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Control Plane vs Heroku

ComparisonHeroku
Last updated
First published
6 min read
Control Plane
vs
Heroku
Managed infra or your own accounts/on-prem
Where workloads run
Heroku's infrastructure only
Active
Active development
Sustaining engineering (Feb 2026)
Yes
Scale-to-zero
No (Eco dynos sleep)
Consumption, milli-core billing
Cost model
Dyno pricing
Containers, VMs, plus Sandboxes
Workload types
Dynos + add-ons

Control Plane runs your containerized apps on managed infrastructure, in Control Plane's cloud accounts by default or in your own accounts and on-prem, across one cloud or several, without having to operate a cluster yourself. It builds from Git with buildpacks and per-PR preview environments for push-to-deploy delivery, and also deploys through the CLI, Terraform, Pulumi, API, and UI. It goes further than a single-vendor PaaS: it runs in your own cloud accounts across AWS, GCP, and Azure and on-prem, adds full Linux and Windows VMs, true scale-to-zero with Capacity AI right-sizing, and consumption pricing by the milli-core instead of per-dyno. Heroku is the classic git-push PaaS, but it hosts every app on its own infrastructure, with no control over where workloads run or the ability to move them across clouds.

Control Plane is an enterprise platform that runs your containerized apps on managed clusters, on its own cloud accounts by default or across your accounts and on-prem, combining one cloud or several into one layer, without having to operate a cluster yourself, built-in CI/CD-ready deploys, managed databases, per-PR preview environments, scale-to-zero, automatic right-sizing, and platform-level compliance. Heroku is the classic single-vendor developer PaaS: you git push and it builds, runs, and manages your app on Heroku's own infrastructure. Both take the operational pain out of running apps, but they draw the line in different places: Heroku keeps everything on its own infrastructure, while Control Plane gives you control over where your app runs and the freedom to move it across clouds.

The core difference: a single-vendor PaaS vs an adaptable enterprise platform

Control Plane runs your standard containers on hardened, managed clusters. Those run on Control Plane's own cloud accounts by default or across your AWS, GCP, Azure, and on-prem accounts as one layer, with identity, networking, security, and scaling handled uniformly. It is built on Kubernetes but requires no Kubernetes expertise, so you never have to operate a cluster yourself, though you can run Managed Kubernetes (MK8s) or Bring Your Own Kubernetes (BYOK) when you want that control. You get the operational ease of a PaaS, plus control over where the workloads run, scale-to-zero, automatic right-sizing, managed databases, and platform-level compliance built in. Deploys go through git-driven builds and buildpacks, or the CLI, API, and infrastructure as code such as Terraform and Pulumi, which fits CI/CD pipelines and keeps workloads portable across clouds.

Heroku draws the line differently. You commit code and run git push heroku main, and the platform builds a slug, provisions dynos, wires up add-ons, and serves your app, all on Heroku's own single-vendor infrastructure. That model keeps every app on Heroku, with no say over where the workload runs or the ability to move it across clouds, and in February 2026 Heroku moved to what it calls a sustaining engineering model, focused on stability, security, and support rather than major new features.

Why teams are looking past Heroku in 2026

The first catalyst is roadmap. In February 2026 Heroku moved to a sustaining engineering model, focused on stability, security, and support rather than major new features, and teams planning years ahead weigh that carefully. Beyond the roadmap, several themes recur. Cost climbs at scale, and dyno-based scaling has a ceiling. Control over where workloads run and their data residency is limited, since on Heroku everything lives on Heroku's own infrastructure. And the single-vendor model constrains teams that want to run across more than one cloud, in their own accounts, or on-prem. As teams outgrow a single-vendor PaaS, a comparison like this goes on the table.

Which one should you pick?

Choose Control Plane if...

  • You want an enterprise platform that runs the same apps on managed clusters, on Control Plane's compute or your own accounts, one cloud or several, plus on-prem.
  • You want control over where workloads run and their data residency, including your own accounts if you need it.
  • You want scale-to-zero and automatic right-sizing instead of always-on dynos.
  • You need compliance that applies across your own cloud accounts and multiple clouds, not just one vendor's platform.
  • You are outgrowing a single-vendor PaaS and want operational ease without having to operate a cluster yourself, while keeping the option to run Managed Kubernetes (MK8s) or bring your own.

Where Heroku differs

  • It is a single-vendor PaaS with a git-push deploy from a connected repository.
  • It runs apps as dynos with an add-on marketplace, on Heroku's own infrastructure.
  • In February 2026 it moved to a sustaining engineering model, focused on stability and support rather than new features.

Control Plane's CLI, Terraform, Pulumi, and API deploys wire into your own CI/CD for the same push-to-deploy pipeline, and add control over where workloads run, VMs, multi-cloud, and platform-level compliance.

