The programme is a tightly integrated suite of hardware, software and networking assets designed to support a 15‑track research effort in resilient multi‑agent AI. It spans UAV platforms, edge sensors, high‑performance GPU clusters, simulation workstations, blockchain nodes and advanced storage arrays. The footprint is deliberately heterogeneous to enable end‑to‑end experimentation from data collection to policy inference and explainability. The plan balances capital‑intensive compute clusters with mid‑range and low‑tier consumables, and leverages shared university or cloud facilities wherever possible to reduce upfront spend and accelerate delivery. The overall scale is modest in terms of physical space but heavy in computational and networking density, with a total of roughly 60 discrete items across eight activity areas. The programme’s criticality is high; many components are essential to meet safety, regulatory, and performance constraints, and several have long lead times that could delay the overall schedule if not managed proactively.
The programme requires a heterogeneous mix of high‑performance compute, specialized sensors, secure networking, quantum‑inspired simulation, blockchain infrastructure, and real‑time edge hardware to support multi‑modal data collection, generative training, federated learning, privacy‑preserving aggregation, and explainability audit trails. Coordinated equipment planning is essential to meet stringent safety, regulatory, and performance constraints across the 15 interdependent research tracks.
This program develops a comprehensive suite of resilient multi‑agent AI capabilities to detect, mitigate, and explain adversarial behaviors across autonomous fleets, edge IoT, and cyber‑physical systems. It integrates generative modeling, Bayesian inference, LLM‑driven curricula, federated learning, trust‑aware aggregation, quantum‑resilient weighting, graph contrastive learning, gradient masking, counterfactual robustness, causal attribution, retrieval‑augmented generation, and adaptive coordination into a production‑ready platform.
The equipment mix comprises 12 UAV‑related items (payload kits, swarm platforms, edge compute nodes), 8 high‑performance GPU clusters and associated cooling and networking gear, 5 simulation workstations and high‑speed network testbeds, 10 edge devices, 5 blockchain and HSM servers, 4 graph database and storage arrays, and a suite of 20+ software frameworks and libraries. The majority of items are classified as essential, with a smaller subset deemed desirable for optimisation. The programme requires a blend of on‑premise hardware, leased infrastructure, and shared‑facility resources, with a near‑even split between owned and shared assets.
Capital‑tier spend dominates the programme, with 10 items costing over $100k each (GPU clusters, compute clusters, UAV simulation platforms, blockchain nodes, HSMs, and high‑speed switches). Mid‑tier items (storage arrays, edge devices, network testbeds) account for roughly 30% of the total cost, while low‑tier consumables and software build out represent the remaining 10%. The capital spend is concentrated in the compute and networking categories, reflecting the programme’s reliance on high‑performance, low‑latency infrastructure. Lease arrangements for the AI training cluster and edge compute cluster provide flexibility but add a recurring cost component that will need to be budgeted over the project lifecycle.
Shared facilities are a strategic lever for cost and risk mitigation. The programme can tap university HPC or cloud providers for the AI training cluster and simulation workstations, reducing capital outlay and benefiting from expert maintenance. Network testbeds, high‑fidelity UAV simulation platforms and programmable SDN testbeds are earmarked for shared core‑facility hosting, which also eases power, cooling and space constraints. Shared hosting of the blockchain node and HSM in a secure data‑center further mitigates security and compliance risks. Where shared facilities are not available, the programme will pursue lease or co‑location options to keep the footprint lean.
Each area expands to show the equipment it needs with full specifications,criticality, cost tier, procurement mode and lead time.
Source in roadmap / ideate: All Chapters (1–15)
Sub-activities:
| Measurement range | LiDAR 0–200 m; RGB 20 MP; Thermal 640×512; IMU 200 Hz; GPS RTK <1 cm |
|---|---|
| Accuracy | LiDAR ±2 cm; RGB 0.1 % pixel; Thermal ±0.5 °C; IMU ±0.05 °/s; GPS RTK <1 cm |
| Resolution | LiDAR 0.1 mm point spacing; RGB 0.05 mm/pixel; Thermal 1 °C |
| Sampling / bandwidth | LiDAR 10 kpts/s; RGB 30 fps; Thermal 10 fps; IMU 200 Hz |
| Channels / capacity | 6 sensor channels |
| Interface | USB‑3.0, Ethernet, SPI |
| Environmental | Operating temperature –20 °C to +50 °C; Humidity 10–90 % RH; Cleanroom class N/A |
| Compliance | UL, CE, FCC, ISO 9001 |
| Calibration | Monthly RTK calibration; IMU bias calibration quarterly |
| Power | 12 V, 5 A (60 W) |
| Other | Weight 3 kg; Battery life 30 min; Integrated SDK |
Supports: Data Collection, UAV Flight Tests, Baseline Metrics
Alternatives: Parrot Sequoia multi‑sensor payload, Trimble UX5 UAV sensor suite
Lead time: 6 weeks
Safety: Ensure secure mounting on UAV airframe; handle LiDAR laser safety; manage battery charging per UL 4600; avoid electromagnetic interference with UAV avionics.
Assumption: Sensors are integrated on each UAV; RTK GPS antenna is available; battery capacity supports 30 min flight.
| Accuracy | GPS RTK <1 cm; IMU ±0.05 °/s; Barometer ±0.1 hPa |
|---|---|
| Sampling / bandwidth | IMU 200 Hz; GPS RTK 10 Hz |
| Channels / capacity | 1 |
| Interface | Wi‑Fi 5 GHz, 4G LTE, Ethernet |
| Environmental | Operating temperature –20 °C to +50 °C; Humidity 10–90 % RH |
| Compliance | FAA Part 107, UL, CE, FCC |
| Calibration | Flight‑test calibration weekly; IMU bias calibration monthly |
| Power | 14 V, 10 A (140 W) battery |
| Other | Integrated SDK, 5 km communication range, 30 min flight time, payload 2 kg |
Supports: UAV Swarm Testbed, Data Collection, Simulation Validation
Alternatives: Skydio 2 Enterprise, SenseFly eBee X
Lead time: 6 weeks
Safety: Follow FAA Part 107 flight rules; implement emergency return; manage battery charging per UL 4600; ensure collision avoidance protocols.
Assumption: UAVs can carry the sensor payload; network connectivity for swarm coordination is available.
| Accuracy | GPU floating‑point precision FP32 1e‑7; CPU clock accuracy ±0.5 ms |
|---|---|
| Sampling / bandwidth | GPU 24 GB VRAM each; 2× RTX 3090; CPU 20‑core Xeon 3.1 GHz |
| Channels / capacity | 2 GPUs, 256 GB RAM |
| Interface | PCIe 4.0, 10GbE, 4× USB‑3.0 |
| Environmental | 0–40 °C; 50 % RH; airflow 200 CFM |
| Compliance | UL, CE, ISO 27001 |
| Calibration | None |
| Power | 1600 W |
| Other | Dual 10GbE NIC, 4TB NVMe SSD, GPU‑accelerated physics engine |
Supports: Simulation Environment, Baseline Metrics, Scenario Testing
Alternatives: HP Z8 G4 with NVIDIA RTX 3090, NVIDIA DGX A100 (single node)
Lead time: 4 weeks
Safety: Ensure adequate cooling; monitor GPU temperatures; use static‑discharge‑safe work area.
