TECHNOLOGY · EDGE HARDWARE

PHYSICAL
INTEGRITY NODE

Tamper-evident edge hardware sealed at the busbar. Sensor fusion + PQC signing + secure uplink, the single physical root of trust for all Hepta-Validation data.

The PIN-SE v2 edge module.

The Physical Integrity Node is a tamper-evident, industrially sealed hardware unit installed directly at the busbar of each flex-load facility. It serves as the single physical root of trust for all Hepta-Validation sensor data.

Each PIN combines three core functions into one hardened enclosure: sensor fusion across all seven Hepta-V layers, post-quantum cryptographic signing, and secure uplink to the Hedera consensus layer.

verifiedTPM 2.0+ Secure Enclave
shieldFIPS 140-3 Compliance
memoryLow-latency PQC signing < 10ms
lockTamper-evident industrial sealing
sensors7-layer sensor fusion onboard
PIN-SE v2 CRYSTALS-DILITHIUM · FIPS 140-3 SN 0x4A7F...E2 · IPF · SWISS · 2026

Post-quantum security.

Every data packet signed at the PIN is protected against both classical and quantum computing attacks. The cryptographic stack is designed to remain secure for 25+ years.

enhanced_encryption

CRYSTALS-Dilithium

NIST FIPS 204 standardized lattice-based digital signature scheme. Resistant to Shor's algorithm and all known quantum attacks. Selected as the primary post-quantum signature standard.

chip_extraction

TPM 2.0+ Secure Enclave

Hardware-rooted key storage. Private keys never leave the silicon boundary. Attestation proves the module has not been tampered with since manufacture.

security

FIPS 140-3

U.S. federal cryptographic module validation. Ensures the entire signing pipeline meets government-grade security requirements for key management, physical security, and self-tests.

Seven steps from sensor to certificate.

Every DeliveryTag certificate passes through a rigorous 7-step pipeline, from initial detection at the PIN through to final issuance on Hedera. Each step must pass before the next can begin.

STEP 01
radar

Detect

PIN sensor array fires a burst across all 7 Hepta-V layers. Raw telemetry captured at sub-second intervals from the busbar.

STEP 02
content_cut

Curtail

If Mode B is active, PIN signals flex load to curtail. SCADA telemetry confirms the load reduction happened as instructed.

STEP 03
fact_check

Verify

Cross-validate all 7 sensor layers against each other. Physical consistency check across electrical, thermal, magnetic, acoustic, spatial, emissions, and economic data.

STEP 04
draw

Sign

CRYSTALS-Dilithium signature applied at the PIN's TPM 2.0+ secure enclave. The private key never leaves the silicon boundary. Signing latency < 10ms.

STEP 05
anchor

Anchor

Signed proof burst is submitted to Hedera Consensus Service (HCS) topic. aBFT consensus provides deterministic timestamp and sequence number. Finality in ~4 seconds.

STEP 06
policy

Audit

Hedera Guardian policy engine validates schemas, verifies PQC signatures, pairs with EnergyTag GC (gc_ref), and runs the continuous verifier-readiness check.

STEP 07
verified

Issue

DeliveryTag token minted on Hedera Token Service (HTS). 1 token = 1 MWh. Metadata anchors back to the full HCS proof chain. Transferred atomically to buyer.

End-to-end
Wall time
~6s
Signing latency
<10ms
Consensus
aBFT ~4s

Why post-quantum now?

Energy infrastructure has a 25-30 year operational lifespan. Certificates signed today must remain verifiable and non-repudiable for the lifetime of the assets they protect.

Quantum computers capable of breaking RSA and ECDSA are projected within 10-15 years. By deploying CRYSTALS-Dilithium at the hardware level today, DeliveryTag ensures that every signature ever created remains secure, even against future quantum adversaries.

FIPS 204
NIST Standard
25+ yr
Security Horizon
<10ms
Sign Latency
Level 3
FIPS 140-3

Deploy the hardware.

The PIN-SE v2 is available for pilot deployments. Read the full hardware specification in the whitepaper or contact us to discuss installation at your facility.

PIN_SE_V2 CRYSTALS_DILITHIUM FIPS_140_3