Best BYOC Observability Tools in 2026

Compare the best Bring Your Own Cloud (BYOC) observability tools for logs, metrics, traces, data residency, support, and commercial buying decisions.

By Ece Kayan
Published:
14 min read

If you are specifically looking for Kubernetes observability, also compare this list with best Kubernetes observability tools. If you care more about AI investigation than deployment model, see best observability tools with AI.

What BYOC Means for Observability

BYOC means "bring your own cloud." In observability, that usually means the vendor's ingest, storage, query, or processing layer runs in your cloud account instead of the vendor's shared SaaS account.

There are three deployment models that buyers often mix together. This article focuses on the first and third models, not self-hosted-only tools.

  1. Managed BYOC: The observability backend runs in your AWS, GCP, Azure, or Kubernetes environment. The vendor operates it. You own the cloud account, storage, network boundary, and usually the infrastructure bill.
  2. Self-managed observability: You deploy and operate the platform yourself. The vendor may provide enterprise features, support, and licenses, but your team owns upgrades, scale, backups, and incident response for the observability stack.
  3. Managed/on-prem or private deployment: The platform is deployed outside standard SaaS, often in your data center, private cloud, or isolated cloud environment. Operational responsibility varies by vendor.

For commercial buyers, this distinction matters more than the label. A "BYOC" product that still sends raw logs and traces to a vendor-controlled region does not solve the same problem as a data plane that stores telemetry in your S3, GCS, Azure Blob, or customer-owned telemetry store.

Why Teams Buy BYOC Observability Tools

Most teams start looking at BYOC observability for one of five reasons:

  • Data residency: Logs, traces, profiling data, and request metadata can contain customer identifiers, payload fragments, IP addresses, tenant IDs, and internal service names. Keeping telemetry in your account simplifies legal and security review.
  • Cloud commit leverage: If you already have committed spend with AWS, GCP, or Azure, BYOC can make observability infrastructure part of that spend instead of a separate SaaS bill.
  • Lower egress and ingestion pressure: Shipping every log line, span, profile, and metric to a third-party region gets expensive. Local ingest and local storage reduce the amount of data crossing cloud boundaries.
  • Retention control: BYOC makes long retention more practical when cold data can live in your own object storage.
  • Support during incidents: BYOC is still production infrastructure. The support model matters: who is pageable, how fast they respond, whether they join your Slack during incidents, and whether the team understands Kubernetes internals.

The trade-off is operational responsibility. Managed BYOC reduces that burden by keeping the data plane in your account while leaving upgrades, scaling, and platform health with the vendor.

Comparison of BYOC Observability Tools

ToolDeployment modelBest fitMain signalsSupport model
MetoroManaged BYOC or on-premKubernetes teams that want low-ops observability and AI SREMetrics, logs, traces, profiling, Kubernetes state, deploys24/7 pageable support, 5-minute response SLA, Slack support for questions and incidents
Grafana BYOCRequest-access managed Grafana Cloud in customer AWS/GCPLarge Grafana Cloud users optimizing cost and residencyMetrics, logs, traces, profiles, IRM, syntheticsContract-dependent support
TsugaManaged BYOCBuyers willing to evaluate a newer observability platformLogs, metrics, traces, APM, pipelinesContract-dependent support
ParseableBYOC or cloudTeams wanting object-storage telemetry economicsLogs, metrics, traces, eventsContract-dependent support

1. Metoro

Managed BYOC observability for Kubernetes

Metoro BYOC runs Kubernetes observability inside your own cloud account while Metoro manages the platform remotely. It is built for teams that want customer-cloud data control without turning observability into a permanent internal platform project.

The important technical difference is that Metoro is Kubernetes-native and uses eBPF for automatic telemetry collection. That means it can collect service traffic, traces, metrics, logs, profiling data, Kubernetes objects, and deployment context without requiring every service team to instrument code first.

Metoro's BYOC architecture keeps the data plane in your account. Ingest, query, storage workers, telemetry storage, IAM, KMS, and network boundaries live on your side. Metoro's control plane handles operations through a remote management channel, while customer telemetry stays in the customer's environment. Metoro also offers on-premises deployment for teams that need maximum control and are willing to own more operations.

Metoro Guardian investigating a Kubernetes issue using runtime telemetry and deployment context
Metoro Resource Viewer showing live Kubernetes pod state, resource usage, network traffic, and node placement
Strengths
  • Strong fit for Kubernetes teams that do not want to build and tune OpenTelemetry coverage before getting useful visibility.
  • eBPF-based collection gives the AI workflows a consistent data model across services, infrastructure, and deploys.
  • Managed BYOC reduces operational load compared with running a large observability backend yourself.
  • AI SRE workflows are native to the platform, including investigation, root-cause analysis, and deployment verification.
  • Best support model in this list: 24/7 pageable support, a 5-minute response SLA, and Slack access for questions and incident collaboration.
  • Relatively low cost compared to SaaS observability platforms and Grafana BYOC.
Limitations
  • Kubernetes-centric. If most of your estate is non-Kubernetes, evaluate coverage carefully.
  • eBPF-based collection still needs kernel, privilege, and cluster policy compatibility.
  • BYOC requires coordination with Metoro rather than a fully self-service signup flow.

