SYSTEM OPTIMAL // LATENCY <10MS

Accelerate AI

Solve the Execution Puzzle
And watch Intelligence grow.

Speed up your AI workflows, decrease latency at the same time increase throughput by at least factor with the raw throughput of bare-metal C++ delivered solely to speed up your tools, agents, search and agentic workflows up to 43.5% without leaving awesome python.

M8_MONITOR_DASH
WORKLOAD_ID XJ-9291-ALPHA
Inference Time
4.2ms
Throughput
128 t/s
GPU_UTIL: 98% VRAM_ALLOC: 22GB

Problem Assessment

Do you suffer from
these inefficiencies?

ERR_LATENCY

Slow Agent Execution

Inter-process communication delays create unacceptable lag in real-time loops.

ERR_ACCURACY

Low Accuracy & Quality

Quantization errors and context window fragmentation degrade model outputs.

ERR_DEBT

High Technical Debt

Maintaining separate microservices for tools, memory, and inference creates overhead.

Alpha Targets

Maybe you would like these metrics on your dashboard.

Response Latency
<10ms
Token Throughput
128/s
* Compute Efficiency
+40%
Python Native
100%
M8_BRIDGE_ACTIVE

* HOW TO WE DETERMINE COMPUTE EFFICIENCY? SIMPLE, WE take into account the top 4 factors optimized in the vm: memory-effiency, zero-copying, streamming control & persistence settings. Conservative Estimations puts a minimum efficiency of 10% per factor. Further benchmarks will enhance this metric.

01. The Inefficiency

Structural Latency in
Traditional Stacks.

ERR_01

Python Interpreter Overhead

Complex agent chains incur massive serialization costs between steps.

ERR_02

Hardware Idle Time

GPUs stall while CPU-bound logic processes tool outputs and routing.

ERR_03

Fragmented Deployment

Maintaining separate microservices for tools, RAG, and inference creates debt.

02. The M8 "Unfair" Advantage

Unified Execution
Environment.

M8 compresses and runs mission critical agent workload (inference + search + matrix ops) that needs to scale, that needs to work into a single, hardware-accelerated operation.

  • Atomic Requests: Define logic, tools, and inference in one payload.
  • Zero-Copy Memory: Shared context between logic and model tensors.
  • Hybrid Scheduling: Intelligent distribution across CPU/GPU cores.
43.6%
Efficiency Gain
Low
CAPEX Req

Dont just take our word for it, take a look

Travel Agent Grid

50 concurrent autonomous agents optimizing booking routes. Sub-second decision latency per node.

RAG Accelerator

Integrated vector search and inference. Eliminates data movement overhead for massive knowledge bases.

Code Synthesis

Self-healing code generation loops running on air-gapped hardware for security-critical environments.

Demos & Use Cases SYSTEM MODULES RUNNING ON M8P CORE

Core Engines

Engine Visualization

Real-time introspection of active neural pathways and vector states during inference.

Stream Engine

High-throughput token streaming with low-latency backpressure handling for real-time apps.

Neural Canvas

Infinite workspace for generative ideation and multi-modal synthesis (Image + Text).

Recommendation Engine

Vector-based personalized content ranking with sub-millisecond retrieval times.

Memory Engine

Persistent, semantic storage layer for long-term context retention across sessions.

Holographic Sim

3D projection mapping of high-dimensional vector clusters for data exploration.

Procedural Geo

Algorithmic terrain and geometry generation driven by semantic prompts.

Financial Modules

Market Overview

Real-time aggregation of global indices, forex, and crypto feeds.

Cross-Asset Arbitrage

Automated detection of price inefficiencies across fragmented liquidity pools.

Macro & Geopolitics

NLP-driven sentiment analysis of global news and geopolitical events.

Options & Volatility

Real-time Greek calculation and volatility surface modeling.

Futures Analysis

Predictive modeling of forward curves and open interest dynamics.

Risk & Sentiment

Real-time portfolio exposure calculation and market sentiment scoring.

