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  2. AI for VLSI

AI for VLSI

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Intermediate · ~10 h · 436 lessons · 8 sections

Apply ML where it pays: prediction and optimisation inside EDA flows.

Start courseHow to Use This Course

Course map

  1. How to Use This Course
    1 lesson

    Starts with How to Use This Course

  2. AI-VLSI Metrics Reference
    1 lesson

    Starts with AI-VLSI Metrics Reference

  3. AI-VLSI Glossary
    1 lesson

    Starts with AI-VLSI Glossary

  4. Reading Path
    1 lesson

    Starts with Reading Path

  5. ML Math Foundations
    61 lessons

    Starts with Linear Algebra & Tensors: Mechanism

  6. Neural Networks Basics
    61 lessons

    Starts with Perceptron to MLP: Mechanism

  7. Training Data Pipeline
    61 lessons

    Starts with Datasets, Splits & Augmentation: Mechanism

  8. AI Compute Hardware
    61 lessons

    Starts with CPU, GPU, TPU, NPU Landscape: Mechanism

  9. Accelerator Architecture
    61 lessons

    Starts with MAC Arrays & Systolic: Mechanism

  10. AI in VLSI Workflows
    61 lessons

    Starts with ML for EDA Placement & Routing: Mechanism

  11. Edge Deployment & MLOps
    61 lessons

    Starts with ONNX & Runtime Engines: Mechanism

  12. AI-VLSI Interview Prep
    4 lessons

    Starts with AI-VLSI Whiteboard Framework

  13. AI Basics for VLSI Engineers Cheatsheet
    1 lesson

    Starts with AI Basics for VLSI Engineers Cheatsheet

About this course

Course promise

This is the practical AI literacy course for VLSI teams. It teaches enough ML depth to reason about models, hardware implications, EDA trends, and deployment tradeoffs without requiring ML research specialization.

  • Translate ML terms into design, signoff, and silicon decisions.

  • Understand compute/dataflow/precision implications for hardware teams.

  • Evaluate EDA ML proposals with measurable risk and ownership.

  • Use a repeatable framework: metric -> mechanism -> artifact -> owner -> decision.

Course map

Show how the course is organised
Diagram
ML fundamentals + neural mechanics
  -> data pipeline and training discipline
  -> compute hardware and roofline constraints
  -> accelerator architecture and bandwidth closure
  -> EDA ML workflow integration
  -> edge deployment + MLOps governance

Related topics

  • Computer Architecture course
  • STA Mastery course
  • Physical Design course
  • SoC Integration course

Section deep dive

AI for VLSI success needs data discipline, architecture context, and operational governance.

Concept diagram

Show Concept diagram
Diagram
problem -> model -> hardware mapping -> deployment

Metric graph

Show Metric graph
Diagram
quality vs efficiency trend

Reports and artifacts

  • model quality report

  • runtime profile

  • deployment readiness memo

Mini case study

Freeze revisions before root-cause debate.

Debug branches

  • Isolate first failing layer

Senior review question

Ask: what evidence connects this ML claim to a concrete VLSI workflow decision and owner signoff?

Execution drill pack 1

Use this pack to rehearse AI-for-VLSI decision making on ai-vlsi: metric framing, mechanism proof, hardware implications, and release safety.

Evidence checklist

  • Metric context includes workload, dataset slice, and revision tags.

  • Mechanism explanation links model behavior to observed outcome.

  • Hardware/runtime feasibility is profiled, not assumed.

  • Owner and rollback path are documented before rollout.

Review prompts

  1. Which decision will this model output influence?

  2. What is the first failing layer when metric regresses?

  3. Which owner applies the smallest reversible fix?

  4. What validation matrix is required before deployment?

Evidence capsule

Show Evidence capsule
Diagram
AI-VLSI EVIDENCE CAPSULE 1

PATH: ai-vlsi
WORKLOAD SLICE: <name>
PRIMARY METRIC: <value/trend>
FIRST FAILING LAYER: <data/model/runtime/hardware>
OWNER: <name>
PRIMARY ARTIFACT: <report/profile/dashboard>
DECISION: <ship / rollback / escalate>

Execution drill pack 2

Use this pack to rehearse AI-for-VLSI decision making on ai-vlsi: metric framing, mechanism proof, hardware implications, and release safety.

Evidence checklist

  • Metric context includes workload, dataset slice, and revision tags.

  • Mechanism explanation links model behavior to observed outcome.

  • Hardware/runtime feasibility is profiled, not assumed.

  • Owner and rollback path are documented before rollout.

Review prompts

  1. Which decision will this model output influence?

  2. What is the first failing layer when metric regresses?

  3. Which owner applies the smallest reversible fix?

  4. What validation matrix is required before deployment?

Evidence capsule

Show Evidence capsule
Diagram
AI-VLSI EVIDENCE CAPSULE 2

PATH: ai-vlsi
WORKLOAD SLICE: <name>
PRIMARY METRIC: <value/trend>
FIRST FAILING LAYER: <data/model/runtime/hardware>
OWNER: <name>
PRIMARY ARTIFACT: <report/profile/dashboard>
DECISION: <ship / rollback / escalate>

Execution drill pack 3

Use this pack to rehearse AI-for-VLSI decision making on ai-vlsi: metric framing, mechanism proof, hardware implications, and release safety.

Evidence checklist

  • Metric context includes workload, dataset slice, and revision tags.

  • Mechanism explanation links model behavior to observed outcome.

  • Hardware/runtime feasibility is profiled, not assumed.

  • Owner and rollback path are documented before rollout.

Review prompts

  1. Which decision will this model output influence?

  2. What is the first failing layer when metric regresses?

  3. Which owner applies the smallest reversible fix?

  4. What validation matrix is required before deployment?

Evidence capsule

Show Evidence capsule
Diagram
AI-VLSI EVIDENCE CAPSULE 3

PATH: ai-vlsi
WORKLOAD SLICE: <name>
PRIMARY METRIC: <value/trend>
FIRST FAILING LAYER: <data/model/runtime/hardware>
OWNER: <name>
PRIMARY ARTIFACT: <report/profile/dashboard>
DECISION: <ship / rollback / escalate>
Open question bankPractice questions for this track