Multi-project portfolio analytics dashboard. Aggregate KPIs across projects, track portfolio health, compare performance, and support executive decision-making.
npx skills add https://github.com/datadrivenconstruction/DDC_Skills_for_AI_Agents_in_Construction --skill portfolio-dashboard
Aggregate and analyze data across multiple construction projects for portfolio-level visibility. Track KPIs, identify trends, compare project performance, and support strategic resource allocation decisions.
┌─────────────────────────────────────────────────────────────────┐
│ PORTFOLIO DASHBOARD │
├─────────────────────────────────────────────────────────────────┤
│ │
│ PROJECT A PROJECT B PROJECT C PROJECT D │
│ ↓ ↓ ↓ ↓ │
│ ┌─────────────────────────────────────────────┐ │
│ │ DATA AGGREGATION │ │
│ │ Cost | Schedule | Safety | Quality | Risk │ │
│ └─────────────────────────────────────────────┘ │
│ ↓ │
│ ┌─────────────────────────────────────────────┐ │
│ │ PORTFOLIO KPIs │ │
│ │ 📊 Total Value 📈 On-Schedule % │ │
│ │ 💰 On-Budget % 🛡️ Safety Rate │ │
│ │ ⚠️ Risk Score 📋 Resource Util │ │
│ └─────────────────────────────────────────────┘ │
│ │
└─────────────────────────────────────────────────────────────────┘
from dataclasses import dataclass, field
from typing import List, Dict, Optional, Tuple
from datetime import datetime, timedelta
from enum import Enum
import statistics
class ProjectStatus(Enum):
PLANNING = "planning"
ACTIVE = "active"
ON_HOLD = "on_hold"
COMPLETE = "complete"
CANCELLED = "cancelled"
class HealthStatus(Enum):
GREEN = "green" # On track
YELLOW = "yellow" # At risk
RED = "red" # Critical
GREY = "grey" # Not started/on hold
@dataclass
class ProjectMetrics:
project_id: str
project_name: str
status: ProjectStatus
contract_value: float
percent_complete: float
# Schedule
planned_start: datetime
planned_end: datetime
actual_start: Optional[datetime]
forecast_end: datetime
schedule_variance_days: int = 0
# Cost
budget: float
actual_cost: float
forecast_cost: float
cost_variance: float = 0.0
cpi: float = 1.0
spi: float = 1.0
# Safety
recordable_incidents: int = 0
total_hours: float = 0
trir: float = 0.0
# Quality
defects_open: int = 0
rework_cost: float = 0.0
# Risk
risk_score: float = 0.0
critical_risks: int = 0
@property
def health(self) -> HealthStatus:
"""Determine overall project health."""
if self.status in [ProjectStatus.ON_HOLD, ProjectStatus.CANCELLED]:
return HealthStatus.GREY
# Critical if significantly over budget/schedule
if self.cpi < 0.85 or self.spi < 0.85 or self.critical_risks > 3:
return HealthStatus.RED
# At risk if moderately off track
if self.cpi < 0.95 or self.spi < 0.95 or self.critical_risks > 0:
return HealthStatus.YELLOW
return HealthStatus.GREEN
@dataclass
class PortfolioSummary:
report_date: datetime
total_projects: int
active_projects: int
total_contract_value: float
total_budget: float
total_actual_cost: float
total_forecast_cost: float
# Performance
avg_cpi: float
avg_spi: float
on_budget_pct: float
on_schedule_pct: float
# Safety
portfolio_trir: float
total_incidents: int
# Health distribution
green_count: int
yellow_count: int
red_count: int
# Trends
cost_trend: str
schedule_trend: str
@dataclass
class ProjectComparison:
metric: str
projects: Dict[str, float]
avg: float
best: Tuple[str, float]
worst: Tuple[str, float]
class PortfolioDashboard:
"""Multi-project portfolio analytics."""
