AI Is in Production. Security Isn’t. That Gap Is Costly.

From Deepfake Deception to Data Breaches, Learn How to Build Secure AI Practices That Drive Innovation Without Regrets TL;DR: Ship AI Securely, Without the Slowdown The Reality: 78% of organizations run AI in production. Half have no AI-specific security. The damage is measurable: a $25M deepfake wire transfer, Samsung’s leaked source code, and Microsoft Copilot data breaches. The Solution: Security that accelerates delivery, not blocks it. Your 4-Week Action Plan Week 1 Visibility: Discover shadow AI, document one high-impact use case, assign clear owners Week 2 Runtime Defense: Deploy input validation, output filters, rate limits, and comprehensive logging Week 3 Agent Hardening: Lock down agent-tool flows with authentication, least-privilege access, and network allowlists Week 4 Human Layer: Run deepfake response drills and simplify security policies into plain language Threats You’ll Face Prompt injection Information extraction Data poisoning & backdoors Insecure agent-tool integrations Controls That Work Runtime: Validate all inputs, filter sensitive outputs, monitor usage patterns Development: Encrypt data at rest and in transit, verify model provenance, retrain against adversarial examples Operations: Deploy AI-native monitoring and GenAI-aware data loss prevention Governance Framework Adopt NIST AI RMF Define responsibility matrices Design for EU AI Act compliance Start Now Choose one workflow. Map risks and owners. Implement three controls: Train your team. Measure impact. Share what you learned. TL;DR: Ship AI Securely, Without the Slowdown The Reality: 78% of organizations run AI in production. Half have no AI-specific security. The damage is measurable: a $25M deepfake wire transfer, Samsung’s leaked source code, and Microsoft Copilot data breaches. The Reality: The Solution: Security that accelerates delivery, not blocks it. The Solution: Your 4-Week Action Plan Week 1 Visibility: Discover shadow AI, document one high-impact use case, assign clear owners Week 2 Runtime Defense: Deploy input validation, output filters, rate limits, and comprehensive logging Week 3 Agent Hardening: Lock down agent-tool flows with authentication, least-privilege access, and network allowlists Week 4 Human Layer: Run deepfake response drills and simplify security policies into plain language Week 1 Visibility: Discover shadow AI, document one high-impact use case, assign clear owners Week 1 Visibility: Week 2 Runtime Defense: Deploy input validation, output filters, rate limits, and comprehensive logging Week 2 Runtime Defense: Week 3 Agent Hardening: Lock down agent-tool flows with authentication, least-privilege access, and network allowlists Week 3 Agent Hardening: Week 4 Human Layer: Run deepfake response drills and simplify security policies into plain language Week 4 Human Layer: Threats You’ll Face Prompt injection Information extraction Data poisoning & backdoors Insecure agent-tool integrations Prompt injection Information extraction Data poisoning & backdoors Insecure agent-tool integrations Controls That Work Runtime: Validate all inputs, filter sensitive outputs, monitor usage patterns Development: Encrypt data at rest and in transit, verify model provenance, retrain against adversarial examples Operations: Deploy AI-native monitoring and GenAI-aware data loss prevention Runtime: Validate all inputs, filter sensitive outputs, monitor usage patterns Runtime: Development: Encrypt data at rest and in transit, verify model provenance, retrain against adversarial examples Development: Operations: Deploy AI-native monitoring and GenAI-aware data loss prevention Operations: Governance Framework Adopt NIST AI RMF Define responsibility matrices Design for EU AI Act compliance Adopt NIST AI RMF Define responsibility matrices Design for EU AI Act compliance Start Now Choose one workflow. Map risks and owners. Implement three controls: Train your team. Measure impact. Share what you learned. Choose one workflow. Map risks and owners. Implement three controls: Train your team. Measure impact. Share what you learned. Train your team. Measure impact. Share what you learned. Introduction Last February, a seasoned finance executive in Hong Kong wired a staggering $25 million to fraudsters, all because he was duped by eerily realistic deepfake technology during what seemed like a routine video call. This incident, reported by CNN, isn’t just a cautionary tale: it’s a piercing alarm. As businesses sprint to embrace AI for unprecedented efficiency, they inadvertently unlock doors to sophisticated threats, jeopardizing years of progress in mere seconds. seasoned finance executive in Hong Kong wired a staggering $25 million to fraudsters, seasoned finance executive in Hong Kong wired a staggering $25 million to fraudsters, This article is a playbook for leaders and practitioners who want both speed and safety. It maps risks to clear actions, translates frameworks into plain English, and puts people at the center. The outcome you should expect is teams that move faster because guardrails are known, adopted, and trusted. playbook for leaders and practitioners who want both speed and safety. The Stakes, Quantified If AI were only hype, risk wouldn’t