Direct-Write Vapor Sensors on FR4 Plastic Substrates

Functioning chemiresistor vapor sensing devices on plastic substrates were prepared using low-temperature direct-Xwrite techniques. Interdigitated Ag electrodes were first deposited onto printed circuit boards using a mesoscale maskless materials deposition system (M3D). These Ag lines were 20-50 mu...

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Veröffentlicht in:IEEE sensors journal 2007-06, Vol.7 (6), p.937-944
Hauptverfasser: Marinov, V.R., Atanasov, Y.A., Khan, A., Vaselaar, D., Halvorsen, A., Schulz, D.L., Chrisey, D.B.
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container_end_page 944
container_issue 6
container_start_page 937
container_title IEEE sensors journal
container_volume 7
creator Marinov, V.R.
Atanasov, Y.A.
Khan, A.
Vaselaar, D.
Halvorsen, A.
Schulz, D.L.
Chrisey, D.B.
description Functioning chemiresistor vapor sensing devices on plastic substrates were prepared using low-temperature direct-Xwrite techniques. Interdigitated Ag electrodes were first deposited onto printed circuit boards using a mesoscale maskless materials deposition system (M3D). These Ag lines were 20-50 mum wide and 8-10 mum thick with good adhesion to the substrate and electrical conductivity of 4-12 muOmegamiddotcm. Deposition of chemoselective polymer/C black composite transducer layers on such lines gave sensors that responded to nerve gas stimulant (dimethylmethyl phosphonate) thereby demonstrating the efficacy of direct write for this application. A new approach to localized direct-write deposition, termed Enhanced M3D, allows the formation of sharply defined line edges and enables printing of conductors that operate at radio frequency with low signal loss. The direct-write approaches described here are amenable to future deposition on more interesting substrates and development of more sensitive transducers, orthogonal sensor arrays and an integrated power source/communication platform that might constitute the basis for radio-frequency identification (RFID) sensor tags
doi_str_mv 10.1109/JSEN.2007.895964
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subjects Adhesives
Boards
Chemical sensors
composite
Conducting materials
Deposition
direct write
Electrodes
electronic material
Plastics
polymer
Printed circuit boards
Printed circuits
Radio frequency
Sensing devices
sensor
Sensor arrays
Sensor phenomena and characterization
Sensors
Silver
Transducers
title Direct-Write Vapor Sensors on FR4 Plastic Substrates
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