GitHub Security:

 GitHub Security: Your Complete Guide to Protecting Code, Credentials, and Collaboration

Everything you need to know about keeping your GitHub repositories safe—from SSH keys and authentication to secrets management and branch protection rules—explained in plain, practical language.

📅 Published: Feb 2026
⏱️ Estimated Reading Time: 18 minutes
🏷️ Tags: GitHub Security, SSH Keys, Secrets Management, Branch Protection, Authentication, DevSecOps

---

🛡️ Introduction: Why GitHub Security Matters

The Security Reality

Your GitHub repositories are the crown jewels of your development process. They contain:

• 📁 Your source code—the intellectual property that makes your product unique

• 🔑 API keys, database passwords, and other secrets (if you're not careful)

• 📝 Configuration details about your infrastructure

• 👥 Your team's collaboration history and knowledge

• 🚀 Deployment configurations that control your production environment

If an attacker gains access to your GitHub repositories, they can:

• Steal your proprietary code

• Insert backdoors into your applications

• Access your cloud infrastructure

• Impersonate your developers

• Destroy your entire codebase

This isn't theoretical. Every day, attackers scan GitHub for accidentally committed secrets. Every week, there's a story about a company breached through compromised GitHub credentials. Every month, development teams scramble to rotate leaked keys.

GitHub security isn't optional—it's essential. And it's not just about preventing attacks. It's about:

• ✅ Ensuring only the right people can change critical branches

• ✅ Protecting your team from accidental exposure

• ✅ Building trust with users and customers

• ✅ Complying with security standards and regulations

• ✅ Sleeping better at night

---

The GitHub Security Layers

GitHub security works in layers, like an onion:

Each layer protects against different threats:

• Access Control → Who can get in?

• Repository Security → What can they do once inside?

• Code Security → Is the code itself safe?

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🔑 SSH Keys & Authentication: Getting In Safely

The Password Problem

Passwords are the weakest link in security. They can be:

• Guessed (if they're weak)

• Stolen (phishing attacks)

• Reused (across multiple sites)

• Forgotten (locking you out)

• Exposed (in data breaches)

GitHub offers better options:

Authentication Method	Best For	Security Level
Password + 2FA	Web login	High
SSH Keys	Git operations (clone, push, pull)	Very High
Personal Access Tokens	API access, scripts, CI/CD	High
GitHub CLI	Command-line automation	High
SSO	Enterprise organizations	Very High

---

What Are SSH Keys?

SSH keys are like a digital ID card for your computer. They come in pairs:

• Private key (~/.ssh/id_rsa) — Stays on your computer, never shared

• Public key (~/.ssh/id_rsa.pub) — Uploaded to GitHub, safe to share

When you try to access GitHub via SSH:

1. Your computer says, "I'd like to connect"

2. GitHub says, "Prove it's really you"

3. Your computer uses the private key to create a signature

4. GitHub checks the signature against your public key

5. If they match, you're in!

This is called public-key cryptography, and it's mathematically secure. Even if someone steals GitHub's copy of your public key, they can't derive your private key from it.

---

Generating SSH Keys

Step 1: Check if you already have SSH keys

bash

ls -la ~/.ssh/
# Look for files like id_rsa and id_rsa.pub

Step 2: Generate a new SSH key (if needed)

bash

# Modern, secure option (Ed25519)
ssh-keygen -t ed25519 -C "your_email@example.com"

# Traditional option (RSA 4096-bit)
ssh-keygen -t rsa -b 4096 -C "your_email@example.com"

You'll be prompted:

text

Enter file in which to save the key (~/.ssh/id_ed25519): [Press Enter]
Enter passphrase (empty for no passphrase): [Type a passphrase]
Enter same passphrase again: [Type it again]

💡 PRO TIP: Always use a passphrase. It encrypts your private key on disk. If someone steals your laptop, they still can't use your key without the passphrase.

Step 3: Start the SSH agent (optional but convenient)

bash

# Start the agent in the background
eval "$(ssh-agent -s)"

# Add your key to the agent (you'll enter passphrase once)
ssh-add ~/.ssh/id_ed25519

Now you won't be prompted for your passphrase every time you use Git.

