5.3.1 - A Polyimide-based In-situ Sensor and Actuator Platform for Battery Monitoring and Self-healing

Event

EUROSENSORS 2026
2026-09-06 - 2026-09-09
Zurich

Band

Lectures

Chapter

Sensor Arrays and Networks, Integrated Systems

Author(s)

V. Kuczius, P. Sarapukdee, E. Wallesch, S. Palzer - Technical University Dortmund,Dortmund (Germany), D. Kutluay, J. Fleming, T. Amietszajew - Coventry University,Coventry (United Kingdom), E. Comas - IDNEO Technologies,Barcelona (Spain), J. Sagu, A. Baker, L. Gill, D. Johnson, I. Manfren, K. Parkes, G. Brown, J. McClean, F. Tait, S. Chan, L. Evans - Centre for Process Innovation,Sedgefield (United Kingdom)

Pages

177 - 178

DOI

10.5162/eurosensors2026/5.3.1

ISBN

978-3-910600-12-6

Price

free

Abstract

The widespread adoption of electronic noses (e-Noses) in biomedical applications is hindered by sensor-to-sensor variability, which requires each individual device to be calibrated separately. This limitation severely affects system scalability and becomes particularly critical when dealing with biological samples such as human urine, whose collection, storage, and standardization are inherently challenging. This work presents a methodological framework to address calibration transfer e-Nose devices based on Metal-Oxide (MOX) sensors for urine headspace analysis. The proposed approach relies on Direct Standardization (DS), a transfer learning technique requiring the measurement of reproducible transfer samples on both “master” and “slave” devices. For this purpose, synthetic urine formulations were specifically developed starting from literature data on urine volatile composition, with the objective of reproducing representative urine headspace characteristics while ensuring high repeatability and availability...