Assumption: Simulation software licenses (AirSim, Gazebo) are available and compatible.
| Sampling / bandwidth | 10GbE throughput, 8TB NVMe SSD RAID‑10 |
|---|---|
| Channels / capacity | 4× 2TB SSD, 4× 1TB HDD |
| Interface | 10GbE, 4× USB‑3.0, 2× SATA |
| Environmental | 0–45 °C; 50 % RH; 1 m³ rack |
| Compliance | UL, CE, ISO 27001 |
| Calibration | None |
| Power | 1200 W |
| Other | RAID controller, UPS backup, 10GbE switch integration |
Supports: Data Ingestion, Preprocessing, Baseline Metrics
Alternatives: HPE ProLiant DL380 Gen10, Lenovo ThinkSystem SR650
Lead time: 3 weeks
Safety: Ensure proper grounding; monitor power supply; maintain airflow for thermal stability.
Assumption: 10GbE network infrastructure is available.
| Measurement range | 1 Hz–10 GHz |
|---|---|
| Accuracy | ±0.1 % |
| Resolution | 1 Hz |
| Sampling / bandwidth | 1 MS/s |
| Channels / capacity | 2 channels |
| Interface | 10GbE, 1GbE, USB‑3.0 |
| Environmental | 0–50 °C; 50 % RH |
| Compliance | IEC 61000, ISO/IEC 17025 |
| Calibration | Annual |
| Power | 300 W |
| Other | Remote control via LAN, packet loss simulation up to 10 %, latency up to 200 ms |
Supports: Network Reliability Testing, Communication Sabotage Simulation
Alternatives: Ixia IxChariot, Ruckus Wireless R510
Lead time: 2 months
Safety: High voltage power supply; ensure electromagnetic shielding; follow FCC/CE emission limits.
Assumption: Integration with UAV communication modules is feasible.
| Accuracy | GPU FP32 1e‑7; GPU FP16 1e‑3 |
|---|---|
| Sampling / bandwidth | Each node: 8× NVIDIA A100 40 GB, 512 GB RAM, 10GbE, 100GbE interconnect |
| Channels / capacity | 64 A100 GPUs, 4 TB RAM |
| Interface | PCIe 4.0, 10GbE, 100GbE, NVMe SSD |
| Environmental | Data‑center 22 °C; 50 % RH; 200 CFM airflow per rack |
| Compliance | UL, CE, ISO 27001, ISO 9001 |
| Calibration | None |
| Power | 12 kW |
| Other | GPU‑optimized software stack (CUDA 12, cuDNN 8), NVIDIA NCCL, TensorRT |
Supports: Model Training, Simulation, Data Processing
Alternatives: HPE Apollo 6500 Gen10 with NVIDIA A100, Google Cloud TPU v4 (on‑demand)
Lead time: 6 months
Safety: High power draw; requires dedicated cooling, fire suppression, and UPS backup.
Assumption: Data‑center infrastructure (cooling, power, network) is available.
Source in roadmap / ideate: Chapter 1 – AOI‑GBE
Sub-activities:
| Accuracy | GPU compute accuracy verified by MLPerf v2.1 benchmarks. |
|---|---|
| Sampling / bandwidth | 8×A100 80GB, 600W each, NVLink 600GB/s, 100Gbps InfiniBand interconnect. |
| Channels / capacity | 8 GPUs per node, 2TB NVMe SSD per node. |
| Interface | PCIe 4.0, NVLink, 100Gbps InfiniBand. |
| Environmental | Operating temperature 18–27 °C, 45–60 % RH, cleanroom class N/A. |
| Compliance | UL, CE, ISO/IEC 17025 for performance validation. |
| Calibration | Monthly GPU performance verification using MLPerf v2.1; traceability to vendor calibration reports. |
| Power | 8×600W GPU + 400W system, total 5200W. |
| Other | Includes rack‑mount chassis, integrated GPU cooling, and redundant power supplies. |
Supports: GAN training, Bayesian inference, Meta‑learning adaptation
Alternatives: NVIDIA DGX A100 (4×A100 40GB), Lenovo ThinkSystem SR650 with 8×A100 80GB, Custom HPE Apollo 6500 with 8×A100 80GB
Lead time: 6–8 weeks
Safety: High‑power GPUs require dedicated cooling and UPS; ensure proper ventilation and fire suppression.
Assumption: Vendor provides 1‑year warranty and 24/7 support.
| Accuracy | Read 3,000 MB/s, Write 2,500 MB/s. |
|---|---|
| Sampling / bandwidth | PCIe 4.0 x4, 3,000 MB/s read, 2,500 MB/s write. |
| Channels / capacity | 4TB per drive, 8 drives per node. |
| Interface | PCIe 4.0 x4. |
| Environmental | Operating temperature 0–70 °C, 5–95 % RH. |
| Compliance | UL, CE, ISO/IEC 17025 for storage reliability. |
| Calibration | Annual SMART health check; traceability to manufacturer specifications. |
| Power | 5W per drive (idle), 10W peak. |
| Other | RAID 10 configuration for redundancy. |
Supports: Data preprocessing, GAN training, Bayesian inference
Alternatives: Intel PM660 4TB NVMe SSD, Western Digital Ultrastar DC SN640 4TB NVMe SSD
Lead time: 4–6 weeks
Safety: Ensure proper airflow to avoid overheating.
Assumption: RAID controller is included in server chassis.
| Accuracy | Latency < 1 µs end‑to‑end. |
|---|---|
| Sampling / bandwidth | 100Gbps per port, 48 ports. |
| Channels / capacity | 48 ports, 24 uplinks. |
| Interface | InfiniBand HDR, RDMA. |
| Environmental | Operating temperature 0–50 °C, 20–80 % RH. |
| Compliance | UL, CE, ISO/IEC 17025 for network performance. |
| Calibration | Quarterly latency and throughput tests using ib_write_lat. |
| Power | 200W. |
| Other | Supports RoCEv2 for compatibility with Ethernet. |
Supports: Distributed GAN training, Multi‑node Bayesian inference
Alternatives: Cisco UCS C480 M5 with 100GbE, Juniper QFX5200 100GbE
Lead time: 4 weeks
Safety: Ensure proper cable management to avoid signal loss.
Assumption: Existing data center supports 100GbE cabling.
| Accuracy | UPS output ±0.5 % voltage. |
|---|---|
| Channels / capacity | 10kVA capacity, 2 redundant batteries. |
| Interface | N/A. |
| Environmental | Operating temperature 0–40 °C, 10–90 % RH. |
| Compliance | UL, CE, IEC 62040. |
| Calibration | Annual battery health check; UPS output verified by voltage meter. |
| Power | 10kVA, 4000W continuous. |
| Other | Includes FM‑200 fire suppression with 0.5 s response time. |
Supports: All compute operations
Alternatives: Eaton 9PX 10kVA UPS, Vertiv Liebert GXT4 10kVA UPS
Lead time: 4 weeks
Safety: Install in a dedicated server room with proper ventilation and fire suppression.
Assumption: UPS battery replacement cost included in maintenance.
| Accuracy | Temperature control ±1 °C. |
|---|---|
| Channels / capacity | Supports 8 GPUs per rack. |
| Interface | N/A. |
| Environmental | Operating temperature 0–50 °C. |
| Compliance | UL, CE. |
| Calibration | Monthly temperature sensor calibration. |
| Power | 200W per rack. |
| Other | Includes pump, radiator, and coolant reservoir. |
Supports: All GPU compute tasks
Alternatives: Noctua NH-D15 for air cooling (not recommended for 8 GPUs)., Custom liquid cooling loop from Arctic Cooling.
Lead time: 4 weeks
Safety: Ensure leak detection and proper coolant handling.
Assumption: Server room has sufficient airflow for liquid cooling.
| Accuracy | Supported by NVIDIA CUDA 12.1, cuDNN 8.9. |
|---|---|
| Channels / capacity | N/A. |
| Interface | Python API, C++ backend. |
| Environmental | Runs on Linux (Ubuntu 22.04). |
| Compliance | Open‑source license (BSD). |
| Calibration | N/A. |
| Power | N/A. |
| Other | Includes distributed training via torch.distributed. |
Supports: GAN training, Bayesian inference, Meta‑learning
Alternatives: TensorFlow 2.12, JAX
Lead time: Immediate
Safety: Ensure GPU drivers are up to date to avoid kernel panics.
