Piezoresistive smart-textile sensor for inventory management record

Hossain, Gaffar; Hossain, Ishtia Zahir; Grabher, Günter

doi:10.1016/j.sna.2020.112300

Cited by 22 publications

(17 citation statements)

References 14 publications

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“…Scientists have made it possible to build processors and sensors into small electronic devices. Sensors are added to improve the convenience of these tools and improve the quality of the experience by collecting and processing information [43]. For example, a piezoresistive smart textile sensor for inventory management was developed by Hossain et al which can detect the items based on their weight and relay the information wirelessly to a control center [43].…”

Section: Intelligence Levels Of Smart Clothing and Materialsmentioning

confidence: 99%

“…Sensors are added to improve the convenience of these tools and improve the quality of the experience by collecting and processing information [43]. For example, a piezoresistive smart textile sensor for inventory management was developed by Hossain et al which can detect the items based on their weight and relay the information wirelessly to a control center [43]. The data may be useful for device users to enhance the operation, manageability, and progress of such components.…”

Section: Intelligence Levels Of Smart Clothing and Materialsmentioning

confidence: 99%

See 1 more Smart Citation

Applications of Smart Clothing – a Brief Overview

Jiang

Stange

Bätcke

et al. 2021

cdatp

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Smart clothing is the next evolutionary step in wearable devices. It integrates electronics and textiles to create functional, stylish and comfortable solutions for people's daily needs. The concept includes not only clothing, which is a covering mechanism for the body but also has the function of tracking body indicators in certain situations. The review introduces the classification and concept of smart clothing, the application areas such as sports, workwear, healthcare, military and fashion. It will also outline the current state of smart clothing and the latest developments in the field, and discuss future developments and challenges.

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Section: Intelligence Levels Of Smart Clothing and Materialsmentioning

confidence: 99%

Section: Intelligence Levels Of Smart Clothing and Materialsmentioning

confidence: 99%

Applications of Smart Clothing – a Brief Overview

Jiang

Stange

Bätcke

et al. 2021

cdatp

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show abstract

“…As the target protein of the virus binds to the sensor via antigen–antibody interactions, the magnitude of the strain applied to the CT increases, leading to enhanced electrical resistance (Figure ). − Consequently, the target virus is detected by measuring the change in the resistance value of this sensor.…”

Section: Introductionmentioning

confidence: 99%

Conductive Thread-Based Immunosensor for Pandemic Influenza A (H1N1) Virus Detection

Son

Jang

Lim

et al. 2023

ACS Appl. Mater. Interfaces

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Infectious agents such as viruses pose significant threats to human health, being transmitted via direct contact as well as airborne transmission without direct contact, thus requiring rapid detection to prevent the spread of infectious diseases. In this study, we developed a conductive thread-based immunosensor (CT-IS), a biosensor to easily detect the presence of airborne viruses. CT-IS utilizes an antibody that specifically recognizes the HA protein of the pandemic influenza A (pH1N1) virus, which is incorporated into the conductive thread. The antigen–antibody interaction results in increased strain on the conductive thread in the presence of the pH1N1 virus, resulting in increased electrical resistance of the CT-IS. We evaluated the performance of this sensor using the HA protein and the pH1N1 virus, in addition to samples from patients infected with the pH1N1 virus. We observed a significant change in resistance in the pH1N1-infected patient samples (positive: n = 11, negative: n = 9), whereas negligible change was observed in the control samples (patients not infected with the pH1N1 virus; negative). Hence, the CT-IS is a lightweight fiber-type sensor that can be used as a wearable biosensor by combining it with textiles, to detect the pH1N1 virus in a person’s vicinity.

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“…Third, the method employed to implement the sensor function in fabrics. Previous studies on piezoresistive sensor fibers [24][25][26][27][28][29][30][31][32][33] realized the resistance change in the form of a fiber. The requirement of separate preparation of two electrodes in the measurement system poses practical challenges, although suitable for precise studies on yarn properties.…”

Section: Introductionmentioning

confidence: 99%

Moisture‐Insensitive Force Sensor Yarns and Fabrics to Monitor Biological Motion

Uno,

Omori,

Morita

et al. 2023

Adv Materials Technologies

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Textile sensors are crucial unobtrusive devices attached to arbitrarily curved surfaces owing to their high flexibility and ease of processing in large areas with complex contours. However, issues regarding the reliability and stability of the output of textile sensors and their practical implementation persist. This study proposes sensor yarns comprising carbon‐coated multifibers covering metallic core yarns to detect pressure and strain. Two electrically independent metallic core fibers are twisted in close proximity in a core‐sheath structure with a sheath yarn of carbon‐coated fibers. When an external force is applied, the covering yarns deform elastically, causing a change in resistance. The proposed sensor yarns can be used to develop customized textile sensors, as they can be woven or knitted at the target positions owing to their flexibility. Fabrics and knits with embedded sensor yarns can detect external forces and biological motions, e.g., respiratory monitoring and finger movements. The proposed sensors can be made sensitive or insensitive to moisture depending on the choice of the covering yarn. Thus, the proposed yarns and textile sensors have potential applications in wearable devices and biological sensors that require high conformability to the human body and curved surfaces.

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Piezoresistive smart-textile sensor for inventory management record

Cited by 22 publications

References 14 publications

Applications of Smart Clothing – a Brief Overview

Applications of Smart Clothing – a Brief Overview

Conductive Thread-Based Immunosensor for Pandemic Influenza A (H1N1) Virus Detection

Moisture‐Insensitive Force Sensor Yarns and Fabrics to Monitor Biological Motion

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