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KubeCon 2025 Day 1 Recap: Platform Engineering Meets AI/ML Innovation

Picture of Stefan Tsankov
Stefan Tsankov
DevOps and Cloud Engineer
02.04.2025
Reading time: 6 mins.
Last Updated: 03.04.2025

Table of Contents

KubeCon 2025 kicked off with two impactful tracks: Platform Engineering and Kubernetes AI/ML. While distinct, both emphasized the growing synergy between scalable internal platforms and cutting-edge AI technologies. The key takeaway? A robust platform strategy paired with AI-driven innovation is the future of cloud-native success.

 Kubecon 2025- cloud-native

Sessions focusing on platform engineering stressed the importance of treating the platform as a product. The approach involves offering clear self-service interfaces that enable developers to build, ship, and run applications without diving into low-level infrastructure complexities. Several real-world examples showed how organizations are reducing friction by standardizing workflows, while still allowing teams the autonomy to adapt the platform for new use cases.

Key Takeaways:

  • Internal Developer Platforms: Provide a unified interface that abstracts away Kubernetes primitives and other infrastructure details
  • Feedback Loops: Keep communication channels open so platform engineers understand developer needs, ensuring continuous improvement
  • Discoverability: Document curated services, templates, and tooling so developers quickly locate and leverage platform components

GitOps has become a cornerstone of modern platform automation, ensuring infrastructure remains consistent, version-controlled, and easily recoverable.

Key Takeaways:

  • IaC (Infrastructure as Code) Patterns: Organize configuration in Git repositories to isolate changes and facilitate peer reviews
  • Automated Rollbacks: In the event of misconfiguration or system errors, rolling back to a known good state becomes trivial
  • Drift Detection & Alerts: Continuous reconciliation ensures that any deviation from the “source of truth” is detected early and can trigger automated corrections

To maintain large-scale Kubernetes environments, platform teams are prioritizing observability. Sessions addressed how logs, metrics, and traces come together to provide a real-time view of cluster health. Attendees learned about strategies to sift through massive amounts of telemetry, identify anomalies, and pinpoint root causes across microservices.

Key Takeaways:

  • Unified Observability Stacks: Integrate logging, tracing, and metrics across all services for end-to-end visibility
  • Data Filtering & Prioritization: Implement automated filtering to surface high-value data and reduce noise
  • Performance Analytics: Leverage dashboards and alerts for proactive monitoring, capacity planning, and anomaly detection
Platform Engineering and developer experience for your on-prem LLM

Security took center stage as well, particularly in the context of automating compliance checks. Talks focused on weaving security into CI/CD pipelines, scanning container images for vulnerabilities, and enforcing policy-as-code to maintain organizational or regulatory requirements.

Key Takeaways:

  • Continuous Security Scans: Integrate scanning tools within container registries and build pipelines to spot issues early
  • Policy-as-Code: Encode security and compliance rules for automated enforcement and auditing
  • Governance Protocols: Establish clear incident-response guidelines and governance for how issues are reported and remediated

Running in parallel to the platform engineering track, the AI-focused sessions underlined how Kubernetes has become a foundational layer for large language models (LLMs), machine learning (ML), and advanced analytics. Topics ranged from multi-cluster model serving to hardware-aware scheduling and confidential computing.

Kubernetes’ portability and scalability make it a prime candidate for high-performance AI workloads. Discussion centered on how the rise of LLMs and generative AI demands a rethinking of traditional ML pipelines and resources, pushing the boundaries of MLOps practices.

Key Takeaways:

  • LLM-Focused Infrastructure: Containers, GPUs, and specialized scheduling combine for optimal performance
  • Evolving MLOps: Model development, testing, and deployment are increasingly standardized in Kubernetes-based workflows
  • Hybrid Deployments: Balancing on-prem and cloud resources can yield both cost efficiency and governance benefits

Lightning talks showcased emerging solutions, including retrieval-augmented generation (RAG) for question-answering and specialized gateways for LLM inference. The emphasis was on managing inference latency, scaling horizontally, and tracking performance metrics.

Key Takeaways:

  • RAG in a Box: Integrate retrieval pipelines with microservices to improve user queries and responses
  • LLM Gateways: Offload heavy inference tasks using proxies optimized for concurrency and hardware acceleration
  • Observability for AI: Instrument inference services to measure real-time GPU utilization, latencies, and error rates

A deeper dive into model serving introduced KServe as a central solution for hosting large models in production. Presenters discussed tackling GPU constraints, orchestrating updates across multiple clusters, and maintaining a consistent developer experience.

Key Takeaways:

  • Optimizing GPU Usage: Use auto-scaling and advanced resource scheduling to handle peak demands efficiently
  • Version Control & Rollbacks: Apply GitOps-like patterns for model versioning, reducing risk when updating production systems
  • Performance Telemetry: Integrate real-time metrics to proactively adjust cluster resources and detect anomalies

Some sessions highlighted how edge computing can coexist with centralized cloud deployments using tools like KubeEdge and WasmEdge. The ability to run smaller inference tasks at the edge while offloading more complex training or LLM serving to the cloud helps balance performance, cost, and data locality.

