2plus for max. two dosing needles.</li><li>E-MD/3 and E-MD/3plus for max. three dosing needles.</li><li>E-MD/4 and E-MD/4plus for max. four dosing needles.</li><li>E-MD/6 and E-MD/6plus for max. six dosing needles.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=1080&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2012+by+Dataphysics _blank></link>TD-DE/3\r\n<h2>Electronic multiple direct dosing system TD-DE/3</h2>\r\nFor use with the OCA 20, OCA 35, OCA&nbsp;40, and their variants. For the software controlled (automatic) selection and positioning of up to three direct dosing modules. Combinable with maximum three electronic syringe modules ES-D/M.<br /><link http://www.dataphysics.de/?action=zoom_view&id=761&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SD-DM and SD-DE\r\n<h2>SIngle-Direct dosing systems SD-Dx</h2>\r\nPaints, varnishes, glues and latex dispersions are typical applications for the&nbsp;<b>SD-DM</b>and&nbsp;<b>SD-DE</b>&nbsp;direct dosing systems. Both direct dosing systems can be used to dose either pendant or sessile liquid drops (on a substrate) through disposable syringes and needles without the need for tubing. The SD-DE is an attachment to the E-MD electronic multiple dosing system, whereas the SD-DM is mounted as a stand-alone system directly on the illumination housing of all OCA instruments.&nbsp;<br />Consisting of syringe module carrier with fine adjusting bolts for the axial and horizontal syringe module positioning and a connection cable<link http://www.dataphysics.de/?action=zoom_view&id=1020&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>DD-DM\r\n<h2>Double-Direct dosing system DD-DM</h2>\r\nPaints, varnishes, glues and latex dispersions are typical applications for the<b>&nbsp;DD-DM</b>double direct dosing system. Thedouble direct dosing system can be used to dose two different sessile liquid drops (on a substrate), for the determination of the surface free energy, through disposable syringes and needles without the need for tubing. The DD-DM is mounted directly on the illumination housing of all OCA instruments.&nbsp;<br />Consisting of two syringe module carrier with fine adjusting bolts for the axial and horizontal syringe module positioning and two connection cables.<link http://www.dataphysics.de/?action=zoom_view&id=787&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>ES and SHD\r\n<h2>Electronic syringe module ES</h2>\r\nSoftware controlled (automatable) dosing volume (min. 50 nl) and dosing rate (0.06&nbsp;µl/s…26.4 µl/s). Also in a vairant for the direct dosing systems SD-DM, SD-DE and TD-DE available. Easy expandable with the syringe heating device SHD.<br /><link http://www.dataphysics.de/?action=zoom_view&id=765&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>Nanoliter dosing system on an OCA 40 Micro consisting of PCU Nanodrop, 3 DUN/E-MD, and 3 NDV INKA\r\n<h2>Nanoliter dosing system</h2>\r\nThe software controlled nanoliter dosing system –comprising the pressure control unit<b>PCU Nanodrop</b>&nbsp;and up to four nanodrop dosing valves&nbsp;<b>NDV xx</b>– enables the automatic measurement of wetting properties of microscopic samples using droplets in the nanoliter range (1…500 nl). The dosing valves were mounted with the holder<b>DUN/SD-DM</b>&nbsp;for a direct dosing system or&nbsp;<b>DUN/E-MD</b>&nbsp;for the electronic multiple dosing system E-MD/x plus.<br /><link http://www.dataphysics.de/?action=zoom_view&id=766&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>DUP/E-MD and PDH 35\r\n<h2>Picoliter dosing system</h2>\r\nThe innovative picoliter dosing system comprises a dosing unit, picodrop DUP/xx and a Picodrop dispenser head, PDH/xx. It enables the analysis of surfaces in sub-microscopic dimensions by dispensing single droplets of 15 to 400 pl precisely to the pre-defined position.<br /><link http://www.dataphysics.de/?action=zoom_view&id=848&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link><br />Picoliter droplet on an human hair<br /><link http://www.dataphysics.de/?action=zoom_view&id=755&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>RRS-LPC 3/1\r\n<h2>Refill and rinse system with liquid pump cleaner RRS-LPC 3/1</h2>\r\nFor the automated, software controlled, refill and rinse of the dosing syringes and for the suction cleaning of a sample onto which liquid has been previously dosed. To be used with the following optional components:\r\n<ul><li>electronic multiple dosing system,&nbsp;<strong>E-MD/4.</strong></li><li>3 electronic syringe modules,&nbsp;<strong>ES.</strong></li><li>suction cleaning system,&nbsp;<strong>LPC OCA.</strong></li><li>Vacuum pump,&nbsp;<strong>MVP.</strong></li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=772&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>DS 100/GT, DS 500/GT, DS 1000/GT, and DS-D 1000SF\r\n<h2>Dosing syringes DS xx</h2>\r\nSubsequent a selection of the most important dosing syringes:\r\n<ul><li><strong>DS 100/GT</strong>&nbsp;gas tight 100 µl syringe.</li><li><strong>DS 500/GT</strong>&nbsp;gas tight 500 µl syringe.</li><li><strong>DS 1000/GT</strong>&nbsp;gas tight 1000 µl syringe.</li><li><strong>DS-D 1000</strong>&nbsp;1000 µl disposable syringe.</li><li><strong>DS-D 1000 SF</strong>&nbsp;1000 µl disposable syringe, silicone free.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=773&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SNS 052/026, SNC 165/119, SNC 165/119 and SNS-D 030/015\r\n<h2>Dosing needles SN xx</h2>\r\nOur stock needle options comprises of more than 40 different possibilities, made of stainless steel, hydrophobic coated stainless steel and PTFE arranged in groups according to the standard application of the needle:\r\n<ul><li><strong>SNS xx</strong>&nbsp;dosing needles for sessile drop measurements.</li><li><strong>SNP xx</strong>&nbsp;dosing needles for pendant drop measurements.</li><li><strong>SNC xx</strong>&nbsp;upwards bended dosing needles for captive bubble measurements.</li><li><strong>SNS-D xx</strong>&nbsp;disposable dosing needles for sessile drop measurements.</li><li><strong>SNP-D xx</strong>&nbsp;disposable dosing needles for pendant drop measurements.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=775&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>DS 400/03, DT-P 900/050, and L LA\r\n<h2>Dosing tubes DT xx</h2>\r\nIf using a standard dosing system (SD, MD/4, or E-MD/x) the dosing needle is connected, to the syringe, by a stainless steel tLuer Lock adapter,&nbsp;<b>LL A</b>. (The Luer Lock adaptor also serves as a means of securing the position of the needle relative to the dosing system)&nbsp; A dosing tube&nbsp;<b>DT xx</b>&nbsp;(made of PTFE) connects the dosing syringe,<b>DS xx, to the needle</b>.&nbsp;<br />HY-Kit\r\n<h2>Hydrophobisation kit for dosing needles SNS/SNP HY-Kit</h2>\r\nSpecial hydrophobic coating kit to prevent the wetting of the outer surface of the dosing needles.";}s:9:"newRecord";a:1:{s:8:"bodytext";s:6066:"<p style="font-size: 11.9999990463257px; ">For use with the OCA 20, OCA 35, OCA&nbsp;40, and their variants. For the software controlled (automatic) selection and positioning (±0.05 mm) of the dosing needles. Available in four variants, each with the option of further enhancement to the &quot;plus&quot; version with increased positioning accuracy ( ±0.005 mm):</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>E-MD/2 and E-MD/2plus for max. two dosing needles.</li><li>E-MD/3 and E-MD/3plus for max. three dosing needles.</li><li>E-MD/4 and E-MD/4plus for max. four dosing needles.</li><li>E-MD/6 and E-MD/6plus for max. six dosing needles.</li></ul>\r\n<h2>Electronic multiple direct dosing system TD-DE/3</h2>\r\n<p style="font-size: 11.9999990463257px; ">For use with the OCA 20, OCA 35, OCA&nbsp;40, and their variants. For the software controlled (automatic) selection and positioning of up to three direct dosing modules. Combinable with maximum three electronic syringe modules ES-D/M.</p>\r\n<h2>SIngle-Direct dosing systems SD-Dx</h2>\r\n<p style="font-size: 11.9999990463257px; ">Paints, varnishes, glues and latex dispersions are typical applications for the&nbsp;SD-DMand&nbsp;SD-DE&nbsp;direct dosing systems. Both direct dosing systems can be used to dose either pendant or sessile liquid drops (on a substrate) through disposable syringes and needles without the need for tubing. The SD-DE is an attachment to the E-MD electronic multiple dosing system, whereas the SD-DM is mounted as a stand-alone system directly on the illumination housing of all OCA instruments.&nbsp;<br />Consisting of syringe module carrier with fine adjusting bolts for the axial and horizontal syringe module positioning and a connection cable</p>\r\n<h2>Double-Direct dosing system DD-DM</h2>\r\n<p style="font-size: 11.9999990463257px; ">Paints, varnishes, glues and latex dispersions are typical applications for the&nbsp;DD-DMdouble direct dosing system. Thedouble direct dosing system can be used to dose two different sessile liquid drops (on a substrate), for the determination of the surface free energy, through disposable syringes and needles without the need for tubing. The DD-DM is mounted directly on the illumination housing of all OCA instruments.&nbsp;<br />Consisting of two syringe module carrier with fine adjusting bolts for the axial and horizontal syringe module positioning and two connection cables.</p>\r\n<h2>Electronic syringe module ES</h2>\r\n<p style="font-size: 11.9999990463257px; ">Software controlled (automatable) dosing volume (min. 50 nl) and dosing rate (0.06&nbsp;µl/s...26.4 µl/s). Also in a vairant for the direct dosing systems SD-DM, SD-DE and TD-DE available. Easy expandable with the syringe heating device SHD.</p>\r\n<h2>Nanoliter dosing system</h2>\r\n<p style="font-size: 11.9999990463257px; ">The software controlled nanoliter dosing system -comprising the pressure control unitPCU Nanodrop&nbsp;and up to four nanodrop dosing valves&nbsp;NDV xx- enables the automatic measurement of wetting properties of microscopic samples using droplets in the nanoliter range (1...500 nl). The dosing valves were mounted with the holderDUN/SD-DM&nbsp;for a direct dosing system or&nbsp;DUN/E-MD&nbsp;for the electronic multiple dosing system E-MD/x plus.</p>\r\n<h2>Picoliter dosing system</h2>\r\n<p style="font-size: 11.9999990463257px; ">The innovative picoliter dosing system comprises a dosing unit, picodrop DUP/xx and a Picodrop dispenser head, PDH/xx. It enables the analysis of surfaces in sub-microscopic dimensions by dispensing single droplets of 15 to 400 pl precisely to the pre-defined position.</p>\r\n<h2>Refill and rinse system with liquid pump cleaner RRS-LPC 3/1</h2>\r\n<p style="font-size: 11.9999990463257px; ">For the automated, software controlled, refill and rinse of the dosing syringes and for the suction cleaning of a sample onto which liquid has been previously dosed. To be used with the following optional components:</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>electronic multiple dosing system,&nbsp;E-MD/4.</li><li>3 electronic syringe modules,&nbsp;ES.</li><li>suction cleaning system,&nbsp;LPC OCA.</li><li>Vacuum pump,&nbsp;MVP.</li></ul>\r\n<h2>Dosing syringes DS xx</h2>\r\n<p style="font-size: 11.9999990463257px; ">Subsequent a selection of the most important dosing syringes:</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>DS 100/GT&nbsp;gas tight 100 µl syringe.</li><li>DS 500/GT&nbsp;gas tight 500 µl syringe.</li><li>DS 1000/GT&nbsp;gas tight 1000 µl syringe.</li><li>DS-D 1000&nbsp;1000 µl disposable syringe.</li><li>DS-D 1000 SF&nbsp;1000 µl disposable syringe, silicone free.</li></ul>\r\n<h2>Dosing needles SN xx</h2>\r\n<p style="font-size: 11.9999990463257px; ">Our stock needle options comprises of more than 40 different possibilities, made of stainless steel, hydrophobic coated stainless steel and PTFE arranged in groups according to the standard application of the needle:</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>SNS xx&nbsp;dosing needles for sessile drop measurements.</li><li>SNP xx&nbsp;dosing needles for pendant drop measurements.</li><li>SNC xx&nbsp;upwards bended dosing needles for captive bubble measurements.</li><li>SNS-D xx&nbsp;disposable dosing needles for sessile drop measurements.</li><li>SNP-D xx&nbsp;disposable dosing needles for pendant drop measurements.</li></ul>\r\n<h2>Dosing tubes DT xx</h2>\r\n<p style="font-size: 11.9999990463257px; ">If using a standard dosing system (SD, MD/4, or E-MD/x) the dosing needle is connected, to the syringe, by a stainless steel tLuer Lock adapter,&nbsp;LL A. (The Luer Lock adaptor also serves as a means of securing the position of the needle relative to the dosing system)&nbsp; A dosing tube&nbsp;DT xx&nbsp;(made of PTFE) connects the dosing syringe,DS xx, to the needle.&nbsp;<br />HY-Kit</p>\r\n<h2>Hydrophobisation kit for dosing needles SNS/SNP HY-Kit</h2>\r\n<p style="font-size: 11.9999990463257px; ">Special hydrophobic coating kit to prevent the wetting of the outer surface of the dosing needles.</p>";}}', 'bodytext', 1144, 'tt_content', 1429621040, NULL, 0),
(4934, 0, 18402, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:3819:"<h2>SHD</h2>\r\nThermostatisiereinrichtung für die Temperierung einer gasdichten Spritze DS xx/GT oder einer Einwegspritze bis 90 °C zur Montage in dem elektronischen Spritzenmodul ES in Verbindung mit einem Flüssigkeitsthermostaten.\r\n<h2>TFC 100</h2>\r\nFlüssigkeit-Thermostatisiereinrichtung für Temperaturen von - 10…130 °C zum Anschluss an einen Kälte-Umwälzthermostat sowie an eine Schutzgasversorgung. Der Dreifach-Diffusor TDI 100 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TFC 100 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TPC 150</h2>\r\nThermostatisiereinrichtung mit Peltiersystem für eine softwaregesteuerte Kontrolle der Temperatur von -30…160 °C (Aufheiz- und Abkühlrate ±1 K/s), auch unter Schutzgasatmosphäre. Der Dreifach-Diffusor TDI 150 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TPC 150 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TEC 300 XL</h2>\r\nFür die Benutzung mit den XL-Varianten der OCA Messgeräte. Thermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine manuelle Kontrolle der Temperatur bis zu 300 °C, auch unter Schutzgasatmosphäre. Die Kammertemperatur wird in der SCA-Software in Kombination mit Kontaktwinkelmessung protokolliert.\r\n<h2>TEC 400</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 400 °C, auch unter Schutzgasatmosphäre.\r\n<h2>TEC 700</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 700 °C, auch unter Schutzgasatmosphäre.\r\n<h2>NHD 400 / NHD 700</h2>\r\nDie NHD 400 und NHD 700 sind elektrische Kanülen-Heizsysteme für die Erzeugung von Tropfen bei einer Temperatur von bis zu 400 °C bzw. 700 °C (z. B. Polymere und Hotmelts, geschmolzenes Metall, etc.). Ebenso können extrem zähe Copolymere mit Viskositäten im kPas Bereich, z.B. mit Elastomer-Komponenten, leicht dosiert werden.\r\n<h2>MTFQ 1200</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1200°C.\r\n<h2>HTFC 1500/1700</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1500/1700 °C\r\n<h2>HTFC 1500/1800 HV</h2>\r\nElektrisch beheizter Hochtemperaturofen mit Hochvakuum zur Verwendung mit einem OCA 15LHT-SV Max. Temperatur 1500/1800 °C und max. 1 mPa Vakuum\r\n<h2>PMC 50S</h2>\r\nDruckmesszelle mit Sichtfenstern aus optischem Saphirglas, für Kontaktwinkelmessungen nach der Sessile Drop- und Captive Bubble-Methode und für die Messung der Oberflächenspannung in Flüssig-/Gas-Systemen und für Grenzflächenspannungen in Flüssig-/Flüssig-Systemen.<br />Mit vier Dosierkanülen für Sessile &amp; Captive sowie Pendant Drop Messungen, mit vier verschiedenen Einspritzflüssigkeiten. Äusseres Zwei-Ebenen Druck-Zufuhr-System. Die erste Druckebene kontrolliert den Druck der Primär-Einfüllflüssigkeit. Der höhere, zweite Druck ist notwendig für die Injektion der Meßflüssigkeit/en.<br />Druckbereich: 0,03 ... 50 bar<br />Max. Temperatur: 80 °C\r\n<h2>HGC 20EC/20/30</h2>\r\nFür die automatiserte Regelung der Feuchte von reiner Umgebungsluft, Stickstoff, Argon oder anderer Edelgase in thermostatisierten Messzellen.\r\nMehr Informationen über den&nbsp;<link http://kunden.werboffice.de/dataphysics/server/feuchtegenerator-hgc.html>Feuchtegenerator HGC</link>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:3806:"<h2>SHD</h2>\r\nThermostatisiereinrichtung für die Temperierung einer gasdichten Spritze DS xx/GT oder einer Einwegspritze bis 90 °C zur Montage in dem elektronischen Spritzenmodul ES in Verbindung mit einem Flüssigkeitsthermostaten.\r\n<h2>TFC 100</h2>\r\nFlüssigkeit-Thermostatisiereinrichtung für Temperaturen von - 10…130 °C zum Anschluss an einen Kälte-Umwälzthermostat sowie an eine Schutzgasversorgung. Der Dreifach-Diffusor TDI 100 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TFC 100 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TPC 150</h2>\r\nThermostatisiereinrichtung mit Peltiersystem für eine softwaregesteuerte Kontrolle der Temperatur von -30…160 °C (Aufheiz- und Abkühlrate ±1 K/s), auch unter Schutzgasatmosphäre. Der Dreifach-Diffusor TDI 150 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TPC 150 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TEC 300 XL</h2>\r\nFür die Benutzung mit den XL-Varianten der OCA Messgeräte. Thermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine manuelle Kontrolle der Temperatur bis zu 300 °C, auch unter Schutzgasatmosphäre. Die Kammertemperatur wird in der SCA-Software in Kombination mit Kontaktwinkelmessung protokolliert.\r\n<h2>TEC 400</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 400 °C, auch unter Schutzgasatmosphäre.\r\n<h2>TEC 700</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 700 °C, auch unter Schutzgasatmosphäre.\r\n<h2>NHD 400 / NHD 700</h2>\r\nDie NHD 400 und NHD 700 sind elektrische Kanülen-Heizsysteme für die Erzeugung von Tropfen bei einer Temperatur von bis zu 400 °C bzw. 700 °C (z. B. Polymere und Hotmelts, geschmolzenes Metall, etc.). Ebenso können extrem zähe Copolymere mit Viskositäten im kPas Bereich, z.B. mit Elastomer-Komponenten, leicht dosiert werden.\r\n<h2>MTFQ 1200</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1200°C.\r\n<h2>HTFC 1500/1700</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1500/1700 °C\r\n<h2>HTFC 1500/1800 HV</h2>\r\nElektrisch beheizter Hochtemperaturofen mit Hochvakuum zur Verwendung mit einem OCA 15LHT-SV Max. Temperatur 1500/1800 °C und max. 1 mPa Vakuum\r\n<h2>PMC 50S</h2>\r\nDruckmesszelle mit Sichtfenstern aus optischem Saphirglas, für Kontaktwinkelmessungen nach der Sessile Drop- und Captive Bubble-Methode und für die Messung der Oberflächenspannung in Flüssig-/Gas-Systemen und für Grenzflächenspannungen in Flüssig-/Flüssig-Systemen.<br />Mit vier Dosierkanülen für Sessile &amp; Captive sowie Pendant Drop Messungen, mit vier verschiedenen Einspritzflüssigkeiten. Äusseres Zwei-Ebenen Druck-Zufuhr-System. Die erste Druckebene kontrolliert den Druck der Primär-Einfüllflüssigkeit. Der höhere, zweite Druck ist notwendig für die Injektion der Meßflüssigkeit/en.<br />Druckbereich: 0,03 ... 50 bar<br />Max. Temperatur: 80 °C\r\n<h2>HGC 20EC/20/30</h2>\r\nFür die automatiserte Regelung der Feuchte von reiner Umgebungsluft, Stickstoff, Argon oder anderer Edelgase in thermostatisierten Messzellen.\r\nMehr Informationen über den&nbsp;<link 183 - internal-link "Opens internal link in current window">Feuchtegenerator HGC</link>";}}', 'bodytext', 227, 'tt_content', 1429621102, NULL, 0);
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(4935, 0, 18403, 'a:2:{s:9:"oldRecord";a:2:{s:8:"bodytext";s:7652:"Device for the heating of gastight syringe DS xx/GT mounted in the electronic syringe module ES. For use in conjunction with a liquid circulator.<link http://www.dataphysics.de/?action=zoom_view&id=795&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TFC 100 with TDI 100\r\n<h2>TFC 100</h2>\r\nLiquid temperature control unit for measurement within the range - 10 to 130 °C. Requires an external liquid circulator bath and includes the pipe work etc. to allow for a protective atmosphere (inert gas inlet) to surround the sample working area. The triple diffuser, TDI 100, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas flow towards the chamber windows.&nbsp;<br />An optional humidity sensor expands the applicability of the TFC 100 even further.<br /><link http://www.dataphysics.de/?action=zoom_view&id=796&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TPC 150 with controller TC 150, cover plates and TPL 30 with SVL 12/30\r\n<h2>TPC 150</h2>\r\nTemperature control chamber with a peltier system for the software controlled temperature setting from -30 t0 160 °C (heat up and cool down rate ±1 K/s). Also includes the pipe work etc. to allow for a protective atmosphere to surround the working area. The triple diffuser, TDI 150, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas towards the chamber windows.\r\n\r\nAn optional humidity sensor expands the applicability of the TPC 150 even further.TEC 300XL\r\n<h2>TEC 300XL</h2>\r\nFor mounting to the XL-variants of the OCA measuring devices. Temperature control chamber with electric resistance heater for manual controlled temperature setting up to 300 °C. Temperature display on controller and in SCA-software. Work under a protective atmosphere is also facilitated via the inert gas inlet.<link http://www.dataphysics.de/?action=zoom_view&id=801&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TEC 400 with controller TC 400 and TPL 30 with SVL 12/30\r\n<h2>TEC 400</h2>\r\nTemperature control chamber with twin electric resistance heater (above and below the sample plate) for software controlled temperature setting up to 400 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.<br /><link http://www.dataphysics.de/?action=zoom_view&id=800&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TEC 700 with controller TC 700\r\n<h2>TEC 700</h2>\r\nTemperature control chambers with twin electric resistance heater (above and below the sample plate) for software control of temperature setting up to 700 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.<br /><link http://www.dataphysics.de/?action=zoom_view&id=798&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>&nbsp;NHD 400\r\n<h2>NHD 400 / NHD 700</h2>\r\nThe NHD 400 and NHD 700 are electrical needle heating devices for generating drops at temperatures up 400 °C and 700 °C respectively (Applications areas include: polymers and hot melts, molten metals, etc.). Also extremely tenacious copolymers, with viscosities in the kPas range, e.g. with elastomer constituents, can be dosed easily at these elevated temperatures.<br /><link http://www.dataphysics.de/?action=zoom_view&id=844&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link><br />Molten aluminium droplet in NHD 700/TEC 700<br /><link http://www.dataphysics.de/?action=zoom_view&id=802&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>MTFQ 1200 on an OCA 15LHT with controller and second sample table for measurements at ambient temperature\r\n<h2>MTFQ 1200</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1200°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the MTFQ 1200 also.<br /><link http://www.dataphysics.de/?action=zoom_view&id=846&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link><br />Molten glass drop in MTFQ 1200<br /><link http://www.dataphysics.de/?action=zoom_view&id=803&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>HTFC 1700 on an OCA 15LHT with controller\r\n<h2>HTFC 1500/1700</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1500/1700°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the HTFQ 1500/1700 also.OCA 15LHT-SV with HTFC 1800HV\r\n<h2>HTFC 1500/1800HV</h2>\r\nElectrically heated, high temperature, high vacuum tube furnace for use in combination with an OCA 15LHT-SV.&nbsp;\r\n<ul><li>Max. temperature: 1500/1800 °C</li><li>Max. temperature for operation under vacuum: 1450°C</li><li>Max. vacuum: 10<sup>-5</sup>&nbsp;mbar</li></ul>\r\n<br />vacuum tube:<br />Material: C799<br />Outer diameter: 50 mm<br />Inner diameter: 40 mm<br />Length: 990 mm<br />-&nbsp;&nbsp;&nbsp; Prepared for horizontal operation&nbsp;<br />-&nbsp;&nbsp;&nbsp; Observation windows on both sides as additional equipment for gastight flanges<br />-&nbsp;&nbsp;&nbsp; MoSi2 heating elements, mounted vertically for easy replacement<br />-&nbsp;&nbsp;&nbsp; Insulation with vacuum-formed ceramic fibre plates for an energy-saving operation and fast heating up times<br />-&nbsp;&nbsp;&nbsp; Rectangular outer casing with slots for convection cooling<br />-&nbsp;&nbsp;&nbsp; Casing made of sheets of textured stainless steel (non-rusting design)<br />-&nbsp;&nbsp;&nbsp; Type B thermocouple<br />-&nbsp;&nbsp;&nbsp; Power unit with low-voltage transformer and thyristor controller&nbsp;<br />Typically used for the measurement of contact angle and surface tension of materials like:\r\n<ul><li>Compound Materials</li><li>Steel</li><li>Alloys</li><li>Molten Glass</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=684&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>PMC 50S on an OCA 20L with high pressure pump HPP 150\r\n<h2>PMC 50S</h2>\r\nPressure cell with two viewing windows and manipulation system to allow the exchange of the sample table. Facilitates the evaluation of contact angles according to the sessile and captive drop method, the measurement of surface tensions in liquid/pressurized gas systems and the interfacial tensions in liquid/liquid systems.&nbsp;\r\nIncorporates four dosing needles, for separate sessile and pendant drop measurements via four different injection liquids and a two phase pressure supply system for an external supply of the gas or liquid phases. The first pressure level is used for controlling the pressure of the primary filling liquid or gas. The higher, second pressure level is necessary for the injection dosing of the measuring liquid(s). The primary&nbsp; phase acts also a heat transfer medium.&nbsp;\r\n<ul><li>pressure range: 0.03 ... 50 bar</li><li>max. temperature: 80 °C</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=1074&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2012+by+Dataphysics _blank></link>HGC 30\r\n<h2>HGC 20EC/20/30</h2>\r\nFor the automated regulation of the humidity of ambient clean air, nitrogen, argon, or any other inert gas in temperature controlled measuring chambers.";s:15:"l18n_diffsource";s:4363:"a:22:{s:5:"CType";s:4:"text";s:6:"colPos";s:1:"4";s:16:"sys_language_uid";s:1:"0";s:6:"header";s:0:"";s:13:"header_layout";s:1:"0";s:15:"header_position";s:0:"";s:4:"date";s:1:"0";s:11:"header_link";s:0:"";s:8:"bodytext";s:3819:"<h2>SHD</h2>\r\nThermostatisiereinrichtung für die Temperierung einer gasdichten Spritze DS xx/GT oder einer Einwegspritze bis 90 °C zur Montage in dem elektronischen Spritzenmodul ES in Verbindung mit einem Flüssigkeitsthermostaten.