15-smd

Valuation

Generous asset valuation: $3,000,000,000. The listed price is the platform maximum; acquisition at valuation is handled by direct enquiry.

AES-YFLOPS-100-IC

AES-YFLOPS-100-IC

Status: L2 (Designed) — packaged design, not yet fabricated

Last edited: 2026-05-04 (per ZIP archive timestamp)

Inventor: Christopher Gabriel Brown

Contact: crioneaka@outlook.com ·Email: crioneaka@outlook.com

> Note: The working files for this project are currently archived in

> SMD-15-2026.zip (27 files, 62 KB). Unpack the ZIP at this

> directory level to expose the AES-YFLOPS-100-IC/ source tree before working

> with the design. The folder name 15-smd is legacy — the package itself is

> AES-YFLOPS-100-IC.

What This Is

AES-YFLOPS-100-IC is a packaged custom integrated-circuit design for an

AES (Advanced Encryption Standard) accelerator with a yottaflops-class

throughput envelope, implemented as a nanolayer-stacked quantum-array IC.

The design package is foundry-handoff ready: complete RTL, layout

(LEF/DEF placeholder + GDS placeholder), constraints, synthesis script,

DRC/LVS/timing/power reports, datasheet, and a foundry handoff document.

What's in the ZIP

USPTO Patent Status

To be confirmed against ../PATENT_PORTFOLIO.md. The

nanolayer-stacked quantum-array architecture may relate to umbrella application

US 19/540,453 — verify before claiming coverage.

Quick start

cd D:/special/15-smd
unzip SMD-15-2026.zip          # exposes AES-YFLOPS-100-IC/
cd AES-YFLOPS-100-IC
cat README.md DATASHEET.md     # read the package's own docs

Productization status

This project is eligible for the cri-one.com store rollout but has no

storefront draft yet because the README was missing at the time of the

generator pass. After this README lands, run the generator to scaffold a

storefront listing:

cd D:/special/manager/storefront-generator
python generate.py --project 15-smd

Then run the auto-tune pass (or hand-tune to the AutoCar quality bar):

python auto_tune.py --project 15-smd

Source Project

AES-YFLOPS-100-IC/ (inside the ZIP) — full RTL, layout, foundry handoff.

Buyers can take this directly to a foundry tape-out queue.

Date: May 04, 2026

Contact:

Christopher Gabriel Brown

1341 Wellington Cove, Lawrenceville, GA 30043-5255, USA

Email:: crioneaka@outlook.com

Email: crioneaka@outlook.com

15 - Smd

15 - Smd

> Internal playbook -- not for public eyes.

> Last scaffolded: 2026-05-11

1. Identity

2. One-liner

> AES-YFLOPS-100-IC is a packaged custom integrated-circuit design for an AES (Advanced Encryption Standard) accelerator with a yottaflops-class throughput envelope, implemented as a nanolayer-stacked quantum-array IC.

*(Edit this once. It becomes the single sentence you reuse in replies,

on the catalog page, and at the top of any future write-up.)*

3. What's actually in the folder

• PLAYBOOK.md
• README.md
• SMD-15-2026.zip

4. README at a glance

Top sections found in README.md:

• What This Is
• What's in the ZIP
• USPTO Patent Status
• Quick start
• Productization status
• Source Project

(Full text: D:\special\15-smd\README.md)

5. Hook lines (pick the one that fits the reader)

• (default) AES-YFLOPS-100-IC is a packaged custom integrated-circuit design for an AES (Advanced Encryption Standard) accelerator with a yottaflops-class throughput envelope, implemented as a nanolayer-stacked quantum-array IC.
• (skeptic / 'what is this really?') TODO -- one honest sentence about

what's solved here that wasn't before.

• (buyer's-finance angle) TODO -- pricing/risk framing (zero-upfront,

4-step credit-forward, revenue share if applicable).

• (competitor question) TODO -- the one comparable product or approach

this most often gets confused with, and the one-sentence delta.

6. Reply patterns

When inbound lands, fall back to the cross-portfolio patterns in

D:\special\manager\emails\PLAYBOOK_software_for_data.md (sections 5

and 8 are reusable across every project) and adapt the specifics.

