Jonathan C. F. Matthews

About Jonathan C. F. Matthews

Jonathan C. F. Matthews, With an exceptional h-index of 31 and a recent h-index of 28 (since 2020), a distinguished researcher at University of Bristol, specializes in the field of Quantum optics, integrated quantum photonics, quantum technologies.

His recent articles reflect a diverse array of research interests and contributions to the field:

Heterogeneous Integration of Solid-State Quantum Systems with a Foundry Photonics Platform

Sub- axial precision depth imaging with entangled two-color Hong-Ou-Mandel microscopy

Nitrogen-vacancy centres integrated with foundry silicon nitride photonics

High bandwidth homodyne detection in a monolithic ePIC process

Hybrid Integrated Photonic/Electronic Homodyne Detector for GHz Baud Rate Continuous Variable Quantum Key Distribution

Fidelity estimation of quantum states on a silicon photonic chip

GHz configurable photon pair generation from a silicon nonlinear interferometer

Semi-device independent nonlocality certification for near-term quantum networks

Jonathan C. F. Matthews Information

University

Position

Associate Professor

Citations(all)

7552

Citations(since 2020)

4018

Cited By

5179

hIndex(all)

31

hIndex(since 2020)

28

i10Index(all)

46

i10Index(since 2020)

42

Email

University Profile Page

Google Scholar

Jonathan C. F. Matthews Skills & Research Interests

Quantum optics

integrated quantum photonics

quantum technologies

Top articles of Jonathan C. F. Matthews

Heterogeneous Integration of Solid-State Quantum Systems with a Foundry Photonics Platform

ACS Photonics 2023

2023/8/31

Sub- axial precision depth imaging with entangled two-color Hong-Ou-Mandel microscopy

Physical Review A

2023/8/24

Nitrogen-vacancy centres integrated with foundry silicon nitride photonics

2023/6/26

High bandwidth homodyne detection in a monolithic ePIC process

2023/6/26

Hybrid Integrated Photonic/Electronic Homodyne Detector for GHz Baud Rate Continuous Variable Quantum Key Distribution

2023/6/26

Fidelity estimation of quantum states on a silicon photonic chip

arXiv preprint arXiv:2306.01068

2023/6/1

GHz configurable photon pair generation from a silicon nonlinear interferometer

arXiv preprint arXiv:2305.16033

2023/5/25

Semi-device independent nonlocality certification for near-term quantum networks

arXiv preprint arXiv:2305.14116

2023/5/23

A Bi-CMOS electronic-photonic integrated circuit quantum light detector

arXiv preprint arXiv:2305.08990

2023/5/15

A CMOS-compatible heterogeneous interferometer for chip-scale temperature sensing

Applied Physics Letters

2022/12/26

Estimating the concentration of chiral media with bright squeezed light

Applied Physics Letters

2022/10/31

Quantum-limited Loss and Phase Estimation Using All-pass Ring Resonators

2022/10/17

Quantum-limited absorption estimation with ring resonators

Proceedings of the Optical Sensors and Sensing Congress 2022 (AIS, LACSEA, Sensors, ES)

2022/9/22

Estimating the concentration of chiral analytes with bright squeezed light

arXiv e-prints

2022/8

Coherent States in Ring Resonators Outperform Any Quantum Probe Single-pass Absorption Estimation Strategy

2022/6/13

Advantage of coherent states in ring resonators over any quantum probe single-pass absorption estimation strategy

Physical Review Letters

2022/6/6

Strategies and components for quantum limited precision measurement in integrated quantum photonics

2022/3/9

Shot-noise limited homodyne detection for MHz quantum light characterisation in the 2 µm band

Optics Express

2022/2/28

Poissonian twin-beam states and the effect of symmetrical photon subtraction in loss estimations

Physical Review A

2021/12/27

See List of Professors in Jonathan C. F. Matthews University(University of Bristol)

Co-Authors

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