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European Partnership in Metrology Project: Photonic and Quantum Sensors for Practical Integrated Primary Thermometry (PhoQuS-T)

  • Olga Kozlova*
  • , Rémy Braive
  • , Tristan Briant
  • , Stéphan Briaudeau
  • , Paulina Castro Rodríguez
  • , Guochun Du
  • , Tufan Erdoğan
  • , René Eisermann
  • , Emile Ferreux
  • , Dario Imbraguglio
  • , Judith Elena Jordan
  • , Stephan Krenek
  • , Graham Machin
  • , Igor P. Marko
  • , Théo Martel
  • , Maria Jose Martin
  • , Richard A. Norte
  • , Laurent Pitre
  • , Sara Pourjamal
  • , Marco Queisser
  • Israel Rebolledo-Salgado, Iago Sanchez, Daniel Schmid, Cliona Shakespeare, Fernando Sparasci, Peter G. Steeneken*, Tatiana Steshchenko, Stephen J. Sweeney, Shahin Tabandeh, Georg Winzer, Anoma Yamsiri, Alethea Vanessa Zamora Gómez, Martin Zelan, Lars Zimmermann
*Corresponding author for this work
  • Laboratoire Commun de Métrologie (LNE-CNAM)
  • Université Paris Cité
  • Institut Universitaire de France
  • University of Paris-Saclay
  • Sorbonne University
  • Delft University of Technology
  • German National Metrology Institute (PTB)
  • National Metrological Institute (INRIM)
  • National Physics Laboratory (NPL)
  • University of Glasgow
  • Centre de Nanosciences et de Nanotechnologies
  • Tres Cantos
  • Technical University of Berlin
  • RISE Research Institutes of Sweden
  • Centro Español de Metrología (CEM)
  • Leibniz ​Institut für innovative Mikroelektronik (IHP)

Research output: Contribution to journalReview Article

Abstract

Current temperature sensors require regular recalibration to maintain reliable temperature measurement. Photonic/quantum-based approaches have the potential to radically change the practice of thermometry through provision of in situ traceability, potentially through practical primary thermometry, without the need for sensor recalibration. This article gives an overview of the European Partnership in Metrology (EPM) project: Photonic and quantum sensors for practical integrated primary thermometry (PhoQuS-T), which aims to develop sensors based on photonic ring resonators and optomechanical resonators for robust, small-scale, integrated, and wide-range temperature measurement. The different phases of the project will be presented. The development of the integrated optical practical primary thermometer operating from 4 K to 500 K will be reached by a combination of different sensing techniques: with the optomechanical sensor, quantum thermometry below 10 K will provide a quantum reference for the optical noise thermometry (operating in the range 4 K to 300 K), whilst using the high-resolution photonic (ring resonator) sensor the temperature range to be extended from 80 K to 500 K. The important issues of robust fibre-to-chip coupling will be addressed, and application case studies of the developed sensors in ion-trap monitoring and quantum-based pressure standards will be discussed.

Original languageEnglish
Article number44
JournalMetrology
Volume5
Issue number3
DOIs
Publication statusPublished - Sept 2025
MoE publication typeB1 Article in a scientific magazine

Funding

The project (23FUN01 PhoQuS-T) has received funding from the European Partnership on Metrology, co-financed from the European Union’s Horizon Europe Research and Innovation Programme and by the Participating States. The UK participants in PhoQuS-T are supported by UKRI Horizon Europe Guarantee grant numbers 10140159 (University of Glasgow) and 10131020 (National Physical Laboratory).

Keywords

  • optical metrology
  • photonic and quantum sensors
  • temperature measurements
  • traceability and calibration in metrology

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