\r\n<h2>TFC 100</h2>\r\nFlüssigkeit-Thermostatisiereinrichtung für Temperaturen von - 10…130 °C zum Anschluss an einen Kälte-Umwälzthermostat sowie an eine Schutzgasversorgung. Der Dreifach-Diffusor TDI 100 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TFC 100 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TPC 150</h2>\r\nThermostatisiereinrichtung mit Peltiersystem für eine softwaregesteuerte Kontrolle der Temperatur von -30…160 °C (Aufheiz- und Abkühlrate ±1 K/s), auch unter Schutzgasatmosphäre. Der Dreifach-Diffusor TDI 150 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TPC 150 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TEC 300 XL</h2>\r\nFür die Benutzung mit den XL-Varianten der OCA Messgeräte. Thermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine manuelle Kontrolle der Temperatur bis zu 300 °C, auch unter Schutzgasatmosphäre. Die Kammertemperatur wird in der SCA-Software in Kombination mit Kontaktwinkelmessung protokolliert.\r\n<h2>TEC 400</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 400 °C, auch unter Schutzgasatmosphäre.\r\n<h2>TEC 700</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 700 °C, auch unter Schutzgasatmosphäre.\r\n<h2>NHD 400 / NHD 700</h2>\r\nDie NHD 400 und NHD 700 sind elektrische Kanülen-Heizsysteme für die Erzeugung von Tropfen bei einer Temperatur von bis zu 400 °C bzw. 700 °C (z. B. Polymere und Hotmelts, geschmolzenes Metall, etc.). Ebenso können extrem zähe Copolymere mit Viskositäten im kPas Bereich, z.B. mit Elastomer-Komponenten, leicht dosiert werden.\r\n<h2>MTFQ 1200</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1200°C.\r\n<h2>HTFC 1500/1700</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1500/1700 °C\r\n<h2>HTFC 1500/1800 HV</h2>\r\nElektrisch beheizter Hochtemperaturofen mit Hochvakuum zur Verwendung mit einem OCA 15LHT-SV Max. Temperatur 1500/1800 °C und max. 1 mPa Vakuum\r\n<h2>PMC 50S</h2>\r\nDruckmesszelle mit Sichtfenstern aus optischem Saphirglas, für Kontaktwinkelmessungen nach der Sessile Drop- und Captive Bubble-Methode und für die Messung der Oberflächenspannung in Flüssig-/Gas-Systemen und für Grenzflächenspannungen in Flüssig-/Flüssig-Systemen.<br />Mit vier Dosierkanülen für Sessile &amp; Captive sowie Pendant Drop Messungen, mit vier verschiedenen Einspritzflüssigkeiten. Äusseres Zwei-Ebenen Druck-Zufuhr-System. Die erste Druckebene kontrolliert den Druck der Primär-Einfüllflüssigkeit. Der höhere, zweite Druck ist notwendig für die Injektion der Meßflüssigkeit/en.<br />Druckbereich: 0,03 ... 50 bar<br />Max. Temperatur: 80 °C\r\n<h2>HGC 20EC/20/30</h2>\r\nFür die automatiserte Regelung der Feuchte von reiner Umgebungsluft, Stickstoff, Argon oder anderer Edelgase in thermostatisierten Messzellen.\r\nMehr Informationen über den&nbsp;<link http://kunden.werboffice.de/dataphysics/server/feuchtegenerator-hgc.html>Feuchtegenerator HGC</link>";s:11:"rte_enabled";s:1:"0";s:6:"layout";s:1:"0";s:11:"spaceBefore";s:1:"0";s:10:"spaceAfter";s:1:"0";s:13:"section_frame";s:1:"0";s:6:"hidden";s:1:"0";s:12:"sectionIndex";s:1:"1";s:9:"linkToTop";s:1:"0";s:9:"starttime";N;s:7:"endtime";N;s:8:"fe_group";s:0:"";s:10:"categories";s:1:"0";s:11:"l18n_parent";s:1:"0";}";}s:9:"newRecord";a:2:{s:8:"bodytext";s:5828:"Device for the heating of gastight syringe DS xx/GT mounted in the electronic syringe module ES. For use in conjunction with a liquid circulator.<link http://www.dataphysics.de/?action=zoom_view&id=795&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TFC 100 with TDI 100\r\n<h2>TFC 100</h2>\r\nLiquid temperature control unit for measurement within the range - 10 to 130 °C. Requires an external liquid circulator bath and includes the pipe work etc. to allow for a protective atmosphere (inert gas inlet) to surround the sample working area. The triple diffuser, TDI 100, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas flow towards the chamber windows.&nbsp;<br />An optional humidity sensor expands the applicability of the TFC 100 even further.\r\n<h2>TPC 150</h2>\r\nTemperature control chamber with a peltier system for the software controlled temperature setting from -30 t0 160 °C (heat up and cool down rate ±1 K/s). Also includes the pipe work etc. to allow for a protective atmosphere to surround the working area. The triple diffuser, TDI 150, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas towards the chamber windows.\r\nAn optional humidity sensor expands the applicability of the TPC 150 even further.TEC 300XL\r\n<h2>TEC 300XL</h2>\r\nFor mounting to the XL-variants of the OCA measuring devices. Temperature control chamber with electric resistance heater for manual controlled temperature setting up to 300 °C. Temperature display on controller and in SCA-software. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>TEC 400</h2>\r\nTemperature control chamber with twin electric resistance heater (above and below the sample plate) for software controlled temperature setting up to 400 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.<br /><link http://www.dataphysics.de/?action=zoom_view&id=800&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TEC 700 with controller TC 700\r\n<h2>TEC 700</h2>\r\nTemperature control chambers with twin electric resistance heater (above and below the sample plate) for software control of temperature setting up to 700 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>NHD 400 / NHD 700</h2>\r\nThe NHD 400 and NHD 700 are electrical needle heating devices for generating drops at temperatures up 400 °C and 700 °C respectively (Applications areas include: polymers and hot melts, molten metals, etc.). Also extremely tenacious copolymers, with viscosities in the kPas range, e.g. with elastomer constituents, can be dosed easily at these elevated temperatures.\r\n<h2>MTFQ 1200</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1200°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the MTFQ 1200 also.\r\n<h2>HTFC 1500/1700</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1500/1700°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the HTFQ 1500/1700 also.\r\n<h2>HTFC 1500/1800HV</h2>\r\nElectrically heated, high temperature, high vacuum tube furnace for use in combination with an OCA 15LHT-SV.&nbsp;\r\n<ul><li>Max. temperature: 1500/1800 °C</li><li>Max. temperature for operation under vacuum: 1450°C</li><li>Max. vacuum: 10<sup>-5</sup>&nbsp;mbar</li></ul>\r\n<br />vacuum tube:<br />Material: C799<br />Outer diameter: 50 mm<br />Inner diameter: 40 mm<br />Length: 990 mm<br />-&nbsp;&nbsp;&nbsp; Prepared for horizontal operation&nbsp;<br />-&nbsp;&nbsp;&nbsp; Observation windows on both sides as additional equipment for gastight flanges<br />-&nbsp;&nbsp;&nbsp; MoSi2 heating elements, mounted vertically for easy replacement<br />-&nbsp;&nbsp;&nbsp; Insulation with vacuum-formed ceramic fibre plates for an energy-saving operation and fast heating up times<br />-&nbsp;&nbsp;&nbsp; Rectangular outer casing with slots for convection cooling<br />-&nbsp;&nbsp;&nbsp; Casing made of sheets of textured stainless steel (non-rusting design)<br />-&nbsp;&nbsp;&nbsp; Type B thermocouple<br />-&nbsp;&nbsp;&nbsp; Power unit with low-voltage transformer and thyristor controller&nbsp;<br />Typically used for the measurement of contact angle and surface tension of materials like:\r\n<ul><li>Compound Materials</li><li>Steel</li><li>Alloys</li><li>Molten Glass</li></ul>\r\n<h2>PMC 50S</h2>\r\nPressure cell with two viewing windows and manipulation system to allow the exchange of the sample table. Facilitates the evaluation of contact angles according to the sessile and captive drop method, the measurement of surface tensions in liquid/pressurized gas systems and the interfacial tensions in liquid/liquid systems.&nbsp;\r\nIncorporates four dosing needles, for separate sessile and pendant drop measurements via four different injection liquids and a two phase pressure supply system for an external supply of the gas or liquid phases. The first pressure level is used for controlling the pressure of the primary filling liquid or gas. The higher, second pressure level is necessary for the injection dosing of the measuring liquid(s). The primary&nbsp; phase acts also a heat transfer medium.&nbsp;\r\n<ul><li>pressure range: 0.03 ... 50 bar</li><li>max. temperature: 80 °C</li></ul>\r\n<h2>HGC 20EC/20/30</h2>\r\nFor the automated regulation of the humidity of ambient clean air, nitrogen, argon, or any other inert gas in temperature controlled measuring chambers.";s:15:"l18n_diffsource";s:4350:"a:22:{s:5:"CType";s:4:"text";s:6:"colPos";s:1:"4";s:16:"sys_language_uid";s:1:"0";s:6:"header";s:0:"";s:13:"header_layout";s:1:"0";s:15:"header_position";s:0:"";s:4:"date";s:1:"0";s:11:"header_link";s:0:"";s:8:"bodytext";s:3806:"<h2>SHD</h2>\r\nThermostatisiereinrichtung für die Temperierung einer gasdichten Spritze DS xx/GT oder einer Einwegspritze bis 90 °C zur Montage in dem elektronischen Spritzenmodul ES in Verbindung mit einem Flüssigkeitsthermostaten.\r\n<h2>TFC 100</h2>\r\nFlüssigkeit-Thermostatisiereinrichtung für Temperaturen von - 10…130 °C zum Anschluss an einen Kälte-Umwälzthermostat sowie an eine Schutzgasversorgung. Der Dreifach-Diffusor TDI 100 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TFC 100 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TPC 150</h2>\r\nThermostatisiereinrichtung mit Peltiersystem für eine softwaregesteuerte Kontrolle der Temperatur von -30…160 °C (Aufheiz- und Abkühlrate ±1 K/s), auch unter Schutzgasatmosphäre. Der Dreifach-Diffusor TDI 150 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TPC 150 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TEC 300 XL</h2>\r\nFür die Benutzung mit den XL-Varianten der OCA Messgeräte. Thermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine manuelle Kontrolle der Temperatur bis zu 300 °C, auch unter Schutzgasatmosphäre. Die Kammertemperatur wird in der SCA-Software in Kombination mit Kontaktwinkelmessung protokolliert.\r\n<h2>TEC 400</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 400 °C, auch unter Schutzgasatmosphäre.\r\n<h2>TEC 700</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 700 °C, auch unter Schutzgasatmosphäre.\r\n<h2>NHD 400 / NHD 700</h2>\r\nDie NHD 400 und NHD 700 sind elektrische Kanülen-Heizsysteme für die Erzeugung von Tropfen bei einer Temperatur von bis zu 400 °C bzw. 700 °C (z. B. Polymere und Hotmelts, geschmolzenes Metall, etc.). Ebenso können extrem zähe Copolymere mit Viskositäten im kPas Bereich, z.B. mit Elastomer-Komponenten, leicht dosiert werden.\r\n<h2>MTFQ 1200</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1200°C.\r\n<h2>HTFC 1500/1700</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1500/1700 °C\r\n<h2>HTFC 1500/1800 HV</h2>\r\nElektrisch beheizter Hochtemperaturofen mit Hochvakuum zur Verwendung mit einem OCA 15LHT-SV Max. Temperatur 1500/1800 °C und max. 1 mPa Vakuum\r\n<h2>PMC 50S</h2>\r\nDruckmesszelle mit Sichtfenstern aus optischem Saphirglas, für Kontaktwinkelmessungen nach der Sessile Drop- und Captive Bubble-Methode und für die Messung der Oberflächenspannung in Flüssig-/Gas-Systemen und für Grenzflächenspannungen in Flüssig-/Flüssig-Systemen.<br />Mit vier Dosierkanülen für Sessile &amp; Captive sowie Pendant Drop Messungen, mit vier verschiedenen Einspritzflüssigkeiten. Äusseres Zwei-Ebenen Druck-Zufuhr-System. Die erste Druckebene kontrolliert den Druck der Primär-Einfüllflüssigkeit. Der höhere, zweite Druck ist notwendig für die Injektion der Meßflüssigkeit/en.<br />Druckbereich: 0,03 ... 50 bar<br />Max. Temperatur: 80 °C\r\n<h2>HGC 20EC/20/30</h2>\r\nFür die automatiserte Regelung der Feuchte von reiner Umgebungsluft, Stickstoff, Argon oder anderer Edelgase in thermostatisierten Messzellen.\r\nMehr Informationen über den&nbsp;<link 183 - internal-link "Opens internal link in current window">Feuchtegenerator HGC</link>";s:11:"rte_enabled";s:1:"0";s:6:"layout";s:1:"0";s:11:"spaceBefore";s:1:"0";s:10:"spaceAfter";s:1:"0";s:13:"section_frame";s:1:"0";s:6:"hidden";s:1:"0";s:12:"sectionIndex";s:1:"1";s:9:"linkToTop";s:1:"0";s:9:"starttime";N;s:7:"endtime";N;s:8:"fe_group";s:0:"";s:10:"categories";s:1:"0";s:11:"l18n_parent";s:1:"0";}";}}', 'bodytext,l18n_diffsource', 1176, 'tt_content', 1429621152, NULL, 0),
(4936, 0, 18404, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:5828:"Device for the heating of gastight syringe DS xx/GT mounted in the electronic syringe module ES. For use in conjunction with a liquid circulator.<link http://www.dataphysics.de/?action=zoom_view&id=795&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TFC 100 with TDI 100\r\n<h2>TFC 100</h2>\r\nLiquid temperature control unit for measurement within the range - 10 to 130 °C. Requires an external liquid circulator bath and includes the pipe work etc. to allow for a protective atmosphere (inert gas inlet) to surround the sample working area. The triple diffuser, TDI 100, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas flow towards the chamber windows.&nbsp;<br />An optional humidity sensor expands the applicability of the TFC 100 even further.\r\n<h2>TPC 150</h2>\r\nTemperature control chamber with a peltier system for the software controlled temperature setting from -30 t0 160 °C (heat up and cool down rate ±1 K/s). Also includes the pipe work etc. to allow for a protective atmosphere to surround the working area. The triple diffuser, TDI 150, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas towards the chamber windows.\r\nAn optional humidity sensor expands the applicability of the TPC 150 even further.TEC 300XL\r\n<h2>TEC 300XL</h2>\r\nFor mounting to the XL-variants of the OCA measuring devices. Temperature control chamber with electric resistance heater for manual controlled temperature setting up to 300 °C. Temperature display on controller and in SCA-software. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>TEC 400</h2>\r\nTemperature control chamber with twin electric resistance heater (above and below the sample plate) for software controlled temperature setting up to 400 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.<br /><link http://www.dataphysics.de/?action=zoom_view&id=800&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TEC 700 with controller TC 700\r\n<h2>TEC 700</h2>\r\nTemperature control chambers with twin electric resistance heater (above and below the sample plate) for software control of temperature setting up to 700 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>NHD 400 / NHD 700</h2>\r\nThe NHD 400 and NHD 700 are electrical needle heating devices for generating drops at temperatures up 400 °C and 700 °C respectively (Applications areas include: polymers and hot melts, molten metals, etc.). Also extremely tenacious copolymers, with viscosities in the kPas range, e.g. with elastomer constituents, can be dosed easily at these elevated temperatures.\r\n<h2>MTFQ 1200</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1200°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the MTFQ 1200 also.\r\n<h2>HTFC 1500/1700</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1500/1700°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the HTFQ 1500/1700 also.\r\n<h2>HTFC 1500/1800HV</h2>\r\nElectrically heated, high temperature, high vacuum tube furnace for use in combination with an OCA 15LHT-SV.&nbsp;\r\n<ul><li>Max. temperature: 1500/1800 °C</li><li>Max. temperature for operation under vacuum: 1450°C</li><li>Max. vacuum: 10<sup>-5</sup>&nbsp;mbar</li></ul>\r\n<br />vacuum tube:<br />Material: C799<br />Outer diameter: 50 mm<br />Inner diameter: 40 mm<br />Length: 990 mm<br />-&nbsp;&nbsp;&nbsp; Prepared for horizontal operation&nbsp;<br />-&nbsp;&nbsp;&nbsp; Observation windows on both sides as additional equipment for gastight flanges<br />-&nbsp;&nbsp;&nbsp; MoSi2 heating elements, mounted vertically for easy replacement<br />-&nbsp;&nbsp;&nbsp; Insulation with vacuum-formed ceramic fibre plates for an energy-saving operation and fast heating up times<br />-&nbsp;&nbsp;&nbsp; Rectangular outer casing with slots for convection cooling<br />-&nbsp;&nbsp;&nbsp; Casing made of sheets of textured stainless steel (non-rusting design)<br />-&nbsp;&nbsp;&nbsp; Type B thermocouple<br />-&nbsp;&nbsp;&nbsp; Power unit with low-voltage transformer and thyristor controller&nbsp;<br />Typically used for the measurement of contact angle and surface tension of materials like:\r\n<ul><li>Compound Materials</li><li>Steel</li><li>Alloys</li><li>Molten Glass</li></ul>\r\n<h2>PMC 50S</h2>\r\nPressure cell with two viewing windows and manipulation system to allow the exchange of the sample table. Facilitates the evaluation of contact angles according to the sessile and captive drop method, the measurement of surface tensions in liquid/pressurized gas systems and the interfacial tensions in liquid/liquid systems.&nbsp;\r\nIncorporates four dosing needles, for separate sessile and pendant drop measurements via four different injection liquids and a two phase pressure supply system for an external supply of the gas or liquid phases. The first pressure level is used for controlling the pressure of the primary filling liquid or gas. The higher, second pressure level is necessary for the injection dosing of the measuring liquid(s). The primary&nbsp; phase acts also a heat transfer medium.&nbsp;\r\n<ul><li>pressure range: 0.03 ... 50 bar</li><li>max. temperature: 80 °C</li></ul>\r\n<h2>HGC 20EC/20/30</h2>\r\nFor the automated regulation of the humidity of ambient clean air, nitrogen, argon, or any other inert gas in temperature controlled measuring chambers.";}s:9:"newRecord";a:1:{s:8:"bodytext";s:5660:"Device for the heating of gastight syringe DS xx/GT mounted in the electronic syringe module ES. For use in conjunction with a liquid circulator.<link http://www.dataphysics.de/?action=zoom_view&id=795&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TFC 100 with TDI 100\r\n<h2>TFC 100</h2>\r\nLiquid temperature control unit for measurement within the range - 10 to 130 °C. Requires an external liquid circulator bath and includes the pipe work etc. to allow for a protective atmosphere (inert gas inlet) to surround the sample working area. The triple diffuser, TDI 100, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas flow towards the chamber windows.&nbsp;<br />An optional humidity sensor expands the applicability of the TFC 100 even further.\r\n<h2>TPC 150</h2>\r\nTemperature control chamber with a peltier system for the software controlled temperature setting from -30 t0 160 °C (heat up and cool down rate ±1 K/s). Also includes the pipe work etc. to allow for a protective atmosphere to surround the working area. The triple diffuser, TDI 150, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas towards the chamber windows.\r\nAn optional humidity sensor expands the applicability of the TPC 150 even further.\r\n<h2>TEC 300XL</h2>\r\nFor mounting to the XL-variants of the OCA measuring devices. Temperature control chamber with electric resistance heater for manual controlled temperature setting up to 300 °C. Temperature display on controller and in SCA-software. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>TEC 400</h2>\r\nTemperature control chamber with twin electric resistance heater (above and below the sample plate) for software controlled temperature setting up to 400 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>TEC 700</h2>\r\nTemperature control chambers with twin electric resistance heater (above and below the sample plate) for software control of temperature setting up to 700 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>NHD 400 / NHD 700</h2>\r\nThe NHD 400 and NHD 700 are electrical needle heating devices for generating drops at temperatures up 400 °C and 700 °C respectively (Applications areas include: polymers and hot melts, molten metals, etc.). Also extremely tenacious copolymers, with viscosities in the kPas range, e.g. with elastomer constituents, can be dosed easily at these elevated temperatures.\r\n<h2>MTFQ 1200</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1200°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the MTFQ 1200 also.\r\n<h2>HTFC 1500/1700</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1500/1700°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the HTFQ 1500/1700 also.\r\n<h2>HTFC 1500/1800HV</h2>\r\nElectrically heated, high temperature, high vacuum tube furnace for use in combination with an OCA 15LHT-SV.&nbsp;\r\n<ul><li>Max. temperature: 1500/1800 °C</li><li>Max. temperature for operation under vacuum: 1450°C</li><li>Max. vacuum: 10<sup>-5</sup>&nbsp;mbar</li></ul>\r\n<br />vacuum tube:\r\nMaterial: C799<br />Outer diameter: 50 mm<br />Inner diameter: 40 mm<br />Length: 990 mm<br />-&nbsp;&nbsp;&nbsp; Prepared for horizontal operation&nbsp;<br />-&nbsp;&nbsp;&nbsp; Observation windows on both sides as additional equipment for gastight flanges<br />-&nbsp;&nbsp;&nbsp; MoSi2 heating elements, mounted vertically for easy replacement<br />-&nbsp;&nbsp;&nbsp; Insulation with vacuum-formed ceramic fibre plates for an energy-saving operation and fast heating up times<br />-&nbsp;&nbsp;&nbsp; Rectangular outer casing with slots for convection cooling<br />-&nbsp;&nbsp;&nbsp; Casing made of sheets of textured stainless steel (non-rusting design)<br />-&nbsp;&nbsp;&nbsp; Type B thermocouple<br />-&nbsp;&nbsp;&nbsp; Power unit with low-voltage transformer and thyristor controller&nbsp;<br />Typically used for the measurement of contact angle and surface tension of materials like:\r\n<div class="indent"><ul><li>Compound Materials</li><li>Steel</li><li>Alloys</li><li>Molten Glass</li></ul></div>\r\n\r\n<h2>PMC 50S</h2>\r\nPressure cell with two viewing windows and manipulation system to allow the exchange of the sample table. Facilitates the evaluation of contact angles according to the sessile and captive drop method, the measurement of surface tensions in liquid/pressurized gas systems and the interfacial tensions in liquid/liquid systems.&nbsp;\r\nIncorporates four dosing needles, for separate sessile and pendant drop measurements via four different injection liquids and a two phase pressure supply system for an external supply of the gas or liquid phases. The first pressure level is used for controlling the pressure of the primary filling liquid or gas. The higher, second pressure level is necessary for the injection dosing of the measuring liquid(s). The primary&nbsp; phase acts also a heat transfer medium.&nbsp;\r\n<ul><li>pressure range: 0.03 ... 50 bar</li><li>max. temperature: 80 °C</li></ul>\r\n<h2>HGC 20EC/20/30</h2>\r\nFor the automated regulation of the humidity of ambient clean air, nitrogen, argon, or any other inert gas in temperature controlled measuring chambers.";}}', 'bodytext', 1176, 'tt_content', 1429621252, NULL, 0);
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(4937, 0, 18406, 'a:2:{s:9:"oldRecord";a:2:{s:8:"bodytext";s:7712:"Device for the heating of gastight syringe DS xx/GT mounted in the electronic syringe module ES. For use in conjunction with a liquid circulator.<link http://www.dataphysics.de/?action=zoom_view&id=795&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TFC 100 with TDI 100<br />\r\n<h2>TFC 100</h2>\r\nLiquid temperature control unit for measurement within the range - 10 to 130 °C. Requires an external liquid circulator bath and includes the pipe work etc. to allow for a protective atmosphere (inert gas inlet) to surround the sample working area. The triple diffuser, TDI 100, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas flow towards the chamber windows.&nbsp;<br />An optional humidity sensor expands the applicability of the TFC 100 even further.<br /><link http://www.dataphysics.de/?action=zoom_view&id=796&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TPC 150 with controller TC 150, cover plates and TPL 30 with SVL 12/30<br />\r\n<h2>TPC 150</h2>\r\nTemperature control chamber with a peltier system for the software controlled temperature setting from -30 t0 160 °C (heat up and cool down rate ±1 K/s). Also includes the pipe work etc. to allow for a protective atmosphere to surround the working area. The triple diffuser, TDI 150, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas towards the chamber windows.\r\n\r\nAn optional humidity sensor expands the applicability of the TPC 150 even further.TEC 300XL\r\n<h2>TEC 300XL</h2>\r\nFor mounting to the XL-variants of the OCA measuring devices. Temperature control chamber with electric resistance heater for manual controlled temperature setting up to 300 °C. Temperature display on controller and in SCA-software. Work under a protective atmosphere is also facilitated via the inert gas inlet.<link http://www.dataphysics.de/?action=zoom_view&id=801&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TEC 400 with controller TC 400 and TPL 30 with SVL 12/30\r\n<h2>TEC 400</h2>\r\nTemperature control chamber with twin electric resistance heater (above and below the sample plate) for software controlled temperature setting up to 400 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.<br /><link http://www.dataphysics.de/?action=zoom_view&id=800&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TEC 700 with controller TC 700<br />\r\n<h2>TEC 700</h2>\r\nTemperature control chambers with twin electric resistance heater (above and below the sample plate) for software control of temperature setting up to 700 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.<br /><link http://www.dataphysics.de/?action=zoom_view&id=798&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>&nbsp;NHD 400<br />\r\n<h2>NHD 400 / NHD 700</h2>\r\nThe NHD 400 and NHD 700 are electrical needle heating devices for generating drops at temperatures up 400 °C and 700 °C respectively (Applications areas include: polymers and hot melts, molten metals, etc.). Also extremely tenacious copolymers, with viscosities in the kPas range, e.g. with elastomer constituents, can be dosed easily at these elevated temperatures.<br /><link http://www.dataphysics.de/?action=zoom_view&id=844&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link><br />Molten aluminium droplet in NHD 700/TEC 700<br /><link http://www.dataphysics.de/?action=zoom_view&id=802&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>MTFQ 1200 on an OCA 15LHT with controller and second sample table for measurements at ambient temperature<br />\r\n<h2>MTFQ 1200</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1200°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the MTFQ 1200 also.