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meleantonio/awesome-econ-ai-stuff325 installs

r-econometrics

Run IV, DiD, and RDD analyses in R with proper diagnostics

How do I install this agent skill?

npx skills add https://github.com/meleantonio/awesome-econ-ai-stuff --skill r-econometrics
view source ↗

Is this agent skill safe to install?

  • Gen Agent Trust Hubpass

    The skill provides safe instructions for generating econometric analysis code in R. It uses standard, reputable packages and follows common data science practices for local file handling.

  • Socketpass

    No alerts

  • Snykpass

    Risk: LOW · No issues

  • Runlayerwarn

    2/2 files flagged

  • ZeroLeakspass

    Score: 93/100 · 2 sections analyzed

What does this agent skill do?

R Econometrics

Purpose

This skill helps economists run rigorous econometric analyses in R, including Instrumental Variables (IV), Difference-in-Differences (DiD), and Regression Discontinuity Design (RDD). It generates publication-ready code with proper diagnostics and robust standard errors.

When to Use

  • Running causal inference analyses
  • Estimating treatment effects with panel data
  • Creating publication-ready regression tables
  • Implementing modern econometric methods (two-way fixed effects, event studies)

Instructions

Step 1: Understand the Research Design

Before generating code, ask the user:

  1. What is your identification strategy? (IV, DiD, RDD, or simple regression)
  2. What is the unit of observation? (individual, firm, country-year, etc.)
  3. What fixed effects do you need? (entity, time, two-way)
  4. How should standard errors be clustered?

Step 2: Generate Analysis Code

Based on the research design, generate R code that:

  1. Uses the fixest package - Modern, fast, and feature-rich for panel data
  2. Includes proper diagnostics:
    • For IV: First-stage F-statistics, weak instrument tests
    • For DiD: Parallel trends visualization, event study plots
    • For RDD: Bandwidth selection, density tests
  3. Uses robust/clustered standard errors appropriate for the data structure
  4. Creates publication-ready output using modelsummary or etable

Step 3: Structure the Output

Always include:

# 1. Setup and packages
# 2. Data loading and preparation
# 3. Descriptive statistics
# 4. Main specification
# 5. Robustness checks
# 6. Visualization
# 7. Export results

Step 4: Add Documentation

Include comments explaining:

  • Why each specification choice was made
  • Interpretation of key coefficients
  • Limitations and assumptions

Example Prompts

  • "Run a DiD analysis with state and year fixed effects, clustering at the state level"
  • "Estimate the effect of X on Y using Z as an instrument"
  • "Create an event study plot showing treatment effects by year"
  • "Run a sharp RDD with optimal bandwidth selection"

Example Output

# ============================================
# Difference-in-Differences Analysis
# ============================================

# Setup
library(tidyverse)
library(fixest)
library(modelsummary)

# Load data
df <- read_csv("data.csv")

# Prepare treatment variable
df <- df %>%
  mutate(
    post = year >= treatment_year,
    treated = state %in% treatment_states,
    treat_post = treated * post
  )

# ----------------------------------------
# Main DiD Specification
# ----------------------------------------

# Two-way fixed effects
did_model <- feols(
  outcome ~ treat_post | state + year,
  data = df,
  cluster = ~state
)

# View results
summary(did_model)

# ----------------------------------------
# Event Study
# ----------------------------------------

# Create relative time variable
df <- df %>%
  mutate(rel_time = year - treatment_year)

# Event study regression
event_study <- feols(
  outcome ~ i(rel_time, treated, ref = -1) | state + year,
  data = df,
  cluster = ~state
)

# Plot coefficients
iplot(event_study, 
      main = "Event Study: Effect on Outcome",
      xlab = "Years Relative to Treatment")

# ----------------------------------------
# Robustness: Alternative Specifications
# ----------------------------------------

# Different clustering
did_robust <- feols(
  outcome ~ treat_post | state + year,
  data = df,
  cluster = ~state + year  # Two-way clustering
)

# ----------------------------------------
# Export Results
# ----------------------------------------

modelsummary(
  list("Main" = did_model, "Two-way Cluster" = did_robust),
  stars = c('*' = 0.1, '**' = 0.05, '***' = 0.01),
  output = "results/did_table.tex"
)

Requirements

Software

  • R 4.0+

Packages

  • fixest - Fast fixed effects estimation
  • modelsummary - Publication-ready tables
  • tidyverse - Data manipulation
  • ggplot2 - Visualization

Install with:

install.packages(c("fixest", "modelsummary", "tidyverse"))

Best Practices

  1. Always cluster standard errors at the level of treatment assignment
  2. Run pre-trend tests for DiD designs
  3. Report first-stage F-statistics for IV (should be > 10)
  4. Use feols over lm for panel data (faster and more features)
  5. Document all specification choices in your code comments

Common Pitfalls

  • ❌ Not clustering standard errors at the right level
  • ❌ Ignoring weak instruments in IV estimation
  • ❌ Using TWFE with staggered treatment timing (use did or sunab() instead)
  • ❌ Not reporting robustness checks

References

Changelog

v1.0.0

  • Initial release with IV, DiD, RDD support

Add the canonical catalog link to the repository README so users can inspect current installs and available audits. The publishing guide covers the complete discovery path.

<a href="https://skillzs.dev/skills/meleantonio/awesome-econ-ai-stuff/r-econometrics">View r-econometrics on skillZs</a>