Assumption: All developers have Python 3.10+ installed.
| Accuracy | Optimized for NVIDIA GPUs. |
|---|---|
| Channels / capacity | N/A. |
| Interface | Python API. |
| Environmental | Linux. |
| Compliance | Open‑source (Apache 2.0). |
| Calibration | N/A. |
| Power | N/A. |
| Other | Includes support for conditional GANs and diffusion models. |
Supports: GAN training, Conditional generation
Alternatives: TorchGAN, GANLab
Lead time: Immediate
Safety: No special safety considerations.
Assumption: Compatible with PyTorch 2.0.
| Accuracy | Supports stochastic variational inference. |
|---|---|
| Channels / capacity | N/A. |
| Interface | Python API. |
| Environmental | Linux. |
| Compliance | Open‑source (Apache 2.0). |
| Calibration | N/A. |
| Power | N/A. |
| Other | Integrates with PyTorch backend. |
Supports: Bayesian inference, Policy posterior estimation
Alternatives: TensorFlow Probability, Edward2
Lead time: Immediate
Safety: No special safety considerations.
Assumption: Compatible with PyTorch 2.0.
| Accuracy | Supports gradient‑based meta‑learning. |
|---|---|
| Channels / capacity | N/A. |
| Interface | Python API. |
| Environmental | Linux. |
| Compliance | Open‑source (MIT). |
| Calibration | N/A. |
| Power | N/A. |
| Other | Works with PyTorch. |
Supports: Meta‑learning adaptation, Inference‑time fine‑tuning
Alternatives: meta-learn, learn2learn
Lead time: Immediate
Safety: No special safety considerations.
Assumption: Compatible with PyTorch 2.0.
| Accuracy | Standardized benchmark results. |
|---|---|
| Channels / capacity | N/A. |
| Interface | CLI. |
| Environmental | Linux. |
| Compliance | MLPerf certification. |
| Calibration | Annual re‑run to verify performance drift. |
| Power | N/A. |
| Other | Includes scripts for training ResNet‑50 and BERT. |
Supports: GPU performance validation
Alternatives: DeepBench, CUDA Toolkit benchmarks
Lead time: 1 week
Safety: No special safety considerations.
Assumption: Benchmark runs on the same hardware as production.
| Accuracy | Signal integrity within 0.1 dB loss. |
|---|---|
| Sampling / bandwidth | 100Gbps. |
| Channels / capacity | 48 cables. |
| Interface | SFP+. |
| Environmental | Operating temperature 0–70 °C. |
| Compliance | UL, CE. |
| Calibration | Cable length verified during installation. |
| Power | N/A. |
| Other | Includes cable management trays. |
Supports: Network connectivity
Alternatives: Cisco 100GbE cables, Juniper 100GbE cables
Lead time: 2 weeks
Safety: Avoid bending radius < 50 mm to prevent signal loss.
Assumption: Existing rack supports SFP+ connectors.
| Accuracy | Temperature maintained ±1 °C. |
|---|---|
| Channels / capacity | 2kW power budget, 48U rack space. |
| Interface | N/A. |
| Environmental | Operating temperature 18–27 °C, 45–60 % RH. |
| Compliance | UL, CE, ISO/IEC 27001 for data center. |
| Calibration | Monthly HVAC performance check. |
| Power | 2kW continuous. |
| Other | Includes UPS, fire suppression, and rack infrastructure. |
Supports: All compute operations
Alternatives: Leased colocation space, Shared university data center
Lead time: 8–12 weeks
Safety: Ensure proper fire suppression and emergency power shutdown procedures.
Assumption: Existing building permits for electrical load.
Source in roadmap / ideate: Chapter 1 – AOI‑GBE
Sub-activities:
| Sampling / bandwidth | Inference latency <10 ms for 8‑B model, throughput 200 req/s |
|---|---|
| Channels / capacity | 8 GPU cores, 80 GB per GPU |
| Interface | PCIe 4.0, NVLink, 10 GbE Ethernet, SSH, REST API |
| Environmental | 25–35 °C, 30–70 % RH, cleanroom class 1000 |
| Compliance | UL, CE, ISO/IEC 17025 (for test equipment) |
| Power | 1500 W (peak) |
| Other | Includes NVIDIA DGX software stack, CUDA 12, cuDNN 8 |
Supports: LLM‑Driven Adversarial Curriculum generation, Policy inference evaluation
Alternatives: HPE Apollo 6500 Gen10 with 8× NVIDIA A100, Dell EMC PowerEdge R940xa with 8× NVIDIA A100, Cloud GPU instances (AWS Inferentia, Azure A100)
Lead time: 6–8 weeks
Safety: Ensure proper ventilation and fire suppression in server room; follow local electrical codes.
Assumption: Assumes availability of 8‑B LLM weights and sufficient storage for checkpoints.
| Sampling / bandwidth | 1.6 PFLOPS (FP16), 100 GbE InfiniBand interconnect |
|---|---|
| Channels / capacity | 64 A100 GPUs, 512 GB total GPU memory |
| Interface | PCIe 4.0, NVLink, InfiniBand HDR, 10 GbE management |
| Environmental | 25–35 °C, 30–70 % RH, cleanroom class 1000 |
| Compliance | UL, CE, ISO/IEC 17025, ISO/IEC 27001 (data security) |
| Power | 200 kW (peak) |
| Other | Includes Slurm workload manager, NVIDIA NCCL, and PyTorch Lightning integration |
Supports: RL training, LLM pre‑training, Meta‑learning adaptation
Alternatives: AWS Sagemaker Multi‑GPU instances (p3.16xlarge), Google Cloud TPU v4 Pods, Azure ND A100 v4 cluster
Lead time: 12–16 weeks
Safety: High power draw requires dedicated UPS and cooling; monitor thermal sensors.
Assumption: Assumes on‑premise data center with sufficient rack space and network bandwidth.
| Sampling / bandwidth | Simulation speed 10× real‑time, RL training throughput 5 k steps/s |
|---|---|
| Channels / capacity | 2 GPU cores, 24 GB each |
| Interface | PCIe 4.0, 10 GbE Ethernet, USB‑3.2, HDMI |
| Environmental | 25–35 °C, 30–70 % RH |
| Compliance | UL, CE, ISO/IEC 17025 |
| Power | 650 W (peak) |
| Other | Includes ROS 2, Unity ML‑Agents, AirSim SDK |
Supports: RL training in simulated environments, Simulation of adversarial scenarios
Alternatives: AMD EPYC 7742 workstation with Radeon Pro W6800, NVIDIA RTX 4090 workstation, Cloud GPU instances (g4dn.xlarge for prototyping)
Lead time: 4–6 weeks
Safety: Ensure proper ventilation; monitor GPU temperatures.
Assumption: Assumes local simulation environment; cloud alternatives considered for scaling.
| Sampling / bandwidth | Meta‑update latency <1 s on 4× A100 |
|---|---|
| Channels / capacity | Supports 1–4 GPU adapters |
| Interface | Python API, gRPC for distributed updates |
| Environmental | Runs on Linux (Ubuntu 22.04), GPU‑enabled |
| Compliance | Open source (MIT license) |
| Other | Includes automatic checkpointing and rollback |
Supports: Online adaptation of generative observation model, Fast meta‑updates during deployment
Alternatives: TensorFlow Addons MAML, Meta‑Learning Toolkit (MLTK), RLlib Meta‑Learning module
Lead time: 2 weeks
Safety: No hardware safety concerns; ensure code review for security.