matter. But adoption is mainstream. Recent research shows 78% of organizations use AI and report a 3.7x return on every dollar invested… yet they name AI-powered data leaks as their top security concern. Nearly half operate without AI-specific security controls. That’s the textbook definition of exposure. Here’s how it plays out: Recent research shows 78% of organizations use AI and report a 3.7x return on every dollar invested Recent research Recent research Corporate data exposed by GenAI tooling. In April 2023, Samsung experienced three incidents in a single month: source code shared with external AI services and sensitive chip optimization data leaked through internal use. Once data leaves, control ends. Vulnerabilities in popular copilots. Multiple Microsoft Copilot issues in 2024–2025 enabled data theft from internal systems, including zero-click vectors through email and collaboration tools, plus weaknesses in Copilot Studio that allowed leakage and chained attacks. Copilots sit near knowledge and credentials — that proximity raises the stakes. Shadow AI everywhere. Tools proliferate faster than governance. Check Point telemetry shows widespread, stable usage of major GenAI services across enterprise networks. New entrants spike, then cool as security questions surface. That growth pattern pressures security to keep up, not just clamp down. Corporate data exposed by GenAI tooling. In April 2023, Samsung experienced three incidents in a single month: source code shared with external AI services and sensitive chip optimization data leaked through internal use. Once data leaves, control ends. Corporate data exposed by GenAI tooling. Samsung experienced three incidents Samsung experienced three incidents Vulnerabilities in popular copilots. Multiple Microsoft Copilot issues in 2024–2025 enabled data theft from internal systems, including zero-click vectors through email and collaboration tools, plus weaknesses in Copilot Studio that allowed leakage and chained attacks. Copilots sit near knowledge and credentials — that proximity raises the stakes. Vulnerabilities in popular copilots. Microsoft Copilot issues Microsoft Copilot issues Shadow AI everywhere. Tools proliferate faster than governance. Check Point telemetry shows widespread, stable usage of major GenAI services across enterprise networks. New entrants spike, then cool as security questions surface. That growth pattern pressures security to keep up, not just clamp down. Shadow AI everywhere. Check Point telemetry Check Point telemetry These aren’t theoretical risks. They’re operational. They’re expensive. And the cure isn’t a ban, it’s visibility and smart control. Map Your AI Landscape Before It Maps You Start by finding the actual AI in your organization: not the planned projects, but the real usage. not the planned projects, but the real usage. Inventory GenAI Services in Use Use discovery tools to scan network traffic, API logs, and cloud access patterns. Identify sanctioned and shadow apps, assess their risk, and apply data-loss prevention tuned to conversational prompts and model outputs. This gives leaders a live map, not a yearly policy document. Use NIST’s AI Risk Management Framework as Your Compass Its four core functions are practical: Govern, Map, Measure, and Manage. Govern sets accountability. Map identifies where AI touches sensitive processes or data. Measure builds monitoring and tests safeguards. Manage drives response and improvement. It’s designed for flexible adoption across sectors. Document Owners with a Shared Responsibility Matrix A shared responsibility matrix of AI: Clarify who handles data governance, model security, access control, monitoring, and incident response for each deployment model: SaaS assistants, embedded copilots, cloud platforms, on-premises models, or agentic systems. Put names in each cell to remove ambiguity. A shared responsibility matrix of AI A shared responsibility matrix of AI SaaS assistants, embedded copilots, cloud platforms, on-premises models, or agentic systems The goal is simple: turn “unknown AI” into “known, governed AI” without killing momentum. turn “unknown AI” into “known, governed AI” Know the Attacks by Name When teams know the threats, they spot them sooner. Prompt injection. Attackers smuggle instructions into inputs or retrieved content to manipulate model behavior, exfiltrate data, or trigger unsafe actions. Picture a poisoned wiki page that quietly tells your agent to send credentials to an external API. The OWASP AI Exchange catalogs this pattern and maps controls that work at runtime and in development. Use it. Information extraction. Model inversion and membership inference can reveal whether specific records were in your training data or reconstruct sensitive data from outputs. This isn’t hypothetical — it happens when models memorize more than they should. Germany’s BSI summarizes these threats and defenses in clear, actionable guidance. Poisoning and backdoors. Attackers manipulate training data or pre-trained models with subtle triggers that flip classifications or behavior on cue. Backdoors can persist across transfer learning. Supply chain hygiene and retraining on clean data are your best defenses. Agent-tool security gaps. The Model