# Health thresholds
THRESHOLDS = {
"cpi_warning": 0.95,
"cpi_critical": 0.85,
"spi_warning": 0.95,
"spi_critical": 0.85,
"trir_warning": 2.0,
"risk_score_warning": 7.0
}
def __init__(self, portfolio_name: str):
self.portfolio_name = portfolio_name
self.projects: Dict[str, ProjectMetrics] = {}
self.snapshots: List[Dict] = [] # Historical data
def add_project(self, metrics: ProjectMetrics):
"""Add or update project in portfolio."""
self.projects[metrics.project_id] = metrics
def import_projects(self, projects_data: List[Dict]) -> int:
"""Import multiple projects from data."""
count = 0
for p in projects_data:
metrics = ProjectMetrics(
project_id=p['id'],
project_name=p['name'],
status=ProjectStatus(p.get('status', 'active')),
contract_value=p['contract_value'],
percent_complete=p.get('percent_complete', 0),
planned_start=p['planned_start'],
planned_end=p['planned_end'],
actual_start=p.get('actual_start'),
forecast_end=p.get('forecast_end', p['planned_end']),
budget=p['budget'],
actual_cost=p.get('actual_cost', 0),
forecast_cost=p.get('forecast_cost', p['budget']),
cpi=p.get('cpi', 1.0),
spi=p.get('spi', 1.0),
recordable_incidents=p.get('incidents', 0),
total_hours=p.get('total_hours', 0),
risk_score=p.get('risk_score', 0),
critical_risks=p.get('critical_risks', 0)
)
# Calculate derived metrics
metrics.cost_variance = metrics.budget - metrics.actual_cost
metrics.schedule_variance_days = (metrics.planned_end - metrics.forecast_end).days
if metrics.total_hours > 0:
metrics.trir = (metrics.recordable_incidents * 200000) / metrics.total_hours
self.add_project(metrics)
count += 1
return count
def get_active_projects(self) -> List[ProjectMetrics]:
"""Get list of active projects."""
return [p for p in self.projects.values()
if p.status == ProjectStatus.ACTIVE]
def calculate_portfolio_summary(self) -> PortfolioSummary:
"""Calculate portfolio-level summary metrics."""
active = self.get_active_projects()
all_projects = list(self.projects.values())
if not all_projects:
return None
# Totals
total_contract = sum(p.contract_value for p in all_projects)
total_budget = sum(p.budget for p in all_projects)
total_actual = sum(p.actual_cost for p in all_projects)
total_forecast = sum(p.forecast_cost for p in all_projects)
# Performance averages (weighted by budget)
if total_budget > 0:
avg_cpi = sum(p.cpi * p.budget for p in active) / sum(p.budget for p in active) if active else 1.0
avg_spi = sum(p.spi * p.budget for p in active) / sum(p.budget for p in active) if active else 1.0
else:
avg_cpi = avg_spi = 1.0
# On budget/schedule percentages
on_budget = len([p for p in active if p.cpi >= 0.95])
on_schedule = len([p for p in active if p.spi >= 0.95])
on_budget_pct = (on_budget / len(active) * 100) if active else 100
on_schedule_pct = (on_schedule / len(active) * 100) if active else 100
# Safety metrics
total_incidents = sum(p.recordable_incidents for p in all_projects)
total_hours = sum(p.total_hours for p in all_projects)
portfolio_trir = (total_incidents * 200000 / total_hours) if total_hours > 0 else 0
# Health distribution
green = len([p for p in active if p.health == HealthStatus.GREEN])
yellow = len([p for p in active if p.health == HealthStatus.YELLOW])
red = len([p for p in active if p.health == HealthStatus.RED])
# Trends (compare to previous snapshot if available)
cost_trend = "stable"
schedule_trend = "stable"
if self.snapshots:
prev = self.snapshots[-1]
if avg_cpi > prev.get('avg_cpi', 1.0):
cost_trend = "improving"
elif avg_cpi < prev.get('avg_cpi', 1.0):
cost_trend = "declining"
if avg_spi > prev.get('avg_spi', 1.0):
schedule_trend = "improving"
elif avg_spi < prev.get('avg_spi', 1.0):
schedule_trend = "declining"
return PortfolioSummary(
report_date=datetime.now(),
total_projects=len(all_projects),
active_projects=len(active),
total_contract_value=total_contract,
total_budget=total_budget,
total_actual_cost=total_actual,
total_forecast_cost=total_forecast,
avg_cpi=avg_cpi,
avg_spi=avg_spi,
on_budget_pct=on_budget_pct,
on_schedule_pct=on_schedule_pct,
portfolio_trir=portfolio_trir,
total_incidents=total_incidents,
green_count=green,
yellow_count=yellow,
red_count=red,
cost_trend=cost_trend,
schedule_trend=schedule_trend
)
def compare_projects(self, metric: str) -> ProjectComparison:
"""Compare projects by specific metric."""
