Quantum Gravity Computer
The most advanced form of computation based on quantum
mechanics and gravity.
- Built To Order
- Experimental — Under Active Research & Internal Prototyping
These machines are part of a class known as hypercomputers, capable of solving problems that conventional Turing Machines—on which all modern computing is based—simply cannot. Quantum Gravity Computers not only defy traditional limitations, but also introduce a new paradigm where time and causality are no longer fixed constraints. These systems function with indefinite causality, enabling entirely new classes of computation.
- Double Exponential Power: Quantum Computers are exponentially more powerful than classical systems. Gravity-based computation is also exponentially more powerful. When combined, the result is a double exponential leap in computational power.
- Indefinite Causality: These machines are agnostic to conventional notions of cause and effect. They operate across timelines, enabling new models of computation and problem solving.
- Hypercomputational Class: Quantum Gravity Computers fall under the theoretical class of machines that go beyond the Church–Turing limit, including:
- O-Machines
- Turing Machines with Initial Inscriptions
- Coupled Turing Machines
- Asynchronous Networks of Turing Machines
- Error Prone Turing Machines
- Probabilistic Turing Machines
- Infinite State Turing Machines
- Infinite Time Turing Machines
- Accelerated Turing Machines
- Fair Non-Deterministic Turing Machines
Automatski has successfully developed a working prototype of the Quantum Gravity Computer. We have also built an analogous Classical Gravity Computer—a separate computing paradigm based on classical logic and gravitational models. It matches the computational power of its quantum counterpart and offers an alternative, deterministic framework for similarly complex problem domains.
This makes Automatski the only organization with dual hypercomputing capabilities—across both quantum-gravity and classical-gravity systems.
While these machines are still in the early stages of practical integration, they hold transformative potential across scientific and industrial domains:
- Physics & Chemistry: Complex system modeling, simulation of quantum gravity effects, unification models
- Drug Discovery: Exploring non-linear, high-dimensional chemical interactions beyond current computational reach
- Energy & Batteries: Modeling behavior of exotic materials, superconductivity, and high-efficiency energy storage
- Finance: Unsolvable optimization models, real-time probabilistic risk assessment under unknown constraints
The Church–Turing thesis suggests that any computable problem can be solved by a Turing Machine. Hypercomputers challenge this assumption by solving problems outside the Turing boundary—for example, the Halting Problem, or complete evaluation of Peano arithmetic.
These are not consumer-grade technologies. They are designed for engineers, scientists, and researchers solving the world’s most complex and intractable problems—those that cannot be approached using any existing architecture, quantum or otherwise.
Explanatory video on youtube about Quantum Gravity Computers.
For years, the idea of a Quantum Gravity Computer was dismissed as speculative. Only recently have researchers and thought leaders begun to recognize its potential. As foundational knowledge and ecosystem maturity grow, these machines are expected to form the computational backbone for the next era of scientific and industrial advancement.
At Automatski, we’ve already taken that first step. We are actively exploring use-cases, problem sets, and programming frameworks that will unlock the practical potential of this technology.