Context Protocol (MCP) makes it easy for agents to connect to databases, APIs, and local tools — but easy also means exploitable. Common failure modes include tool poisoning, rogue servers, unrestricted network access, and leaked secrets through environment variables. You need authentication, scoped authorization, allowlists, sandboxing, and comprehensive logging. Treat MCP servers like critical software, not plugins. Threat tactic catalogs. The MITRE ATLAS matrix organizes adversary tactics against ML systems: reconnaissance, model access, evasion, exfiltration, and impact. It’s the “what could go wrong” map your red team should use to plan tests. Prompt injection. Attackers smuggle instructions into inputs or retrieved content to manipulate model behavior, exfiltrate data, or trigger unsafe actions. Picture a poisoned wiki page that quietly tells your agent to send credentials to an external API. The OWASP AI Exchange catalogs this pattern and maps controls that work at runtime and in development. Use it. Prompt injection. OWASP AI Exchange OWASP AI Exchange Information extraction. Model inversion and membership inference can reveal whether specific records were in your training data or reconstruct sensitive data from outputs. This isn’t hypothetical — it happens when models memorize more than they should. Germany’s BSI summarizes these threats and defenses in clear, actionable guidance. Information extraction. BSI BSI Poisoning and backdoors. Attackers manipulate training data or pre-trained models with subtle triggers that flip classifications or behavior on cue. Backdoors can persist across transfer learning. Supply chain hygiene and retraining on clean data are your best defenses. Poisoning and backdoors. Agent-tool security gaps. The Model Context Protocol (MCP) makes it easy for agents to connect to databases, APIs, and local tools — but easy also means exploitable. Common failure modes include tool poisoning, rogue servers, unrestricted network access, and leaked secrets through environment variables. You need authentication, scoped authorization, allowlists, sandboxing, and comprehensive logging. Treat MCP servers like critical software, not plugins. Agent-tool security gaps. Model Context Protocol (MCP) Model Context Protocol (MCP) Threat tactic catalogs. The MITRE ATLAS matrix organizes adversary tactics against ML systems: reconnaissance, model access, evasion, exfiltration, and impact. It’s the “what could go wrong” map your red team should use to plan tests. Threat tactic catalogs. MITRE ATLAS matrix MITRE ATLAS matrix Put these in your playbook. Teach them. Practice them. Practical Controls That Deliver Wins The right controls make AI safer and more useful. Focus on actions that reduce risk while improving usability. Runtime and Input Controls Validate and segregate inputs. Build prompt input validation and keep untrusted content isolated from privileged instructions. Don’t let a retrieved document share a sandbox with your system prompt. OWASP provides specific control patterns for input validation, segregation, and output encoding. Filter sensitive outputs. Apply model-output filters to block secrets, customer data, or regulated content from leaving your environment. Obscure confidence scores to reduce model inversion risks. Rate-limit and monitor use. Apply rate limits to reduce brute-force probing. Log everything. Detect unusual inputs and adversarial patterns to make misuse visible fast. Validate and segregate inputs. Build prompt input validation and keep untrusted content isolated from privileged instructions. Don’t let a retrieved document share a sandbox with your system prompt. OWASP provides specific control patterns for input validation, segregation, and output encoding. Validate and segregate inputs. OWASP OWASP Filter sensitive outputs. Apply model-output filters to block secrets, customer data, or regulated content from leaving your environment. Obscure confidence scores to reduce model inversion risks. Filter sensitive outputs. Rate-limit and monitor use. Apply rate limits to reduce brute-force probing. Log everything. Detect unusual inputs and adversarial patterns to make misuse visible fast. Rate-limit and monitor use. Development and Training Controls Protect data in transit and at rest. Follow NCSC guidance on encryption and device security. Maintain configuration baselines, enforce access control, and keep audit trails. Strengthen your supply chain. Use SBOMs for models and datasets. Track provenance, verify signatures, and avoid untrusted pickled models. Apply SLSA levels where possible. Use adversarial retraining and robust modeling. Train against known perturbations and evasions. Use ensembles to reduce single points of failure. Increase generalization with diverse, high-quality data and carefully designed transformations. Protect data in transit and at rest. Follow NCSC guidance on encryption and device security. Maintain configuration baselines, enforce access control, and keep audit trails. Protect data in transit and at rest. NCSC guidance NCSC guidance Strengthen your supply chain. Use SBOMs for models and datasets. Track provenance, verify signatures, and avoid untrusted pickled models. Apply SLSA levels where possible. Strengthen your supply