90% of People Paying for AI Will Never Make ,000 – Here’s How the Other 10% Build Security Systems That Print Money + Video

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Introduction:

The AI gold rush is in full swing, but most are panning for flakes while a select few are building the mining infrastructure. The difference between the 90% who never see a return and the 10% who turn AI into a profit center isn’t about knowing more prompts—it’s about shifting from task completion to system building. In cybersecurity and IT, this distinction is even more critical: using AI as a chatbot for one-off tasks leaves you vulnerable, while building AI-powered security systems creates compounding leverage that protects assets and generates measurable ROI.

Learning Objectives:

  • Master the transition from ad-hoc AI queries to reusable, systemized AI workflows in security operations
  • Build a production-ready AI security automation pipeline with prompt libraries, knowledge bases, and automated response mechanisms
  • Implement practical AI-driven security tools across Linux and Windows environments with verified commands and configurations
  1. The System vs. The Chatbot: Why 90% Fail

The fundamental error is treating AI like a search engine rather than a business asset. When you ask Claude to write one email, summarize one meeting, or improve one proposal, then close the tab and start over the next day, you’re operating at zero leverage. The 10% who succeed think differently: they build reusable prompts, create client-specific knowledge bases, automate repetitive workflows, and turn processes into systems that work every single day.

In cybersecurity, this translates to the difference between asking an AI to analyze a single log entry versus building a multi-agent SOC pipeline that continuously monitors, detects, and responds to threats in real-time. The former is a chat interaction; the latter is a business asset that generates value 24/7.

Step-by-Step Guide: Building Your First AI Security System

  1. Audit Your Repetitive Security Tasks: List every security task you perform more than once a week—log analysis, alert triage, vulnerability scanning, report generation.
  2. Design Reusable Prompt Templates: Create structured prompts with variables for each task type. For example:
    [bash] You are a senior security analyst.
    [bash] Analyze the following SIEM alert: {ALERT_DATA}
    [bash] Determine if this is a true positive, explain why, and suggest remediation steps.
    [bash] JSON with fields: severity, confidence, reasoning, recommended_actions
    
  3. Build a Knowledge Base: Store successful prompts, threat intelligence, and incident reports in a version-controlled repository.
  4. Automate the Workflow: Use CI/CD pipelines or orchestration tools (e.g., Torq, Tines) to trigger AI analysis automatically when new alerts arrive.

2. Prompt Engineering for Security Operations

Prompt engineering has evolved from simple instruction writing to “Flow Engineering” and “Agentic Orchestration”. In cybersecurity, this means designing prompts that not only instruct but also validate, reason, and iterate.

Critical Prompt Engineering Techniques for Security:

  • Chain-of-Thought (CoT) Reasoning: Force the AI to show its reasoning step-by-step, reducing hallucinations in threat analysis.
  • Chain-of-Verification (CoVe): Add a validation loop where the AI reviews its own output for syntactic, semantic, and security correctness.
  • Role-Based Prompting: Explicitly define the AI’s role (e.g., “You are a SOC analyst with 10 years of experience”) to improve output quality.
  • Few-Shot Examples: Provide examples of correct outputs for similar inputs to guide the model.

Linux Command: Testing Prompt Effectiveness

 Use curl to test different prompts against an LLM API
curl -X POST https://api.anthropic.com/v1/messages \
-H "x-api-key: $ANTHROPIC_API_KEY" \
-H "anthropic-version: 2023-06-01" \
-H "content-type: application/json" \
-d '{
"model": "claude-3-opus-20240229",
"max_tokens": 1024,
"messages": [{"role": "user", "content": "You are a security analyst. Analyze this alert: [bash]"}]
}' | jq '.'

Windows PowerShell: Batch Testing Prompts

 Test multiple prompt variations
$prompts = @(
"Analyze this alert as a senior SOC analyst",
"You are a threat hunter. Investigate this alert",
"Act as a incident responder. Triage this alert"
)
foreach ($p in $prompts) {
$body = @{model="claude-3-opus-20240229"; messages=@(@{role="user"; content=$p})} | ConvertTo-Json
Invoke-RestMethod -Uri "https://api.anthropic.com/v1/messages" -Method Post -Headers $headers -Body $body
}

3. Building AI Agents for Security Automation

The next evolution beyond prompt engineering is deploying autonomous AI agents that act like virtual security engineers. These agents can perform threat modeling, detection engineering, incident response triage, and vulnerability management without human intervention.