---

Adding Your SSH Key to GitHub

Step 1: Copy your public key

bash

# On macOS
cat ~/.ssh/id_ed25519.pub | pbcopy

# On Linux
cat ~/.ssh/id_ed25519.pub
# Then select and copy manually

# On Windows (PowerShell)
Get-Content ~/.ssh/id_ed25519.pub | Set-Clipboard

Step 2: Add to GitHub

1. Go to GitHub.com → Click your profile picture → Settings

2. Click SSH and GPG keys in the left sidebar

3. Click New SSH key

4. Title: "My Work Laptop" or "Personal MacBook"

5. Key type: Authentication Key

6. Key: Paste your public key

7. Click Add SSH key

Step 3: Test the connection

bash

ssh -T git@github.com
# You should see: Hi username! You've successfully authenticated...

Step 4: Use SSH for Git operations

bash

# Clone using SSH (not HTTPS)
git clone git@github.com:username/repository.git

# If you already cloned with HTTPS, change the remote
git remote set-url origin git@github.com:username/repository.git

---

Personal Access Tokens (Alternative to SSH)

Sometimes you can't use SSH—maybe you're on a restricted network or using an API. Personal Access Tokens (PATs) are the answer.

Creating a token:

1. GitHub.com → Settings → Developer settings

2. Personal access tokens → Tokens (classic)

3. Generate new token

4. Give it a descriptive name: "CI/CD Pipeline Token"

5. Set an expiration date (never use "No expiration" for security)

6. Select scopes (permissions)—only what you need!

7. Click Generate token

⚠️ CRITICAL: Copy the token immediately! GitHub will never show it again.

Using the token:

bash

# Instead of a password, use the token
git clone https://username:TOKEN@github.com/username/repository.git

# In scripts, use environment variables
export GITHUB_TOKEN="your-token-here"

Token scopes explained:

Scope	What it allows	When to use
repo	Full control of private repositories	CI/CD, automation
workflow	Update GitHub Actions workflows	CI/CD pipelines
write:packages	Publish packages	Package publishing
delete:packages	Delete packages	Cleanup scripts
admin:org	Manage organization settings	Admin tools (rare!)
user:email	Read user email addresses	User lookup

💡 PRINCIPLE OF LEAST PRIVILEGE: Only grant the minimum permissions needed. If your script only reads repositories, don't give it write access.

---

Two-Factor Authentication (2FA)

SSH keys protect your Git operations, but what about your GitHub web login? That's where 2FA comes in.

2FA adds a second layer of security:

• Something you know (your password)

• Something you have (your phone)

Setting up 2FA:

1. GitHub.com → Settings → Password and authentication

2. Click Enable two-factor authentication

3. Choose method:

   • Authenticator app (Google Authenticator, Authy, 1Password)

   • SMS text message (less secure, avoid if possible)

   • Security keys (most secure, hardware like YubiKey)

4. Scan the QR code with your app

5. Enter the verification code

6. Save your recovery codes (download them, print them, store them safely!)

Recovery codes are your lifeline. If you lose your phone, these are the only way back into your account. Store them in a password manager or safe deposit box.

---

🤫 Secrets Management: Keeping Credentials Out of Code

The #1 Mistake Developers Make

The most common—and most dangerous—GitHub mistake is committing secrets to repositories.

python

# ❌ NEVER DO THIS
API_KEY = "sk_live_12345abcde"
DATABASE_PASSWORD = "SuperSecretPassword123!"
AWS_SECRET_KEY = "wJalrXUtnFEMI/K7MDENG/bPxRfiCYEXAMPLEKEY"

Why this is catastrophic:

• 🔓 Anyone with repository access can see them

• 🤖 Bots scan GitHub 24/7 for exposed secrets

• 💰 Compromised keys can lead to data breaches and massive cloud bills

• 📜 Secrets stay in Git history forever (even if you remove them later)

The rule is simple: NEVER commit secrets to Git. Not in public repos, not in private repos, not anywhere.

