modeling-construction-period-risk
Analyzes construction risk with EPC contract review, delay and cost overrun scenarios, and completion guarantee structures. Use when modeling construction risk, evaluating EPC terms, or stress testing project timelines.
Best use case
modeling-construction-period-risk is best used when you need a repeatable AI agent workflow instead of a one-off prompt.
Analyzes construction risk with EPC contract review, delay and cost overrun scenarios, and completion guarantee structures. Use when modeling construction risk, evaluating EPC terms, or stress testing project timelines.
Teams using modeling-construction-period-risk should expect a more consistent output, faster repeated execution, less prompt rewriting.
When to use this skill
- You want a reusable workflow that can be run more than once with consistent structure.
When not to use this skill
- You only need a quick one-off answer and do not need a reusable workflow.
- You cannot install or maintain the underlying files, dependencies, or repository context.
Installation
Claude Code / Cursor / Codex
Manual Installation
- Download SKILL.md from GitHub
- Place it in
.claude/skills/modeling-construction-period-risk/SKILL.mdinside your project - Restart your AI agent — it will auto-discover the skill
How modeling-construction-period-risk Compares
| Feature / Agent | modeling-construction-period-risk | Standard Approach |
|---|---|---|
| Platform Support | Not specified | Limited / Varies |
| Context Awareness | High | Baseline |
| Installation Complexity | Unknown | N/A |
Frequently Asked Questions
What does this skill do?
Analyzes construction risk with EPC contract review, delay and cost overrun scenarios, and completion guarantee structures. Use when modeling construction risk, evaluating EPC terms, or stress testing project timelines.
Where can I find the source code?
You can find the source code on GitHub using the link provided at the top of the page.
SKILL.md Source
# Modeling Construction Period Risk ## When To Use - Modeling construction-phase cash flows and risk exposure for infrastructure or energy projects - Evaluating EPC/turnkey contract terms for bankability and risk allocation - Stress-testing project timelines against delay and cost overrun scenarios - Assessing completion guarantee structures (parent guarantees, surety bonds, LC-backed facilities) - Underwriting construction-period debt sizing and draw schedules - Reviewing PPP/concession projects where construction risk drives financial close conditions ## Inputs To Gather - **EPC contract** — fixed-price vs. cost-plus structure, GMP caps, scope of work, change order provisions, LD schedule (delay LDs and performance LDs), force majeure definition, termination triggers - **Construction budget** — total EPC price, owner's costs, development fees, contingency allocation (typically 5-15% for greenfield), IDC assumptions - **Construction schedule** — milestone timeline, critical path items, long-lead equipment delivery dates, commissioning/testing period, target COD - **Funding plan** — equity/debt split, draw schedule, construction facility terms (commitment fees, margin during construction), equity contribution agreement timing - **Contractor profile** — EPC contractor credit rating, track record on comparable projects, bonding capacity, subcontractor reliance - **Insurance program** — builder's risk, delay-in-startup (DSU/ALOP) coverage, deductibles, sub-limits - **Site/permitting status** — land acquisition status, environmental permits, interconnection agreements, offtake contract conditions precedent [VERIFY: jurisdiction-specific permitting requirements] ## Workflow 1. **Map the EPC risk allocation** — Extract key risk provisions from the EPC contract: price structure (lump-sum turnkey vs. open-book), LD caps (typical range: 15-20% of contract price for aggregate LDs), warranty scope, defect liability period, and carve-outs from contractor liability (force majeure, owner-caused delays, change-in-law) 2. **Build the construction cost model** — Structure total project cost as: EPC price + owner's costs + development fees + financing costs (IDC + fees) + contingency. Model contingency drawdown assumptions. Separate hard costs from soft costs. Flag any cost items outside the EPC wrap [VERIFY: treatment of sales tax/VAT on construction costs by jurisdiction] 3. **Model the draw schedule** — Create monthly or quarterly construction draw curves. Standard S-curve or milestone-based draws tied to EPC payment schedule. Layer in equity-first vs. pro-rata vs. debt-first contribution mechanics. Calculate IDC based on drawn balances and construction facility pricing 4. **Run delay scenarios** — Model 3-6-12 month delay cases: - Revenue impact: lost operating cash flow during delay period - Cost impact: additional IDC, extended owner's costs, standby charges - LD recovery: delay LD accrual ($/day) capped at contract maximum - Funding gap: does contingency cover the shortfall? Is there a cost overrun facility? - Debt service: impact on first principal payment date, tail ratios, sculpted repayment profile 5. **Run cost overrun scenarios** — Model 10-20-30% cost overrun cases: - Within EPC wrap: contractor absorbs (verify LD and liability caps) - Outside EPC wrap: owner's cost escalation, scope changes, unforeseen conditions - Funding response: contingency drawdown → cost overrun facility → equity cure → lender step-in rights - Assess whether completion guarantee or sponsor support agreement covers the gap 6. **Evaluate completion guarantee structures** — Assess the enforceability and credit backing of: - Sponsor completion guarantees (cost and date certain) - Surety bonds / performance bonds (typically 10-30% of EPC price) - Standby letters of credit - Contingent equity commitments - DSU insurance as partial backstop for delay risk 7. **Stress-test debt metrics during construction** — Calculate construction-period covenant compliance: maximum loan-to-cost ratio, minimum equity contribution percentage, conditions precedent to each draw (independent engineer certification, budget-to-complete test). Model whether delay/overrun scenarios trigger draw-stop events or covenant breaches ## Output - **Construction risk matrix** — tabular mapping of risk category → contractual allocation → residual exposure → mitigation mechanism - **Base case construction budget and draw schedule** — monthly/quarterly with IDC, contingency, and funding source breakdown - **Delay scenario dashboard** — 3/6/12-month delay impact on total cost, funding gap, LD recovery, and debt metrics - **Cost overrun waterfall** — sequential funding response (contingency → overrun facility → equity cure → guarantee call) with breakpoints - **Completion guarantee assessment** — credit quality of guarantor, cap adequacy, trigger conditions, gap analysis - **Key risk flags** — items requiring lender/investor attention (uncapped risks, thin contingency, weak contractor credit, permit gaps) ## Quality Checks - Verify EPC LD caps are correctly applied as % of contract price — not total project cost - Confirm IDC calculation uses actual draw schedule timing, not a flat average - Check that contingency is sized relative to identified risks, not just a blanket percentage - Ensure delay scenarios capture cascading effects (IDC + lost revenue + extended owner's costs simultaneously) - Validate that completion guarantee coverage matches or exceeds modeled worst-case funding gap - Cross-check construction facility commitment amount against peak draw requirement plus headroom - Confirm all cost and schedule assumptions are sourced (independent engineer report, EPC contract, or sponsor estimate) — mark unsourced items with [VERIFY] - Flag any scenario where the project cannot reach financial completion under stress without additional uncommitted support