Equipment Plan

Project: corpora-equipment-plan-1778796902173-4797c919  •  Generated: 2026-05-14 23:16  • 8 activity area(s)  •  54 equipment item(s)

Executive Summary

A multi‑modal, high‑performance equipment programme driven by shared facilities and long‑lead compute clusters

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.

54Total items
40Essential
14Desirable
0Optional
10Capital-tier
13Long-lead flags

Why This Equipment Plan Matters

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.

Project Summary

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.

Scale, Mix & Cost Profile

Scale & mix

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.

Cost profile

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-facility strategy

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.

Critical-Path & Long-Lead Items

Key risks

Caveats & prerequisites

Equipment by Activity Area

Each area expands to show the equipment it needs with full specifications,criticality, cost tier, procurement mode and lead time.

Foundations & Data Collection
The Foundations & Data Collection area requires a coordinated set of UAV hardware, multi‑modal sensor suites, high‑performance simulation and compute resources, a robust data ingestion pipeline, and a network testbed to capture, process, and validate data for subsequent AI safety modules.
Feasibility6 item(s)

Source in roadmap / ideate: All Chapters (1–15)

Sub-activities:

  • Deploy a UAV swarm testbed to capture multi‑modal sensor data under controlled and adversarial conditions.
  • Establish a high‑fidelity simulation environment to generate synthetic flight scenarios and validate control algorithms.
  • Build a data ingestion pipeline that securely stores, preprocesses, and streams raw telemetry and sensor streams to downstream analytics.
  • Configure a network testbed to emulate latency, packet loss, and jamming for communication robustness testing.
  • Provision a compute cluster capable of training generative Bayesian models, federated aggregation primitives, and large‑scale simulation workloads.
Shared facility: The compute cluster and high‑performance simulation workstation could be accessed via a university HPC or cloud provider (e.g., NVIDIA DGX Cloud) to reduce upfront capital and leverage shared maintenance.
Long-lead flags:
  • Compute Cluster for AI Training
  • Network Testbed
  • Simulation Workstation

UAV Sensor Payload Kit

DJI Zenmuse H20T + RTK GPS + IMU + Barometer
Provide multi‑modal sensor data (LiDAR, RGB, thermal, inertial, barometric, RTK GPS) for UAV flight tests.
essentialhigh ($10k-$100k)buyqty 1
Measurement rangeLiDAR 0–200 m; RGB 20 MP; Thermal 640×512; IMU 200 Hz; GPS RTK <1 cm
AccuracyLiDAR ±2 cm; RGB 0.1 % pixel; Thermal ±0.5 °C; IMU ±0.05 °/s; GPS RTK <1 cm
ResolutionLiDAR 0.1 mm point spacing; RGB 0.05 mm/pixel; Thermal 1 °C
Sampling / bandwidthLiDAR 10 kpts/s; RGB 30 fps; Thermal 10 fps; IMU 200 Hz
Channels / capacity6 sensor channels
InterfaceUSB‑3.0, Ethernet, SPI
EnvironmentalOperating temperature –20 °C to +50 °C; Humidity 10–90 % RH; Cleanroom class N/A
ComplianceUL, CE, FCC, ISO 9001
CalibrationMonthly RTK calibration; IMU bias calibration quarterly
Power12 V, 5 A (60 W)
OtherWeight 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.

UAV Swarm Platform

DJI Matrice 210 RTK
Provide flight platforms capable of carrying sensor payloads and executing coordinated swarm missions.
essentialhigh ($10k-$100k)buyqty 5
AccuracyGPS RTK <1 cm; IMU ±0.05 °/s; Barometer ±0.1 hPa
Sampling / bandwidthIMU 200 Hz; GPS RTK 10 Hz
Channels / capacity1
InterfaceWi‑Fi 5 GHz, 4G LTE, Ethernet
EnvironmentalOperating temperature –20 °C to +50 °C; Humidity 10–90 % RH
ComplianceFAA Part 107, UL, CE, FCC
CalibrationFlight‑test calibration weekly; IMU bias calibration monthly
Power14 V, 10 A (140 W) battery
OtherIntegrated 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.

Simulation Workstation

Dell Precision 7920 Tower with NVIDIA RTX 3090 x2
Run high‑fidelity UAV flight simulations (AirSim, Gazebo) and generate synthetic data for training.
desirablehigh ($10k-$100k)buyqty 1
AccuracyGPU floating‑point precision FP32 1e‑7; CPU clock accuracy ±0.5 ms
Sampling / bandwidthGPU 24 GB VRAM each; 2× RTX 3090; CPU 20‑core Xeon 3.1 GHz
Channels / capacity2 GPUs, 256 GB RAM
InterfacePCIe 4.0, 10GbE, 4× USB‑3.0
Environmental0–40 °C; 50 % RH; airflow 200 CFM
ComplianceUL, CE, ISO 27001
CalibrationNone
Power1600 W
OtherDual 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.

Data Ingestion Server

Dell PowerEdge R740xd with 4× 2TB SSD
Capture, store, and forward high‑volume sensor telemetry to downstream analytics.
essentialmid ($1k-$10k)buyqty 1
Sampling / bandwidth10GbE throughput, 8TB NVMe SSD RAID‑10
Channels / capacity4× 2TB SSD, 4× 1TB HDD
Interface10GbE, 4× USB‑3.0, 2× SATA
Environmental0–45 °C; 50 % RH; 1 m³ rack
ComplianceUL, CE, ISO 27001
CalibrationNone
Power1200 W
OtherRAID 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.

Network Testbed

Keysight N5200A Network Analyzer with 10GbE Test Set
Emulate network conditions (latency, packet loss, jitter) for UAV swarm communication testing.
desirablehigh ($10k-$100k)buyqty 1
Measurement range1 Hz–10 GHz
Accuracy±0.1 %
Resolution1 Hz
Sampling / bandwidth1 MS/s
Channels / capacity2 channels
Interface10GbE, 1GbE, USB‑3.0
Environmental0–50 °C; 50 % RH
ComplianceIEC 61000, ISO/IEC 17025
CalibrationAnnual
Power300 W
OtherRemote 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.

Compute Cluster for AI Training

NVIDIA DGX A100 8‑node cluster
Train generative Bayesian ensembles, federated aggregation models, and large‑scale simulation workloads.
essentialcapital (> $100k)leaseqty 1
AccuracyGPU FP32 1e‑7; GPU FP16 1e‑3
Sampling / bandwidthEach node: 8× NVIDIA A100 40 GB, 512 GB RAM, 10GbE, 100GbE interconnect
Channels / capacity64 A100 GPUs, 4 TB RAM
InterfacePCIe 4.0, 10GbE, 100GbE, NVMe SSD
EnvironmentalData‑center 22 °C; 50 % RH; 200 CFM airflow per rack
ComplianceUL, CE, ISO 27001, ISO 9001
CalibrationNone
Power12 kW
OtherGPU‑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.