Assumption: Assumes availability of GPU resources for meta‑training.
| Sampling / bandwidth | Simulated environment 5× real‑time, 10 k steps per second |
|---|---|
| Channels / capacity | Supports up to 100 concurrent simulation instances |
| Interface | REST API, WebSocket, S3 for data storage |
| Environmental | Cloud‑based; no on‑prem environmental constraints |
| Compliance | AWS SOC 2, ISO/IEC 27001, GDPR |
| Other | Includes automatic scaling and cost monitoring |
Supports: LLM‑Driven Adversarial Curriculum generation, RL training and evaluation, Scenario replay for validation
Alternatives: Azure Machine Learning Compute (ND A100 v4), Google Cloud AI Platform (A100), On‑prem Unity ML‑Agents with local GPU cluster
Lead time: 1 week
Safety: Ensure secure network isolation for simulation data.
Assumption: Assumes stable internet connectivity and AWS account with sufficient credits.
Source in roadmap / ideate: Chapters 2 (TAFA), 3 (HTMAD), 4 (Explainability), 5 (BAAC)
Sub-activities:
| Compliance | Open source (Apache 2.0) |
|---|---|
| Other | Requires Python 3.8+ |
Supports: Prototype a federated learning framework that supports DP and secure aggregation
Alternatives: OpenMined PyGrid, Flower (FL framework)
Lead time: 2 weeks
Safety: No physical hazards; ensure secure coding practices to avoid data leakage.
Assumption: Open source license suffices; enterprise support not required at prototype stage.
| Compliance | Open source (MIT) |
|---|---|
| Calibration | DP accountant integrated; periodic audit required |
| Other | Python API; optional C++ backend |
Supports: Integrate adaptive differential privacy and zero‑knowledge proof mechanisms for auditability
Alternatives: TensorFlow Privacy, Microsoft DP‑SDK
Lead time: 1 week
Safety: No physical hazards; ensure proper key management for DP budgets.
Assumption: No licensing fees; open source community support is adequate.
| Compliance | Open source (GPLv3) |
|---|---|
| Other | Rust and C++ bindings available |
Supports: Integrate adaptive differential privacy and zero‑knowledge proof mechanisms for auditability
Alternatives: Bellman, snarkjs
Lead time: 1 week
Safety: No physical hazards; ensure cryptographic key safety.
Assumption: Proof generation time acceptable for prototype; no hardware acceleration required.
| Compliance | ISO/IEC 27001 compatible (if hosted on compliant infrastructure) |
|---|---|
| Power | ≈200 W per node |
| Other | Supports Solidity/Chaincode |
Supports: Deploy a permissioned blockchain ledger for immutable reputation and audit trails
Alternatives: Hyperledger Fabric 2.x, Corda 4
Lead time: 4 weeks
Safety: No physical hazards; ensure secure key storage.
Assumption: Hardware meets storage and network specs; no external cloud provider.
| Compliance | Open source (Apache 2.0) |
|---|---|
| Other | Python API; optional GPU backend |
Supports: Simulate quantum‑resilient aggregation weights
Alternatives: Cirq, Forest Quantum SDK
Lead time: 1 week
Safety: No physical hazards.
Assumption: Simulation suffices for prototype; no access to real quantum hardware.
| Other | Supports JetPack SDK |
|---|
Supports: Provision edge devices for on‑device training and inference
Alternatives: Google Coral Edge TPU, Raspberry Pi 4 + Coral USB Accelerator
Lead time: 3 weeks
Safety: Standard electrical safety; ensure proper ventilation.
Assumption: 10 devices provide sufficient heterogeneity for prototype.
| Other | Redundant power supplies |
|---|
Supports: Deploy a permissioned blockchain ledger for immutable reputation and audit trails, Run secure aggregation protocol
Alternatives: HPE ProLiant DL380 Gen10, Supermicro SYS‑4029GP‑TRT
Lead time: 6 weeks
Safety: Standard server safety; ensure proper rack mounting and airflow.
Assumption: No need for GPU acceleration in secure aggregation; CPU suffices.
| Compliance | FIPS 140‑2 Level 3, Common Criteria EAL 4+ |
|---|---|
| Power | ≈30 W |
| Other | Supports PKCS#11, TPM 2.0 interface |
Supports: Deploy a permissioned blockchain ledger for immutable reputation and audit trails
Alternatives: AWS CloudHSM, Gemalto SafeNet Luna
Lead time: 8 weeks
Safety: No physical hazards; ensure secure physical access.
Assumption: On‑prem deployment preferred; cloud HSM not considered for prototype.
| Power | ≈500 W for physical switches |
|---|---|
| Other | Supports OpenFlow, P4, and SDN controllers |
Supports: Configure a high‑fidelity network testbed to emulate realistic communication delays and adversarial traffic
Alternatives: Juniper QFX10002, Arista 7280R
Lead time: 12 weeks
Safety: Standard rack safety; ensure proper cable management.
Assumption: Existing lab has sufficient rack space and power.
Source in roadmap / ideate: Chapter 6 – Gradient Masking
Sub-activities:
| Sampling / bandwidth | 8×A100 80GB HBM2, 9.7 TFLOPS FP32, 19.5 TFLOPS FP64, 600 GB/s NVLink |
|---|---|
| Channels / capacity | 8 GPUs, 2.5 GHz CPU, 1.6 GHz GPU memory clock |
| Interface | PCIe 4.0, InfiniBand HDR 200 Gb/s interconnect |
| Environmental | Operating temperature 18–27 °C, 45–60 % RH, 10 mA/m² cleanroom class 1000 |
| Compliance | UL 60950‑1, IEC 62368‑1, ISO/IEC 27001 (data center) |
| Power | 5 kW total, 3.5 kW GPU, 1.5 kW CPU, 0.5 kW networking |
| Other | Includes rack‑mount chassis, redundant 600 W PSU, 10 GbE management port |
Supports: Gradient masking module training, Saliency map generation, Consensus attribution algorithm development, Hyper‑parameter tuning, Adversarial robustness evaluation
Alternatives: HPE Apollo 6500 Gen10 with 8× NVIDIA A100, AWS p4d.24xlarge (cloud) – 8× A100, 320 GB RAM, 8 TB NVMe, Google Cloud TPU v4 – 8‑core, 32 GB HBM
Lead time: 6–8 weeks
Safety: Requires dedicated cooling, UPS backup, and proper grounding. PCIe slots must be kept within specified temperature limits to avoid thermal throttling.
Assumption: All training and inference will be performed on this cluster; no separate inference hardware is provisioned.
| Sampling / bandwidth | Supports distributed training across 8 GPUs, 16‑bit FP16, 32‑bit FP32 |
|---|---|
| Interface | Python API, gRPC for distributed workers |
| Environmental | Runs on Ubuntu 22.04 LTS, CUDA 12.1, cuDNN 8.9 |
| Compliance | TensorFlow Enterprise includes ISO/IEC 27001 audit reports |
| Power | Software only |
| Other | Includes XLA compiler, TensorBoard integration, and TensorFlow Federated support |
Supports: Distributed training of SCOR‑PIO/SGAM models, Mixed‑precision inference for saliency generation, Federated training experiments
Alternatives: PyTorch 2.0 with DistributedDataParallel, JAX + Flax, MXNet 2.0
Lead time: Immediate (installation)
Safety: No physical safety hazards; ensure proper licensing for TensorFlow Enterprise.
