Photon Agronomy & Photon Throughput Economy

“What must this plant stop doing, for how long, to protect the crop—and what does achieving that outcome cost?” Weed science’s critical period for weed control identifies when weeds must be held back to avoid yield loss. A shorter dwell that holds competition below a crop-damaging level through that period can protect yield as effectively as a longer exposure aimed at rapid mortality. Matched crop outcomes, recovery, and repeat work will establish which prescriptions do so. In a target-limited workload with fixed independent channels, ideal area capacity varies inversely with selected-target density and total channel time per weed.This engineering perspective draws on built L&Aser™ modules that combine and shape blue-diode light, farm-machine integrations, grower field observations, engineering tests, and a permission-scoped summary of independent Oregon State annual-bluegrass research. Photon Agronomy connects optical delivery to plant injury and recovery. Photon Throughput Economy connects the chosen outcome to treatment time, repeat passes, energy, labor, capital, and complete farm cost.Twelve hypotheses frame the research. Leading tests ask whether suppression protects yield during the crop’s critical period (H4), whether treated survivors produce and shed fewer viable seeds (H5), and whether complementary methods reduce photonic workload while protecting the crop (H10). Viable seed rain—the viable seeds shed into the field—and later soil seedbank change require separate measurements. Independent experiments must measure delivered exposure, plant recovery, reproduction, crop yield, and operating time. Appendices preserve source provenance, optical accounting, computational models, and supporting imagery.Author preprint; not peer reviewed. Licensing scope: The manuscript is licensed under Creative Commons Attribution 4.0 International, except for material expressly identified as subject to separate rights or permissions. Supplementary materials retain their individually stated licenses and rights notices. L&Aser™ software, hardware designs, and patent licensing are addressed separately in L&A’s published Dual Licensing v1.4 framework: LASER/L&Aser Dual Licensing V1.4_8_5_2026.pdf at main · Laudando-Associates-LLC/LASER · GitHubAgCeption® is a registered trademark of Laudando & Associates LLC; no trademark rights are granted under the manuscript’s Creative Commons license.The manuscript’s CC BY 4.0 license does not grant patent or trademark rights or replace the terms applicable to separately licensed implementation materials.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-29
DOI
https://doi.org/10.5281/zenodo.23038733
Primary Topic
Light effects on plants
Type
preprint
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Photon Agronomy & Photon Throughput Economy

Christopher W. Laudando
Zenodo (CERN European Organization for Nuclear Research)
Light effects on plants
preprint

Photon Agronomy & Photon Throughput Economy

Christopher W. Laudando
preprint en

Abstract

“What must this plant stop doing, for how long, to protect the crop—and what does achieving that outcome cost?” Weed science’s critical period for weed control identifies when weeds must be held back to avoid yield loss. A shorter dwell that holds competition below a crop-damaging level through that period can protect yield as effectively as a longer exposure aimed at rapid mortality. Matched crop outcomes, recovery, and repeat work will establish which prescriptions do so. In a target-limited workload with fixed independent channels, ideal area capacity varies inversely with selected-target density and total channel time per weed.This engineering perspective draws on built L&Aser™ modules that combine and shape blue-diode light, farm-machine integrations, grower field observations, engineering tests, and a permission-scoped summary of independent Oregon State annual-bluegrass research. Photon Agronomy connects optical delivery to plant injury and recovery. Photon Throughput Economy connects the chosen outcome to treatment time, repeat passes, energy, labor, capital, and complete farm cost.Twelve hypotheses frame the research. Leading tests ask whether suppression protects yield during the crop’s critical period (H4), whether treated survivors produce and shed fewer viable seeds (H5), and whether complementary methods reduce photonic workload while protecting the crop (H10). Viable seed rain—the viable seeds shed into the field—and later soil seedbank change require separate measurements. Independent experiments must measure delivered exposure, plant recovery, reproduction, crop yield, and operating time. Appendices preserve source provenance, optical accounting, computational models, and supporting imagery.Author preprint; not peer reviewed. Licensing scope: The manuscript is licensed under Creative Commons Attribution 4.0 International, except for material expressly identified as subject to separate rights or permissions. Supplementary materials retain their individually stated licenses and rights notices. L&Aser™ software, hardware designs, and patent licensing are addressed separately in L&A’s published Dual Licensing v1.4 framework: LASER/L&Aser Dual Licensing V1.4_8_5_2026.pdf at main · Laudando-Associates-LLC/LASER · GitHubAgCeption® is a registered trademark of Laudando & Associates LLC; no trademark rights are granted under the manuscript’s Creative Commons license.The manuscript’s CC BY 4.0 license does not grant patent or trademark rights or replace the terms applicable to separately licensed implementation materials.

Zenodo (CERN European Organization for Nuclear Research)
Light effects on plants
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