Breadth without fragmentation
From bare metal servers and Kubernetes clusters to Snowflake warehouses and WebSphere clusters, every resource type lives in the same inventory, dependency graph, and alert pipeline, with no separate tool per domain.
Enterprise AI Platform · 25 Products
Explore productsXpediOo AI Observability consolidates infrastructure monitoring, application performance visibility, dependency intelligence, and incident response into a single operational surface. It is built for teams tired of stitching together a dozen disconnected tools to answer one question: what is happening, why, and what do we do about it?
Modern environments span physical data centers, multicloud accounts, Kubernetes clusters, polyglot databases, message brokers, application servers, and business services that depend on all of the above. XpediOo AI Observability was built around a simple premise: operators should not need to context switch between a cloud console, a database dashboard, a ticketing system, and a spreadsheet of dependencies to triage an incident.
Every resource type, from a bare metal server to a Snowflake warehouse to a WebSphere cluster, is represented in the same inventory, monitored through the same alerting engine, and connected through the same dependency graph. Sitting on top of that deterministic foundation is an AI assisted intelligence layer that applies large language models to the operational questions that traditionally required a senior engineer's judgment: what is the root cause, when will this resource run out of headroom, what happens if this dependency fails, and where is money being wasted.
A single screen that answers “is everything okay?” in under five seconds: global health, custom dashboards, and exportable reporting.
A live resource and satellite inventory spanning bare metal servers, Kubernetes clusters, and AWS, Azure, and GCP.
Purpose built monitoring for six data layer engine families, because data systems fail differently than application servers do.
Assurance for everything that serves traffic: network fabric, IP space, application runtimes, and outside in synthetic checks.
Automatic discovery feeding a deterministic dependency graph, with AI inferred signal clearly separated from direct measurement.
Reduce noise before it reaches a human, route what remains to the right channel, and resolve it automatically where policy allows.
An AI layer over the deterministic monitoring foundation: reviewable, editable output that augments operator judgment rather than replacing it.
Multi team isolation, an audit trail that survives scrutiny, reusable configuration standards, and public status communication.
| Domain | Coverage |
|---|---|
| Container orchestration | Kubernetes: clusters, namespaces, workloads, pods, and container level metrics |
| Public cloud | AWS, Microsoft Azure, and Google Cloud Platform: accounts, resources, cost, and audit findings |
| Relational and general purpose databases | PostgreSQL, MySQL, Microsoft SQL Server, Oracle, MongoDB, and other configured engines |
| In memory data stores | Redis (standalone, sentinel, cluster), Amazon ElastiCache, Google Cloud Memorystore |
| Analytical databases | ClickHouse: parts/merges, mutations, ZooKeeper/Keeper coordination, replication |
| Search and indexing | Elasticsearch and OpenSearch: nodes, clusters, indices, and watermark based alerting |
| Cloud data warehouses | Snowflake, Google BigQuery, Amazon Redshift: compute, query activity, and cost snapshots |
| Application servers | Apache Tomcat, Oracle WebLogic, IBM WebSphere, JBoss/WildFly, Microsoft IIS, Node.js, PHP-FPM |
| Network and address management | Device/interface/traffic monitoring; VLANs, subnets, DHCP scopes, and DNS records |
| Storage | Capacity, performance, and lifecycle monitoring with dedicated maintenance planning |
| Capability | Primary question it answers |
|---|---|
| Root cause analysis | Why did this incident happen, and what evidence supports that conclusion? |
| Capacity forecasting | How long until this resource runs out of headroom? |
| Impact analysis | What breaks downstream if this resource fails or changes? |
| Drift detection and baselines | Has this metric meaningfully deviated from its own historical normal? |
| Cost optimization | Where can cloud spend be reduced without sacrificing capacity? |
| Alert recommendations | Which alert rules are noisy, redundant, or mistuned? |
| Runbooks | What is the documented procedure for handling this scenario? |
| Auto remediation | Can this class of incident be resolved automatically, within approved guardrails? |
| AI analytics and search | What does the aggregate picture look like, and how do I find a specific entity fast? |
From bare metal servers and Kubernetes clusters to Snowflake warehouses and WebSphere clusters, every resource type lives in the same inventory, dependency graph, and alert pipeline, with no separate tool per domain.
Root cause analysis, capacity forecasting, cost optimization, and runbook generation all surface reviewable, editable output with explicit AI configuration, augmenting operator decision making rather than acting as a black box.
Auto remediation, escalation workflows, and reconciliation rules are built around approval and rollback, not silent execution. That is automation operators can trust, because it stays inside explicit guardrails.
Native multitenancy, audit trails, reusable configuration templates, and public status communication fit how enterprise teams and their customers actually work.
Walk through how XpediOo AI Observability unifies your infrastructure, cloud, data, and application monitoring, with AI assisted operations on top.