Description

A focused course, tailored for you

The Silicon Security Architect Threat Model Playbook

Name: The Silicon Security Architect Threat Model Playbook
Price: 199 USD
Availability: InStock

From RTL threat model to post-silicon attestation, the artefacts a hyperscaler hardware security team actually reviews.

The block-level threat model the review board asks for, the fault-injection coverage matrix that proves it, and the post-silicon attestation chain that holds it together — written as artefacts, not slides.

$199 one-time

Tailored to your situation. Access within 24 hours. 30-day money-back.

Includes a hand-built implementation playbook delivered alongside course access, generated for your specific situation.

Why this course

Silicon security architects sit between hardware design teams who want to tape out and security review boards who want a defensible threat model for each new accelerator generation. The friction is rarely about whether to add secure boot or attestation. It is about which RTL block owns the root of trust, how the key hierarchy survives a single fuse miswrite, how fault-injection coverage is proven before bring-up, and how the post-silicon validation plan ties each claim back to a measurable test. Most internal documentation stops at the high-level diagram. The artefacts the review board actually annotates live one layer deeper, and they are usually rebuilt from scratch every tape-out.

What you walk away with

A block-level threat model template that maps each RTL block to its assets, adversaries, and mitigations.
A fault-injection coverage matrix that links each attack class to a measurable post-silicon test.
A secure-boot key hierarchy diagram with documented fuse-blow failure modes and recovery paths.
A post-silicon attestation chain spec that survives review by the hardware security board.
A tape-out readiness checklist the design team can self-serve against before review.

The 12 modules

Module 1. The block-level threat model the review board annotates

Why the high-level STRIDE diagram never survives the second review pass, and what the board actually marks up. Walk through a worked block-level threat model for a representative accelerator: assets per RTL block, adversary classes, trust boundaries at the bus level, and the one column most internal templates leave blank. Template provided as a structured table the design team can fill against any new block.

Module 2. Root of trust ownership across RTL, ROM, and fuses

Decide which block owns the root of trust and document it so the answer survives a designer rotation. Cover the trade-offs between a dedicated security controller, a Caliptra-style root of trust for measurement, and a distributed model. Walk through the failure modes when ownership is ambiguous, including the ones that only surface during bring-up. Worked example uses an accelerator with a host interface and an internal management controller.

Module 3. Secure boot key hierarchy and fuse-blow failure modes

Document the full key hierarchy from manufacturer keys through owner keys to runtime measurement keys. The module covers fuse-blow sequencing, what happens when a single fuse misprograms, how revocation works in field, and how the recovery path is proven before tape-out. Template provided as a key hierarchy diagram with annotated failure modes per fuse.

Module 4. Fault-injection coverage matrix

Build a coverage matrix that maps each fault-injection attack class (voltage glitch, clock glitch, electromagnetic, laser) to the specific RTL countermeasures and the post-silicon tests that prove them. Most internal matrices stop at the countermeasure column. The course covers the test-evidence column and how to write it so the validation team can execute against it on first silicon.

Module 5. Side-channel threat model and constant-time review

Walk through a structured review of side-channel exposure at the RTL level: timing, power, electromagnetic, and microarchitectural. Cover how to scope constant-time requirements per crypto block, how to document them in the threat model, and how to prove them in post-silicon. Worked example uses a hardware AES block and a hardware ECDSA block on the same die.

Module 6. Debug, JTAG, and lifecycle states

Document the full lifecycle state machine from manufacturing through provisioning to RMA. Cover which debug interfaces are open in which state, which keys are accessible, and how the transitions are enforced in hardware. The module includes the worked answer to the question that always surfaces in review: how does an authenticated debug session prove authentication to the silicon without leaking the key.

Module 7. Post-silicon attestation chain spec

Specify the attestation chain from the root of trust through firmware measurements to the runtime evidence the host sees. Cover DICE, Caliptra-style measurement, and TPM-style quote flows, and document which one applies to your accelerator class. Template provided as an attestation chain spec the validation team and the host-side security team can both review against.

Module 8. Cryptographic agility and migration planning

Document which crypto blocks are agile and which are baked into RTL, and write the migration plan for each. Cover the trade-offs between hardware crypto, firmware crypto on a security controller, and host-side crypto. Worked example walks through a migration path for a hash function deprecation that affects measurement, attestation, and secure boot simultaneously.

Module 9. Supply chain integrity from foundry to deployment

Cover the artefacts that prove supply chain integrity end to end: foundry attestation, provisioning records, OEM key injection, and field deployment evidence. The module walks through the OCP Security supply chain workstream artefacts and how to map them to your internal provisioning flow. Template provided as a supply chain attestation log spec.

Module 10. The tape-out readiness checklist

Translate the threat model into a checklist the design team can self-serve against. Cover the items that always slip through internal review, the ones that only surface in pre-silicon security audits, and the ones the post-silicon team has no way to validate after tape-out. Template provided as a tape-out readiness checklist with sign-off owners per item.

