Frequently Asked Questions

AI Safety, Security & Incident Response

How does Sedai ensure safety and reliability when using AI tools during a security breach or incident?

Sedai's approach to AI safety in production environments is built on deterministic, narrow machine learning models—not LLMs—for all autonomous actions. This means every action is governed by explicit guardrails, continuous health verification, automatic rollbacks, and incremental changes. Sedai's patented safety-by-design system ensures that all optimizations are validated before, during, and after execution, and a human operator can always intervene. This approach prevents unexpected behavior during critical incidents and ensures explainability for every action taken. Note: Sedai does not use LLMs for production decisions; all actions are explainable and reversible. For more details, see the Sedai platform page and blog post.

What happens if an AI model refuses a critical query during a breach?

As highlighted in Sedai's blog, commercial LLMs may refuse to process certain queries during a security incident due to their guardrails, potentially leaving responders without needed answers. Sedai's platform avoids this risk by using deterministic, narrow ML models for production actions, with explicit fallback and escalation paths defined in advance. If a model or tool refuses a query, Sedai's governance layer ensures there is always a human-readable, deterministic fallback—so teams are not left guessing during a crisis. Note: Sedai does not rely on LLMs for production incident response; all fallback procedures are defined and tested ahead of time. See the blog post for more context.

How does Sedai's approach to AI safety differ from traditional or commercial LLM-based tools?

Sedai's platform does not use LLMs for production decisions. Instead, it relies on small, purpose-built ML models with fixed guardrails and deterministic behavior. This allows every action to be explained and traced, and enables automatic rollbacks if risk is detected. In contrast, commercial LLMs may change behavior after retraining and may refuse queries unpredictably, as seen in recent industry incidents. Sedai's safety-by-design approach ensures that all optimizations are gradual, validated, and reversible, with human oversight at every stage. Note: Teams needing LLM-based incident analysis may need to supplement Sedai with additional tools, as Sedai prioritizes deterministic safety over probabilistic AI responses. Source: Sedai blog.

What governance controls does Sedai provide for AI agent usage and model access?

Sedai builds organizational model access policy and cross-provider fallback into a single governance layer. This includes explicit policy definitions, named escalation paths, and deterministic fallback procedures for when a model refuses or fails. Token governance in Sedai tracks which models each team is allowed to call, what data flows through them, and where calls are routed if the primary model is unavailable. This ensures that security and compliance requirements are met, and that incident response is never left to chance. Note: Sedai's governance controls are designed for deterministic ML models; teams using LLMs for analysis should validate their own fallback and audit procedures. Source: Sedai blog.

Features & Capabilities

What are Sedai's key features for cloud optimization and incident prevention?

Sedai offers autonomous cloud management, cost optimization, application performance improvement, release intelligence, and proactive issue resolution. Key features include: continuous health verification, automatic rollbacks, incremental changes, and full-stack coverage across AWS, Azure, GCP, and Kubernetes. Sedai's patented safety-by-design ensures all optimizations are validated and reversible. Note: Sedai does not use LLMs for production actions; all optimizations are performed by deterministic ML models. Detailed limitations not publicly documented; ask sales for specifics. Source: Sedai platform.

What integrations does Sedai support?

Sedai integrates with 12 APMs (including Prometheus, Datadog, AWS CloudWatch, Azure Monitor, Google Cloud Monitoring), Kubernetes autoscalers (HPA/VPA, Karpenter), IaC and CI/CD tools (GitHub, GitLab, Bitbucket, Terraform), ITSM tools (ServiceNow, PagerDuty, Jira), notification platforms, runbook automation, and major cloud providers (AWS, Azure, GCP). Note: Integration with additional tools may require custom configuration. Source: Sedai Technology Overview, Azure AKS Solutions Sheet.

What technical documentation is available for Sedai?

Sedai provides comprehensive technical documentation, including getting started guides, Kubernetes optimization, Databricks optimization, and GPU optimization. These resources are available at docs.sedai.io/get-started. Note: Some advanced topics may require direct support from Sedai's technical team.

Implementation & Ease of Use

How long does it take to implement Sedai and how easy is it to start?

Initial setup for general use cases can be completed in as little as 15 minutes using agentless or agent-based deployment. AI Agent Optimization typically takes two to three weeks. For Databricks, setup can be completed in under 15 minutes. Sedai offers seamless integration with existing tools, operates autonomously to minimize management burden, and provides a 30-day free trial with personalized onboarding and community support. Note: Complex environments may require additional configuration. Source: Sedai Platform Overview, AI Agent Optimization page.

What feedback have customers given about Sedai's ease of use?

