AI compute procurement intelligence
Managing large-scale AI compute spend involves the same signal layers that DPX already monitors for cross-border settlement: commodity markets, supply chain disruption, sovereign and geopolitical risk, energy costs, and macro conditions. The compute.* MCP tools expose these signals framed for compute procurement decisions.
The compute desk problem
Section titled “The compute desk problem”A compute desk buying $100M+ of GPUs, building data centers, or negotiating long-term chip supply agreements needs to answer:
- Is now the right time to commit to a large order, or will prices fall in 90 days?
- What happens to my supply chain if TSMC fab capacity drops 30%?
- Which jurisdictions are safe for data center investment given current geopolitical conditions?
- Is energy cheap and available in the markets where I’m building?
- Are shipping lanes to key supplier regions clear?
These are intelligence questions, not payment questions — but DPX’s oracle infrastructure already monitors all of them.
MCP tools
Section titled “MCP tools”Add to your Claude Desktop or Cursor config:
{ "mcpServers": { "dpx": { "command": "npx", "args": ["-y", "@untitledfinancial/dpx-mcp"], "env": { "INTELLIGENCE_API_KEY": "your_key_here" } } }}compute.supply_chain
Section titled “compute.supply_chain”Semiconductor and AI compute supply chain risk — 30–90 day lead signals across chip fabrication, advanced packaging, memory, rare earth inputs, and logistics chokepoints.
compute.supply_chainReturns: risk score (0–100), active alerts by segment (fab / packaging / memory / rare earth / logistics), recommended procurement actions, AI narrative.
When to use: Before placing large GPU or ASIC orders. When evaluating TSMC/Samsung/ASML concentration risk. When monitoring CoWoS/HBM packaging constraints.
compute.energy
Section titled “compute.energy”Energy cost and availability for AI data center procurement — power grid stress, renewable capacity, natural gas pricing, carbon costs, and energy transition risk by jurisdiction.
compute.energyReturns: energy stress score, jurisdiction rankings (US/EU/APAC), cost trajectory (30/60/90d), recommended hedging windows.
When to use: When evaluating data center locations. When negotiating long-term power purchase agreements. When assessing energy cost exposure for new compute capacity.
compute.sovereign_risk
Section titled “compute.sovereign_risk”Sovereign and geopolitical risk for compute infrastructure — jurisdiction-level assessment across Taiwan, South Korea, Japan, Netherlands, Singapore, US, and China.
compute.sovereign_riskReturns: stability score per jurisdiction, active geopolitical alerts, cross-strait risk level, export control change probability (90d), recommended diversification actions.
When to use: When stress-testing supply chain dependencies. Before committing to single-source procurement from Taiwan-based fabs. When evaluating export control exposure.
compute.cascade
Section titled “compute.cascade”Simulate what happens downstream when a specific chokepoint fails. Returns cascade sequence, time-to-impact per supply chain tier, cost impact estimates, and recommended hedges.
compute.cascade shock="TSMC N3 fab offline 60 days" magnitude=80compute.cascade shock="ASML EUV embargo expanded" magnitude=70compute.cascade shock="Taiwan Strait closure" magnitude=90compute.cascade shock="CoWoS packaging capacity -40%" magnitude=60compute.cascade shock="rare earth export quota cut 30%" magnitude=65Returns: ordered cascade sequence (which suppliers/sectors affected and when), estimated price impact, procurement hedge recommendations, alternative sourcing options.
When to use: Supply chain stress testing. Procurement contingency planning. Board-level risk briefings.
compute.shipping
Section titled “compute.shipping”Shipping and logistics stress for AI hardware — container availability, port congestion (Rotterdam, Singapore, LA/Long Beach, Kaohsiung), air freight rates, customs delays.
compute.shippingReturns: shipping stress score (0–100), per-route alerts, estimated delay by corridor, recommended logistics windows.
When to use: Planning GPU cluster delivery timelines. Assessing whether spot hardware orders will arrive on schedule.
compute.macro_timing
Section titled “compute.macro_timing”Macro conditions for large capital commitments — credit conditions, FX risk for cross-border procurement (USD/TWD, USD/JPY, USD/EUR), inflation trajectory for construction and energy costs.
compute.macro_timingReturns: macro stress score, credit spread conditions, FX regime per pair, commitment window recommendation (now / delay 30d / delay 90d).
When to use: Before signing multi-hundred-million-dollar supply agreements. Before announcing data center build programs. When assessing whether to lock in pricing now or wait.
compute.commodity
Section titled “compute.commodity”Commodity intelligence for compute inputs — rare earths (neodymium, dysprosium, gallium, germanium), industrial metals (copper, cobalt), and energy commodities (natural gas, silicon).
compute.commodityReturns: spot pricing trends, supply concentration risk by country, 30/60/90d outlook, active alerts.
When to use: Assessing cost risk in long-term supply agreements. Evaluating supplier ESG exposure in rare earth sourcing.
Example agent session
Section titled “Example agent session”In Claude Desktop with DPX MCP configured:
You: I need to assess whether now is a good time to commit to a $500M GPU order from TSMC and sign a 3-year supply agreement.
Claude: I'll check supply chain conditions, macro timing, and sovereign risk.
→ compute.supply_chain→ compute.macro_timing→ compute.sovereign_risk→ compute.cascade shock="TSMC fab capacity -20%" magnitude=75
Based on current signals:- Supply chain: CoWoS packaging is constrained (alert: 6-8 week lead time extension active). Locking in now captures current allocation before Q3 demand surge.- Macro: Credit conditions are favorable for large capital commitments. USD/TWD is stable — no FX hedging urgency.- Sovereign: Cross-strait risk elevated vs 6-month baseline but below threshold for supply chain restructuring recommendation.- Cascade simulation: TSMC -20% capacity causes ~40% GPU price increase within 45 days. Securing allocation now is the hedge.
Recommendation: Proceed with commitment. The supply allocation riskoutweighs the macro case for delay.Connecting payments to procurement
Section titled “Connecting payments to procurement”Once your agent makes a procurement decision, DPX handles the settlement — same tools, same session. Cross-border payments to TSMC (TWD), ASML (EUR), or Samsung (KRW) route through the DPX settlement rail with full compliance documentation.
compute.macro_timing → check conditionssettlement.quote → price the cross-border paymentcompliance.screen → screen the counterpartysettlement.execute → move fundsThis closes the loop from intelligence to execution in a single agent session.
MCP (Claude Desktop / Cursor)
{ "mcpServers": { "dpx": { "command": "npx", "args": ["-y", "@untitledfinancial/dpx-mcp"], "env": { "INTELLIGENCE_API_KEY": "your_key_here" } } }}Get an intelligence API key: docs.untitledfinancial.com/beta
REST
All compute.* tools call intelligence.untitledfinancial.com directly:
curl https://intelligence.untitledfinancial.com/v1/intelligence/supply-chain \ -H "X-API-Key: your_key"
curl https://intelligence.untitledfinancial.com/v1/intelligence/cascade \ -X POST \ -H "X-API-Key: your_key" \ -H "Content-Type: application/json" \ -d '{"shock": "TSMC N3 fab offline 60 days", "magnitude": 80}'Related
Section titled “Related”- For AI builders — payment tools alongside these intelligence tools
- Intelligence API — full endpoint reference
- Commodity Forecast — 11-symbol climate-driven outlook