AI Accelerator Design · All levels
AI Accelerator Design - Architecture to Silicon
Execution-focused AI accelerator mastery covering architecture choices, dataflow, memory hierarchy, scheduling, tensor and sparse compute, precision policy, and bring-up closure.
Course promise
This is the execution-focused AI accelerator design course for silicon teams. It teaches how to reason from workload symptoms to architecture mechanisms, then close decisions with reproducible evidence, ownership, and rollback-safe rollout criteria.
Translate accelerator architecture concepts into measurable engineering decisions.
Diagnose bottlenecks across dataflow, memory movement, scheduling, precision, and thermal limits.
Connect architecture and runtime policy choices to product SLA and quality outcomes.
Use one framework: workload -> mechanism -> artifact -> owner -> decision.
Course map
accelerator landscape and product fit
-> dataflow architecture and array utilization
-> systolic and tensor-core execution mechanics
-> scheduling and mapping policy
-> on-chip and off-chip memory strategy
-> precision and power-thermal optimization
-> verification, counters, and silicon bring-upRelated topics
Section deep dive
Accelerator outcomes are cross-layer effects of mapping, memory behavior, and runtime policy.
Concept diagram
workload -> mapping -> memory and compute behavior -> SLA outcomeMetric graph
throughput / latency / perf-per-watt trendMetrics and artifacts to collect
throughput and latency profile
power and thermal telemetry
root-cause artifact packet
Mini case study
Freeze revisions and isolate first failing workload slice before optimization debate.
Debug branches
Classify bottleneck
Collect reproducible evidence
Apply bounded fix
Senior review question
Ask: which first-principles bottleneck class explains the symptom, and what artifact proves it reproducibly?
Full course index
Every section and lesson in this track — expand folders in the sidebar or jump from here.