Glass-Based Biodegradable Pressure Sensor toward Biomechanical Monitoring with a Controllable Lifetime

Devdatt Chattopadhyay; Jonghyun Park; Chang-Soo Kim

doi:10.1109/LSENS.2023.3242649

Glass-Based Biodegradable Pressure Sensor toward Biomechanical Monitoring with a Controllable Lifetime

Devdatt Chattopadhyay
, Jonghyun Park
, Chang-Soo Kim

Research output: Contribution to journal › Article › peer-review

Abstract

A New Class of Potentially Implantable Solid-State Sensors is Demonstrated Utilizing Biodegradable Glass as the Main Structural Material. the Device Behavior is Manipulated Via Chemical Decomposition, and Then Physically Disintegrated in a Controlled Manner. It is based on the Capacitive Sensing Mechanism, Comprising an Elastic Insulator between Two Borate-Rich Glass Substrates. This Mesoscale Pressure Sensor is Characterized by a Range of Pressure of Up to 14 MPa in a Phosphate Buffer Solution Environment. the Sensor Exhibits Good Sensitivity and Reversibility Responding to Compressive Pressures and Remains Fully Functional Before a Desired, Sudden Failure Caused by Dissolution. the Operational Lifetime Can Be Modified by Altering the Chemical Composition or Thickness of the Biodegradable Glass Component. the Proposed Device Concept is a Viable Option toward Various Temporary Implantable Devices Without Needing an Additional Surgical Procedure to Remove Them after their Duty.

Original language	American English
Article number	2500304
Journal	IEEE Sensors Letters
Volume	7
Issue number	2
DOIs	https://doi.org/10.1109/LSENS.2023.3242649
State	Published - Feb 1 2023

Keywords

biodegradable
glass
implantable
Mechanical sensors
pressure
sensor

Disciplines

Aerospace Engineering
Electrical and Computer Engineering
Mechanical Engineering

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10.1109/LSENS.2023.3242649License: CC BY

Glass-Based Biodegradable Pressure Sensor toward Biomechanical MoFinal published version, 0.98 MBLicense: CC BY

Cite this

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title = "Glass-Based Biodegradable Pressure Sensor toward Biomechanical Monitoring with a Controllable Lifetime",

abstract = " A New Class of Potentially Implantable Solid-State Sensors is Demonstrated Utilizing Biodegradable Glass as the Main Structural Material. the Device Behavior is Manipulated Via Chemical Decomposition, and Then Physically Disintegrated in a Controlled Manner. It is based on the Capacitive Sensing Mechanism, Comprising an Elastic Insulator between Two Borate-Rich Glass Substrates. This Mesoscale Pressure Sensor is Characterized by a Range of Pressure of Up to 14 MPa in a Phosphate Buffer Solution Environment. the Sensor Exhibits Good Sensitivity and Reversibility Responding to Compressive Pressures and Remains Fully Functional Before a Desired, Sudden Failure Caused by Dissolution. the Operational Lifetime Can Be Modified by Altering the Chemical Composition or Thickness of the Biodegradable Glass Component. the Proposed Device Concept is a Viable Option toward Various Temporary Implantable Devices Without Needing an Additional Surgical Procedure to Remove Them after their Duty.",

keywords = "biodegradable, glass, implantable, Mechanical sensors, pressure, sensor",

author = "Devdatt Chattopadhyay and Jonghyun Park and Chang-Soo Kim",

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language = "American English",

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PY - 2023/2/1

Y1 - 2023/2/1

N2 - A New Class of Potentially Implantable Solid-State Sensors is Demonstrated Utilizing Biodegradable Glass as the Main Structural Material. the Device Behavior is Manipulated Via Chemical Decomposition, and Then Physically Disintegrated in a Controlled Manner. It is based on the Capacitive Sensing Mechanism, Comprising an Elastic Insulator between Two Borate-Rich Glass Substrates. This Mesoscale Pressure Sensor is Characterized by a Range of Pressure of Up to 14 MPa in a Phosphate Buffer Solution Environment. the Sensor Exhibits Good Sensitivity and Reversibility Responding to Compressive Pressures and Remains Fully Functional Before a Desired, Sudden Failure Caused by Dissolution. the Operational Lifetime Can Be Modified by Altering the Chemical Composition or Thickness of the Biodegradable Glass Component. the Proposed Device Concept is a Viable Option toward Various Temporary Implantable Devices Without Needing an Additional Surgical Procedure to Remove Them after their Duty.

AB - A New Class of Potentially Implantable Solid-State Sensors is Demonstrated Utilizing Biodegradable Glass as the Main Structural Material. the Device Behavior is Manipulated Via Chemical Decomposition, and Then Physically Disintegrated in a Controlled Manner. It is based on the Capacitive Sensing Mechanism, Comprising an Elastic Insulator between Two Borate-Rich Glass Substrates. This Mesoscale Pressure Sensor is Characterized by a Range of Pressure of Up to 14 MPa in a Phosphate Buffer Solution Environment. the Sensor Exhibits Good Sensitivity and Reversibility Responding to Compressive Pressures and Remains Fully Functional Before a Desired, Sudden Failure Caused by Dissolution. the Operational Lifetime Can Be Modified by Altering the Chemical Composition or Thickness of the Biodegradable Glass Component. the Proposed Device Concept is a Viable Option toward Various Temporary Implantable Devices Without Needing an Additional Surgical Procedure to Remove Them after their Duty.

KW - biodegradable

KW - glass

KW - implantable

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KW - pressure

KW - sensor

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JO - IEEE Sensors Letters

JF - IEEE Sensors Letters

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M1 - 2500304

ER -

Glass-Based Biodegradable Pressure Sensor toward Biomechanical Monitoring with a Controllable Lifetime

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Keywords

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