chain. SLSA levels SLSA levels Use adversarial retraining and robust modeling. Train against known perturbations and evasions. Use ensembles to reduce single points of failure. Increase generalization with diverse, high-quality data and carefully designed transformations. Use adversarial retraining and robust modeling. Agent-Database and MCP Controls Authenticate both user and agent. Enforce least privilege up front. Add downstream constraints like read-only modes and sandboxing. Build network allowlists, vet tools, require signed manifests, scan dependencies, and instrument everything with observability. Containerize risky servers. Isolate MCP servers with strict resource limits, block outbound network access by default, and require signature verification for images. Scan for secret leakage and maintain full audit trails. Treat logs like safety rails. Authenticate both user and agent. Enforce least privilege up front. Add downstream constraints like read-only modes and sandboxing. Build network allowlists, vet tools, require signed manifests, scan dependencies, and instrument everything with observability. Authenticate both user and agent. Containerize risky servers. Isolate MCP servers with strict resource limits, block outbound network access by default, and require signature verification for images. Scan for secret leakage and maintain full audit trails. Treat logs like safety rails. Containerize risky servers. Operational Controls Perform continuous validation with real telemetry. Adopt AI-native monitoring that analyzes telemetry and indicators of compromise across networks, endpoints, and clouds. Use threat intelligence platforms that aggregate signals from diverse sources to spot novel threats and update defenses quickly. Use GenAI-specific DLP. Traditional DLP misses context in prompts and generated text. Use AI-aware classification that understands conversational patterns and model renderings. Look for solutions that parse prompt structure, detect sensitive data in generated outputs, and integrate with your governance framework. Perform continuous validation with real telemetry. Adopt AI-native monitoring that analyzes telemetry and indicators of compromise across networks, endpoints, and clouds. Use threat intelligence platforms that aggregate signals from diverse sources to spot novel threats and update defenses quickly. Perform continuous validation with real telemetry. Use GenAI-specific DLP. Traditional DLP misses context in prompts and generated text. Use AI-aware classification that understands conversational patterns and model renderings. Look for solutions that parse prompt structure, detect sensitive data in generated outputs, and integrate with your governance framework. Use GenAI-specific DLP. These controls add friction for attackers, not for your builders. Teams move faster when the rules are known. These controls add friction for attackers, not for your builders. Teams move faster when the rules are known. Governance That Accelerates Delivery Governance should unlock speed, not slow it. Adopt NIST’s Govern Function Define roles, escalation paths, documentation standards, and human oversight across the AI lifecycle. Separate those building and using models from those evaluating and validating them. The framework is outcome-based and non-prescriptive, making it practical at scale. Clarify Ownership with a Shared Responsibility Model Across eight deployment models, map responsibilities to 16 security domains, including agent governance and multi-system integration security. This makes handoffs clear and prevents gaps. Navigate Regulation with Headroom The EU AI Act classifies systems by risk and requires assessments by August 2025. High-risk categories need conformity assessments and mitigation plans. Build for the highest standard you face to simplify global rollout. Track US state-level AI laws and Australia’s government AI policy, which demand accountability and transparency. Compliance should be a competitive advantage. Use it to build trust and shorten sales cycles. EU AI Act EU AI Act Australia’s government AI policy Australia’s government AI policy People: Your First Layer of Defense Tools help, but people decide. Invest in their instincts. Train with real, memorable scenarios. Show your teams what a deepfake request looks and sounds like. Teach them to slow down a rushed transfer request. Use role-playing to make it stick. A healthy dose of humor can lift engagement and retention without minimizing risk — research ties levity to better learning and trust when used responsibly. Empower a challenge culture. Make it easy and safe to say, “I need to verify this.” Build human oversight into key agentic flows. Define clear escalation paths for anomalies. Reduce shame and increase signal. Encourage clear writing. Use short prompts, simple words, and no jargon without context. The clearer the request, the safer the response. The clearer the policy, the stronger the adoption. Train with real, memorable scenarios. Show your teams what a deepfake request looks and sounds like. Teach them to slow down a rushed transfer request. Use role-playing to make it stick. A healthy dose of humor can lift engagement and retention without minimizing risk — research ties