Anonymous ID: 0a6e59 May 12, 2025, 9:23 a.m. No.23025313   🗄️.is 🔗kun   >>5319 >>5321 >>5330 >>5331 >>5349 >>5356 >>5385 >>5770 >>5838

Cell Phones can control your brain

 

https://pubmed.ncbi.nlm.nih.gov/17786925/

 

The effect of mobile phone electromagnetic fields on the alpha rhythm of human electroencephalogram

 

Abstract

Mobile phones (MP) emit low-level electromagnetic fields that have been reported to affect neural function in humans; however, demonstrations of such effects have not been conclusive. The purpose of the present study was to test one of the strongest findings in the literature; that of increased "alpha" power in response to MP-type radiation. Healthy participants (N = 120) were tested using a double-blind counterbalanced crossover design, with each receiving a 30-min Active and a 30-min Sham Exposure 1 week apart, while electroencephalogram (EEG) data were recorded. Resting alpha power (8-12 Hz) was then derived as a function of time, for periods both during and following exposure. Non-parametric analyses were employed as data could not be normalized. Previous reports of an overall alpha power enhancement during the MP exposure were confirmed (relative to Sham), with this effect larger at ipsilateral than contralateral sites over posterior regions. No overall change to alpha power was observed following exposure cessation; however, there was less alpha power contralateral to the exposure source during this period (relative to ipsilateral). Employing a strong methodology, the current findings support previous research that has reported an effect of MP exposure on EEG alpha power.

 

Between this and big pharma, this is the operable way they manipulate people's behavior. This is what Q referenced and was hoping we would find.

Anonymous ID: 0a6e59 May 12, 2025, 9:26 a.m. No.23025321   🗄️.is 🔗kun   >>5330 >>5331 >>5349 >>5356 >>5375 >>5385 >>5770 >>5838

>>23025313

 

Second study of cell phones manipulating the brain

 

Mobile phone 'talk-mode' signal delays EEG-determined sleep onset

 

https://pubmed.ncbi.nlm.nih.gov/17548154/

 

Abstract

Mobile phones signals are pulse-modulated microwaves, and EEG studies suggest that the extremely low-frequency (ELF) pulse modulation has sleep effects. However, 'talk', 'listen' and 'standby' modes differ in the ELF (2, 8, and 217Hz) spectral components and specific absorption rates, but no sleep study has differentiated these modes. We used a GSM900 mobile phone controlled by a base-station simulator and a test SIM card to simulate these three specific modes, transmitted at 12.5% (23dBm) of maximum power. At weekly intervals, 10 healthy young adults, sleep restricted to 6h, were randomly and single-blind exposed to one of: talk, listen, standby and sham (nil signal) modes, for 30 min, at 13:30 h, whilst lying in a sound-proof, lit bedroom, with a thermally insulated silent phone beside the right ear. Bipolar EEGs were recorded continuously, and subjective ratings of sleepiness obtained every 3 min (before, during and after exposure). After exposure the phone and base-station were switched off, the bedroom darkened, and a 90 min sleep opportunity followed. We report on sleep onset using: (i) visually scored latency to onset of stage 2 sleep, (ii) EEG power spectral analysis. There was no condition effect for subjective sleepiness. Post-exposure, sleep latency after talk mode was markedly and significantly delayed beyond listen and sham modes. This condition effect over time was also quite evident in 1-4Hz EEG frontal power, which is a frequency range particularly sensitive to sleep onset. It is possible that 2, 8, 217Hz modulation may differentially affect sleep onset.

 

These studies are only related to the cell phones themselves. Imagine what they can do with a cell tower… MUCH more power. This is why they pushed for beam forming (using more than one tower to triangulate a users location and beam a stronger wave in that direction)

 

https://my.avnet.com/abacus/solutions/markets/communications/5g-solutions/5g-beamforming/

Anonymous ID: 0a6e59 May 12, 2025, 9:31 a.m. No.23025349   🗄️.is 🔗kun   >>5352 >>5354 >>5356

>>23025331

>>23025321

>>23025313

>>23025330

 

What was Unique about Blackberry cell phones

 

  1. BlackBerry Enterprise Server (BES) Integration

Technical Specificity: BES used a highly secure, push-based architecture over port 3101 to relay data between corporate email servers (like Microsoft Exchange, Lotus Domino, and Novell GroupWise) and BlackBerry devices.

