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I attended KubeCon + CloudNativeCon India 2026 for the first time this year. Rather than documenting every session, I wanted to capture the ideas, technologies, and trends that stood out.
The talks I attended largely fell into three buckets:
- AI and Agentic Systems
- Security and Supply Chain Security
- Platform Engineering and Reliability
What became apparent throughout the conference, however, was that these domains are increasingly converging.
Below are my notes and takeaways.
🚦 LLMd: Intelligent Routing for AI Inference
Traditional load balancers assume all replicas are equal.
For LLM workloads, that's often not true.
LLMd proposes routing inference requests based on:
- Current pod load
- Cache hit probability
- Context locality
Instead of blindly distributing traffic, requests can be routed to pods that already contain relevant context, reducing recomputation and improving GPU utilization.
What stood out
- AI workloads introduce cache locality as a scheduling concern.
- Infrastructure decisions now directly influence inference performance.
- GPU efficiency is becoming as important as raw compute availability.
Takeaway: The best destination for an AI request is not always the least-loaded pod.
⚙️ Running AI Agents on Kubernetes
This session focused on understanding three concepts that increasingly appear together:
- AI Agents
- MCP Servers
- Dynamic Resource Allocation (DRA)
Rather than viewing them independently, the talk showed how they combine to form adaptive AI platforms.
One particularly interesting idea was using agents to influence infrastructure decisions dynamically, allowing workloads to optimize GPU allocation and scheduling in real time.
What stood out
Kubernetes is no longer just hosting AI workloads.
AI workloads are beginning to participate in infrastructure decisions themselves.
Takeaway: Kubernetes is becoming a platform increasingly managed by AI systems.
🧠 Building Production-Ready Agentic AI Systems
One recurring theme throughout KubeCon was that an AI application is much more than an LLM endpoint.
Production systems require:
- Memory
- Tool calling
- RAG
- Guardrails
- Observability
- Resilience
The session also emphasized LangChain4J as a Java-native framework for building agent workflows.
Interesting orchestration patterns included:
- Prompt chaining
- Reflection loops
- Parallel execution
- Intelligent routing
What stood out
As systems evolve from:
1 Service
1 Model
to:
N Services
M Models
K Agents
the challenge shifts away from prompting and toward orchestration, state management, and reliability.
Takeaway: Agentic systems should be treated as distributed systems.
👤 Root Without Risk: User Namespaces
A long-standing container security problem is that root inside a container often maps to root on the host.
Kubernetes User Namespaces address this by mapping container root to an unprivileged user on the host.
Benefits include:
- Reduced impact of container escapes
- Better isolation boundaries
- Lower blast radius from runtime vulnerabilities
The session also demonstrated how this mitigates several container escape scenarios.
Takeaway: Root inside a container should not imply root on the host.
🔒 LLMs Behind Bars: Sandboxes at Scale
The moment an AI system executes generated code, it effectively becomes a remote code execution platform.
The challenge is obvious:
- Host compromise
- Data exfiltration
- Secret exposure
- Resource abuse
- Network abuse
The session focused on building production-grade sandboxes using:
- Containers
- Filesystem isolation
- Restricted syscalls
- Resource limits
- Network controls
The emphasis was not only on security but also on operational challenges such as startup latency, observability, and scaling thousands of short-lived execution environments.
Takeaway: Treat AI-generated code exactly like code submitted by an unknown internet user.
⛏️ Stopping a Crypto-Mining Attack Triggered by a Next.js RCE
This session demonstrated how a Next.js RCE vulnerability can evolve into a Kubernetes security incident.
Attack progression:
Application RCE
↓
Container Access
↓
Payload Download
↓
Crypto Mining
↓
Resource Abuse
Defensive controls included:
- Falco
- Kyverno
- Resource limits
- Workload isolation
- Least privilege
What stood out
Patching is necessary, but it is rarely sufficient.
The real outcome depends on the controls available after compromise.
Takeaway: Defense-in-depth determines the blast radius of a successful attack.
🌍 Your Prompt Is a Cross-Border Data Transfer
Every AI request creates a chain of data movement.
A seemingly simple prompt may involve:
- Vector databases
- RAG pipelines
- MCP servers
- External tools
- Logging systems
- Third-party models
Organizations often know where their databases reside but cannot explain where a prompt traveled.
The proposed concept was an AI Receipt using OpenTelemetry traces to reconstruct the full lifecycle of an AI request.
Why it matters
As AI adoption increases, data sovereignty and governance become observability problems.
Questions such as:
- Which systems processed the prompt?
- Which country handled the data?
- Which tools received context?
need verifiable answers.
Takeaway: AI observability must include data lineage, not just application telemetry.
🌳 Cryptographic SBOM Auditing Without IP Leakage
As SBOM requirements become more common, organizations face a difficult tradeoff:
- Auditors want transparency.