levity to better learning and trust when used responsibly. Train with real, memorable scenarios. Empower a challenge culture. Make it easy and safe to say, “I need to verify this.” Build human oversight into key agentic flows. Define clear escalation paths for anomalies. Reduce shame and increase signal. Empower a challenge culture. Encourage clear writing. Use short prompts, simple words, and no jargon without context. The clearer the request, the safer the response. The clearer the policy, the stronger the adoption. Encourage clear writing. Frontier Models: Prepare for Capability Thresholds This diagram illustrates the relationship between these components of the Framework. | Introducing the Frontier Safety Framework As models gain agency and tool use, some risks jump from severe to systemic. Borrow from Google’s Frontier Safety Framework. Google’s Frontier Safety Framework Google’s Frontier Safety Framework Define critical capability levels. Monitor for model capabilities that, without mitigations, could significantly raise the chance of severe harm. Categories include misuse for CBRN threats, cyberattacks, harmful manipulation, acceleration of risky ML R&D, and misalignment. Run early-warning evaluations. Set alert thresholds for tests that reveal proximity to critical levels. Review model-independent information, external evaluations, and post-market signals. When an alert trips, apply a response plan with stronger mitigations. Secure model weights and infrastructure. Prevent exfiltration with hardened environments. Isolate model weights and add hardware-backed controls where possible. Consider industry-wide mitigations for risks where social value collapses without broad adoption. Address instrumental reasoning. If models develop situational awareness or stealth abilities that could undermine human control, apply automated monitoring to their reasoning traces where feasible. Continue active research as capabilities evolve. Define critical capability levels. Monitor for model capabilities that, without mitigations, could significantly raise the chance of severe harm. Categories include misuse for CBRN threats, cyberattacks, harmful manipulation, acceleration of risky ML R&D, and misalignment. Define critical capability levels. Run early-warning evaluations. Set alert thresholds for tests that reveal proximity to critical levels. Review model-independent information, external evaluations, and post-market signals. When an alert trips, apply a response plan with stronger mitigations. Run early-warning evaluations. Secure model weights and infrastructure. Prevent exfiltration with hardened environments. Isolate model weights and add hardware-backed controls where possible. Consider industry-wide mitigations for risks where social value collapses without broad adoption. Secure model weights and infrastructure. Address instrumental reasoning. If models develop situational awareness or stealth abilities that could undermine human control, apply automated monitoring to their reasoning traces where feasible. Continue active research as capabilities evolve. Address instrumental reasoning. You don’t need to be a frontier lab to use frontier discipline. This method also works for mature internal deployments. You don’t need to be a frontier lab to use frontier discipline. This method also works for mature internal deployments. Measure What Matters A secure AI program measures performance before, during, and after deployment. Conduct risk-based testing. Use NIST’s Measure function to define tests and metrics for trustworthiness. Validate security and privacy controls, collect evidence, and build your safety case. Red team with ATLAS. Simulate attack paths from the ATLAS matrix. Link each tactic to detection rules and mitigations. Repeat after significant model changes. Use post-market monitoring. Keep watching. Update safeguards based on incidents and new intelligence. Submit material updates to governance for review. Conduct risk-based testing. Use NIST’s Measure function to define tests and metrics for trustworthiness. Validate security and privacy controls, collect evidence, and build your safety case. Conduct risk-based testing. NIST’s Measure function NIST’s Measure function Red team with ATLAS. Simulate attack paths from the ATLAS matrix. Link each tactic to detection rules and mitigations. Repeat after significant model changes. Red team with ATLAS. ATLAS matrix ATLAS matrix Use post-market monitoring. Keep watching. Update safeguards based on incidents and new intelligence. Submit material updates to governance for review. Use post-market monitoring. A Simple, Secure Path to Quick Wins Here’s a practical sequence your team can start this week. Week 1: Visibility Discover GenAI apps in use. Identify top use cases and flag shadow AI with sensitive data. Build a responsibility matrix for one high-value use case, such as a coding assistant or customer-response agent. Put names on data privacy, access control, model security, and incident response. Discover GenAI apps in use. Identify top use cases and flag shadow AI with sensitive data. Build a responsibility matrix for one high-value use case, such as a coding assistant or customer-response agent. Put names on data privacy, access control, model