Generative Observation Modeling & Bayesian Policy Inference
A compute‑intensive environment combining high‑performance GPU clusters, fast storage, and low‑latency networking to train conditional GANs, perform hierarchical Bayesian inference, and support meta‑learning adaptation for robust policy inference.
Prototype12 item(s)

Source in roadmap / ideate: Chapter 1 – AOI‑GBE

Sub-activities:

  • Collect and curate multimodal observation logs for GAN training.
  • Train conditional GANs (CC‑GAN) to reconstruct corrupted sensor streams.
  • Implement hierarchical Bayesian policy inference to marginalize over generative observation models.
  • Integrate LLM‑driven adversarial curriculum generation for robust policy training.
  • Deploy meta‑learning (MAML‑style) adapters for inference‑time adaptation.
  • Generate explainable inference traces (saliency maps) for operator insight.
Long-lead flags:
  • High‑Performance GPU Cluster

High‑Performance GPU Cluster

NVIDIA DGX A100 (8×A100 80GB) or HPE Apollo 6500 with 8×A100 80GB
Provide the compute backbone for training large conditional GANs and Bayesian inference models.
essentialcapital (> $100k)buyqty 1
AccuracyGPU compute accuracy verified by MLPerf v2.1 benchmarks.
Sampling / bandwidth8×A100 80GB, 600W each, NVLink 600GB/s, 100Gbps InfiniBand interconnect.
Channels / capacity8 GPUs per node, 2TB NVMe SSD per node.
InterfacePCIe 4.0, NVLink, 100Gbps InfiniBand.
EnvironmentalOperating temperature 18–27 °C, 45–60 % RH, cleanroom class N/A.
ComplianceUL, CE, ISO/IEC 17025 for performance validation.
CalibrationMonthly GPU performance verification using MLPerf v2.1; traceability to vendor calibration reports.
Power8×600W GPU + 400W system, total 5200W.
OtherIncludes 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.

High‑Speed NVMe SSD Array

Samsung PM1733 4TB NVMe SSD (PCIe 4.0)
Fast data access for training pipelines and large observation datasets.
desirablehigh ($10k–$100k)buyqty 8
AccuracyRead 3,000 MB/s, Write 2,500 MB/s.
Sampling / bandwidthPCIe 4.0 x4, 3,000 MB/s read, 2,500 MB/s write.
Channels / capacity4TB per drive, 8 drives per node.
InterfacePCIe 4.0 x4.
EnvironmentalOperating temperature 0–70 °C, 5–95 % RH.
ComplianceUL, CE, ISO/IEC 17025 for storage reliability.
CalibrationAnnual SMART health check; traceability to manufacturer specifications.
Power5W per drive (idle), 10W peak.
OtherRAID 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.

100Gbps InfiniBand Switch

Arista 7280SR 100GbE InfiniBand
Low‑latency, high‑bandwidth interconnect for distributed training.
desirablehigh ($10k–$100k)buyqty 1
AccuracyLatency < 1 µs end‑to‑end.
Sampling / bandwidth100Gbps per port, 48 ports.
Channels / capacity48 ports, 24 uplinks.
InterfaceInfiniBand HDR, RDMA.
EnvironmentalOperating temperature 0–50 °C, 20–80 % RH.
ComplianceUL, CE, ISO/IEC 17025 for network performance.
CalibrationQuarterly latency and throughput tests using ib_write_lat.
Power200W.
OtherSupports 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.

Rack‑Mount UPS & Fire Suppression

APC Smart-UPS X 10kVA, FM‑200 suppression system
Provide uninterrupted power and fire protection for the compute cluster.
essentialhigh ($10k–$100k)buyqty 1
AccuracyUPS output ±0.5 % voltage.
Channels / capacity10kVA capacity, 2 redundant batteries.
InterfaceN/A.
EnvironmentalOperating temperature 0–40 °C, 10–90 % RH.
ComplianceUL, CE, IEC 62040.
CalibrationAnnual battery health check; UPS output verified by voltage meter.
Power10kVA, 4000W continuous.
OtherIncludes 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.

Liquid Cooling System

Cooler Master MasterLiquid ML360R for GPU clusters
Maintain GPU operating temperature under sustained load.
essentialhigh ($10k–$100k)buyqty 1
AccuracyTemperature control ±1 °C.
Channels / capacitySupports 8 GPUs per rack.
InterfaceN/A.
EnvironmentalOperating temperature 0–50 °C.
ComplianceUL, CE.
CalibrationMonthly temperature sensor calibration.
Power200W per rack.
OtherIncludes 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.

ML Training Framework (PyTorch 2.0)

PyTorch 2.0 (open‑source)
Core deep learning framework for model development and training.
essentiallow (< $1k)in-house buildqty 1
AccuracySupported by NVIDIA CUDA 12.1, cuDNN 8.9.
Channels / capacityN/A.
InterfacePython API, C++ backend.
EnvironmentalRuns on Linux (Ubuntu 22.04).
ComplianceOpen‑source license (BSD).
CalibrationN/A.
PowerN/A.
OtherIncludes 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.

GAN Training Toolkit (NVIDIA NeMo)

NVIDIA NeMo 1.5 (open‑source)
Provide pre‑built GAN training utilities and model zoo.
essentiallow (< $1k)in-house buildqty 1
AccuracyOptimized for NVIDIA GPUs.
Channels / capacityN/A.
InterfacePython API.
EnvironmentalLinux.
ComplianceOpen‑source (Apache 2.0).
CalibrationN/A.
PowerN/A.
OtherIncludes 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.

Bayesian Inference Library (Pyro)

Pyro 1.8 (open‑source)
Implement hierarchical Bayesian policy inference.
essentiallow (< $1k)in-house buildqty 1
AccuracySupports stochastic variational inference.
Channels / capacityN/A.
InterfacePython API.
EnvironmentalLinux.
ComplianceOpen‑source (Apache 2.0).
CalibrationN/A.
PowerN/A.
OtherIntegrates 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.

Meta‑Learning Library (higher)

higher 0.2.0 (open‑source)
Provide MAML‑style meta‑learning utilities for inference‑time adaptation.
desirablelow (< $1k)in-house buildqty 1
AccuracySupports gradient‑based meta‑learning.
Channels / capacityN/A.
InterfacePython API.
EnvironmentalLinux.
ComplianceOpen‑source (MIT).
CalibrationN/A.
PowerN/A.
OtherWorks 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.