Claude Code Security Agents: A collection of agents and slash commands for security engineering is now available, covering spec-phase threat modeling, detection rule authoring, and incident response triage. These agents drop into any project and are immediately available.

Production-Ready Hierarchical Agent Swarms: Advanced implementations feature a CISO queen orchestrator with nine specialist workers covering risk governance, compliance audit, threat intelligence, security architecture, incident response, vulnerability management, DevSecOps, security awareness, and AI security.

Step-by-Step: Deploy a Security Agent on Linux

1. Install Claude Code (if using Anthropic’s ecosystem):

npm install -g @anthropic-ai/claude-code

2. Clone a Security Agent Repository:

git clone https://github.com/sarfaraz-munir/Claude-Code-Cyber-agents.git
cd Claude-Code-Cyber-agents

3. Configure the Agent:

export ANTHROPIC_API_KEY="your-api-key"
cp .env.example .env
 Edit .env with your configuration

4. Run the Agent Swarm:

claude-code --agent cyber-ciso --task "Assess current security posture and generate remediation report"

4. AI-Powered SOC: From Theory to Production

Building an AI-enabled Security Operations Center (SOC) requires more than bolting a general-purpose LLM onto existing tools. Purpose-built cybersecurity AI systems operationalize threat intelligence through structured reasoning graphs and production-tested frameworks.

Key Components of an AI-Powered SOC:

  • Multi-Agent Detection Pipeline: AI agents continuously monitor for insider threats, behavioral anomalies, and cyberattacks
  • Automated Triage: AI reads security alerts, looks up CVEs, checks for patches, and resolves alerts through an agentic loop
  • Real-Time Response: Automated workflows that execute containment, eradication, and recovery actions

Linux: Deploying an AI-Powered SOC Agent

 Using s0-cli - an LLM agent CLI for security scanning
npm install -g s0-cli
s0 scan --path /path/to/repo --ai-model claude-3-opus

Using Strix - autonomous AI penetration testing agents
pip install strix-agent
strix agent --target https://your-app.com --model claude-3-opus

Windows: AI Security Automation

 Deploy CyberShield MCP Server for Windows defense automation
git clone https://github.com/jmatias2411/CyberShield-MCP.git
cd CyberShield-MCP
.\deploy.ps1

Run AI-powered threat detection
Invoke-RestMethod -Uri "http://localhost:8080/api/scan" -Method Post -Body '{"target":"192.168.1.0/24"}'
  1. Securing AI Systems: The OWASP LLM Top 10 and MITRE ATLAS

As you build AI systems, you must also secure them. The OWASP LLM Top 10 and MITRE ATLAS frameworks provide comprehensive guidance on AI-specific threats including prompt injection, data poisoning, and model theft.

Critical AI Security Controls:

  • Prompt Injection Detection: Implement filters that detect and block malicious inputs designed to override system instructions
  • AI Bill of Materials (AI-BOM): Generate and maintain an inventory of all AI components, models, and dependencies
  • Policy-as-Code: Enforce security policies at commit time, install time, and agent-execution time
  • Compliance API Integration: Use identity governance to enforce access reviews, dormant-account detection, and automated lifecycle workflows

Linux: AI Security Scanning

 Generate AI-BOM from source code
nuguard sbom generate --path /path/to/project --output ai-bom.json

Run static security analysis on AI code
nuguard scan --path /path/to/project --rules ai-security

Test live AI app for vulnerabilities
nuguard redteam --target http://localhost:8000 --scenario prompt-injection

Windows: AI Security Hardening

 Deploy AI scraping defense for IIS
git clone https://github.com/rhamenator/ai-scraping-defense-iis.git
cd ai-scraping-defense-iis
.\install.ps1

Monitor for obfuscated PowerShell threats using AI
 Integrated with Elastic SIEM and Tines AI Agents
 See: https://github.com/jsb-1ci/Smart-SOC-AI-Driven-Threat-Detection-and-Decoding

6. Training and Upskilling: The Human Element

The technology is only as effective as the people operating it. Prompt engineering for cybersecurity is now a critical skill, with dedicated courses teaching how to create effective prompts for threat intelligence gathering, penetration testing, incident response, and secure software development.

