Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Opto-Electronics and Communications Conference (OECC)

Optimized optical devices for active integrated quantum photonics applications

Ching Eng Png, Jun Rong Ong, Thomas Y. L. Ang, G. Alagappan, Soon Thor Lim

Published Jul 1, 2018• 0 citations
Publisher

Abstract

We present a set of optimized passive and active photonic devices for applications in quantum photonic systems based on silicon material platforms. These devices form key parts of active integrated photonic quantum circuits.
DOI
10.1109/oecc.2018.8729914

Related papers

Material platforms for integrated quantum photonics

Simeon Bogdanov, Mikhail Y. Shalaginov, Alexandra E. Boltasseva +1 more

On-chip integration of quantum optical systems could be a major factor enabling photonic quantum technologies. Unlike the case of electronics, where the essential device is a transistor and the dominant material is silicon, the toolbox of elementary devices required for both classical and quantum photonic integrated circuits is vast. Therefore, many material platforms are being examined to host the future quantum photonic computers and network nodes. We discuss the pros and cons of several platforms for realizing various elementary devices, compare the current degrees of integration achieved in each platform and review several composite platform approaches.

arXiv:1610.00729•Oct 3, 2016•0 citations

Silicon Nitride Platform for Integrated Photonic Circuits Applied to Quantum Technologies

Karina Garay-Palmett, Francisco A. Domínguez-Serna, F. Castro +5 more

This work presents advances in developing photonic circuits, proposed on an integrated silicon nitride platform, for applications in quantum technologies. Among other functionalities, these devices are designed to generate and control quantum states of light.

Latin America Optics and Photonics Conference•Jan 1, 2024•0 citations

Material platforms for integrated quantum photonics

Simeon Bogdanov, Mikhail Y. Shalaginov, Alexandra E. Boltasseva +1 more

On-chip integration of quantum optical systems could be a major factor enabling photonic quantum technologies. Unlike the case of electronics, where the essential device is the transistor and the dominant material is silicon, the toolbox of elementary devices required for both classical and quantum photonic integrated circuits is vast. While III-V materials have been shown to host most quantum photonic components, the issues of their intercompatibility, scalability and performance are far from being solved. Therefore, many material platforms are being examined to host the future quantum photonic computers and network nodes. We discuss the pros and cons of several platforms for realizing various elementary devices, compare the current degrees of integration achieved in each platform and review several composite platform approaches.

Optical Materials Express•Dec 8, 2016•176 citations

Integrated Photonic Quantum Sources and Circuits in Lithium Niobate Platform

Tien-Dat Pham, Yixin Lin, Cheng-Chung Chiu +8 more

We report the study of various passive and active optical elements as building blocks for realizing novel quantum photonic sources and circuits including a highly integrated on-chip Bell state generator and a broadband tunable electro-optic switch, all based on bulk or thin-film lithium niobate waveguide platforms.

Microoptics Conference•Sep 24, 2023•0 citations

Materials and Devices for Integrated Atomic Quantum Systems

Karan K. Mehta

I will discuss a novel material platform for blue/UV integrated photonics, as well as high-purity passive generation of pure circularly polarized light leveraging vectorial waveguide mode structure, for application in integrated atomic quantum systems. Full-text article not available; see video presentation

Frontiers in Optics•Jan 1, 2024•0 citations

Integrated nonlinear photonics

Jun Rong Ong

This chapter reviews the developments in the field of integrated nonlinear photonics. It discusses the use of silicon for integrated nonlinear photonics. The field of integrated photonics grew in parallel with the emergence of optical fiber communications and micro-electronics fabrication. This led to the development of active and passive devices such as diode lasers, optical modulators, and planar light wave circuits consisting of filters, couplers, and multiplexers. Integrated photonics technology has recently begun to impact the quantum optics community, forming a distinct area of research termed quantum photonics. With its capacity for complex large-scale on-chip photonic circuits, integrated quantum photonics has been suggested as a solution to the challenge of scaling increasingly complex quantum optical experiments and devices. Quantum information technologies that explicitly tap into the unique properties of quantum systems are predicted to greatly outperform their classical counterparts.

CRC Press eBooks•Aug 21, 2017•0 citations
On-chip integration of quantum optical systems could be a major factor enabling photonic quantum technologies. Unlike the case of electronics, where the essential device is a transistor and the dominant material is silicon, the toolbox of elementary devices required for both classical and quantum photonic integrated circuits is vast. Therefore, many material platforms are being examined to host the future quantum photonic computers and network nodes. We discuss the pros and cons of several platforms for realizing various elementary devices, compare the current degrees of integration achieved in each platform and review several composite platform approaches.
On-chip integration of quantum optical systems could be a major factor enabling photonic quantum technologies. Unlike the case of electronics, where the essential device is the transistor and the dominant material is silicon, the toolbox of elementary devices required for both classical and quantum photonic integrated circuits is vast. While III-V materials have been shown to host most quantum photonic components, the issues of their intercompatibility, scalability and performance are far from being solved. Therefore, many material platforms are being examined to host the future quantum photonic computers and network nodes. We discuss the pros and cons of several platforms for realizing various elementary devices, compare the current degrees of integration achieved in each platform and review several composite platform approaches.
This chapter reviews the developments in the field of integrated nonlinear photonics. It discusses the use of silicon for integrated nonlinear photonics. The field of integrated photonics grew in parallel with the emergence of optical fiber communications and micro-electronics fabrication. This led to the development of active and passive devices such as diode lasers, optical modulators, and planar light wave circuits consisting of filters, couplers, and multiplexers. Integrated photonics technology has recently begun to impact the quantum optics community, forming a distinct area of research termed quantum photonics. With its capacity for complex large-scale on-chip photonic circuits, integrated quantum photonics has been suggested as a solution to the challenge of scaling increasingly complex quantum optical experiments and devices. Quantum information technologies that explicitly tap into the unique properties of quantum systems are predicted to greatly outperform their classical counterparts.