Programmable llama.cpp Substrate

Seamless integration into existing quantitative stacks. Offload compute-heavy reasoning loops to the M8 Engine while maintaining Pythonic control.

agent_controller.py
pipeline_spec.yaml
                        import m8_core as m8

                        # > DEFINE EXECUTION GRAPH
                        # The VM handles the loop internally, eliminating round-trips.

                        strategy_graph = {
                            "model": "llama-3-70b-quantized-GGUF",
                            "allocation": { "gpu_layers": 92, "ctx_size": 8192 },
                            "pipeline": [
                                {
                                    "op": "ingest", 
                                    "buffer": "market_signals"
                                },
                                {
                                    "op": "infer", 
                                    "constraints": { "grammar": "json_tool_call" }
                                },
                                {
                                    "op": "branch", 
                                    "conditions": ["buy", "sell", "hold"]
                                }
                            ]
                        }

                        # > EXECUTE ON GRID
                        engine = m8.connect("wss://grid.m8.internal:8080")
                        result = engine.submit(strategy_graph, priority=1)
                        
Ln 24, Col 1 Python 3.11 | M8 Kernel Active

Instruction Set Architecture

MARKET OPEN
Opcode
Type
Description
Cost Estimate
llm_embed
NEURAL NETWORK
generates and stores embedding into register <r2>
HIGH
llm_tokenize
NEURAL NETWORK
Generate llm-dictionary tokens from string register
HIGH
stream
REALTIME
streams output (supports interpolation) via server generated events (events/stream)
HIGH
matn
MATRIX
Creates a dinamically size element wise matrix
HIGH
matnorm
MATRIX
Normalizes matrix
HIGH
DISPLAYING 5 OF 42 OPCODES

Standard Library

Basic Operations

CORE_LIB
## Basic Operations
f32set <rage> 12.2
i32set <r2> 5
stream r2 is <r2> ## streams output (supports interpolation)
store <r1> ..string... 
store <r3> My age is <rage> and i have <r2> friends
dup <r1> <r2> # duplicate r1 to r2
store <r2> ulala 
ret <r1> <r2> # multiple returns

Assertions

TEST_LIB
## Assertions
assertcontains <r1> ...string...
assertnotempty <r1>
assertempty <r1>
assertnil <r1>
asserteq <r1> <r2>

LLM Embeddings & Tokens

LLM_CORE
## Generating Embeddings
store <r1> Hello there
llm_embed <r1> <rv2> dim=16 ## stores embedding in <rv2>

## Generate llm-dictionary tokens
llm_tokenize <r1> <r1tokens> 
llm_detokenize <r1tokens> <r4> 
ret <r4>

Math Operations

MATH_ALU
## Result stored in first register
f32add <r10> 23.44533
f32sub <r10> 23.44533
f32mul <r10> 23.44533
f32set <r10> 78
i32set <r9> 123
i32add <r9> 123
i32mul <r9> 123
store <response> r10=<r10> r9=<r9>
ret <response>

Matrix Operations

CUDA_MAT
## Matrix operations
matn <r1> 1 376 306 626 ... # variable width matrix 
mat8 <r1> 10 20 30 40 50 60 70 89
mat8 <r2> 12.3 20.23 30.23 40.23 50.23 60.23 70 89 
matsub <r1> <r2> <r3> 
matadd <r1> <r2> <r3> 
matmul <r1> <r2> <r3>
matnorm <r1> <r1norm>
matdot <score_weights> <result_metrics> <result> ## dot product
matcosim <score_weights> <result_metrics> <result> ## cosine similarity
matl2d <score_weights> <result_metrics> <result> ## L2 distance
ret <r3>

Inference

LLM_GEN
## Inference (Cached)
store <r1> Tell me a joke
## llm_instance will cache the response
llm_instance <r1> instname n_predict=24 temperature=0.5 
llm_instancestatus instname <r3> #store result into <r3>
stream <r3> ## realtime stream

Inference (Forced)

LLM_FORCE
## Force Inference (Ignore cache)
store <r1> Tell me a joke
llm_instance <r1> instname n_predict=24 temperature=0.5 force=true
llm_instancestatus instname <r3>

VectorDB Operations

HNSW_IDX
## Vectordb operations
vdb_instance MYDB4 dim=16 max_elements=500 M=16 ef_construction=200
store <r1> DPR/XML Modelo IVA
llm_embed <r1> <rv1> dim=16 
vdb_add MYDB4 <rv1> <r1> 
vdb_search MYDB4 <rv1> <rv37> distance=0.019 
llm_detokenize <rv37> <result_text> 
ret <result_text>

## Alignment and Batch Add
mat8 <r1> 1 2 3 4 5 6 7 8
align <r1> 16
mat8 <r2> 10 20 30 40 50 60 70 80
align <r2> 16
vdb_instance MYDB dim=16 max_elements=500
vdb_add MYDB <r1> 1 2 3 4 5 6 7 8
vdb_add MYDB <r2> 10 20 30 40 50 60 70 80