---

What GitHub Scans For

GitHub automatically scans public repositories for exposed secrets:

Secret Type	Example
AWS Access Keys	AKIAIOSFODNN7EXAMPLE
AWS Secret Keys	wJalrXUtnFEMI/K7MDENG/bPxRfiCYEXAMPLEKEY
GitHub Personal Access Tokens	ghp_abc123def456
GitHub OAuth Tokens	gho_abc123def456
Google API Keys	AIzaSyD-abc123def456
Slack Tokens	xoxb-123456789012-abc123def456
Stripe Keys	sk_live_abc123def456
SSH Private Keys	-----BEGIN OPENSSH PRIVATE KEY-----

If GitHub detects a secret, it:

1. Sends an alert to repository admins

2. May automatically revoke the secret (for some providers)

3. Prevents the push from completing (if push protection is enabled)

---

GitHub Secret Scanning: How It Works

GitHub Secret Scanning is like a security guard watching every commit:

Push Protection (available in public repositories and GitHub Enterprise) actually prevents the push from completing, forcing the developer to remove the secret before the code can be committed.

Setting up secret scanning:

For public repositories (free, automatically enabled):

text

Settings → Code security and analysis → Secret scanning → Enable

For private repositories (GitHub Advanced Security required):

text

Settings → Code security and analysis → Secret scanning → Enable

---

Best Practices for Secrets Management

✅ DO: Use environment variables

bash

# In your terminal
export DATABASE_PASSWORD="your-password"

# In your code
import os
password = os.environ.get('DATABASE_PASSWORD')

✅ DO: Use .env files (and .gitignore them!)

bash

# .env file (NEVER commit this!)
DATABASE_PASSWORD=supersecret
API_KEY=abc123

# .gitignore
.env
*.env
.env.*

✅ DO: Use GitHub Secrets in GitHub Actions

yaml

# .github/workflows/deploy.yml
name: Deploy
on: [push]
jobs:
  deploy:
    runs-on: ubuntu-latest
    steps:
      - uses: actions/checkout@v4
      - name: Deploy
        env:
          API_KEY: ${{ secrets.API_KEY }}
        run: ./deploy.sh

Set secrets in: Repository → Settings → Secrets and variables → Actions

✅ DO: Use cloud secrets managers

hcl

# Terraform example
data "aws_secretsmanager_secret" "db_password" {
  name = "prod/database/password"
}

resource "aws_db_instance" "main" {
  password = data.aws_secretsmanager_secret_version.db_password.secret_string
}

✅ DO: Use GitHub's encrypted secrets for your organization

Organization-level secrets can be shared across multiple repositories:

• Settings → Secrets and variables → Actions

• Choose which repositories can access each secret

---

If You Accidentally Commit a Secret (Incident Response)

Step 1: DON'T PANIC. DO ACT QUICKLY.

Step 2: Rotate the secret immediately

• If it's an AWS key: Deactivate it in IAM

• If it's a database password: Change it

• If it's an API token: Regenerate it

Step 3: Remove the secret from Git

bash

# Remove the file entirely from history (LAST RESORT!)
git filter-branch --force --index-filter \
  "git rm --cached --ignore-unmatch path/to/file.env" \
  --prune-empty --tag-name-filter cat -- --all

# Better: Use BFG Repo-Cleaner
java -jar bfg.jar --delete-files .env

Step 4: Force push (with extreme caution!)

bash

git push --force --all
git push --force --tags

⚠️ WARNING: Force pushing rewrites history and disrupts everyone working on the repo. Coordinate with your team first!

Step 5: Check for forks

If your repository is public, assume the secret is compromised. Anyone could have forked it before you removed the secret. Rotate it and consider it burned.

Prevention is infinitely better than cure. Set up pre-commit hooks to catch secrets before they ever reach GitHub.

---

Pre-commit Hooks: Your First Line of Defense

A pre-commit hook runs automatically before each commit, scanning for secrets and blocking the commit if it finds any.

Using git-secrets (simple):

bash

# Install git-secrets
brew install git-secrets  # macOS
apt install git-secrets   # Linux

# Set up patterns
git secrets --add 'password\s*=\s*.+'
git secrets --add 'api[_-]key\s*=\s*.+'
git secrets --add 'secret\s*=\s*.+'
git secrets --add 'AKIA[0-9A-Z]{16}'  # AWS key pattern

# Scan before commit
git secrets --scan

Using pre-commit framework (more powerful):

yaml

# .pre-commit-config.yaml
repos:
  - repo: https://github.com/Yelp/detect-secrets
    rev: v1.4.0
    hooks:
      - id: detect-secrets
        args: ['--baseline', '.secrets.baseline']

bash

# Install pre-commit
pip install pre-commit
pre-commit install

# Scan all files
detect-secrets scan > .secrets.baseline

Install team-wide hooks:

bash

# One-time setup for each developer
pre-commit install

# Now every commit is automatically scanned!

---

🔒 Branch Protection Rules: Guarding Your Critical Branches

Why Protect Branches?