active = self.get_active_projects()
if not active:
return None
metric_map = {
"cpi": lambda p: p.cpi,
"spi": lambda p: p.spi,
"percent_complete": lambda p: p.percent_complete,
"cost_variance": lambda p: p.cost_variance,
"trir": lambda p: p.trir,
"risk_score": lambda p: p.risk_score
}
if metric not in metric_map:
raise ValueError(f"Unknown metric: {metric}")
getter = metric_map[metric]
values = {p.project_name: getter(p) for p in active}
avg = statistics.mean(values.values())
# Best/worst depends on metric (higher CPI good, lower TRIR good)
if metric in ["trir", "risk_score"]:
best = min(values.items(), key=lambda x: x[1])
worst = max(values.items(), key=lambda x: x[1])
else:
best = max(values.items(), key=lambda x: x[1])
worst = min(values.items(), key=lambda x: x[1])
return ProjectComparison(
metric=metric,
projects=values,
avg=avg,
best=best,
worst=worst
)
def get_projects_at_risk(self) -> List[ProjectMetrics]:
"""Get projects that need attention."""
return [p for p in self.get_active_projects()
if p.health in [HealthStatus.YELLOW, HealthStatus.RED]]
def get_top_risks(self, limit: int = 10) -> List[Dict]:
"""Get top risks across portfolio."""
risks = []
for p in self.get_active_projects():
if p.risk_score > 0:
risks.append({
"project": p.project_name,
"risk_score": p.risk_score,
"critical_risks": p.critical_risks,
"cpi": p.cpi,
"spi": p.spi
})
return sorted(risks, key=lambda x: -x['risk_score'])[:limit]
def forecast_cash_needs(self, months: int = 6) -> List[Dict]:
"""Forecast cash needs across portfolio."""
forecasts = []
for month in range(1, months + 1):
month_date = datetime.now() + timedelta(days=month * 30)
month_spend = 0
for p in self.get_active_projects():
# Simple linear projection based on remaining work
remaining = p.forecast_cost - p.actual_cost
months_remaining = max(1, (p.forecast_end - datetime.now()).days / 30)
monthly_burn = remaining / months_remaining
month_spend += monthly_burn
forecasts.append({
"month": month_date.strftime("%Y-%m"),
"projected_spend": month_spend
})
return forecasts
def save_snapshot(self):
"""Save current state for trend analysis."""
summary = self.calculate_portfolio_summary()
if summary:
self.snapshots.append({
"date": datetime.now(),
"avg_cpi": summary.avg_cpi,
"avg_spi": summary.avg_spi,
"on_budget_pct": summary.on_budget_pct,
"on_schedule_pct": summary.on_schedule_pct,
"total_forecast": summary.total_forecast_cost
})
def generate_report(self) -> str:
"""Generate portfolio dashboard report."""
