Perfect Randomness + Reversible Compression,
Works on the Internet You Already Have.
Perfect Randomness + Reversible Compression,
Works on the Internet You Already Have.
Perfect Randomness + Reversible Compression,
Works on the Internet You Already Have.
JumPedal was founded in 2010 to solve the one problem no one else could: how to deliver true one-time pad (unbreakable) encryption at global scale. Fifteen years of focused R&D produced two sub-$1 chips that generate perfect keys locally and synchronize them in-band over existing control-plane traffic.
From remote villages with no connectivity to quantum laboratories at the edge of physics, Peter St. George’s forty-year journey has been driven by one mission: make perfect security practical and affordable for everyone.
What began as hand-drawn diagrams on napkins in the 1980s became the mathematical foundations of reversible many-to-one index collapse — the breakthrough that finally solved the one problem that stopped the one-time pad from conquering the world: key distribution at scale.
Peter St. George spent these years working in more than 20 countries across the South Pacific, Asia, and South America. In remote villages with little or no connectivity, he saw first-hand how the lack of reliable, secure communication excluded entire populations from education, commerce, and opportunity.
Instead of accepting incremental fixes, he set out to rebuild the mathematics of digital communication from first principles — with the goal of creating a system that would be secure, efficient, and cheap enough to reach everyone.
Early grant funding followed, allowing him to assemble the first research team focused on re-engineering the core rules of information exchange.
That decision in the 1980s became the foundation for everything JumPedal is today.
Throughout the 1990s the team pushed arithmetic to its limits: routine multiplication of one-megabyte integers took up to nine days; division could run for seventeen. These were not academic exercises — they were deliberate stress-tests of the mathematical foundations needed for perfect security at scale.
New funding made it possible to assemble a world-class, geographically distributed team that included CERN physicists, world renounced mathematicians, and pattern-recognition specialists. Engineering operations were opened in the United States, Europe, and India.
By the end of the decade the focus had shifted from raw computation to perfect random-number generation and lossless compression of high-entropy data, the two problems that had blocked practical one-time pad cryptography for a century.
The proprietary mathematical frameworks and analysis tools developed during this period became the direct precursors of the reversible many-to-one index collapse used in today’s InfinityCoil™.
The 2000s brought decisive algorithmic speed-ups. New techniques (Chinese remainder multipliers, division-by-inversion, and custom reduction schedules) cut multi-megabyte integer operations from days to milliseconds — the computational leap required for real-time processing of perfect-entropy streams.
St. George moved the team to a lean, agile R&D model and began systematic exploration of reversible many-to-one index mappings in random bit sequences. These mappings — the direct precursor to today’s Multi-Path Encoding (MPE) — revealed lawful convergence patterns that exist even in pure quantum noise, without invoking quantum physics.
The resulting proprietary mathematical toolkit dramatically increased the density of certified collisions per cycle and attracted the first strategic investors focused on next-generation, post-quantum cryptography.
In 2010 JumPedal was formally incorporated, shifting from pure research to structured development. The team refined the mathematical toolkit and began systematic exploration of reversible many-to-one index mappings in high-entropy bit streams – the core mechanism now known as Multi-Path Encoding (MPE).
These years saw the first conceptual designs for the InfinityCoil™ (MPE compression engine) and CipherCoil™ (on-chip perfect-entropy source). The goal was a fully classical system that could losslessly compress perfect randomness and synchronize one-time pad keys using only existing network traffic — no side channel, no new infrastructure.
Simultaneously, work began on CipherBolt, the control-plane security platform that would later integrate the two chips. All designs were engineered from the start to meet NIST cryptographic standards and deliver true one-time pad security at scale.
By the early 2020s the core classical architecture was complete: Multi-Path Encoding (MPE) enabled lossless compression of perfect-entropy streams and in-band synchronization of true one-time pad keys using only existing control-plane traffic.
InfinityCoil™ reached production-ready software status, applying reversible many-to-one index collapse to each 256-bit perfect-entropy key. Compression depth is deliberately randomized per key — ensuring every transmitted index is unique and every possible decode remains equally valid without the matching chip, while still achieving exact key reconstruction for OTP security.
CipherCoil™ consistently delivers 2–3 high-entropy 256-bit keys per second (approximately 2–4 million bits per second) — a modest, highly predictable rate that is more than sufficient for all control-plane and signaling-plane protocols while maintaining zero timing side-channel exposure.
Peter St. George spent these years working in more than 20 countries across the South Pacific, Asia, and South America. In remote villages with little or no connectivity, he saw first-hand how the lack of reliable, secure communication excluded entire populations from education, commerce, and opportunity.
