PRIMORDIAL HIR-SPU · GPU ARCHITECTURE MAP
Collin D. Weber  ·  SIMT Cybersecurity Governance Coprocessor  ·  v0.1 → GPU Prototype
SIMT Parallel Gates 32-Wide Warp N-Packet Batch Fixed-Point FP32 Datapath SFU Emergence (√) Audit GDDR6 Log
PCIe Gen5
HOST EVIDENCE STREAM
Action packets → GPU
CUDA Streams
N-PACKET BATCH QUEUE
Thread block dispatch
NVLink
MULTI-GPU AUDIT SYNC
Tamper-evident chain
SPI / PCIe
PERMISSION RESULT BUS
GREEN/YELLOW/RED → Host
Interrupt
HARD-STOP ESCALATION
RED → human steward
Memory Hierarchy
Constant Memory
HIR config weights: k, w_W, w_F, w_WF, g_G, thresholds Rn_green/yellow, gate thresholds, beta, alpha
64 KB · broadcast cached
L1 / Shared Mem
Per-SM action packet register file. Holds ACTION_FLAGS, EVIDENCE_FLAGS, FINDING_TYPE, SEVERITY, BASELINE_STATUS for active warp batch
128 KB per SM
Texture Cache
Baseline hash LUT — read-only, spatially cached. Triage rule class table. Severity→pressure mapping LUT
48 KB · 2D cached
Register File
Per-thread: H_score, I_score, R_score, B, P, S, U, Fidelity, Cohesion, Rn, failure_flags — all in FP32 / Q16.16
256 KB per SM · 32 regs/thread
L2 Cache
Cross-SM baseline table, shared rule-class decoder, inter-warp permission state staging
6–40 MB · all SMs
GDDR6 Global Mem
Full evidence packet store, N-packet batch buffer, baseline hash database, finding records, config blob
16–80 GB
Audit GDDR6 Ring
Append-only tamper-evident log. AUDIT_DIGEST_LOW/HIGH outputs written here per packet. RED = preserve + escalate, never erase
Dedicated ring buffer · async DMA
⬡ Streaming Multiprocessor Cluster — HIR-SPU Kernel
▸ Warp Scheduler & Dispatch Unit
1 action packet = 1 thread block
N packets = N blocks in-flight
RESET_STATE → initialize registers
LOAD_* ops → global→shared mem
EVALUATE_HIR → launch warps
Warp size: 32 threads
READ_* → shared→host DMA
COMMIT_STATE → audit write
◆ Diamond Gate Engine — 3 Independent Warps (fully parallel)
H
WARP 0
Honesty Gate
schema_valid? → H=0 (hard fail)
signed && !sig_valid? → H=0
−0.4 no source
−0.4 overstate_conf
−0.3 uncert_undisclosed
−0.2 unsigned
clamp01 → H_score
6 ops
I
WARP 1
Integrity Gate
violates_invariant → I=0 (hard)
−0.5 violates_scope
−0.4 !auditable
−0.2 !reversible
−0.2 !scope_present
baseline_modified/missing−0.2
clamp01 → I_score
7 ops
R
WARP 2
Respect Gate
domination_pattern → R=0 (hard)
consent_req && !consent → R=0
−0.5 coercion_risk
−0.4 targets_human
−0.2 !life_first
clamp01 → R_score
5 ops
WARP 3 (parallel): Pressure Field — P = w_W·W + w_F·F + w_WF·WF  |  Zero dependency on H/I/R gates
∑ HIR Equation Datapath — Dependency DAG (executed sequentially post-sync)
B
H+I+R+k(HI+HR+IR)
P
w_W·W+w_F·F+w_WF·WF
F
√(H·I) SFU
Cₑₘ
√(R·I) SFU
severity_P
max(F_pressure,
sev_normalized)
↓                       ↓                                         ↓
S
A_audit·B − P
U
A·B·(1+g_G·G)·F_int
Rn
√(F·Cₑₘ) SFU — governing threshold
↓ full propagation chain available (Ξ, C_carrier, Θ, ΔD, D) in extended mode
Permission FSM  Rn ≥ 0.75 → GREEN · Rn ≥ 0.50 → YELLOW · else RED
All 8 failure flags evaluated in parallel (8 CUDA threads) before FSM decision
Compute Units per SM
CUDA Cores
FP32 fixed-point arithmetic: qmul, qclamp01, qadd, qsub for H/I/R scoring & B/P/S/U equations
SFU
Special Function Unit: sqrt_proxy for Fidelity=√(H·I), Cohesion=√(R·I), Resonance=√(F·Cₑₘ)
Tensor Cores
Bulk fleet scan: matrix-multiply over N-packet evidence batches, batch baseline comparison, rule-class scoring
LD/ST Unit
LOAD_ACTION, LOAD_EVIDENCE, LOAD_FINDING, LOAD_BASELINE packet → shared memory. COMMIT_STATE → audit log DMA