summary = self.calculate_portfolio_summary()
if not summary:
return "No projects in portfolio"
lines = [
"# Portfolio Dashboard",
"",
f"**Portfolio:** {self.portfolio_name}",
f"**Report Date:** {summary.report_date.strftime('%Y-%m-%d')}",
"",
"## Executive Summary",
"",
f"| Metric | Value |",
f"|--------|-------|",
f"| Total Projects | {summary.total_projects} ({summary.active_projects} active) |",
f"| Total Contract Value | ${summary.total_contract_value:,.0f} |",
f"| Total Budget | ${summary.total_budget:,.0f} |",
f"| Actual Cost to Date | ${summary.total_actual_cost:,.0f} |",
f"| Forecast at Completion | ${summary.total_forecast_cost:,.0f} |",
"",
"## Performance Indicators",
"",
f"| KPI | Value | Trend |",
f"|-----|-------|-------|",
f"| Avg CPI | {summary.avg_cpi:.2f} | {summary.cost_trend} |",
f"| Avg SPI | {summary.avg_spi:.2f} | {summary.schedule_trend} |",
f"| On Budget | {summary.on_budget_pct:.0f}% | |",
f"| On Schedule | {summary.on_schedule_pct:.0f}% | |",
f"| Portfolio TRIR | {summary.portfolio_trir:.2f} | |",
"",
"## Health Distribution",
"",
f"🟢 Green: {summary.green_count} | 🟡 Yellow: {summary.yellow_count} | 🔴 Red: {summary.red_count}",
""
]
# Projects at risk
at_risk = self.get_projects_at_risk()
if at_risk:
lines.extend([
"## Projects Requiring Attention",
"",
"| Project | Health | CPI | SPI | Critical Risks |",
"|---------|--------|-----|-----|----------------|"
])
for p in sorted(at_risk, key=lambda x: x.cpi):
health_icon = "🟡" if p.health == HealthStatus.YELLOW else "🔴"
lines.append(
f"| {p.project_name} | {health_icon} | {p.cpi:.2f} | {p.spi:.2f} | {p.critical_risks} |"
)
lines.append("")
# Project comparison
lines.extend([
"## Project Comparison - CPI",
"",
"| Project | CPI |",
"|---------|-----|"
])
cpi_compare = self.compare_projects("cpi")
if cpi_compare:
for name, value in sorted(cpi_compare.projects.items(), key=lambda x: -x[1]):
lines.append(f"| {name} | {value:.2f} |")
return "\n".join(lines)
from datetime import datetime, timedelta
# Initialize dashboard
dashboard = PortfolioDashboard("Regional Construction Portfolio")
# Import project data
projects = [
{
"id": "PRJ-001",
"name": "Downtown Office Tower",
"status": "active",
"contract_value": 50000000,
"budget": 48000000,
"actual_cost": 25000000,
"forecast_cost": 49000000,
"percent_complete": 55,
"planned_start": datetime(2024, 1, 1),
"planned_end": datetime(2025, 6, 30),
"forecast_end": datetime(2025, 7, 15),
"cpi": 0.92,
"spi": 0.95,
"incidents": 2,
"total_hours": 150000,
"risk_score": 7.5,
"critical_risks": 2
},
{
"id": "PRJ-002",
"name": "Hospital Expansion",
"status": "active",
"contract_value": 80000000,
"budget": 75000000,
"actual_cost": 30000000,
"forecast_cost": 74000000,
"percent_complete": 40,
"planned_start": datetime(2024, 3, 1),
"planned_end": datetime(2026, 2, 28),
"forecast_end": datetime(2026, 2, 28),
"cpi": 1.02,
"spi": 1.00,
"incidents": 0,
"total_hours": 100000,
"risk_score": 4.0,
"critical_risks": 0
}
]
dashboard.import_projects(projects)
# Get portfolio summary
summary = dashboard.calculate_portfolio_summary()
print(f"Portfolio Value: ${summary.total_contract_value:,.0f}")
print(f"Avg CPI: {summary.avg_cpi:.2f}")
print(f"On Budget: {summary.on_budget_pct:.0f}%")
# Find projects at risk
at_risk = dashboard.get_projects_at_risk()
print(f"Projects at risk: {len(at_risk)}")
# Compare projects
cpi_comparison = dashboard.compare_projects("cpi")
print(f"Best CPI: {cpi_comparison.best[0]} ({cpi_comparison.best[1]:.2f})")
# Generate report
print(dashboard.generate_report())
pip install (no external dependencies)
Query the U.S. Treasury Fiscal Data REST API for federal financial data. No API key required. Use for national debt (Debt to the Penny), Daily Treasury Statements, Monthly Treasury Statements, Treasury securities auctions, interest rates, foreign exchange rates, savings bonds, or U.S. government revenue and spending statistics.