GPU Performance Benchmark Suite (MLPerf v2.1)

MLPerf v2.1 GPU training benchmark
Validate GPU performance and ensure traceability of compute resources.
desirablelow (< $1k)buyqty 1
AccuracyStandardized benchmark results.
Channels / capacityN/A.
InterfaceCLI.
EnvironmentalLinux.
ComplianceMLPerf certification.
CalibrationAnnual re‑run to verify performance drift.
PowerN/A.
OtherIncludes 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.

High‑Speed Network Cables (Cat6a/InfiniBand)

Arista 100GbE SFP+ cables
Provide reliable physical connectivity for the cluster.
desirablelow (< $1k)buyqty 48
AccuracySignal integrity within 0.1 dB loss.
Sampling / bandwidth100Gbps.
Channels / capacity48 cables.
InterfaceSFP+.
EnvironmentalOperating temperature 0–70 °C.
ComplianceUL, CE.
CalibrationCable length verified during installation.
PowerN/A.
OtherIncludes 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.

Server Room Facility (Dedicated 24/7)

Custom-built 2kW server room with 22 °C climate control
Provide a controlled environment for the compute cluster.
essentialcapital (> $100k)in-house buildqty 1
AccuracyTemperature maintained ±1 °C.
Channels / capacity2kW power budget, 48U rack space.
InterfaceN/A.
EnvironmentalOperating temperature 18–27 °C, 45–60 % RH.
ComplianceUL, CE, ISO/IEC 27001 for data center.
CalibrationMonthly HVAC performance check.
Power2kW continuous.
OtherIncludes 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.

LLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptation
A high‑performance compute and simulation footprint that supports large‑language‑model inference, reinforcement‑learning training, meta‑learning adaptation, and adversarial scenario generation for a multi‑agent AI system.
Prototype5 item(s)

Source in roadmap / ideate: Chapter 1 – AOI‑GBE

Sub-activities:

  • Generate semantic adversarial scenarios with LLMs
  • Train reinforcement‑learning agents in a simulated environment
  • Deploy meta‑learning adapters for online model adaptation
  • Validate policy inference under adversarial observation perturbations
  • Integrate curriculum learning and online adaptation into the agent pipeline
Long-lead flags:
  • GPU Training Cluster for LLM & RL

High‑Performance LLM Inference Server

NVIDIA DGX‑A100 (8× A100 80GB, 2.5 GHz Xeon Gold 6248, 1 TB NVMe)
Provide low‑latency inference for large‑language‑model based curriculum generation and policy evaluation.
essentialcapital (> $100k)buyqty 1
Sampling / bandwidthInference latency <10 ms for 8‑B model, throughput 200 req/s
Channels / capacity8 GPU cores, 80 GB per GPU
InterfacePCIe 4.0, NVLink, 10 GbE Ethernet, SSH, REST API
Environmental25–35 °C, 30–70 % RH, cleanroom class 1000
ComplianceUL, CE, ISO/IEC 17025 (for test equipment)
Power1500 W (peak)
OtherIncludes 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.

GPU Training Cluster for LLM & RL

16‑node NVIDIA DGX‑H (4× A100 80GB each, 100 GbE InfiniBand)
Provide distributed compute for training large‑language‑models, RL agents, and meta‑learning adapters.
essentialcapital (> $100k)buyqty 1
Sampling / bandwidth1.6 PFLOPS (FP16), 100 GbE InfiniBand interconnect
Channels / capacity64 A100 GPUs, 512 GB total GPU memory
InterfacePCIe 4.0, NVLink, InfiniBand HDR, 10 GbE management
Environmental25–35 °C, 30–70 % RH, cleanroom class 1000
ComplianceUL, CE, ISO/IEC 17025, ISO/IEC 27001 (data security)
Power200 kW (peak)
OtherIncludes 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.

RL Training Workstation

Intel Xeon W‑2295, 64 GB RAM, 2× NVIDIA RTX 3090 24 GB
Run high‑fidelity simulation and policy training for reinforcement‑learning agents.
essentialhigh ($10k–$100k)buyqty 2
Sampling / bandwidthSimulation speed 10× real‑time, RL training throughput 5 k steps/s
Channels / capacity2 GPU cores, 24 GB each
InterfacePCIe 4.0, 10 GbE Ethernet, USB‑3.2, HDMI
Environmental25–35 °C, 30–70 % RH
ComplianceUL, CE, ISO/IEC 17025
Power650 W (peak)
OtherIncludes 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.

Meta‑Learning Framework (Software)

PyTorch Lightning + higher (MAML implementation)
Provide lightweight meta‑learning adapters for online model adaptation during inference.
desirablelow (< $1k)in-house buildqty 1
Sampling / bandwidthMeta‑update latency <1 s on 4× A100
Channels / capacitySupports 1–4 GPU adapters
InterfacePython API, gRPC for distributed updates
EnvironmentalRuns on Linux (Ubuntu 22.04), GPU‑enabled
ComplianceOpen source (MIT license)
OtherIncludes 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.

Adversarial Scenario Simulation Platform

AWS Sagemaker Studio Lab (p3.8xlarge) with Unity ML‑Agents
Generate and run large‑scale adversarial scenarios for curriculum learning and policy evaluation.
essentialmid ($1k–$10k)leaseqty 1
Sampling / bandwidthSimulated environment 5× real‑time, 10 k steps per second
Channels / capacitySupports up to 100 concurrent simulation instances
InterfaceREST API, WebSocket, S3 for data storage
EnvironmentalCloud‑based; no on‑prem environmental constraints
ComplianceAWS SOC 2, ISO/IEC 27001, GDPR
OtherIncludes 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.

Federated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructure
This area requires a mix of software frameworks, cryptographic libraries, secure hardware, and a robust network testbed to prototype and validate trust‑aware federated learning across heterogeneous edge agents.
Prototype9 item(s)

Source in roadmap / ideate: Chapters 2 (TAFA), 3 (HTMAD), 4 (Explainability), 5 (BAAC)

Sub-activities:

  • Prototype a federated learning framework that supports DP and secure aggregation
  • Integrate adaptive differential privacy and zero‑knowledge proof mechanisms for auditability
  • Deploy a permissioned blockchain ledger for immutable reputation and audit trails
  • Simulate quantum‑resilient aggregation weights using a quantum simulator
  • Provision edge devices for on‑device training and inference
  • Configure a high‑fidelity network testbed to emulate realistic communication delays and adversarial traffic
Shared facility: The high‑performance network testbed and blockchain node can be hosted in a university core networking lab or a commercial data‑center with 10 Gbps connectivity. This reduces upfront capital and leverages existing rack space, power, and cooling.
Long-lead flags:
  • Permissioned Blockchain Node
  • Secure Aggregation Server
  • Hardware Security Module (HSM)
  • Network Testbed

Federated Learning Framework

TensorFlow Federated 0.6 or PySyft 0.6
Provides the core APIs for distributed training, secure aggregation, and model versioning.
essentialmid ($1k - $10k)buyqty 1
ComplianceOpen source (Apache 2.0)
OtherRequires 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.