Recommended Training Paths:

  • Gemini: Prompt Engineering for Cyber Security (Pluralsight) – Covers Gemini for cybersecurity tasks, threat intelligence, penetration testing, and incident response
  • Prompt Engineering for Ethical Hackers (GitHub) – Comprehensive guide for ethical hacking and cybersecurity research
  • AI Security and Agentic AI DevSecOps Engineer – Hands-on implementation of policy-as-code, prompt injection detection, and AI-BOM generation

Linux: Setting Up a Training Environment

 Install Kali Linux tools with AI integration
sudo apt update
sudo apt install kali-linux-headless

Install Gemini CLI for AI-assisted pentesting
sudo apt install gemini-cli

Start AI-assisted penetration testing
gemini-cli --target 192.168.1.0/24 --task "Reconnaissance and vulnerability discovery"

Windows: AI Security Training Lab

 Deploy AI-Augmented SOC training environment
git clone https://github.com/ms1104n-max/ai_soc.git
cd ai_soc
.\deploy.ps1 -Environment Training

Access the training dashboard
Start-Process "http://localhost:3000"

What Undercode Say:

  • Leverage is Built, Not Bought: The 90% who fail are paying for access; the 10% who succeed are paying for leverage. The difference is systemization—turning one-off interactions into repeatable, scalable processes that compound value over time.

  • AI as Infrastructure, Not Application: The most successful security practitioners treat AI as infrastructure—like a database or a cloud provider—that requires architecture, governance, and continuous optimization. This shift in mindset separates the 10% from the 90%.

Analysis:

The core insight from the original post—that 90% of AI users will never see meaningful returns—applies directly to cybersecurity. Most organizations are using AI for isolated tasks: generating a single report, analyzing a single alert, writing a single policy. They’re closing the tab and starting over the next day. The 10% who win are building systems: reusable prompt libraries, automated response pipelines, and agentic workflows that operate continuously.

In the security domain, this systemic approach is even more critical. Cyber threats don’t operate on a schedule; they require 24/7 vigilance. An AI that only works when you open a chat window is worse than useless—it creates a false sense of security. But an AI system that continuously monitors, analyzes, and responds to threats becomes a force multiplier that can outpace human analysts.

The tools are available today. Open-source projects like s0-cli, Strix, and CyberShield MCP provide production-ready AI security automation. Commercial platforms like Claude Code and Gemini CLI offer enterprise-grade capabilities. The question isn’t whether the technology works—it’s whether you’re using it as a tool or building it as an asset.

The security landscape is shifting from reactive to proactive, from manual to automated, from human-centric to AI-augmented. Those who build systems today will dominate tomorrow. Those who treat AI as a chatbot will be left behind.

Prediction:

  • +1 The AI security automation market will grow 10x by 2028 as organizations shift from ad-hoc AI usage to systematic AI integration, creating massive demand for professionals who can build and maintain these systems.

  • +1 Open-source AI security tools (s0-cli, Strix, CyberShield MCP) will become the new standard for security operations, democratizing advanced threat detection and response capabilities for organizations of all sizes.

  • +1 The emergence of hierarchical AI agent swarms will replace traditional SOC tiered staffing models, with one CISO agent orchestrating specialist agents across the entire security domain.

  • -1 Organizations that fail to systematize their AI usage will face increasing security debt, as ad-hoc AI interactions create inconsistent security postures and undetected vulnerabilities.

  • -1 The weaponization of AI-generated malware, including “vibe-coded” PowerShell scripts, will accelerate, requiring defensive AI systems to evolve at the same pace.

▶️ Related Video (64% Match):

https://www.youtube.com/watch?v=0kkG39OK_18

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