 

Differentiator: Competing phones pulled email via standard protocols (IMAP, POP3, or ActiveSync) with periodic polling. BlackBerry used a proprietary encrypted tunnel to push messages in real time, dramatically reducing latency and bandwidth usage.

 

Security: End-to-end encryption using Triple DES or later AES encryption between the device and the enterprise server.

 

  1. Push-Based Messaging Architecture

Technical Specificity: BlackBerry's NOC (Network Operations Center) acted as a relay hub for all data between the device and the internet/email server.

 

Differentiator: Unlike iPhones (until iOS 3) or Android (which used Google Cloud Messaging later), BlackBerry’s push messaging was continuous and didn't require apps to run in the background—this saved battery and data.

 

Unique Effect: True instantaneous delivery of email and BlackBerry Messenger (BBM) with minimal power and CPU usage.

 

  1. Custom QNX-Like Real-Time Operating System (BlackBerry OS)

Technical Specificity: BlackBerry OS was a lightweight, multitasking OS optimized for low memory usage and high stability on limited hardware.

 

Differentiator: Windows Mobile and early Android OS were heavier, more resource-intensive, and less stable under constrained conditions.

 

Impact: Allowed BlackBerrys to operate smoothly with as little as 64MB of RAM and low-end ARM processors.

 

  1. Unmatched Battery Efficiency

Technical Specificity: BlackBerry devices were designed with very low power CPUs (often ARM7TDMI, later ARM11) and highly optimized firmware that used polling minimization and sleep states aggressively.

 

Differentiator: Devices could last several days on a single charge with active email, messaging, and cellular usage, which was significantly better than early iPhones or Androids.

 

  1. Physical Keyboard with Precision Tactility

Technical Specificity: BlackBerry’s keyboards used a dome-switch membrane design that gave responsive tactile feedback and low key actuation force, with smart input correction algorithms.

 

Differentiator: Most other phones used styluses, resistive touch (Palm, Windows Mobile), or capacitive touch (iPhone) with virtual keyboards that were less efficient for business communication.

 

  1. BlackBerry Messenger (BBM) with Device-PIN Based Routing

Technical Specificity: BBM messages were encrypted and routed using device-specific PINs registered with the BlackBerry NOC, bypassing the SMS infrastructure entirely.

 

Differentiator: Unlike SMS or even iMessage (later introduced), BBM was highly secure, immediate, and didn't rely on a phone number or SIM card.

 

  1. Global Roaming with Advanced GSM/CDMA Support

Technical Specificity: Some models like the BlackBerry 8830 World Edition supported both GSM and CDMA radios with seamless switching.

 

Differentiator: Most phones at the time were locked into either GSM or CDMA, limiting global usability.

 

  1. Full IT Policy Control and Remote Wipe

Technical Specificity: Admins using BES could enforce over 500+ policies, including disabling cameras, Bluetooth, SD card use, installing apps, or even remote wiping.

 

Differentiator: This level of MDM (Mobile Device Management) was not available on iPhones until much later, and Android's fragmentation made it difficult.

 

In summary, BlackBerry phones stood out due to deep enterprise integration, real-time low-latency communication, best-in-class security, and hardware/software synergy that favored stability and power efficiency. While others focused on multimedia and UI innovation, BlackBerry optimized for reliability, messaging, and security—traits especially valued in business and government environments.

Anonymous ID: 0a6e59 May 12, 2025, 9:31 a.m. No.23025352   🗄️.is 🔗kun   >>5356

>>23025349

 

Differentiator: Unlike iPhones (until iOS 3) or Android (which used Google Cloud Messaging later), BlackBerry’s push messaging was continuous and didn't require apps to run in the background—this saved battery and data.