<br /><link http://www.dataphysics.de/?action=zoom_view&id=846&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link><br />Molten glass drop in MTFQ 1200<br /><link http://www.dataphysics.de/?action=zoom_view&id=803&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>HTFC 1700 on an OCA 15LHT with controller<br />\r\n<h2>HTFC 1500/1700</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1500/1700°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the HTFQ 1500/1700 also.OCA 15LHT-SV with HTFC 1800HV<br />\r\n<h2>HTFC 1500/1800HV</h2>\r\nElectrically heated, high temperature, high vacuum tube furnace for use in combination with an OCA 15LHT-SV.&nbsp;<br />\r\n<ul><li>Max. temperature: 1500/1800 °C</li><li>Max. temperature for operation under vacuum: 1450°C</li><li>Max. vacuum: 10<sup>-5</sup>&nbsp;mbar</li></ul>\r\n<br />vacuum tube:<br />Material: C799<br />Outer diameter: 50 mm<br />Inner diameter: 40 mm<br />Length: 990 mm<br />-&nbsp;&nbsp;&nbsp; Prepared for horizontal operation&nbsp;<br />-&nbsp;&nbsp;&nbsp; Observation windows on both sides as additional equipment for gastight flanges<br />-&nbsp;&nbsp;&nbsp; MoSi2 heating elements, mounted vertically for easy replacement<br />-&nbsp;&nbsp;&nbsp; Insulation with vacuum-formed ceramic fibre plates for an energy-saving operation and fast heating up times<br />-&nbsp;&nbsp;&nbsp; Rectangular outer casing with slots for convection cooling<br />-&nbsp;&nbsp;&nbsp; Casing made of sheets of textured stainless steel (non-rusting design)<br />-&nbsp;&nbsp;&nbsp; Type B thermocouple<br />-&nbsp;&nbsp;&nbsp; Power unit with low-voltage transformer and thyristor controller&nbsp;<br />Typically used for the measurement of contact angle and surface tension of materials like:\r\n<ul><li>Compound Materials</li><li>Steel</li><li>Alloys</li><li>Molten Glass</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=684&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>PMC 50S on an OCA 20L with high pressure pump HPP 150<br />\r\n<h2>PMC 50S</h2>\r\nPressure cell with two viewing windows and manipulation system to allow the exchange of the sample table. Facilitates the evaluation of contact angles according to the sessile and captive drop method, the measurement of surface tensions in liquid/pressurized gas systems and the interfacial tensions in liquid/liquid systems.&nbsp;\r\nIncorporates four dosing needles, for separate sessile and pendant drop measurements via four different injection liquids and a two phase pressure supply system for an external supply of the gas or liquid phases. The first pressure level is used for controlling the pressure of the primary filling liquid or gas. The higher, second pressure level is necessary for the injection dosing of the measuring liquid(s). The primary&nbsp; phase acts also a heat transfer medium.&nbsp;\r\n<ul><li>pressure range: 0.03 ... 50 bar</li><li>max. temperature: 80 °C</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=1074&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2012+by+Dataphysics _blank></link>HGC 30<br />\r\n<h2>HGC 20EC/20/30</h2>\r\nFor the automated regulation of the humidity of ambient clean air, nitrogen, argon, or any other inert gas in temperature controlled measuring chambers.";s:15:"l18n_diffsource";s:4363:"a:22:{s:5:"CType";s:4:"text";s:6:"colPos";s:1:"4";s:16:"sys_language_uid";s:1:"0";s:6:"header";s:0:"";s:13:"header_layout";s:1:"0";s:15:"header_position";s:0:"";s:4:"date";s:1:"0";s:11:"header_link";s:0:"";s:8:"bodytext";s:3819:"<h2>SHD</h2>\r\nThermostatisiereinrichtung für die Temperierung einer gasdichten Spritze DS xx/GT oder einer Einwegspritze bis 90 °C zur Montage in dem elektronischen Spritzenmodul ES in Verbindung mit einem Flüssigkeitsthermostaten.\r\n<h2>TFC 100</h2>\r\nFlüssigkeit-Thermostatisiereinrichtung für Temperaturen von - 10…130 °C zum Anschluss an einen Kälte-Umwälzthermostat sowie an eine Schutzgasversorgung. Der Dreifach-Diffusor TDI 100 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TFC 100 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TPC 150</h2>\r\nThermostatisiereinrichtung mit Peltiersystem für eine softwaregesteuerte Kontrolle der Temperatur von -30…160 °C (Aufheiz- und Abkühlrate ±1 K/s), auch unter Schutzgasatmosphäre. Der Dreifach-Diffusor TDI 150 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TPC 150 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TEC 300 XL</h2>\r\nFür die Benutzung mit den XL-Varianten der OCA Messgeräte. Thermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine manuelle Kontrolle der Temperatur bis zu 300 °C, auch unter Schutzgasatmosphäre. Die Kammertemperatur wird in der SCA-Software in Kombination mit Kontaktwinkelmessung protokolliert.\r\n<h2>TEC 400</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 400 °C, auch unter Schutzgasatmosphäre.\r\n<h2>TEC 700</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 700 °C, auch unter Schutzgasatmosphäre.\r\n<h2>NHD 400 / NHD 700</h2>\r\nDie NHD 400 und NHD 700 sind elektrische Kanülen-Heizsysteme für die Erzeugung von Tropfen bei einer Temperatur von bis zu 400 °C bzw. 700 °C (z. B. Polymere und Hotmelts, geschmolzenes Metall, etc.). Ebenso können extrem zähe Copolymere mit Viskositäten im kPas Bereich, z.B. mit Elastomer-Komponenten, leicht dosiert werden.\r\n<h2>MTFQ 1200</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1200°C.\r\n<h2>HTFC 1500/1700</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1500/1700 °C\r\n<h2>HTFC 1500/1800 HV</h2>\r\nElektrisch beheizter Hochtemperaturofen mit Hochvakuum zur Verwendung mit einem OCA 15LHT-SV Max. Temperatur 1500/1800 °C und max. 1 mPa Vakuum\r\n<h2>PMC 50S</h2>\r\nDruckmesszelle mit Sichtfenstern aus optischem Saphirglas, für Kontaktwinkelmessungen nach der Sessile Drop- und Captive Bubble-Methode und für die Messung der Oberflächenspannung in Flüssig-/Gas-Systemen und für Grenzflächenspannungen in Flüssig-/Flüssig-Systemen.<br />Mit vier Dosierkanülen für Sessile &amp; Captive sowie Pendant Drop Messungen, mit vier verschiedenen Einspritzflüssigkeiten. Äusseres Zwei-Ebenen Druck-Zufuhr-System. Die erste Druckebene kontrolliert den Druck der Primär-Einfüllflüssigkeit. Der höhere, zweite Druck ist notwendig für die Injektion der Meßflüssigkeit/en.<br />Druckbereich: 0,03 ... 50 bar<br />Max. Temperatur: 80 °C\r\n<h2>HGC 20EC/20/30</h2>\r\nFür die automatiserte Regelung der Feuchte von reiner Umgebungsluft, Stickstoff, Argon oder anderer Edelgase in thermostatisierten Messzellen.\r\nMehr Informationen über den&nbsp;<link http://kunden.werboffice.de/dataphysics/server/feuchtegenerator-hgc.html>Feuchtegenerator HGC</link>";s:11:"rte_enabled";s:1:"0";s:6:"layout";s:1:"0";s:11:"spaceBefore";s:1:"0";s:10:"spaceAfter";s:1:"0";s:13:"section_frame";s:1:"0";s:6:"hidden";s:1:"0";s:12:"sectionIndex";s:1:"1";s:9:"linkToTop";s:1:"0";s:9:"starttime";N;s:7:"endtime";N;s:8:"fe_group";s:0:"";s:10:"categories";s:1:"0";s:11:"l18n_parent";s:1:"0";}";}s:9:"newRecord";a:2:{s:8:"bodytext";s:6585:"<p style="font-size: 11.9999990463257px; ">Device for the heating of gastight syringe DS xx/GT mounted in the electronic syringe module ES. For use in conjunction with a liquid circulator.<link http://www.dataphysics.de/?action=zoom_view&id=795&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TFC 100 with TDI 100</p>\r\n<h2>TFC 100</h2>\r\n<p style="font-size: 11.9999990463257px; ">Liquid temperature control unit for measurement within the range - 10 to 130 °C. Requires an external liquid circulator bath and includes the pipe work etc. to allow for a protective atmosphere (inert gas inlet) to surround the sample working area. The triple diffuser, TDI 100, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas flow towards the chamber windows.&nbsp;<br />An optional humidity sensor expands the applicability of the TFC 100 even further.</p>\r\n<h2>TPC 150</h2>\r\n<p style="font-size: 11.9999990463257px; ">Temperature control chamber with a peltier system for the software controlled temperature setting from -30 t0 160 °C (heat up and cool down rate ±1 K/s). Also includes the pipe work etc. to allow for a protective atmosphere to surround the working area. The triple diffuser, TDI 150, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas towards the chamber windows.</p>\r\n<p style="font-size: 11.9999990463257px; ">An optional humidity sensor expands the applicability of the TPC 150 even further.</p>\r\n<h2>TEC 300XL</h2>\r\n<p style="font-size: 11.9999990463257px; ">For mounting to the XL-variants of the OCA measuring devices. Temperature control chamber with electric resistance heater for manual controlled temperature setting up to 300 °C. Temperature display on controller and in SCA-software. Work under a protective atmosphere is also facilitated via the inert gas inlet.</p>\r\n<h2>TEC 400</h2>\r\n<p style="font-size: 11.9999990463257px; ">Temperature control chamber with twin electric resistance heater (above and below the sample plate) for software controlled temperature setting up to 400 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.</p>\r\n<h2>TEC 700</h2>\r\n<p style="font-size: 11.9999990463257px; ">Temperature control chambers with twin electric resistance heater (above and below the sample plate) for software control of temperature setting up to 700 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.</p>\r\n<h2>NHD 400 / NHD 700</h2>\r\n<p style="font-size: 11.9999990463257px; ">The NHD 400 and NHD 700 are electrical needle heating devices for generating drops at temperatures up 400 °C and 700 °C respectively (Applications areas include: polymers and hot melts, molten metals, etc.). Also extremely tenacious copolymers, with viscosities in the kPas range, e.g. with elastomer constituents, can be dosed easily at these elevated temperatures.</p>\r\n<h2>MTFQ 1200</h2>\r\n<p style="font-size: 11.9999990463257px; ">Special high temperature furnace for measurements to a maximum of 1200°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the MTFQ 1200 also.</p>\r\n<h2>HTFC 1500/1700</h2>\r\n<p style="font-size: 11.9999990463257px; ">Special high temperature furnace for measurements to a maximum of 1500/1700°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the HTFQ 1500/1700 also.</p>\r\n<h2>HTFC 1500/1800HV</h2>\r\n<p style="font-size: 11.9999990463257px; ">Electrically heated, high temperature, high vacuum tube furnace for use in combination with an OCA 15LHT-SV.&nbsp;</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>Max. temperature: 1500/1800 °C</li><li>Max. temperature for operation under vacuum: 1450°C</li><li>Max. vacuum: 10<sup>-5</sup>&nbsp;mbar</li></ul>\r\n<p style="font-size: 11.9999990463257px; "><br />vacuum tube:</p>\r\n<p style="font-size: 11.9999990463257px; ">Material: C799<br />Outer diameter: 50 mm<br />Inner diameter: 40 mm<br />Length: 990 mm<br />-&nbsp;&nbsp;&nbsp; Prepared for horizontal operation&nbsp;<br />-&nbsp;&nbsp;&nbsp; Observation windows on both sides as additional equipment for gastight flanges<br />-&nbsp;&nbsp;&nbsp; MoSi2 heating elements, mounted vertically for easy replacement<br />-&nbsp;&nbsp;&nbsp; Insulation with vacuum-formed ceramic fibre plates for an energy-saving operation and fast heating up times<br />-&nbsp;&nbsp;&nbsp; Rectangular outer casing with slots for convection cooling<br />-&nbsp;&nbsp;&nbsp; Casing made of sheets of textured stainless steel (non-rusting design)<br />-&nbsp;&nbsp;&nbsp; Type B thermocouple<br />-&nbsp;&nbsp;&nbsp; Power unit with low-voltage transformer and thyristor controller&nbsp;<br />Typically used for the measurement of contact angle and surface tension of materials like:</p>\r\n<div class="indent" style="font-size: 11.9999990463257px; "><ul><li>Compound Materials</li><li>Steel</li><li>Alloys</li><li>Molten Glass</li></ul></div>\r\n<p style="font-size: 11.9999990463257px; ">&nbsp;</p>\r\n<h2>PMC 50S</h2>\r\n<p style="font-size: 11.9999990463257px; ">Pressure cell with two viewing windows and manipulation system to allow the exchange of the sample table. Facilitates the evaluation of contact angles according to the sessile and captive drop method, the measurement of surface tensions in liquid/pressurized gas systems and the interfacial tensions in liquid/liquid systems.&nbsp;</p>\r\n<p style="font-size: 11.9999990463257px; ">Incorporates four dosing needles, for separate sessile and pendant drop measurements via four different injection liquids and a two phase pressure supply system for an external supply of the gas or liquid phases. The first pressure level is used for controlling the pressure of the primary filling liquid or gas. The higher, second pressure level is necessary for the injection dosing of the measuring liquid(s). The primary&nbsp; phase acts also a heat transfer medium.&nbsp;</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>pressure range: 0.03 ... 50 bar</li><li>max. temperature: 80 °C</li></ul>\r\n<h2>HGC 20EC/20/30</h2>\r\n<p style="font-size: 11.9999990463257px; ">For the automated regulation of the humidity of ambient clean air, nitrogen, argon, or any other inert gas in temperature controlled measuring chambers.</p>";s:15:"l18n_diffsource";s:4350:"a:22:{s:5:"CType";s:4:"text";s:6:"colPos";s:1:"4";s:16:"sys_language_uid";s:1:"0";s:6:"header";s:0:"";s:13:"header_layout";s:1:"0";s:15:"header_position";s:0:"";s:4:"date";s:1:"0";s:11:"header_link";s:0:"";s:8:"bodytext";s:3806:"<h2>SHD</h2>\r\nThermostatisiereinrichtung für die Temperierung einer gasdichten Spritze DS xx/GT oder einer Einwegspritze bis 90 °C zur Montage in dem elektronischen Spritzenmodul ES in Verbindung mit einem Flüssigkeitsthermostaten.\r\n<h2>TFC 100</h2>\r\nFlüssigkeit-Thermostatisiereinrichtung für Temperaturen von - 10…130 °C zum Anschluss an einen Kälte-Umwälzthermostat sowie an eine Schutzgasversorgung. Der Dreifach-Diffusor TDI 100 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TFC 100 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TPC 150</h2>\r\nThermostatisiereinrichtung mit Peltiersystem für eine softwaregesteuerte Kontrolle der Temperatur von -30…160 °C (Aufheiz- und Abkühlrate ±1 K/s), auch unter Schutzgasatmosphäre. Der Dreifach-Diffusor TDI 150 ist ein empfohlenes Zubehörteil für Betriebstemperaturen unter Raumtemperatur, um Kondensation durch einen trockenen Gasstrom am Kammerfenster zu verhindern. Die TPC 150 ist mit einem Feuchte­sensor erweiterbar.\r\n<h2>TEC 300 XL</h2>\r\nFür die Benutzung mit den XL-Varianten der OCA Messgeräte. Thermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine manuelle Kontrolle der Temperatur bis zu 300 °C, auch unter Schutzgasatmosphäre. Die Kammertemperatur wird in der SCA-Software in Kombination mit Kontaktwinkelmessung protokolliert.\r\n<h2>TEC 400</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 400 °C, auch unter Schutzgasatmosphäre.\r\n<h2>TEC 700</h2>\r\nThermostatisiereinrichtung mit elektrischer Widerstandsdoppelheizung für eine software­gesteuerte Kontrolle der Temperatur bis zu 700 °C, auch unter Schutzgasatmosphäre.\r\n<h2>NHD 400 / NHD 700</h2>\r\nDie NHD 400 und NHD 700 sind elektrische Kanülen-Heizsysteme für die Erzeugung von Tropfen bei einer Temperatur von bis zu 400 °C bzw. 700 °C (z. B. Polymere und Hotmelts, geschmolzenes Metall, etc.). Ebenso können extrem zähe Copolymere mit Viskositäten im kPas Bereich, z.B. mit Elastomer-Komponenten, leicht dosiert werden.\r\n<h2>MTFQ 1200</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1200°C.\r\n<h2>HTFC 1500/1700</h2>\r\nHochtemperaturrohrofen für Messungen im Hochtemperaturbereich, z.B. an Loten, Halbleitern, Legierungen und Glasschmelzen, auch für Messungen unter Schutzgas-Atmosphäre bei bis zu 1500/1700 °C\r\n<h2>HTFC 1500/1800 HV</h2>\r\nElektrisch beheizter Hochtemperaturofen mit Hochvakuum zur Verwendung mit einem OCA 15LHT-SV Max. Temperatur 1500/1800 °C und max. 1 mPa Vakuum\r\n<h2>PMC 50S</h2>\r\nDruckmesszelle mit Sichtfenstern aus optischem Saphirglas, für Kontaktwinkelmessungen nach der Sessile Drop- und Captive Bubble-Methode und für die Messung der Oberflächenspannung in Flüssig-/Gas-Systemen und für Grenzflächenspannungen in Flüssig-/Flüssig-Systemen.<br />Mit vier Dosierkanülen für Sessile &amp; Captive sowie Pendant Drop Messungen, mit vier verschiedenen Einspritzflüssigkeiten. Äusseres Zwei-Ebenen Druck-Zufuhr-System. Die erste Druckebene kontrolliert den Druck der Primär-Einfüllflüssigkeit. Der höhere, zweite Druck ist notwendig für die Injektion der Meßflüssigkeit/en.<br />Druckbereich: 0,03 ... 50 bar<br />Max. Temperatur: 80 °C\r\n<h2>HGC 20EC/20/30</h2>\r\nFür die automatiserte Regelung der Feuchte von reiner Umgebungsluft, Stickstoff, Argon oder anderer Edelgase in thermostatisierten Messzellen.\r\nMehr Informationen über den&nbsp;<link 183 - internal-link "Opens internal link in current window">Feuchtegenerator HGC</link>";s:11:"rte_enabled";s:1:"0";s:6:"layout";s:1:"0";s:11:"spaceBefore";s:1:"0";s:10:"spaceAfter";s:1:"0";s:13:"section_frame";s:1:"0";s:6:"hidden";s:1:"0";s:12:"sectionIndex";s:1:"1";s:9:"linkToTop";s:1:"0";s:9:"starttime";N;s:7:"endtime";N;s:8:"fe_group";s:0:"";s:10:"categories";s:1:"0";s:11:"l18n_parent";s:1:"0";}";}}', 'bodytext,l18n_diffsource', 1177, 'tt_content', 1429621266, NULL, 0),
(4938, 0, 18407, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:6585:"<p style="font-size: 11.9999990463257px; ">Device for the heating of gastight syringe DS xx/GT mounted in the electronic syringe module ES. For use in conjunction with a liquid circulator.<link http://www.dataphysics.de/?action=zoom_view&id=795&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TFC 100 with TDI 100</p>\r\n<h2>TFC 100</h2>\r\n<p style="font-size: 11.9999990463257px; ">Liquid temperature control unit for measurement within the range - 10 to 130 °C. Requires an external liquid circulator bath and includes the pipe work etc. to allow for a protective atmosphere (inert gas inlet) to surround the sample working area. The triple diffuser, TDI 100, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas flow towards the chamber windows.&nbsp;<br />An optional humidity sensor expands the applicability of the TFC 100 even further.</p>\r\n<h2>TPC 150</h2>\r\n<p style="font-size: 11.9999990463257px; ">Temperature control chamber with a peltier system for the software controlled temperature setting from -30 t0 160 °C (heat up and cool down rate ±1 K/s). Also includes the pipe work etc. to allow for a protective atmosphere to surround the working area. The triple diffuser, TDI 150, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas towards the chamber windows.</p>\r\n<p style="font-size: 11.9999990463257px; ">An optional humidity sensor expands the applicability of the TPC 150 even further.</p>\r\n<h2>TEC 300XL</h2>\r\n<p style="font-size: 11.9999990463257px; ">For mounting to the XL-variants of the OCA measuring devices. Temperature control chamber with electric resistance heater for manual controlled temperature setting up to 300 °C. Temperature display on controller and in SCA-software. Work under a protective atmosphere is also facilitated via the inert gas inlet.</p>\r\n<h2>TEC 400</h2>\r\n<p style="font-size: 11.9999990463257px; ">Temperature control chamber with twin electric resistance heater (above and below the sample plate) for software controlled temperature setting up to 400 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.</p>\r\n<h2>TEC 700</h2>\r\n<p style="font-size: 11.9999990463257px; ">Temperature control chambers with twin electric resistance heater (above and below the sample plate) for software control of temperature setting up to 700 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.</p>\r\n<h2>NHD 400 / NHD 700</h2>\r\n<p style="font-size: 11.9999990463257px; ">The NHD 400 and NHD 700 are electrical needle heating devices for generating drops at temperatures up 400 °C and 700 °C respectively (Applications areas include: polymers and hot melts, molten metals, etc.). Also extremely tenacious copolymers, with viscosities in the kPas range, e.g. with elastomer constituents, can be dosed easily at these elevated temperatures.</p>\r\n<h2>MTFQ 1200</h2>\r\n<p style="font-size: 11.9999990463257px; ">Special high temperature furnace for measurements to a maximum of 1200°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the MTFQ 1200 also.</p>\r\n<h2>HTFC 1500/1700</h2>\r\n<p style="font-size: 11.9999990463257px; ">Special high temperature furnace for measurements to a maximum of 1500/1700°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the HTFQ 1500/1700 also.</p>\r\n<h2>HTFC 1500/1800HV</h2>\r\n<p style="font-size: 11.9999990463257px; ">Electrically heated, high temperature, high vacuum tube furnace for use in combination with an OCA 15LHT-SV.&nbsp;</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>Max. temperature: 1500/1800 °C</li><li>Max. temperature for operation under vacuum: 1450°C</li><li>Max. vacuum: 10<sup>-5</sup>&nbsp;mbar</li></ul>\r\n<p style="font-size: 11.9999990463257px; "><br />vacuum tube:</p>\r\n<p style="font-size: 11.9999990463257px; ">Material: C799<br />Outer diameter: 50 mm<br />Inner diameter: 40 mm<br />Length: 990 mm<br />-&nbsp;&nbsp;&nbsp; Prepared for horizontal operation&nbsp;<br />-&nbsp;&nbsp;&nbsp; Observation windows on both sides as additional equipment for gastight flanges<br />-&nbsp;&nbsp;&nbsp; MoSi2 heating elements, mounted vertically for easy replacement<br />-&nbsp;&nbsp;&nbsp; Insulation with vacuum-formed ceramic fibre plates for an energy-saving operation and fast heating up times<br />-&nbsp;&nbsp;&nbsp; Rectangular outer casing with slots for convection cooling<br />-&nbsp;&nbsp;&nbsp; Casing made of sheets of textured stainless steel (non-rusting design)<br />-&nbsp;&nbsp;&nbsp; Type B thermocouple<br />-&nbsp;&nbsp;&nbsp; Power unit with low-voltage transformer and thyristor controller&nbsp;<br />Typically used for the measurement of contact angle and surface tension of materials like:</p>\r\n<div class="indent" style="font-size: 11.9999990463257px; "><ul><li>Compound Materials</li><li>Steel</li><li>Alloys</li><li>Molten Glass</li></ul></div>\r\n<p style="font-size: 11.9999990463257px; ">&nbsp;</p>\r\n<h2>PMC 50S</h2>\r\n<p style="font-size: 11.9999990463257px; ">Pressure cell with two viewing windows and manipulation system to allow the exchange of the sample table. Facilitates the evaluation of contact angles according to the sessile and captive drop method, the measurement of surface tensions in liquid/pressurized gas systems and the interfacial tensions in liquid/liquid systems.&nbsp;</p>\r\n<p style="font-size: 11.9999990463257px; ">Incorporates four dosing needles, for separate sessile and pendant drop measurements via four different injection liquids and a two phase pressure supply system for an external supply of the gas or liquid phases. The first pressure level is used for controlling the pressure of the primary filling liquid or gas. The higher, second pressure level is necessary for the injection dosing of the measuring liquid(s). The primary&nbsp; phase acts also a heat transfer medium.&nbsp;</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>pressure range: 0.03 ... 50 bar</li><li>max. temperature: 80 °C</li></ul>\r\n<h2>HGC 20EC/20/30</h2>\r\n<p style="font-size: 11.9999990463257px; ">For the automated regulation of the humidity of ambient clean air, nitrogen, argon, or any other inert gas in temperature controlled measuring chambers.</p>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:6418:"<p style="font-size: 11.9999990463257px; ">Device for the heating of gastight syringe DS xx/GT mounted in the electronic syringe module ES. For use in conjunction with a liquid circulator.</p>\r\n<h2>TFC 100</h2>\r\n<p style="font-size: 11.9999990463257px; ">Liquid temperature control unit for measurement within the range - 10 to 130 °C. Requires an external liquid circulator bath and includes the pipe work etc. to allow for a protective atmosphere (inert gas inlet) to surround the sample working area. The triple diffuser, TDI 100, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas flow towards the chamber windows.&nbsp;<br />An optional humidity sensor expands the applicability of the TFC 100 even further.</p>\r\n<h2>TPC 150</h2>\r\n<p style="font-size: 11.9999990463257px; ">Temperature control chamber with a peltier system for the software controlled temperature setting from -30 t0 160 °C (heat up and cool down rate ±1 K/s). Also includes the pipe work etc. to allow for a protective atmosphere to surround the working area. The triple diffuser, TDI 150, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas towards the chamber windows.</p>\r\n<p style="font-size: 11.9999990463257px; ">An optional humidity sensor expands the applicability of the TPC 150 even further.</p>\r\n<h2>TEC 300XL</h2>\r\n<p style="font-size: 11.9999990463257px; ">For mounting to the XL-variants of the OCA measuring devices. Temperature control chamber with electric resistance heater for manual controlled temperature setting up to 300 °C. Temperature display on controller and in SCA-software. Work under a protective atmosphere is also facilitated via the inert gas inlet.</p>\r\n<h2>TEC 400</h2>\r\n<p style="font-size: 11.9999990463257px; ">Temperature control chamber with twin electric resistance heater (above and below the sample plate) for software controlled temperature setting up to 400 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.</p>\r\n<h2>TEC 700</h2>\r\n<p style="font-size: 11.9999990463257px; ">Temperature control chambers with twin electric resistance heater (above and below the sample plate) for software control of temperature setting up to 700 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.</p>\r\n<h2>NHD 400 / NHD 700</h2>\r\n<p style="font-size: 11.9999990463257px; ">The NHD 400 and NHD 700 are electrical needle heating devices for generating drops at temperatures up 400 °C and 700 °C respectively (Applications areas include: polymers and hot melts, molten metals, etc.). Also extremely tenacious copolymers, with viscosities in the kPas range, e.g. with elastomer constituents, can be dosed easily at these elevated temperatures.</p>\r\n<h2>MTFQ 1200</h2>\r\n<p style="font-size: 11.9999990463257px; ">Special high temperature furnace for measurements to a maximum of 1200°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the MTFQ 1200 also.</p>\r\n<h2>HTFC 1500/1700</h2>\r\n<p style="font-size: 11.9999990463257px; ">Special high temperature furnace for measurements to a maximum of 1500/1700°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the HTFQ 1500/1700 also.</p>\r\n<h2>HTFC 1500/1800HV</h2>\r\n<p style="font-size: 11.9999990463257px; ">Electrically heated, high temperature, high vacuum tube furnace for use in combination with an OCA 15LHT-SV.&nbsp;</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>Max. temperature: 1500/1800 °C</li><li>Max. temperature for operation under vacuum: 1450°C</li><li>Max. vacuum: 10<sup>-5</sup>&nbsp;mbar</li></ul>\r\n<p style="font-size: 11.9999990463257px; "><br />vacuum tube:</p>\r\n<p style="font-size: 11.9999990463257px; ">Material: C799<br />Outer diameter: 50 mm<br />Inner diameter: 40 mm<br />Length: 990 mm<br />-&nbsp;&nbsp;&nbsp; Prepared for horizontal operation&nbsp;<br />-&nbsp;&nbsp;&nbsp; Observation windows on both sides as additional equipment for gastight flanges<br />-&nbsp;&nbsp;&nbsp; MoSi2 heating elements, mounted vertically for easy replacement<br />-&nbsp;&nbsp;&nbsp; Insulation with vacuum-formed ceramic fibre plates for an energy-saving operation and fast heating up times<br />-&nbsp;&nbsp;&nbsp; Rectangular outer casing with slots for convection cooling<br />-&nbsp;&nbsp;&nbsp; Casing made of sheets of textured stainless steel (non-rusting design)<br />-&nbsp;&nbsp;&nbsp; Type B thermocouple<br />-&nbsp;&nbsp;&nbsp; Power unit with low-voltage transformer and thyristor controller&nbsp;<br />Typically used for the measurement of contact angle and surface tension of materials like:</p>\r\n<div class="indent" style="font-size: 11.9999990463257px; "><ul><li>Compound Materials</li><li>Steel</li><li>Alloys</li><li>Molten Glass</li></ul></div>\r\n<p style="font-size: 11.9999990463257px; ">&nbsp;</p>\r\n<h2>PMC 50S</h2>\r\n<p style="font-size: 11.9999990463257px; ">Pressure cell with two viewing windows and manipulation system to allow the exchange of the sample table. Facilitates the evaluation of contact angles according to the sessile and captive drop method, the measurement of surface tensions in liquid/pressurized gas systems and the interfacial tensions in liquid/liquid systems.&nbsp;</p>\r\n<p style="font-size: 11.9999990463257px; ">Incorporates four dosing needles, for separate sessile and pendant drop measurements via four different injection liquids and a two phase pressure supply system for an external supply of the gas or liquid phases. The first pressure level is used for controlling the pressure of the primary filling liquid or gas. The higher, second pressure level is necessary for the injection dosing of the measuring liquid(s). The primary&nbsp; phase acts also a heat transfer medium.&nbsp;</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>pressure range: 0.03 ... 50 bar</li><li>max. temperature: 80 °C</li></ul>\r\n<h2>HGC 20EC/20/30</h2>\r\n<p style="font-size: 11.9999990463257px; ">For the automated regulation of the humidity of ambient clean air, nitrogen, argon, or any other inert gas in temperature controlled measuring chambers.</p>";}}', 'bodytext', 1177, 'tt_content', 1429621276, NULL, 0),
