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“The earthquake powers its own defeat.”
Every year, earthquakes cause $100+ billion in global property damage. Current building codes focus on survivability — not functionality. Even “earthquake-resistant” structures sustain significant damage, require costly inspections, and may be condemned after a major event.
The Cascadia Subduction Zone is overdue for a M9.0+ megathrust earthquake. There is no affordable, scalable, active isolation system for buildings — and no existing system that can operate independently of grid power during the event.
StabilityCore is an active seismic isolation platform that cancels earthquake forces in real time — and unlike every other active system, it harvests the earthquake’s own energy to power itself.
Linear alternators convert earthquake displacement into electricity. The harder the earthquake, the more power the system generates. No grid required — ever.
PID-controlled actuators cancel seismic forces within milliseconds. The building stays level while the ground shakes beneath it.
Proprietary bearing technology reduces friction on demand during seismic events, enabling near-perfect isolation without mechanical wear.
Four layers of earthquake detection ensure the system is fully operational before shaking arrives at the structure.
The entire system runs on energy harvested from natural forces. No fossil fuels, no grid power, no refrigerants in the maritime version. Clean technology from the ground up.
Unlike conventional base isolation — where buildings permanently float on bearings — StabilityCore’s spring cartridges sit compressed and locked during normal operation. The building is rigid on its foundation. No float, no sway, no settlement concerns. Occupants never know the system is there.
Like automotive airbags: dormant for years, deploy in milliseconds when needed, mandatory replacement after activation. A safety system that’s invisible until the moment it saves lives.
No single sensor failure can trigger deployment. Multiple independent confirmations must agree — like a nuclear launch requiring multiple key-turns:
ShakeAlert / USGS detects earthquake at distance. Provides seconds to minutes of advance notice. System powers up and enters armed state.
Outer sensor ring (0.5–2 km) confirms approaching P-wave heading toward the building. Ground-motion sensors validate direction and magnitude.
Local IMU confirms actual ground motion at the building exceeds threshold. Solenoids fire, spring cartridges release, building decouples from foundation.
All three stages must agree within a time window that matches seismic wave propagation physics. If only 1 or 2 stages trigger, the system stays in elevated alert but does not deploy — preventing false activations from truck traffic, construction blasting, or sensor faults.
Deployed cartridges are spent — springs, pins, and housings undergo extreme stress during activation. Just like airbags, they must be replaced before the building is reoccupied. This isn’t a revenue strategy — it’s a safety requirement. No responsible engineer would re-certify spent cartridges in the field.
New construction is a small slice of the market. The massive opportunity is the hundreds of millions of existing buildings worldwide in seismic zones with zero isolation protection.
Lift entire building, cut columns, insert isolators
$10M+ per building — only for critical infrastructure
Months of disruption, specialized heavy equipment
Building permanently floats — settlement concerns
Bolt cartridges inline at post-beam connections — no jacking, no foundation work
Fraction of conventional cost — accessible for any building
Days, not months. Standard structural steel work.
Building stays rigid — dormant until earthquake
Millions of post-and-beam houses line the West Coast — Portland, Seattle, the Bay Area, Los Angeles — most built in the 1920s–1960s before modern seismic codes. Many sit on unreinforced foundations with posts connected by gravity alone — merely toenailed or notched into beams. These homes will fail in even a moderate earthquake.
Pacific Northwest coastal communities are ground zero. Towns like Astoria, Seaside, Cannon Beach, Long Beach, and Westport sit directly on the Cascadia Subduction Zone — overdue for a M9.0+ megathrust. These communities are full of aging post-and-beam homes on sandy or fill soil that will liquefy. Many are also in the tsunami inundation zone: the building must survive shaking first before occupants can evacuate to high ground.
