Theres Hope On The Horizon Inc is the 501c3 that is associated with this account and the listed website. All contributions are considered Tax Deductible 2025
Joined September 2016
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1,388 Photos and videos
CarbonXChange retweeted
Jun 11
“We found 146,000 kids so far. Some of these kids claimed that they were raped over 600 times. I don't care who you are. If you can't stand for law enforcement to go find these kids, who are you?” @SecMullinDHS
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CarbonXChange retweeted
Jun 11
🚨 HUNDREDS OF PEOPLE CLAIM VOICES ARE BEING BEAMED INTO THEIR HEADS
This wasn't some obscure internet forum.
This was a mainstream television news report.
The people interviewed claimed they were hearing voices that nobody else could hear.
They believed the voices were being transmitted directly into their minds. They claimed their thoughts were being monitored, tracked, and manipulated.
The report aired 13 years ago.
Most people dismissed it immediately.
But here's what makes the story so strange:
A local news station thought the claims were serious enough to investigate.
Support groups existed.
Billboards were purchased.
Hundreds of people reported similar experiences.
A "Freedom House" was even opened for people who believed they were being targeted.
The official explanation was mental illness.
Yet more than a decade later, this report is still circulating online and raising the same uncomfortable questions.
If even 1% of what these people were saying was true... what else have we been told to ignore?
📹: KMIR6
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May 30
The Industry is forcing people into your new cars with Ai and auto shutdown features. No more backyard mechanics.
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May 29
This guy explains the very reason why a CarbonXChange- Carbon Stablecoin has been developed and created. It’s not about climate, it’s about straightforward investment transactions that are only a Penny.
It’s about accountability of every Penny.
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May 25
Understanding how to mimic human behavior and copy it, IS the purpose of Ai Learning Models. It’s doing what you designed it to do and it responds how you want it to respond. These models reverse engineer and rebuild everything in a different way…. New neural networks are created so I don’t understand why he seems unsettled. x.com/TFTC21/status/20588895…
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CarbonXChange retweeted
May 25
Experimental Proposal: Ultrasonic-Assisted Electric Field Stabilization for MMA Thermal Runaway (Garden Grove Incident)
To: On-scene Incident Commanders, OCFA Hazmat, GKN Aerospace Technical Team, and Chemical Process Safety Experts
Date: May 25, 2026
Classification: Experimental / Untried Physical Intervention Concept
Critical Disclaimer: This is a highly experimental concept based on publicly available laboratory research on electric field effects in free-radical polymerization and ultrasonic applications in polymer systems. It has not been tested at industrial scale, particularly not on a pressurized, viscous, cracked tank containing methyl methacrylate (MMA) in an active emergency. It is not a proven or approved method. Any deployment requires immediate, rigorous review by qualified chemical engineers, electrical safety experts, hazmat specialists, and appropriate authorities. Risks include electrical hazards, ignition of flammable vapors, mechanical stress on the tank, unintended reaction acceleration, or worsening leaks. Proceed only if standard methods (external water cooling, monitoring cracks for pressure relief) are exhausted and a controlled test window is identified.0
Situation Summary (Focus on Untried Approaches)
The ongoing thermal runaway is driven by free-radical chain-growth polymerization of MMA (CH₂=C(CH₃)COOCH₃ → PMMA), with exothermic propagation accelerated by viscosity buildup (Trommsdorff-Norrish gel effect). Existing efforts center on external cooling and limited neutralization access. This proposal explores physical interventions using electricity/frequency and side-wall ultrasonic infiltration, relying solely on established public materials and technologies.
Proposed Solution: Side-Wall Ultrasonic Infiltration Combined with Electric Field Application
Goal: Use ultrasonic waves applied from the tank sides to improve internal mixing/penetration and couple with controlled electric fields to influence propagating carbon-centered radicals (P•), promote chain termination or controlled orientation, and reduce localized heat generation.
Key Components (Using Existing Public Materials):
•Ultrasonic Transducers: Commercially available high-power ultrasonic transducers or arrays (e.g., 20–40 kHz industrial sonicators or cleaning-style immersible transducers adapted for external mounting). These are standard in polymer processing, chemical mixing, and sonochemistry applications. Mount externally on the metal tank walls (stainless steel piping and vessel sides) using coupling gels or mechanical clamps for acoustic transmission through the metal into the viscous contents.
•Electric Field Application: Leverage the tank’s existing grounded metal structure and accessible metal piping as electrodes or conductive paths. Apply low-to-moderate DC or AC fields (targeting internal strengths in the 5–50 kV/cm range where penetration allows, based on public lab studies of MMA under electric fields). Use standard high-voltage power supplies and function generators available from scientific/electrical suppliers.
•Integration: Ultrasonic infiltration from the sides for enhanced mass/heat transfer and potential radical disruption, combined with frequency-tuned electric fields to affect chain dipoles and radical behavior.
Deployment Outline (If Safe Access Window Exists):
1Preparation: With Incident Command approval, identify suitable side-wall locations on the metal tank/piping away from known cracks. Attach ultrasonic transducers externally with proper acoustic coupling (standard gels or pastes used in non-destructive testing).
2Ultrasonic Infiltration: Apply pulsed ultrasound (20–40 kHz, power levels typical for industrial sonication) to promote micro-mixing, cavitation-assisted penetration into the viscous polymer-monomer mass, and potential localized energy dissipation. This could help break up insulating layers and improve heat conduction toward cooled exterior walls without internal insertion.