Differential Privacy Library

OpenDP 0.5.0 or Opacus 0.3.0
Implements DP noise addition, privacy accounting, and epsilon‑budget management.
essentiallow (< $1k)buyqty 1
ComplianceOpen source (MIT)
CalibrationDP accountant integrated; periodic audit required
OtherPython 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.

Zero‑Knowledge Proof Library

ZoKrates 0.6 or libsnark 0.4
Generates succinct ZK proofs for DP compliance and model update integrity.
desirablelow (< $1k)buyqty 1
ComplianceOpen source (GPLv3)
OtherRust 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.

Permissioned Blockchain Node

Hyperledger Besu 22.0 (PoA) or Quorum 4.2
Hosts the immutable ledger for reputation scores, audit trails, and smart contracts.
essentialhigh ($10k - $100k)buyqty 1
ComplianceISO/IEC 27001 compatible (if hosted on compliant infrastructure)
Power≈200 W per node
OtherSupports 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.

Quantum Simulator

Qiskit Aer 0.16 or Cirq 0.12
Simulates quantum‑resilient weighting algorithms and evaluates Grover‑style amplitude amplification.
desirablelow (< $1k)buyqty 1
ComplianceOpen source (Apache 2.0)
OtherPython 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.

Edge Device (GPU‑Enabled)

NVIDIA Jetson Xavier NX or Jetson Nano
Runs on‑device federated training, DP noise addition, and model inference.
essentialmid ($1k - $10k)buyqty 10
OtherSupports 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.

Secure Aggregation Server

Dell PowerEdge R740xd with TPM 2.0 and Intel SGX
Hosts the secure aggregation protocol and performs homomorphic encryption operations.
essentialhigh ($10k - $100k)buyqty 1
OtherRedundant 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.

Hardware Security Module (HSM)

Thales Luna Network HSM 4000
Securely stores cryptographic keys for signing blockchain transactions and ZKP generation.
essentialhigh ($10k - $100k)buyqty 1
ComplianceFIPS 140‑2 Level 3, Common Criteria EAL 4+
Power≈30 W
OtherSupports 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.

Network Testbed

Cisco Nexus 93180YC‑EX or Mininet‑VM
Emulates realistic communication delays, packet loss, and adversarial traffic for federated learning validation.
desirablecapital (> $100k)shared_facilityqty 1
Power≈500 W for physical switches
OtherSupports 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.

Gradient Masking & Explainability
A high‑performance compute and software stack to develop, train, and validate gradient masking modules, saliency‑guided masking, consensus attribution, and audit logging for trustworthy AI.
Prototype5 item(s)

Source in roadmap / ideate: Chapter 6 – Gradient Masking

Sub-activities:

  • Design and implement SCOR‑PIO/SGAM gradient masking modules
  • Generate and evaluate saliency maps for model interpretability
  • Develop consensus attribution algorithms for multi‑agent explanations
  • Integrate audit logging for regulatory compliance and traceability
  • Train and hyper‑parameter tune models on large datasets
  • Validate robustness on benchmark adversarial attacks
  • Deploy inference pipelines for real‑time explanation generation

High‑Performance GPU Cluster

NVIDIA DGX A100 (8×A100 80GB)
Provide the compute capacity required for training large neural networks and running adversarial robustness experiments.
essentialcapital (> $100k)buyqty 1
Sampling / bandwidth8×A100 80GB HBM2, 9.7 TFLOPS FP32, 19.5 TFLOPS FP64, 600 GB/s NVLink
Channels / capacity8 GPUs, 2.5 GHz CPU, 1.6 GHz GPU memory clock
InterfacePCIe 4.0, InfiniBand HDR 200 Gb/s interconnect
EnvironmentalOperating temperature 18–27 °C, 45–60 % RH, 10 mA/m² cleanroom class 1000
ComplianceUL 60950‑1, IEC 62368‑1, ISO/IEC 27001 (data center)
Power5 kW total, 3.5 kW GPU, 1.5 kW CPU, 0.5 kW networking
OtherIncludes 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.

ML Training Framework (Software)

TensorFlow Enterprise 2.12
Provide a distributed training framework with mixed‑precision support for GPU clusters.
essentiallow (< $1k)in-house buildqty 1
Sampling / bandwidthSupports distributed training across 8 GPUs, 16‑bit FP16, 32‑bit FP32
InterfacePython API, gRPC for distributed workers
EnvironmentalRuns on Ubuntu 22.04 LTS, CUDA 12.1, cuDNN 8.9
ComplianceTensorFlow Enterprise includes ISO/IEC 27001 audit reports
PowerSoftware only
OtherIncludes 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.

Real‑Time Saliency Inference GPU

NVIDIA RTX 3090
Accelerate on‑the‑fly saliency map generation for real‑time explainability dashboards.
desirablehigh ($10k–$100k)buyqty 1
Sampling / bandwidth35 TFLOPS FP32, 24 GB GDDR6X, 1.70 GHz memory clock
Channels / capacity1 GPU, 1.5 GB/s memory bandwidth
InterfacePCIe 4.0, NVLink
EnvironmentalOperating temperature 18–27 °C, 45–60 % RH
ComplianceUL 60950‑1, IEC 62368‑1
Power350 W TDP, 500 W PSU requirement
OtherIncludes 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.

Audit Logging & Compliance Stack

Elastic Stack 8.x (ELK) with Beats and Logstash
Collect, store, and analyze audit logs for gradient masking operations, saliency generation, and consensus attribution to meet regulatory requirements.
essentialhigh ($10k–$100k)buyqty 1
Sampling / bandwidth10 k events/s ingestion, 10 TB storage, 90‑day retention
Channels / capacityElasticSearch cluster (3 nodes), Logstash pipeline, Kibana dashboards
InterfaceRESTful API, Beats agents, Logstash pipelines
EnvironmentalOperating temperature 18–27 °C, 45–60 % RH, 10 mA/m² cleanroom class 1000
ComplianceISO/IEC 27001, GDPR, EU AI Act traceability requirements, SOC 2 Type II
Power2 kW total (servers + storage)
OtherIncludes 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.