(4939, 0, 18408, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:5660:"Device for the heating of gastight syringe DS xx/GT mounted in the electronic syringe module ES. For use in conjunction with a liquid circulator.<link http://www.dataphysics.de/?action=zoom_view&id=795&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TFC 100 with TDI 100\r\n<h2>TFC 100</h2>\r\nLiquid temperature control unit for measurement within the range - 10 to 130 °C. Requires an external liquid circulator bath and includes the pipe work etc. to allow for a protective atmosphere (inert gas inlet) to surround the sample working area. The triple diffuser, TDI 100, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas flow towards the chamber windows.&nbsp;<br />An optional humidity sensor expands the applicability of the TFC 100 even further.\r\n<h2>TPC 150</h2>\r\nTemperature control chamber with a peltier system for the software controlled temperature setting from -30 t0 160 °C (heat up and cool down rate ±1 K/s). Also includes the pipe work etc. to allow for a protective atmosphere to surround the working area. The triple diffuser, TDI 150, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas towards the chamber windows.\r\nAn optional humidity sensor expands the applicability of the TPC 150 even further.\r\n<h2>TEC 300XL</h2>\r\nFor mounting to the XL-variants of the OCA measuring devices. Temperature control chamber with electric resistance heater for manual controlled temperature setting up to 300 °C. Temperature display on controller and in SCA-software. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>TEC 400</h2>\r\nTemperature control chamber with twin electric resistance heater (above and below the sample plate) for software controlled temperature setting up to 400 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>TEC 700</h2>\r\nTemperature control chambers with twin electric resistance heater (above and below the sample plate) for software control of temperature setting up to 700 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>NHD 400 / NHD 700</h2>\r\nThe NHD 400 and NHD 700 are electrical needle heating devices for generating drops at temperatures up 400 °C and 700 °C respectively (Applications areas include: polymers and hot melts, molten metals, etc.). Also extremely tenacious copolymers, with viscosities in the kPas range, e.g. with elastomer constituents, can be dosed easily at these elevated temperatures.\r\n<h2>MTFQ 1200</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1200°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the MTFQ 1200 also.\r\n<h2>HTFC 1500/1700</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1500/1700°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the HTFQ 1500/1700 also.\r\n<h2>HTFC 1500/1800HV</h2>\r\nElectrically heated, high temperature, high vacuum tube furnace for use in combination with an OCA 15LHT-SV.&nbsp;\r\n<ul><li>Max. temperature: 1500/1800 °C</li><li>Max. temperature for operation under vacuum: 1450°C</li><li>Max. vacuum: 10<sup>-5</sup>&nbsp;mbar</li></ul>\r\n<br />vacuum tube:\r\nMaterial: C799<br />Outer diameter: 50 mm<br />Inner diameter: 40 mm<br />Length: 990 mm<br />-&nbsp;&nbsp;&nbsp; Prepared for horizontal operation&nbsp;<br />-&nbsp;&nbsp;&nbsp; Observation windows on both sides as additional equipment for gastight flanges<br />-&nbsp;&nbsp;&nbsp; MoSi2 heating elements, mounted vertically for easy replacement<br />-&nbsp;&nbsp;&nbsp; Insulation with vacuum-formed ceramic fibre plates for an energy-saving operation and fast heating up times<br />-&nbsp;&nbsp;&nbsp; Rectangular outer casing with slots for convection cooling<br />-&nbsp;&nbsp;&nbsp; Casing made of sheets of textured stainless steel (non-rusting design)<br />-&nbsp;&nbsp;&nbsp; Type B thermocouple<br />-&nbsp;&nbsp;&nbsp; Power unit with low-voltage transformer and thyristor controller&nbsp;<br />Typically used for the measurement of contact angle and surface tension of materials like:\r\n<div class="indent"><ul><li>Compound Materials</li><li>Steel</li><li>Alloys</li><li>Molten Glass</li></ul></div>\r\n\r\n<h2>PMC 50S</h2>\r\nPressure cell with two viewing windows and manipulation system to allow the exchange of the sample table. Facilitates the evaluation of contact angles according to the sessile and captive drop method, the measurement of surface tensions in liquid/pressurized gas systems and the interfacial tensions in liquid/liquid systems.&nbsp;\r\nIncorporates four dosing needles, for separate sessile and pendant drop measurements via four different injection liquids and a two phase pressure supply system for an external supply of the gas or liquid phases. The first pressure level is used for controlling the pressure of the primary filling liquid or gas. The higher, second pressure level is necessary for the injection dosing of the measuring liquid(s). The primary&nbsp; phase acts also a heat transfer medium.&nbsp;\r\n<ul><li>pressure range: 0.03 ... 50 bar</li><li>max. temperature: 80 °C</li></ul>\r\n<h2>HGC 20EC/20/30</h2>\r\nFor the automated regulation of the humidity of ambient clean air, nitrogen, argon, or any other inert gas in temperature controlled measuring chambers.";}s:9:"newRecord";a:1:{s:8:"bodytext";s:5493:"Device for the heating of gastight syringe DS xx/GT mounted in the electronic syringe module ES. For use in conjunction with a liquid circulator.\r\n<h2>TFC 100</h2>\r\nLiquid temperature control unit for measurement within the range - 10 to 130 °C. Requires an external liquid circulator bath and includes the pipe work etc. to allow for a protective atmosphere (inert gas inlet) to surround the sample working area. The triple diffuser, TDI 100, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas flow towards the chamber windows.&nbsp;<br />An optional humidity sensor expands the applicability of the TFC 100 even further.\r\n<h2>TPC 150</h2>\r\nTemperature control chamber with a peltier system for the software controlled temperature setting from -30 t0 160 °C (heat up and cool down rate ±1 K/s). Also includes the pipe work etc. to allow for a protective atmosphere to surround the working area. The triple diffuser, TDI 150, is a recommended attachment for working temperatures below room temperature to prevent condensation by directing a dry gas towards the chamber windows.\r\nAn optional humidity sensor expands the applicability of the TPC 150 even further.\r\n<h2>TEC 300XL</h2>\r\nFor mounting to the XL-variants of the OCA measuring devices. Temperature control chamber with electric resistance heater for manual controlled temperature setting up to 300 °C. Temperature display on controller and in SCA-software. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>TEC 400</h2>\r\nTemperature control chamber with twin electric resistance heater (above and below the sample plate) for software controlled temperature setting up to 400 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>TEC 700</h2>\r\nTemperature control chambers with twin electric resistance heater (above and below the sample plate) for software control of temperature setting up to 700 °C. Work under a protective atmosphere is also facilitated via the inert gas inlet.\r\n<h2>NHD 400 / NHD 700</h2>\r\nThe NHD 400 and NHD 700 are electrical needle heating devices for generating drops at temperatures up 400 °C and 700 °C respectively (Applications areas include: polymers and hot melts, molten metals, etc.). Also extremely tenacious copolymers, with viscosities in the kPas range, e.g. with elastomer constituents, can be dosed easily at these elevated temperatures.\r\n<h2>MTFQ 1200</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1200°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the MTFQ 1200 also.\r\n<h2>HTFC 1500/1700</h2>\r\nSpecial high temperature furnace for measurements to a maximum of 1500/1700°C. Application areas include: measurement of/on liquid solders, semi-conductors, alloys and glass melts. Protective gas atmospheres can be generated and enclosed within the HTFQ 1500/1700 also.\r\n<h2>HTFC 1500/1800HV</h2>\r\nElectrically heated, high temperature, high vacuum tube furnace for use in combination with an OCA 15LHT-SV.&nbsp;\r\n<ul><li>Max. temperature: 1500/1800 °C</li><li>Max. temperature for operation under vacuum: 1450°C</li><li>Max. vacuum: 10<sup>-5</sup>&nbsp;mbar</li></ul>\r\n<br />vacuum tube:\r\nMaterial: C799<br />Outer diameter: 50 mm<br />Inner diameter: 40 mm<br />Length: 990 mm<br />-&nbsp;&nbsp;&nbsp; Prepared for horizontal operation&nbsp;<br />-&nbsp;&nbsp;&nbsp; Observation windows on both sides as additional equipment for gastight flanges<br />-&nbsp;&nbsp;&nbsp; MoSi2 heating elements, mounted vertically for easy replacement<br />-&nbsp;&nbsp;&nbsp; Insulation with vacuum-formed ceramic fibre plates for an energy-saving operation and fast heating up times<br />-&nbsp;&nbsp;&nbsp; Rectangular outer casing with slots for convection cooling<br />-&nbsp;&nbsp;&nbsp; Casing made of sheets of textured stainless steel (non-rusting design)<br />-&nbsp;&nbsp;&nbsp; Type B thermocouple<br />-&nbsp;&nbsp;&nbsp; Power unit with low-voltage transformer and thyristor controller&nbsp;<br />Typically used for the measurement of contact angle and surface tension of materials like:\r\n<div class="indent"><ul><li>Compound Materials</li><li>Steel</li><li>Alloys</li><li>Molten Glass</li></ul></div>\r\n\r\n<h2>PMC 50S</h2>\r\nPressure cell with two viewing windows and manipulation system to allow the exchange of the sample table. Facilitates the evaluation of contact angles according to the sessile and captive drop method, the measurement of surface tensions in liquid/pressurized gas systems and the interfacial tensions in liquid/liquid systems.&nbsp;\r\nIncorporates four dosing needles, for separate sessile and pendant drop measurements via four different injection liquids and a two phase pressure supply system for an external supply of the gas or liquid phases. The first pressure level is used for controlling the pressure of the primary filling liquid or gas. The higher, second pressure level is necessary for the injection dosing of the measuring liquid(s). The primary&nbsp; phase acts also a heat transfer medium.&nbsp;\r\n<ul><li>pressure range: 0.03 ... 50 bar</li><li>max. temperature: 80 °C</li></ul>\r\n<h2>HGC 20EC/20/30</h2>\r\nFor the automated regulation of the humidity of ambient clean air, nitrogen, argon, or any other inert gas in temperature controlled measuring chambers.";}}', 'bodytext', 1176, 'tt_content', 1429621289, NULL, 0);
INSERT INTO `sys_history` (`uid`, `pid`, `sys_log_uid`, `history_data`, `fieldlist`, `recuid`, `tablename`, `tstamp`, `history_files`, `snapshot`) VALUES
(4940, 0, 18409, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:7410:"<h2>Electronic tilting base unit TBU 90E</h2>\r\nThe tilting base unit, TBU 90E, is an important instrument extension for the analysis of hydrophobic materials. It allows the measurement of the advancing and receding contact angle, the rolling angle and the contact angle hysteresis of sessile drops while maintaining a constant visual plane (optics / sample). In conjunction with the SCA software; it facilitates the fully automated execution of rolling angle experiments up to a tilt angle of 90°and at freely adjustable tilt speed of 0.03 to 2.8 °/s.<br /><link http://www.dataphysics.de/?action=zoom_view&id=816&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TBA 60M<br />\r\n<h2>Manual tilting base assemblies TBA 60M</h2>\r\nTo measure advancing and receding contact angles, as well as the contact angle hysteresis of sessile drops, with a tilting range of 0 to 70°.&nbsp;<br /><link http://www.dataphysics.de/?action=zoom_view&id=851&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link><br />Measurement of the contact angle hysteresis<br /><link http://www.dataphysics.de/?action=zoom_view&id=817&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>ETT/VAC with WTP12/VAC<br /><link http://www.dataphysics.de/?action=zoom_view&id=819&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link><br />WTP 6/VAC, WTP 8/VAC and WTP 12/VAC<br />\r\n<h2>Electronic turn table with vacuum fixation ETT/VAC</h2>\r\nFor the mapping of wafers or for the automatic analysis of the surface free energy of flat samples such as paint test plates or optical lenses. The ETT/VAC can be equipped with any of a range of different top plates. The fixation of the samples on the top plates is achieved by the application of a vacuum, connected to the turn table. Below a selection out of the wide range of top plates:<br />\r\n<ul><li><strong>WTP 6/VAC</strong>&nbsp; for 6&quot; Wafer.</li><li><strong>WTP 8/VAC</strong>&nbsp; for 8&quot; Wafer</li><li><strong>WTP 12/VAC</strong>&nbsp; for 12&quot; Wafer.</li><li><strong>STP 76-26-8</strong>&nbsp;for 8 samples with 76x26x2 mm.</li><li><strong>STP 127x85-2</strong>&nbsp;for 2 samples with 127x85 mm.</li><li><strong>STP 130x100-4</strong>&nbsp;for 4 samples with61x46x0.6 mm.</li><li><strong>STP 200-5</strong>&nbsp;for 5 convex and planar lenses.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=820&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>MTT with WTP 8M<br />\r\n<h2>Manual turn table MTT</h2>\r\nFor the optional mounting of 2&quot;-, 3&quot;-, 4&quot;-, 5&quot;-, 6&quot;-, 8&quot;,-&nbsp; 12&quot;-wafer top plates (<strong>WTP xxM</strong>)&nbsp; or customer specific sample top plate (<strong>STP xxxM</strong>&nbsp;or&nbsp;<strong>SQT xxxM</strong>).<br /><link http://www.dataphysics.de/?action=zoom_view&id=828&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>FSC 80 and FSH 30<br />\r\n<h2>Film and paperholder FSH 30 and FSC 80/150</h2>\r\n<ul><li><strong>FSH 30</strong>&nbsp;special holder, made of delrin, for the contact angle measurement on thin films. Consisting of&nbsp; base (outer-ø=30 mm) and three rings (inner-ø= 30.0 / 30.1 / 30.2 mm).</li><li><strong>FSC 80</strong>&nbsp;special holder for the contact angle measurement on thin films or paper;&nbsp;<br />Maximum sample size 80 x 80 x 3 mm.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=830&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>FHO 40plus<br />\r\n<h2>Holder for single fibres FHO 40plus</h2>\r\nHolder for Single Fibres. Unconstrained by degree of fibre thickness, adjustable to match fibres length and apply required tension.- min. fibre length 25 mm, measurable fibre length 70 mm.\r\n- adjustable X- and Z-Axis.\r\n\r\nConsisting of base plate and adjustable fibre fixation.FHM 100\r\n<h2>Film or foil sample stage FHM 100</h2>\r\nSpecial sample stage with curvature for instruments of the OCA series for a convenient fixation of films or foils by magnet bars.<br />Size: 100 x 100 mm<br /><link http://www.dataphysics.de/?action=zoom_view&id=825&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SP 100<br />\r\n<h2>Suction plate SP 100</h2>\r\nFor holding thin flexible samples flat against the stage surface, with adjustable suction area and fitting for vacuum pump.<br />Size: 100 x 100 mm<br /><link http://www.dataphysics.de/?action=zoom_view&id=831&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TPL 3.0 and SVL 12/30<br />\r\n<h2>Sample vessels SVL xx and test piecesTPL xx</h2>\r\nTest pieces for use with the lamella method:<br />\r\n<ul><li><strong>TPL - 3.0</strong>&nbsp; sphere-ø = 3.0 mm.</li><li><strong>TPL - 3.5</strong>&nbsp; sphere-ø = 3.5 mm.</li><li><strong>TPL - 4.0</strong>&nbsp; sphere-ø = 4.0 mm.</li></ul>\r\n&nbsp;<br />Sample vessel for use with the lamella method:<br />\r\n<ul><li><strong>SVL 12/30</strong>&nbsp;height = 12, inner-ø= 30 mm.</li><li><strong>SVL 12/50</strong>&nbsp;height = 12, inner-ø= 50 mm.</li><li><strong>SVL 12/70</strong>&nbsp;height= 12, inner-ø= 70 mm.</li><li><strong>SVL 24/30</strong>&nbsp;height= 24, inner-ø= 30 mm.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=832&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>GC 10 and GC 20<br />\r\n<h2>Glass cell GC xx</h2>\r\nGlass cell (cuvette) made of special optical glass for measuring the interfacial tension between two fluids according to the Pendant Drop method or the contact angle of a fluid drop or a gas bubble in a fluid (e.g. Schultz method) ; up to 70° C.<br />Also available in ''high'' temperature version (GC xxHT) and made of Quatrz glass (GC xxQ); 70 to 350° C.<br />\r\n<ul><li><strong>GC 10</strong>&nbsp;glass cell 20 x 20 x 20 mm.</li><li><strong>GC 20</strong>&nbsp;glass cell 20 x 40 x 20 mm.</li><li><strong>GC 40</strong>&nbsp;glass cell 40x 40 x 40 mm.</li><li><strong>GC 60</strong>&nbsp;glass cell 60x 60 x 40 mm.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=821&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>CL 20<br />\r\n<h2>Contact lens support CL 20</h2>\r\nContact lens support for the measurement of captive bubble contact angles on soft and hard contact lenses in liquids. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).<br />\r\n<h2>Soft contact lens support SCL 21</h2>\r\nHolder for soft contact lenses with adjustable inlet pieces with 3 different radii of curvature to attach the contact lens without deformation of the shape. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).<br /><link http://www.dataphysics.de/?action=zoom_view&id=870&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SHC 20 in a GC 20 with SNC 052/026<br />\r\n<h2>Sample holder for captive bubble measurements SHC 20</h2>\r\nHolder for flat samples, prior to measurement by the captive bubble method, when deformation of sample might otherwise be a problem when submerged. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).";}s:9:"newRecord";a:1:{s:8:"bodytext";s:5239:"<h2>Electronic tilting base unit TBU 90E</h2>\r\nThe tilting base unit, TBU 90E, is an important instrument extension for the analysis of hydrophobic materials. It allows the measurement of the advancing and receding contact angle, the rolling angle and the contact angle hysteresis of sessile drops while maintaining a constant visual plane (optics / sample). In conjunction with the SCA software; it facilitates the fully automated execution of rolling angle experiments up to a tilt angle of 90°and at freely adjustable tilt speed of 0.03 to 2.8 °/s.\r\n<h2>Manual tilting base assemblies TBA 60M</h2>\r\nTo measure advancing and receding contact angles, as well as the contact angle hysteresis of sessile drops, with a tilting range of 0 to 70°.&nbsp;\r\n<h2>Electronic turn table with vacuum fixation ETT/VAC</h2>\r\nFor the mapping of wafers or for the automatic analysis of the surface free energy of flat samples such as paint test plates or optical lenses. The ETT/VAC can be equipped with any of a range of different top plates. The fixation of the samples on the top plates is achieved by the application of a vacuum, connected to the turn table. Below a selection out of the wide range of top plates:\r\n<ul><li><strong>WTP 6/VAC</strong>&nbsp; for 6&quot; Wafer.</li><li><strong>WTP 8/VAC</strong>&nbsp; for 8&quot; Wafer</li><li><strong>WTP 12/VAC</strong>&nbsp; for 12&quot; Wafer.</li><li><strong>STP 76-26-8</strong>&nbsp;for 8 samples with 76x26x2 mm.</li><li><strong>STP 127x85-2</strong>&nbsp;for 2 samples with 127x85 mm.</li><li><strong>STP 130x100-4</strong>&nbsp;for 4 samples with61x46x0.6 mm.</li><li><strong>STP 200-5</strong>&nbsp;for 5 convex and planar lenses.</li></ul>\r\n\r\n<h2>Manual turn table MTT</h2>\r\nFor the optional mounting of 2&quot;-, 3&quot;-, 4&quot;-, 5&quot;-, 6&quot;-, 8&quot;,-&nbsp; 12&quot;-wafer top plates (<b>WTP xxM</b>)&nbsp; or customer specific sample top plate (<b>STP xxxM</b>&nbsp;or&nbsp;<b>SQT xxxM</b>).\r\n<h2>Film and paperholder FSH 30 and FSC 80/150</h2>\r\n<ul><li><strong>FSH 30</strong>&nbsp;special holder, made of delrin, for the contact angle measurement on thin films. Consisting of&nbsp; base (outer-ø=30 mm) and three rings (inner-ø= 30.0 / 30.1 / 30.2 mm).</li><li><strong>FSC 80</strong>&nbsp;special holder for the contact angle measurement on thin films or paper;&nbsp;<br />Maximum sample size 80 x 80 x 3 mm.</li><li></li></ul>\r\n<h2>Holder for single fibres FHO 40plus</h2>\r\nHolder for Single Fibres. Unconstrained by degree of fibre thickness, adjustable to match fibres length and apply required tension.- min. fibre length 25 mm, measurable fibre length 70 mm.\r\n- adjustable X- and Z-Axis.\r\n\r\nConsisting of base plate and adjustable fibre fixation.FHM 100\r\n<h2>Film or foil sample stage FHM 100</h2>\r\nSpecial sample stage with curvature for instruments of the OCA series for a convenient fixation of films or foils by magnet bars.<br />Size: 100 x 100 mm\r\n<h2>Suction plate SP 100</h2>\r\nFor holding thin flexible samples flat against the stage surface, with adjustable suction area and fitting for vacuum pump.<br />Size: 100 x 100 mm\r\n<h2>Sample vessels SVL xx and test piecesTPL xx</h2>\r\nTest pieces for use with the lamella method:\r\n<ul><li><strong>TPL - 3.0</strong>&nbsp; sphere-ø = 3.0 mm.</li><li><strong>TPL - 3.5</strong>&nbsp; sphere-ø = 3.5 mm.</li><li><strong>TPL - 4.0</strong>&nbsp; sphere-ø = 4.0 mm.</li></ul>\r\n&nbsp;<br />Sample vessel for use with the lamella method:\r\n<ul><li><strong>SVL 12/30</strong>&nbsp;height = 12, inner-ø= 30 mm.</li><li><strong>SVL 12/50</strong>&nbsp;height = 12, inner-ø= 50 mm.</li><li><strong>SVL 12/70</strong>&nbsp;height= 12, inner-ø= 70 mm.</li><li><strong>SVL 24/30</strong>&nbsp;height= 24, inner-ø= 30 mm.</li></ul>\r\n<h2>Glass cell GC xx</h2>\r\nGlass cell (cuvette) made of special optical glass for measuring the interfacial tension between two fluids according to the Pendant Drop method or the contact angle of a fluid drop or a gas bubble in a fluid (e.g. Schultz method) ; up to 70° C.<br />Also available in ''high'' temperature version (GC xxHT) and made of Quatrz glass (GC xxQ); 70 to 350° C.\r\n<ul><li><strong>GC 10</strong>&nbsp;glass cell 20 x 20 x 20 mm.</li><li><strong>GC 20</strong>&nbsp;glass cell 20 x 40 x 20 mm.</li><li><strong>GC 40</strong>&nbsp;glass cell 40x 40 x 40 mm.</li><li><strong>GC 60</strong>&nbsp;glass cell 60x 60 x 40 mm.</li></ul>\r\n<h2>Contact lens support CL 20</h2>\r\nContact lens support for the measurement of captive bubble contact angles on soft and hard contact lenses in liquids. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).\r\n<h2>Soft contact lens support SCL 21</h2>\r\nHolder for soft contact lenses with adjustable inlet pieces with 3 different radii of curvature to attach the contact lens without deformation of the shape. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).\r\n<h2>Sample holder for captive bubble measurements SHC 20</h2>\r\nHolder for flat samples, prior to measurement by the captive bubble method, when deformation of sample might otherwise be a problem when submerged. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).";}}', 'bodytext', 1179, 'tt_content', 1429621372, NULL, 0),
