Stepwise improvement of (hetero-) polysiloxane sensing layers for CO2 detection operated at room temperature by modification of the polymeric network

Stegmeier, S.; Fleischer, M.; Tawil, A.; Hauptmann, P.

doi:10.1016/j.snb.2010.05.016

Cited by 8 publications

(7 citation statements)

References 26 publications

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“…This effect was also observed in previous Kelvin Probe measurements and is assumed to be related to two concurring reactions (e.g. formation of carbamate species and loss of adsorbed water [7]).…”

Section: Resultssupporting

confidence: 81%

D3.2 - CO2 Sensors Based on Workfunction Readout Using Floating Gate FET Devices with Polysiloxanes Sensing Layers

Pohle¹,

Sicard²,

Fleischer³

et al. 2011

Proceedings SENSOR 2011

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Section: Resultssupporting

confidence: 81%

D3.2 - CO2 Sensors Based on Workfunction Readout Using Floating Gate FET Devices with Polysiloxanes Sensing Layers

Pohle¹,

Sicard²,

Fleischer³

et al. 2011

Proceedings SENSOR 2011

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“…acid/base) reactions between analytes and sensing polymers. 141 Transducers implemented for wireless gas sensing with dielectric polymers include capacitors, 139 and TSM, 46 SAW, 64 magnetoelastic, 45 and RF 71 resonators.…”

Section: Integration Of Sensing Materials With Transducersmentioning

confidence: 99%

Materials and Transducers Toward Selective Wireless Gas Sensing

et al. 2011

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Introduction 7315 1.1. Diversity of Monitoring Needs of Volatiles 7315 1.2. Chemical Interferences As the Key Noise Parameter for Wireless Sensors 7316 1.3. Goals and Scope of This Review 7317 1.4. Topics That Are Out of Scope of This Review 7317 2. Anatomy of Wireless Gas Sensors 7317 2.1. Active and Passive Wireless Sensors 7318 2.2. Transducers for Wireless Passive Sensors 7319 2.3. RFID Sensors 7320 2.4. Key Performance Factors of Wireless Sensors 7320 2.5. Summary of Specific Requirements for Wireless Gas Sensors 7321 3. Need for Transducers with Multiple Response Mechanisms 7321 3.1. Limitations of Sensor Arrays for Tethered and Wireless Gas Sensing 7322 3.2. Data Processing 7322 3.3. Multivariate Sensing 7323 4. Integration of Sensing Materials with Transducers 7323 6.3. System Approach for Development of Wireless Gas Sensors 7345 6.4. Path Forward 7345 Author Information 7346 Biographies 7346 Acknowledgment 7347 References 7347

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“…Organic monomeric amines such as tetraethylenepentamine, N , N ′-bis(2-hydroxyethyl)ethylenediamine, tetrakis(hydroxyethyi)ethylenediamine, and polymeric imines such as poly(propylenimine), polyethylenimine, − polystyrene-bound ethylene diamine, aminoalkyl poly(dimethylsiloxane), , alkylamine functionalized polysiloxanes, − and so forth containing primary, secondary, or tertiary amine groups are known to be somewhat sensitive to CO 2 gas . The hard acid CO 2 can efficiently bind with hard base amino groups to form carbamates or bicarbonates (in the presence of humidity) and as a consequence of which the response in terms of resistance or impedance increases.…”

Section: Introductionmentioning

confidence: 99%

π-Conjugated Amine–ZnO Nanohybrids for the Selective Detection of CO₂ Gas at Room Temperature

Mandal

Biswas

Aaryashree

et al. 2018

ACS Appl. Nano Mater.

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The development of a new type of hybrid material comprising naphthalene-based π-conjugated amine (NBA) and zinc oxide (ZnO) nanohybrid, grown in situ on polydimethylsiloxane (PDMS) flexible substrate, is explored. The morphology of the nanohybrids is controlled by optimizing growth time of the hydrothermal reaction. The CO 2 sensor utilizing NBA−ZnO nanohybrids shows outstanding sensing performance with a maximum response of ∼9% to 500 ppm of CO 2 at room temperature and a comparatively fast response/recovery time (∼3/6 min). The sensor has excellent mechanical flexibility with consistent sensing performance under bending/relaxing process. Hydrophobic nature of the NBA provides less humidity effect on the sensing performance of the NBA−ZnO nanohybrids, which make it suitable for room-temperature application. Also, the presence of layer-by-layer assembly in the NBA−ZnO nanohybrids provides a superior path for carrier transport, which reduces the response and recovery time. All these results indicate that NBA−ZnO nanohybrid is a promising material for room temperature CO 2 sensing application.

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Stepwise improvement of (hetero-) polysiloxane sensing layers for CO2 detection operated at room temperature by modification of the polymeric network

Cited by 8 publications

References 26 publications

D3.2 - CO2 Sensors Based on Workfunction Readout Using Floating Gate FET Devices with Polysiloxanes Sensing Layers

D3.2 - CO2 Sensors Based on Workfunction Readout Using Floating Gate FET Devices with Polysiloxanes Sensing Layers

Materials and Transducers Toward Selective Wireless Gas Sensing

π-Conjugated Amine–ZnO Nanohybrids for the Selective Detection of CO₂ Gas at Room Temperature

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Stepwise improvement of (hetero-) polysiloxane sensing layers for CO2 detection operated at room temperature by modification of the polymeric network

Cited by 8 publications

References 26 publications

D3.2 - CO2 Sensors Based on Workfunction Readout Using Floating Gate FET Devices with Polysiloxanes Sensing Layers

D3.2 - CO2 Sensors Based on Workfunction Readout Using Floating Gate FET Devices with Polysiloxanes Sensing Layers

Materials and Transducers Toward Selective Wireless Gas Sensing

π-Conjugated Amine–ZnO Nanohybrids for the Selective Detection of CO2 Gas at Room Temperature

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Product

Resources

About

π-Conjugated Amine–ZnO Nanohybrids for the Selective Detection of CO₂ Gas at Room Temperature