Imagine this nightmare scenario:

A developer accidentally runs:

bash

git push origin main --force

And just like that, a week of work from the entire team is overwritten. Gone.

Or this one:

A well-meaning developer pushes directly to main without running tests. The code has a critical bug, and production goes down.

Branch protection rules prevent these disasters. They're like seatbelts for your Git workflow—they don't prevent accidents, but they dramatically reduce the damage.

---

Core Branch Protection Rules

Setting up branch protection:

1. Go to your repository → Settings → Branches

2. Click Add rule or edit an existing rule

3. Enter the branch name pattern (e.g., main, release/*, v*.x)

Here are the essential rules every repository needs:

---

Rule 1: Require Pull Request Reviews

This is the most important rule. It prevents direct pushes to protected branches.

text

✅ Require a pull request before merging
   ✅ Require approvals (set to 1 or 2)
   ✅ Dismiss stale pull request approvals when new commits are pushed
   ✅ Require review from Code Owners

What this does:

• No one can push directly to main

• Every change must go through a PR

• PR needs at least 1 approval

• If you push new changes, approvals are reset

• Code owners (specified in CODEOWNERS file) must approve changes to their files

Why it matters:

• Ensures every change is reviewed

• Prevents "drive-by" commits

• Creates an audit trail of who approved what

• Shares knowledge across the team

---

Rule 2: Require Status Checks

This ensures code quality before merging.

text

✅ Require status checks to pass before merging
   ✅ Require branches to be up to date before merging
   [Select which status checks are required]

Common status checks:

• CI tests (GitHub Actions, Jenkins, etc.)

• Linting and formatting

• Security scans

• Build verification

• Code coverage thresholds

Example GitHub Actions workflow that provides status checks:

yaml

name: CI
on: pull_request
jobs:
  test:
    runs-on: ubuntu-latest
    steps:
      - uses: actions/checkout@v4
      - name: Run tests
        run: npm test
      - name: Lint
        run: npm run lint

Now your branch protection can require these checks to pass before merging.

---

Rule 3: Require Linear History

text

✅ Require linear history

What this does: Prevents merge commits, requiring rebasing instead.

Why it matters:

• Clean, readable Git history

• Easier to understand changes over time

• Simpler bisecting to find bugs

• No messy "merge commits" cluttering the log

How developers adapt:

bash

# Instead of git pull
git pull --rebase

# Instead of merging
git rebase main
git push --force-with-lease

---

Rule 4: Include Administrators

text

✅ Include administrators

What this does: Applies all the same rules to repository admins.

Why it matters:

• No special exceptions, even for leads

• Admins can't accidentally bypass protections

• Sets a good example for the team

• Prevents "I'm an admin, I know what I'm doing" mistakes

Administrators can still override in emergencies, but it requires explicitly disabling protection temporarily—which creates an audit trail.

---

Rule 5: Allow Force Pushes

text

❌ Allow force pushes (disable this for critical branches!)

Force pushes rewrite history. They're dangerous and should be banned on shared branches.

When you might need it:

• For feature branches (not protected)

• For emergency reverts (with extreme caution)

• Never on main, develop, or release/*

If you must allow force pushes, require:

text

✅ Specify who can force push
   (Restrict to a small set of trusted users)

---

Rule 6: Allow Deletions

text

❌ Allow deletions (disable this!)

Prevents anyone from deleting the branch entirely. Critical branches should never be deletable.

---

Complete Branch Protection Example

For a typical production branch (main, master):

text

Branch name pattern: main

✅ Require a pull request before merging
   ✅ Require 1 approval
   ✅ Dismiss stale pull request approvals
   ✅ Require review from Code Owners

✅ Require status checks to pass before merging
   ✅ Require branches to be up to date
   [ ] test, [ ] lint, [ ] security-scan

✅ Require linear history

✅ Include administrators

❌ Allow force pushes
❌ Allow deletions

For a development branch (develop):

text

Branch name pattern: develop

✅ Require a pull request before merging
   ✅ Require 1 approval
   ✅ Dismiss stale pull request approvals

✅ Require status checks to pass before merging

✅ Include administrators

❌ Allow force pushes
❌ Allow deletions

For release branches (release/*):

text

Branch name pattern: release/*

✅ Require a pull request before merging
   ✅ Require 2 approvals  (stricter for releases!)
   ✅ Dismiss stale pull request approvals

✅ Require status checks to pass before merging

✅ Include administrators

❌ Allow force pushes
❌ Allow deletions

---

CODEOWNERS: Automatic Reviewers

CODEOWNERS is a file that automatically requests reviews from specific people or teams when certain files are changed.

