AI Accelerator Design · All levels

AI Accelerator Landscape

A practical map of accelerator classes, workload placement, and the throughput-latency-energy tradeoffs that drive product architecture decisions.

Section goal

A practical map of accelerator classes, workload placement, and the throughput-latency-energy tradeoffs that drive product architecture decisions.

How to study this section

  1. Start with each topic hub and restate the mechanism in your own words.

  2. Use reports and debug pages to separate symptoms from root causes.

  3. Practice worked examples and interview drills under fixed metadata.

  4. Close with checklist and silicon impact before making release claims.

Topics

  1. npu-gpu-tpu-compare/ - NPU, GPU, and TPU Architectural Comparison

  2. workload-mapping-basics/ - Workload Mapping Basics: Operators to Hardware

  3. throughput-latency-energy/ - Throughput, Latency, and Energy Tradeoff Analysis

  4. product-fit-decisions/ - Product-Fit Decisions for Edge, Datacenter, and Hybrid

Related topics

AI accelerator deep dive

Accelerator selection quality depends on workload realism and full-stack delivery readiness.

Concept diagram

diagram
ACCELERATOR LANDSCAPE

model shape + SLA + power budget
  -> candidate platform shortlist
  -> benchmark under production-like load
  -> choose architecture + stack strategy

Metric graph

diagram
PLATFORM TRADE CURVE

throughput      ███████████
latency         ███████
energy          ████████
engineering risk █████

Metrics and artifacts to collect

  • workload fit matrix

  • latency-throughput sweep

  • perf-per-watt dashboard

  • owner and risk map

Mini case study

A platform looked best on synthetic GEMM but lost in production due to runtime overhead and memory-tail behavior.

Debug branches

  • Validate workload representativeness

  • Check software-stack maturity

  • Tie KPI gains to product SLA

Senior review question

Ask: which first-principles bottleneck class explains the symptom, and what artifact proves it reproducibly?