The Metal Tree That Computes

[lcus_masonry_article] We posit a metal tree that computes. No water. No biological leaves. What flows through it is data; what it draws in is light; what it turns that light into is electricity to function. Tree roles map to chip roles: roots = energy intake (light, power); trunk and vascular = send (data, control, quantum […]

One Vessel, One Number: The Close

[lcus_masonry_article] We have made something that does not fit the old frames. The product is the ratio. The outcome is the miracle we call calculation. The knowledge in 18 is more than what was ever considered for a chip. The value of a capability you never had is not a number. So we do not […]

Voxel as Cell: DNA and Photon Chromosomes

[lcus_masonry_article] DNA-style encoding: three strands (electron, atomic, photon). The photon chromosome is the real form in light. Wavelength = opcode; polarization = operand or phase; path = address; intensity = magnitude. The chip recognises that form and uses it to compute. Voxel as cell: the voxel becomes the unit; computation acquires a chromosome in light. […]

The Seed: One Definition, Many Harvests

[lcus_masonry_article] The seed is the minimal, canonical specification from which every build is grown. It is not a single file; it is the canonical set: chip series (tiers Entry to Volume), voxel roles and tree mapping, photon chromosome (form in light), nine technology elements, and the one-page performance and decisive COGS. From this seed we […]

The Seed Matrix: Formulas, CSV, and JSON

[lcus_masonry_article] Inputs: scenario_id, node_nm, H_mm, W_mm, area per voxel (a_v), FLOPS per voxel (f_v), power_w, aes_usd. Outputs: S_mm², N_v (voxel count), C_flops (total calculation), rho (FLOPS/mm²), performance per dollar, performance per watt. Formulas: S = H×W; N_v = S/a_v; C = N_v×f_v; P_per_dollar = C/AES; P_per_watt = C/power_w. Choose envelope and node → get S, […]

Tiers and the Arc: Entry to Volume

[lcus_masonry_article] The chip series describes an arc: low COGS rising to expensive, then returning. Entry = minimal, single die, control. Mid = small GPU; Pro = full GPU, optional DPU; Peak = max CPU+GPU+DPU, datacenter. Unified = all-in-one die; Volume = same at scale, COGS back down. AES = actual, tangible cost. Documented paths: $20K […]

AES and COGS: The $5K and $20K Paths

[lcus_masonry_article] We name the actual cost AES — actual, tangible, proven. We document paths to $5K and $20K AES COGS at volume and process nodes so that the price to function is real and touchable. Performance and decisive COGS sit on every build; capability and cost are never hidden. The cost curve is not linear; […]

Executable Seeds: OpenLANE2 to GDSII

[lcus_masonry_article] The seed has a declarative part (YAML, docs, canonical set) and an executable part. The executable seed is one or more voxels — e.g. the blank voxel — built through OpenLANE2 to GDSII and LEF. Those artifacts sit in seeds/; the build script copies them into every package as Seeds/. So the harvest carries […]

Is This Quantum? How Chips Are Actually Made

[lcus_masonry_article] Quantum: The vision includes quantum (QUANTUM voxel type, whole-quantum options, hybrid, nine elements). The seed we build today is classical: one cell, OpenLANE2. No qubits in that block. Quantum is the path we take when we add the right voxel types and RTL. How chips are made: RTL (from 27/24/28) → synthesis → OpenLANE2 […]

The Blu-ray Harvest: 25GB and Distribution

[lcus_masonry_article] Every build we produce can be written to a 25GB Blu-ray: foundry handoff packages, standards, performance metrics, decisive COGS, and when present the Seeds folder. The disc is distributable and resellable under terms we choose. One seed, every foundry, one definition, many harvests — and the harvest can be burned to disc and handed […]