Best for: Kubernetes platform teams that want managed BYOC, broad telemetry, and AI-assisted incident workflows without operating the observability backend themselves.

Pricing: $20 per node per month. Bulk discounts are available for large contracts. Infrastructure runs in your cloud account for BYOC.

Availability: Managed Cloud is self-service. BYOC and on-prem are arranged with Metoro.

Support: 24/7 pageable support with a 5-minute response SLA, plus Slack access for questions, onboarding, and incident collaboration.

2. Grafana BYOC

Managed Grafana Cloud running in your cloud account

Grafana BYOC brings the Grafana Cloud product suite into a dedicated customer cloud account. Grafana describes BYOC as the complete Grafana Cloud observability platform running in AWS or GCP, with Azure available case-by-case. Grafana Labs handles deployment, scaling, upgrades, and support, while the customer pays the cloud provider directly for infrastructure usage.

Access is not self-service. Grafana's BYOC page uses a "request access" motion and positions the product for large enterprises running observability at scale. Grafana does not publish a BYOC-specific minimum spend. Grafana Cloud Enterprise publicly starts with a $25k/year spend commit, but buyers should not treat that as the BYOC minimum.

This is not "install Grafana OSS and run Loki yourself." It is closer to Grafana Cloud's managed experience, but with different economics and data-location control.

Grafana Cloud provides the managed product experience; BYOC changes where the dedicated data plane runs
Strengths
  • Strongest fit for enterprises already standardized on Grafana Cloud, Prometheus, Loki, Tempo, Mimir, or the wider Grafana ecosystem.
  • Managed operations with access to Grafana Cloud features, including incident response, synthetics, Adaptive Telemetry, and AI features.
  • Useful when traditional SaaS pricing becomes inefficient at large telemetry volumes.
  • Lets buyers use existing AWS or GCP discounts and commitments.
Limitations
  • Request-access only; not a self-service BYOC SKU.
  • Positioned for large enterprises rather than small teams.
  • Azure support is case-by-case rather than the primary path.
  • No public BYOC-specific minimum spend is published.
  • Teams still need to design ingestion, labeling, dashboards, alerts, and telemetry governance well.
  • Support is weaker and less transparent than Metoro's model unless stronger terms are negotiated: no public BYOC-specific 5-minute SLA, pageable support, or Slack incident-channel commitment.

Best for: Large enterprises already committed to Grafana Cloud that need better economics, data residency, or cloud-account control.

Pricing: Request-access commercial BYOC. Grafana does not publish a BYOC-specific minimum spend; Grafana Cloud Enterprise publicly starts at a $25k/year spend commit.

Availability: AWS and GCP, Azure case-by-case. Not self-service.

3. Tsuga

Newer observability platform with managed BYOC

Tsuga is a newer observability platform with a managed BYOC deployment model. Its public materials describe a data plane running in the customer's VPC, telemetry stored in customer object storage, encryption under customer KMS keys, and vendor-managed deployment, upgrades, autoscaling, and recovery.

The product is aimed at teams that want logs, metrics, traces, APM, observability pipelines, and sensitive data scanning without sending raw telemetry into a conventional SaaS account.

Strengths
  • Managed BYOC model keeps telemetry storage and processing inside the customer's cloud boundary.
  • Focus on object storage, KMS ownership, OpenTelemetry, Prometheus, Fluent Bit, and Vector fits modern platform teams.
  • Clear appeal for buyers trying to avoid both SaaS data export and internal observability backend operations.
  • Includes observability pipelines and sensitive data scanning in the public product framing.
Limitations
  • Newer platform with less evidence of maturity than larger observability incumbents.
  • Public technical documentation and production-scale reference material are thinner than more mature platforms.
  • Support model is not clear from public materials; buyers should validate escalation paths, response times, and who joins incidents.
  • Buyers should validate scale limits, query behavior under incident load, HA model, and migration paths in a proof of concept.

Best for: Teams willing to evaluate a newer managed BYOC observability platform and validate maturity in a proof of concept.

Pricing: Contact sales.

Availability: BYOC positioning is public; validate exact cloud and region support with the vendor.

Support: Not clearly published. Validate response commitments, incident-channel access, escalation paths, and whether Tsuga engineers are pageable during production incidents.

4. Parseable

BYOC telemetry data lake

Parseable is a unified observability platform for logs, metrics, and traces. Its public product page says Parseable is available as Cloud and BYOC, and its architecture docs describe a telemetry data lake design for metrics, events, logs, and traces with ingestion, query, search, and indexing components.

The core buyer appeal is storage control. Parseable emphasizes object storage, open standards, and lower-cost retention. That makes it relevant for teams whose current SaaS observability bill is dominated by log volume, long retention, or high-cardinality telemetry.