Create .github/CODEOWNERS:

text

# Global owners (review everything)
* @company/security-team

# Frontend changes
/src/frontend/ @company/frontend-leads @company/frontend-team

# Backend changes
/src/api/ @company/backend-team

# Database migrations
/src/db/migrations/ @company/dba-team

# Configuration files
*.yml @company/devops-team
Dockerfile @company/devops-team

How it works:

• When someone opens a PR changing /src/frontend/, GitHub automatically requests review from the frontend team

• If branch protection requires "Review from Code Owners", those reviews are mandatory

• Multiple owners can be specified (any of them can approve)

CODEOWNERS is perfect for:

• Ensuring the right people review changes

• Spreading review load across teams

• Maintaining quality standards for critical files

• Compliance requirements (security must review all changes)

---

🎯 Real-World Security Scenarios

Scenario 1: New Developer Onboarding

You're onboarding a new developer, Sarah. Here's your security checklist:

Day 1:

• Sarah creates a strong GitHub password

• She enables 2FA with an authenticator app

• She generates an SSH key and adds it to her account

• She saves her recovery codes in the company password manager

Day 2:

• She's added to the appropriate GitHub team(s)

• She clones repositories using SSH

• She makes her first PR, learns the review process

Week 1:

• She understands branch protection rules

• She knows how to handle secrets (never commit them!)

• She has pre-commit hooks installed locally

---

Scenario 2: CI/CD Pipeline Security

You're setting up a GitHub Actions workflow that deploys to AWS.

Bad practice (exposing secrets):

yaml

# ❌ NEVER DO THIS
- name: Deploy
  run: |
    aws configure set aws_access_key_id AKIA123456789
    aws configure set aws_secret_access_key abcdefghijklmnop

Good practice (using GitHub Secrets):

yaml

# ✅ Use GitHub Secrets
- name: Configure AWS credentials
  uses: aws-actions/configure-aws-credentials@v4
  with:
    role-to-assume: arn:aws:iam::123456789012:role/github-actions-role
    aws-region: us-west-2

Better practice (OIDC, no long-lived secrets):

yaml

# ✅ Best practice - OIDC authentication
- name: Configure AWS credentials
  uses: aws-actions/configure-aws-credentials@v4
  with:
    role-to-assume: arn:aws:iam::123456789012:role/github-actions-oidc
    aws-region: us-west-2

Why OIDC is better:

• No access keys to store or rotate

• Temporary credentials (15 minutes to 1 hour)

• Auditable—every run leaves a trail

• Follows security best practices

---

Scenario 3: Emergency Branch Unlock

Sometimes you need to bypass branch protection—a critical production fix, a security patch, a midnight emergency.

The right way to do it:

1. Document the emergency in an issue

   text

   Issue #999: Production outage, need emergency fix

2. Temporarily disable protection

   • Settings → Branches → Edit rule

   • Uncheck "Include administrators" temporarily

   • Save changes

3. Make the emergency fix

   • Push directly (if absolutely necessary)

   • Or merge the emergency PR

4. Re-enable protection immediately

   • Go back, re-check "Include administrators"

   • Save changes

5. Post-mortem

   • Why did we need to bypass?

   • How can we prevent needing to do it again?

   • Document the incident

Never leave protections disabled. The moment the emergency is over, restore them.

---

Scenario 4: Responding to a Secret Leak

Alert: GitHub Secret Scanning just notified you that an AWS key was exposed in a public repository.

