Chang, Yue - Revision history

Mahnsoo.Choi: /* Few-Photon Bound States in the Continuum */

2026-09-22T00:42:43Z

Few-Photon Bound States in the Continuum

← Older revision		Revision as of 00:42, 22 September 2026
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	[[Category: Speakers]]		[[Category: Speakers]]

	==Few-Photon Bound States in the Continuum==		==Contributions==
			* [[Few-Photon Bound States in the Continuum]]
	* Speaker: [[Chang, Yue\|Yue Chang]] (Beijing Academy of Quantum Information Science, China)
	* Event: [[Quantum Technology Workshop 2026]]
	* {{Media/Button\|QTW2026-Yue.pdf\|Slides (PDF)}}

	Bound states in the continuum (BICs) can confine photonic excitations in open systems without relying on conventional cavities or photonic band gaps, making them promising for long-lived quantum storage and few-photon control. In this talk, I will present our recent work on single- and two-photon BICs. For single-photon BICs, we develop a capture–reshape–release protocol based on temporal control of a giant atom coupled to a waveguide. For two-photon states, we establish a no-go theorem for interaction-active BICs supported by a single emitter. We then investigate two-photon quasi-BICs in giant-atom systems and determine how their decay rates scale with the system parameters.

	[[Category: Quantum Technology Workshop 2026]]		[[Category: Quantum Technology Workshop 2026]]

Mahnsoo.Choi: /* Few-Photon Bound States in the Continuum */

2026-09-12T01:18:13Z

Few-Photon Bound States in the Continuum

← Older revision		Revision as of 01:18, 12 September 2026
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	* Speaker: [[Chang, Yue\|Yue Chang]] (Beijing Academy of Quantum Information Science, China)		* Speaker: [[Chang, Yue\|Yue Chang]] (Beijing Academy of Quantum Information Science, China)
	* Event: [[Quantum Technology Workshop 2026]]		* Event: [[Quantum Technology Workshop 2026]]
			* {{Media/Button\|QTW2026-Yue.pdf\|Slides (PDF)}}

	Bound states in the continuum (BICs) can confine photonic excitations in open systems without relying on conventional cavities or photonic band gaps, making them promising for long-lived quantum storage and few-photon control. In this talk, I will present our recent work on single- and two-photon BICs. For single-photon BICs, we develop a capture–reshape–release protocol based on temporal control of a giant atom coupled to a waveguide. For two-photon states, we establish a no-go theorem for interaction-active BICs supported by a single emitter. We then investigate two-photon quasi-BICs in giant-atom systems and determine how their decay rates scale with the system parameters.		Bound states in the continuum (BICs) can confine photonic excitations in open systems without relying on conventional cavities or photonic band gaps, making them promising for long-lived quantum storage and few-photon control. In this talk, I will present our recent work on single- and two-photon BICs. For single-photon BICs, we develop a capture–reshape–release protocol based on temporal control of a giant atom coupled to a waveguide. For two-photon states, we establish a no-go theorem for interaction-active BICs supported by a single emitter. We then investigate two-photon quasi-BICs in giant-atom systems and determine how their decay rates scale with the system parameters.

	[[Category: Quantum Technology Workshop 2026]]		[[Category: Quantum Technology Workshop 2026]]

Mahnsoo.Choi at 00:40, 12 August 2026

2026-08-12T00:40:06Z

← Older revision		Revision as of 00:40, 12 August 2026
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	Yue Chang is an associate researcher at the Beijing Academy of Quantum Information Sciences. She received her PhD from the Institute of Theoretical Physics, Chinese Academy of Sciences, and subsequently conducted postdoctoral research at the Max Planck Institute of Quantum Optics. Her current research focuses on quantum optics and its applications to quantum precision measurement, Rydberg-atom ensembles, X-ray quantum optics, and few-photon scattering.		Yue Chang is an associate researcher at the Beijing Academy of Quantum Information Sciences. She received her PhD from the Institute of Theoretical Physics, Chinese Academy of Sciences, and subsequently conducted postdoctoral research at the Max Planck Institute of Quantum Optics. Her current research focuses on quantum optics and its applications to quantum precision measurement, Rydberg-atom ensembles, X-ray quantum optics, and few-photon scattering.