- Vendors want confidentiality.
The proposed solution used Merkle-tree commitments to separate verification from disclosure.
Instead of sharing an entire SBOM:
- Publish a cryptographic commitment.
- Reveal only the components required for an audit.
- Provide proof that the disclosed components belong to the committed SBOM.
Why it matters
This introduces the concept of selective disclosure for compliance.
Organizations can prove integrity without exposing their entire software composition.
Takeaway: Compliance may increasingly rely on cryptographic proofs rather than trust-based reporting.
📜 Automating Compliance with Policy-as-Code
One of the more practical sessions focused on translating compliance requirements directly into machine-enforceable policies.
The model consisted of three layers:
Proactive Controls
Catch violations during CI/CD.
Preventive Controls
Block non-compliant workloads from reaching production.
Detective Controls
Continuously gather evidence and monitor environments.
Why it matters
Compliance often becomes a periodic audit exercise.
Policy-as-Code shifts compliance into the software delivery lifecycle itself.
Takeaway: Compliance should be an engineering capability, not an audit event.
💥 Chaos Engineering at Scale
Flipkart shared how they built a centralized chaos engineering platform on top of LitmusChaos.
Interesting implementation details included:
- Hybrid multi-tenancy
- DaemonSet-based chaos injection
- Script Runner for dynamic targeting
- Support for VM workloads
The platform transformed chaos engineering from isolated experiments into a reusable organizational capability.
Takeaway: Reliability practices become impactful when they are self-service and repeatable.
📜 Why Your Cluster-Wide Policies Are a Risk
Cluster-wide policies provide strong governance but also create large blast radii.
A single policy mistake can impact every workload in a cluster.
The session explored namespace-scoped policy models that provide:
- Better ownership
- Team autonomy
- Reduced operational bottlenecks
- Smaller failure domains
What stood out
Not every policy needs to be cluster-wide.
Many application-specific controls are better managed closer to the workloads they govern.
Takeaway: Policy scope is a security decision.
🔗 Five Tactics for a Hardened Software Chain
This lightning talk framed software supply chain security around five trust boundaries:
- Source
- Build
- Registry
- Admission
- Runtime
Recommended controls included:
- Golden paths
- SBOM generation
- Artifact signing
- Admission policies
- eBPF runtime protection
What stood out
The message was simple:
Security failures often occur between stages rather than within stages.
Takeaway: Secure the entire software delivery lifecycle, not just the Kubernetes cluster.
🎯 Pruning Kernel CVEs with Reachability Analysis
Most vulnerability management programs still rely heavily on version matching.
This session argued that many kernel vulnerabilities may not be exploitable because the vulnerable code:
- Is not compiled
- Is not enabled
- Is not loaded
- Is not reachable
The proposed approach maps CVEs to vulnerable functions and performs reachability analysis using:
- Kconfig
- Loaded modules
- Call graphs
- Runtime context
Why it matters
This can significantly reduce vulnerability noise while helping teams focus on vulnerabilities that represent practical risk.
Takeaway: Risk should be based on reachability, not simply the presence of vulnerable code.
👥 The Human Cost of Security in the AI Era
This keynote was less about technology and more about the people responsible for maintaining it.
Security discussions often focus on:
- CVEs
- Advisories
- Vulnerability scores
- Supply chain incidents
What is often ignored is the human effort required to:
- Investigate
- Patch
- Communicate
- Respond
The session explored how AI may simultaneously increase and reduce this burden.
Takeaway: Every vulnerability has a CVSS score, but every vulnerability also has a human cost.
Across AI, security, and platform engineering sessions, three ideas surfaced repeatedly.
🧠 1. AI Is Becoming Infrastructure
The conversation is no longer about calling LLM APIs.
It is about:
- Scheduling GPUs
- Routing inference traffic
- Running agents
- Sandboxing generated code
- Operating AI platforms
Kubernetes is rapidly becoming the default platform for AI systems.
✅ 2. Verification Is Replacing Trust
Several talks focused on proving security properties instead of assuming them.
Examples included:
- Cryptographic SBOMs
- Policy-as-Code
- Artifact signing
- Runtime enforcement
- Reachability analysis
The common theme was verifiable security.
⚙️ 3. Platforms Are Absorbing Complexity
Whether the topic was:
- Chaos engineering
- Compliance
- AI infrastructure
- Security policies
the goal was consistent:
Move operational complexity into the platform so application teams can focus on delivering business value Overall, KubeCon 2026 reinforced that Kubernetes is no longer just a container orchestration platform. It is increasingly becoming the operating system for AI, security, compliance, and modern platform engineering.
If any of these topics interest you, feel free to reach out. I would be happy to share session links, references, and more detailed notes.