The product-specific bits to fill in here (TODO):

• One objection unique to this project + the honest answer
• One pricing anchor unique to this project
• One reason to walk away that's worth saying out loud

7. Status & gaps

• Vault: OWN -- project-specific archive ready
• Catalog presence: TODO -- search cri-one.com/store for this product

and paste the live URL here.

• PoF readiness: TODO -- is there a working demo / sample / proof a

prospect could run in under an hour?

• NDA-gated technical brief: TODO -- written? not written? where?
• Critical missing piece before this can close: TODO.

8. Quick links

• Folder: D:\special\15-smd\
• Catalog (cri-one.com): TODO
• Related projects in portfolio: TODO (cross-reference here once mapped)

*This scaffold was auto-generated. Replace TODOs as you learn each project

better. Search across all playbooks: grep -ri "<term>" D:\special\\PLAYBOOK.md

AES-YFLOPS-100-IC — Photorealistic Render Specification

AES-YFLOPS-100-IC — Photorealistic Render Specification

The 10 mm die

Project: 15 — 15-smd (legacy folder name; the package is AES-YFLOPS-100-IC)

SKU: SMD-15-2026-AES-YFLOPS-100

Document ID: AESY-RENDER-SPEC-001 · Rev: 1 (2026-08-13)

Geometry source: 15-smd/SMD-15-2026.zip → AES-YFLOPS-100-IC/layout/aes_yflops.def,

layout/aes_yflops.lef, spec.json

This project was listed for months as having no geometry carrier at all. It has an

exact one. The working files are archived in a .zip, and the geometry is in DEF and

LEF — a container the scanner cannot open, in formats it does not know. See

_tools/GEOMETRY_TRIAGE.md §1.

1. The part, measured

Confirmed three independent ways inside that one archive:

The 10 mm is the whole point

A conventional IC die is about 1 mm tall. This one is 10 mm — the record states

the ratio explicitly as "10x conventional IC (10 mm vs ~1 mm)", and the substrate

notes give the reason: silicon's cost caps stack height, and the AES substrate's

economics and 400 W/m·K thermal conductivity make a 550-layer stack feasible.

So the single thing a render must get right is that this does not look like a chip.

At 32 × 32 × 10 mm it is a block — roughly a third as tall as it is wide, with a

proportion closer to a small heatsink or a die of stacked wafers than to the flat black

squares every generator draws. A render that produces a normal thin package has failed,

however beautiful it is.

For scale on its carrier: a PCIe half-height half-length card is 167.65 × 68.90 mm

(PCIe CEM standard, verified against the project 35 tier boards this session). A

32 mm part on it spans 19 % of the card's length and 46 % of its height — it is

the dominant object on the board, not a component among many.

2. Two constraints that override the usual treatment

This part has not been fabricated. Its maturity is L2 (Designed). The archive

ships layout/aes_yflops.gds.placeholder.txt — a placeholder where the mask layout

would be. There is no manufactured object to photograph.

The portfolio's standing policy is flat documentary light *because it makes hardware

look photographed rather than rendered*. Here that same instinct becomes a hazard: a

convincing photograph of a part that does not exist is a misrepresentation, on a

patent-pending design (USPTO 19/449,352, 50 claims, filed 2026-01-14, pending

examination). **Depict it as an engineering visualisation, not as a product

photograph.** Concretely: a clean studio-neutral rendering on a plain ground, obviously

a CAD visualisation — no bench clutter, no dust, no fingerprints, no shallow-focus

"photographed object" cues. Everything else about the lighting policy is unchanged.

The material identity is a trade secret. spec.json records that the AES element

ratios are disclosed only under tier-appropriate NDA. The substrate is described

publicly as a two-element alloy with a direct 0.8 eV bandgap. **Do not render a

distinctive, identifiable material** — no characteristic mineral colour, no

recognisable crystal habit, nothing that implies a specific element. A neutral dark

metallic-ceramic surface reads correctly and discloses nothing.