Assumption: All GPU nodes will run the same framework version to avoid compatibility issues.
| Sampling / bandwidth | 35 TFLOPS FP32, 24 GB GDDR6X, 1.70 GHz memory clock |
|---|---|
| Channels / capacity | 1 GPU, 1.5 GB/s memory bandwidth |
| Interface | PCIe 4.0, NVLink |
| Environmental | Operating temperature 18–27 °C, 45–60 % RH |
| Compliance | UL 60950‑1, IEC 62368‑1 |
| Power | 350 W TDP, 500 W PSU requirement |
| Other | Includes 3‑fan cooling, 2.5 kW rack power budget |
Supports: Live saliency map rendering for operators, Batch saliency generation during validation, GPU‑accelerated gradient masking inference
Alternatives: NVIDIA RTX 4090 (higher performance, 10 kW TDP), AMD Radeon Pro W6800 (8 GB GDDR6, 13 TFLOPS), NVIDIA A5000 (24 GB GDDR6, 24 TFLOPS)
Lead time: 4 weeks
Safety: Ensure adequate ventilation; monitor GPU temperature to prevent thermal throttling.
Assumption: Inference will be performed on a dedicated workstation; cluster GPUs will be reserved for training.
| Sampling / bandwidth | 10 k events/s ingestion, 10 TB storage, 90‑day retention |
|---|---|
| Channels / capacity | ElasticSearch cluster (3 nodes), Logstash pipeline, Kibana dashboards |
| Interface | RESTful API, Beats agents, Logstash pipelines |
| Environmental | Operating temperature 18–27 °C, 45–60 % RH, 10 mA/m² cleanroom class 1000 |
| Compliance | ISO/IEC 27001, GDPR, EU AI Act traceability requirements, SOC 2 Type II |
| Power | 2 kW total (servers + storage) |
| Other | Includes X-Pack security, role‑based access control, and index lifecycle management |
Supports: Audit trail for gradient masking updates, Logging of saliency generation timestamps, Traceability of consensus attribution decisions, Regulatory compliance reporting
Alternatives: Splunk Enterprise 9.x, Graylog 4.x with Elasticsearch backend, Datadog Logs + APM
Lead time: 6 weeks
Safety: Ensure data encryption at rest and in transit; implement strict access controls to protect sensitive logs.
Assumption: All system components will emit structured logs in JSON format compatible with Beats.
| Sampling / bandwidth | Read 3.5 GB/s, Write 3.0 GB/s, 1.2 M IOPS |
|---|---|
| Channels / capacity | 3.84 TB per drive, 4‑drive RAID 10 configuration |
| Interface | PCIe 4.0 x4 |
| Environmental | Operating temperature 0–70 °C, 10–90 % RH |
| Compliance | UL 60950‑1, IEC 62368‑1 |
| Power | 5 W per drive (idle), 10 W active |
| Other | Includes RAID controller, hot‑swap bays |
Supports: Dataset loading for training, Checkpoint storage, Inference artifact logging
Alternatives: Intel Optane SSD 900P 1.92 TB, Western Digital Ultrastar DC SN640 3.84 TB, Sabrent Rocket 4.0 3.84 TB
Lead time: 3–4 weeks
Safety: Standard SSD safety; ensure proper airflow.
Assumption: RAID 10 configuration will provide required redundancy.
Source in roadmap / ideate: Chapter 7 – Counterfactual Explanation
Sub-activities:
| Sampling / bandwidth | 8×A100 80GB, 2.5 TFLOPS FP32, 400 GB/s memory bandwidth, 10 GbE interconnect |
|---|---|
| Channels / capacity | 8 GPUs, 8×80 GB VRAM, 2.5 TFLOPS per GPU |
| Interface | PCIe 4.0, NVLink, 10 GbE Ethernet |
| Environmental | 25–35 °C, 40–60 % RH, cleanroom class 1000 for rack installation |
| Compliance | UL, CE, ISO/IEC 27001 for data center |
| Power | 2×500 W per node, total 8 kW |
| Other | Includes NVIDIA DGX software stack, CUDA 12, cuDNN 8, and NVIDIA NCCL |
Supports: Train conditional diffusion models, Run causal inference experiments, Execute explainability benchmarks
Alternatives: NVIDIA DGX‑H100 (8×H100 80GB), Google Cloud TPU v4 (8‑core), AWS EC2 P4d instances (8×A100)
Lead time: 6 weeks
Safety: Ensure proper ventilation and power distribution; comply with local electrical codes.
Assumption: Assumes on‑premise data center with 10 GbE connectivity; if not available, cloud equivalents are acceptable.
| Sampling / bandwidth | 1 Gbps network interface, 10 TB local SSD storage |
|---|---|
| Channels / capacity | 8 CPU cores, 32 GB RAM, 10 TB disk |
| Interface | Bolt, HTTP/REST, Cypher query language |
| Environmental | 25–35 °C, 40–60 % RH |
| Compliance | ISO/IEC 27001, GDPR data handling, ISO/IEC 42001 for AI governance |
| Power | 350 W |
| Other | Supports ACID transactions, multi‑tenant isolation, and native graph analytics |
Supports: Causal graph discovery and validation, Storing counterfactual provenance, Querying causal relationships for explanation generation
Alternatives: Amazon Neptune, Microsoft Azure Cosmos DB (Gremlin API), ArangoDB Enterprise
Lead time: 4 weeks
Safety: No specific safety hazards; ensure secure network isolation.
Assumption: Assumes on‑premise deployment; cloud‑based alternatives are acceptable if latency constraints permit.
| Sampling / bandwidth | 4×RTX 6000 48GB, 16 TFLOPS FP32, 768 GB/s memory bandwidth, 10 GbE Ethernet |
|---|---|
| Channels / capacity | 4 GPUs, 48 GB VRAM each, 16 GB system RAM |
| Interface | PCIe 4.0, NVLink, 10 GbE Ethernet |
| Environmental | 25–35 °C, 40–60 % RH |
| Compliance | UL, CE, ISO/IEC 27001 |
| Power | 1.2 kW |
| Other | Includes NVIDIA CUDA 12, cuDNN 8, and PyTorch 2.0 |
Supports: Train conditional diffusion models for manifold projection, Generate counterfactual samples
Alternatives: NVIDIA RTX 8000 48GB, AWS EC2 G5 instances (4×RTX 8000), Google Cloud TPU v4 (8‑core)
Lead time: 5 weeks
Safety: Ensure proper cooling; monitor GPU temperatures.
Assumption: Assumes sufficient local storage for large training datasets; otherwise cloud storage is acceptable.
| Accuracy | Depends on underlying models; validated against synthetic benchmarks (R² > 0.85). |
|---|---|
| Interface | Python API, Jupyter Notebook, command‑line |
| Environmental | Runs on Linux, macOS, Windows; requires Python 3.10+. |
| Compliance | Open‑source BSD‑3 license; complies with ISO/IEC 27001 when used in secure environments. |
| Calibration | Model‑specific validation against ground truth; no hardware calibration. |
| Other | Includes DoWhy, CausalImpact, Pyro, and causal‑impact‑torch modules |
Supports: Causal graph discovery, Counterfactual generation, Robustness evaluation
Alternatives: EconML, CausalNex, Pyro causal inference
Lead time: 1 week (setup and testing)
Safety: No physical hazards; ensure secure coding practices to prevent data leakage.
Assumption: Assumes availability of Python 3.10+ and GPU‑accelerated libraries.
| Accuracy | Model‑dependent; validated against benchmark datasets (AUC > 0.9). |
|---|---|
| Interface | Python API, Jupyter Notebook, CLI |
| Environmental | Runs on Linux, macOS, Windows; requires Python 3.10+. |
| Compliance | Open‑source MIT license; complies with ISO/IEC 27001 when used in secure environments. |
| Calibration | Model‑specific validation against ground truth explanations. |
| Other | Includes Captum for PyTorch, SHAP for tree‑based models, and LIME for black‑box models |
Supports: Generate saliency maps for counterfactuals, Validate explanation fidelity under adversarial noise, Integrate with causal inference pipeline
Alternatives: ELI5, Alibi, InterpretML
Lead time: 1 week (setup and testing)
Safety: No physical hazards; ensure secure handling of model weights.