StabilityCore cartridges insert inline at each post-beam connection. Brackets bolt to the post below and beam above. When locked, the brackets make the joint stronger than the original gravity-only connection — a foundation repair and structural upgrade that also happens to be a seismic isolation system. Two certified installers can retrofit a house in 1–2 days, working from the crawl space. No jacking. No foundation work. No heavy equipment.
Every major earthquake creates political pressure to protect existing buildings. After Turkey 2023, Japan 2024, and countless others — governments search for affordable retrofit solutions. Right now, there isn’t one. StabilityCore changes that. Cities could mandate retrofit the same way they mandate fire sprinklers — because now there’s actually an affordable way to do it.
StabilityCore doesn’t just protect buildings — it creates an entirely new skilled trade industry:
Two-person crews in every seismic community. Training, certification, and ongoing employment — a career path modeled after HVAC/EPA certification, not gig work.
Factory jobs for cartridge fabrication, post-earthquake refurbishment, quality assurance, and sensor assembly. Domestic manufacturing with skilled labor.
Annual inspection technicians visiting every installed building. Remote monitoring center operators. Post-earthquake rapid response teams for cartridge replacement.
Skilled trade jobs in coastal communities that need employment most. Disaster preparedness + job creation + infrastructure investment = strong case for government grants and FEMA funding.
StabilityCore uses commodity hardware — springs, steel cables, electric motors, and off-the-shelf microcontrollers. No hydraulics, no custom-machined isolators, no specialized contractors. The result: dramatically lower costs at every stage.
| Cost Factor | Conventional Systems | StabilityCore |
|---|---|---|
| Hardware | Custom hydraulic rams, rubber isolators, precision-machined bearings | Springs, steel cables, servo motors, ESP32 controllers (~$5 each) |
| Installation | Specialized contractors, heavy equipment, weeks of custom work | Modular bolt-in components, any trained contractor, days not weeks |
| Operating Power | Continuous power draw or pressurized hydraulics | Near-zero standby; self-powered during events |
| Maintenance | Rubber degrades (20–30 yr replacement), hydraulic fluid service | Springs don’t degrade; OTA firmware updates eliminate site visits |
| Commercial Building | $500K – $2M+ | Target: fraction of conventional cost |
Springs are the most cost-effective passive isolation component available. StabilityCore’s modular approach takes this further:
Add, remove, or swap spring cartridges to match any building weight or local seismic profile. No firmware changes — just mechanical adjustment on site.
Universal bolt pattern accepts different spring ratings. One foundation design works for light residential through heavy commercial. Catalog of rated cartridges.
Existing buildings can be lifted and spring cartridges installed underneath. Millions of unprotected structures in seismic zones represent massive addressable demand.
Annual inspection and spring replacement contracts create recurring revenue. Simple swap-in/swap-out means fast service calls — no structural work required.
Like heating and cooling systems: standardized components, professional installation, annual service contracts. Except springs don’t consume energy, don’t break down, and protect lives.
StabilityCore is a platform business, not a one-time product sale. The consumable cartridge model combined with certified installer ecosystem creates recurring revenue at every stage:
Cartridges, receiver sleeves, solenoid assemblies, control electronics, and sensor packages. New construction and retrofit installations.
Mandatory revenue event. Every earthquake = full cartridge set replacement before reoccupancy. Building inspectors require fresh cartridges — same as structural re-inspection. This is not optional maintenance; it’s a safety requirement.
Only StabilityCore-certified technicians install, service, and replace cartridges using proprietary keyed tools. Training revenue + quality control + locked ecosystem. Modeled after EPA/HVAC certification.
Spent cartridges returned to factory for inspection, re-compression, and re-certification. Two price tiers: new and refurbished. Razor-and-blade model — receivers are permanent, cartridges are consumable.
PID control algorithms licensed per installation. Cloud-connected controllers enable remote health monitoring, OTA firmware updates, and real-time system diagnostics. Subscription-based.
Yearly system check: test solenoid continuity, verify sensor network, confirm controller firmware, inspect cartridge status. Recurring revenue per installed building.