High‑Speed NVMe SSD Array

Samsung PM1733 3.84 TB NVMe PCIe 4.0
Provide fast storage for training datasets, model checkpoints, and inference artifacts.
essentialmid ($1k–$10k)buyqty 4
Sampling / bandwidthRead 3.5 GB/s, Write 3.0 GB/s, 1.2 M IOPS
Channels / capacity3.84 TB per drive, 4‑drive RAID 10 configuration
InterfacePCIe 4.0 x4
EnvironmentalOperating temperature 0–70 °C, 10–90 % RH
ComplianceUL 60950‑1, IEC 62368‑1
Power5 W per drive (idle), 10 W active
OtherIncludes 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.

Counterfactual Explanation Robustness & Causal Reasoning
The area requires a high‑performance compute platform, a scalable graph database, and a suite of open‑source causal inference and explainability software to support multimodal counterfactual generation, diffusion‑based manifold projection, and robustness evaluation.
Prototype5 item(s)

Source in roadmap / ideate: Chapter 7 – Counterfactual Explanation

Sub-activities:

  • Collect and curate multimodal datasets (vision, text, sensor streams) for counterfactual generation.
  • Design and train conditional diffusion models to project adversarial perturbations onto the data manifold.
  • Discover and validate causal graphs from observational data using fast, graph‑free algorithms.
  • Generate counterfactual explanations guided by causal steering and diffusion constraints.
  • Evaluate explanation robustness against adversarial noise and model drift.
  • Integrate SHAP, Captum, and LIME into the causal inference pipeline for post‑hoc attribution.
  • Deploy prototypes in a simulated multi‑agent environment and iterate on performance.

High‑Performance GPU Cluster

NVIDIA DGX‑A100 (8×A100 80GB, 2.5 TFLOPS per GPU)
Provide the compute horsepower required for training diffusion models, causal inference, and explainability pipelines.
essentialhigh ($10k - $100k)buyqty 1
Sampling / bandwidth8×A100 80GB, 2.5 TFLOPS FP32, 400 GB/s memory bandwidth, 10 GbE interconnect
Channels / capacity8 GPUs, 8×80 GB VRAM, 2.5 TFLOPS per GPU
InterfacePCIe 4.0, NVLink, 10 GbE Ethernet
Environmental25–35 °C, 40–60 % RH, cleanroom class 1000 for rack installation
ComplianceUL, CE, ISO/IEC 27001 for data center
Power2×500 W per node, total 8 kW
OtherIncludes 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.

Enterprise Graph Database

Neo4j Enterprise 4.4 (8‑core, 32 GB RAM, 10 TB storage)
Store, query, and update large causal graphs and counterfactual provenance data.
essentialhigh ($10k - $100k)buyqty 1
Sampling / bandwidth1 Gbps network interface, 10 TB local SSD storage
Channels / capacity8 CPU cores, 32 GB RAM, 10 TB disk
InterfaceBolt, HTTP/REST, Cypher query language
Environmental25–35 °C, 40–60 % RH
ComplianceISO/IEC 27001, GDPR data handling, ISO/IEC 42001 for AI governance
Power350 W
OtherSupports 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.

Diffusion Model Training Server

NVIDIA RTX 6000 48GB (4×RTX 6000) with 16 GB RAM
Specialized server for training diffusion models on multimodal data with lower GPU count but high memory per GPU.
essentialhigh ($10k - $100k)buyqty 1
Sampling / bandwidth4×RTX 6000 48GB, 16 TFLOPS FP32, 768 GB/s memory bandwidth, 10 GbE Ethernet
Channels / capacity4 GPUs, 48 GB VRAM each, 16 GB system RAM
InterfacePCIe 4.0, NVLink, 10 GbE Ethernet
Environmental25–35 °C, 40–60 % RH
ComplianceUL, CE, ISO/IEC 27001
Power1.2 kW
OtherIncludes 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.

Causal Inference Software Suite

DoWhy 0.7.0 + PyTorch causal inference extensions
Provide a unified API for causal discovery, estimation, and counterfactual generation.
essentiallow (< $1k)in-house buildqty 1
AccuracyDepends on underlying models; validated against synthetic benchmarks (R² > 0.85).
InterfacePython API, Jupyter Notebook, command‑line
EnvironmentalRuns on Linux, macOS, Windows; requires Python 3.10+.
ComplianceOpen‑source BSD‑3 license; complies with ISO/IEC 27001 when used in secure environments.
CalibrationModel‑specific validation against ground truth; no hardware calibration.
OtherIncludes 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.

Explainability Toolkit

Captum 0.6.0 + SHAP 0.41.0 + LIME 0.2.0
Provide post‑hoc attribution, counterfactual explanation, and feature importance analysis.
essentiallow (< $1k)in-house buildqty 1
AccuracyModel‑dependent; validated against benchmark datasets (AUC > 0.9).
InterfacePython API, Jupyter Notebook, CLI
EnvironmentalRuns on Linux, macOS, Windows; requires Python 3.10+.
ComplianceOpen‑source MIT license; complies with ISO/IEC 27001 when used in secure environments.
CalibrationModel‑specific validation against ground truth explanations.
OtherIncludes 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.

Retrieval Augmented Generation & Knowledge Base Provenance
A prototype RAG pipeline requires a high‑performance vector store, an LLM inference engine, a graph database for provenance, and a blockchain‑based audit ledger. All components must interoperate with low‑latency networking and provide immutable traceability for embeddings and model outputs.
Prototype6 item(s)

Source in roadmap / ideate: Chapter 11 – Retrieval Unreliability and Knowledge Base Corruption

Sub-activities:

  • Build and index a vector store (FAISS or Elastic) for embedding retrieval
  • Deploy an LLM inference server to generate responses conditioned on retrieved vectors
  • Implement a graph database to model provenance relationships between documents, embeddings, and queries
  • Run a blockchain node to cryptographically sign embeddings, retrieval logs, and audit events
  • Integrate an immutable audit ledger that records all provenance events and model outputs
  • Provision high‑speed networking and storage to support low‑latency data movement
Long-lead flags:
  • LLM Inference GPU Cluster

Vector Store Compute Server

Dell PowerEdge R740xd with 2x Intel Xeon Gold 6248R, 256GB DDR4, 4x 2TB NVMe SSD, 10GbE NIC
Host the FAISS/Elastic vector index and serve retrieval queries
essentialhigh ($10k - $100k)buyqty 1
Environmental25–35°C, 40–60% RH, 1.5mA/m²
ComplianceISO/IEC 27001, UL 60950-1
Power750W PSU, 500W consumption
OtherSupports 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.

LLM Inference GPU Cluster

NVIDIA DGX A100 (8x A100 80GB, 2x Intel Xeon Gold 6248R, 512GB RAM)
Run large‑language‑model inference for RAG responses
essentialcapital (> $100k)buyqty 1
Environmental20–30°C, 30–50% RH, 1.5mA/m²
ComplianceISO/IEC 27001, UL 60950-1
Power2000W PSU, ~1800W consumption
OtherSupports 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.