3. Render 1 — the die alone

Engineering visualisation of a single semiconductor die, **32 × 32 mm square and 10 mm

tall**, resting on a plain neutral light grey ground, viewed from about 30° above the

horizon so that both the top face and one side wall are clearly visible. The height

must be unmistakable: this is a squat block, not a wafer-thin chip.

The top face is flat and matte, in a neutral dark grey with a faint metallic-ceramic

sheen — no logo, no laser marking, no text. The side walls are the subject: a very

fine horizontal lamination runs the full 10 mm, hundreds of layers so densely stacked

they read as a fine striation or grain rather than as countable lines. Nothing about

the striation should look like a stack of discrete boards.

Edges are crisp and square. No package substrate, no lid, no lead frame, no visible

balls — this is the die, not a packaged part.

Palette: neutral dark grey die, faint warm-neutral metallic highlight on the top face,

plain light grey ground. No colour cast.

4. Render 2 — on its carrier

The same die mounted centrally on a bare PCIe half-height half-length card,

167.65 × 68.90 mm, photographed from directly overhead, orthographic, card square in

frame. Matte green solder mask, gold edge fingers along the lower edge, sparse

supporting components.

The composition point is proportion: the die covers roughly a fifth of the card's length

and nearly half its height, standing 10 mm proud of a 1.6 mm board. **The card should

look like a mount for the die, not a card that happens to carry a chip.**

No heatsink. At 235 W a shipping card would certainly have thermal hardware, but nothing

in the record describes any — see §7.

5. Camera and lighting

• Long lens, f/11, focus stacked front to back, no perspective distortion
• Camera level; for Render 2, perpendicular to the card

> The scene is ultra low energy: calm, still, quiet, nothing operating, no motion, no

> drama, no tension. Lighting is bright but deliberately boring: flat overcast noon or

> diffused fluorescent panel light bouncing off a white ceiling, soft shallow shadows,

> uniform exposure across the frame, no rim lights, no hard kickers, no cinematic

> contrast, no golden hour, no coloured gels, no dramatic falloff.

Policy preserved verbatim from product_image_prompts.md, with the one deliberate

departure in §2: the result should read as a visualisation, not a photograph.

6. Negative prompt

> people, hands, glowing circuits, neon, blue LED glow, RGB lighting, holographic

> overlay, floating HUD, science fiction, wafer, silicon wafer, rainbow diffraction,

> iridescent surface, circuit-trace pattern on the die face, visible transistors, text,

> logo, watermark, laser marking, signature, motion, cinematic contrast, rim light, lens

> flare, dramatic lighting, macro dust, fingerprints, bokeh, shallow depth of field,

> thin flat chip, standard IC package, BGA balls, lead frame, heatsink, fan

Three failure modes specific to this part.

1. Flatness. Generators draw ICs as thin squares. This is 10 mm tall. If the side

wall is not a major part of the image, the render is wrong.

2. Circuit imagery. They decorate die faces with glowing traces and rainbow

diffraction. The top face is plain and matte.

3. Material tells. Anything that reads as an identifiable mineral or alloy risks

implying the trade-secret composition. Keep it neutral.

7. What the record does not contain

• No package. Everything here describes the die. Whether it ships bare, lidded, or

in a substrate package is not stated, and the two are very different objects.

• No surface finish, colour or marking for the die face. Neutral dark grey is an

assumption, chosen partly because it discloses nothing.

• No thermal solution, despite 235 W TDP and a stated reliance on top-surface heat

extraction. A real card would have substantial thermal hardware; nothing describes it.

• No carrier card geometry. The 167.65 × 68.90 mm figure is the PCIe CEM standard for

the stated HHHL form factor, not a measurement of a board in this project — there is no

board file here. Mark it P (Proposed) per HANDOFF.md §6 if it goes into a filing.

• No I/O, connector or power-delivery layout for the card.
• The part is not fabricated. GDS is a placeholder. See §2.

*Die geometry read directly from the DEF, LEF and spec.json inside

15-smd/SMD-15-2026.zip; the three agree exactly. PCIe HHHL card dimensions from the

PCIe CEM standard, cross-checked this session against the project 35 tier board bodies

(167.65 × 68.90 mm).*

This archive contains 3 documents. The complete folder ships as the product.