Overview

AI coding assistants generate vulnerable code with security flaws and compliance violations. Zenable acts as a real-time safety net that catches SQL injections, hardcoded secrets, and policy violations as code is written - ensuring you ship AI-accelerated code with confidence and zero security compromises.

How It Works

Zenable provides two layers of protection:
  1. Out-of-the-Box Protection - Industry-standard security and quality checks that apply to everyone
  2. Custom Requirements - Your organization’s unique policies and decisions

Out-of-the-Box Protection

Zenable automatically prevents common AI mistakes without any configuration:

Standard Security Protections

  • SQL Injection - Enforces parameterized queries
  • Hardcoded Secrets - Detects API keys, passwords, tokens
  • XSS Vulnerabilities - Prevents script injection attacks
  • Path Traversal - Blocks directory traversal attempts
  • Missing Authentication - Flags unprotected endpoints
  • Weak Cryptography - Identifies insecure algorithms

Code Quality Standards

  • Resource Leaks - Ensures proper cleanup (files, connections)
  • Error Handling - Requires try-catch for critical operations
  • Type Safety - Enforces proper typing in TypeScript/Python
  • Performance Issues - Catches N+1 queries, inefficient loops
  • Race Conditions - Identifies thread safety issues

Quick Example: Standard Protections

# ❌ AI generates (multiple standard violations)
def get_user_data(user_id):
    conn = db.connect()  # Resource leak
    query = f"SELECT * FROM users WHERE id = {user_id}"  # SQL injection
    return conn.execute(query)

# ✅ Zenable automatically fixes
def get_user_data(user_id):
    with db.connect() as conn:  # Proper resource management
        query = "SELECT * FROM users WHERE id = ?"  # Parameterized query
        return conn.execute(query, (user_id,))

Custom Organization Requirements

Upload your unique organizational decisions and policies for enforcement:
“Our payment processing must always use our internal PaymentOrchestrator service, never direct gateway calls. All customer data operations must include audit logging with department tags. Use our custom retry policy: 3 attempts with exponential backoff starting at 2 seconds.”

Real Custom Requirements Examples

Example 1: Internal Service Architecture

Your Policy: “All external API calls must go through our API Gateway service with circuit breakers”
# ❌ AI might generate direct calls
async def fetch_weather(city):
    response = await requests.get(f"https://api.weather.com/v1/{city}")
    return response.json()

# ✅ Zenable enforces your architecture
async def fetch_weather(city):
    return await api_gateway.call(
        service="weather",
        endpoint=f"/v1/{city}",
        circuit_breaker=True,
        timeout=5000
    )

Example 2: Company-Specific Audit Requirements

Your Policy: “All data modifications must log: user ID, department, cost center, and business justification”
# ❌ AI generates standard CRUD
def update_inventory(product_id, quantity):
    db.execute("UPDATE inventory SET quantity = ? WHERE id = ?",
               (quantity, product_id))

# ✅ Zenable adds your audit requirements
def update_inventory(product_id, quantity, user_context):
    audit_log.record({
        "action": "inventory_update",
        "user_id": user_context.id,
        "department": user_context.department,
        "cost_center": user_context.cost_center,
        "justification": user_context.business_reason,
        "changes": {"product_id": product_id, "new_quantity": quantity}
    })

    db.execute("UPDATE inventory SET quantity = ? WHERE id = ?",
               (quantity, product_id))

Example 3: Custom Business Logic

Your Policy: “All pricing calculations must include our dynamic margin algorithm based on customer tier and seasonality”
// ❌ AI uses simple calculation
function calculatePrice(basePrice, discount) {
    return basePrice * (1 - discount);
}

// ✅ Zenable enforces your business rules
function calculatePrice(basePrice, customerId) {
    const customer = getCustomer(customerId);
    const seasonalFactor = getSeasonalPricingFactor();
    const tierMultiplier = getTierMultiplier(customer.tier);
    const dynamicMargin = calculateDynamicMargin(
        customer.purchaseHistory,
        seasonalFactor
    );

    return basePrice * tierMultiplier * seasonalFactor * (1 + dynamicMargin);
}

Example 4: Compliance-Driven Requirements

Your Policy: “European customer data must stay in EU regions and use GDPR-compliant deletion”
# ❌ AI doesn't consider data residency
def delete_user(user_id):
    db.execute("DELETE FROM users WHERE id = ?", (user_id,))

# ✅ Zenable enforces compliance requirements
def delete_user(user_id):
    user = get_user(user_id)

    if user.region == "EU":
        # GDPR-compliant soft delete with retention policy
        eu_db.execute(
            "UPDATE users SET deleted_at = ?, anonymized = true WHERE id = ?",
            (datetime.now(), user_id)
        )
        schedule_permanent_deletion(user_id, days=30)
        notify_data_protection_officer(user_id, "soft_delete")
    else:
        # Standard deletion for non-EU
        db.execute("DELETE FROM users WHERE id = ?", (user_id,))

In Action

When you use AI to generate code, Zenable automatically:
  1. Applies all standard security and quality checks
  2. Enforces your custom organizational requirements
  3. Provides immediate feedback to the AI for correction
  4. Shows you the safe, compliant version

Why Custom Requirements Matter

Enforce Architectural Decisions

  • Ensure AI respects your microservice boundaries
  • Maintain consistent use of internal libraries
  • Enforce your specific design patterns

Maintain Business Logic

  • Protect proprietary algorithms
  • Ensure regulatory compliance
  • Enforce customer-specific requirements

Preserve Team Standards

  • Maintain your naming conventions
  • Enforce your logging standards
  • Keep your error handling patterns