(4941, 0, 18410, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:5239:"<h2>Electronic tilting base unit TBU 90E</h2>\r\nThe tilting base unit, TBU 90E, is an important instrument extension for the analysis of hydrophobic materials. It allows the measurement of the advancing and receding contact angle, the rolling angle and the contact angle hysteresis of sessile drops while maintaining a constant visual plane (optics / sample). In conjunction with the SCA software; it facilitates the fully automated execution of rolling angle experiments up to a tilt angle of 90°and at freely adjustable tilt speed of 0.03 to 2.8 °/s.\r\n<h2>Manual tilting base assemblies TBA 60M</h2>\r\nTo measure advancing and receding contact angles, as well as the contact angle hysteresis of sessile drops, with a tilting range of 0 to 70°.&nbsp;\r\n<h2>Electronic turn table with vacuum fixation ETT/VAC</h2>\r\nFor the mapping of wafers or for the automatic analysis of the surface free energy of flat samples such as paint test plates or optical lenses. The ETT/VAC can be equipped with any of a range of different top plates. The fixation of the samples on the top plates is achieved by the application of a vacuum, connected to the turn table. Below a selection out of the wide range of top plates:\r\n<ul><li><strong>WTP 6/VAC</strong>&nbsp; for 6&quot; Wafer.</li><li><strong>WTP 8/VAC</strong>&nbsp; for 8&quot; Wafer</li><li><strong>WTP 12/VAC</strong>&nbsp; for 12&quot; Wafer.</li><li><strong>STP 76-26-8</strong>&nbsp;for 8 samples with 76x26x2 mm.</li><li><strong>STP 127x85-2</strong>&nbsp;for 2 samples with 127x85 mm.</li><li><strong>STP 130x100-4</strong>&nbsp;for 4 samples with61x46x0.6 mm.</li><li><strong>STP 200-5</strong>&nbsp;for 5 convex and planar lenses.</li></ul>\r\n\r\n<h2>Manual turn table MTT</h2>\r\nFor the optional mounting of 2&quot;-, 3&quot;-, 4&quot;-, 5&quot;-, 6&quot;-, 8&quot;,-&nbsp; 12&quot;-wafer top plates (<b>WTP xxM</b>)&nbsp; or customer specific sample top plate (<b>STP xxxM</b>&nbsp;or&nbsp;<b>SQT xxxM</b>).\r\n<h2>Film and paperholder FSH 30 and FSC 80/150</h2>\r\n<ul><li><strong>FSH 30</strong>&nbsp;special holder, made of delrin, for the contact angle measurement on thin films. Consisting of&nbsp; base (outer-ø=30 mm) and three rings (inner-ø= 30.0 / 30.1 / 30.2 mm).</li><li><strong>FSC 80</strong>&nbsp;special holder for the contact angle measurement on thin films or paper;&nbsp;<br />Maximum sample size 80 x 80 x 3 mm.</li><li></li></ul>\r\n<h2>Holder for single fibres FHO 40plus</h2>\r\nHolder for Single Fibres. Unconstrained by degree of fibre thickness, adjustable to match fibres length and apply required tension.- min. fibre length 25 mm, measurable fibre length 70 mm.\r\n- adjustable X- and Z-Axis.\r\n\r\nConsisting of base plate and adjustable fibre fixation.FHM 100\r\n<h2>Film or foil sample stage FHM 100</h2>\r\nSpecial sample stage with curvature for instruments of the OCA series for a convenient fixation of films or foils by magnet bars.<br />Size: 100 x 100 mm\r\n<h2>Suction plate SP 100</h2>\r\nFor holding thin flexible samples flat against the stage surface, with adjustable suction area and fitting for vacuum pump.<br />Size: 100 x 100 mm\r\n<h2>Sample vessels SVL xx and test piecesTPL xx</h2>\r\nTest pieces for use with the lamella method:\r\n<ul><li><strong>TPL - 3.0</strong>&nbsp; sphere-ø = 3.0 mm.</li><li><strong>TPL - 3.5</strong>&nbsp; sphere-ø = 3.5 mm.</li><li><strong>TPL - 4.0</strong>&nbsp; sphere-ø = 4.0 mm.</li></ul>\r\n&nbsp;<br />Sample vessel for use with the lamella method:\r\n<ul><li><strong>SVL 12/30</strong>&nbsp;height = 12, inner-ø= 30 mm.</li><li><strong>SVL 12/50</strong>&nbsp;height = 12, inner-ø= 50 mm.</li><li><strong>SVL 12/70</strong>&nbsp;height= 12, inner-ø= 70 mm.</li><li><strong>SVL 24/30</strong>&nbsp;height= 24, inner-ø= 30 mm.</li></ul>\r\n<h2>Glass cell GC xx</h2>\r\nGlass cell (cuvette) made of special optical glass for measuring the interfacial tension between two fluids according to the Pendant Drop method or the contact angle of a fluid drop or a gas bubble in a fluid (e.g. Schultz method) ; up to 70° C.<br />Also available in ''high'' temperature version (GC xxHT) and made of Quatrz glass (GC xxQ); 70 to 350° C.\r\n<ul><li><strong>GC 10</strong>&nbsp;glass cell 20 x 20 x 20 mm.</li><li><strong>GC 20</strong>&nbsp;glass cell 20 x 40 x 20 mm.</li><li><strong>GC 40</strong>&nbsp;glass cell 40x 40 x 40 mm.</li><li><strong>GC 60</strong>&nbsp;glass cell 60x 60 x 40 mm.</li></ul>\r\n<h2>Contact lens support CL 20</h2>\r\nContact lens support for the measurement of captive bubble contact angles on soft and hard contact lenses in liquids. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).\r\n<h2>Soft contact lens support SCL 21</h2>\r\nHolder for soft contact lenses with adjustable inlet pieces with 3 different radii of curvature to attach the contact lens without deformation of the shape. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).\r\n<h2>Sample holder for captive bubble measurements SHC 20</h2>\r\nHolder for flat samples, prior to measurement by the captive bubble method, when deformation of sample might otherwise be a problem when submerged. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).";}s:9:"newRecord";a:1:{s:8:"bodytext";s:5228:"<h2>Electronic tilting base unit TBU 90E</h2>\r\nThe tilting base unit, TBU 90E, is an important instrument extension for the analysis of hydrophobic materials. It allows the measurement of the advancing and receding contact angle, the rolling angle and the contact angle hysteresis of sessile drops while maintaining a constant visual plane (optics / sample). In conjunction with the SCA software; it facilitates the fully automated execution of rolling angle experiments up to a tilt angle of 90°and at freely adjustable tilt speed of 0.03 to 2.8 °/s.\r\n<h2>Manual tilting base assemblies TBA 60M</h2>\r\nTo measure advancing and receding contact angles, as well as the contact angle hysteresis of sessile drops, with a tilting range of 0 to 70°.&nbsp;\r\n<h2>Electronic turn table with vacuum fixation ETT/VAC</h2>\r\nFor the mapping of wafers or for the automatic analysis of the surface free energy of flat samples such as paint test plates or optical lenses. The ETT/VAC can be equipped with any of a range of different top plates. The fixation of the samples on the top plates is achieved by the application of a vacuum, connected to the turn table. Below a selection out of the wide range of top plates:\r\n<ul><li><strong>WTP 6/VAC</strong>&nbsp; for 6&quot; Wafer.</li><li><strong>WTP 8/VAC</strong>&nbsp; for 8&quot; Wafer</li><li><strong>WTP 12/VAC</strong>&nbsp; for 12&quot; Wafer.</li><li><strong>STP 76-26-8</strong>&nbsp;for 8 samples with 76x26x2 mm.</li><li><strong>STP 127x85-2</strong>&nbsp;for 2 samples with 127x85 mm.</li><li><strong>STP 130x100-4</strong>&nbsp;for 4 samples with61x46x0.6 mm.</li><li><strong>STP 200-5</strong>&nbsp;for 5 convex and planar lenses.</li></ul>\r\n\r\n<h2>Manual turn table MTT</h2>\r\nFor the optional mounting of 2&quot;-, 3&quot;-, 4&quot;-, 5&quot;-, 6&quot;-, 8&quot;,-&nbsp; 12&quot;-wafer top plates (<b>WTP xxM</b>)&nbsp; or customer specific sample top plate (<b>STP xxxM</b>&nbsp;or&nbsp;<b>SQT xxxM</b>).\r\n<h2>Film and paperholder FSH 30 and FSC 80/150</h2>\r\n<ul><li><strong>FSH 30</strong>&nbsp;special holder, made of delrin, for the contact angle measurement on thin films. Consisting of&nbsp; base (outer-ø=30 mm) and three rings (inner-ø= 30.0 / 30.1 / 30.2 mm).</li><li><strong>FSC 80</strong>&nbsp;special holder for the contact angle measurement on thin films or paper;&nbsp;<br />Maximum sample size 80 x 80 x 3 mm.</li></ul>\r\n<h2>Holder for single fibres FHO 40plus</h2>\r\nHolder for Single Fibres. Unconstrained by degree of fibre thickness, adjustable to match fibres length and apply required tension.- min. fibre length 25 mm, measurable fibre length 70 mm.\r\n- adjustable X- and Z-Axis.\r\nConsisting of base plate and adjustable fibre fixation.FHM 100\r\n<h2>Film or foil sample stage FHM 100</h2>\r\nSpecial sample stage with curvature for instruments of the OCA series for a convenient fixation of films or foils by magnet bars.<br />Size: 100 x 100 mm\r\n<h2>Suction plate SP 100</h2>\r\nFor holding thin flexible samples flat against the stage surface, with adjustable suction area and fitting for vacuum pump.<br />Size: 100 x 100 mm\r\n<h2>Sample vessels SVL xx and test piecesTPL xx</h2>\r\nTest pieces for use with the lamella method:\r\n<ul><li><strong>TPL - 3.0</strong>&nbsp; sphere-ø = 3.0 mm.</li><li><strong>TPL - 3.5</strong>&nbsp; sphere-ø = 3.5 mm.</li><li><strong>TPL - 4.0</strong>&nbsp; sphere-ø = 4.0 mm.</li></ul>\r\n&nbsp;<br />Sample vessel for use with the lamella method:\r\n<ul><li><strong>SVL 12/30</strong>&nbsp;height = 12, inner-ø= 30 mm.</li><li><strong>SVL 12/50</strong>&nbsp;height = 12, inner-ø= 50 mm.</li><li><strong>SVL 12/70</strong>&nbsp;height= 12, inner-ø= 70 mm.</li><li><strong>SVL 24/30</strong>&nbsp;height= 24, inner-ø= 30 mm.</li></ul>\r\n<h2>Glass cell GC xx</h2>\r\nGlass cell (cuvette) made of special optical glass for measuring the interfacial tension between two fluids according to the Pendant Drop method or the contact angle of a fluid drop or a gas bubble in a fluid (e.g. Schultz method) ; up to 70° C.<br />Also available in ''high'' temperature version (GC xxHT) and made of Quatrz glass (GC xxQ); 70 to 350° C.\r\n<ul><li><strong>GC 10</strong>&nbsp;glass cell 20 x 20 x 20 mm.</li><li><strong>GC 20</strong>&nbsp;glass cell 20 x 40 x 20 mm.</li><li><strong>GC 40</strong>&nbsp;glass cell 40x 40 x 40 mm.</li><li><strong>GC 60</strong>&nbsp;glass cell 60x 60 x 40 mm.</li></ul>\r\n<h2>Contact lens support CL 20</h2>\r\nContact lens support for the measurement of captive bubble contact angles on soft and hard contact lenses in liquids. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).\r\n<h2>Soft contact lens support SCL 21</h2>\r\nHolder for soft contact lenses with adjustable inlet pieces with 3 different radii of curvature to attach the contact lens without deformation of the shape. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).\r\n<h2>Sample holder for captive bubble measurements SHC 20</h2>\r\nHolder for flat samples, prior to measurement by the captive bubble method, when deformation of sample might otherwise be a problem when submerged. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).";}}', 'bodytext', 1179, 'tt_content', 1429621409, NULL, 0),
(4942, 0, 18411, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:7290:"<h2>Electronic tilting base unit TBU 90E</h2>\r\nThe tilting base unit, TBU 90E, is an important instrument extension for the analysis of hydrophobic materials. It allows the measurement of the advancing and receding contact angle, the rolling angle and the contact angle hysteresis of sessile drops while maintaining a constant visual plane (optics / sample). In conjunction with the SCA software; it facilitates the fully automated execution of rolling angle experiments up to a tilt angle of 90°and at freely adjustable tilt speed of 0.03 to 2.8 °/s.<br /><link http://www.dataphysics.de/?action=zoom_view&id=816&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TBA 60M\r\n<h2>Manual tilting base assemblies TBA 60M</h2>\r\nTo measure advancing and receding contact angles, as well as the contact angle hysteresis of sessile drops, with a tilting range of 0 to 70°.&nbsp;<br /><link http://www.dataphysics.de/?action=zoom_view&id=851&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link><br />Measurement of the contact angle hysteresis<br /><link http://www.dataphysics.de/?action=zoom_view&id=817&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>ETT/VAC with WTP12/VAC<br /><link http://www.dataphysics.de/?action=zoom_view&id=819&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link><br />WTP 6/VAC, WTP 8/VAC and WTP 12/VAC\r\n<h2>Electronic turn table with vacuum fixation ETT/VAC</h2>\r\nFor the mapping of wafers or for the automatic analysis of the surface free energy of flat samples such as paint test plates or optical lenses. The ETT/VAC can be equipped with any of a range of different top plates. The fixation of the samples on the top plates is achieved by the application of a vacuum, connected to the turn table. Below a selection out of the wide range of top plates:\r\n<ul><li><strong>WTP 6/VAC</strong>&nbsp; for 6&quot; Wafer.</li><li><strong>WTP 8/VAC</strong>&nbsp; for 8&quot; Wafer</li><li><strong>WTP 12/VAC</strong>&nbsp; for 12&quot; Wafer.</li><li><strong>STP 76-26-8</strong>&nbsp;for 8 samples with 76x26x2 mm.</li><li><strong>STP 127x85-2</strong>&nbsp;for 2 samples with 127x85 mm.</li><li><strong>STP 130x100-4</strong>&nbsp;for 4 samples with61x46x0.6 mm.</li><li><strong>STP 200-5</strong>&nbsp;for 5 convex and planar lenses.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=820&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>MTT with WTP 8M\r\n<h2>Manual turn table MTT</h2>\r\nFor the optional mounting of 2&quot;-, 3&quot;-, 4&quot;-, 5&quot;-, 6&quot;-, 8&quot;,-&nbsp; 12&quot;-wafer top plates (<b>WTP xxM</b>)&nbsp; or customer specific sample top plate (<b>STP xxxM</b>&nbsp;or&nbsp;<b>SQT xxxM</b>).<br /><link http://www.dataphysics.de/?action=zoom_view&id=828&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>FSC 80 and FSH 30\r\n<h2>Film and paperholder FSH 30 and FSC 80/150</h2>\r\n<ul><li><strong>FSH 30</strong>&nbsp;special holder, made of delrin, for the contact angle measurement on thin films. Consisting of&nbsp; base (outer-ø=30 mm) and three rings (inner-ø= 30.0 / 30.1 / 30.2 mm).</li><li><strong>FSC 80</strong>&nbsp;special holder for the contact angle measurement on thin films or paper;&nbsp;<br />Maximum sample size 80 x 80 x 3 mm.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=830&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>FHO 40plus\r\n<h2>Holder for single fibres FHO 40plus</h2>\r\nHolder for Single Fibres. Unconstrained by degree of fibre thickness, adjustable to match fibres length and apply required tension.- min. fibre length 25 mm, measurable fibre length 70 mm.\r\n- adjustable X- and Z-Axis.\r\n\r\nConsisting of base plate and adjustable fibre fixation.FHM 100\r\n<h2>Film or foil sample stage FHM 100</h2>\r\nSpecial sample stage with curvature for instruments of the OCA series for a convenient fixation of films or foils by magnet bars.<br />Size: 100 x 100 mm<br /><link http://www.dataphysics.de/?action=zoom_view&id=825&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SP 100\r\n<h2>Suction plate SP 100</h2>\r\nFor holding thin flexible samples flat against the stage surface, with adjustable suction area and fitting for vacuum pump.<br />Size: 100 x 100 mm<br /><link http://www.dataphysics.de/?action=zoom_view&id=831&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TPL 3.0 and SVL 12/30\r\n<h2>Sample vessels SVL xx and test piecesTPL xx</h2>\r\nTest pieces for use with the lamella method:\r\n<ul><li><strong>TPL - 3.0</strong>&nbsp; sphere-ø = 3.0 mm.</li><li><strong>TPL - 3.5</strong>&nbsp; sphere-ø = 3.5 mm.</li><li><strong>TPL - 4.0</strong>&nbsp; sphere-ø = 4.0 mm.</li></ul>\r\n&nbsp;<br />Sample vessel for use with the lamella method:\r\n<ul><li><strong>SVL 12/30</strong>&nbsp;height = 12, inner-ø= 30 mm.</li><li><strong>SVL 12/50</strong>&nbsp;height = 12, inner-ø= 50 mm.</li><li><strong>SVL 12/70</strong>&nbsp;height= 12, inner-ø= 70 mm.</li><li><strong>SVL 24/30</strong>&nbsp;height= 24, inner-ø= 30 mm.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=832&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>GC 10 and GC 20\r\n<h2>Glass cell GC xx</h2>\r\nGlass cell (cuvette) made of special optical glass for measuring the interfacial tension between two fluids according to the Pendant Drop method or the contact angle of a fluid drop or a gas bubble in a fluid (e.g. Schultz method) ; up to 70° C.<br />Also available in ''high'' temperature version (GC xxHT) and made of Quatrz glass (GC xxQ); 70 to 350° C.\r\n<ul><li><strong>GC 10</strong>&nbsp;glass cell 20 x 20 x 20 mm.</li><li><strong>GC 20</strong>&nbsp;glass cell 20 x 40 x 20 mm.</li><li><strong>GC 40</strong>&nbsp;glass cell 40x 40 x 40 mm.</li><li><strong>GC 60</strong>&nbsp;glass cell 60x 60 x 40 mm.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=821&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>CL 20\r\n<h2>Contact lens support CL 20</h2>\r\nContact lens support for the measurement of captive bubble contact angles on soft and hard contact lenses in liquids. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).\r\n<h2>Soft contact lens support SCL 21</h2>\r\nHolder for soft contact lenses with adjustable inlet pieces with 3 different radii of curvature to attach the contact lens without deformation of the shape. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).<br /><link http://www.dataphysics.de/?action=zoom_view&id=870&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SHC 20 in a GC 20 with SNC 052/026\r\n<h2>Sample holder for captive bubble measurements SHC 20</h2>\r\nHolder for flat samples, prior to measurement by the captive bubble method, when deformation of sample might otherwise be a problem when submerged. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).";}s:9:"newRecord";a:1:{s:8:"bodytext";s:6758:"<h2>Electronic tilting base unit TBU 90E</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">The tilting base unit, TBU 90E, is an important instrument extension for the analysis of hydrophobic materials. It allows the measurement of the advancing and receding contact angle, the rolling angle and the contact angle hysteresis of sessile drops while maintaining a constant visual plane (optics / sample). In conjunction with the SCA software; it facilitates the fully automated execution of rolling angle experiments up to a tilt angle of 90°and at freely adjustable tilt speed of 0.03 to 2.8 °/s.</p></h2>\r\n<h2>Manual tilting base assemblies TBA 60M</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">To measure advancing and receding contact angles, as well as the contact angle hysteresis of sessile drops, with a tilting range of 0 to 70°.&nbsp;</p></h2>\r\n<h2>Electronic turn table with vacuum fixation ETT/VAC</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">For the mapping of wafers or for the automatic analysis of the surface free energy of flat samples such as paint test plates or optical lenses. The ETT/VAC can be equipped with any of a range of different top plates. The fixation of the samples on the top plates is achieved by the application of a vacuum, connected to the turn table. Below a selection out of the wide range of top plates:</p><ul style="font-size: 11.9999990463257px; font-weight: normal; "><li><strong>WTP 6/VAC</strong>&nbsp; for 6&quot; Wafer.</li><li><strong>WTP 8/VAC</strong>&nbsp; for 8&quot; Wafer</li><li><strong>WTP 12/VAC</strong>&nbsp; for 12&quot; Wafer.</li><li><strong>STP 76-26-8</strong>&nbsp;for 8 samples with 76x26x2 mm.</li><li><strong>STP 127x85-2</strong>&nbsp;for 2 samples with 127x85 mm.</li><li><strong>STP 130x100-4</strong>&nbsp;for 4 samples with61x46x0.6 mm.</li><li><strong>STP 200-5</strong>&nbsp;for 5 convex and planar lenses.</li></ul><p style="font-size: 11.9999990463257px; font-weight: normal; ">&nbsp;</p></h2>\r\n<h2>Manual turn table MTT</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">For the optional mounting of 2&quot;-, 3&quot;-, 4&quot;-, 5&quot;-, 6&quot;-, 8&quot;,-&nbsp; 12&quot;-wafer top plates (<strong>WTP xxM</strong>)&nbsp; or customer specific sample top plate (<strong>STP xxxM</strong>&nbsp;or&nbsp;<strong>SQT xxxM</strong>).</p></h2>\r\n<h2>Film and paperholder FSH 30 and FSC 80/150</h2>\r\n<h2><ul style="font-size: 11.9999990463257px; font-weight: normal; "><li><strong>FSH 30</strong>&nbsp;special holder, made of delrin, for the contact angle measurement on thin films. Consisting of&nbsp; base (outer-ø=30 mm) and three rings (inner-ø= 30.0 / 30.1 / 30.2 mm).</li><li><strong>FSC 80</strong>&nbsp;special holder for the contact angle measurement on thin films or paper;&nbsp;<br />Maximum sample size 80 x 80 x 3 mm.</li></ul></h2>\r\n<h2>Holder for single fibres FHO 40plus</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">Holder for Single Fibres. Unconstrained by degree of fibre thickness, adjustable to match fibres length and apply required tension.- min. fibre length 25 mm, measurable fibre length 70 mm.</p><p style="font-size: 11.9999990463257px; font-weight: normal; ">- adjustable X- and Z-Axis.</p><p style="font-size: 11.9999990463257px; font-weight: normal; ">Consisting of base plate and adjustable fibre fixation.FHM 100</p></h2>\r\n<h2>Film or foil sample stage FHM 100</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">Special sample stage with curvature for instruments of the OCA series for a convenient fixation of films or foils by magnet bars.<br />Size: 100 x 100 mm</p></h2>\r\n<h2>Suction plate SP 100</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">For holding thin flexible samples flat against the stage surface, with adjustable suction area and fitting for vacuum pump.<br />Size: 100 x 100 mm</p></h2>\r\n<h2>Sample vessels SVL xx and test piecesTPL xx</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">Test pieces for use with the lamella method:</p><ul style="font-size: 11.9999990463257px; font-weight: normal; "><li><strong>TPL - 3.0</strong>&nbsp; sphere-ø = 3.0 mm.</li><li><strong>TPL - 3.5</strong>&nbsp; sphere-ø = 3.5 mm.</li><li><strong>TPL - 4.0</strong>&nbsp; sphere-ø = 4.0 mm.</li></ul><p style="font-size: 11.9999990463257px; font-weight: normal; ">&nbsp;<br />Sample vessel for use with the lamella method:</p><ul style="font-size: 11.9999990463257px; font-weight: normal; "><li><strong>SVL 12/30</strong>&nbsp;height = 12, inner-ø= 30 mm.</li><li><strong>SVL 12/50</strong>&nbsp;height = 12, inner-ø= 50 mm.</li><li><strong>SVL 12/70</strong>&nbsp;height= 12, inner-ø= 70 mm.</li><li><strong>SVL 24/30</strong>&nbsp;height= 24, inner-ø= 30 mm.</li></ul></h2>\r\n<h2>Glass cell GC xx</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">Glass cell (cuvette) made of special optical glass for measuring the interfacial tension between two fluids according to the Pendant Drop method or the contact angle of a fluid drop or a gas bubble in a fluid (e.g. Schultz method) ; up to 70° C.<br />Also available in ''high'' temperature version (GC xxHT) and made of Quatrz glass (GC xxQ); 70 to 350° C.</p><ul style="font-size: 11.9999990463257px; font-weight: normal; "><li><strong>GC 10</strong>&nbsp;glass cell 20 x 20 x 20 mm.</li><li><strong>GC 20</strong>&nbsp;glass cell 20 x 40 x 20 mm.</li><li><strong>GC 40</strong>&nbsp;glass cell 40x 40 x 40 mm.</li><li><strong>GC 60</strong>&nbsp;glass cell 60x 60 x 40 mm.</li></ul></h2>\r\n<h2>Contact lens support CL 20</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">Contact lens support for the measurement of captive bubble contact angles on soft and hard contact lenses in liquids. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).</p></h2>\r\n<h2>Soft contact lens support SCL 21</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">Holder for soft contact lenses with adjustable inlet pieces with 3 different radii of curvature to attach the contact lens without deformation of the shape. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).</p></h2>\r\n<h2>Sample holder for captive bubble measurements SHC 20</h2>\r\n<h2><p style="font-size: 11.9999990463257px; font-weight: normal; ">Holder for flat samples, prior to measurement by the captive bubble method, when deformation of sample might otherwise be a problem when submerged. Used in combination with captive bubble equipment (glass cell GC 20, needle SNC 052/026).</p></h2>";}}', 'bodytext', 1180, 'tt_content', 1429621425, NULL, 0),
(4943, 0, 18412, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:2806:"<ul><li>Control of electronic syringe modules, tilting and turn tables and all other software controlable modules within the OCA accessory range.</li><li>Video based measurement and presentation of the static and dynamic contact angle according to the “Sessile &amp; Captive Drop-method” on plan, convex, and concave surfaces.</li><li>Automated measurement of the contact angle hysteresis.</li><li>Recording of movie sequences.</li><li>Statistics and measurement error analysis.</li><li>Gas, liquid, and solids database with currently more than 170 records for all surface energy analysis methods including related citations.</li></ul>\r\nSCA 21 Analysis of the wetting properties of printing ink\r\n<h2>SCA 21 — surface free energy</h2>\r\n<ul><li>Analysis of the surface free energy of solids, as well as the contributing components (e.g. dispersive, polar and hydrogen bond parts, acid and base portions, respectively) according to nine different theories.</li><li>Representation of wetting envelopes and work of adhesion/contact angle diagrams.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=835&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SCA 22 Measurement of the surface tension of a molten aluminium droplet<br />\r\n<h2>SCA 22 — pendant drop</h2>\r\n<ul><li>Analysis of surface and interfacial tension, as well as the polar and dispersive contributions, based on the analysis of the drop shape.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=836&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SCA 22 Measurement of the interfacial tension of molten glass<br />\r\n<h2>SCA 23 — lamella contour</h2>\r\n<ul><li>Analysis of surface and interfacial tension based on the evaluation of the lamella contour.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=837&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SCA 24 Analysis of the wetting behaviour of a liquid droplet on an human hair (diameter about 80µm)&nbsp;<br />\r\n<h2>SCA 24 — drop on fibre</h2>\r\n<ul><li>Analysis of the static contact angle according to the generalized length-width-method for the drop-on-fibre or wetted fibre setup and the dynamic contact angle according to the lamella-ring-method.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=841&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SCA 26 Determination of the real and imaginary part of the interfacial dilatational modulus<br />\r\n<h2>SCA 26 — oscillating/relaxing drop</h2>\r\n<ul><li>Analysis of the real and imaginary part of the interfacial dilatational modulus based on the oscillating or relaxing contour of pendant drops.</li></ul>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:1857:"<ul><li>Control of electronic syringe modules, tilting and turn tables and all other software controlable modules within the OCA accessory range.</li><li>Video based measurement and presentation of the static and dynamic contact angle according to the “Sessile &amp; Captive Drop-method” on plan, convex, and concave surfaces.</li><li>Automated measurement of the contact angle hysteresis.</li><li>Recording of movie sequences.</li><li>Statistics and measurement error analysis.</li><li>Gas, liquid, and solids database with currently more than 170 records for all surface energy analysis methods including related citations.</li></ul>\r\nSCA 21 Analysis of the wetting properties of printing ink\r\n<h2>SCA 21 — surface free energy</h2>\r\n<ul><li>Analysis of the surface free energy of solids, as well as the contributing components (e.g. dispersive, polar and hydrogen bond parts, acid and base portions, respectively) according to nine different theories.</li><li>Representation of wetting envelopes and work of adhesion/contact angle diagrams.</li></ul>\r\n<h2>SCA 22 — pendant drop</h2>\r\n<ul><li>Analysis of surface and interfacial tension, as well as the polar and dispersive contributions, based on the analysis of the drop shape.</li></ul>\r\n<h2>SCA 23 — lamella contour</h2>\r\n<ul><li>Analysis of surface and interfacial tension based on the evaluation of the lamella contour.</li></ul>\r\n<h2>SCA 24 — drop on fibre</h2>\r\n<ul><li>Analysis of the static contact angle according to the generalized length-width-method for the drop-on-fibre or wetted fibre setup and the dynamic contact angle according to the lamella-ring-method.</li></ul>\r\n<h2>SCA 26 — oscillating/relaxing drop</h2>\r\n<ul><li>Analysis of the real and imaginary part of the interfacial dilatational modulus based on the oscillating or relaxing contour of pendant drops.</li></ul>";}}', 'bodytext', 1182, 'tt_content', 1429621487, NULL, 0),