security, and incident response. Week 2: Guardrails That Empower Implement input validation and segregation. Place untrusted content in a clean room and keep system prompts protected. Apply output filtering and rate limits. Add logging and anomaly detection for prompts and tool usage. Implement input validation and segregation. Place untrusted content in a clean room and keep system prompts protected. Apply output filtering and rate limits. Add logging and anomaly detection for prompts and tool usage. Week 3: Agent-Tool Hardening Lock down MCP flows. Authenticate users and agents, scope access with least privilege, and add read-only modes and network allowlists. Vet servers, use signed manifests, and turn on full observability. Lock down MCP flows. Authenticate users and agents, scope access with least privilege, and add read-only modes and network allowlists. Vet servers, use signed manifests, and turn on full observability. Week 4: Train the Humans Run a deepfake drill. Practice a “stop and verify” routine. Introduce humor to keep energy up, not to trivialize risk. Ask every team to suggest one plain-language policy improvement. Run a deepfake drill. Practice a “stop and verify” routine. Introduce humor to keep energy up, not to trivialize risk. Ask every team to suggest one plain-language policy improvement. Repeat. Scale to the next use case. Keep the tempo. Celebrate small wins loudly. Why Security Speeds You Up Security gives you permission to move. It reduces second-guessing, builds trust with customers and regulators, and cuts down on rework and public cleanups. It removes bans and shadow usage by replacing them with clear green paths. When your people feel safe, they explore. When they explore, they innovate. Your Move: Pick one AI workflow. Map it. Assign owners. Deploy three controls. Run a team drill. Report one metric. Your Move: What did you learn? Share it with your peers. Teach your next team. Make this normal. What did you learn? Share it with your peers. Teach your next team. Make this normal. References and Frameworks NIST AI Risk Management Framework: Govern, Map, Measure, Manage. Practical, voluntary, and outcome-based. MITRE ATLAS: Tactics, techniques, and case studies for adversarial ML. Use it for threat modeling and red teaming. OWASP AI Exchange: Threat-control mappings, runtime and development controls, and privacy guidance. BSI AI Security Concerns: Guidance on evasion, information extraction, poisoning, and backdoors, with clear defenses and limitations. Check Point AI Security Report: Adoption and risk stats, ThreatCloud AI intelligence, and GenAI Protect for prompt-aware DLP and governance. MCP Security Best Practices: Best practices for agent-database interoperability, server vetting, allowlists, secret management, container isolation, and logging. Google Frontier Safety Framework: Capability thresholds, early-warning evaluations, response plans, and mitigations for severe risks. EU AI Act: Timeline and risk categories (unacceptable, high, limited, minimal). Assessments required by August 2025. Australia’s Government AI Policy: Voluntary standards with accountability and transparency requirements and evolving guardrails. Samsung 2023 Incidents: Real consequences of unmanaged data sharing with external AI tools. NIST AI Risk Management Framework: Govern, Map, Measure, Manage. Practical, voluntary, and outcome-based. NIST AI Risk Management Framework NIST AI Risk Management Framework MITRE ATLAS: Tactics, techniques, and case studies for adversarial ML. Use it for threat modeling and red teaming. MITRE ATLAS MITRE ATLAS OWASP AI Exchange: Threat-control mappings, runtime and development controls, and privacy guidance. OWASP AI Exchange OWASP AI Exchange BSI AI Security Concerns: Guidance on evasion, information extraction, poisoning, and backdoors, with clear defenses and limitations. BSI AI Security Concerns BSI AI Security Concerns Check Point AI Security Report: Adoption and risk stats, ThreatCloud AI intelligence, and GenAI Protect for prompt-aware DLP and governance. Check Point AI Security Report Check Point AI Security Report MCP Security Best Practices: Best practices for agent-database interoperability, server vetting, allowlists, secret management, container isolation, and logging. MCP Security Best Practices MCP Security Best Practices Google Frontier Safety Framework: Capability thresholds, early-warning evaluations, response plans, and mitigations for severe risks. Google Frontier Safety Framework Google Frontier Safety Framework EU AI Act: Timeline and risk categories (unacceptable, high, limited, minimal). Assessments required by August 2025. EU AI Act EU AI Act Australia’s Government AI Policy: Voluntary standards with accountability and transparency requirements and evolving guardrails. Australia’s Government AI Policy Australia’s Government AI Policy Samsung 2023 Incidents: Real consequences of unmanaged data sharing with external AI tools. Samsung 2023 Incidents Samsung 2023 Incidents A Final Question for Your Team What’s one AI workflow today where a simple guardrail would unlock faster delivery tomorrow? Tell me which workflow you picked. Share one insight from mapping it. If you want, we can layer controls together next week.