AltiCore, EvoChip's patented mathematical framework, replaces arithmetic-intensive neural networks with trained, logic-dominant operator chains. By minimizing the heavy numeric burden of conventional AI, we deliver orders-of-magnitude efficiency gains and address the fundamental scaling limits of modern AI systems.
Deterministic AI for Microcontrollers
High-Performance CPU AI Execution
Massive-Throughput Hardware AI
Reduced arithmetic intensity. Orders-of-magnitude efficiency gains.
The Core Mathematical Framework
AI Systems Built on AltiCore
Inference on resource-constrained microcontrollers, with optional on-device training where memory permits
Full model training and inference across general-purpose and embedded operating systems
FPGA and ASIC implementations accelerating model training and inference at extreme scale
Active development expanding CUDA capabilities, broader GPU compute API support, and mobile training and inference
"AI scales today by adding hardware; AltiCore scales with smarter logic, unlocking profitable AI from 8-bit MCUs to custom silicon capable of billions of inferences per second."
of RAM
Deterministic AI for Microcontrollers
AltiCoreMCU enables training and execution of AI models locally across the microcontroller spectrum—from low-end 8-bit legacy MCUs to high-performance embedded processors. Built on the AltiCore mathematical framework, it deploys software inference to MCU-class devices with extremely small static memory footprints and zero dynamic allocation. On-device training is supported on compatible hardware, enabling adaptive intelligence on resource-constrained systems without reliance on NPUs or cloud infrastructure.
(*) 521 bytes of RAM on Arduino Uno 8bit (see the AltiCoreMCU Currency Demo Video).
Speed Multiplier
High-Performance CPU AI Execution
A high-performance software runtime for model training and inference on existing compute systems. The AltiCore mathematical framework restructures execution into logic-dominant operator chains rather than arithmetic-heavy neural compute. In one benchmark experiment across six public datasets at matched accuracy, AltiCoreSWP was typically ~13x faster on a workstation-class CPU (range ~13x to ~21x) and typically ~17x faster on a server-class CPU (range ~17x to ~41x) versus the fastest equivalent NN CPU implementation.
deterministic
Massive-Throughput Hardware AI
A direct pathway to production silicon that maps AltiCore models into FPGA and ASIC logic as a fixed-depth synchronous pipeline. By replacing heavy arithmetic with hardware-native logic operations, AltiCoreHDL achieves exactly one inference per clock cycle per core in steady state. It provides cycle-constant latency and sustained line-rate throughput without requiring external memory. In a demonstrated 17-core FPGA build, the architecture measured 3.19 billion inferences per second, providing predictable, massive-scale execution for critical workloads.
"We do not compress or prune neural networks.
We train and execute within a fundamentally different, logic-dominant framework."
Our patented framework provides a foundational solution by changing how AI is calculated, not just how it is deployed. By replacing heavy arithmetic with logic-dominant operator chains, AltiCore accelerates training and execution on existing general-purpose systems. Beyond software, it provides a unified, high-efficiency architecture that scales seamlessly from resource-constrained microcontrollers to massive-throughput custom silicon.
Problem: Scaling via brute-force arithmetic (multiply-accumulate) has hit a hard ceiling of physical resource constraints. Dense neural networks require exponentially larger hardware to yield only incremental performance gains.
Solution: AltiCore restructures computation away from heavy arithmetic, executing models as logic-dominant operator chains to deliver massive efficiency gains across both existing software infrastructure and custom silicon.
Problem: Legacy matrix math generates unsustainable heat and power draw. High arithmetic intensity prevents AI from scaling on constrained edge devices and exacerbates "dark silicon" thermal limits in high-density data centers.
Solution: A mathematical framework that minimizes arithmetic overhead, replacing floating-point intensity with logic-dominant execution to dramatically reduce power consumption across the entire compute stack—from microcontrollers to FPGA.
Problem: Standard AI execution is often non-deterministic in timing and resource utilization, making it a severe liability for safety-critical systems, real-time control loops, and regulated industrial sectors.
Solution: Execution predictability. Because AltiCore minimizes dynamic arithmetic and memory allocation, it maps to a static execution schedule. This provides the absolute timing predictability and fixed-latency execution required for strict compliance.

Discover how AltiCore’s mathematical framework scales AI down to ultra-compact footprints, enabling on-device training and execution without cloud dependency or NPUs.
Replace arithmetic-bound AI architectures with deterministic, logic-dominant execution that scales seamlessly across the entire compute spectrum.
Compliance
Safety-Critical Determinism
Validation
Provable Execution Latency
Efficiency
Minimal Thermal Footprint
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contact@evochip.ai
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Dana Point, CA