(4944, 0, 18413, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:2806:"<ul><li>Control of electronic syringe modules, tilting and turn tables and all other software controlable modules within the OCA accessory range.</li><li>Video based measurement and presentation of the static and dynamic contact angle according to the “Sessile &amp; Captive Drop-method” on plan, convex, and concave surfaces.</li><li>Automated measurement of the contact angle hysteresis.</li><li>Recording of movie sequences.</li><li>Statistics and measurement error analysis.</li><li>Gas, liquid, and solids database with currently more than 170 records for all surface energy analysis methods including related citations.</li></ul>\r\nSCA 21 Analysis of the wetting properties of printing ink\r\n<h2>SCA 21 — surface free energy</h2>\r\n<ul><li>Analysis of the surface free energy of solids, as well as the contributing components (e.g. dispersive, polar and hydrogen bond parts, acid and base portions, respectively) according to nine different theories.</li><li>Representation of wetting envelopes and work of adhesion/contact angle diagrams.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=835&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SCA 22 Measurement of the surface tension of a molten aluminium droplet<br />\r\n<h2>SCA 22 — pendant drop</h2>\r\n<ul><li>Analysis of surface and interfacial tension, as well as the polar and dispersive contributions, based on the analysis of the drop shape.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=836&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SCA 22 Measurement of the interfacial tension of molten glass<br />\r\n<h2>SCA 23 — lamella contour</h2>\r\n<ul><li>Analysis of surface and interfacial tension based on the evaluation of the lamella contour.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=837&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SCA 24 Analysis of the wetting behaviour of a liquid droplet on an human hair (diameter about 80µm)&nbsp;<br />\r\n<h2>SCA 24 — drop on fibre</h2>\r\n<ul><li>Analysis of the static contact angle according to the generalized length-width-method for the drop-on-fibre or wetted fibre setup and the dynamic contact angle according to the lamella-ring-method.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=841&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>SCA 26 Determination of the real and imaginary part of the interfacial dilatational modulus<br />\r\n<h2>SCA 26 — oscillating/relaxing drop</h2>\r\n<ul><li>Analysis of the real and imaginary part of the interfacial dilatational modulus based on the oscillating or relaxing contour of pendant drops.</li></ul>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:2082:"<ul><li>Control of electronic syringe modules, tilting and turn tables and all other software controlable modules within the OCA accessory range.</li><li>Video based measurement and presentation of the static and dynamic contact angle according to the “Sessile &amp; Captive Drop-method” on plan, convex, and concave surfaces.</li><li>Automated measurement of the contact angle hysteresis.</li><li>Recording of movie sequences.</li><li>Statistics and measurement error analysis.</li><li>Gas, liquid, and solids database with currently more than 170 records for all surface energy analysis methods including related citations.</li><p style="font-size: 11.9999990463257px; ">SCA 21 Analysis of the wetting properties of printing ink</p><h2>SCA 21 — surface free energy</h2><ul style="font-size: 11.9999990463257px; "><li>Analysis of the surface free energy of solids, as well as the contributing components (e.g. dispersive, polar and hydrogen bond parts, acid and base portions, respectively) according to nine different theories.</li><li>Representation of wetting envelopes and work of adhesion/contact angle diagrams.</li></ul><h2>SCA 22 — pendant drop</h2><ul style="font-size: 11.9999990463257px; "><li>Analysis of surface and interfacial tension, as well as the polar and dispersive contributions, based on the analysis of the drop shape.</li></ul><h2>SCA 23 — lamella contour</h2><ul style="font-size: 11.9999990463257px; "><li>Analysis of surface and interfacial tension based on the evaluation of the lamella contour.</li></ul><h2>SCA 24 — drop on fibre</h2><ul style="font-size: 11.9999990463257px; "><li>Analysis of the static contact angle according to the generalized length-width-method for the drop-on-fibre or wetted fibre setup and the dynamic contact angle according to the lamella-ring-method.</li></ul><h2>SCA 26 — oscillating/relaxing drop</h2><ul style="font-size: 11.9999990463257px; "><li>Analysis of the real and imaginary part of the interfacial dilatational modulus based on the oscillating or relaxing contour of pendant drops.</li></ul></ul>";}}', 'bodytext', 1183, 'tt_content', 1429621505, NULL, 0);
INSERT INTO `sys_history` (`uid`, `pid`, `sys_log_uid`, `history_data`, `fieldlist`, `recuid`, `tablename`, `tstamp`, `history_files`, `snapshot`) VALUES
(4945, 0, 18414, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:5921:"DataPhysics provide several sets of optical standards for the validation/verification of total instrument (hardware and software) performance. Each glass slide features a standard sessile, pendant drop or lamella contour for image capture and subsequent analysis. The comparison of the calculated contact angle or the surface/interfacial tension mea­sure­ment with that stated on the slide is a crucial factor in the evaluation of instrument performance and reliability. All slides are manufactured with the highest precision, as per ISO 9001, in a controlled photolithographic process to serve as reliable references for the precision of measured data.\r\n<ul><li>OCAS basic set&nbsp;three optical drop shape standards for the validation of the contact angle and the surface and interfacial tension measurement according to the height/width method, the Young-Laplace method, and the pendant drop method.</li><li>OCAS/HW&nbsp;­four optical contact angle standards according to the height/width method (15° ± 0.09°, 30° ± 0.09°, 60° ± 0.07°, 120° ± 0.04°).</li><li>OCAS/HW-LOW&nbsp; three optical contact angle standards according to the height/width method (15° ± 0.09°, 10° ± 0.09°, 5° ± 0.09°).</li><li>OCAS/YL&nbsp;three optical contact angle standards according to&nbsp; the Young/Laplace method (30° ± 0.09°, 60° ± 0.07°, 120° ± 0.04°).</li><li>OCAS/YL-HIGH&nbsp;four optical contact angle standards according to&nbsp; the Young/Laplace method (160° ± 0.04°, 165° ± 0.04°, 170° ± 0.04°, 175° ± 0.04°).</li><li>OCAS/PD&nbsp;four optical Pendant Drop standards (20, 35, 50 and 72.8 mN/m; ± 0.02 mN/m).</li><li>OCAS/LA&nbsp; two optical lamella standards (20 and 35 mN/m; ± 0.02 mN/m) and one Vertical-Rod standard (CA = 30° ± 0,09° and SFT 50 ± 0,02 mN/m).</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=858&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>KP 40\r\n<h2>KeyPad for OCA 35/40 Micro KP 40</h2>\r\nFor controlling, outside of the software, the position of the motorized X-, Y-, Z-axes, the tilting angle of a tilting base unit, TBU 90E, the angle of an electronic turn table, ETT, and of the focus and observation angle (only OCA 40) of the optical system. The X,Y,Z co-ordinates of a sample table or the angle/position of a tilting unit/turn table, adjusted by the keypad, can be transferred into the SCA 20 software in order to facilitate the automated return to an optimised position during a subsequent automated measurement routine.<br /><link http://www.dataphysics.de/?action=zoom_view&id=861&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TV-VS mounted on an OCA 40 Micro\r\n<h2>Top view video system module for OCA TV-VS</h2>\r\nAll OCA systems can be equipped with the top view video system TV-VS, to provide an alternative view of the positioning of the dispensed drop on the surface. The USB camera, with up to 87 images per second, together with the high performance 6x parfocal zoom lens and the adjustable observation angle enables a detailed view to your sample.<br /><link http://www.dataphysics.de/?action=zoom_view&id=856&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>ODG 20 in combination with an OCA 30\r\n<h2>Oscillating drop generator ODG 20</h2>\r\nFor the measurement of surface elasticities and for relaxational studies at phase boundaries, DataPhysics has developed the oscillating drop generator, ODG 20, and the innovative oscillating drop generator ODG 20P with a high resolution pressure sensor. This extension to the pendant drop contour analysis capability of the OCA series – based on a piezoelectric transducer – excites oscillating drops with a wide range of frequencies and amplitudes. Periodic variations in the drop volume, or alternatively in the drop shape, with constant volume, can be performed. The excitation frequency ranges up to 50 Hz, depending on the density and viscosity of the fluid. The amplitude of the axis-symmetric oscillations varies from micrometers to millimeters. The oscillating drops can be analyzed by conventional drop contour analysis or by the new approach of pressure measurement with the high-performance pressure sensor (ODG 20P).<br /><link http://www.dataphysics.de/?action=zoom_view&id=869&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>EWP 100\r\n<h2>Electro wetting platform EWP 100</h2>\r\nThe way in which a defined electrical field influences the wetting and adsorption behaviour of modern, engineered, materials is becoming relevant to an increasing number of applications. The EWP 100 facilitates the analysis of pendant drops and sessile drops, incident with solid surfaces, under a user definable electrical field.<link http://www.dataphysics.de/?action=zoom_view&id=853&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>LIA-MD\r\n<h2>Liquid injection system LIA-MD</h2>\r\nThe LIA-MD facilitates the study of the effect, on a drops surface, of adding a second liquid directly into that first drop. This special accessory enables the rapid addition of a second liquid, usually a surface-active or chemically reactive phase, into a drop already visible through the OCA optics and displayed on the monitor. The relaxation (back to interfacial equilibrium with the surrounding medium) of the original drop can be observed and evaluated via the SCA software. The overall response time, together with the rates of change of surface and interfacial tensions, during the relaxation process, are indicative of the reactivity of the liquids under study. Developments of synthetic eye and lung fluids, for medical purposes, have already benefitted from studies of this type and more innovative applications are expected in the field of protein and surfactant engineering.";}s:9:"newRecord";a:1:{s:8:"bodytext";s:5080:"DataPhysics provide several sets of optical standards for the validation/verification of total instrument (hardware and software) performance. Each glass slide features a standard sessile, pendant drop or lamella contour for image capture and subsequent analysis. The comparison of the calculated contact angle or the surface/interfacial tension mea­sure­ment with that stated on the slide is a crucial factor in the evaluation of instrument performance and reliability. All slides are manufactured with the highest precision, as per ISO 9001, in a controlled photolithographic process to serve as reliable references for the precision of measured data.\r\n<ul><li>OCAS basic set&nbsp;three optical drop shape standards for the validation of the contact angle and the surface and interfacial tension measurement according to the height/width method, the Young-Laplace method, and the pendant drop method.</li><li>OCAS/HW&nbsp;­four optical contact angle standards according to the height/width method (15° ± 0.09°, 30° ± 0.09°, 60° ± 0.07°, 120° ± 0.04°).</li><li>OCAS/HW-LOW&nbsp; three optical contact angle standards according to the height/width method (15° ± 0.09°, 10° ± 0.09°, 5° ± 0.09°).</li><li>OCAS/YL&nbsp;three optical contact angle standards according to&nbsp; the Young/Laplace method (30° ± 0.09°, 60° ± 0.07°, 120° ± 0.04°).</li><li>OCAS/YL-HIGH&nbsp;four optical contact angle standards according to&nbsp; the Young/Laplace method (160° ± 0.04°, 165° ± 0.04°, 170° ± 0.04°, 175° ± 0.04°).</li><li>OCAS/PD&nbsp;four optical Pendant Drop standards (20, 35, 50 and 72.8 mN/m; ± 0.02 mN/m).</li><li>OCAS/LA&nbsp; two optical lamella standards (20 and 35 mN/m; ± 0.02 mN/m) and one Vertical-Rod standard (CA = 30° ± 0,09° and SFT 50 ± 0,02 mN/m).</li></ul>\r\n<h2>KeyPad for OCA 35/40 Micro KP 40</h2>\r\nFor controlling, outside of the software, the position of the motorized X-, Y-, Z-axes, the tilting angle of a tilting base unit, TBU 90E, the angle of an electronic turn table, ETT, and of the focus and observation angle (only OCA 40) of the optical system. The X,Y,Z co-ordinates of a sample table or the angle/position of a tilting unit/turn table, adjusted by the keypad, can be transferred into the SCA 20 software in order to facilitate the automated return to an optimised position during a subsequent automated measurement routine.\r\n<h2>Top view video system module for OCA TV-VS</h2>\r\nAll OCA systems can be equipped with the top view video system TV-VS, to provide an alternative view of the positioning of the dispensed drop on the surface. The USB camera, with up to 87 images per second, together with the high performance 6x parfocal zoom lens and the adjustable observation angle enables a detailed view to your sample.\r\n<h2>Oscillating drop generator ODG 20</h2>\r\nFor the measurement of surface elasticities and for relaxational studies at phase boundaries, DataPhysics has developed the oscillating drop generator, ODG 20, and the innovative oscillating drop generator ODG 20P with a high resolution pressure sensor. This extension to the pendant drop contour analysis capability of the OCA series – based on a piezoelectric transducer – excites oscillating drops with a wide range of frequencies and amplitudes. Periodic variations in the drop volume, or alternatively in the drop shape, with constant volume, can be performed. The excitation frequency ranges up to 50 Hz, depending on the density and viscosity of the fluid. The amplitude of the axis-symmetric oscillations varies from micrometers to millimeters. The oscillating drops can be analyzed by conventional drop contour analysis or by the new approach of pressure measurement with the high-performance pressure sensor (ODG 20P).\r\n<h2>Electro wetting platform EWP 100</h2>\r\nThe way in which a defined electrical field influences the wetting and adsorption behaviour of modern, engineered, materials is becoming relevant to an increasing number of applications. The EWP 100 facilitates the analysis of pendant drops and sessile drops, incident with solid surfaces, under a user definable electrical field.\r\n<h2>Liquid injection system LIA-MD</h2>\r\nThe LIA-MD facilitates the study of the effect, on a drops surface, of adding a second liquid directly into that first drop. This special accessory enables the rapid addition of a second liquid, usually a surface-active or chemically reactive phase, into a drop already visible through the OCA optics and displayed on the monitor. The relaxation (back to interfacial equilibrium with the surrounding medium) of the original drop can be observed and evaluated via the SCA software. The overall response time, together with the rates of change of surface and interfacial tensions, during the relaxation process, are indicative of the reactivity of the liquids under study. Developments of synthetic eye and lung fluids, for medical purposes, have already benefitted from studies of this type and more innovative applications are expected in the field of protein and surfactant engineering.";}}', 'bodytext', 1188, 'tt_content', 1429621590, NULL, 0),
(4946, 0, 18415, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:6142:"DataPhysics provide several sets of optical standards for the validation/verification of total instrument (hardware and software) performance. Each glass slide features a standard sessile, pendant drop or lamella contour for image capture and subsequent analysis. The comparison of the calculated contact angle or the surface/interfacial tension mea­sure­ment with that stated on the slide is a crucial factor in the evaluation of instrument performance and reliability. All slides are manufactured with the highest precision, as per ISO 9001, in a controlled photolithographic process to serve as reliable references for the precision of measured data.\r\n<ul><li>OCAS basic set&nbsp;three optical drop shape standards for the validation of the contact angle and the surface and interfacial tension measurement according to the height/width method, the Young-Laplace method, and the pendant drop method.</li><li>OCAS/HW&nbsp;­four optical contact angle standards according to the height/width method (15° ± 0.09°, 30° ± 0.09°, 60° ± 0.07°, 120° ± 0.04°).</li><li>OCAS/HW-LOW&nbsp; three optical contact angle standards according to the height/width method (15° ± 0.09°, 10° ± 0.09°, 5° ± 0.09°).</li><li>OCAS/YL&nbsp;three optical contact angle standards according to&nbsp; the Young/Laplace method (30° ± 0.09°, 60° ± 0.07°, 120° ± 0.04°).</li><li>OCAS/YL-HIGH&nbsp;four optical contact angle standards according to&nbsp; the Young/Laplace method (160° ± 0.04°, 165° ± 0.04°, 170° ± 0.04°, 175° ± 0.04°).</li><li>OCAS/PD&nbsp;four optical Pendant Drop standards (20, 35, 50 and 72.8 mN/m; ± 0.02 mN/m).</li><li>OCAS/LA&nbsp; two optical lamella standards (20 and 35 mN/m; ± 0.02 mN/m) and one Vertical-Rod standard (CA = 30° ± 0,09° and SFT 50 ± 0,02 mN/m).</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=858&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>KP 40<br />\r\n<h2>KeyPad for OCA 35/40 Micro KP 40</h2>\r\nFor controlling, outside of the software, the position of the motorized X-, Y-, Z-axes, the tilting angle of a tilting base unit, TBU 90E, the angle of an electronic turn table, ETT, and of the focus and observation angle (only OCA 40) of the optical system. The X,Y,Z co-ordinates of a sample table or the angle/position of a tilting unit/turn table, adjusted by the keypad, can be transferred into the SCA 20 software in order to facilitate the automated return to an optimised position during a subsequent automated measurement routine.<br /><link http://www.dataphysics.de/?action=zoom_view&id=861&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>TV-VS mounted on an OCA 40 Micro<br />\r\n<h2>Top view video system module for OCA TV-VS</h2>\r\nAll OCA systems can be equipped with the top view video system TV-VS, to provide an alternative view of the positioning of the dispensed drop on the surface. The USB camera, with up to 87 images per second, together with the high performance 6x parfocal zoom lens and the adjustable observation angle enables a detailed view to your sample.<br /><link http://www.dataphysics.de/?action=zoom_view&id=856&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>ODG 20 in combination with an OCA 30<br /><link http://www.dataphysics.de/?action=document&invisible=1&id=941>Data sheet ODG 20</link><br /><link http://www.dataphysics.de/?action=document&invisible=1&id=942>Data sheet ODG 20P</link><br />\r\n<h2>Oscillating drop generator ODG 20</h2>\r\nFor the measurement of surface elasticities and for relaxational studies at phase boundaries, DataPhysics has developed the oscillating drop generator, ODG 20, and the innovative oscillating drop generator ODG 20P with a high resolution pressure sensor. This extension to the pendant drop contour analysis capability of the OCA series – based on a piezoelectric transducer – excites oscillating drops with a wide range of frequencies and amplitudes. Periodic variations in the drop volume, or alternatively in the drop shape, with constant volume, can be performed. The excitation frequency ranges up to 50 Hz, depending on the density and viscosity of the fluid. The amplitude of the axis-symmetric oscillations varies from micrometers to millimeters. The oscillating drops can be analyzed by conventional drop contour analysis or by the new approach of pressure measurement with the high-performance pressure sensor (ODG 20P).<br /><link http://www.dataphysics.de/?action=zoom_view&id=869&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>EWP 100<br />\r\n<h2>Electro wetting platform EWP 100</h2>\r\nThe way in which a defined electrical field influences the wetting and adsorption behaviour of modern, engineered, materials is becoming relevant to an increasing number of applications. The EWP 100 facilitates the analysis of pendant drops and sessile drops, incident with solid surfaces, under a user definable electrical field.<link http://www.dataphysics.de/?action=zoom_view&id=853&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>LIA-MD\r\n<h2>Liquid injection system LIA-MD</h2>\r\nThe LIA-MD facilitates the study of the effect, on a drops surface, of adding a second liquid directly into that first drop. This special accessory enables the rapid addition of a second liquid, usually a surface-active or chemically reactive phase, into a drop already visible through the OCA optics and displayed on the monitor. The relaxation (back to interfacial equilibrium with the surrounding medium) of the original drop can be observed and evaluated via the SCA software. The overall response time, together with the rates of change of surface and interfacial tensions, during the relaxation process, are indicative of the reactivity of the liquids under study. Developments of synthetic eye and lung fluids, for medical purposes, have already benefitted from studies of this type and more innovative applications are expected in the field of protein and surfactant engineering.";}s:9:"newRecord";a:1:{s:8:"bodytext";s:5402:"<p style="font-size: 11.9999990463257px; ">DataPhysics provide several sets of optical standards for the validation/verification of total instrument (hardware and software) performance. Each glass slide features a standard sessile, pendant drop or lamella contour for image capture and subsequent analysis. The comparison of the calculated contact angle or the surface/interfacial tension mea­sure­ment with that stated on the slide is a crucial factor in the evaluation of instrument performance and reliability. All slides are manufactured with the highest precision, as per ISO 9001, in a controlled photolithographic process to serve as reliable references for the precision of measured data.</p>\r\n<ul style="font-size: 11.9999990463257px; "><li>OCAS basic set&nbsp;three optical drop shape standards for the validation of the contact angle and the surface and interfacial tension measurement according to the height/width method, the Young-Laplace method, and the pendant drop method.</li><li>OCAS/HW&nbsp;­four optical contact angle standards according to the height/width method (15° ± 0.09°, 30° ± 0.09°, 60° ± 0.07°, 120° ± 0.04°).</li><li>OCAS/HW-LOW&nbsp; three optical contact angle standards according to the height/width method (15° ± 0.09°, 10° ± 0.09°, 5° ± 0.09°).</li><li>OCAS/YL&nbsp;three optical contact angle standards according to&nbsp; the Young/Laplace method (30° ± 0.09°, 60° ± 0.07°, 120° ± 0.04°).</li><li>OCAS/YL-HIGH&nbsp;four optical contact angle standards according to&nbsp; the Young/Laplace method (160° ± 0.04°, 165° ± 0.04°, 170° ± 0.04°, 175° ± 0.04°).</li><li>OCAS/PD&nbsp;four optical Pendant Drop standards (20, 35, 50 and 72.8 mN/m; ± 0.02 mN/m).</li><li>OCAS/LA&nbsp; two optical lamella standards (20 and 35 mN/m; ± 0.02 mN/m) and one Vertical-Rod standard (CA = 30° ± 0,09° and SFT 50 ± 0,02 mN/m).</li></ul>\r\n<h2>KeyPad for OCA 35/40 Micro KP 40</h2>\r\n<p style="font-size: 11.9999990463257px; ">For controlling, outside of the software, the position of the motorized X-, Y-, Z-axes, the tilting angle of a tilting base unit, TBU 90E, the angle of an electronic turn table, ETT, and of the focus and observation angle (only OCA 40) of the optical system. The X,Y,Z co-ordinates of a sample table or the angle/position of a tilting unit/turn table, adjusted by the keypad, can be transferred into the SCA 20 software in order to facilitate the automated return to an optimised position during a subsequent automated measurement routine.</p>\r\n<h2>Top view video system module for OCA TV-VS</h2>\r\n<p style="font-size: 11.9999990463257px; ">All OCA systems can be equipped with the top view video system TV-VS, to provide an alternative view of the positioning of the dispensed drop on the surface. The USB camera, with up to 87 images per second, together with the high performance 6x parfocal zoom lens and the adjustable observation angle enables a detailed view to your sample.</p>\r\n<h2>Oscillating drop generator ODG 20</h2>\r\n<p style="font-size: 11.9999990463257px; ">For the measurement of surface elasticities and for relaxational studies at phase boundaries, DataPhysics has developed the oscillating drop generator, ODG 20, and the innovative oscillating drop generator ODG 20P with a high resolution pressure sensor. This extension to the pendant drop contour analysis capability of the OCA series – based on a piezoelectric transducer – excites oscillating drops with a wide range of frequencies and amplitudes. Periodic variations in the drop volume, or alternatively in the drop shape, with constant volume, can be performed. The excitation frequency ranges up to 50 Hz, depending on the density and viscosity of the fluid. The amplitude of the axis-symmetric oscillations varies from micrometers to millimeters. The oscillating drops can be analyzed by conventional drop contour analysis or by the new approach of pressure measurement with the high-performance pressure sensor (ODG 20P).</p>\r\n<h2>Electro wetting platform EWP 100</h2>\r\n<p style="font-size: 11.9999990463257px; ">The way in which a defined electrical field influences the wetting and adsorption behaviour of modern, engineered, materials is becoming relevant to an increasing number of applications. The EWP 100 facilitates the analysis of pendant drops and sessile drops, incident with solid surfaces, under a user definable electrical field.</p>\r\n<h2>Liquid injection system LIA-MD</h2>\r\n<p style="font-size: 11.9999990463257px; ">The LIA-MD facilitates the study of the effect, on a drops surface, of adding a second liquid directly into that first drop. This special accessory enables the rapid addition of a second liquid, usually a surface-active or chemically reactive phase, into a drop already visible through the OCA optics and displayed on the monitor. The relaxation (back to interfacial equilibrium with the surrounding medium) of the original drop can be observed and evaluated via the SCA software. The overall response time, together with the rates of change of surface and interfacial tensions, during the relaxation process, are indicative of the reactivity of the liquids under study. Developments of synthetic eye and lung fluids, for medical purposes, have already benefitted from studies of this type and more innovative applications are expected in the field of protein and surfactant engineering.</p>";}}', 'bodytext', 1189, 'tt_content', 1429621602, NULL, 0),