			[[Category: Speakers]]

	==Few-Photon Bound States in the Continuum==		==Few-Photon Bound States in the Continuum==
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	Bound states in the continuum (BICs) can confine photonic excitations in open systems without relying on conventional cavities or photonic band gaps, making them promising for long-lived quantum storage and few-photon control. In this talk, I will present our recent work on single- and two-photon BICs. For single-photon BICs, we develop a capture–reshape–release protocol based on temporal control of a giant atom coupled to a waveguide. For two-photon states, we establish a no-go theorem for interaction-active BICs supported by a single emitter. We then investigate two-photon quasi-BICs in giant-atom systems and determine how their decay rates scale with the system parameters.		Bound states in the continuum (BICs) can confine photonic excitations in open systems without relying on conventional cavities or photonic band gaps, making them promising for long-lived quantum storage and few-photon control. In this talk, I will present our recent work on single- and two-photon BICs. For single-photon BICs, we develop a capture–reshape–release protocol based on temporal control of a giant atom coupled to a waveguide. For two-photon states, we establish a no-go theorem for interaction-active BICs supported by a single emitter. We then investigate two-photon quasi-BICs in giant-atom systems and determine how their decay rates scale with the system parameters.

	~~[[Category: Speakers]]~~
	[[Category: Quantum Technology Workshop 2026]]		[[Category: Quantum Technology Workshop 2026]]

Mahnsoo.Choi at 23:58, 5 August 2026

2026-08-05T23:58:31Z

← Older revision		Revision as of 23:58, 5 August 2026
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	==Few-Photon Bound States in the Continuum==		==Few-Photon Bound States in the Continuum==

			* Speaker: [[Chang, Yue\|Yue Chang]] (Beijing Academy of Quantum Information Science, China)
			* Event: [[Quantum Technology Workshop 2026]]

	Bound states in the continuum (BICs) can confine photonic excitations in open systems without relying on conventional cavities or photonic band gaps, making them promising for long-lived quantum storage and few-photon control. In this talk, I will present our recent work on single- and two-photon BICs. For single-photon BICs, we develop a capture–reshape–release protocol based on temporal control of a giant atom coupled to a waveguide. For two-photon states, we establish a no-go theorem for interaction-active BICs supported by a single emitter. We then investigate two-photon quasi-BICs in giant-atom systems and determine how their decay rates scale with the system parameters.		Bound states in the continuum (BICs) can confine photonic excitations in open systems without relying on conventional cavities or photonic band gaps, making them promising for long-lived quantum storage and few-photon control. In this talk, I will present our recent work on single- and two-photon BICs. For single-photon BICs, we develop a capture–reshape–release protocol based on temporal control of a giant atom coupled to a waveguide. For two-photon states, we establish a no-go theorem for interaction-active BICs supported by a single emitter. We then investigate two-photon quasi-BICs in giant-atom systems and determine how their decay rates scale with the system parameters.

Mahnsoo.Choi: Created page with "Yue Chang is an associate researcher at the Beijing Academy of Quantum Information Sciences. She received her PhD from the Institute of Theoretical Physics, Chinese Academy of Sciences, and subsequently conducted postdoctoral research at the Max Planck Institute of Quantum Optics. Her current research focuses on quantum optics and its applications to quantum precision measurement, Rydberg-atom ensembles, X-ray quantum optics, and few-photon scattering. ==Few-Photon Boun..."

2026-07-23T06:24:03Z

Created page with "Yue Chang is an associate researcher at the Beijing Academy of Quantum Information Sciences. She received her PhD from the Institute of Theoretical Physics, Chinese Academy of Sciences, and subsequently conducted postdoctoral research at the Max Planck Institute of Quantum Optics. Her current research focuses on quantum optics and its applications to quantum precision measurement, Rydberg-atom ensembles, X-ray quantum optics, and few-photon scattering. ==Few-Photon Boun..."

New page

Yue Chang is an associate researcher at the Beijing Academy of Quantum Information Sciences. She received her PhD from the Institute of Theoretical Physics, Chinese Academy of Sciences, and subsequently conducted postdoctoral research at the Max Planck Institute of Quantum Optics. Her current research focuses on quantum optics and its applications to quantum precision measurement, Rydberg-atom ensembles, X-ray quantum optics, and few-photon scattering.

==Few-Photon Bound States in the Continuum==

Bound states in the continuum (BICs) can confine photonic excitations in open systems without relying on conventional cavities or photonic band gaps, making them promising for long-lived quantum storage and few-photon control. In this talk, I will present our recent work on single- and two-photon BICs. For single-photon BICs, we develop a capture–reshape–release protocol based on temporal control of a giant atom coupled to a waveguide. For two-photon states, we establish a no-go theorem for interaction-active BICs supported by a single emitter. We then investigate two-photon quasi-BICs in giant-atom systems and determine how their decay rates scale with the system parameters.

[[Category: Speakers]]
[[Category: Quantum Technology Workshop 2026]]