ATOMiK: Redefining Computation Through Stateless, Delta-Driven Architecture

ATOMiK is a stateless, delta-driven computing architecture that fundamentally redefines how computation is executed by eliminating persistent memory and stored semantic state from the execution path. Instead of operating on saved data structures, ATOMiK represents computation exclusively as deterministic state transitions encoded as compact binary deltas and executed at register level. This architectural shift directly addresses the dominant constraints in modern computing systems, including memory latency, energy-intensive data movement, state synchronization overhead, and security risks associated with data at rest. The presentation should explain the core technical insight behind ATOMiK, outline the architecture and validated proof-of-concept results, and translate these technical advantages into clear commercial value. It should include a market analysis covering total addressable market, serviceable market, and initial beachhead opportunities in edge, embedded, and secure computing. The deck should compare ATOMiK against existing approaches such as stateful CPU/GPU architectures, secure enclaves, near-memory computing, and accelerators, clearly articulating differentiation. The presentation should also address IP defensibility and moat, business and licensing models, revenue potential, capital requirements, use of funds, and a credible path to delivering venture-scale (20×) returns. The intended audience is investors evaluating architecture-level, deep-tech platform opportunities.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-01-15
DOI
https://doi.org/10.5281/zenodo.18250860
Primary Topic
Parallel Computing and Optimization Techniques
Type
article
Field-Weighted Citation Impact
0.00
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article

ATOMiK: Redefining Computation Through Stateless, Delta-Driven Architecture

Matthew Rockwell
Zenodo (CERN European Organization for Nuclear Research)
Parallel Computing and Optimization Techniques
article

ATOMiK: Redefining Computation Through Stateless, Delta-Driven Architecture

Matthew Rockwell
article en

Abstract

ATOMiK is a stateless, delta-driven computing architecture that fundamentally redefines how computation is executed by eliminating persistent memory and stored semantic state from the execution path. Instead of operating on saved data structures, ATOMiK represents computation exclusively as deterministic state transitions encoded as compact binary deltas and executed at register level. This architectural shift directly addresses the dominant constraints in modern computing systems, including memory latency, energy-intensive data movement, state synchronization overhead, and security risks associated with data at rest. The presentation should explain the core technical insight behind ATOMiK, outline the architecture and validated proof-of-concept results, and translate these technical advantages into clear commercial value. It should include a market analysis covering total addressable market, serviceable market, and initial beachhead opportunities in edge, embedded, and secure computing. The deck should compare ATOMiK against existing approaches such as stateful CPU/GPU architectures, secure enclaves, near-memory computing, and accelerators, clearly articulating differentiation. The presentation should also address IP defensibility and moat, business and licensing models, revenue potential, capital requirements, use of funds, and a credible path to delivering venture-scale (20×) returns. The intended audience is investors evaluating architecture-level, deep-tech platform opportunities.

Zenodo (CERN European Organization for Nuclear Research)
Industry, innovation and infrastructure
Openalex Percentile: Top 93%
Parallel Computing and Optimization Techniques
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