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Study of Non-Ideal Effects for Extended Gate Field Effect Transistor Chlorine Ion Sensing Device 被引量:1

Study of Non-Ideal Effects for Extended Gate Field Effect Transistor Chlorine Ion Sensing Device
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摘要 We use the extended gate field effect transistor (EGFET)as the structure of the chlorine ion sensor,and the chlorine ion ionophores (ETH9033 and TDDMAC1)are incorporated into solvent polymeric membrane (PVC/DOS),then the chlorine ion selective membrane is formed on the sensing window,and the fabrication of the EGFET chlorine ion sensing device is completed.The surface potential on the sensing membrane of the EGFET chlorine ion sensing device will be changed in the different chlorine ion concentration solutions,then changes further gate voltage and drain current to detect chlorine ion concentration.We will study non-ideal effects such as temperature,hysteresis and drift effects for the EGFET chlorine ion sensing device in this paper,these researches will help us to improve the sensing characteristics of the EGFET chlorine ion sensing device. We use the extended gate field effect transistor (EGFET) as the structure of the chlorine ion sensor, and the chlorine ion ionophores (ETH9033 and TDDMAC1) are incorporated into solvent polymeric membrane (PVC/DOS), then the chlorine ion selective membrane is formed on the sensing window, and the fabrication of the EGFET chlorine ion sensing device is completed.The surface potential on the sensing membrane of the EGFET chlorine ion sensing device will be changed in the different chlorine ion concentration solutions, then changes further gate voltage and drain current to detect chlorine ion concentration. We will study non-ideal effects such as temperature, hysteresis and drift effects for the EGFET chlorine ion sensing device in this paper, these researches will help us to improve the sensing characteristics of the EGFET chlorine ion sensing device.
出处 《稀有金属材料与工程》 SCIE EI CAS CSCD 北大核心 2006年第A03期242-243,共2页 Rare Metal Materials and Engineering
关键词 extended gate field effect transistor chlorine ion ionophore chlorine ion sensing device temperature effect hysteresis effect drift effect extended gate field cffect transistor chlorine ion hysteresis effect drift effect ionophore chlorine ion sensing device temperature effect
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  • 1Van Der Spiegel J et al. Sensors andAetuators B[J], 1983:291.
  • 2Bratov Andrey et al. Analytica Chimica Acta[J], 2004:99.
  • 3Markus Rothmaier et al. Analytica Chimica Acta[J], 1996:17.
  • 4Jin Seo Lee et al. United States Patent[P], 2002, No. 6350524.
  • 5Alan Robert Craig et al. United States Patent[P], 2000, No. 6015480.
  • 6Jung Lung Chiang. Master Thesis[D]. Taipei: National Sun Tatscn University.
  • 7Silvia Casans et al. Sensors and Actuators B[J], 2001:76.
  • 8Bousse L et al. Sensors and Actuators B[J], 1994:17.
  • 9Mikolajick T et al. Sensors and Actuators B[J], 1997:44.
  • 10Jung Lung Chiang et al. Sensors andAetuators B[J], 2001: 62.

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