Question 1

What is the Frey microwave auditory effect?

Accepted Answer

The Frey effect (Allan Frey 1961; Lin 2022 IEEE) is the perception of sound — clicking, buzzing, or voice-like sounds — from pulsed microwave radiation. Mechanism: pulsed RF energy at 200 MHz–8.9 GHz is absorbed by water in biological tissue, creating rapid localised thermoelastic expansion. In the skull, this produces a pressure wave that travels through bone to the cochlea and vestibular organs via the labyrinthine perilymph, bypassing the outer and middle ear entirely. The US National Academies of Sciences cited it as the most plausible explanation for Havana Syndrome (NASEM 2020). Scene 101 visualises the full pathway in 3D.

Question 2

What is DolphinAttack and how does it work?

Accepted Answer

DolphinAttack (Zhang et al. ACM CCS 2017) is an attack in which voice commands are modulated onto an ultrasonic carrier (25–40 kHz, above human hearing). When the carrier reaches a device microphone, the MEMS membrane's nonlinear response demodulates the signal back into baseband audio, which the voice assistant processes as a real command. The attacker can activate Siri, Google Assistant, or Alexa without the user hearing anything. The carrier also couples through the tympanic membrane into the middle ear fluid, sharing the labyrinthine pathway with the Frey effect. Scene 100 provides a live browser-based 5-band detector.

Question 3

Do human eyes emit light? What is biophoton emission?

Accepted Answer

Yes. All living cells emit ultra-weak photon emission (UPE) — also called biophotons — in the 200–800 nm range at 1–1000 photons/cm²/s (Popp 1976). The retina is particularly active due to its high metabolic rate. Wang et al. (2010) provided the first direct experimental evidence of spontaneous and light-induced UPE from freshly isolated rat eyes, suggesting the retinal apparatus may function analogously to radar antennae — emitting photons that return reflected information about the environment. These emissions are detectable by a cooled CCD camera at −120°C in a dark room. Scene 101 visualises the emission and its potential harvesting by a remote sensor.

Question 4

How does Artemis 2 relate to bioelectromagnetic attacks?

Accepted Answer

Artemis 2 (launched April 1, 2026) provides four real-time parallels to ground-based directed RF effects: (1) Cosmic ray phosphenes — HZE particles trigger retinal Cherenkov radiation and direct photoreceptor ionisation beyond Earth's magnetosphere, functionally identical to Frey thermoelastic rhodopsin activation (Narici 2024). (2) xEMU bone conduction headsets transmit audio through the temporal bone to the cochlea — the same mechanical chain as the Frey thermoelastic pathway. (3) Vestibular de-adaptation: 50% of astronauts develop Space Adaptation Syndrome as microgravity removes otolith gravitational reference (Hallgren et al. 2016) — the same hypersensitive state RF vestibular attacks exploit. (4) O2O laser system transmits data at 1,550 nm infrared — the same spectral range as retinal biophoton emission. See Scene 101, Artemis 2 tab.

Question 5

What is the Havana Syndrome and what technology causes it?

Accepted Answer

Havana Syndrome refers to anomalous health incidents (AHI) affecting US and Canadian embassy personnel since 2016, characterised by sudden-onset hearing, vestibular, and cognitive symptoms. The US National Academies of Sciences (NASEM 2020) concluded that directed pulsed radio-frequency energy is the most plausible mechanism — specifically, the Frey microwave auditory effect operating at parameters consistent with the reported symptoms. The NASEM report cited simultaneous cochlear and vestibular activation via the shared labyrinthine perilymph as the key signature. Scenes 83, 91, 98, 99, and 101 cover the full mechanism with citations.

Question 6

How do I detect a DolphinAttack or ultrasonic carrier in my room?

Accepted Answer

Scene 100 provides a live browser-based detector: start your microphone, navigate to the DolphinAttack tab, and watch the 5-band monitor (17–44 kHz). True DolphinAttack carriers (25–40 kHz) are above the browser Nyquist limit (24 kHz at 48 kHz sample rate), but their intermodulation products and sidebands appear in the 17–24 kHz detection zone. A sustained alert (1 second above threshold) logs the event with a SHA256 hash of the FFT frame as cryptographic evidence. For confirmed above-Nyquist detection, use a TinySA Ultra (Scene 96 Tier 2 equipment list).

