Alerts are abundant; causes are not
Alerts arrive per tool with no correlation, so root-cause judgment still depends on an experienced operator.
AUTONOMOUS OPERATIONS PLATFORM
An AI control plane that sits between the observability stack and the execution tools you already run. It adds prediction, judgment, action and evidence on top of your stack, with no additional collector.
01 / THE PROBLEM
In an environment where messaging, databases, API gateways, containers and applications are entangled, failures come from compound causes. Tooling multiplied, while judgment, action and accountability stayed with people.
Alerts arrive per tool with no correlation, so root-cause judgment still depends on an experienced operator.
Detection is automated; action is not. Night and holiday delays accumulate directly into MTTR.
Turning on automated action introduces misfires, duplicate execution and runaway loops. Without policy and rollback, it cannot be switched on.
Financial and public-sector audits do not ask whether you recovered. They ask for the rationale, the approval record and immutable evidence of the outcome.
Orbiton.AI unifies these four into a single control loop.
02 / CATEGORY
The global market has already moved past observability toward AI-driven autonomous operations. Orbiton.AI sits at the final stage.
Metric collection and threshold alerts
Unified metric, log and trace analysis
Correlation, anomaly detection, recommended action
Policy-driven execution, verification, rollback and evidence
Orbiton.AIThe global AIOps market is led by Dynatrace (causal AI root-cause analysis), Datadog (unified observability with ML anomaly detection), BigPanda and Moogsoft (event correlation and noise reduction), ServiceNow (ITSM workflow) and IBM Instana (hybrid cloud operations). Their shared limit is that execution, verification, rollback and regulatory evidence live in separate product lines. Orbiton.AI unifies that span into one engine.
03 / OVERVIEW
An AI control plane placed between the observability stack and the execution tools already in use.
Time-series forecasting and unsupervised anomaly detection surface risk before a threshold is crossed. A rule-based risk score runs alongside the ML models, so the system operates from day one, before training data accumulates.
The policy engine decides what is permitted and what needs approval; the workflow engine carries execution, verification and rollback through a state machine. A failed action is always reverted.
Every rationale and approval from detection to closure is written to immutable storage, and audit reports plus weekly and monthly operations reports are generated automatically.
Kafka · RabbitMQ · Pulsar · Kubernetes · Database · API Gateway · in-house applications — target systems are swapped by driver.
04 / ARCHITECTURE
Layers couple only through standard interfaces; replacing one leaves the rest running.
Multi-tenancy (tenant_id / cluster_id) and data boundaries are enforced in every layer, and service-to-service traffic is fixed to mTLS.
05 / CAPABILITIES
Detect issues faster and improve reliability. Four time-series models with an Isolation Forest and USAD ensemble catch backlog and resource risk before any threshold is reached.
Accelerate incident investigation. Four-step causal inference determines whether a metric shift is the actual cause and presents the reasoning.
Actions are managed as declarative definitions. A DAG workflow defined in YAML performs branching, retries, cooldowns, verification and rollback.
Policy fixes the permitted action space — automatic execution, approval requirement, attempt budget, cooldown and the per-risk action list.
Build the evidence regulators ask for, automatically. Hash-chained audit logs and per-incident snapshots are stored, and post-mortem, RCA and periodic reports are published on schedule.
Query state through a streaming conversation and receive causes and candidate actions. Execution must still pass policy evaluation and the approval gate.
The six modules operate as a single closed control loop.
06 / AI ENGINE
No single model carries the decision. Forecasting, judgment, inference, learning and quality monitoring are split across models whose outputs combine into one decision.
| Model | Role | Implementation |
|---|---|---|
| LSTM | Forecasting | PyTorch · PyTorch-Forecasting |
| Prophet | Forecasting | Prophet · holidays-KR |
| Temporal Fusion Transformer | Forecasting | PyTorch-Forecasting (Lim 2021) |
| N-BEATS | Forecasting | PyTorch (Oreshkin 2020) |
| Anomaly ensemble | Anomaly | Scikit-learn Isolation Forest · USAD |
| Causal inference | Cause | EconML · DoWhy (Pearl 4-step) |
| Model | Role | Implementation |
|---|---|---|
| RL policy | Action selection | Stable-Baselines3 PPO |
| Federated learning | Distributed training | Flower FedAvg |
| DP federated learning | Privacy | Opacus DP-SGD · Flower |
| Continual learning | Knowledge retention | EWC (Kirkpatrick 2017) |
| Drift detection | Quality monitoring | Evidently PSI·KS · River Page-Hinkley |
| Hyperparameter tuning | Search | Optuna TPE sampler |
Every model is deployed as an independent inference endpoint. Training, inference and retraining history is versioned in the model registry, and only approved versions inform real decisions.
07 / INTEGRATION
Orbiton.AI presumes no particular vendor. The boundary where it meets external systems is defined by exactly three plugin types; the rest of the engine is reused unchanged.
Only the metric, trace and log query interface is fixed; the backend stays replaceable.
Resource discovery, metric collection and action execution are abstracted into a common model.