Key Takeaways:

  • Consistent Security: Uniform policy enforcement from edge to cloud ensures data integrity and compliance
  • Lightweight Runtimes: Wasm-based containers offer low overhead, ideal for resource-constrained edge environments
  • Hybrid Orchestration: A single control plane can manage both distributed edge devices and large cloud clusters seamlessly

A lively panel covered best practices for deploying AI/ML at scale. Community-driven projects like Kubeflow serve as a blueprint for pipeline automation and model lifecycle management, but panelists also emphasized the importance of tailoring solutions to unique enterprise needs.

Key Takeaways:

  • Multi-Tenancy: Leverage Kubernetes namespaces and role-based access control for secure, shared environment
  • Automation: Implement end-to-end CI/CD for data preprocessing, training, and deployment pipelines
  • Community & Governance: Collaborate within open-source communities while instituting organizational guardrails

Talks on Kubernetes scheduling zeroed in on GPU workloads and HPC integrations. Optimizing AI jobs requires more than simply assigning pods to nodes; advanced techniques incorporate node and GPU topology for better throughput.

Key Takeaways:

  • Topology-Aware Scheduling: Tools like Kueue factor in memory bandwidth, CPU affinity, and GPU constraints
  • GPU Sharing: Dynamic Resource Allocation (DRA) and specialized device plugins improve GPU utilization
  • HPC + Kubernetes: Hybrid HPC and Kubernetes models balance large-scale batch training with flexible orchestration

Maintaining data privacy and model integrity is a growing concern. Confidential computing and policy enforcement were showcased as crucial for sensitive or regulated industries.

Key Takeaways:

  • End-to-End Encryption: Protect data in transit and at rest using enclaves and secure key management
  • Policy-as-Code: Define AI governance rules in code to ensure consistent enforcement throughout the ML lifecycle
  • Trusted Execution: Combine Kubernetes isolation with hardware-level protections for critical workloads

One of the more forward-looking talks examined how agentic AI can reduce toil in managing Kubernetes resources. By automating the generation and validation of IaC artifacts, engineering teams might accelerate deployment lifecycles without sacrificing reliability.

Key Takeaways:

  • Auto-Generated YAML: Use AI models to propose manifest updates, while keeping human checks in place
  • Version Control: Store AI-generated configurations in Git for transparency and quick rollbacks
  • Iterative Improvement: Let AI tools learn from user feedback to refine suggestions over time
Kube resource

Additional sessions tackled the complexity of sharing GPUs across multiple jobs, as well as best practices for benchmarking distributed ML training. HPC environments can integrate with container orchestration, unlocking flexibility for large-scale computations.

Key Takeaways:

  • Pooling GPU Resources: Prevent idle GPU time by dynamically allocating resources to active tasks
  • Repeatable Benchmarking: Use standardized metrics and frameworks to assess end-to-end training or inference performance
  • HPC Collaboration: Combine HPC job schedulers with Kubernetes for a unified approach to AI research and production workloads

Finally, open-source tools for detecting bias and ensuring robust AI systems took the spotlight. Talks centered on real-time monitoring for bias, anonymizing training data, and establishing explainability standards.

Key Takeaways:

  • Bias Detection: Continuously evaluate model outputs to identify systematic errors or unfairness
  • Explainability: Provide transparent model decisions, especially in sensitive or regulated settings
  • Policy & Governance: Define governance frameworks to ensure compliance with current and emerging AI regulations
KubeCon 2025 Day 1 Recap: Platform Engineering Meets AI/ML Innovation

Day 1 at KubeCon 2025 demonstrated that platform engineering and AI/ML operations increasingly reinforce each other. The same principles that power robust, automated, and secure platforms—GitOps, observability, self-service, policy-as-code—are also fueling innovations in AI and ML deployment. By focusing on simplicity, scalability, and security, teams can build an internal developer platform that accelerates everything from microservice rollouts to large-scale LLM training.

Whether your priority is streamlining developer workflows or deploying resource-intensive AI workloads, the roadmap involves:

  1. Automating the Pipeline: Use GitOps and IaC for reproducible and consistent updates
  2. Observing Everything: Instrument logs, metrics, and traces across services and clusters for deep insights
  3. Securing by Design: Integrate security scanning, policy checks, and confidential computing from the start
  4. Scaling with Intelligence: Employ advanced scheduling and resource management for complex AI workloads
  5. Fostering Collaboration: Treat platforms as products with feedback loops that empower both developers and data scientists

The synergy between platform engineering and AI stands to reshape how organizations build and operate cloud-native systems. By merging proven DevOps practices with the specialized needs of AI/ML, teams can push the boundaries of speed, efficiency, and innovation.

Learn more about the 2nd day of KubeCon 2025.

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