 

The apps are how they beam signals into the brain…

Anonymous ID: 0a6e59 May 12, 2025, 9:42 a.m. No.23025392   🗄️.is 🔗kun   >>5427 >>5457

>>23025384

>>23025385

 

Infrared flashes from phones and computers can alter mental state

 

They don't just use it for tracking, face recognition, and spying, they use it to influence your brain directly.

 

✅ Technically Possible? Yes — Under Specific, Extreme Conditions.

❌ Happens with IR flashes from consumer devices? No — Not under normal use.

⚙️ 1. Infrared Interaction with Biological Tissue

Infrared (700 nm – 1 mm) is non-ionizing, meaning it cannot break chemical bonds or ionize atoms.

 

It does get absorbed by water and biological tissue, converting into heat.

 

Near-infrared (NIR), used in most consumer devices (e.g., face recognition), penetrates several millimeters into the skin but does not reach brain tissue with enough energy to affect neurons directly.

 

🧠 2. When IR Can Affect the Brain

There is a field called transcranial photobiomodulation (tPBM), which uses specific infrared wavelengths (e.g., 810 nm, 1064 nm) with controlled power to irradiate the skull for neuromodulatory effects:

 

Claimed effects: increased cerebral blood flow, ATP production, or nitric oxide release.

 

Power: ~100–1000 mW/cm² for 10–20 minutes — not a flash, but a sustained dose.

 

Some studies suggest temporary improvements in mood, cognition, or reduced symptoms of depression.

 

BUT:

 

This uses carefully tuned wavelengths, controlled exposure, sustained duration, and often special headgear.

 

Consumer IR flashes (like on iPhones or cameras) are:

 

Brief pulses (milliseconds)

 

Low power

 

Not targeted or sustained

 

Not penetrating deep enough

 

⚠️ 3. Could IR Be Weaponized or Misused to Alter Mental State?

In theory — yes, with enough:

 

Power output

 

Precise wavelength

 

Modulation patterns

 

Prolonged exposure

A covert, pulsed, high-intensity IR source could potentially induce thermal or vascular effects in the brain if safety thresholds are exceeded. But:

 

This would require military- or research-grade equipment.

 

Nothing in phones, remotes, or consumer cameras comes close.

 

🧾 Summary

Condition Mental State Alteration Possible? Notes

IR face unlock flashes ❌ No Insufficient power/duration

Photobiomodulation devices ✅ Some evidence Controlled, sustained NIR exposure

High-powered military IR ⚠️ Theoretical Requires focused, intense, prolonged beams

Anonymous ID: 0a6e59 May 12, 2025, 9:59 a.m. No.23025457   🗄️.is 🔗kun   >>5462 >>5465

>>23025392

 

Yes, LED lights can and do use the infrared spectrum — specifically when they are designed as infrared LEDs (IR LEDs).

 

✅ Technical Explanation

  1. What Are IR LEDs?

Infrared LEDs are light-emitting diodes engineered to emit non-visible infrared light, typically in the 700 nm to 950 nm range.

 

These are commonly used in:

 

TV remote controls (~940 nm)

 

Security cameras for night vision

 

Facial recognition systems (like Apple's Face ID)

 

Optical data transmission

 

Infrared communication in industrial sensors

 

  1. Materials and Emission Range

IR LEDs are made from semiconductors like Gallium Arsenide (GaAs) or Aluminum Gallium Arsenide (AlGaAs).

 

These materials are tuned to emit photons in the infrared rather than visible range.

 

Material Typical Wavelength Emitted

GaAs ~850 nm

AlGaAs ~880–950 nm

 

  1. Invisible but Detected

While humans can’t see infrared, camera sensors and photodiodes can. Try pointing a remote control at a phone camera — you'll likely see the IR LED blinking.

 

⚠️ Can Regular Visible LEDs Emit IR?

Not typically. Standard visible-spectrum LEDs (e.g., white, red, blue) emit within the 400–700 nm range.

 

However, all light-emitting diodes generate some thermal radiation, which includes far-infrared, but this is incidental and extremely weak.

 

Purpose-built IR LEDs are specifically optimized to emit in the NIR (Near-Infrared) band.