Assumption: Assumes models are PyTorch or scikit‑learn compatible.
Source in roadmap / ideate: Chapter 11 – Retrieval Unreliability and Knowledge Base Corruption
Sub-activities:
| Environmental | 25–35°C, 40–60% RH, 1.5mA/m² |
|---|---|
| Compliance | ISO/IEC 27001, UL 60950-1 |
| Power | 750W PSU, 500W consumption |
| Other | Supports GPU passthrough if needed |
Supports: Build and index a vector store (FAISS or Elastic) for embedding retrieval
Alternatives: HPE ProLiant DL380 Gen10, Supermicro SYS-1029P-TR4, AWS EC2 r5d.4xlarge (cloud alternative)
Lead time: 6 weeks
Safety: Standard rack‑mount server safety; ensure proper grounding and airflow.
Assumption: Assumes on‑prem deployment; cloud option considered if budget constraints.
| Environmental | 20–30°C, 30–50% RH, 1.5mA/m² |
|---|---|
| Compliance | ISO/IEC 27001, UL 60950-1 |
| Power | 2000W PSU, ~1800W consumption |
| Other | Supports multi‑GPU scaling via NCCL |
Supports: Deploy an LLM inference server to generate responses conditioned on retrieved vectors
Alternatives: NVIDIA RTX A6000 workstation, Google Cloud Vertex AI (managed LLM inference), AWS SageMaker JumpStart for LLM
Lead time: 12 weeks
Safety: High‑power GPU; ensure adequate cooling and UPS backup.
Assumption: Assumes local inference; cloud alternatives considered if latency permits.
| Environmental | 25–35°C, 40–60% RH |
|---|---|
| Compliance | ISO/IEC 27001, UL 60950-1 |
| Power | 750W PSU, 500W consumption |
| Other | Supports Neo4j Enterprise 5.x or JanusGraph |
Supports: Implement a graph database to model provenance relationships
Alternatives: HPE ProLiant DL380 Gen10, Supermicro SYS-1029P-TR4, AWS Neptune (cloud alternative)
Lead time: 6 weeks
Safety: Standard rack‑mount server safety; ensure proper grounding.
Assumption: Assumes on‑prem deployment; cloud alternative considered.
| Environmental | 20–30°C, 30–50% RH |
|---|---|
| Compliance | ISO/IEC 27001, UL 60950-1 |
| Power | 500W PSU, 350W consumption |
| Other | Supports Ethereum or Hyperledger Besu |
Supports: Run a blockchain node to cryptographically sign embeddings and audit events
Alternatives: Raspberry Pi 4 cluster (low‑cost), AWS Managed Blockchain, Azure Blockchain Service
Lead time: 4 weeks
Safety: Standard server safety; ensure adequate ventilation.
Assumption: Assumes permissioned network; public chain not required.
| Environmental | 0–40°C, 10–90% RH |
|---|---|
| Compliance | ISO/IEC 27001, UL 60950-1 |
| Power | 250W consumption |
| Other | Supports PoE+ for edge devices |
Supports: Provision high‑speed networking for vector store, LLM server, and blockchain node
Alternatives: Arista 7280R Series, Juniper QFX5100, MikroTik CCR1072-1G-10S+
Lead time: 4 weeks
Safety: Standard rack‑mount switch safety; ensure proper grounding.
Assumption: Assumes 10GbE network; 40GbE optional for future scaling.
| Environmental | 0–40°C, 10–90% RH |
|---|---|
| Compliance | ISO/IEC 27001, UL 60950-1 |
| Power | 300W consumption |
| Other | Supports snapshot and replication |
Supports: Store embeddings, retrieval logs, and audit ledger data
Alternatives: Dell EMC PowerStore 2.0, HPE Nimble Storage 2000, AWS EFS (cloud alternative)
Lead time: 8 weeks
Safety: Standard rack‑mount storage safety; ensure proper grounding.
Assumption: Assumes on‑prem storage; cloud alternative considered if budget constraints.
Source in roadmap / ideate: Chapter 15 – Adaptive Multi‑Agent Defense
Sub-activities:
| Sampling / bandwidth | 5‑10 Gbps 5G/LoRa, 1 Gbps Ethernet |
|---|---|
| Channels / capacity | 8‑core ARM Cortex‑A72 + 8‑core NVIDIA CUDA |
| Interface | USB‑C, PCIe, UART, I2C, SPI, Ethernet, 5G |
| Environmental | Operating temp -40 °C to +85 °C, 0–95 % RH, IP67 |
| Compliance | IEC 61508, FAA AC 20‑107, ISO/IEC 27001 |
| Calibration | Sensor calibration every 6 months, traceable to NIST SRM |
| Power | Battery 12 V, 10 Wh, 1 A continuous |
| Other | Built‑in GPS/INS, RTK‑capable, secure boot, TPM 2.0 |
Supports: AOI‑GBE inference, TASF‑DFOV fusion, RS‑LLM‑MAS smoothing
Alternatives: DJI Matrice 210 RTK + Jetson Nano, Custom Raspberry Pi 4 + Jetson Nano
Lead time: 8 weeks
Safety: Handle with anti‑static precautions; ensure battery safety protocols.
Assumption: Assumes 5G coverage; battery life sufficient for 4‑hour missions.
| Sampling / bandwidth | 10 GbE interconnect, 40 Gbps NVMe SSD |
|---|---|
| Channels / capacity | 4 nodes × 8‑core CPU + 32 GB RAM, 256 GB SSD each |
| Interface | PCIe, Ethernet, USB‑C |
| Environmental | Operating temp 0‑40 °C, 30–80 % RH |
| Compliance | IEC 60950, ISO/IEC 27001 |
| Power | Each node 200 W, total 800 W |
| Other | GPU‑accelerated inference via CUDA, Docker support |
Supports: Federated learning aggregation, Simulation of multi‑agent policies
Alternatives: AWS Inferentia cluster, Google Cloud TPU v3
Lead time: 12 weeks
Safety: Ensure proper ventilation; monitor power draw.
Assumption: Assumes on‑premise data center with 10 GbE connectivity.
| Accuracy | Physics engine 0.01 m precision, sensor noise model ±0.5 % |
|---|---|
| Resolution | 4K video output, 120 fps |
| Sampling / bandwidth | GPU 24 GB VRAM, 32‑core CPU, 128 GB RAM, 1 TB SSD |
| Channels / capacity | Simulate up to 50 agents concurrently |
| Interface | REST API, ROS2, gRPC |
| Compliance | ISO/IEC 27001 (data handling), NIST SP 800‑53 (simulation security) |
| Calibration | Sensor models calibrated against real UAV data |
| Power | 500 W |
| Other | Dockerized, supports multi‑GPU scaling |
Supports: AOI‑GBE validation, TAFA robustness testing, RACE pilot simulations
Alternatives: AirSim on Windows with RTX 3080, Custom ROS2 simulator
Lead time: 6 weeks
Safety: No physical hazards; ensure GPU cooling.
Assumption: Assumes access to a high‑performance workstation with RTX 3090.
| Sampling / bandwidth | Query throughput >10 k triples/s, latency <50 ms |
|---|---|
| Channels / capacity | 64 GB RAM, 4 TB storage, 10 k triples per second ingestion |
| Interface | SPARQL endpoint, REST API, JDBC |
| Environmental | Data center 0‑40 °C, 30–70 % RH |
| Compliance | ISO/IEC 27001, GDPR (data residency), ISO/IEC 42001 (AI trust) |
| Power | 200 W |
| Other | Built‑in inference engine, OWL 2 DL support |
Supports: Ontology grounding for RACE, Provenance tracking in RAG
Alternatives: Blazegraph Enterprise, Oracle Spatial and Graph
Lead time: 10 weeks
Safety: Ensure secure access controls; audit logs retained for 1 year.
