Operations | Monitoring | ITSM | DevOps | Cloud

In today’s highly interconnected systems, the subtle relationships between services are rarely obvious. Modern, complex architectures generate telemetry that functions less as “flashing signs” and more as faint “breadcrumbs” to be followed across a vast network of signals. In 2025, about two-thirds of outages involved third-party systems like cloud platforms and APIs.

Model Context Protocol (MCP) servers act as adapter layers between clients and AI based workloads. MCP installation into an IDE, such as Cursor, brings a wealth of information directly into the developers primary tool, minimizing context switching and, especially in the world of observability, bringing telemetry closer to the code. MCP is not without its limits. These limits initially seem trivial, but in time, some of the inherent limitations to a basic MCP implementation become apparent.

Observability data arrives as a flood of signals, full of potential, but rarely consistent. Error messages and debug logs can reveal what businesses care about: reliability, customer experience, and revenue. The challenge is turning raw technical events into information the whole organization can act on. Many observability systems store data first and structure it later, forcing teams to rebuild context in dashboards and queries, often duplicating logic across services.

We've just released new and easy-to-use Bindplane blueprints designed specifically for Elasticsearch as a destination. These blueprints empower teams to quickly transform raw events such as those from NGINX access and error logs into clean, structured, and ECS-compliant data optimized for high-performance visualization in Kibana.

For years, organizations tried to solve operational pain by collecting more data, adding more dashboards, and consolidating more tools. But 2025 exposed a deeper mismatch. Systems had become more distributed, AI-assisted, and interdependent than ever before, while teams had shrunk and on-call pressure had intensified. This wasn’t a tooling failure. It was an architectural and cognitive one.

Mining for information about environments is like trying to find gold. Looking for gold can be sifting through silty waters or blasting through a mine. In some cases, the gold nuggets are so small as to be almost invisible, some things look like gold but aren’t, and others are larger nuggets where the miner strikes it rich. Trying to understand how a distributed system works means sifting through vast amounts of telemetry, looking for patterns.

In a global microservices architecture, technical performance initially presents as a chaotic stream of disconnected telemetry. For a Technical Program Manager (TPM), success depends on the ability to move past these disconnected individual data points to identify stable patterns. If they have services entering critical states, looking at individual logs or traces is inefficient. Protecting system reliability requires an engine that can automate pattern recognition at scale.

OpenTelemetry almost always works beautifully in staging, demos, and videos. You enable auto-instrumentation, spans appear, metrics flow, the collector starts, and dashboards light up. Everything looks clean and predictable. However, production has a way of humbling even the most carefully prepared setups. When real traffic hits, and it always spikes sooner or later, you start seeing dropped spans.

With modern tooling and agentic coding assistants, straightforward bugs are almost a relief. If a test can catch it, or a user can reproduce it, chances are you can squash it quickly. The harder category — and the one worth writing about — are the bugs where everything looks correct. Your code runs, no exceptions are thrown, your debug statements confirm the right functions fire at the right times, and yet nothing works.