Cloud operations · AI-powered incident management

Consolidating incident and change signals in cloud operations

A European technology group runs more than 320 cloud services; hundreds of incidents and changes arise every day, and the signals are scattered.

  • Technology
  • IT Operations

Key metric

Processing time per incident

4024min

Average processing time per incident in IT operations

At a glance

Initial problem

Scattered signals in cloud IT operations

Solution type

Agentic workflow for IT operations

Complexity

Transformation

Key metric

40% less processing time per incident

User group

IT operations teams and platform owners

Implementation time

3-6 months

Operating model

Integrated into existing IT systems

Starting point

The group runs several cloud platforms with more than 320 services in total for internal products and customer solutions. IT operations consists of 4 platform teams and a central operations center with around 25 full-time staff combined. On average, 280 incidents and 180 changes arise per working day, spread across the ticketing system, monitoring, deployment pipelines and chat channels. An incident takes 40 minutes to handle on average, and a change including documentation around 60 minutes. On-call duty is driven by monitoring and tickets, but dependencies between services and parallel changes exist only in scattered documents and people's heads.

320
cloud services
460
incidents and changes/day

The challenge

Day to day, the teams have to decide which incidents to handle first, which changes should be postponed and when additional specialists need to be brought in. Monitoring generates hundreds of alarms every day and tickets contain free-text descriptions, while planned changes are documented in deployment tools and wikis. These signals are brought together manually by experienced employees who piece the information together from several systems. Critical knock-on effects, such as an incident in a core service during a parallel change, are often recognized late. This leads to longer outages, unplanned night shifts and a lot of coordination between platform teams, product development and business units.

Typical symptoms in the organization

“I spend half the day laying tickets, alarms and chats side by side.”

“We often only notice conflicts between incidents and changes when something has already gone down.”

“On-call feels like flying blind because we lack context on services and dependencies.”

“We have no shared view of which incidents are truly business-critical.”

Why this remained unsolved

Those responsible had seen the problem for years but prioritized other platform expansion projects. A classic IT project seemed too big because several systems and teams were involved, yet the effort for manual coordination was too high to ignore. Attempts with additional dashboards had no effect, as they only aggregated technical metrics and made no connection to tickets, changes and business criticality. Without a solution that understands signals from different sources, brings them together and makes concrete suggestions for action, coordination remained heavily dependent on individuals.

Manual dashboards

One team built its own dashboards from monitoring data, but tickets, changes and criticality remained scattered.

Stricter processes

New checklists for changes were meant to prevent conflicts but were hardly used day to day and only increased the documentation effort.

Our solution

An agentic workflow was introduced that continuously bundles signals from monitoring, the ticketing system, deployment pipelines and chat channels. The system maps incidents and changes to the affected services, assesses criticality based on defined business impact classes and detects conflicts, such as parallel changes to a core service that is already disrupted. For on-call teams, the workflow provides a consolidated view of current incidents, planned interventions and known dependencies. It generates prioritization suggestions, recommends escalations to specialist teams and helps document decisions for audits. The platform teams keep their existing tools but gain an overarching control layer that structures context and next steps.

Where generative AI comes in

Generative AI analyzes free text in tickets and chats, summarizes symptoms and impact, and maps them to services and business units. It recognizes patterns in incidents and changes, formulates prioritized suggestions for action and creates clear summaries for handovers and audits.

Building blocks
  • Connection of monitoring, the ticketing system, deployment pipelines and chat channels to a central workflow that standardizes signals.
  • Configurable assessment logic for business impact, service criticality and dependencies that automatically prioritizes incidents and changes.
  • A generative assistance layer that interprets free text from tickets and chats and produces structured suggestions for on-call.
  • An interactive interface for the operations center and platform teams that transparently shows current incidents, planned changes and escalations.
  • Feedback loops in which teams confirm or adjust suggestions so that the workflow learns from decisions and improves its recommendations
How it works

How the agentic workflow runs in operations

  1. Collect signals

    The workflow continuously reads monitoring alarms, new tickets, planned changes from pipelines and relevant chat messages and maps them to services.

  2. Assess context and criticality

    The system adds business impact, dependencies and history to technical data, detects conflicts between incidents and changes and assesses urgency.

  3. Generate suggestions

    Generative components formulate prioritized suggestions for action, group similar incidents and create structured overviews for on-call and platform teams.

  4. Guide and document teams' work

    The operations center and platform teams work with the interface and confirm or correct suggestions, while the workflow documents decisions for audits.

  5. Learn from feedback

    Confirmed and rejected recommendations feed into the assessment logic, so the workflow increasingly takes typical patterns and service specifics into account.

Impact

Measured: after six months in production

Period: after six months in production.

MetricValueBasis
Processing time per incidentKey metricfrom 40 to 24 minutes per incidentTime tracking before/aftermeasured
Time spent on coordinationaround 3,000 hours less per yearProjectionestimated
Quality of suggestionsQuality metricusable without rework in 85% of casesSamplemeasured

Cost-effectiveness

Effort class

Program (> 150 person-days)

Payback period

6-12 months

Main lever

Time savings

Ongoing costs

Ongoing costs arise mainly from hosting, model usage, maintaining the integrations and adjusting the assessment logic.

Limitation

The workflow depends on stable interfaces and well-maintained service catalogs. During restructuring or with poorly documented services, the quality of suggestions drops, so teams have to intervene manually more often and plan time for reviews.

Integration and operation

Connected systems

Connected systems include the central ticketing system, monitoring platforms, deployment pipelines, chat channels and a service catalog describing services, criticality and dependencies.

Operation

The system runs in the group's existing cloud environment, separate from production services, with clear network boundaries and role-based access for the operations center and platform teams.

Compliance

Access to tickets and logs follows existing authorization concepts, and sensitive content is shown only to authorized roles. Logs of decisions and escalations are stored in an audit-proof way and remain traceable for audits.

Labeling

Interfaces and logs clearly show which texts and suggestions were generated automatically and which steps were confirmed or adjusted by employees.

Accountability

The system's recommendations are labeled as suggestions; approvals and prioritization formally remain the responsibility of the respective platform owners and the operations center.

Escalation path

In case of uncertainty or conflicting signals, the workflow forwards cases to designated specialist roles, such as service owners or the security team, and documents the escalation in the ticket.

Traceability

For every incident, the signals used, assessment steps and decisions taken are logged, so it is clear afterwards why an incident or change was prioritized or postponed.

Operational roles

The operations center uses the workflow for day-to-day control, platform teams review suggestions for their services, and a DevOps team maintains the integrations and develops the assessment logic further.

Transferability

The pattern of bundling technical and organizational signals in an agentic workflow transfers well to other complex operating environments. Wherever several systems, free-text descriptions and parallel interventions come together, such an approach can help make critical cases visible earlier and relieve specialists of manual coordination. What matters is having a basic catalog of objects, criticality and dependencies that the workflow can use and gradually refine.

Production plants with connected machines and parallel maintenance in the process industry.

Retail store networks with technical faults, refits and parallel campaigns.

Power distribution grids with control centers that coordinate faults and maintenance.

A similar case in your organization? Let's talk.

Briefly describe your process. We'll get back to you with an initial assessment of whether the pattern can be transferred and what it would realistically take.

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