Assumption: Assumes 10 k triples/s ingestion rate.
| Sampling / bandwidth | 10 GbE, 1 TB SSD, 32 GB RAM, 8‑core CPU |
|---|---|
| Channels / capacity | Support up to 1 000 concurrent clients, 1 TB model size |
| Interface | gRPC, REST, WebSocket |
| Environmental | Data center 0‑40 °C, 30–70 % RH |
| Compliance | ISO/IEC 27001, GDPR, EU AI Act (traceability) |
| Power | 300 W |
| Other | Dockerized, supports PyTorch/TensorFlow, homomorphic encryption libraries |
Supports: TAFA aggregation, DP noise scaling, ZKP audit
Alternatives: TensorFlow Federated Server, IBM Federated Learning Platform
Lead time: 4 weeks
Safety: Ensure secure key storage; audit logs retained.
Assumption: Assumes on‑premise deployment; cloud alternatives possible.
| Sampling / bandwidth | 10 GbE per port, 100 GbE core, 1 TB storage, 16‑core CPU, 64 GB RAM |
|---|---|
| Channels / capacity | Simulate up to 200 nodes, 1 000 links |
| Interface | REST API, Netconf, OpenFlow, CLI |
| Environmental | Data center 0‑40 °C, 30–70 % RH |
| Compliance | ISO/IEC 27001, NIST SP 800‑53 |
| Power | 1 kW |
| Other | Supports SDN, NFV, programmable packet processing |
Supports: LRC/SGC testing, TAFA network security validation
Alternatives: Juniper MX480 with Contrail SDN, Open vSwitch + Mininet cluster
Lead time: 14 weeks
Safety: Ensure isolation from production networks; monitor power usage.
Assumption: Assumes access to a dedicated lab with 10 GbE infrastructure.
Consolidated list of every item across every area.
| Item | Category | Activity area | Criticality | Cost tier | Procurement | Qty | Lead time |
|---|---|---|---|---|---|---|---|
| UAV Sensor Payload Kit DJI Zenmuse H20T + RTK GPS + IMU + Barometer | Sensor / transducer | Foundations & Data Collection | essential | high ($10k-$100k) | buy | 1 | 6 weeks |
| UAV Swarm Platform DJI Matrice 210 RTK | UAV swarm hardware | Foundations & Data Collection | essential | high ($10k-$100k) | buy | 5 | 6 weeks |
| Simulation Workstation Dell Precision 7920 Tower with NVIDIA RTX 3090 x2 | Compute cluster / Simulation environment | Foundations & Data Collection | desirable | high ($10k-$100k) | buy | 1 | 4 weeks |
| Data Ingestion Server Dell PowerEdge R740xd with 4× 2TB SSD | Data ingestion pipeline / Facility | Foundations & Data Collection | essential | mid ($1k-$10k) | buy | 1 | 3 weeks |
| Network Testbed Keysight N5200A Network Analyzer with 10GbE Test Set | Network testbed | Foundations & Data Collection | desirable | high ($10k-$100k) | buy | 1 | 2 months |
| Compute Cluster for AI Training NVIDIA DGX A100 8‑node cluster | Compute cluster | Foundations & Data Collection | essential | capital (> $100k) | lease | 1 | 6 months |
| High‑Performance GPU Cluster NVIDIA DGX A100 (8×A100 80GB) or HPE Apollo 6500 with 8×A100 80GB | Computational Infrastructure | Generative Observation Modeling & Bayesian Policy Inference | essential | capital (> $100k) | buy | 1 | 6–8 weeks |
| High‑Speed NVMe SSD Array Samsung PM1733 4TB NVMe SSD (PCIe 4.0) | Storage | Generative Observation Modeling & Bayesian Policy Inference | desirable | high ($10k–$100k) | buy | 8 | 4–6 weeks |
| 100Gbps InfiniBand Switch Arista 7280SR 100GbE InfiniBand | Networking | Generative Observation Modeling & Bayesian Policy Inference | desirable | high ($10k–$100k) | buy | 1 | 4 weeks |
| Rack‑Mount UPS & Fire Suppression APC Smart-UPS X 10kVA, FM‑200 suppression system | Safety & Power | Generative Observation Modeling & Bayesian Policy Inference | essential | high ($10k–$100k) | buy | 1 | 4 weeks |
| Liquid Cooling System Cooler Master MasterLiquid ML360R for GPU clusters | Facility | Generative Observation Modeling & Bayesian Policy Inference | essential | high ($10k–$100k) | buy | 1 | 4 weeks |
| ML Training Framework (PyTorch 2.0) PyTorch 2.0 (open‑source) | Software | Generative Observation Modeling & Bayesian Policy Inference | essential | low (< $1k) | in-house build | 1 | Immediate |
| GAN Training Toolkit (NVIDIA NeMo) NVIDIA NeMo 1.5 (open‑source) | Software | Generative Observation Modeling & Bayesian Policy Inference | essential | low (< $1k) | in-house build | 1 | Immediate |
| Bayesian Inference Library (Pyro) Pyro 1.8 (open‑source) | Software | Generative Observation Modeling & Bayesian Policy Inference | essential | low (< $1k) | in-house build | 1 | Immediate |
| Meta‑Learning Library (higher) higher 0.2.0 (open‑source) | Software | Generative Observation Modeling & Bayesian Policy Inference | desirable | low (< $1k) | in-house build | 1 | Immediate |
| GPU Performance Benchmark Suite (MLPerf v2.1) MLPerf v2.1 GPU training benchmark | Consumable / Fixture | Generative Observation Modeling & Bayesian Policy Inference | desirable | low (< $1k) | buy | 1 | 1 week |
| High‑Speed Network Cables (Cat6a/InfiniBand) Arista 100GbE SFP+ cables | Consumable / Fixture | Generative Observation Modeling & Bayesian Policy Inference | desirable | low (< $1k) | buy | 48 | 2 weeks |
| Server Room Facility (Dedicated 24/7) Custom-built 2kW server room with 22 °C climate control | Facility | Generative Observation Modeling & Bayesian Policy Inference | essential | capital (> $100k) | in-house build | 1 | 8–12 weeks |
| High‑Performance LLM Inference Server NVIDIA DGX‑A100 (8× A100 80GB, 2.5 GHz Xeon Gold 6248, 1 TB NVMe) | Electrical test | LLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptation | essential | capital (> $100k) | buy | 1 | 6–8 weeks |
| GPU Training Cluster for LLM & RL 16‑node NVIDIA DGX‑H (4× A100 80GB each, 100 GbE InfiniBand) | Electrical test | LLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptation | essential | capital (> $100k) | buy | 1 | 12–16 weeks |
| RL Training Workstation Intel Xeon W‑2295, 64 GB RAM, 2× NVIDIA RTX 3090 24 GB | Electrical test | LLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptation | essential | high ($10k–$100k) | buy | 2 | 4–6 weeks |
| Meta‑Learning Framework (Software) PyTorch Lightning + higher (MAML implementation) | DAQ & compute | LLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptation | desirable | low (< $1k) | in-house build | 1 | 2 weeks |
| Adversarial Scenario Simulation Platform AWS Sagemaker Studio Lab (p3.8xlarge) with Unity ML‑Agents | Simulation environment | LLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptation | essential | mid ($1k–$10k) | lease | 1 | 1 week |
| Federated Learning Framework TensorFlow Federated 0.6 or PySyft 0.6 | Software / Framework | Federated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructure | essential | mid ($1k - $10k) | buy | 1 | 2 weeks |