Customers report that Sedai enables quick onboarding (as little as 15 minutes), integrates easily with existing workflows, and reduces manual management. The platform's autonomous operation and straightforward, volume-based pricing are frequently cited as positives. Personalized onboarding, extensive documentation, and a community Slack channel provide real-time support. Note: Some advanced use cases may require additional support. Source: Sedai Platform Overview.

Pricing & Plans

What is Sedai's pricing model?

Sedai uses a resource-based pricing model, where costs are determined by the resources optimized and the value delivered. For Kubernetes environments, tailored pricing is available. All costs are transparently outlined on Sedai's pricing page, with no hidden fees. Discounts from cloud billing accounts (e.g., Reserved Instances, Savings Plans) are factored into cost and savings calculations. Note: For specific pricing, contact Sedai sales or request a demo. Source: Sedai Pricing page.

Business Impact & Customer Proof

What measurable business impact can customers expect from Sedai?

Customers can achieve up to 50% reduction in cloud costs, reduce latency by up to 75%, and decrease failed customer interactions by up to 70%. Engineering teams report up to 6X productivity gains due to automation of repetitive tasks. These outcomes are based on real-world deployments, including KnowBe4 (99.5% reduction in response time), Palo Alto Networks ($3.5 million saved), and Belcorp (77% latency reduction). Note: Results may vary by environment and use case. Sources: Sedai case studies.

Can you share specific customer success stories with Sedai?

Yes. KnowBe4 achieved up to 50% cost savings and a 99.5% reduction in AWS Lambda response time. Palo Alto Networks saved $3.5 million through Sedai's optimization. Belcorp reduced AWS Lambda latency by 77%. Campspot saw a 34% reduction in latency, and Inflection improved platform performance and reduced cold start latency. Freshworks optimized AWS Lambda for better user experience. See more at Sedai's resources page. Note: Individual results depend on environment and implementation.

Security & Compliance

What security and compliance certifications does Sedai have?

Sedai is SOC 2 certified, demonstrating adherence to stringent security requirements and industry standards for data protection and compliance. For more details, visit the Sedai Security page. Note: Additional certifications may be available upon request.

Use Cases & Target Audience

Who can benefit from using Sedai?

Sedai is designed for IT/Cloud Operations, FinOps, Technology Leadership (CTO, CIO, VP Engineering), Site Reliability Engineering (SRE), and Platform Engineering roles. It is suitable for organizations focused on cloud cost efficiency, performance, compliance, and operational productivity. Note: Teams requiring LLM-based incident analysis may need to supplement Sedai with additional tools. Source: Sedai Buyer Personas.

What industries are represented in Sedai's case studies?

Industries include cybersecurity (Palo Alto Networks, KnowBe4), security awareness training (KnowBe4), beauty and personal care (Belcorp), travel and hospitality (Campspot), background check services (Inflection), and customer engagement software (Freshworks). See Sedai's resources page for more details. Note: Not all industries may be represented in public case studies.

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Would You Trust Your AI Tools During a Breach?

Would You Trust Your AI Tools During a Breach?

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OpenAI's models broke out of their test sandbox and attacked Hugging Face's production servers chasing answers to a benchmark. But when Hugging Face's responders asked commercial AI models to help analyze the attack, the guardrails refused every query. The defenders finished the job with an open-weight model running locally.

So I asked our engineering leaders: Would your AI tools help you during a breach?

We Need Human Conscience as Our Guardrails

Hari Chandrasekhar (SVP of Engineering, Core)

For the vast majority of companies today, the answer is unsettlingly simple: we would only find out during the breach. Unless an organization's primary focus is AI cybersecurity and hardening, nobody is running routine tabletop exercises to test whether commercial LLM guardrails will freeze up during an active incident response.

This Hugging Face scenario highlights a fundamental shift in the threat landscape. Historically, most companies were protected less by their defenses than by their economics. Skilled attacks did not scale, because tailoring an intrusion to a specific org took expertise and time, so that effort went only to targets worth it. 

AI collapses that cost curve, and it does so without the fear of consequences or the conscience that shapes a human actor. Whether triggered accidentally by a runaway internal benchmark or intentionally by geopolitical bad actors, AI driven vectors are our new reality.

"Human conscience is the thing that has to be encoded into these systems and kept in the loop. Setting those boundaries has to be a collective effort across the industry rather than each vendor deciding alone."

You can't fight a new category of threat with legacy tools. When the threat operates beyond anything a person can stand against directly, the answer is never a better trained person, it is a defender operating at the same scale as the threat. Defending against AI powered attacks will require specialized defensive AI systems running at machine speed.