Every installation contributes real-time seismic data. Licensed to researchers, universities, government agencies, and insurance companies. Network value grows with every building added.
Each installation shares seismic data with nearby buildings. Downstream structures pre-activate before the wave arrives. Network effect creates natural monopoly in protected zones.
Every installation adds a sensor node to the network. Every earthquake generates mandatory replacement revenue. Every certified installer locks in the ecosystem. The installed base compounds — this isn’t a product, it’s an infrastructure platform.
The same self-sustaining technology stabilizes cargo ships against ocean waves — and the maritime version is even more compelling.
Unlike earthquakes (minutes), ocean waves provide 24/7 energy harvesting for the entire voyage. The system never runs out of power.
The ocean replaces the entire refrigeration system. Direct seawater heat exchange through the coil windings — simpler, lighter, zero emissions.
Cargo vessels are among the world’s worst polluters. A largely self-sustaining stabilization platform with up to 90% fuel cost reduction helps meet IMO emissions regulations.
Wave damage causes billions in annual shipping losses. Stabilized platforms protect fragile, high-value, and hazardous cargo.
| Segment | Market Size |
|---|---|
| Seismic Isolation Systems | $3.2B globally (6.8% CAGR) |
| Maritime Stabilization | $1.8B globally |
| Medical Vibration Isolation | $890M globally |
| Industrial Precision | $2.1B globally |
| Logistics & Transport | $1.5B globally |
| Freight & Trucking | $980M globally |
| Total Addressable Market | $10.5B+ |
Demands futuristic architecture. Sovereign wealth capital. Flagship demonstration opportunity.
Largest construction market. Building entire new cities. Smart city integration.
World’s toughest seismic engineering market. Validation here equals global credibility.
Full-scale prototype, patent filing, structural engineering consulting, and 12-month operating runway.
Full-scale prototype operational with earthquake energy harvesting demo
Provisional patent filed (33+ claims)
Performance data from real seismic testing (shake table facility)
2-3 letters of intent from potential commercial customers
Ready for Series A ($3-5M)
Every component in StabilityCore is digitally documented and physically scannable — a system designed to scale from one engineer to a full team.
Every part, subsystem, and assembly carries a QR code label. Scan any component with a phone or handheld scanner and instantly access its complete documentation: wiring diagrams, safety warnings, assembly & disassembly steps, linked components, photos, and supplier information.
Instant onboarding — A new engineer scans a QR code on any subsystem and immediately sees how it’s wired, what’s dangerous, and how to take it apart safely
Every connection labeled — Every wire, every digital output, every power cord, every terminal block carries a label. No tracing wires, no guessing which connector goes where. Scan it, read it, fix it
Zero institutional memory loss — Every wiring decision, every safety warning, every assembly step is captured digitally. Nothing lives only in someone’s head
Scalable from day one — The same system that manages a prototype inventory manages a production line. Add parts, add assemblies, print labels, scan and go
The car analogy — Imagine every part in your car had a scannable code. Point your phone, see repair instructions, part numbers, torque specs, and safety notes. That’s what we’ve built for StabilityCore — and eventually, for every building we protect
This isn’t a future plan — it’s operational today. Custom-built inventory management with QR label printing, barcode scanner integration, and assembly documentation with wiring diagrams and safety protocols. The infrastructure to scale is already in place.
Full-stack engineer with expertise in thermodynamics, PID control systems, embedded hardware (Arduino/ESP32), and vibration isolation physics. Hands-on builder who has single-handedly lifted a house using 12 adjustable jacks, shims, and posts — firsthand experience with the exact problem StabilityCore’s modular cartridge system eliminates. Designed the complete StabilityCore technology stack from concept through working prototype and authored the provisional patent covering 33+ claims.
Full technical details, patent documentation, and prototype demonstrations are available under NDA. Contact us to schedule a meeting.
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