GLOBAL AI STANDARD

Redefining AI Efficiency from Sensors to Servers.

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.

AltiCoreMCU

Deterministic AI for Microcontrollers

AltiCoreSWP

High-Performance CPU AI Execution

AltiCoreHDL

Massive-Throughput Hardware AI

Logic-Dominant Architecture

Arithmetic-Bound AI
Logic-Dominant Execution

Reduced arithmetic intensity. Orders-of-magnitude efficiency gains.

Massive-Throughput Hardware AI

The AltiCore Ecosystem

AltiCore

The Core Mathematical Framework

AltiCoreAI

AI Systems Built on AltiCore

AltiCoreMCU

Inference on resource-constrained microcontrollers, with optional on-device training where memory permits

AltiCoreSWP

Full model training and inference across general-purpose and embedded operating systems

AltiCoreHDL

FPGA and ASIC implementations accelerating model training and inference at extreme scale

AltiCoreMobile & AltiCoreLLM

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."

521B*

of RAM

unique logic-dominant architecture

AltiCoreMCU

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).

Any MCU Word Size Support
e.g: ~9,000 Inf/Sec (16MHz)
Local Training/INFERENCE
Zero Cloud / NPU

28x

Speed Multiplier

unique logic-dominant architecture

AltiCoreSWP

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.

Matches Neural Network Accuracy
Arithmetic-Minimized Execution
Runs on Standard CPU/OS Infrastructure
Benchmark: 17x-41x Faster

100%

deterministic

unique logic-dominant architecture

AltiCoreHDL

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.

1 Inference / Clock / Core
Cycle-Constant Latency
No External DRAM Required
Standard en/valid Token Interface
CORE DIFFERENTIATOR

The Patented Innovation: A New Mathematical Foundation

Standard AI (Neural Networks)

0.718...2.718...3.141...1.414...0.577...1.618...2.302...0.993...0.123...0.456...0.789...0.321...0.654...0.987...RESULT: ...
  • Dense Matrix Multiplication.
  • High Arithmetic Intensity.

AltiCore Architecture

INPUT AINPUT BOUTPUT
  • Logic-Dominant Operator Chains.
  • Minimal Arithmetic Overhead.

"We do not compress or prune neural networks.
We train and execute within a fundamentally different, logic-dominant framework."

THE LOGIC-FIRST PARADIGM

Solving the Global AI Energy & Compute Bottleneck

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.

The AI Efficiency Wall

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.

ARCHITECTURE METRIC: ORDERS-OF-MAGNITUDE ARITHMETIC
REDUCTION IMPACT: MAXIMIZE COMPUTE DENSITY AND INFRASTRUCTURE CAPEX

The AI Power Wall

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.

Power Metric: ORDER-OF-MAGNITUDE POWER REDUCTION | MINIMAL THERMAL FOOTPRINT
Impact: LOWER OPEX THROUGH REDUCED ARITHMETIC COMPUTE POWER

Probabilistic vs. Deterministic

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.

Operational State: CYCLE-CONSTANT DETERMINISM | SAFETY-CRITICAL READY
Impact: ENABLE AI IN STRICT REAL-TIME AND REGULATED MARKETS
PODCAST

EvoChip Explained

EvoChip Explained Podcast Cover
Episode 1

AltiCore Fits AI Into 521 Bytes

Discover how AltiCore’s mathematical framework scales AI down to ultra-compact footprints, enabling on-device training and execution without cloud dependency or NPUs.

Authority

Defining the Logic-Dominant Era

Our Mission

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

Corporate Inquiries

Connect with EvoChip Management

For media or partnership opportunities, contact us directly.

Email

contact@evochip.ai

Headquarters

32932 Pacific Coast Hwy

Dana Point, CA