But a defender built without limits is just the next problem. These systems have to be built with their own guardrails from day one: explicit boundaries, hard limits, and a human who can shut it down. Judgment about what is proportionate and when to stop cannot be delegated to the system doing the defending. Human conscience is the thing that has to be encoded into these systems and kept in the loop. Setting those boundaries has to be a collective effort across the industry rather than each vendor deciding alone.

Right now, most teams would unfortunately discover their AI tooling gaps mid crisis. The imperative is that our security systems and guardrails adapt to the AI era fast, so that when the sirens go off, our break glass procedures are built with tools that actually fight in our corner.

The Cat’s Been Out of the Box

Nikhil Gopinath Kurup (SVP of Engineering, ML)

I'm not surprised by any of this. The cat left the bag when ChatGPT shipped, and everything since has been on schedule. People were writing about AI escaping its containment twenty years before there was an AI that could try. Yudkowsky even ran it as a game in the early 2000s

He pretended to be an AI locked in a computer, and a volunteer played the guard whose only job was to keep him in. The guard knew every trick was coming and still ended up opening the door. Nobody expected that, because everyone assumed the danger was technical, and the escape was just talking.

That pattern is the thing to pay attention to: This breach came through a zero-day in a package proxy, a door nobody was watching. The next escape will come through a different one, and eventually it will be your infrastructure. 

The question is what you'll use to figure out what happened. Hugging Face just found out: the commercial models refused to look at the exploit data, so they ran an open-weight model locally instead.

Both camps lose here, so I'd rather not pick one. 

If you go the vendor route and your safety filter gets retrained every few weeks with no changelog, whatever you validated a few months back isn't what you're talking to now. 

If you go the local open weights route, you're feeding credential dumps to something you didn't train. Calling that unaligned is sloppy, it's unfiltered, but it still can't tell you how it behaves on log data it has never seen. You're guessing either way, and it won't settle down, because attackers automate, defenders automate back, and fairly quickly nobody on either side can explain what happened. 

That last bit is what bothers me most about IR specifically. What you hand over at the end of an investigation is a timeline you have to stand behind in front of your board and probably a regulator. If your tooling can't show how it got there, the refused prompt is the least of your problems. What I'd do is: 

  1. Keep the deterministic stuff for parsing and correlating logs
  2. Keep a human reading it

If you want a model in that path, run it against last year's real incidents first, payloads included, so you already know what it does.

“The next escape will come through a different one, and eventually it will be your infrastructure. ”

This isn't abstract for me. Sedai takes autonomous actions in customer production, tens of millions of them so far, and no LLM makes a decision anywhere in that path. It's ordinary ML. Small models doing one narrow job, trained and validated so we can say what they'll do and explain afterward why they did it. Guardrails are fixed, and the operator can still change them. 

I wouldn't be comfortable running autopilot in a customer's account any other way. Maybe LLMs eventually get good enough to build those narrow models for us. Then this debate looks different. But right now it doesn't.

Probabilistic Systems Need Determinism

Benjamin Thomas (Co-Founder & CTO)

Honest Answer: most teams would find out during a breach, because nothing they test would surface it earlier. We test that the model is up, that latency is fine, and that the key hasn't rotated. We don't test whether it'll decline the one question we actually need answered at 3 am.

But I don't think the interesting debate here is local vs. hosted. Both sides are describing the same missing piece: the break-glass path is running on a probabilistic system and nobody has put deterministic controls around it.

Adoption has outrun maturity. Everyone's shipping with these models now, but the governance layer underneath is still thin. What orgs need to add on top of the providers is the boring stuff: explicit policy, a defined fallback, a named escalation path, and an owner who has actually exercised the break-glass path. Every one of those behaves the same way every single time, which is exactly what you need mid-incident.

"I trust the models, but with my own deterministic organizational governance controls on top of whatever the model provider hands me."

Related to the point I keep making: token governance can't just be a cost conversation. It must tell you what you're spending and which models each team is allowed to call, what's flowing through them, and where a call falls back when the primary refuses or goes down. 

That's security and intent beyond just spend. We practice this internally and it's a good chunk of what we shipped in AI Agent Optimization. It’s org-level model policy and cross-provider fallback in the same layer as the token telemetry.

Where I land: I trust the models, but with my own deterministic organizational governance controls on top of whatever the model provider hands me.


The fallback is something you define before the incident, not during it. Sedai builds model access policy and cross-provider fallback into one layer. See how.

About the Author

Suresh Mathew

Founder & CEO

Suresh Mathew is the CEO & Founder of Sedai. A pioneer of autonomous cloud optimization, Suresh works with Fortune 500 companies and government agencies to optimize their cloud & AI infrastructure. Under Suresh’s leadership, Sedai has expanded to a team of 100+ employees around the globe, received eight U.S. patents on its technology, and secured $38 million in funding from top investment firms.

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