Graph Database Server

Dell PowerEdge R740xd with 2x Intel Xeon Gold 6248R, 256GB RAM, 4x 2TB NVMe SSD, 10GbE NIC
Store provenance graph linking documents, embeddings, and queries
essentialhigh ($10k - $100k)buyqty 1
Environmental25–35°C, 40–60% RH
ComplianceISO/IEC 27001, UL 60950-1
Power750W PSU, 500W consumption
OtherSupports 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.

Blockchain Node Server

Dell PowerEdge R640 with 2x Intel Xeon Silver 4210R, 128GB RAM, 1TB NVMe SSD, 10GbE NIC
Run a permissioned blockchain node (e.g., Hyperledger Besu) for signing and audit logging
essentialmid ($1k - $10k)buyqty 1
Environmental20–30°C, 30–50% RH
ComplianceISO/IEC 27001, UL 60950-1
Power500W PSU, 350W consumption
OtherSupports 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.

High‑Speed Network Switch

Cisco Nexus 93180YC-EX 48x10GbE
Provide low‑latency, high‑throughput connectivity between compute nodes
essentialmid ($1k - $10k)buyqty 1
Environmental0–40°C, 10–90% RH
ComplianceISO/IEC 27001, UL 60950-1
Power250W consumption
OtherSupports 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.

Enterprise Storage Array

NetApp AFF A300 16TB NVMe
Provide high‑throughput, low‑latency storage for embeddings, logs, and audit data
essentialhigh ($10k - $100k)buyqty 1
Environmental0–40°C, 10–90% RH
ComplianceISO/IEC 27001, UL 60950-1
Power300W consumption
OtherSupports 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.

Adaptive Multi‑Agent Defense & RACE
A compact, high‑performance hardware and software footprint that supports the integration, testing, and deployment of the RACE platform across UAV swarms, edge IoT fleets, and cyber‑physical systems.
Pilot6 item(s)

Source in roadmap / ideate: Chapter 15 – Adaptive Multi‑Agent Defense

Sub-activities:

  • Deploy AOI‑GBE generative‑Bayesian inference on edge nodes
  • Implement trust‑aware federated aggregation (TAFA) for secure model updates
  • Integrate theory‑of‑mind defenses (HTMAD) for communication sabotage
  • Apply explainability budget optimization (EBO) in multi‑agent learning
  • Enable partial‑observability amplification (BAAC) for belief alignment
  • Execute gradient masking (FGMF) during adversarial training
  • Generate counterfactual explanations (FCA) resilient to noise
  • Attribute blame causally (CRAN) in cooperative missions
  • Mitigate cascading misinterpretation (JIT) with adaptive trust
  • Prevent over‑fitting of explainability models (IAT)
  • Secure retrieval provenance (RAG) against corruption
  • Control hallucination amplification (HEAD) in debate modules
  • Detect adversarial prompt injection (MCDE) in LLM agents
  • Harden communication graphs (LRC/SGC) against malicious nodes
  • Orchestrate the full RACE stack (DRAT, HRA, TASF‑DFOV, RS‑LLM‑MAS) for resilient coordination
Shared facility: The high‑fidelity simulation platform and programmable network testbed are best hosted in a shared core‑facility to reduce capital spend and leverage existing GPU and SDN infrastructure.
Long-lead flags:
  • Edge Compute Cluster (4‑node)
  • High‑Fidelity UAV Simulation Platform
  • Programmable Network Testbed

UAV Edge Compute Node

DJI Matrice 300 RTK + NVIDIA Jetson Xavier NX
On‑board inference for AOI‑GBE, policy execution, and local sensor fusion
essentialhigh ($10k - $100k)buyqty 10
Sampling / bandwidth5‑10 Gbps 5G/LoRa, 1 Gbps Ethernet
Channels / capacity8‑core ARM Cortex‑A72 + 8‑core NVIDIA CUDA
InterfaceUSB‑C, PCIe, UART, I2C, SPI, Ethernet, 5G
EnvironmentalOperating temp -40 °C to +85 °C, 0–95 % RH, IP67
ComplianceIEC 61508, FAA AC 20‑107, ISO/IEC 27001
CalibrationSensor calibration every 6 months, traceable to NIST SRM
PowerBattery 12 V, 10 Wh, 1 A continuous
OtherBuilt‑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.

Edge Compute Cluster (4‑node)

NVIDIA Jetson Xavier AGX cluster (4 nodes) or Intel NUC 11 with 16 GB RAM
Distributed training of federated models and simulation of multi‑agent coordination
desirablecapital (> $100k)leaseqty 1
Sampling / bandwidth10 GbE interconnect, 40 Gbps NVMe SSD
Channels / capacity4 nodes × 8‑core CPU + 32 GB RAM, 256 GB SSD each
InterfacePCIe, Ethernet, USB‑C
EnvironmentalOperating temp 0‑40 °C, 30–80 % RH
ComplianceIEC 60950, ISO/IEC 27001
PowerEach node 200 W, total 800 W
OtherGPU‑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.

High‑Fidelity UAV Simulation Platform

CARLA 0.9.13 on Ubuntu 22.04 with NVIDIA RTX 3090
Validate AOI‑GBE, TAFA, and RACE modules in realistic physics and network conditions
essentialhigh ($10k - $100k)shared_facilityqty 1
AccuracyPhysics engine 0.01 m precision, sensor noise model ±0.5 %
Resolution4K video output, 120 fps
Sampling / bandwidthGPU 24 GB VRAM, 32‑core CPU, 128 GB RAM, 1 TB SSD
Channels / capacitySimulate up to 50 agents concurrently
InterfaceREST API, ROS2, gRPC
ComplianceISO/IEC 27001 (data handling), NIST SP 800‑53 (simulation security)
CalibrationSensor models calibrated against real UAV data
Power500 W
OtherDockerized, 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.

Enterprise RDF Triple Store

GraphDB Enterprise 10 or Stardog Enterprise 3
Store and reason over RACE ontology, provenance, and policy metadata
essentialhigh ($10k - $100k)buyqty 1
Sampling / bandwidthQuery throughput >10 k triples/s, latency <50 ms
Channels / capacity64 GB RAM, 4 TB storage, 10 k triples per second ingestion
InterfaceSPARQL endpoint, REST API, JDBC
EnvironmentalData center 0‑40 °C, 30–70 % RH
ComplianceISO/IEC 27001, GDPR (data residency), ISO/IEC 42001 (AI trust)
Power200 W
OtherBuilt‑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.

