FROM COMPUTING POWER TO ABUNDANT ENERGY

FROM COMPUTING POWER TO ABUNDANT ENERGY

A platform for leading the carbon transformation

The First Revolution

April 4, 1975

Two visionaries in a garage dared to dream:

"A computer on every desk, in every home"

They were called crazy. Impossible. Naive.

Today: 5 billion people carry supercomputers in their pockets.

The impossible became inevitable.

The Next Transformation

The next great challenge:

"Clean, abundant energy in every home"

They say it's too complex. Too expensive. Too late.

They said the same about personal computers.

Here's to the crazy ones who think different.

WE CAN CREATE BREAKTHROUGHS!

Understanding the Challenge

The Carbon Economy: 90%+ of Global Emissions

Three molecules. One massive system.

41%
COAL (C)
Solid carbon, maximum emissions
32%
OIL (CnH2n)
Liquid convenience, global scale
21%
GAS (CH4)
Gaseous efficiency, infrastructure lock-in

These aren't just fuels. They're the foundation of modern civilization.
To change them, we must reimagine everything.

The Dual Challenge

Beyond Energy: The Material Problem

Coal, Oil, and Gas aren't just burned - they're built with.

ENERGY USE

Fossil → Heat → Power → Emissions

MATERIAL USE

Fossil → Chemicals → Products → Lock-in

The Integrated Solution:

  • For Energy: Accelerate renewables + storage
  • For Materials: Develop new chemistry and processes

We're not just changing how we power the world.
We're reimagining our entire material economy.

A Tale of Two Innovation Models

PHARMA: The Refined Process

How medicine innovates:

  1. Discovery → Academic labs + Corporate R&D
  2. CLINICAL TRIALS → Systematic, staged validation
  3. Regulatory Integration → Partnership from Phase 1
  4. Market Intelligence → Continuous learning post-launch

Timeline: 10-15 years
Success rate: Optimized through process

CLIMATE TECH: The Gap in the System

How climate tech struggles:

  1. Discovery → Strong foundation in labs
  2. THE MISSING MIDDLE → No systematic validation path
  3. Regulatory Uncertainty → Rules written for old technology
  4. Market Disconnect → Launch and hope

Timeline: Unknown
Success rate: Unnecessarily low

"You can't just ask customers what they want and then try to give that to them. By the time you get it built, they'll want something new."

But you can build the system that lets you iterate with them.

The Pandemic Case Study

What We Learned About Speed:

TRADITIONAL MODEL

Sequential development over decades

PANDEMIC MODEL

Parallel processing in months

Key Innovations:

  • Pre-Purchase Agreements - Demand certainty before supply
  • Concurrent Development - Multiple phases simultaneously
  • Regulatory Collaboration - Real-time approvals
  • Risk Distribution - Public bears downside, all share upside
  • Resource Abundance - Funding follows urgency

Result: 12 months to achieve 12 years of progress

Our Solution – Platform Mindset

DESIGN PRINCIPLES:

1

design with end in mind

pre-purchase agreements confirm Demand certainty

2

milestone based capital deployment

investors work with buyers and deploy capital in tranches

3

REGULATORY sandbox

test what is needed to fill the gap - subsidies, grants, carbon pricing etc.

4

RISK DISTRIBUTION

coalition of buyers, investors and regulators with innovators

5

RESOURCE ABUNDANCE

Build ecosystems, not just products

"The best way to predict the future is to invent it." - Alan Kay

The pandemic showed us how. Climate tech shows us why.

Step 1: Discovery

First Question: What Problems Deserve Our Genius?

User centered development. Start with Pre-purchase agreements.
Start with customer commitments, design backwards to technology

Six Categories for Innovation

🏗️

STEEL & CEMENT

Reimagining the materials that build our world

🔋

ENERGY STORAGE

Making renewable energy available 24/7/365

🌾

AGRICULTURE

Feeding 10 billion without warming the planet

🚄

TRANSPORT

Moving people and goods at planetary scale, sustainably

🌱

CARBON REMOVAL

Designing systems that heal the atmosphere

❄️

COOLING TECHNOLOGIES

Innovative solutions for immediate climate impact

Each category requires breakthrough thinking.
Each offers trillion-dollar opportunities.

