Native integrated sensing and communication on rigid waveform manifolds (continued): window and structure of common-aperture scan heads, master-and-wingman swarms, moving-mountain potential-field control, video return on the same beam and radio backu

Technical disclosure (defensive publication), continuing DP01 (DOI 10.5281/zenodo.23420482). A family of systems and methods around native integrated sensing and communication (ISAC) on one coherent optical beam. Disclosed with alternatives and numeric ranges: a window on a common-aperture scan head tilted so that its normal lies outside the scan frame, with tilt direction, coating for the incidence range and a matched scan limit; a capsule-shaped two-axis scan head with inner frame, driver boards on the azimuth platform, routing without closed holes, self-contained units on a universal base and under-belly mounting, including flight without satellite navigation from the same beam aimed at the ground; swarms of a few masters and many wingmen, in which one master broadcasts one living field by radio and wingmen follow it without connection or handshake; moving-mountain potential-field control, with path-length terrain, one field and one set of rules, a safety check over the whole stop and standard setpoints to the flight controller; and compressed video returned as manifold payload on the same beam, with a three-state radio for nearby access and low-rate backup and a millimetre-wave radar as sensing backup. English and Chinese versions with corresponding paragraph numbers.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-03
DOI
https://doi.org/10.5281/zenodo.23934001
Primary Topic
Radar Systems and Signal Processing
Type
article
Field-Weighted Citation Impact
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article

Native integrated sensing and communication on rigid waveform manifolds (continued): window and structure of common-aperture scan heads, master-and-wingman swarms, moving-mountain potential-field control, video return on the same beam and radio backu

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

Native integrated sensing and communication on rigid waveform manifolds (continued): window and structure of common-aperture scan heads, master-and-wingman swarms, moving-mountain potential-field control, video return on the same beam and radio backu

V131 Lab
article en

Abstract

Technical disclosure (defensive publication), continuing DP01 (DOI 10.5281/zenodo.23420482). A family of systems and methods around native integrated sensing and communication (ISAC) on one coherent optical beam. Disclosed with alternatives and numeric ranges: a window on a common-aperture scan head tilted so that its normal lies outside the scan frame, with tilt direction, coating for the incidence range and a matched scan limit; a capsule-shaped two-axis scan head with inner frame, driver boards on the azimuth platform, routing without closed holes, self-contained units on a universal base and under-belly mounting, including flight without satellite navigation from the same beam aimed at the ground; swarms of a few masters and many wingmen, in which one master broadcasts one living field by radio and wingmen follow it without connection or handshake; moving-mountain potential-field control, with path-length terrain, one field and one set of rules, a safety check over the whole stop and standard setpoints to the flight controller; and compressed video returned as manifold payload on the same beam, with a three-state radio for nearby access and low-rate backup and a millimetre-wave radar as sensing backup. English and Chinese versions with corresponding paragraph numbers.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 20%
Radar Systems and Signal Processing
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