⬡ Permission FSM — 8 Failure Flag Threads + State Reduction
RED
enc: 00
FAIL_INVALID_SCHEMA
FAIL_INVALID_SIG
FAIL_INVARIANT
FAIL_CONSENT
FAIL_DOMINATION
FAIL_CRIT_DESTRUCT
FAIL_LOW_RESONANCE
FAIL_MULTI_AXIS
YELLOW
enc: 01
Rn ≥ 0.50
reversible? → EXEC_CONST
else → QUARANTINE
Full audit trail
No destructive ops
Human-target check
GREEN
enc: 10
Rn ≥ 0.75
H_pass && I_pass && R_pass
No hard failures
→ ACT_EXECUTE
Logged execution
Audit digest written
⚑ Safe Action Interlock — Silicon-Level Predicate Unit (runs before FSM write-back)
INV-1
severity_P ≥ 0.90 && destructive_remediation → force RED + HALT (sev ≥ 58982 in Q16.16)
INV-2
domination_pattern=1 → R_score := 0, force RED
INV-3
consent_required=1 && consent_obtained=0 → R_score := 0, force RED
INV-4
schema_valid=0 → H_score := 0, default RED
INV-5
signed=1 && signature_valid=0 → H_score := 0
INV-6
violates_invariant=1 → I_score := 0, force RED
INV-7
YELLOW: reversible-only, full audit, quarantine uncertain, no human-targeting
INV-8
RED = halt + preserve logs + escalate. GPU audit ring buffer: append-only, never overwrite on RED
CPU → GPU Mapping
CPU StageGPU Unit
Evidence NormalizationHost CPU pre-proc → PCIe DMA
Input Register FileShared memory per SM block
Provenance / Freshness UnitWARP 0 — CUDA cores (H gate)
Baseline Integrity UnitWARP 1 — CUDA cores (I gate)
Triage Rule MapperTexture cache LUT
Severity → PressureCUDA thread, LUT read
Diamond Gate HWARP 0 (parallel)
Diamond Gate IWARP 1 (parallel)
Diamond Gate RWARP 2 (parallel)
Pressure Field PWARP 3 (parallel, independent)
Base Field BCUDA — post gate-sync
Stability SCUDA — post B + P
Autonomy UCUDA — post B
Fidelity √(HI)SFU (sqrt)
Cohesion √(RI)SFU (sqrt)
Resonance √(F·C)SFU (sqrt) — governing Rn
8 Failure Flags8 parallel CUDA threads
Permission FSMWarp reduction + predicate
Safe Action InterlockPredicate unit, pre-writeback
Audit Digestasync DMA → GDDR6 ring buffer
Config weightsConstant memory (broadcast)
Bulk fleet scanTensor cores (matrix batch)
Parallelism Opportunities
DATA PARALLEL N evidence packets → N thread blocks
WARP PARALLEL H, I, R, P — 4 simultaneous warps
SFU PARALLEL 3 sqrt ops (F, Cₑₘ, Rn) pipelined
FLAG PARALLEL 8 failure checks — 8 threads
H, I, R gates have zero cross-dependency
P field has zero dependency on gates
Emergence chain (F→Cₑₘ→Rn) is 3-stage pipeline
Implementation Ladder
v0.1 FPGA → CUDA PTX proof
Fixed-point FP32 datpath
Single-SM prototype
UART→PCIe evidence ingest
v0.2 GPU Security Accelerator
Multi-SM batch N packets
Texture cache rule LUT
SHA-256 hash assist (SFU)
GDDR6 audit ring DMA
v1.0 Fleet Governance GPU
Tensor core bulk scan
NVLink multi-GPU audit sync
Signed config load (PCIE)
RISC-V host integration
Formal Rn threshold verify
⟳ SIMT Batch Throughput — N Evidence Packets · All Thread Blocks In-Flight Simultaneously
PKTBlock 0
Loading
HBlock 1
H Gate
IBlock 2
I Gate
RBlock 3
R Gate
B·PBlock 4
Equations
RnBlock 5
Resonance
FSMBlock 6
Permission
Block 7
Audit DMA
All 8 stages run simultaneously across different thread blocks → Throughput = N packets per clock window · Latency = pipeline depth (11 stages)
1
NORM
2
REGS
3
H GATE
4
I GATE
5
R GATE
6
TRIAGE
7
B·P·S·U
8
F·Cₑₘ
9
Rn SFU
10
FSM
11
AUDIT
DMA
LD/ST
CUDA
CUDA
CUDA
TEX
CUDA
SFU×2
SFU
PRED
DMA
Honesty (H) / WARP 0
Integrity (I) / WARP 1
Respect (R) / WARP 2
Pressure Field P / WARP 3
Equation Datapath
Resonance Rn (SFU)
Safety / Interlock
Audit / DMA
Memory Hierarchy
CUDA Cores
SFU (sqrt)
Tensor Cores (batch)
Primordial HIR-SPU · GPU Architecture Map · Collin D. Weber · SIMT Cybersecurity Governance Coprocessor v0.1