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(4959, 0, 18438, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:1450:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 11EC ist das preiswerte Gerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 11EC besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 100 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte Höhenpositionierung (Verfahrweg: 74 mm; Auflösung: 1 µm) der Probengefäße mit variabler Geschwindigkeit (2 µm/s … 60 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 11EC kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link http://kunden.werboffice.de/dataphysics/server/data/pdf/datenblaetter/dcat/DCAT11EC_V1_7DE.pdf _blank>Datenblatt DCAT 11EC</link>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:1394:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 11EC ist das preiswerte Gerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 11EC besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 100 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte Höhenpositionierung (Verfahrweg: 74 mm; Auflösung: 1 µm) der Probengefäße mit variabler Geschwindigkeit (2 µm/s … 60 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 11EC kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link file:325 - download "Initiates file download">Datenblatt DCAT 11EC</link>";}}', 'bodytext', 396, 'tt_content', 1429622205, NULL, 0),
(4960, 0, 18439, 'a:2:{s:9:"oldRecord";a:2:{s:8:"bodytext";s:1269:"The<b>&nbsp;dynamic contact angle measuring instrument&nbsp;</b>and&nbsp;<b>tensiometer</b>&nbsp;DCAT&nbsp;11EC is the budget-priced instrument for the weight-based measurement of contact angle, surface and interfacial tension, critical micelle formation concentration, density, sedimentation and penetration rate, plus penetration resistance.<br /><b>Features of the basic instrument configuration:</b>\r\n<ul><li>High precision electro dynamic compensation weighing system (weighing&nbsp; range: 100 µg to 210 g) with automatic calibration.</li><li>Software controlled height positioning (travel: 74 mm; resolution: 1 µm) of the sample receptacles with variable speed (2 µm/s to 60 mm/min)</li><li>Automatic electronic coupling lock for the balance.</li><li>Integrated measurement and control electronics with connections for two Pt 100 temperature sensors (-60 to +450 °C; ± 0.01 K resolution; precision 1/3 DIN IEC 751, Class B).</li><li>Display for weighing data, temperature and other information.</li><li>Illuminated sample chamber with inert gas or vapor inlet.</li><li>USB interface with connection cable to PC/notebook.</li></ul>\r\n<br /><b>All DCAT accessories can be used with the DCAT 11EC except the electrical temperature control unit TEC 250/DCAT.</b>";s:15:"l18n_diffsource";s:2005:"a:22:{s:5:"CType";s:4:"text";s:6:"colPos";s:1:"1";s:16:"sys_language_uid";s:1:"0";s:6:"header";s:9:"DCAT 11EC";s:13:"header_layout";s:1:"0";s:15:"header_position";s:0:"";s:4:"date";s:1:"0";s:11:"header_link";s:0:"";s:8:"bodytext";s:1450:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 11EC ist das preiswerte Gerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 11EC besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 100 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte Höhenpositionierung (Verfahrweg: 74 mm; Auflösung: 1 µm) der Probengefäße mit variabler Geschwindigkeit (2 µm/s … 60 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 11EC kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link http://kunden.werboffice.de/dataphysics/server/data/pdf/datenblaetter/dcat/DCAT11EC_V1_7DE.pdf _blank>Datenblatt DCAT 11EC</link>";s:11:"rte_enabled";s:1:"0";s:6:"layout";s:1:"0";s:11:"spaceBefore";s:1:"0";s:10:"spaceAfter";s:1:"0";s:13:"section_frame";s:3:"170";s:6:"hidden";s:1:"0";s:12:"sectionIndex";s:1:"1";s:9:"linkToTop";s:1:"0";s:9:"starttime";N;s:7:"endtime";N;s:8:"fe_group";s:0:"";s:10:"categories";s:1:"0";s:11:"l18n_parent";s:1:"0";}";}s:9:"newRecord";a:2:{s:8:"bodytext";s:1353:"The<b>&nbsp;dynamic contact angle measuring instrument&nbsp;</b>and&nbsp;<b>tensiometer</b>&nbsp;DCAT&nbsp;11EC is the budget-priced instrument for the weight-based measurement of contact angle, surface and interfacial tension, critical micelle formation concentration, density, sedimentation and penetration rate, plus penetration resistance.<br /><b>Features of the basic instrument configuration:</b>\r\n<ul><li>High precision electro dynamic compensation weighing system (weighing&nbsp; range: 100 µg to 210 g) with automatic calibration.</li><li>Software controlled height positioning (travel: 74 mm; resolution: 1 µm) of the sample receptacles with variable speed (2 µm/s to 60 mm/min)</li><li>Automatic electronic coupling lock for the balance.</li><li>Integrated measurement and control electronics with connections for two Pt 100 temperature sensors (-60 to +450 °C; ± 0.01 K resolution; precision 1/3 DIN IEC 751, Class B).</li><li>Display for weighing data, temperature and other information.</li><li>Illuminated sample chamber with inert gas or vapor inlet.</li><li>USB interface with connection cable to PC/notebook.</li></ul>\r\n<br /><b>All DCAT accessories can be used with the DCAT 11EC except the electrical temperature control unit TEC 250/DCAT.</b>\r\n\r\n<link file:328 - download "Initiates file download">Data Sheet DCAT 11 EC</link>";s:15:"l18n_diffsource";s:1949:"a:22:{s:5:"CType";s:4:"text";s:6:"colPos";s:1:"1";s:16:"sys_language_uid";s:1:"0";s:6:"header";s:9:"DCAT 11EC";s:13:"header_layout";s:1:"0";s:15:"header_position";s:0:"";s:4:"date";s:1:"0";s:11:"header_link";s:0:"";s:8:"bodytext";s:1394:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 11EC ist das preiswerte Gerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 11EC besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 100 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte Höhenpositionierung (Verfahrweg: 74 mm; Auflösung: 1 µm) der Probengefäße mit variabler Geschwindigkeit (2 µm/s … 60 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 11EC kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link file:325 - download "Initiates file download">Datenblatt DCAT 11EC</link>";s:11:"rte_enabled";s:1:"0";s:6:"layout";s:1:"0";s:11:"spaceBefore";s:1:"0";s:10:"spaceAfter";s:1:"0";s:13:"section_frame";s:3:"170";s:6:"hidden";s:1:"0";s:12:"sectionIndex";s:1:"1";s:9:"linkToTop";s:1:"0";s:9:"starttime";N;s:7:"endtime";N;s:8:"fe_group";s:0:"";s:10:"categories";s:1:"0";s:11:"l18n_parent";s:1:"0";}";}}', 'bodytext,l18n_diffsource', 1240, 'tt_content', 1429622236, NULL, 0),
(4961, 0, 18441, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:1353:"The<b>&nbsp;dynamic contact angle measuring instrument&nbsp;</b>and&nbsp;<b>tensiometer</b>&nbsp;DCAT&nbsp;11EC is the budget-priced instrument for the weight-based measurement of contact angle, surface and interfacial tension, critical micelle formation concentration, density, sedimentation and penetration rate, plus penetration resistance.<br /><b>Features of the basic instrument configuration:</b>\r\n<ul><li>High precision electro dynamic compensation weighing system (weighing&nbsp; range: 100 µg to 210 g) with automatic calibration.</li><li>Software controlled height positioning (travel: 74 mm; resolution: 1 µm) of the sample receptacles with variable speed (2 µm/s to 60 mm/min)</li><li>Automatic electronic coupling lock for the balance.</li><li>Integrated measurement and control electronics with connections for two Pt 100 temperature sensors (-60 to +450 °C; ± 0.01 K resolution; precision 1/3 DIN IEC 751, Class B).</li><li>Display for weighing data, temperature and other information.</li><li>Illuminated sample chamber with inert gas or vapor inlet.</li><li>USB interface with connection cable to PC/notebook.</li></ul>\r\n<br /><b>All DCAT accessories can be used with the DCAT 11EC except the electrical temperature control unit TEC 250/DCAT.</b>\r\n\r\n<link file:328 - download "Initiates file download">Data Sheet DCAT 11 EC</link>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:1351:"The<b>&nbsp;dynamic contact angle measuring instrument&nbsp;</b>and&nbsp;<b>tensiometer</b>&nbsp;DCAT&nbsp;11EC is the budget-priced instrument for the weight-based measurement of contact angle, surface and interfacial tension, critical micelle formation concentration, density, sedimentation and penetration rate, plus penetration resistance.<br /><b>Features of the basic instrument configuration:</b>\r\n<ul><li>High precision electro dynamic compensation weighing system (weighing&nbsp; range: 100 µg to 210 g) with automatic calibration.</li><li>Software controlled height positioning (travel: 74 mm; resolution: 1 µm) of the sample receptacles with variable speed (2 µm/s to 60 mm/min)</li><li>Automatic electronic coupling lock for the balance.</li><li>Integrated measurement and control electronics with connections for two Pt 100 temperature sensors (-60 to +450 °C; ± 0.01 K resolution; precision 1/3 DIN IEC 751, Class B).</li><li>Display for weighing data, temperature and other information.</li><li>Illuminated sample chamber with inert gas or vapor inlet.</li><li>USB interface with connection cable to PC/notebook.</li></ul>\r\n<br /><b>All DCAT accessories can be used with the DCAT 11EC except the electrical temperature control unit TEC 250/DCAT.</b>\r\n<link file:328 - download "Initiates file download">Data Sheet DCAT 11 EC</link>";}}', 'bodytext', 1240, 'tt_content', 1429622261, NULL, 0),
(4962, 0, 18443, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:1454:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 11 ist das Standardgerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 11 besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 10 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte, motorische Höhenpositionierung (Verfahrweg: 74 mm; Auflösung: 0,1 µm) der Probengefäße mit variabler Geschwindigkeit (0,74 µm/s … 500 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 11 kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link http://kunden.werboffice.de/dataphysics/server/data/pdf/datenblaetter/dcat/DCAT11_V1_6DE.pdf _blank>Datenblatt DCAT 11</link>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:1400:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 11 ist das Standardgerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 11 besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 10 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte, motorische Höhenpositionierung (Verfahrweg: 74 mm; Auflösung: 0,1 µm) der Probengefäße mit variabler Geschwindigkeit (0,74 µm/s … 500 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 11 kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link file:326 - download "Initiates file download">Datenblatt DCAT 11</link>";}}', 'bodytext', 547, 'tt_content', 1429622298, NULL, 0),
(4963, 0, 18444, 'a:2:{s:9:"oldRecord";a:2:{s:8:"bodytext";s:1267:"The<b>&nbsp;dynamic contact angle measuring instrument&nbsp;</b>and&nbsp;<b>tensiometer</b>&nbsp;DCAT&nbsp;11 is the standard instrument for the weight based measurement of contact angle, surface and interfacial tension, critical micelle formation concentration, density, sedimentation and penetration rate, plus penetration resistance.<br /><b>Features of the basic instrument configuration:</b>\r\n<ul><li>High-precision electro dynamic compensation weighing system (weighing range: 10 µg&nbsp; to 210 g) with automatic calibration.</li><li>Software controlled height positioning (travel: 74 mm; resolution: 0.1 µm) of the sample receptacles with variable speed (0.74 µm/s to 500 mm/min).</li><li>Automatic electronic coupling lock for the balance.</li><li>Integrated measurement and control electronics with connections for two Pt 100 temperature sensors (-60 to +450 °C; ± 0.01 K resolution; precision 1/3 DIN IEC 751, Class B).</li><li>Display for weighing data, temperature and other information.</li><li>Illuminated sample chamber with inert gas or vapour inlet.</li><li>USB interface with connection cable to PC/notebook.</li></ul>\r\n<br /><b>All DCAT accessories can be used with the DCAT 11 except the electrical temperature control unit TEC 250/DCAT.</b>";s:15:"l18n_diffsource";s:2025:"a:22:{s:5:"CType";s:4:"text";s:6:"colPos";s:1:"1";s:16:"sys_language_uid";s:1:"0";s:6:"header";s:7:"DCAT 11";s:13:"header_layout";s:1:"0";s:15:"header_position";s:0:"";s:4:"date";s:1:"0";s:11:"header_link";s:0:"";s:8:"bodytext";s:1472:"<h1>DCAT 11</h1>\r\nDas dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 11 ist das Standardgerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 11 besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 10 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte, motorische Höhenpositionierung (Verfahrweg: 74 mm; Auflösung: 0,1 µm) der Probengefäße mit variabler Geschwindigkeit (0,74 µm/s … 500 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 11 kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link http://kunden.werboffice.de/dataphysics/server/data/pdf/datenblaetter/dcat/DCAT11_V1_6DE.pdf _blank>Datenblatt DCAT 11</link>";s:11:"rte_enabled";s:1:"0";s:6:"layout";s:1:"0";s:11:"spaceBefore";s:1:"0";s:10:"spaceAfter";s:1:"0";s:13:"section_frame";s:3:"170";s:6:"hidden";s:1:"0";s:12:"sectionIndex";s:1:"1";s:9:"linkToTop";s:1:"0";s:9:"starttime";N;s:7:"endtime";N;s:8:"fe_group";s:0:"";s:10:"categories";s:1:"0";s:11:"l18n_parent";s:1:"0";}";}s:9:"newRecord";a:2:{s:8:"bodytext";s:1346:"The<b>&nbsp;dynamic contact angle measuring instrument&nbsp;</b>and&nbsp;<b>tensiometer</b>&nbsp;DCAT&nbsp;11 is the standard instrument for the weight based measurement of contact angle, surface and interfacial tension, critical micelle formation concentration, density, sedimentation and penetration rate, plus penetration resistance.<br /><b>Features of the basic instrument configuration:</b>\r\n<ul><li>High-precision electro dynamic compensation weighing system (weighing range: 10 µg&nbsp; to 210 g) with automatic calibration.</li><li>Software controlled height positioning (travel: 74 mm; resolution: 0.1 µm) of the sample receptacles with variable speed (0.74 µm/s to 500 mm/min).</li><li>Automatic electronic coupling lock for the balance.</li><li>Integrated measurement and control electronics with connections for two Pt 100 temperature sensors (-60 to +450 °C; ± 0.01 K resolution; precision 1/3 DIN IEC 751, Class B).</li><li>Display for weighing data, temperature and other information.</li><li>Illuminated sample chamber with inert gas or vapour inlet.</li><li>USB interface with connection cable to PC/notebook.</li></ul>\r\n<br /><b>All DCAT accessories can be used with the DCAT 11 except the electrical temperature control unit TEC 250/DCAT.</b>\r\n<link file:329 - download "Initiates file download">Data Sheet DCAT 11</link>";s:15:"l18n_diffsource";s:1953:"a:22:{s:5:"CType";s:4:"text";s:6:"colPos";s:1:"1";s:16:"sys_language_uid";s:1:"0";s:6:"header";s:7:"DCAT 11";s:13:"header_layout";s:1:"0";s:15:"header_position";s:0:"";s:4:"date";s:1:"0";s:11:"header_link";s:0:"";s:8:"bodytext";s:1400:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 11 ist das Standardgerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 11 besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 10 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte, motorische Höhenpositionierung (Verfahrweg: 74 mm; Auflösung: 0,1 µm) der Probengefäße mit variabler Geschwindigkeit (0,74 µm/s … 500 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 11 kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link file:326 - download "Initiates file download">Datenblatt DCAT 11</link>";s:11:"rte_enabled";s:1:"0";s:6:"layout";s:1:"0";s:11:"spaceBefore";s:1:"0";s:10:"spaceAfter";s:1:"0";s:13:"section_frame";s:3:"170";s:6:"hidden";s:1:"0";s:12:"sectionIndex";s:1:"1";s:9:"linkToTop";s:1:"0";s:9:"starttime";N;s:7:"endtime";N;s:8:"fe_group";s:0:"";s:10:"categories";s:1:"0";s:11:"l18n_parent";s:1:"0";}";}}', 'bodytext,l18n_diffsource', 1253, 'tt_content', 1429622318, NULL, 0),
(4964, 0, 18445, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:1443:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 21 ist das Standardgerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 21 besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 10 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte Höhenpositionierung (Verfahrweg: 105 mm; Auflösung: 0,1 µm) der Probengefäße mit variabler Geschwindigkeit (0,74 µm/s … 500 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 21 kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link http://kunden.werboffice.de/dataphysics/server/data/pdf/datenblaetter/dcat/DCAT21_V1_8DE.pdf _blank>Datenblatt DCAT 21</link>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:1389:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 21 ist das Standardgerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 21 besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 10 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte Höhenpositionierung (Verfahrweg: 105 mm; Auflösung: 0,1 µm) der Probengefäße mit variabler Geschwindigkeit (0,74 µm/s … 500 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 21 kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link file:327 - download "Initiates file download">Datenblatt DCAT 21</link>";}}', 'bodytext', 553, 'tt_content', 1429622354, NULL, 0),
(4965, 0, 18446, 'a:2:{s:9:"oldRecord";a:2:{s:8:"bodytext";s:1462:"The<b>&nbsp;dynamic contact angle measuring instrument</b>&nbsp;and<b>&nbsp;tensiometer</b>&nbsp;DCAT&nbsp;21 is the all-purpose instrument for the weight-based measurement of contact angle, surface and interfacial tension, critical micelle formation concentration, density, sedimentation and penetration rate, plus penetration resistance. Besides this it allows the use of the optional electrical temperature control unit TEC 250/DCAT,&nbsp; due to the 30 mm longer travel for the sample stage than the DCAT 11 and DCAT 11EC.<br /><b>Features of the basic instrument configuration:</b>\r\n<ul><li>High-precision electro dynamic compensation weighing system (weighing&nbsp; range: 10 µg to 210 g) with automatic calibration.</li><li>Software controlled height positioning (travel: 105 mm; resolution: 0.1 µm) of the sample receptacles with variable speed (0.74 µm/s to 500 mm/min).</li><li>Automatic electronic coupling lock for the balance.</li><li>Integrated measurement and control electronics with connections for two Pt 100 temperature sensors (-60 to +450 °C; ± 0.01 K resolution; precision 1/3 DIN IEC 751, Class B).</li><li>Display for weighing data, temperature and other information.</li><li>Illuminated sample chamber with inert gas or vapour inlet.</li><li>USB interface with connection cable to PC/notebook.</li></ul>\r\n<br /><b>All DCAT accessories can be used with the DCAT 21, including the electrical temperature control unit TEC 250/DCAT.</b>";s:15:"l18n_diffsource";s:1995:"a:22:{s:5:"CType";s:4:"text";s:6:"colPos";s:1:"1";s:16:"sys_language_uid";s:1:"0";s:6:"header";s:6:"CAT 21";s:13:"header_layout";s:1:"0";s:15:"header_position";s:0:"";s:4:"date";s:1:"0";s:11:"header_link";s:0:"";s:8:"bodytext";s:1443:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 21 ist das Standardgerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 21 besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 10 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte Höhenpositionierung (Verfahrweg: 105 mm; Auflösung: 0,1 µm) der Probengefäße mit variabler Geschwindigkeit (0,74 µm/s … 500 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 21 kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link http://kunden.werboffice.de/dataphysics/server/data/pdf/datenblaetter/dcat/DCAT21_V1_8DE.pdf _blank>Datenblatt DCAT 21</link>";s:11:"rte_enabled";s:1:"0";s:6:"layout";s:1:"0";s:11:"spaceBefore";s:1:"0";s:10:"spaceAfter";s:1:"0";s:13:"section_frame";s:3:"170";s:6:"hidden";s:1:"0";s:12:"sectionIndex";s:1:"1";s:9:"linkToTop";s:1:"0";s:9:"starttime";N;s:7:"endtime";N;s:8:"fe_group";s:0:"";s:10:"categories";s:1:"0";s:11:"l18n_parent";s:1:"0";}";}s:9:"newRecord";a:2:{s:8:"bodytext";s:1541:"The<b>&nbsp;dynamic contact angle measuring instrument</b>&nbsp;and<b>&nbsp;tensiometer</b>&nbsp;DCAT&nbsp;21 is the all-purpose instrument for the weight-based measurement of contact angle, surface and interfacial tension, critical micelle formation concentration, density, sedimentation and penetration rate, plus penetration resistance. Besides this it allows the use of the optional electrical temperature control unit TEC 250/DCAT,&nbsp; due to the 30 mm longer travel for the sample stage than the DCAT 11 and DCAT 11EC.<br /><b>Features of the basic instrument configuration:</b>\r\n<ul><li>High-precision electro dynamic compensation weighing system (weighing&nbsp; range: 10 µg to 210 g) with automatic calibration.</li><li>Software controlled height positioning (travel: 105 mm; resolution: 0.1 µm) of the sample receptacles with variable speed (0.74 µm/s to 500 mm/min).</li><li>Automatic electronic coupling lock for the balance.</li><li>Integrated measurement and control electronics with connections for two Pt 100 temperature sensors (-60 to +450 °C; ± 0.01 K resolution; precision 1/3 DIN IEC 751, Class B).</li><li>Display for weighing data, temperature and other information.</li><li>Illuminated sample chamber with inert gas or vapour inlet.</li><li>USB interface with connection cable to PC/notebook.</li></ul>\r\n<br /><b>All DCAT accessories can be used with the DCAT 21, including the electrical temperature control unit TEC 250/DCAT.</b>\r\n<link file:330 - download "Initiates file download">Data Sheet DCAT 21</link>";s:15:"l18n_diffsource";s:1941:"a:22:{s:5:"CType";s:4:"text";s:6:"colPos";s:1:"1";s:16:"sys_language_uid";s:1:"0";s:6:"header";s:6:"CAT 21";s:13:"header_layout";s:1:"0";s:15:"header_position";s:0:"";s:4:"date";s:1:"0";s:11:"header_link";s:0:"";s:8:"bodytext";s:1389:"Das dynamische Kontaktwinkelmessgerät und Tensiometer DCAT 21 ist das Standardgerät für die gewichtsbasierte Messung von Kontaktwinkeln, Ober- und Grenzflächenspannung, kritischer Mizellbildungskonzentration (CMC), Dichte, Sedimentations- und Penetrationsgeschwindigkeit, Penetrationskraft sowie des Penetrationswiderstands.\r\n<h3>Das DCAT 21 besteht aus dem Grundgerät mit folgender technischer Ausstattung:</h3>\r\n<ul><li>hochpräzises elektrodynamisches Kompensations-Wägesystem (Wägebereich: 10 µg … 210 g) mit automatischer Kalibrierfunktion</li><li>softwaregesteuerte Höhenpositionierung (Verfahrweg: 105 mm; Auflösung: 0,1 µm) der Probengefäße mit variabler Geschwindigkeit (0,74 µm/s … 500 mm/min)</li><li>automatische elektronisch gesteuerte Waagenarretierung</li><li>integrierte Mess- und Steuerungselektronik mit Anschlüssen für zwei Pt100 Temperatursensoren (-60 … +450 °C; 0,01 K Auflösung; Genauigkeit 1/3 DIN IEC 751, Klasse B)</li><li>Display für Messwerte, Temperatur und Geräteinformationen</li><li>beleuchteter Probenraum mit Inertgas- oder Dampfeinlass</li><li>USB-Schnittstelle mit Verbindungskabel zum PC</li></ul>\r\n<b>Das DCAT 21 kann mit allem Zubehör aus dem DCAT-Baukasten erweitert werden, außer der elektrischen Thermostatisiereinrichtung TEC 250/DCAT</b>.\r\n<link file:327 - download "Initiates file download">Datenblatt DCAT 21</link>";s:11:"rte_enabled";s:1:"0";s:6:"layout";s:1:"0";s:11:"spaceBefore";s:1:"0";s:10:"spaceAfter";s:1:"0";s:13:"section_frame";s:3:"170";s:6:"hidden";s:1:"0";s:12:"sectionIndex";s:1:"1";s:9:"linkToTop";s:1:"0";s:9:"starttime";N;s:7:"endtime";N;s:8:"fe_group";s:0:"";s:10:"categories";s:1:"0";s:11:"l18n_parent";s:1:"0";}";}}', 'bodytext,l18n_diffsource', 1254, 'tt_content', 1429622374, NULL, 0),
(4966, 0, 18447, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:1985:"Each of the temperature control units, available to the DCAT tensiometers, are easy to install and are available for different sample vessel sizes and temperature ranges.<br /><strong>TV 70</strong>&nbsp;Liquid temperature control unit\r\n<h2>TV 50 / 70 / 100</h2>\r\nLiquid temperature control unit with a built-in Pt 100 temperature measuring sensor. For temperature range of -10 to 130 °C, controlled by an external liquid circulator.<br />Available in the following standard sizes:\r\n<ul><li><strong>TV 50</strong>&nbsp;for sample vessels with 50 mm diameter.</li><li><strong>TV 70</strong>&nbsp;for sample vessels with 70 mm diameter.</li><li><strong>TV 100</strong>&nbsp;for sample vessels with 100 mm diameter.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=549&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link><strong>TV 70NM</strong>&nbsp;Non-magnetic temperature control unit with removable micro­electronic stirrer&nbsp;<br />\r\n<h2>TV 70NM</h2>\r\nNon-magnetic (hard gold-plated brass) liquid temperature control unit, including a micro-electronic stirrer (Super flat removable magnetic stirrer without any motor), sealed and chemical resistant and a built-in Pt 100 temperature measuring sensor. For temperature range of -10 to 130 °C, controlled by an external liquid circulator.<br /><link http://www.dataphysics.de/?action=zoom_view&id=533&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link><strong>TEC 250/DCAT</strong>&nbsp;Electrical temperature control unit<br />\r\n<h2>TEC 250/DCAT</h2>\r\nElectrical temperature control unit to use with the dynamic contact angle measuring device/tensiometer DCAT 21.<br />For measurements at temperatures up to 250 °C under protective atmosphere, e.g. for measuring of resins, hot melt adhesives and solder.<br />Manual or software controlled temperature setting over temperature controller TC 250.<br />Diameter of sample container: 50 mm";}s:9:"newRecord";a:1:{s:8:"bodytext";s:1481:"Each of the temperature control units, available to the DCAT tensiometers, are easy to install and are available for different sample vessel sizes and temperature ranges.<br /><b>TV 70</b>&nbsp;Liquid temperature control unit\r\n<h2>TV 50 / 70 / 100</h2>\r\nLiquid temperature control unit with a built-in Pt 100 temperature measuring sensor. For temperature range of -10 to 130 °C, controlled by an external liquid circulator.<br />Available in the following standard sizes:\r\n<ul><li><strong>TV 50</strong>&nbsp;for sample vessels with 50 mm diameter.</li><li><strong>TV 70</strong>&nbsp;for sample vessels with 70 mm diameter.</li><li><strong>TV 100</strong>&nbsp;for sample vessels with 100 mm diameter.</li></ul>\r\n\r\n<h2>TV 70NM</h2>\r\nNon-magnetic (hard gold-plated brass) liquid temperature control unit, including a micro-electronic stirrer (Super flat removable magnetic stirrer without any motor), sealed and chemical resistant and a built-in Pt 100 temperature measuring sensor. For temperature range of -10 to 130 °C, controlled by an external liquid circulator.\r\n\r\n<h2>TEC 250/DCAT</h2>\r\nElectrical temperature control unit to use with the dynamic contact angle measuring device/tensiometer DCAT 21.<br />For measurements at temperatures up to 250 °C under protective atmosphere, e.g. for measuring of resins, hot melt adhesives and solder.<br />Manual or software controlled temperature setting over temperature controller TC 250.<br />Diameter of sample container: 50 mm";}}', 'bodytext', 1261, 'tt_content', 1429622419, NULL, 0);
