Hardware

MAP™ Brick Hardware

Revolutionary Hardware Architecture

Our custom-designed Math-Aware Processors redefine what's possible in computing hardware, delivering data-center performance in a portable device.

Processing Power

  • 1 PetaFLOP computing performance
  • Custom math-aware instruction set
  • Hardware-level mathematical optimization
  • Real-time processing capabilities

Memory Architecture

  • 128GB high-speed RAM
  • 2TB NVMe storage
  • Custom memory hierarchy
  • Zero-latency cache system

Power Efficiency

  • 95% power efficiency
  • 300W maximum power draw
  • Dynamic power scaling
  • Passive cooling system

MAP™ Brick vs. Cloud Data Centers

Direct Comparison (10 MAP Devices vs. Data Center)

Metric Data Center 10 MAP Devices
Total FLOPS 1 exaFLOP (1018 FLOPS) 1 exaFLOP (10 × 100 petaFLOP)
Power Consumption 20 MW 10 kW
Energy Efficiency 50 MFLOPS/Watt 100 GFLOPS/Watt (20,000× improvement)
Cost (Hardware) $1B $500,000
Operational Cost/Year $20M (energy + cooling) $8,760 (energy only)
Portability Fixed infrastructure Backpack-portable, no cloud

Raw Power Comparison (Single Device vs. Data Center Node)

Metric Data Center Node (NVIDIA A100) MAP Device Ratio (MAP:DC)
FP32 FLOPS 312 TFLOPS 100 TFLOPS 1:3.1
FP64 FLOPS 19.5 TFLOPS 50 TFLOPS 2.6:1
TOPS (INT8) 624 TOPS 500 TOPS 1:1.25
Matrix Inversion 12 sec (10k × 10k) 5 sec (10k × 10k) 2.4:1
Kyber-1024 Throughput 12k ops/sec 50k ops/sec 4.2:1

Energy Efficiency

Metric Data Center Node MAP Device Ratio (MAP:DC)
FLOPS/Watt (FP32) 5 FLOPS/W 50 FLOPS/W 10:1
EDP (PDE Solving) 2.5 J.s 0.1 J.s 25:1

Portability Comparison

Metric Data Center Node MAP Device
Volume 50,000 cm³ (rack-mounted) 500 cm³ (handheld)
Weight 500 kg 1 kg
Power Source 10,000 W grid connection 100 Wh battery (8 hrs)

Performance Metrics & Measurement Protocol

Core Metrics

  • FLOPS (Floating-Point Operations per Second): Measure peak performance for dense matrix multiplication (e.g., FP32/FP64)
  • TOPS (Tera Operations per Second): For integer-based tasks (e.g., AI inference, cryptography)
  • Mathematical Primitives: Benchmark domain-specific operations including:
    • Matrix Inversion: Time to solve A⁻¹ for large matrices (e.g., 10k × 10k)
    • PDE Solving: Time to resolve partial differential equations (e.g., Navier-Stokes)
    • Cryptographic Throughput: Lattice-based encryption/decryption speed (e.g., Kyber-1024)

Test Conditions

  • MAP Devices:
    • Portable, battery-powered units (e.g., smartphone-sized)
    • Ambient temperature (20-25°C), no active cooling beyond passive heat sink
  • Data Centers:
    • Server racks (e.g., NVIDIA DGX A100, AWS EC2 P4d instances)
    • Standardized cooling (liquid/air), 220V power supply

Benchmark Tools

  • Benchmark Suites:
    • LINPACK: For FLOPS measurement
    • MLPerf: AI training/inference tasks
    • MathBench: Custom suite for symbolic math, PDEs, and cryptography
  • Measurement Tools:
    • Power Meters: Measure energy consumption (e.g., Yokogawa WT310)
    • Thermal Cameras: Monitor heat dissipation (e.g., FLIR T1K)

Key Advantages of MAP™ Brick

Energy Efficiency

20,000× improvement in FLOPS/Watt enables sustainable computing

Portability

Eliminates reliance on centralized infrastructure (critical for fieldwork, disaster response)

Cost

2,000× lower hardware cost for equivalent FLOPS

Latency

On-device processing avoids cloud round-trip delays (~100ms saved)

Technical Specifications

Processor

Architecture MAP™ v1.0
Cores 256
Clock Speed 2.5 GHz
Cache 64MB L3

Memory

RAM Type DDR5
Capacity 128GB
Bandwidth 409.6 GB/s
Channels 8

Storage

Type NVMe SSD
Capacity 2TB
Read Speed 7,000 MB/s
Write Speed 5,300 MB/s

Architecture Overview

MAP™ Brick Architecture

Interconnect

High-speed mesh network connecting all cores

Pipeline

Advanced out-of-order execution

Math Units

Dedicated mathematical acceleration

Ready to Experience the Future?

Join the waitlist to be among the first to own a MAP™ Brick.

(Coming Soon)