Intelligence Brief: Technical Feasibility of Targeted Individual Technologies
A Collation of Peer-Reviewed Research on Convergent Technical Capabilities
by Kevin Boykin
12/24/2025
1. Executive Summary
This brief examines the technical feasibility of effects reported by individuals identifying as Targeted Individuals (TIs). Drawing exclusively on peer-reviewed academic literature, declassified patents, government research reports, and publicly documented technological demonstrations, the analysis finds that the reported effects are technically plausible and consistent with the known capabilities of modern sensing, signal processing, neurostimulation, and autonomous systems.
This document does not assess intent, deployment, attribution, or claims of harm. Its sole purpose is to determine whether the described effects fall within the envelope of established or emerging technologies.
This document is maintained as a living analysis and may be updated to reflect new publicly available technical evidence. Submissions of relevant peer-reviewed or declassified technical sources are welcome for consideration in future revisions.
2. Core System Architecture: Surveillance & Data Framework
Persistent targeting would require continuous, real-time physiological and behavioral data acquisition, integration, and modeling.
Source 2A
Mokhtari, M. (2024). Human Digital Twins in Personalized Healthcare: An Overview and Future Perspectives.
Link: https://arxiv.org/abs/2503.11944
Assessment:
This paper describes a five-layer “Human Digital Twin” architecture integrating physiological, neurological, genetic, and behavioral data streams via wearables, medical records, and analytic models. The work demonstrates that continuous human state modeling using heterogeneous data sources is a formally articulated and actively researched paradigm.
Source 2B
Harun-Ur-Rashid, M. et al. (2022).
Rapid diagnosis of COVID-19 via nano-biosensor-implemented biomedical utilization: A systematic review.
RSC Advances, 12, 9445–9465.
Link: https://doi.org/10.1039/D2RA01293F
Assessment:
This open-access review documents deployable nano-biosensor platforms (electrochemical, optical, and FET-based) capable of high-specificity molecular detection. Integration with smartphones and real-time signal processing demonstrates the feasibility of continuous physiological data capture compatible with live health modeling.
Source 2C
Yektamoghadam, H. et al. (2024).
A Review on Recent Energy Harvesting Methods for Increasing Battery Efficiency in Wireless Body Area Networks (WBANs).
arXiv:2402.00877
Link: https://arxiv.org/abs/2402.00877
Assessment:
This review establishes that long-duration, self-sustaining wearable and implantable sensor networks are feasible through RF, thermal, vibrational, biochemical, and endogenous electrical energy harvesting. Power constraints are no longer a fundamental barrier to persistent body-borne sensing.
Source 2D
U.S. Department of Defense. Directive 3000.09 – Autonomy in Weapon Systems.
Link: https://www.esd.whs.mil/Portals/54/Documents/DD/issuances/dodd/300009p.pdf
Assessment:
The directive governs AI-enabled and autonomous systems, addressing lifecycle control, cyber interference, spoofing, and human-machine interaction risks. Its existence demonstrates that autonomous, non-kinetic systems are sufficiently mature to require formal doctrine and governance.
3. Foundational Mechanism: Remote Brain Interface
Source 3A
Malech, R. G. (1976).
Apparatus and method for remotely monitoring and altering brain waves.
U.S. Patent 3,951,134
Link: https://patents.google.com/patent/US3951134A
Assessment:
This patent describes bidirectional electromagnetic interaction with brain activity, including remote signal detection (“read”) and modulation (“write”), establishing an early formal framework for remote neurological interfacing.
Source 3B
Cestaro, V. (1993).
Implications of Subliminal Classical Conditioning for Defeating Countermeasures in Deception Detection.
DoD Polygraph Institute Research Report
Link: https://polygraph.org/docs/cm_subliminal_conditioning.pdf
Assessment:
The study demonstrates that subliminal stimuli can elicit involuntary autonomic responses resistant to conscious suppression, validating the feasibility of unconscious physiological influence under controlled conditions.
Source 3C
Elgendi, M. et al. (2018).
Subliminal Priming: State of the Art and Future Perspectives.
Behavioral Sciences
Link: https://www.mdpi.com/2076-328X/8/6/54
Assessment:
A comprehensive review showing that subliminal stimuli reliably produce measurable neural and behavioral effects, while emphasizing boundedness and context dependence.
4. Weaponization Blueprint: Military Bioeffects Research
Source 4A
U.S. Department of the Army (1998).
Bioeffects of Selected Non-Lethal Weapons.
Link: https://archive.org/details/bioeffects-of-selected-non-lethal-weapons-1998
Assessment:
This report documents military interest in directed-energy bioeffects, including microwave auditory effects (V2K), RF-induced cognitive disruption, and motor interference, confirming operational research into remote physiological impact mechanisms.
5. Modern State of the Art: Precision Demonstrations
Source 5A
Independent Observational Measurements (Illustrative, Non–Peer Reviewed)
Iorlano, D. Experimental acoustic and frequency-domain measurements associated with reported auditory phenomena.
Link: Iorlano, D. Independent acoustic and frequency-domain measurements associated with reported auditory phenomena, including tinnitus-like effects.
Assessment:
This section summarizes independently obtained instrument-based observations documenting externally measurable acoustic energy temporally associated with reported tinnitus-like and V2K-related auditory effects. Using standard spectrum analysis equipment, persistent high-frequency acoustic signals were detected in the approximate range of 16–18.3 kHz, correlated with periods of reported auditory perception.
These observations are not peer-reviewed and are not presented as diagnostic evidence, proof of causation, attribution, or deployment. They are included as an illustrative example demonstrating that the class of reported auditory phenomena corresponds, in at least some cases, to physically measurable external signals rather than exclusively subjective perception.
The inclusion of this material serves as a measurement bridge between documented historical research (e.g., microwave auditory effects and directed-energy bioeffects) and modern precision demonstrations. Similar observational measurements are, in principle, repeatable using commercially available acoustic analysis instrumentation under controlled conditions.
Source 5B
MIT Lincoln Laboratory (2021).
Targeted Acoustic Laser Communication (TALC).
Link:
https://www.ll.mit.edu/partner-us/available-technologies/targeted-acoustic-laser-communication-talc
Assessment:
Demonstrates laser-induced photoacoustic generation of highly localized sound, validating precision auditory delivery without conventional speakers.
6. Neurological Interaction Technologies
Source 6A
General clinical and research literature on TMS, tDCS, PEMF, and functional neuroimaging.
Assessment:
These technologies demonstrate selective excitation and inhibition of brain regions with documented cognitive, speech, and motor effects, establishing a plausible mechanism set for neurological interference.
7. Conclusion
Across biomedical sensing, energy harvesting, autonomous systems, neurostimulation, and precision signal delivery, the literature establishes a coherent technological lineage sufficient to account for the categories of effects reported by TIs. When considered as an integrated, AI-assisted system-of-systems, these capabilities are technically feasible within current or near-term science.