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(4967, 0, 18448, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:3369:"For the easy handling and programmed addition of liquids DataPhysics can design and deliver a near infinite number of possibilities. A selection of the most demanded you can find here:\r\n<b>LDU 2/2</b>&nbsp;Automatic liquid dosing and refill unit\r\n<h2>Automatic liquid dosing and refill unit LDU</h2>\r\nMotor-driven and software controlled, connectable to the dynamic contact angle measuring instrument and tensiometer of the DCAT series. For the precise dosing of liquids into the sample vessel of the DCAT, e.g. for concentration increments, as well as for the automatic, software controlled refilling or rinsing of the dosing syringes.<br />Available in four standard variants, adaptable to your requirements:\r\n<ul><li><strong>LDU 1/0</strong>&nbsp;with one electronic syringe module ES 11.</li><li><strong>LDU 2/0</strong>&nbsp;with two electronic syringe module ES 11.</li><li><strong>LDU 1/1</strong>&nbsp;with one electronic syringe module ES 11 and one refill and rinse system RRS 11.</li><li><strong>LDU 2/2</strong>&nbsp;with two electronic syringe modules ES 11 and two refill and rinse systems RRS 11.</li></ul>\r\n<br />The electronic syringe module comprising a gas tight 500 µl dosing syringe<strong>&nbsp;DS 500/GT</strong>&nbsp;and a PTFE dosing tube with special dosing needle<strong>&nbsp;DT 500/04</strong>.<br />The refill and rinse system RRS 11 is consisting of an electromagnetic valve, a PTFE dosing tube&nbsp;<strong>DT 200/04</strong>, two PTFE dosing tube<strong>s DT 500/16</strong>&nbsp;and a manual three-way valve&nbsp;<strong>TWV-LDU</strong>.<br /><link http://www.dataphysics.de/?action=zoom_view&id=791&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>DS 500/GT and TWV-LDU<br />\r\n<h2>DS 500/GT</h2>\r\nGas tight 500 µl dosing syringe.<br />\r\n<h2>TWV-LDU</h2>\r\nThree-way valve for LDU.<br />Facilitates the bubble-free filling of the complete dosing system.<br /><link http://www.dataphysics.de/?action=zoom_view&id=789&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>DT 500/04<br />\r\n<h2>DT 500/04</h2>\r\nDosing tube (Valve/Syringe to DCAT) made of PTFE with 500 mm length and 0.4 mm inner diameter.&nbsp;<br />With Luer-Lock connector to the syringe DS or to the electromagnetic valve and a special dosing canulla made of stainless steel.<br /><link http://www.dataphysics.de/?action=zoom_view&id=792&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2010+by+Dataphysics _blank></link>DT 200/04 and DT 500/16\r\n<h2>DT 200/04</h2>\r\nDosing tube (Syringe to valve) made of PTFE with 200 mm length and 0.4 mm inner diameter.<br />\r\n<h2>DT 500/16</h2>\r\nDosing tube (Bottle to valve) made of PTFE with 500 mm length and 1.6 mm inner diameter.<br />GS 70 with CP 70 and GS 50 with CP 50<br />\r\n<h2>GS 100 / GS 70 / GS 50</h2>\r\nSample vessels made of borosilicate glass with 100 mm, 70 mm, and 50 mm outer diameter.<br />\r\n<h2>CP 100 / CP 70 / CP 50</h2>\r\nCover paltes made of POM for the sample vessels GS 100, GS 70, and GS 50.<br />GTR 70\r\n<h2>GTR 70</h2>\r\nSample vessel for measurements under special atmospheres (e.g. inert gas) made of borosilicate glass.&nbsp;<br />Cover plates made of stainless steel, with built-in Pt 100 temperature sensor and two quick coupling tube connectors for gas inlet and outlet.<br />Outer diameter 70 mm, height 85 mm.";}s:9:"newRecord";a:1:{s:8:"bodytext";s:2771:"For the easy handling and programmed addition of liquids DataPhysics can design and deliver a near infinite number of possibilities. A selection of the most demanded you can find here:\r\n<b>LDU 2/2</b>&nbsp;Automatic liquid dosing and refill unit\r\n<h2>Automatic liquid dosing and refill unit LDU</h2>\r\nMotor-driven and software controlled, connectable to the dynamic contact angle measuring instrument and tensiometer of the DCAT series. For the precise dosing of liquids into the sample vessel of the DCAT, e.g. for concentration increments, as well as for the automatic, software controlled refilling or rinsing of the dosing syringes.<br />Available in four standard variants, adaptable to your requirements:\r\n<ul><li><strong>LDU 1/0</strong>&nbsp;with one electronic syringe module ES 11.</li><li><strong>LDU 2/0</strong>&nbsp;with two electronic syringe module ES 11.</li><li><strong>LDU 1/1</strong>&nbsp;with one electronic syringe module ES 11 and one refill and rinse system RRS 11.</li><li><strong>LDU 2/2</strong>&nbsp;with two electronic syringe modules ES 11 and two refill and rinse systems RRS 11.</li></ul>\r\n<br />The electronic syringe module comprising a gas tight 500 µl dosing syringe<b>&nbsp;DS 500/GT</b>&nbsp;and a PTFE dosing tube with special dosing needle<b>&nbsp;DT 500/04</b>.<br />The refill and rinse system RRS 11 is consisting of an electromagnetic valve, a PTFE dosing tube&nbsp;<b>DT 200/04</b>, two PTFE dosing tube<b>s DT 500/16</b>&nbsp;and a manual three-way valve&nbsp;<b>TWV-LDU</b>.\r\n<h2>DS 500/GT</h2>\r\nGas tight 500 µl dosing syringe.\r\n<h2>TWV-LDU</h2>\r\nThree-way valve for LDU.<br />Facilitates the bubble-free filling of the complete dosing system.\r\n<h2>DT 500/04</h2>\r\nDosing tube (Valve/Syringe to DCAT) made of PTFE with 500 mm length and 0.4 mm inner diameter.&nbsp;<br />With Luer-Lock connector to the syringe DS or to the electromagnetic valve and a special dosing canulla made of stainless steel.\r\n<h2>DT 200/04</h2>\r\nDosing tube (Syringe to valve) made of PTFE with 200 mm length and 0.4 mm inner diameter.\r\n<h2>DT 500/16</h2>\r\nDosing tube (Bottle to valve) made of PTFE with 500 mm length and 1.6 mm inner diameter.<br />GS 70 with CP 70 and GS 50 with CP 50\r\n<h2>GS 100 / GS 70 / GS 50</h2>\r\nSample vessels made of borosilicate glass with 100 mm, 70 mm, and 50 mm outer diameter.\r\n<h2>CP 100 / CP 70 / CP 50</h2>\r\nCover paltes made of POM for the sample vessels GS 100, GS 70, and GS 50.<br />GTR 70\r\n<h2>GTR 70</h2>\r\nSample vessel for measurements under special atmospheres (e.g. inert gas) made of borosilicate glass.&nbsp;<br />Cover plates made of stainless steel, with built-in Pt 100 temperature sensor and two quick coupling tube connectors for gas inlet and outlet.<br />Outer diameter 70 mm, height 85 mm.";}}', 'bodytext', 1287, 'tt_content', 1429622453, NULL, 0),
(4968, 0, 18449, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:4035:"A great variety of sample geometries can be adapted on the tensiometers of the DCAT series. Whether for films, plates, fibres, fibre bundles, woven and non-woven threads, pigments, powders, or for magnetic materials, you will find a suitable solution here.<span style="font-size: 12px;"><link http://www.dataphysics.de/?action=zoom_view&id=563&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link></span>RG 11 and RG 10\r\n<h2>RG 11</h2>\r\nDu Noüy ring according to DIN 53914.<br />\r\n<ul><li>Ring height: 25 mm.</li><li>Ring diameter: 18.7 mm.</li><li>Wire thickness: 0.37 mm.</li></ul>\r\n&nbsp;<br />\r\n<h2>RG 10</h2>\r\nDu Noüy ring according to DIN 53914 for small sample volumes (down to&nbsp; 0.2 ml).\r\n<ul><li>Ring height: 6 mm.</li><li>Ring diameter: 10 mm.</li><li>Wire thickness: 0.3 mm.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=579&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>PT 9 and PT 11<br />\r\n<h2>PT 9</h2>\r\nWilhelmy plate according to DIN 53914.&nbsp;<br />\r\n<ul><li>Length: 10 mm.</li><li>Width: 9.95 mm.</li><li>Thickness: 0.2 mm.</li></ul>\r\n&nbsp;<br />\r\n<h2>PT 11</h2>\r\n&nbsp;Wilhelmy-Platte aus Platin-Iridium nach DIN 53914.\r\n<ul><li>Length: 10 mm.</li><li>Width: 19.9 mm.</li><li>Thickness: 0.2 mm.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=583&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>PT 10<br />\r\n<h2>PT 10</h2>\r\nCylindrical plate made of&nbsp; Platinum-Iridium for small sample volumes (&gt;0.2 ml).\r\n<ul><li>Inner diameter: 6.2 mm.</li><li>Outer diameter: 6.6 mm.</li><li>Cylinder height: 10 mm.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=565&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>DIS 11<br />\r\n<h2>DIS 11</h2>\r\nDensity determination set consisting of:\r\n<ul><li>Special holder made of Platinum-Iridium.</li><li>Immersion body made of silicon.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=567&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>PP 11 and SC 11<br />\r\n<h2>PP 11</h2>\r\nPenetrometer probe for measuring yield forces on soft gels, pastes etc.<br />\r\n<h2>SC 11</h2>\r\nSedimentation cone for use in particle size and sedimentation rate analysis.<br /><link http://www.dataphysics.de/?action=zoom_view&id=570&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>PUR 11 with GT 11<br />\r\n<h2>PUR 11</h2>\r\nAccessories kit for measurements of powder samples for the measurement of adsorption and wetting behaviour of powder samples<br />Consisting of:\r\n<ul><li>Special adapter for Sample vessel made of glass</li><li>1 Sample vessel made of glass for the measurement of powders</li></ul>\r\n&nbsp;<br />\r\n<h2>GT 11</h2>\r\nSet of five sample vessels made of glass&nbsp;<br />\r\n<h2>FP 11</h2>\r\nFilter paper for PUR 11<br /><link http://www.dataphysics.de/?action=zoom_view&id=571&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>FH 11<br />\r\n<h2>FH 11</h2>\r\nSpecial sample holder to determine the wetting behaviour of adsorbing materials like powders, pigments, fibres and fibre bundles, textiles and non-vowen<br />\r\n<h2>FP 12</h2>\r\nFilter paper for FH 11<br /><link http://www.dataphysics.de/?action=zoom_view&id=578&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>FO 11 and PSH 11<br />\r\n<h2>FO 11</h2>\r\nSpecial sample holder for films.<br />\r\n<h2>PSH 11</h2>\r\nSpecial sample holder for solids in plate form.<br />FH 12 and FH 13<br />\r\n<h2>FH 12</h2>\r\nSample holder for the pick up of single fibres down to 10 µm diameter.<br />\r\n<h2>FH 13</h2>\r\nSample holder for the pick up multiple single fibres down to 3 µm diameter.<br />Glue FH 12<br />\r\n<h2>Glue FH 12/13</h2>\r\nLiquid glue for the replenishing of the adhesive surface of the FH 12 /FH 13.\r\n<ul><li>1 bottle 20ml.</li></ul>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:3097:"A great variety of sample geometries can be adapted on the tensiometers of the DCAT series. Whether for films, plates, fibres, fibre bundles, woven and non-woven threads, pigments, powders, or for magnetic materials, you will find a suitable solution here.<span style="font-size: 12px;"><link http://www.dataphysics.de/?action=zoom_view&id=563&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link></span>RG 11 and RG 10\r\n<h2>RG 11</h2>\r\nDu Noüy ring according to DIN 53914.\r\n<ul><li>Ring height: 25 mm.</li><li>Ring diameter: 18.7 mm.</li><li>Wire thickness: 0.37 mm.</li></ul>\r\n\r\n<h2>RG 10</h2>\r\nDu Noüy ring according to DIN 53914 for small sample volumes (down to&nbsp; 0.2 ml).\r\n<ul><li>Ring height: 6 mm.</li><li>Ring diameter: 10 mm.</li><li>Wire thickness: 0.3 mm.</li></ul>\r\n<h2>PT 9</h2>\r\nWilhelmy plate according to DIN 53914.&nbsp;\r\n<ul><li>Length: 10 mm.</li><li>Width: 9.95 mm.</li><li>Thickness: 0.2 mm.</li></ul>\r\n\r\n<h2>PT 11</h2>\r\n&nbsp;Wilhelmy-Platte aus Platin-Iridium nach DIN 53914.\r\n<ul><li>Length: 10 mm.</li><li>Width: 19.9 mm.</li><li>Thickness: 0.2 mm.</li></ul>\r\n<h2>PT 10</h2>\r\nCylindrical plate made of&nbsp; Platinum-Iridium for small sample volumes (&gt;0.2 ml).\r\n<ul><li>Inner diameter: 6.2 mm.</li><li>Outer diameter: 6.6 mm.</li><li>Cylinder height: 10 mm.</li></ul>\r\n<h2>DIS 11</h2>\r\nDensity determination set consisting of:\r\n<ul><li>Special holder made of Platinum-Iridium.</li><li>Immersion body made of silicon.</li></ul>\r\n<h2>PP 11</h2>\r\nPenetrometer probe for measuring yield forces on soft gels, pastes etc.\r\n<h2>SC 11</h2>\r\nSedimentation cone for use in particle size and sedimentation rate analysis.\r\n<h2>PUR 11</h2>\r\nAccessories kit for measurements of powder samples for the measurement of adsorption and wetting behaviour of powder samples<br />Consisting of:\r\n<ul><li>Special adapter for Sample vessel made of glass</li><li>1 Sample vessel made of glass for the measurement of powders</li></ul>\r\n\r\n<h2>GT 11</h2>\r\nSet of five sample vessels made of glass&nbsp;\r\n<h2>FP 11</h2>\r\nFilter paper for PUR 11<br /><link http://www.dataphysics.de/?action=zoom_view&id=571&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>FH 11\r\n<h2>FH 11</h2>\r\nSpecial sample holder to determine the wetting behaviour of adsorbing materials like powders, pigments, fibres and fibre bundles, textiles and non-vowen\r\n<h2>FP 12</h2>\r\nFilter paper for FH 11<br /><link http://www.dataphysics.de/?action=zoom_view&id=578&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>FO 11 and PSH 11\r\n<h2>FO 11</h2>\r\nSpecial sample holder for films.\r\n<h2>PSH 11</h2>\r\nSpecial sample holder for solids in plate form.<br />FH 12 and FH 13\r\n<h2>FH 12</h2>\r\nSample holder for the pick up of single fibres down to 10 µm diameter.\r\n<h2>FH 13</h2>\r\nSample holder for the pick up multiple single fibres down to 3 µm diameter.<br />Glue FH 12\r\n<h2>Glue FH 12/13</h2>\r\nLiquid glue for the replenishing of the adhesive surface of the FH 12 /FH 13.\r\n<ul><li>1 bottle 20ml.</li></ul>";}}', 'bodytext', 1288, 'tt_content', 1429622521, NULL, 0),
(4969, 0, 18450, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:3097:"A great variety of sample geometries can be adapted on the tensiometers of the DCAT series. Whether for films, plates, fibres, fibre bundles, woven and non-woven threads, pigments, powders, or for magnetic materials, you will find a suitable solution here.<span style="font-size: 12px;"><link http://www.dataphysics.de/?action=zoom_view&id=563&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link></span>RG 11 and RG 10\r\n<h2>RG 11</h2>\r\nDu Noüy ring according to DIN 53914.\r\n<ul><li>Ring height: 25 mm.</li><li>Ring diameter: 18.7 mm.</li><li>Wire thickness: 0.37 mm.</li></ul>\r\n\r\n<h2>RG 10</h2>\r\nDu Noüy ring according to DIN 53914 for small sample volumes (down to&nbsp; 0.2 ml).\r\n<ul><li>Ring height: 6 mm.</li><li>Ring diameter: 10 mm.</li><li>Wire thickness: 0.3 mm.</li></ul>\r\n<h2>PT 9</h2>\r\nWilhelmy plate according to DIN 53914.&nbsp;\r\n<ul><li>Length: 10 mm.</li><li>Width: 9.95 mm.</li><li>Thickness: 0.2 mm.</li></ul>\r\n\r\n<h2>PT 11</h2>\r\n&nbsp;Wilhelmy-Platte aus Platin-Iridium nach DIN 53914.\r\n<ul><li>Length: 10 mm.</li><li>Width: 19.9 mm.</li><li>Thickness: 0.2 mm.</li></ul>\r\n<h2>PT 10</h2>\r\nCylindrical plate made of&nbsp; Platinum-Iridium for small sample volumes (&gt;0.2 ml).\r\n<ul><li>Inner diameter: 6.2 mm.</li><li>Outer diameter: 6.6 mm.</li><li>Cylinder height: 10 mm.</li></ul>\r\n<h2>DIS 11</h2>\r\nDensity determination set consisting of:\r\n<ul><li>Special holder made of Platinum-Iridium.</li><li>Immersion body made of silicon.</li></ul>\r\n<h2>PP 11</h2>\r\nPenetrometer probe for measuring yield forces on soft gels, pastes etc.\r\n<h2>SC 11</h2>\r\nSedimentation cone for use in particle size and sedimentation rate analysis.\r\n<h2>PUR 11</h2>\r\nAccessories kit for measurements of powder samples for the measurement of adsorption and wetting behaviour of powder samples<br />Consisting of:\r\n<ul><li>Special adapter for Sample vessel made of glass</li><li>1 Sample vessel made of glass for the measurement of powders</li></ul>\r\n\r\n<h2>GT 11</h2>\r\nSet of five sample vessels made of glass&nbsp;\r\n<h2>FP 11</h2>\r\nFilter paper for PUR 11<br /><link http://www.dataphysics.de/?action=zoom_view&id=571&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>FH 11\r\n<h2>FH 11</h2>\r\nSpecial sample holder to determine the wetting behaviour of adsorbing materials like powders, pigments, fibres and fibre bundles, textiles and non-vowen\r\n<h2>FP 12</h2>\r\nFilter paper for FH 11<br /><link http://www.dataphysics.de/?action=zoom_view&id=578&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>FO 11 and PSH 11\r\n<h2>FO 11</h2>\r\nSpecial sample holder for films.\r\n<h2>PSH 11</h2>\r\nSpecial sample holder for solids in plate form.<br />FH 12 and FH 13\r\n<h2>FH 12</h2>\r\nSample holder for the pick up of single fibres down to 10 µm diameter.\r\n<h2>FH 13</h2>\r\nSample holder for the pick up multiple single fibres down to 3 µm diameter.<br />Glue FH 12\r\n<h2>Glue FH 12/13</h2>\r\nLiquid glue for the replenishing of the adhesive surface of the FH 12 /FH 13.\r\n<ul><li>1 bottle 20ml.</li></ul>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:2533:"A great variety of sample geometries can be adapted on the tensiometers of the DCAT series. Whether for films, plates, fibres, fibre bundles, woven and non-woven threads, pigments, powders, or for magnetic materials, you will find a suitable solution here.\r\n<h2>RG 11</h2>\r\nDu Noüy ring according to DIN 53914.\r\n<ul><li>Ring height: 25 mm.</li><li>Ring diameter: 18.7 mm.</li><li>Wire thickness: 0.37 mm.</li></ul>\r\n\r\n<h2>RG 10</h2>\r\nDu Noüy ring according to DIN 53914 for small sample volumes (down to&nbsp; 0.2 ml).\r\n<ul><li>Ring height: 6 mm.</li><li>Ring diameter: 10 mm.</li><li>Wire thickness: 0.3 mm.</li></ul>\r\n<h2>PT 9</h2>\r\nWilhelmy plate according to DIN 53914.&nbsp;\r\n<ul><li>Length: 10 mm.</li><li>Width: 9.95 mm.</li><li>Thickness: 0.2 mm.</li></ul>\r\n\r\n<h2>PT 11</h2>\r\n&nbsp;Wilhelmy-Platte aus Platin-Iridium nach DIN 53914.\r\n<ul><li>Length: 10 mm.</li><li>Width: 19.9 mm.</li><li>Thickness: 0.2 mm.</li></ul>\r\n<h2>PT 10</h2>\r\nCylindrical plate made of&nbsp; Platinum-Iridium for small sample volumes (&gt;0.2 ml).\r\n<ul><li>Inner diameter: 6.2 mm.</li><li>Outer diameter: 6.6 mm.</li><li>Cylinder height: 10 mm.</li></ul>\r\n<h2>DIS 11</h2>\r\nDensity determination set consisting of:\r\n<ul><li>Special holder made of Platinum-Iridium.</li><li>Immersion body made of silicon.</li></ul>\r\n<h2>PP 11</h2>\r\nPenetrometer probe for measuring yield forces on soft gels, pastes etc.\r\n<h2>SC 11</h2>\r\nSedimentation cone for use in particle size and sedimentation rate analysis.\r\n<h2>PUR 11</h2>\r\nAccessories kit for measurements of powder samples for the measurement of adsorption and wetting behaviour of powder samples<br />Consisting of:\r\n<ul><li>Special adapter for Sample vessel made of glass</li><li>1 Sample vessel made of glass for the measurement of powders</li></ul>\r\n\r\n<h2>GT 11</h2>\r\nSet of five sample vessels made of glass&nbsp;\r\n<h2>FP 11</h2>\r\nFilter paper for PUR 11\r\n<h2>FH 11</h2>\r\nSpecial sample holder to determine the wetting behaviour of adsorbing materials like powders, pigments, fibres and fibre bundles, textiles and non-vowen\r\n<h2>FP 12</h2>\r\nFilter paper for FH 11\r\n<h2>FO 11</h2>\r\nSpecial sample holder for films.\r\n<h2>PSH 11</h2>\r\nSpecial sample holder for solids in plate form.\r\n<h2>FH 12</h2>\r\nSample holder for the pick up of single fibres down to 10 µm diameter.\r\n<h2>FH 13</h2>\r\nSample holder for the pick up multiple single fibres down to 3 µm diameter.\r\n<h2>Glue FH 12/13</h2>\r\nLiquid glue for the replenishing of the adhesive surface of the FH 12 /FH 13.\r\n<ul><li>1 bottle 20ml.</li></ul>";}}', 'bodytext', 1288, 'tt_content', 1429622548, NULL, 0),
(4970, 0, 18451, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:2984:"<b>Intuitive software to ensure the highest quality of data.<br /></b>\r\nThe SCAT software is designed as a modular program, available in various discrete usable modules. Every software module includes the control of the DCAT and its accessories, the measurement, the analysis, and the presentation of the results.Under Windows 7® / Vista® it works in 32- and in 64-bit mode; under Windows XP® only in 32-bit mode. The available software modules are:SCAT 31\r\n<h2>SCAT 31</h2>\r\n<ul><li>Measurement of the static, time and temperature dependent surface and interfacial tensions according to the Du Noüy-ring method, the Wilhelmy plate and the wire hoop method.</li><li>Automatic ring corrections according to Zuidema &amp; Waters, Mason &amp; Huh and Harkins &amp; Jordan.</li><li>Gas, liquids and solids data base.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=530&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>SCAT 32<br />\r\n<h2>SCAT 32</h2>\r\n<ul><li>Force-based measurement of the dynamic contact angle of prismatic and cylindrical solids (e.g. plates, films, rods and single fibers) as well as the wetted length accor­ding to the Wilhelmy method.</li><li>Adsorption measurement on powders and fibre bundles with the determination of the average contact angle according to the modified and the extended Washburn method.</li><li>Analysis of the surface free energy of solids as well as their components (e.g. dispersive, polar and hydrogen bond parts, acid and base portions, respectively) according to nine different theories.</li><li>Calculation of work of adhesion.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=531&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>SCAT 33<br />\r\n<h2>SCAT 33</h2>\r\n<ul><li>Fully automatic determination of the critical micelle formation concentration (CMC) of surfactants in forward, reversed and extended mode.</li><li>Calculation of the minimum surface tension in case of synergistic effects of surfactant mixtures.</li><li>Calculation of the head space required by molecules on the surface.</li><li>Calculation of the free adsorption energy according to Gibbs.</li><li>Calculation of the surface excess.</li><li>Automatic control of the dosing devices LDU x/x for additive and subtractive dosing.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=584&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>SCAT 34<br />\r\n<h2>SCAT 34</h2>\r\n<ul><li>Determination of the density of liquids.</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=586&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>SCAT 35<br />\r\n<h2>SCAT 35</h2>\r\n<ul><li>Determination of the sedimentation rate.</li><li>Measuring of the yield forces on soft gels, pastes etc.</li><li>Measuring of the penetration resistance and penetration rate.</li></ul>";}s:9:"newRecord";a:1:{s:8:"bodytext";s:2336:"<b>Intuitive software to ensure the highest quality of data.<br /></b>\r\nThe SCAT software is designed as a modular program, available in various discrete usable modules. Every software module includes the control of the DCAT and its accessories, the measurement, the analysis, and the presentation of the results.Under Windows 7® / Vista® it works in 32- and in 64-bit mode; under Windows XP® only in 32-bit mode. The available software modules are:SCAT 31\r\n<h2>SCAT 31</h2>\r\n<ul><li>Measurement of the static, time and temperature dependent surface and interfacial tensions according to the Du Noüy-ring method, the Wilhelmy plate and the wire hoop method.</li><li>Automatic ring corrections according to Zuidema &amp; Waters, Mason &amp; Huh and Harkins &amp; Jordan.</li><li>Gas, liquids and solids data base.</li></ul>\r\n<h2>SCAT 32</h2>\r\n<ul><li>Force-based measurement of the dynamic contact angle of prismatic and cylindrical solids (e.g. plates, films, rods and single fibers) as well as the wetted length accor­ding to the Wilhelmy method.</li><li>Adsorption measurement on powders and fibre bundles with the determination of the average contact angle according to the modified and the extended Washburn method.</li><li>Analysis of the surface free energy of solids as well as their components (e.g. dispersive, polar and hydrogen bond parts, acid and base portions, respectively) according to nine different theories.</li><li>Calculation of work of adhesion.</li></ul>\r\n<h2>SCAT 33</h2>\r\n<ul><li>Fully automatic determination of the critical micelle formation concentration (CMC) of surfactants in forward, reversed and extended mode.</li><li>Calculation of the minimum surface tension in case of synergistic effects of surfactant mixtures.</li><li>Calculation of the head space required by molecules on the surface.</li><li>Calculation of the free adsorption energy according to Gibbs.</li><li>Calculation of the surface excess.</li><li>Automatic control of the dosing devices LDU x/x for additive and subtractive dosing.</li></ul>\r\n<h2>SCAT 34</h2>\r\n<ul><li>Determination of the density of liquids.</li></ul>\r\n<h2>SCAT 35</h2>\r\n<ul><li>Determination of the sedimentation rate.</li><li>Measuring of the yield forces on soft gels, pastes etc.</li><li>Measuring of the penetration resistance and penetration rate.</li></ul>";}}', 'bodytext', 1290, 'tt_content', 1429622614, NULL, 0),
(4971, 0, 18452, 'a:2:{s:9:"oldRecord";a:1:{s:8:"bodytext";s:2947:"<b>Software für effizientes Arbeiten</b>\r\nDie intuitiv bedienbare SCAT-Software unterstützt Sie in der Benutzung des DCAT durch die einfache Definition von Messabläufen und beim Erfassen und Auswerten von Daten. Die SCAT-Software kann als modulares Programm für die Betriebssysteme Windows 7®,&nbsp; Windows Vista®&nbsp;sowohl im 32- als auch im 64-bit Modus betrieben werden, unter Windows XP®&nbsp;/SP3 nur im 32-bit Modus. Die verfügbaren Module sind:SCAT 31\r\n<h2>SCAT 31</h2>\r\n<ul><li>Messung der statischen, zeit- und temperatur­abhängigen Ober- und Grenzflächenspannungen nach der Du Noüy-Ring-Methode und der Wilhelmy-Platten-Methode</li><li>automatische Ring-Korrektur nach Zuidema &amp; Waters, Mason &amp; Huh und Harkins &amp; Jordan</li><li>Gas-, Flüssigkeits- und Festkörperdatenbank</li></ul>\r\n<link http://www.dataphysics.de/?action=zoom_view&id=530&invisible=1&zoom_size=1&zoom_copyright=%26amp%3Bcopy%3B+2009+by+Dataphysics _blank></link>SCAT 32<br />\r\n<h2>SCAT 32</h2>\r\n<ul><li>kraftbasierte Bestimmung des dynamischen Kontaktwinkels prismatischer oder zylindrischer Festkörper (z. B. Platten, Filme, Stäbe und einzelne Fasern) sowie der benetzten Länge nach der Wilhelmy-Methode</li><li>Adsorptionsmessung von Pulvern und Faserbündeln; Berechnung des gemittelten Kontaktwinkels nach der modifizierten und erweiterten Washburn-Methode</li><li>Analyse der freien Oberflächenenergie sowie deren Komponenten (z. B. disperse, polare und Wasserstoffbrücken- bzw. 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