Immediate actions (first 5 minutes):

1. Go to AWS IAM and deactivate the key — Stop the bleeding

2. Verify no unauthorized usage — Check CloudTrail

3. Open a GitHub security advisory if needed

Next actions (first hour):

1. Remove the secret from Git using filter-branch or BFG

2. Force push the cleaned history

3. Check all forks — If it was public, assume compromised

4. Rotate any related secrets — If one AWS key was exposed, others might be at risk

Long-term actions:

1. Implement pre-commit hooks to prevent recurrence

2. Audit all repositories for other exposed secrets

3. Train the team on secret management

4. Consider using GitHub Advanced Security for push protection

---

📋 GitHub Security Checklist

Account Security

• Two-factor authentication enabled

• Recovery codes stored securely

• No shared accounts (everyone uses their own)

• Session management reviewed (active sessions)

• Email notifications for new logins enabled

Authentication

• SSH keys used for Git operations

• SSH keys have passphrases

• Personal access tokens have expiration dates

• Tokens have minimum required scopes

• Unused tokens regularly reviewed and revoked

Repository Security

• Branch protection rules configured for main

• Required reviews (at least 1) enabled

• Status checks required before merging

• Administrators subject to same rules

• Force pushes disabled

• Deletions disabled

Secrets Management

• Secret scanning enabled

• Push protection enabled (critical!)

• Pre-commit hooks installed by all developers

• No secrets in commit history (audit regularly)

• Environment variables or secrets managers used

• .env files in .gitignore

CI/CD Security

• OIDC used instead of long-lived credentials

• Workflow permissions set to read-only where possible

• Third-party actions pinned by commit hash

• Secrets stored in GitHub Secrets, not in code

• Workflow approval required for production

Team Security

• Teams used for permissions (not individual users)

• Principle of least privilege applied

• Offboarding process documented

• Regular access reviews conducted

• Security training for all developers

---

🎓 Summary: Security is a Practice, Not a Feature

GitHub security isn't something you set up once and forget. It's an ongoing practice:

Layer	Tools	Frequency
Authentication	SSH keys, 2FA, tokens	Every session
Code Security	Secret scanning, pre-commit hooks	Every commit
Branch Protection	Rules, reviews, status checks	Every PR
Audit	Logs, reviews, training	Quarterly

The most important security measures are often the simplest:

• ✅ Never commit secrets

• ✅ Always require reviews

• ✅ Always use 2FA

• ✅ Always follow least privilege

Remember: Security is everyone's job. The best tools in the world won't help if developers don't use them. Build a culture where security is part of the workflow, not an afterthought.

---

🔗 Master GitHub Security with Hands-on Labs

The best way to learn security is to practice—setting up protections, handling incidents, and hardening repositories in a safe environment.

👉 Practice SSH key setup, branch protection, and secrets management in our interactive labs at:
https://devops.trainwithsky.com/

Our platform provides:

• SSH key generation and configuration exercises

• Branch protection rule setup challenges

• Secret scanning and incident response simulations

• CODEOWNERS configuration practice

• Team security policy implementation

---

Frequently Asked Questions

Q: What's more secure—SSH keys or personal access tokens?

A: Both are secure when used properly. SSH keys are better for individual developers because they're tied to a specific machine. Personal access tokens are better for automation because they can be scoped and expired. Use both appropriately.

Q: How often should I rotate SSH keys?

A: Every 6-12 months is a good practice. If you use passphrases and keep your machine secure, less frequent rotation is acceptable. Rotate immediately if your key might be compromised.

Q: Can I use the same SSH key for multiple services?

A: Yes, but it's not recommended. If that key is compromised, all services are compromised. Use separate keys for GitHub, GitLab, AWS, etc.

Q: What's the difference between GitHub Secrets and environment variables?

A: GitHub Secrets are encrypted and only exposed to GitHub Actions during workflow runs. Environment variables on your local machine are... well, local. GitHub Secrets are for CI/CD; environment variables are for development.

Q: How do I audit who has access to my repositories?

A: Repository → Settings → Collaborators and teams. For organizations, use People and Teams to see all members and their permissions.

Q: What happens if I lose my 2FA device and recovery codes?

A: You'll be locked out of your account. GitHub support can help verify your identity, but it's a slow, painful process. Store recovery codes in a password manager or safe deposit box!

Q: Should I protect every branch?

A: No. Only protect long-lived, shared branches like main, develop, and release/*. Feature branches don't need protection—they're temporary and owned by individual developers.

---

Have questions about GitHub security? Worried you might have exposed a secret? Need help setting up branch protection for your team? Share your scenario in the comments below—our community includes security professionals who've helped hundreds of teams! 💬