Instead of accepting incremental fixes, he set out to rebuild the mathematics of digital communication from first principles — with the goal of creating a system that would be secure, efficient, and cheap enough to reach everyone.
Early grant funding followed, allowing him to assemble the first research team focused on re-engineering the core rules of information exchange.
That decision in the 1980s became the foundation for everything JumPedal is today.
Throughout the 1990s the team pushed arithmetic to its limits: routine multiplication of one-megabyte integers took up to nine days; division could run for seventeen. These were not academic exercises — they were deliberate stress-tests of the mathematical foundations needed for perfect security at scale.
New funding made it possible to assemble a world-class, geographically distributed team that included CERN physicists, world renounced mathematicians, and pattern-recognition specialists. Engineering operations were opened in the United States, Europe, and India.
By the end of the decade the focus had shifted from raw computation to perfect random-number generation and lossless compression of high-entropy data, the two problems that had blocked practical one-time pad cryptography for a century.
The proprietary mathematical frameworks and analysis tools developed during this period became the direct precursors of the reversible many-to-one index collapse used in today’s InfinityCoil™.
The 2000s brought decisive algorithmic speed-ups. New techniques (Chinese remainder multipliers, division-by-inversion, and custom reduction schedules) cut multi-megabyte integer operations from days to milliseconds — the computational leap required for real-time processing of perfect-entropy streams.
St. George moved the team to a lean, agile R&D model and began systematic exploration of reversible many-to-one index mappings in random bit sequences. These mappings — the direct precursor to today’s Multi-Path Encoding (MPE) — revealed lawful convergence patterns that exist even in pure quantum noise, without invoking quantum physics.
The resulting proprietary mathematical toolkit dramatically increased the density of certified collisions per cycle and attracted the first strategic investors focused on next-generation, post-quantum cryptography.
In 2010 JumPedal was formally incorporated, shifting from pure research to structured development. The team refined the mathematical toolkit and began systematic exploration of reversible many-to-one index mappings in high-entropy bit streams – the core mechanism now known as Multi-Path Encoding (MPE).
These years saw the first conceptual designs for the InfinityCoil™ (MPE compression engine) and CipherCoil™ (on-chip perfect-entropy source). The goal was a fully classical system that could losslessly compress perfect randomness and synchronize one-time pad keys using only existing network traffic — no side channel, no new infrastructure.
Simultaneously, work began on CipherBolt, the control-plane security platform that would later integrate the two chips. All designs were engineered from the start to meet NIST cryptographic standards and deliver true one-time pad security at scale.
By the early 2020s the core classical architecture was complete: Multi-Path Encoding (MPE) enabled lossless compression of perfect-entropy streams and in-band synchronization of true one-time pad keys using only existing control-plane traffic.
InfinityCoil™ reached production-ready software status, applying reversible many-to-one index collapse to each 256-bit perfect-entropy key. Compression depth is deliberately randomized per key — ensuring every transmitted index is unique and every possible decode remains equally valid without the matching chip, while still achieving exact key reconstruction for OTP security.
CipherCoil™ consistently delivers 2–3 high-entropy 256-bit keys per second (approximately 2–4 million bits per second) — a modest, highly predictable rate that is more than sufficient for all control-plane and signaling-plane protocols while maintaining zero timing side-channel exposure.
Fifteen years of focused R&D have produced the only classical mechanism proven to deliver true one-time pad security at global scale – protected by a growing portfolio of pending patents, copyrights and trademarks. This IP moat is the foundation for every CipherBolt product and the springboard for long-term dominance in control-plane security.
We complete the 7 nm tape-out of the CipherCoil™ + InfinityCoil™ paired chipset and launch the first commercial products:
First 100 paying pilots go live in 2027. Revenue target: $10 – $50 million ARR.
The same two sub-$1 chips ship inside every major router, firewall, 5G baseband, and cloud interconnect. We don’t replace existing hardware — we give Cisco, Juniper, Palo Alto, Nokia, Qualcomm, and the hyperscalers a drop-in upgrade that makes the control plane information-theoretically secure at essentially zero marginal cost.
Deep OEM partnerships turn pilots into volume: tens of thousands of units in 2027 become millions in 2028. Revenue is driven almost entirely by recurring silicon licensing and support contracts. Target for 2028: $100 – $300 million ARR.
By the end of 2028 most new enterprise and carrier-grade equipment sold worldwide will include CipherCoil™ + InfinityCoil™ — the same chips we tape out in 2026.
The chips become the de-facto standard for unbreakable control-plane security:
Revenue target: > $1.5 billion ARR by 2030 Nasdaq listing target: $15 – $30 billion+
The same two sub-$1 chips. One architecture. Zero compromise. From the first router in 2027 to every connected device on Earth by 2030 — we own the control plane of the future.
