Accelerated Innovation

Our Solutions Product Accelerators Secure Your GenAI Solution
Help Your Engineers Build Secure, Production-Ready GenAI Faster

Production-quality GenAI depends on security that is designed in, not bolted on later. This Engineering Accelerator helps software developers strengthen controls, reduce exposure, and secure GenAI delivery faster.

Helping Teams Turn GenAI Security Into Trusted, Scalable Delivery

As teams scale GenAI, they quickly discover that weak controls can undermine trust, expose data, and stall production adoption.

Key GenAI Security Questions
  • Where could weak GenAI security controls create real business exposure today?

  • How often are we scaling GenAI faster than we’re securing prompts, tools, and data paths?

  • What security gaps most threaten trust, adoption, or production readiness at scale?
The Bottom-Line
If your GenAI controls can’t hold up in production, your solution isn’t ready for users.

The Fastest Path to Mastering GenAI Security

Our GenAI Engineer Accelerator gives your team a faster, more structured path to close security gaps, strengthen controls, and build production-ready GenAI the business can trust.

GenAI Security Engineering
Baseline
Weeks 1–2
Sponsor Kick-Off

Align on security priorities, threat concerns, risk tolerance, and production goals.

Baseline Assessment

Assess prompt risks, data exposure, tool security, monitoring, and control gaps.

GenAI Security Engineering
Apply
Weeks 3-6
Configure Your Plan

Define a focused plan to strengthen security controls across priority GenAI workflows.

Define Your Learning Journey

Equip developers with practical GenAI security methods and control patterns.

Close Key Skill Gaps

Build applied expertise in guardrails, access control, monitoring, and secure tool use.

GenAI Security Engineering
Accelerate
Weeks 7-12
Learn by Doing

Apply stronger controls to real prompts, tools, data paths, and production flows.

Validate Your Skills

Track capability growth and gains in risk reduction, control maturity, and resilience.

Learn From an Expert

Provide targeted coaching on security design, control tradeoffs, and implementation decisions.

Outcomes you can expect

Visibility

Gain clearer visibility into where GenAI risks create exposure across priority workflows.

Protection

Strengthen controls for prompt injection, data leakage, and unsafe tool execution.

Resilience

Improve monitoring, guardrails, and response patterns for safer GenAI delivery.

Capability

Build stronger developer capability in practical GenAI security design and implementation.

Impact

Reduce security risk while accelerating production-quality GenAI adoption across high-priority use cases.

GenAI security isn’t about slowing innovation down. It’s about making production adoption safe enough to scale.

Frequently Asked Questions

1. GenAI Security Foundations
2. Prompt Injection and Input Risks
3. Data Protection and Tool Security
4. Monitoring, Evaluation, and Guardrails
5. Teams and Operating Model
  • What makes GenAI security different from traditional application security?
    GenAI introduces new risks across prompts, outputs, tools, retrieval, and model-driven behavior that traditional controls may not fully address.
  • Why does security matter so early in GenAI delivery?
    Because weak controls can create avoidable exposure that becomes harder and more expensive to fix later.
  • How do we know whether security is limiting GenAI adoption?
    Look for stalled deployments, unresolved risks, weak controls, or low confidence in production readiness.
  • What is prompt injection in a GenAI solution?
    Prompt injection is when malicious or unintended inputs manipulate model behavior in ways that bypass intended controls.
  • How do we reduce prompt injection risk?
    Use input controls, tool restrictions, instruction hierarchy, validation, and monitoring against realistic attack patterns.
  • Why are user inputs a bigger security issue in GenAI?
    Because inputs can influence reasoning, tool use, retrieval behavior, and outputs in dynamic ways.
  • How do we reduce the risk of sensitive data leakage?
    Apply access controls, retrieval constraints, output filtering, logging, and clear data-handling boundaries.
  • Why does tool use create additional security risk?
    Because tools extend GenAI from answering into acting, which raises exposure if permissions and controls are weak.
  • How do we secure tool-enabled GenAI solutions?
    Use scoped permissions, validation, monitoring, approval points, and strict control over execution paths.
  • What should we monitor in a production GenAI solution?
    Monitor risky prompts, tool calls, policy violations, anomalous behavior, data access, and unsafe outputs.
  • How do we evaluate GenAI security quality?
    Test realistic threats, control coverage, policy adherence, incident handling, and resilience across priority workflows.
  • What role do guardrails play in GenAI security?
    Guardrails help constrain risky behavior, enforce policies, and reduce the chance of unsafe outputs or actions.
  • Why is GenAI security now a software engineering capability?
    Because production-quality GenAI depends on developers designing safer prompts, tools, retrieval paths, and outputs in real applications.
  • Which teams should be involved in securing GenAI solutions?
    Engineering, security, architecture, product, platform, and operations teams should align on risks and controls.
  • How does stronger security support broader GenAI scalability?
    It improves trust, reduces exposure, and makes production-quality GenAI adoption easier to scale.
Secure GenAI. Scale with confidence.