Design, fabrication and testing of thermal components and their integration into a microfluidic device

We discuss the design, integration and testing of thermal components in a microfluidic device designed for on-chip genetic sample preparation. A typical microdevice must perform several operations to be capable of analyzing a sample of body fluid (blood, urine, saliva), extracting DNA from concentra...

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Hauptverfasser: Smekal, T., Rhine, D., Weston, D., Grodzinski, P.
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creator Smekal, T.
Rhine, D.
Weston, D.
Grodzinski, P.
description We discuss the design, integration and testing of thermal components in a microfluidic device designed for on-chip genetic sample preparation. A typical microdevice must perform several operations to be capable of analyzing a sample of body fluid (blood, urine, saliva), extracting DNA from concentrated cells, hybridization, purifying and amplifying DNA, and finally detecting DNA fragments of interest. Reduction of the sample volume down to a few /spl mu/Ls and improvement of the ramp times between temperature steps makes micro-PCR devices desirable. Thermal components such as heaters and resistive thermal devices (RTDs) are fabricated as an integral part of a complete genetic sample preparation micro-system. The ability to precisely control the temperature is a critical component of most microfluidic devices intended for on-chip genetic sample preparation Devices were fabricated and demonstrated a temperature variation of /spl sim/1/spl deg/C over the entire sample volume. The design of a device, including chamber dimensions, and placement of the heating and cooling elements is presented. The results of temperature cycling experiments are shown. We have measured a heating rate of /spl sim/2.4/spl deg/C/s and a cooling rate of /spl sim/2.0/spl deg/C/s for devices tested under active heating/cooling control. A brief overview of relevant microfabrication methods is also presented.
doi_str_mv 10.1109/ITHERM.2002.1012572
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A typical microdevice must perform several operations to be capable of analyzing a sample of body fluid (blood, urine, saliva), extracting DNA from concentrated cells, hybridization, purifying and amplifying DNA, and finally detecting DNA fragments of interest. Reduction of the sample volume down to a few /spl mu/Ls and improvement of the ramp times between temperature steps makes micro-PCR devices desirable. Thermal components such as heaters and resistive thermal devices (RTDs) are fabricated as an integral part of a complete genetic sample preparation micro-system. The ability to precisely control the temperature is a critical component of most microfluidic devices intended for on-chip genetic sample preparation Devices were fabricated and demonstrated a temperature variation of /spl sim/1/spl deg/C over the entire sample volume. The design of a device, including chamber dimensions, and placement of the heating and cooling elements is presented. 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Thermal components such as heaters and resistive thermal devices (RTDs) are fabricated as an integral part of a complete genetic sample preparation micro-system. The ability to precisely control the temperature is a critical component of most microfluidic devices intended for on-chip genetic sample preparation Devices were fabricated and demonstrated a temperature variation of /spl sim/1/spl deg/C over the entire sample volume. The design of a device, including chamber dimensions, and placement of the heating and cooling elements is presented. The results of temperature cycling experiments are shown. We have measured a heating rate of /spl sim/2.4/spl deg/C/s and a cooling rate of /spl sim/2.0/spl deg/C/s for devices tested under active heating/cooling control. A brief overview of relevant microfabrication methods is also presented.</abstract><pub>IEEE</pub><doi>10.1109/ITHERM.2002.1012572</doi><tpages>7</tpages></addata></record>
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subjects Cooling
DNA
Fabrication
Genetics
Heating
Microfluidics
Performance analysis
Temperature control
Testing
Thermal resistance
title Design, fabrication and testing of thermal components and their integration into a microfluidic device
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