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How our AI actually works

We know you're curious about what makes our AI different. No confusing jargon here: just honest explanations of advanced technology that actually works in the real world. We've spent years making AI that's both incredibly smart and refreshingly straightforward.

We know this matters to you

You shouldn't have to trust AI blindly. You deserve to understand what you're working with, why it's different, and how it actually helps you. We're here to explain everything honestly, without the marketing fluff that makes your eyes glaze over.

No AI snake oil

We explain exactly how our technology works, what it can and cannot do, and why that matters for your specific needs.

Built for real work

Every component is designed to work reliably in real business environments, not just impress people in demos or research papers.

Actually efficient

Our binary approach uses dramatically less energy and memory while delivering competitive results. Good for your budget and the planet.

SMART COMPILER

The smart translator that makes everything fast

Think of this as the brilliant translator that takes your AI requests and converts them into very fast binary operations. It's like having a master craftsman who knows exactly how to make your computer work as efficiently as possible, without wasting a single bit of energy or memory.

Why this matters to you

Instant responses

Get AI answers faster than you can blink, without waiting for cloud processing.

Saves energy

Uses a tiny fraction of the power that normal AI needs: good for your battery and the planet.

Smart optimization

Automatically adapts to your specific hardware to get the best performance possible.

Key benefits

Hybrid smart processing

Combines the best of different number systems: some operations use 1-bit for speed, others use 4-bit for precision. Like having different sized tools for different jobs.

Everything works together

Instead of doing many separate calculations, we combine them into single super-efficient operations. It's like preparing an entire meal in one pan instead of using every pot and pan in the kitchen.

Memory-friendly design

Organizes data in ways that make your computer's memory and processors happy. Like organizing your workspace so you can find everything you need without wasting time.

MPBA architecture

Magnitude-Preserving Binary Attention maintains transformer quality with pure binary operations through stochastic softmax.

Core innovations

  • Stochastic softmax with learned thresholds
  • Binary dot products with VPOPCNTDQ acceleration
  • Bit-plane expansion for critical attention heads

Memory efficiency

KV Cache Size:Dramatically reduced
Context length:Massive contexts
Memory efficiency:High
MPBA ATTENTION

Advanced MPBA Attention

Magnitude-Preserving Binary Attention is our key innovation. This mechanism maintains transformer-level quality while making conversations flow as naturally as talking to a brilliant friend who never needs to pause.

Performance results

MPBA Context Handling:Significant
Response speed:Instant
Memory usage:Minimal
Quality:Transformer-level
SIMULATED ANNEALING TRAINING

Hierarchical Simulated Annealing Training

Our advanced training method is like solving a massive puzzle by having thousands of people work on different pieces simultaneously. What used to take months now happens while you grab a coffee.

Training time comparison

Dweve HQA:Lightning fast
Competitors:Months
Speedup:Significant

Key innovations

Block-Based Decomposition

  • • Thousands of blocks working in perfect harmony
  • • Independent optimization of each block
  • • Massively parallel training

Replica system

  • • Multiple replicas per block for parallel exploration
  • • Cross-replica exchange to escape local minima
  • • Solution sharing across replicas

Constraint mining

  • • Automatically identify and lock optimal solutions
  • • Near-instant model retraining capability
  • • Dramatically lower training power consumption

Annealing process

  • • High temperature exploration initially
  • • Progressive temperature reduction
  • • Low-temperature refinement
  • • Perfect block locking

Key components

Meta-Agent Architecture

  • • Hierarchical coordination of specialized sub-agents
  • • Dynamic sub-agent management
  • • Task delegation and decomposition
  • • Emergent intelligence beyond individual capabilities

Multi-Paradigm Reasoning (8 modes)

  • • Deductive, inductive, abductive reasoning
  • • Analogical, causal, counterfactual reasoning
  • • Metacognitive, decision-theoretic reasoning
  • • Confidence calibration and bias detection

Advanced memory systems

  • • Episodic memory for experiences and events
  • • Semantic memory for concepts and knowledge
  • • Working memory for active processing
  • • Procedural memory for skills and actions
NEXUS ARCHITECTURE

Advanced Neural-Symbolic Integration

Dweve Nexus's performance comes from its innovative approach to unifying neural and symbolic AI. This advanced architecture combines the pattern recognition capabilities of neural networks with the logical precision of symbolic systems.

Neural-Symbolic Advantages

  • Bidirectional translation between neural and symbolic representations
  • Self-updating knowledge graph that continuously refines understanding
  • Complementary strengths: neural adaptability with symbolic precision
  • Enhanced explainability and auditability of all decisions
MESH ARCHITECTURE

Three-tier mesh architecture

Dweve Mesh's sophisticated three-tier network design is optimised for performance and resilience across edge, compute, and coordination layers. This decentralised AI infrastructure enables distributed inference that's faster than you can blink and uses a fraction of the energy.

Key performance achievements

High performance
Minimal power usage
Tiny memory footprint
High throughput

Three-tier architecture

Edge tier

Local nodes with Dweve Core's 1-bit engine for real-time AI. Your devices become AI powerhouses.

Compute tier

High-performance clusters for complex reasoning at speeds that redefine what's possible.

Coordination tier

Consensus and orchestration layer that manages resource allocation, load balancing, and maintains network coherence.

Expert architecture

456 Expert Taxonomy

  • • Core reasoning: 16 experts (deductive, inductive, causal)
  • • Mathematics: 48 experts (arithmetic to topology)
  • • Science & Research: 64 experts (physics to archaeology)
  • • Code & Systems: 56 experts (56 languages/frameworks)
  • • Language & Comm: 48 experts (48 languages)
  • • Multimodal: 32 experts (vision, audio, 3D)
  • • Domain-Specific: 96 experts (medical to real estate)
  • • Meta-Cognitive: 32 experts (performance monitoring, optimization strategies)
  • • Verification: 24 experts (fact-checking, validation)
  • • Transfer & Adaptation: 40 experts (zero-shot, transfer)

MoE architecture

Input router

Binary constraint verification with HNSW/LSH indexing for O(log N) expert selection

Expert pool

456 specialized experts with 2-3.5M constraints each (~150GB catalog)

Output fusion

Weighted combination with confidence scoring

LOOM ARCHITECTURE

Advanced 456-Expert System

Dweve Loom is our flagship model featuring 456 specialized experts across 10 clusters. This advanced architecture achieves strong performance on challenging benchmarks through pure binary operations.

Performance metrics

456
Expert systems
57GB
Memory footprint
Instant
Response time
Strong
Math reasoning
456 experts working in concert: Strong math • Strong reasoning • Advanced coding • Human-level understanding

Questions? We're here to help

We know this is complex stuff. Our team loves explaining how everything works and helping you figure out if Dweve is right for your specific situation. No sales pressure, just honest technical conversation.

✓ No sales pressure ✓ Honest technical discussion ✓ Real-world examples ✓ Your questions answered