BREAKING: 50,000 evacuated in Garden Grove as crews work through the night to prevent toxic chemical tank explosion at GKN Aerospace facility. Gov. Newsom declares state of emergency. Tank cracked, leaking… #California #OrangeCounty #ChemicalEmergency
breitbart.com/politics/2026/…
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May 25
Experimental Proposal: Ultrasonic-Assisted Electric Field Stabilization for MMA Thermal Runaway (Garden Grove Incident)
To: On-scene Incident Commanders, OCFA Hazmat, GKN Aerospace Technical Team, and Chemical Process Safety Experts
Date: May 25, 2026
Classification: Experimental / Untried Physical Intervention Concept
Critical Disclaimer: This is a highly experimental concept based on publicly available laboratory research on electric field effects in free-radical polymerization and ultrasonic applications in polymer systems. It has not been tested at industrial scale, particularly not on a pressurized, viscous, cracked tank containing methyl methacrylate (MMA) in an active emergency. It is not a proven or approved method. Any deployment requires immediate, rigorous review by qualified chemical engineers, electrical safety experts, hazmat specialists, and appropriate authorities. Risks include electrical hazards, ignition of flammable vapors, mechanical stress on the tank, unintended reaction acceleration, or worsening leaks. Proceed only if standard methods (external water cooling, monitoring cracks for pressure relief) are exhausted and a controlled test window is identified.0
Situation Summary (Focus on Untried Approaches)
The ongoing thermal runaway is driven by free-radical chain-growth polymerization of MMA (CH₂=C(CH₃)COOCH₃ → PMMA), with exothermic propagation accelerated by viscosity buildup (Trommsdorff-Norrish gel effect). Existing efforts center on external cooling and limited neutralization access. This proposal explores physical interventions using electricity/frequency and side-wall ultrasonic infiltration, relying solely on established public materials and technologies.
Proposed Solution: Side-Wall Ultrasonic Infiltration Combined with Electric Field Application
Goal: Use ultrasonic waves applied from the tank sides to improve internal mixing/penetration and couple with controlled electric fields to influence propagating carbon-centered radicals (P•), promote chain termination or controlled orientation, and reduce localized heat generation.
Key Components (Using Existing Public Materials):
•Ultrasonic Transducers: Commercially available high-power ultrasonic transducers or arrays (e.g., 20–40 kHz industrial sonicators or cleaning-style immersible transducers adapted for external mounting). These are standard in polymer processing, chemical mixing, and sonochemistry applications. Mount externally on the metal tank walls (stainless steel piping and vessel sides) using coupling gels or mechanical clamps for acoustic transmission through the metal into the viscous contents.
•Electric Field Application: Leverage the tank’s existing grounded metal structure and accessible metal piping as electrodes or conductive paths. Apply low-to-moderate DC or AC fields (targeting internal strengths in the 5–50 kV/cm range where penetration allows, based on public lab studies of MMA under electric fields). Use standard high-voltage power supplies and function generators available from scientific/electrical suppliers.
•Integration: Ultrasonic infiltration from the sides for enhanced mass/heat transfer and potential radical disruption, combined with frequency-tuned electric fields to affect chain dipoles and radical behavior.
Deployment Outline (If Safe Access Window Exists):
1Preparation: With Incident Command approval, identify suitable side-wall locations on the metal tank/piping away from known cracks. Attach ultrasonic transducers externally with proper acoustic coupling (standard gels or pastes used in non-destructive testing).
2Ultrasonic Infiltration: Apply pulsed ultrasound (20–40 kHz, power levels typical for industrial sonication) to promote micro-mixing, cavitation-assisted penetration into the viscous polymer-monomer mass, and potential localized energy dissipation. This could help break up insulating layers and improve heat conduction toward cooled exterior walls without internal insertion.
BREAKING: 50,000 evacuated in Garden Grove as crews work through the night to prevent toxic chemical tank explosion at GKN Aerospace facility. Gov. Newsom declares state of emergency. Tank cracked, leaking… #California #OrangeCounty #ChemicalEmergency
breitbart.com/politics/2026/…
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May 25
Electric Field Coupling: Simultaneously or sequentially apply ramped DC/AC fields through the metal structure. Sweep frequencies (e.g., 100 Hz–10 MHz range) to target resonances with polymer chain dipoles or C=C bonds.
Monitoring: Continue existing temperature/pressure/IR monitoring. Look for reductions in internal heat generation rate, viscosity stabilization, or pressure trends.
Safety Controls: Use explosion-proof equipment, gradual ramp-up, immediate shutdown on any adverse indicators, and maintain ongoing water cooling.
Rationale from Public Research:
Electric fields have been shown in lab studies to influence MMA free-radical polymerization by affecting charged radicals, chain conformation, tacticity, and propagation kinetics.21
Ultrasonication is established for polymer systems: it provides mechanical energy for mixing, can modulate radical processes, and improves dispersion/heat transfer in viscous media. While ultrasound can initiate polymerization in some contexts, controlled application may aid disruption of runaway acceleration or better delivery of stabilizing effects.11
Estimated Probability of Success
If everything goes smoothly (safe transducer mounting, effective acoustic/electric coupling through metal walls, no ignition or mechanical issues, observable effect on internal dynamics despite viscosity): ~10–15% probability of meaningful stabilization (e.g., slowing exothermic propagation enough for external cooling to gain traction or preventing further escalation).
This conservative estimate reflects scale-up challenges from lab data, penetration limits in a large viscous volume, and the advanced stage of the reaction.
Next Steps: Immediate expert consultation and small-scale lab validation using similar MMA samples before any field consideration. This is offered as an exploratory idea to expand options for Garden Grove responders and community safety.
This remains strictly experimental. Prioritize established emergency protocols.
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