Strengths
  • Public BYOC positioning, plus a cloud option for teams that do not need customer-cloud deployment.
  • Good fit for buyers who want telemetry in object storage and care about open formats.
  • Supports logs, metrics, traces, and events through a unified architecture.
  • Useful when long retention and cost control matter more than a broad enterprise observability suite.
Limitations
  • Less mature as a full commercial observability platform than larger observability incumbents.
  • Buyers should validate alerting, dashboards, RBAC, SSO, incident workflows, and support depth against their production requirements.
  • Buyers should confirm exactly which services run in the customer account and which operational tasks remain with Parseable.
  • BYOC support model is not clear from public materials; buyers should confirm support coverage, response commitments, and backend ownership during high-severity incidents.

Best for: Teams that want BYOC observability with object-storage economics and open telemetry formats.

Pricing: Cloud and BYOC options; validate commercial terms with Parseable.

Availability: Cloud and BYOC positioning is public.

Support: Not clearly published for BYOC. Validate response commitments, incident-channel access, escalation paths, and who owns backend operations during production incidents.

How to Choose a BYOC Observability Tool

Use the deployment model as the first filter, then evaluate observability depth.

Buying requirementShortlist
Kubernetes-first, managed BYOC, AI SREMetoro
Kubernetes-first, managed BYOC, eBPF collectionMetoro
Existing Grafana Cloud enterprise userGrafana BYOC
Newer managed BYOC platformTsuga
Object-storage telemetry data lakeParseable
Strongest support modelMetoro

For a serious evaluation, ask each vendor these questions:

  • Where do raw logs, traces, profiles, metrics, and Kubernetes objects physically live?
  • Who has production access to the data store?
  • Are customer-managed KMS keys supported?
  • Is the vendor control plane push-based or pull-based?
  • What happens if the vendor control plane is unavailable?
  • Can the observability backend keep ingesting during a vendor outage?
  • How are upgrades rolled out, paused, and rolled back?
  • What cloud services are created in the customer account?
  • Is object storage used for cold retention?
  • What data leaves the customer account for licensing, health, support, or AI workflows?
  • Are AI features run inside the customer environment or outside it?
  • Can you export all telemetry in an open format if you leave?
  • Is 24/7 support pageable, and what response time is contractually committed?
  • Will the vendor work in your Slack or incident channel during production issues?

Recommendation

If your primary requirement is "observability data must stay in our cloud," start with tools that have a true customer-cloud data plane: Metoro, Tsuga, Parseable, and Grafana BYOC if you are a large enterprise that can get request-access approval.

For Kubernetes teams, Metoro is the cleanest starting point if you want managed BYOC and AI-assisted operations together. It is narrower than broad enterprise suites, but that narrowness is useful: Kubernetes telemetry, eBPF collection, deployment context, and AI investigation all sit in the same product instead of being assembled from separate agents, collectors, stores, dashboards, and incident tools.

Metoro is also the strongest option here if support is a deciding factor. BYOC observability becomes part of the production path, so a 5-minute response SLA, 24/7 pageable support, and direct Slack access matter when the platform itself is part of an incident investigation.

FAQ

What is a BYOC observability tool?

A BYOC observability tool runs some or all of the observability platform inside your cloud account. For a true BYOC architecture, raw telemetry such as logs, traces, metrics, and profiles should stay in your infrastructure instead of being sent to a vendor-owned SaaS region.

Is BYOC the same as self-hosted observability?

No. Managed BYOC means the vendor operates the platform inside your cloud account. Self-hosted means your team operates the platform. Both can keep data in your environment, but the operational burden is very different.

What is the best BYOC observability tool for Kubernetes?

Metoro is the strongest starting point for Kubernetes teams that want managed BYOC, automatic eBPF-based telemetry, and AI SRE workflows.

Why not just run Grafana, Prometheus, Loki, and Tempo yourself?

You can, and many teams do. The trade-off is operational ownership. At production scale, you need to manage retention, compaction, cardinality, query load, storage growth, upgrades, alerting reliability, and incident response for the observability stack itself. Managed BYOC exists for teams that want data control without taking on all of that work.

Does BYOC reduce observability cost?

It can, but it is not automatic. BYOC can reduce SaaS ingestion pressure, use existing cloud commits, reduce egress, and make object-storage retention cheaper. You still need telemetry governance: sampling, filtering, cardinality control, retention tiers, and ownership for noisy services.

Related reading

More Metoro articles that deepen the same topic from another angle.

Metoro

Metoro is an AI SRE and observability platform for teams running on Kubernetes. It automatically detects production issues, investigates alerts, verifies deployments, and finds root causes using built-in eBPF telemetry, Kubernetes context, and code-change analysis. Fast to install, available as Cloud, BYOC, or on-prem.

SOC 2 Type IICNCF SilverLinux Foundation
Subscribe

The latest news, articles, and resources, weekly.

© 2026 Metoro, Inc. All rights reserved. SOC 2 Type II Certified.
Loading status...