 

🧪 Summary

Type of LED Emits Infrared? Purpose

IR LED (850–950nm) ✅ Yes Remote controls, Face ID, night vision

Standard LED (visible) ❌ Not significantly Mostly visible light, negligible IR

High-power LED arrays ⚠️ Some incidental IR From heat, not useful for IR transmission

Anonymous ID: 0a6e59 May 12, 2025, 10:08 a.m. No.23025498   🗄️.is 🔗kun   >>5504

🧠💻Could Civilian Devices Be Hijacked to Influence Brainwaves or Thought Patterns?

 

🔴 Technically, such influence is extremely limited, but not strictly impossible in theory.

Under specific, exotic conditions, some domestic devices could be co-opted to produce weak EM fields or sensory stimuli that might influence brain states — but only in very limited, indirect, and unreliable ways.

 

Let’s analyze this scientifically.

 

⚙️ Key Requirements to Influence Brainwaves

To meaningfully alter brainwaves or thought patterns, a device would need to:

 

Emit electromagnetic or sensory signals in the right frequency range (1–100 Hz for brain rhythms).

 

Deliver sufficient power or modulation depth to affect neural tissue.

 

Target the subject's head persistently and precisely.

 

Most civilian electronics cannot meet all three conditions.

 

✅ Devices Most Likely to Be Exploited (in theory)

Device Why It’s a Candidate Limitations

Smart Speakers (e.g., Alexa, Google Home) Can emit ultrasonic or rhythmic audio patterns, potentially creating auditory brain entrainment. Could be hijacked via Wi-Fi. Very low intensity. Effects limited to auditory entrainment (like binaural beats). No direct EM brain stimulation.

Smart TVs / Monitors Can display flicker-based visual stimuli (e.g., flashing at alpha/beta frequencies). Can influence attention/arousal via visual entrainment, but doesn’t directly "hack" thought patterns. Needs full control of screen content.

Wi-Fi Routers Emit 2.4–5 GHz RF continuously. Some theoretical work on Wi-Fi signals modulated to detect or slightly influence movement (e.g., respiration, gestures). Not capable of deep tissue modulation. Power far too low. No evidence of direct cognitive influence.

VR Headsets / AR Glasses Fully immersive visual and auditory system, potentially capable of multi-modal sensory entrainment. Could affect cognition indirectly via sensory overload or manipulation. But needs the user to actively engage.

LED Lighting Systems (e.g., Philips Hue) Could, in theory, be modulated to produce flicker at neural frequencies (e.g., 10 Hz alpha). Only visual pathway affected. Would require deliberate and sustained manipulation.

Smartphones Can emit sound, light, vibration, and mild RF. Apps may play subliminal audio, modulate notifications. Direct EM entrainment is not possible. Indirect psychological influence (e.g., stress, distraction) is more likely.

 

🧠 Indirect Psychological Influence vs. EMF Neuromodulation

Indirect influence (e.g., via psychological manipulation, distraction, addiction loops) is very real and supported by research (especially with smartphones and social media).

 

Direct brainwave entrainment via EM fields from household devices has no reproducible evidence under normal operation, and hacking those devices to generate neuromodulatory fields would require:

 

Custom firmware or signal injection

 

Extended proximity to the subject

 

Power levels that would likely violate FCC/ICNIRP safety standards

 

🚫 Devices That Cannot Be Used This Way (Under Normal Circumstances)

Microwaves (shielded, not programmable)

 

Refrigerators, washing machines, air purifiers (no relevant EM or sensory interfaces)

 

Smart thermostats or IoT sensors (too low energy and minimal emissions)

 

🧪 Bottom Line

No domestic civilian device has been scientifically shown to cause brainwave alteration in the way you’re implying — unless the device is physically modified or used far outside its intended operation.

 

However, devices that provide sensory stimulation (light, sound, haptics) could be manipulated to create entrainment-like effects (e.g., flashing lights at 10 Hz can affect alpha rhythms).

 

Such manipulation would not give an attacker control over thoughts, but might influence mood, alertness, or discomfort.

 

I believe that regardless of "low power" these devices can absolutely effect a user's brain far more than AI is letting on