| Differential Privacy Library OpenDP 0.5.0 or Opacus 0.3.0 | Software / Library | Federated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructure | essential | low (< $1k) | buy | 1 | 1 week |
| Zero‑Knowledge Proof Library ZoKrates 0.6 or libsnark 0.4 | Software / Library | Federated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructure | desirable | low (< $1k) | buy | 1 | 1 week |
| Permissioned Blockchain Node Hyperledger Besu 22.0 (PoA) or Quorum 4.2 | Software / Platform | Federated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructure | essential | high ($10k - $100k) | buy | 1 | 4 weeks |
| Quantum Simulator Qiskit Aer 0.16 or Cirq 0.12 | Software / Simulation | Federated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructure | desirable | low (< $1k) | buy | 1 | 1 week |
| Edge Device (GPU‑Enabled) NVIDIA Jetson Xavier NX or Jetson Nano | Hardware / Edge Device | Federated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructure | essential | mid ($1k - $10k) | buy | 10 | 3 weeks |
| Secure Aggregation Server Dell PowerEdge R740xd with TPM 2.0 and Intel SGX | Hardware / Server | Federated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructure | essential | high ($10k - $100k) | buy | 1 | 6 weeks |
| Hardware Security Module (HSM) Thales Luna Network HSM 4000 | Hardware / Security | Federated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructure | essential | high ($10k - $100k) | buy | 1 | 8 weeks |
| Network Testbed Cisco Nexus 93180YC‑EX or Mininet‑VM | Facility / Testbed | Federated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructure | desirable | capital (> $100k) | shared_facility | 1 | 12 weeks |
| High‑Performance GPU Cluster NVIDIA DGX A100 (8×A100 80GB) | Electrical test | Gradient Masking & Explainability | essential | capital (> $100k) | buy | 1 | 6–8 weeks |
| ML Training Framework (Software) TensorFlow Enterprise 2.12 | Software / Compute | Gradient Masking & Explainability | essential | low (< $1k) | in-house build | 1 | Immediate (installation) |
| Real‑Time Saliency Inference GPU NVIDIA RTX 3090 | Electrical test | Gradient Masking & Explainability | desirable | high ($10k–$100k) | buy | 1 | 4 weeks |
| Audit Logging & Compliance Stack Elastic Stack 8.x (ELK) with Beats and Logstash | Safety & PPE | Gradient Masking & Explainability | essential | high ($10k–$100k) | buy | 1 | 6 weeks |
| High‑Speed NVMe SSD Array Samsung PM1733 3.84 TB NVMe PCIe 4.0 | Consumable / fixture | Gradient Masking & Explainability | essential | mid ($1k–$10k) | buy | 4 | 3–4 weeks |
| High‑Performance GPU Cluster NVIDIA DGX‑A100 (8×A100 80GB, 2.5 TFLOPS per GPU) | DAQ & compute | Counterfactual Explanation Robustness & Causal Reasoning | essential | high ($10k - $100k) | buy | 1 | 6 weeks |
| Enterprise Graph Database Neo4j Enterprise 4.4 (8‑core, 32 GB RAM, 10 TB storage) | Scientific instrument | Counterfactual Explanation Robustness & Causal Reasoning | essential | high ($10k - $100k) | buy | 1 | 4 weeks |
| Diffusion Model Training Server NVIDIA RTX 6000 48GB (4×RTX 6000) with 16 GB RAM | DAQ & compute | Counterfactual Explanation Robustness & Causal Reasoning | essential | high ($10k - $100k) | buy | 1 | 5 weeks |
| Causal Inference Software Suite DoWhy 0.7.0 + PyTorch causal inference extensions | Software / Consumable / fixture | Counterfactual Explanation Robustness & Causal Reasoning | essential | low (< $1k) | in-house build | 1 | 1 week (setup and testing) |
| Explainability Toolkit Captum 0.6.0 + SHAP 0.41.0 + LIME 0.2.0 | Software / Consumable / fixture | Counterfactual Explanation Robustness & Causal Reasoning | essential | low (< $1k) | in-house build | 1 | 1 week (setup and testing) |
| Vector Store Compute Server Dell PowerEdge R740xd with 2x Intel Xeon Gold 6248R, 256GB DDR4, 4x 2TB NVMe SSD, 10GbE NIC | Computing / Storage | Retrieval Augmented Generation & Knowledge Base Provenance | essential | high ($10k - $100k) | buy | 1 | 6 weeks |
| LLM Inference GPU Cluster NVIDIA DGX A100 (8x A100 80GB, 2x Intel Xeon Gold 6248R, 512GB RAM) | Computing / AI Accelerator | Retrieval Augmented Generation & Knowledge Base Provenance | essential | capital (> $100k) | buy | 1 | 12 weeks |
| Graph Database Server Dell PowerEdge R740xd with 2x Intel Xeon Gold 6248R, 256GB RAM, 4x 2TB NVMe SSD, 10GbE NIC | Database / Graph | Retrieval Augmented Generation & Knowledge Base Provenance | essential | high ($10k - $100k) | buy | 1 | 6 weeks |
| Blockchain Node Server Dell PowerEdge R640 with 2x Intel Xeon Silver 4210R, 128GB RAM, 1TB NVMe SSD, 10GbE NIC | Computing / Blockchain | Retrieval Augmented Generation & Knowledge Base Provenance | essential | mid ($1k - $10k) | buy | 1 | 4 weeks |
| High‑Speed Network Switch Cisco Nexus 93180YC-EX 48x10GbE | Networking | Retrieval Augmented Generation & Knowledge Base Provenance | essential | mid ($1k - $10k) | buy | 1 | 4 weeks |
| Enterprise Storage Array NetApp AFF A300 16TB NVMe | Storage | Retrieval Augmented Generation & Knowledge Base Provenance | essential | high ($10k - $100k) | buy | 1 | 8 weeks |
| UAV Edge Compute Node DJI Matrice 300 RTK + NVIDIA Jetson Xavier NX | Edge device | Adaptive Multi‑Agent Defense & RACE | essential | high ($10k - $100k) | buy | 10 | 8 weeks |
| Edge Compute Cluster (4‑node) NVIDIA Jetson Xavier AGX cluster (4 nodes) or Intel NUC 11 with 16 GB RAM | Edge compute cluster | Adaptive Multi‑Agent Defense & RACE | desirable | capital (> $100k) | lease | 1 | 12 weeks |
| High‑Fidelity UAV Simulation Platform CARLA 0.9.13 on Ubuntu 22.04 with NVIDIA RTX 3090 | Simulation environment | Adaptive Multi‑Agent Defense & RACE | essential | high ($10k - $100k) | shared_facility | 1 | 6 weeks |
| Enterprise RDF Triple Store GraphDB Enterprise 10 or Stardog Enterprise 3 | Ontology engine | Adaptive Multi‑Agent Defense & RACE | essential | high ($10k - $100k) | buy | 1 | 10 weeks |
| Federated Learning Aggregation Server OpenMined PySyft Server on Ubuntu 22.04 with 32 GB RAM, 8‑core CPU | Federated learning framework | Adaptive Multi‑Agent Defense & RACE | essential | mid ($1k - $10k) | buy | 1 | 4 weeks |
| Programmable Network Testbed Cisco SD‑Access 3850 with OpenFlow controller (Ryu) or Mininet‑SDN cluster | Network testbed | Adaptive Multi‑Agent Defense & RACE | desirable | capital (> $100k) | shared_facility | 1 | 14 weeks |