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Detection-dependent six-photon Holland-Burnett state interference.

Rui-Bo Jin1,2, Mikio Fujiwara1, Ryosuke Shimizu3

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Researchers explored the full Holland-Burnett state interference (HBSI) pattern, revealing its dependence on detection schemes. This expands applications in quantum spectroscopy and metrology.

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Area of Science:

  • Quantum optics
  • Quantum metrology

Background:

  • The NOON state and Holland-Burnett state are crucial for phase sensing with enhanced sensitivity.
  • Previous Holland-Burnett state interference (HBSI) studies were limited to near-zero optical path length differences.
  • The full HBSI pattern across wide optical path length differences remains underexplored.

Purpose of the Study:

  • To experimentally and theoretically demonstrate multi-photon Holland-Burnett state interference (HBSI).
  • To investigate the properties of HBSI patterns over a broad range of optical path length differences.
  • To explore the dependence of HBSI pattern characteristics on detection schemes.

Main Methods:

  • Experimental demonstration of up to six-photon Holland-Burnett state interference (HBSI).
  • Theoretical analysis of HBSI patterns.
  • Systematic study of interference pattern properties, including shape, coherence time, and visibility, across varying optical path length differences and detection schemes.

Main Results:

  • Successful demonstration of up to six-photon HBSI.
  • Identification of strong dependencies between interference pattern shape, coherence time, visibility, and detection schemes.
  • Comprehensive mapping of the full HBSI pattern over a wide range of optical path length differences.

Conclusions:

  • The study provides a comprehensive understanding of the full HBSI pattern.
  • Detection schemes significantly influence HBSI pattern characteristics.
  • This research enables new applications in quantum spectroscopy and quantum metrology utilizing the HBSI pattern envelope.