Step 2: Evaluation Framework

Second Question: Which Solutions Can Actually Scale?

Test each innovation through both lenses:

The Physics Filter:
Does the science work?
The Reality Filter:
Can it deploy at scale?

Great technology that can't deploy is just expensive research.
The magic happens when physics meets possibility.

The Five-Dimensional Evaluation Framework

1. PHYSICS

The Design Constraints

  • Energy density defines possibility
  • Thermodynamics sets the rules
  • Chemistry creates the boundaries

"Design is not just what it looks like. Design is how it works."

2. INFRASTRUCTURE

Switching Costs

  • Local economies depend on existing solutions
  • Good infrastructure would go wasted
  • New infrastructure would need to be created

Every legacy system is an opportunity for elegant transition

3. GEO-POLITICS

The Human Interface

  • Employment matters more than efficiency
  • Energy independence trumps optimization
  • Development requires more energy, not less

Great products work with human nature, not against it

4. RISK

Who Absorbs The Risk

  • Technical risk: Can we build it?
  • Financial risk: Can we fund it?
  • Regulatory risk: Can we ship it?
  • More cost = More profit needed to justify

Today's model loads all risk on innovators. Tomorrow's shares it wisely.

5. TIME

The Scaling Challenge

  • How fast can we scale the tech?
  • What distribution network needed?
  • How can we retrain workforce?

We're not iterating. We're reimagining.

Step 3: Clinical Trials

Making Innovation Systematic, Not Accidental

I. "CLINICAL TRIALS" - Test with real users

1
Phase 1: Technical validation with customer design input
2
Phase 2: Pilot deployment in controlled real-world conditions
3
Phase 3: Scale demonstration with full market dynamics
4
Phase 4: Continuous optimization post-deployment

II. AGILE FUNDING - CUSTOMER VALIDATION + CAPITAL DEPLOYMENT

  • Milestone-based capital deployment
  • Real-time feedback loops
  • Ship early, improve constantly
  • Financial products as features
  • Risk capital matched to risk stages
  • Success metrics defined by users, not VCs

III. SHARED INFRASTRUCTURE LAYER

  • Reduce costs through common testing facilities
  • Reduce risk through shared learnings
  • Iterate innovation through open protocols
  • Standardized measurement and verification
  • Knowledge commons for failed experiments
  • Equipment libraries for rapid prototyping

The parallel processing breakthrough:

Instead of one company → one solution → one test → wait for results

We enable 100 companies → 100 solutions → simultaneous testing → pattern recognition

Step 4: Regulatory Sandbox

IV. REGULATORY DESIGN PARTNERSHIP

  • Regulators as co-designers, not gatekeepers
  • Safe harbors for experimentation
  • Temporary licenses for innovation
  • Fast-track pathways for proven solutions
  • Global reciprocity agreements
  • Real-time performance standards vs prescriptive rules

The parallel processing innovation:

Traditional: Innovate → Stop → Wait for rules → Proceed

Sandbox: Innovate WITH regulators → Adapt rules to reality → Scale immediately

The Platform Vision

What if the bottleneck isn't technology?
What if it's our PROCESS?

The Call to Action

We're not asking you to bet on a technology.

We're asking you to bet on a PROCESS.

The same process that gave us vaccines in 12 months.
Now applied to humanity's greatest challenge.

Join us in building the platform where:

  • → Demand creates supply
  • → Innovation meets regulation
  • → Risk becomes shared opportunity
  • → Time compresses from decades to years

The bottleneck was never the technology.

It was our imagination about process.

Welcome to parallel processing for planetary transformation.