Federated Learning Aggregation Server

OpenMined PySyft Server on Ubuntu 22.04 with 32 GB RAM, 8‑core CPU
Secure aggregation, DP noise scaling, and ZKP audit for TAFA
essentialmid ($1k - $10k)buyqty 1
Sampling / bandwidth10 GbE, 1 TB SSD, 32 GB RAM, 8‑core CPU
Channels / capacitySupport up to 1 000 concurrent clients, 1 TB model size
InterfacegRPC, REST, WebSocket
EnvironmentalData center 0‑40 °C, 30–70 % RH
ComplianceISO/IEC 27001, GDPR, EU AI Act (traceability)
Power300 W
OtherDockerized, 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.

Programmable Network Testbed

Cisco SD‑Access 3850 with OpenFlow controller (Ryu) or Mininet‑SDN cluster
Validate communication graph resilience, LRC/SGC protocols, and adversarial traffic injection
desirablecapital (> $100k)shared_facilityqty 1
Sampling / bandwidth10 GbE per port, 100 GbE core, 1 TB storage, 16‑core CPU, 64 GB RAM
Channels / capacitySimulate up to 200 nodes, 1 000 links
InterfaceREST API, Netconf, OpenFlow, CLI
EnvironmentalData center 0‑40 °C, 30–70 % RH
ComplianceISO/IEC 27001, NIST SP 800‑53
Power1 kW
OtherSupports 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.

Full Equipment Catalogue

Consolidated list of every item across every area.