Question 7

Can my vestibular system be affected by electromagnetic radiation?

Accepted Answer

The scientific evidence supports this possibility through the Frey thermoelastic mechanism. The cochlea and vestibular organs (semicircular canals, utricle, saccule) share continuous labyrinthine perilymph. A thermoelastic pressure wave entering the temporal bone propagates through this fluid, reaching both hearing and balance organs simultaneously. NASEM (2020) cited vestibular symptoms as part of the AHI clinical picture. Additionally, ultrasonic carriers (DolphinAttack range) couple through the tympanic membrane into the middle ear fluid and reach the same structures. Scene 98 visualises the anatomy; Scene 99 covers differential diagnosis and clinical tests (vHIT, cVEMP).

Question 8

Am I being paranoid or is surveillance technology real?

Accepted Answer

The technology is documented in peer-reviewed literature. WiFi routers extract room occupancy through walls via channel state information (CSI). FMCW radar at 77 GHz extracts heartbeat and breathing from adjacent rooms. Laser Doppler vibrometers recover speech from window vibrations at 500m. Pulsed microwave creates auditory percepts via the Frey effect. DolphinAttack injects voice commands via 40 kHz carriers. All of these have been published in IEEE, USENIX, ACM, and NASEM reports. The question is not whether the technology exists — it does, and this site provides the citations and 3D visualisations. The question is the probability of any specific incident.

Question 9

How does NASA Artemis 2 O2O laser relate to biophoton emission?

Accepted Answer

Artemis 2 O2O uses a 1,550 nm infrared laser at 193 THz to transmit up to 260 Mbps from the Moon (MIT Lincoln Lab / NASA SCaN 2026). Retinal biophotons (UPE) emit at 200-800 nm at 1-1000 photons/cm/s (Popp 1976; Wang 2010). Both encode information via coherent photon emission across distance — the spacecraft and the human eye perform the same fundamental operation at different scales. Scene 101 Biophoton and Comms Nexus tabs visualise this parallel in 3D.

Question 10

Why is NASA using bone conduction for the xEMU spacesuit and how does this relate to the Frey effect?

Accepted Answer

NASA xEMU replaces helmet speakers with bone conduction pads on the temporal bone, delivering audio through skull vibration into the cochlea via labyrinthine perilymph (NTRS Cavanaugh 2024). This is mechanically identical to the Frey microwave auditory effect (Lin 2022): both use the temporal bone to perilymph to cochlear hair cell pathway. The attacker uses pulsed RF; NASA uses a piezoelectric transducer. Same bone, same fluid, same receptor.

Question 11

Do Artemis 2 astronauts see light flashes from cosmic rays? How does this relate to the Frey effect?

Accepted Answer

Yes. Beyond Earth's magnetosphere, HZE particles (galactic cosmic rays ~1 GeV/n) strike the retina, generating Cherenkov radiation and direct photoreceptor ionisation — producing phosphenes even with eyes closed (Narici, Z Med Phys 2024; Planetary Society 2026). This is functionally identical to Frey thermoelastic activation of rhodopsin: both trigger retinal receptors without an external photon source. Scene 83 visualises the Frey mechanism; Scene 101 Artemis 2 tab shows the cosmic ray parallel.

Question 12

How is NASA Delta-DOR deep space navigation related to IMSI catcher phone triangulation?

Accepted Answer

NASA Delta-DOR locates spacecraft by measuring the signal arrival time difference at two DSN stations — time-difference-of-arrival (TDOA) triangulation. IMSI catchers locate phones using the same TDOA physics across multiple cell towers. Scene 40 documents IMSI catcher tracking; Scene 52 covers civilian direction-finding. The physics are identical across 8 orders of magnitude in distance.

Question 13

How does the RTL-SDR Doppler fingerprint Python code in Scene 31 relate to NASA deep space tracking?

Accepted Answer

Scene 31 uses Doppler shift in a received RF carrier to identify emitters — the same principle NASA's Deep Space Network uses to measure Orion's velocity to millimetre-per-second precision from 400,000 km. The DSN uplink at 7.1-7.2 GHz would appear as an anomalous narrowband carrier on Scene 91's RF baseline scanner — which it technically is, from a ground-based detection perspective.