Dynamic Capacity manufactures semiconductors that bridge the physical world and superposition. Non binary 1-32 position processors with direct-to-silicon architecture. Engineered to operate natively in superposition while maintaining backward compatibility with binary infrastructure. The chip that brings users into quantum computing.
For 50 years, semiconductors have been optimized for binary processing. Nanometer races. GPU scaling. More transistors. But an entirely new computing paradigm is emerging: superposition-native processing. We're not competing in the binary optimization race. We're building the infrastructure for quantum superposition computing at scale.
Binary semiconductors process superposition by converting it to binary, computing in binary domain, then converting back. Massive efficiency loss. Traditional architecture cannot efficiently handle quantum wave functions.
Gateway semiconductors operating in 1-32 positions. Process superposition natively. Minimal power. No cooling overhead. Can layer on existing infrastructure. Binary-compatible for gradual market transition.
Antenna and terminal processors designed as bridges to superposition infrastructure. Operate as co-processors alongside existing CPU/GPU cores. Quantum superposition overlay.
Layer 5-10 superposition chips on single CPU/GPU core. Superposition processors handle 80-90% of computational load in Superposition. Binary core processes remaining transactions.
Physical server infrastructure running superposition natively. Direct integration with EntangleVerse and VX Encryption superposition ecosystem. Full-scale quantum computing infrastructure.
Our chips can maintain quantum fields and process in true superposition, natively. However, the practical value proposition is broader: efficient gateway processors that layer onto existing infrastructure, or become the gatway between physical terminal and superposition, dramatically reduce power consumption, and enable gradual transition to room temperature quantum computing without complete system replacement.
Dynamic Capacity semiconductors are engineered superposition cores that allow devices to exist in superposition while maintaining connection to physical world infrastructure.
Gateway processor for consumer and enterprise devices. 1-32 position superposition. Antenna/terminal architecture. Embedded in phones, laptops, displays, wearables. Brings users into superposition experience.
Enterprise-grade superposition servers and processors. Higher computational density. Designed for server and infrastructure. Process parallel workloads in quantum domain natively.
Physical servers running full superposition natively. Parallel cores operating independently. Integration with EntangleVerse infrastructure. True quantum computing server cores.
Our chips don't require system replacement. They layer onto existing infrastructure as co-processors. Place 5-10 superposition chips alongside traditional CPU or GPU. The superposition chips handle workload; pass parallel computational to binary core that handle remaining transactions. This enables gradual market transition without forcing complete hardware replacement.
Traditional CPU handles sequential transactions. 5-10 Dynamic Capacity superposition processors handle parallel workload simultaneously in quantum domain. Result: ~80-90% of computational load processed in superposition, requiring only ~10-20% binary processing. Power consumption drops dramatically. Thermal requirements minimal. System becomes Entangled in superposition without replacing existing infrastructure.
Every chip integrates 60,000+ bits of quantum encryption. User molecular signatures authenticate access. Data is encrypted at stored in superposition. Security is physics-enforced, not software-dependent. Users control their quantum identity through molecular encryption integrated directly into chip architecture.
When devices become quantum gateways, everything changes. Users exist in superposition. Data stays encrypted under user control. Computation happens in superposition. Applications span every computing category.
Phones, tablets, laptops, wearables with our gateway chips become entry points to superposition. Users image in via molecular signature. Their quantum identity accesses personal data encrypted under their control. Device becomes temporary terminal; quantum identity is persistent.
Employees exist in quantum workspace. Connect to any workstation—they're imaged in under their enterprise quantum identity. Different terminal, same secure access. Work data is quantum-encrypted under their authority.
Citizens access services through quantum identity. Tax data encrypted under citizen control, not stored in government servers. Voting happens in superposition with quantum authentication. No centralized citizen databases.
Autonomous systems operate independently in superposition. Command-and-control devices with our chips enable distributed decision-making without external communication. Quantum-encrypted operations impossible to intercept.
Medical records owned by patients, encrypted under their quantum identity. Financial accounts accessed via quantum authentication, no account numbers or passwords. Data never centralizes; users always control their information.
We do not compete in the nanometer race. That race is won by exponential investment in increasingly expensive fabrication equipment and R&D. We compete in superposition efficiency.
Manufacturing cost per unit: Significantly below comparable binary processors of equivalent computational capacity.
Target price point: $640-1450 per unit at volume production.
Gross margin projection: 70%+ at scale.
Competitive position: Our manufacturing cost per chip is nowhere near the cost of nanometer-optimized binary chips. Traditional semiconductor companies cannot match our economics without completely restructuring their manufacturing and supply chain.
Every computing device manufactured globally requires processing. Our cores become superposition infrastructure without forcing replacement. Immediate addressable markets:
Traditional semiconductor companies have invested $500B+ in binary optimization. Their supply chains, manufacturing expertise, and engineering culture are built for binary. Pivot to superposition-native processing represents existential challenge. Their competitive advantage (binary optimization) becomes irrelevant in superposition domain.
Keep optimizing your nanometer nodes. When you get to 0.5nm, maybe we'll attend the conference. But our manufacturing cost per chip and our computing capability per dollar are in completely different categories. You've invested $500B in a technology paradigm that's becoming secondary. We're building the new paradigm.
Q1 2026: Groundbreaking at Rapid City, South Dakota facility. Adjacent to Ellsworth Air Force Base. Access to sophisticated technical workforce.
2027: Volume production begins. Initial partnerships with enterprise, government, and consumer device manufacturers.
2027-2028: Market expansion across all application domains. Superposition infrastructure becomes increasingly accessible. Binary optimization becomes secondary.
Rapid City facility construction, equipment, and operations: [amount to be specified]. This represents a proven, scalable manufacturing model. Gross margins of 70%+ at production volume make this a highly attractive investment for institutions focused on semiconductor infrastructure.