ItemCategoryActivity areaCriticalityCost tierProcurementQtyLead time
UAV Sensor Payload Kit
DJI Zenmuse H20T + RTK GPS + IMU + Barometer
Sensor / transducerFoundations & Data Collectionessentialhigh ($10k-$100k)buy16 weeks
UAV Swarm Platform
DJI Matrice 210 RTK
UAV swarm hardwareFoundations & Data Collectionessentialhigh ($10k-$100k)buy56 weeks
Simulation Workstation
Dell Precision 7920 Tower with NVIDIA RTX 3090 x2
Compute cluster / Simulation environmentFoundations & Data Collectiondesirablehigh ($10k-$100k)buy14 weeks
Data Ingestion Server
Dell PowerEdge R740xd with 4× 2TB SSD
Data ingestion pipeline / FacilityFoundations & Data Collectionessentialmid ($1k-$10k)buy13 weeks
Network Testbed
Keysight N5200A Network Analyzer with 10GbE Test Set
Network testbedFoundations & Data Collectiondesirablehigh ($10k-$100k)buy12 months
Compute Cluster for AI Training
NVIDIA DGX A100 8‑node cluster
Compute clusterFoundations & Data Collectionessentialcapital (> $100k)lease16 months
High‑Performance GPU Cluster
NVIDIA DGX A100 (8×A100 80GB) or HPE Apollo 6500 with 8×A100 80GB
Computational InfrastructureGenerative Observation Modeling & Bayesian Policy Inferenceessentialcapital (> $100k)buy16–8 weeks
High‑Speed NVMe SSD Array
Samsung PM1733 4TB NVMe SSD (PCIe 4.0)
StorageGenerative Observation Modeling & Bayesian Policy Inferencedesirablehigh ($10k–$100k)buy84–6 weeks
100Gbps InfiniBand Switch
Arista 7280SR 100GbE InfiniBand
NetworkingGenerative Observation Modeling & Bayesian Policy Inferencedesirablehigh ($10k–$100k)buy14 weeks
Rack‑Mount UPS & Fire Suppression
APC Smart-UPS X 10kVA, FM‑200 suppression system
Safety & PowerGenerative Observation Modeling & Bayesian Policy Inferenceessentialhigh ($10k–$100k)buy14 weeks
Liquid Cooling System
Cooler Master MasterLiquid ML360R for GPU clusters
FacilityGenerative Observation Modeling & Bayesian Policy Inferenceessentialhigh ($10k–$100k)buy14 weeks
ML Training Framework (PyTorch 2.0)
PyTorch 2.0 (open‑source)
SoftwareGenerative Observation Modeling & Bayesian Policy Inferenceessentiallow (< $1k)in-house build1Immediate
GAN Training Toolkit (NVIDIA NeMo)
NVIDIA NeMo 1.5 (open‑source)
SoftwareGenerative Observation Modeling & Bayesian Policy Inferenceessentiallow (< $1k)in-house build1Immediate
Bayesian Inference Library (Pyro)
Pyro 1.8 (open‑source)
SoftwareGenerative Observation Modeling & Bayesian Policy Inferenceessentiallow (< $1k)in-house build1Immediate
Meta‑Learning Library (higher)
higher 0.2.0 (open‑source)
SoftwareGenerative Observation Modeling & Bayesian Policy Inferencedesirablelow (< $1k)in-house build1Immediate
GPU Performance Benchmark Suite (MLPerf v2.1)
MLPerf v2.1 GPU training benchmark
Consumable / FixtureGenerative Observation Modeling & Bayesian Policy Inferencedesirablelow (< $1k)buy11 week
High‑Speed Network Cables (Cat6a/InfiniBand)
Arista 100GbE SFP+ cables
Consumable / FixtureGenerative Observation Modeling & Bayesian Policy Inferencedesirablelow (< $1k)buy482 weeks
Server Room Facility (Dedicated 24/7)
Custom-built 2kW server room with 22 °C climate control
FacilityGenerative Observation Modeling & Bayesian Policy Inferenceessentialcapital (> $100k)in-house build18–12 weeks
High‑Performance LLM Inference Server
NVIDIA DGX‑A100 (8× A100 80GB, 2.5 GHz Xeon Gold 6248, 1 TB NVMe)
Electrical testLLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptationessentialcapital (> $100k)buy16–8 weeks
GPU Training Cluster for LLM & RL
16‑node NVIDIA DGX‑H (4× A100 80GB each, 100 GbE InfiniBand)
Electrical testLLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptationessentialcapital (> $100k)buy112–16 weeks
RL Training Workstation
Intel Xeon W‑2295, 64 GB RAM, 2× NVIDIA RTX 3090 24 GB
Electrical testLLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptationessentialhigh ($10k–$100k)buy24–6 weeks
Meta‑Learning Framework (Software)
PyTorch Lightning + higher (MAML implementation)
DAQ & computeLLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptationdesirablelow (< $1k)in-house build12 weeks
Adversarial Scenario Simulation Platform
AWS Sagemaker Studio Lab (p3.8xlarge) with Unity ML‑Agents
Simulation environmentLLM‑Driven Adversarial Curriculum & Meta‑Learning Adaptationessentialmid ($1k–$10k)lease11 week
Federated Learning Framework
TensorFlow Federated 0.6 or PySyft 0.6
Software / FrameworkFederated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructureessentialmid ($1k - $10k)buy12 weeks
Differential Privacy Library
OpenDP 0.5.0 or Opacus 0.3.0
Software / LibraryFederated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructureessentiallow (< $1k)buy11 week
Zero‑Knowledge Proof Library
ZoKrates 0.6 or libsnark 0.4
Software / LibraryFederated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructuredesirablelow (< $1k)buy11 week
Permissioned Blockchain Node
Hyperledger Besu 22.0 (PoA) or Quorum 4.2
Software / PlatformFederated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructureessentialhigh ($10k - $100k)buy14 weeks
Quantum Simulator
Qiskit Aer 0.16 or Cirq 0.12
Software / SimulationFederated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructuredesirablelow (< $1k)buy11 week
Edge Device (GPU‑Enabled)
NVIDIA Jetson Xavier NX or Jetson Nano
Hardware / Edge DeviceFederated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructureessentialmid ($1k - $10k)buy103 weeks
Secure Aggregation Server
Dell PowerEdge R740xd with TPM 2.0 and Intel SGX
Hardware / ServerFederated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructureessentialhigh ($10k - $100k)buy16 weeks
Hardware Security Module (HSM)
Thales Luna Network HSM 4000
Hardware / SecurityFederated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructureessentialhigh ($10k - $100k)buy18 weeks
Network Testbed
Cisco Nexus 93180YC‑EX or Mininet‑VM
Facility / TestbedFederated Learning, Trust‑Aware Aggregation, and Privacy & Audit Infrastructuredesirablecapital (> $100k)shared_facility112 weeks
High‑Performance GPU Cluster
NVIDIA DGX A100 (8×A100 80GB)
Electrical testGradient Masking & Explainabilityessentialcapital (> $100k)buy16–8 weeks
ML Training Framework (Software)
TensorFlow Enterprise 2.12
Software / ComputeGradient Masking & Explainabilityessentiallow (< $1k)in-house build1Immediate (installation)
Real‑Time Saliency Inference GPU
NVIDIA RTX 3090
Electrical testGradient Masking & Explainabilitydesirablehigh ($10k–$100k)buy14 weeks
Audit Logging & Compliance Stack
Elastic Stack 8.x (ELK) with Beats and Logstash
Safety & PPEGradient Masking & Explainabilityessentialhigh ($10k–$100k)buy16 weeks
High‑Speed NVMe SSD Array
Samsung PM1733 3.84 TB NVMe PCIe 4.0
Consumable / fixtureGradient Masking & Explainabilityessentialmid ($1k–$10k)buy43–4 weeks
High‑Performance GPU Cluster
NVIDIA DGX‑A100 (8×A100 80GB, 2.5 TFLOPS per GPU)
DAQ & computeCounterfactual Explanation Robustness & Causal Reasoningessentialhigh ($10k - $100k)buy16 weeks
Enterprise Graph Database
Neo4j Enterprise 4.4 (8‑core, 32 GB RAM, 10 TB storage)
Scientific instrumentCounterfactual Explanation Robustness & Causal Reasoningessentialhigh ($10k - $100k)buy14 weeks
Diffusion Model Training Server
NVIDIA RTX 6000 48GB (4×RTX 6000) with 16 GB RAM
DAQ & computeCounterfactual Explanation Robustness & Causal Reasoningessentialhigh ($10k - $100k)buy15 weeks
Causal Inference Software Suite
DoWhy 0.7.0 + PyTorch causal inference extensions
Software / Consumable / fixtureCounterfactual Explanation Robustness & Causal Reasoningessentiallow (< $1k)in-house build11 week (setup and testing)
Explainability Toolkit
Captum 0.6.0 + SHAP 0.41.0 + LIME 0.2.0
Software / Consumable / fixtureCounterfactual Explanation Robustness & Causal Reasoningessentiallow (< $1k)in-house build11 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 / StorageRetrieval Augmented Generation & Knowledge Base Provenanceessentialhigh ($10k - $100k)buy16 weeks
LLM Inference GPU Cluster
NVIDIA DGX A100 (8x A100 80GB, 2x Intel Xeon Gold 6248R, 512GB RAM)
Computing / AI AcceleratorRetrieval Augmented Generation & Knowledge Base Provenanceessentialcapital (> $100k)buy112 weeks
Graph Database Server
Dell PowerEdge R740xd with 2x Intel Xeon Gold 6248R, 256GB RAM, 4x 2TB NVMe SSD, 10GbE NIC
Database / GraphRetrieval Augmented Generation & Knowledge Base Provenanceessentialhigh ($10k - $100k)buy16 weeks
Blockchain Node Server
Dell PowerEdge R640 with 2x Intel Xeon Silver 4210R, 128GB RAM, 1TB NVMe SSD, 10GbE NIC
Computing / BlockchainRetrieval Augmented Generation & Knowledge Base Provenanceessentialmid ($1k - $10k)buy14 weeks
High‑Speed Network Switch
Cisco Nexus 93180YC-EX 48x10GbE
NetworkingRetrieval Augmented Generation & Knowledge Base Provenanceessentialmid ($1k - $10k)buy14 weeks
Enterprise Storage Array
NetApp AFF A300 16TB NVMe
StorageRetrieval Augmented Generation & Knowledge Base Provenanceessentialhigh ($10k - $100k)buy18 weeks
UAV Edge Compute Node
DJI Matrice 300 RTK + NVIDIA Jetson Xavier NX
Edge deviceAdaptive Multi‑Agent Defense & RACEessentialhigh ($10k - $100k)buy108 weeks
Edge Compute Cluster (4‑node)
NVIDIA Jetson Xavier AGX cluster (4 nodes) or Intel NUC 11 with 16 GB RAM
Edge compute clusterAdaptive Multi‑Agent Defense & RACEdesirablecapital (> $100k)lease112 weeks
High‑Fidelity UAV Simulation Platform
CARLA 0.9.13 on Ubuntu 22.04 with NVIDIA RTX 3090
Simulation environmentAdaptive Multi‑Agent Defense & RACEessentialhigh ($10k - $100k)shared_facility16 weeks
Enterprise RDF Triple Store
GraphDB Enterprise 10 or Stardog Enterprise 3
Ontology engineAdaptive Multi‑Agent Defense & RACEessentialhigh ($10k - $100k)buy110 weeks
Federated Learning Aggregation Server
OpenMined PySyft Server on Ubuntu 22.04 with 32 GB RAM, 8‑core CPU
Federated learning frameworkAdaptive Multi‑Agent Defense & RACEessentialmid ($1k - $10k)buy14 weeks
Programmable Network Testbed
Cisco SD‑Access 3850 with OpenFlow controller (Ryu) or Mininet‑SDN cluster
Network testbedAdaptive Multi‑Agent Defense & RACEdesirablecapital (> $100k)shared_facility114 weeks