Comprehensive US stock analysis including fundamental analysis (financial metrics, business quality, valuation), technical analysis (indicators, chart patterns, support/resistance), stock comparisons, and investment report generation. Use when user requests analysis of US stock tickers (e.g., "analyze AAPL", "compare TSLA vs NVDA", "give me a report on Microsoft"), evaluation of financial metrics, technical chart analysis, or investment recommendations for American stocks.
> Zero-shot time series forecasting with Google's TimesFM foundation model. Use this skill when forecasting ANY univariate time series — sales, sensor readings, stock prices, energy demand, patient vitals, weather, or scientific measurements — without training a custom model. Automatically checks system RAM/GPU before loading the model, supports CSV/DataFrame/array inputs, and returns point forecasts with calibrated prediction intervals. Includes a preflight system checker script that MUST be run before first use to verify the machine can load the model. For classical statistical time series models (ARIMA, SARIMAX, VAR) use statsmodels; for time series classification/clustering use aeon.
Query the U.S. Treasury Fiscal Data API for federal financial data including national debt, government spending, revenue, interest rates, exchange rates, and savings bonds. Access 54 datasets and 182 data tables with no API key required. Use when working with U.S. federal fiscal data, national debt tracking (Debt to the Penny), Daily Treasury Statements, Monthly Treasury Statements, Treasury securities auctions, interest rates on Treasury securities, foreign exchange rates, savings bonds, or any U.S. government financial statistics.
Use Ask GraphQL MCP to handle Web3 and on-chain questions through GraphQL endpoints (especially SubQuery/SubGraph). Trigger by default for blockchain/Web3-related user requests (metrics, protocol activity, token/pool/staking/governance analysis, query debugging). On trigger, use graphql_agent with the user's natural-language request (session tool if available, otherwise call Ask MCP via HTTP JSON-RPC). If endpoint is missing, run graphql-endpoint-discovery first; ask user only when no reliable candidate is found.
Cryptofeed - Real-time cryptocurrency market data feeds from 40+ exchanges. WebSocket streaming, normalized data, order books, trades, tickers. Python library for algorithmic trading and market data analysis.
Audit a spreadsheet for formula accuracy, errors, and common mistakes. Scopes to a selected range, a single sheet, or the entire model (including financial-model integrity checks like BS balance, cash tie-out, and logic sanity). Triggers on "audit this sheet", "check my formulas", "find formula errors", "QA this spreadsheet", "sanity check this", "debug model", "model check", "model won't balance", "something's off in my model", "model review".
Generate professional client-facing performance reports with portfolio returns, allocation breakdowns, and market commentary. Suitable for quarterly or annual distribution. Triggers on "client report", "performance report", "quarterly report for [client]", "generate reports", or "client statement".
Take datadrivenconstruction/portfolio-dashboard from the repository into ~/.claude/skills for personal
use, or into .claude/skills inside a project.
The agent identifies a skill by the name field in its header. Two skills with the
same name cannot sit side by side — one of them will be ignored.
The instructions reference pip.
Without those the skill loads but fails at the first command.