A standard event schema and webhooks keep both directions in sync.
Plugin standard — signed manifest, declared permission scopes, sandboxed execution, compatibility matrix, SBOM verification, exponential backoff retry and failure-event retention.
08 / DRIVER MODEL
One engine serves every target system. Once a driver implements four methods, the forecasting, anomaly, policy, workflow and evidence engines are reused as-is.
| Common concept | Kafka | RabbitMQ | Pulsar |
|---|---|---|---|
| Backlog | Consumer Lag | Queue Depth | Backlog |
| Destination | Topic | Queue · Exchange | Topic |
| Consumption unit | Consumer Group | Consumer | Subscription |
| Partition unit | Partition | Shard (optional) | Partition |
| Ingress · throughput | Produce · Consume | Publish · Deliver | Publish · Ack |
| Node health | Broker Health | Node Health | Broker Health |
Different names, same concept. The engine only reads the mapped common values.
list_resourcesEnumerate managed resources such as clusters, queues and topicsfetch_metricsNormalize system-specific metrics into the common metric modelexecute_actionExecute scale, restart and configuration-change actionsfetch_schema_samplesSample messages to detect schema driftChanging the driver leaves the forecast ensemble, anomaly detection, causal inference, policy engine, workflow, approval console and evidence store untouched. Integration is complete once the target metric names and action API are fixed.
09 / GOVERNANCE
A product where AI executes operational change does not clear a procurement review without security and governance in place.
10 / DEPLOYMENT
If the product itself stops, automation, visibility and audit stop with it. Orbiton.AI ships high availability and disaster recovery as product features.
Control plane and data plane separated for independent regional execution
Reduced to 5 minutes with the optional configuration
Zero with synchronous replication enabled
Progressive activation via rolling release and feature flags
11 / POSITIONING
Orbiton.AI does not replace your observability tools. It owns the layer above them that judges, acts and proves.
| Axis | Observability-centric | Event-correlation-centric | Orbiton.AI unified control plane |
|---|---|---|---|
| Dynatrace · Datadog · Instana | BigPanda · Moogsoft · ServiceNow | ||
| Strength | End-to-end observability and root-cause analysis | Alert noise reduction and incident consolidation | Closed loop of predict, judge, act and prove |
| Automated action | Recommendation and trigger | Ticket creation and routing | Execution, verification and rollback after policy evaluation |
| Approval | Handled by a separate tool | Depends on ITSM workflow | In-product approval console with SLA timers |
| Audit evidence | Dashboard queries | Ticket history | Immutable storage with automated audit reports |
| Target coverage | Bound to agent coverage | Bound to connected alert sources | Targets swapped through driver plugins |
| Deployment | SaaS first | SaaS first | On-premises and air-gapped included |
The comparison is a positioning view based on each vendor’s public material, not a feature-by-feature verdict.
12 / USE CASES
Backlog on payment and order paths is detected early and scaled under approval, with rationale and approval records submitted directly to audit.
Anomalies in data flowing from plant equipment are caught early and recovered automatically within policy, including unstaffed hours.
Install and update with no internet connection, force data storage and inference to stay in-country, and record every action immutably.
Promotion-period surge patterns are learned for preemptive scaling, with resources returned afterward to contain cost.
The engine is identical. Industry differences are absorbed by the policy bundle, workflow bundle and driver combination.
13 / ADOPTION
Start in safe mode and widen automation only as trust accumulates. Automated action is never on from day one.
Attach adapters to the existing observability stack and add the target system driver. Automated action stays off while prediction and anomaly detection are observed.
Output · A detection-quality baselineDefine policy and open the approval console. Every action passes human approval while the verification and rollback paths are exercised for real.
Output · Action success rate and rollback behavior confirmedRelax policy so low-risk actions with a proven success rate run without approval. Everything else keeps the approval gate.
Output · Shorter night and holiday responseAdd drivers and connectors to reach adjacent systems, and retrain models on accumulated operational data.
Output · Adopted as the company-wide operating standardEach phase is switched by a feature flag, so lowering the flag returns you to the previous phase immediately.
14 / TECH STACK
Every layer runs on open source and open standards, with no point of lock-in to a cloud or a commercial product.
15 / ROADMAP
Each item extends the existing structure rather than changing it. Because the layer interfaces are fixed, capabilities are added without replacing the engine.
Move the inference service to a CUDA-based image to cut response latency for time-series and deep-learning models.
Automatically classify out-of-domain input and detect topic drift so the model does not fail quietly on what it does not know.
Strengthen connection retention and resumption over long responses to stabilize the conversational interface.
Handle approvals and alerts in the field from iOS and Android. The skeleton implementation is ready.
Combine behavioral clustering with anomaly detection to raise real-time behavioral analysis accuracy.
Extend privacy-preserving training across multiple clients to improve model quality without sharing data between customers.
AUTONOMOUS OPERATIONS PLATFORM
Run your entire operation with clarity and control. Judgment, action, verification, rollback and evidence — everything after detection — is owned by a single engine.