Module 11. The review board document set

Walk through the full document set the security review board sees: threat model, key hierarchy, attestation chain, fault-injection matrix, side-channel review, lifecycle state machine, and the tape-out checklist. Cover how to structure the document set so the board can review in a single sitting, and which one document the board reads first. Worked example uses a representative accelerator generation submission.

Module 12. Bring-up, validation, and field incident playbooks

Cover the post-tape-out artefacts: the bring-up security checklist, the validation report against the fault-injection matrix, and the field incident playbook for the first reported security issue against the silicon. Template provided as a field incident triage spec that ties back to the original threat model so the board can update it in place.

How this addresses your situation

Specific modules that map to what you said you are dealing with.

Tape-out readiness review where the threat model is the gating artefact.

New accelerator generation kickoff where the root of trust ownership is being decided.

Post-silicon bring-up where the fault-injection coverage matrix is being executed.

Field incident where the attestation chain needs to be re-proven against a deployed fleet.

What you get with this course

Twelve written modules with downloadable templates for every artefact named above.
A hand-built implementation playbook tailored to the buyer's accelerator class and review board structure.
Worked examples for a representative accelerator with host interface, security controller, and crypto blocks.
Document set templates structured the way a hardware security review board reads them.
Thirty-day money-back if the artefacts do not fit the buyer's review board format.

What you will have in hand by Day 1, Week 1, Month 1

Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.

Modules 1 through 4 build the foundation: threat model, root of trust, key hierarchy, fault-injection matrix.

Modules 5 through 8 cover the deeper specs: side-channel, lifecycle, attestation, crypto agility.

Modules 9 through 12 close the loop: supply chain, tape-out checklist, review board document set, bring-up and field incident.

Before and after

Before

Threat model lives in a slide deck. Review board annotates the deck and asks for the missing block-level detail. The artefacts get rebuilt from scratch every tape-out, and the post-silicon validation team executes against a coverage matrix that was finalised after RTL freeze.

After

Block-level threat model, key hierarchy diagram, fault-injection coverage matrix, attestation chain spec, and tape-out readiness checklist exist as living artefacts. Review board reads them in a single sitting. Validation team has executable tests in hand before bring-up.

What happens if you do not address this

The cost of rebuilding the artefact set every tape-out is paid in review cycles, slipped schedules, and the occasional security issue that surfaces in field because the coverage matrix did not include the relevant attack class. The bigger cost is the architect who carries the threat model in their head and cannot delegate the work as the team scales.

Who it is for

You are a silicon security architect at a hyperscaler or large fabless team. You sit between RTL designers, post-silicon validation, the cryptography group, and the internal security review board. You own the threat model that gates tape-out for a given accelerator or SoC generation. You read SP 800-193, Caliptra, OCP Security workstreams, and your own internal hardware security spec, and you translate them into block-level decisions the design team can act on. You write the document the board annotates, and you defend it in review.

Who this is NOT for. Not for application-layer security engineers, not for cloud SOC analysts, not for compliance officers without RTL exposure, and not for anyone whose role stops at firmware signing. The course assumes familiarity with RTL, secure boot flows, key hierarchies, side-channel concepts, and the post-silicon validation pipeline.

How it arrives

Text-based course in the Art of Service learning environment, plus downloadable templates and worked examples for every module, plus the hand-built implementation playbook delivered alongside course access.

Time investment. Roughly twenty to thirty hours of focused reading and template work to produce a full artefact set for one accelerator generation. The implementation playbook is the per-buyer accelerant that reduces that to about ten hours of buyer-side work.

Why $199 is the right number

Free guidance from SP 800-193, Caliptra documentation, and OCP Security is excellent for reference and incorrect as a template for what the internal review board wants to see. Consulting engagements at hardware security firms run into the tens of thousands and deliver a written report. This course delivers the artefact templates and the per-buyer playbook for 199 USD.

FAQ

Is the course tied to a specific silicon vendor or process node?

No. The templates are vendor-neutral and apply to any accelerator or SoC class with a host interface, a security controller or root of trust, and a measured boot flow.

Does it cover quantum-resistant crypto migration?

Module 8 covers crypto agility and migration planning in general, including the trade-offs for migrating any deprecated primitive in hardware crypto blocks. It does not advocate for a specific post-quantum scheme.

Is the implementation playbook generic or tailored?

Tailored. After purchase the playbook is hand-built against the buyer's accelerator class, review board structure, and provisioning flow. Delivered alongside course access.

Who is the course not for?

Application-layer security engineers, cloud SOC analysts, compliance officers without RTL exposure, and anyone whose role stops at firmware signing. The material assumes RTL fluency.

What is the refund policy?

Thirty-day money-back if the artefact templates do not fit the buyer's review board format.

30-day money-back guarantee. If after a week of working through the materials this is not what you needed, reply to the receipt email and a full refund is processed. No questions, no forms.

Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.