Native integrated sensing and communication on one coherent optical beam using rigid waveform manifolds: system architecture, synchronization, whole-unit decision, keying, beam steering and control interfaces

Technical disclosure (defensive publication). A family of systems and methods for native integrated sensing and communication (ISAC) on one coherent optical beam. Each transmission unit is a rigid manifold of N complex samples from a shared waveform book; the payload is the choice of whole-manifold state, so the same manifold yields range and kinematic state from its echo and carries data to a remote unit. Disclosed with alternatives and numeric ranges: synchronization nails (common lock nail and identity nail, capture ladder, candidate order), whole-manifold windowed coherent vote, two-layer transmitter/receiver feedback, scan / latch-and-stop / track / lock / hold beam steering and tracking of the most critical neighbours, per-unit books with link-derived factors and session secrets and a pre-transmit self-check, intermediate-frequency pre-rotation of the book, a radar body built on a pluggable coherent transceiver module (CFP2-ACO class) with an amplified circulator front end and dual-polarization reception, and the kinematic tensor (position, velocity, acceleration, jerk) used directly as a control quantity with potential-field navigation and swarm-as-field coordination. English and Chinese versions with corresponding paragraph numbers.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-16
DOI
https://doi.org/10.5281/zenodo.23420481
Primary Topic
Radar Systems and Signal Processing
Type
article
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article

Native integrated sensing and communication on one coherent optical beam using rigid waveform manifolds: system architecture, synchronization, whole-unit decision, keying, beam steering and control interfaces

V131 Lab
Zenodo (CERN European Organization for Nuclear Research)
Radar Systems and Signal Processing
article

Native integrated sensing and communication on one coherent optical beam using rigid waveform manifolds: system architecture, synchronization, whole-unit decision, keying, beam steering and control interfaces

V131 Lab
article en

Abstract

Technical disclosure (defensive publication). A family of systems and methods for native integrated sensing and communication (ISAC) on one coherent optical beam. Each transmission unit is a rigid manifold of N complex samples from a shared waveform book; the payload is the choice of whole-manifold state, so the same manifold yields range and kinematic state from its echo and carries data to a remote unit. Disclosed with alternatives and numeric ranges: synchronization nails (common lock nail and identity nail, capture ladder, candidate order), whole-manifold windowed coherent vote, two-layer transmitter/receiver feedback, scan / latch-and-stop / track / lock / hold beam steering and tracking of the most critical neighbours, per-unit books with link-derived factors and session secrets and a pre-transmit self-check, intermediate-frequency pre-rotation of the book, a radar body built on a pluggable coherent transceiver module (CFP2-ACO class) with an amplified circulator front end and dual-polarization reception, and the kinematic tensor (position, velocity, acceleration, jerk) used directly as a control quantity with potential-field navigation and swarm-as-field coordination. English and Chinese versions with corresponding paragraph numbers.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 18%
Radar Systems and Signal Processing
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