When a region, a cloud, or an account goes down

Every platform has outages, and so do the clouds underneath all of us. On Control Plane, a workload runs in every location of its Global Virtual Cloud (GVC™) at the same time, across AWS, GCP, Azure, and OCI regions and your own clusters. Traffic goes to the nearest healthy location using latency-based DNS geo-routing. When a location stops passing health checks, it drops out of routing and the others keep serving.

One workload on three clouds. The AWS location fails its health checks, leaves routing, and GCP and Azure keep serving.
  • A region fails

    The GVC routes around it. Users who were reaching that region land on the next-nearest healthy location. If you want a specific backup instead of the closest one, priority tiers send traffic to the location you chose.

  • A cloud provider fails

    With locations on more than one provider, a provider-wide outage takes out only that provider's locations. Your GCP and Azure locations keep serving the same workload behind the same endpoint while AWS recovers.

  • A cloud account fails

    Locations can run in Control Plane's cloud accounts or in your own accounts and clusters (BYOK). Spread a GVC across more than one account, and an account that is suspended or misconfigured becomes one more location for the GVC to route around.

Two conditions apply. Failover needs at least two replicas in at least two locations, which is also the condition on our 99.999% SLA. And data does not move by itself: each replica gets its own volume, so a database that has to survive the loss of a location needs replication at the application level, such as Postgres WAL streaming between locations.

Control Plane vs Heroku, side by side

58 capabilities, scored from each vendor's public documentation with the same rules applied to both columns. Hover a capability for what it measures, or a verdict for the reason behind it.

Workload placement & topology5
Can one logical environment span two different cloud providers at once?Yes: One environment spans locations across AWS, GCP and Azure; a workload deploys to all of them at onceNo: Not documented; single-cloud PaaS — every region (Common Runtime and Private Spaces) maps to an AWS region, and an app lives in one region or one Private Space
Number of publicly published regions or locationsYes: Around 30 managed regions across AWS, GCP, and Azure, plus any location you bringYes: 2 Common Runtime (US, EU) plus 10 Private Spaces regions, all on AWS; no migration between Common Runtime regions
Can you attach your own Kubernetes cluster as a managed target?Yes: Registers a customer's own Kubernetes clusters as first-class locations, equal to native onesNo: Not documented; the Fir generation runs on Heroku-managed AWS EKS and the docs deliberately abstract the cluster away — no bring-your-own-cluster target
Automatic failover of a running workload to another locationYes: DNS geo-routing drops unhealthy locations automaticallyNo: Not documented across regions; dynos are automatically rescheduled to a healthy availability zone within the same region only, cross-region needs duplicate apps plus external DNS
Fine-grained traffic steering across locations (priority, latency bias)Yes: routingTier priority groups, latency offset and tolerance per locationNo: Not documented; router balances randomly across dynos in one region (optional same-AZ bias), multi-region steering left to external services
Getting to first deploy6
Git push to a branch triggers build and deploy with no external CIYes: Builds directly from a connected GitHub or GitLab repositoryYes: git push heroku main builds and deploys; GitHub integration auto-deploys a connected branch, with an optional wait-for-CI gate
Built-in image builder (no Dockerfile required)Yes: CLI build using Buildpacks with language auto-detection; Heroku, Google and Paketo builders; builds locally or remotelyYes: Buildpacks auto-detect 9 languages; classic slugs on Cedar, Cloud Native Buildpacks producing OCI images on Fir; Dockerfile optional
Named framework guides (Next.js, Django, Rails, Laravel…)Partial: Buildpack language conventions for Node, Python, Go, Java, Ruby, PHP, Rust — not per-framework guidesYes: 9 language getting-started guides plus Rails 6/7/8, Django, Laravel, Spring Boot, Play and Gradle/Maven guides; no Next.js guide
One-click template or app catalogYes: Template catalog, 87 entries (databases, queues, analytics, and more); deployable from the UI, CLI, Terraform, or PulumiYes: 'Deploy to Heroku' button driven by an app.json manifest; catalog of 27 one-click reference apps (Elements)
Documented free tierYes: The account is free to create and set up, with no cloud account required; you pay only once workloads use computeNo: Not documented; free dynos and free Postgres/Redis removed Nov 2022 — entry is the $5/month Eco pool; only eligibility-gated student and open-source credits remain
Local development story (emulator, local run, tunnel)Partial: Deploys a docker-compose project directly; port-forward and shell for working against remote instancesYes: heroku local runs Procfile processes with a .env; SSH, port-forward and SOCKS tunnels into running dynos (Cedar only)
Migration in1
Import from an existing platform (Heroku, compose, Kubernetes manifests)Yes: Consumes docker-compose files directly, and converts Kubernetes manifests with a preview of the translationPartial: Database-only: Postgres dump/restore guides from RDS, Azure, Cloud SQL and DigitalOcean; Compose is local-dev only, no Kubernetes manifest import
Scaling & efficiency5
Metric-driven horizontal autoscalingYes: concurrency, rps, cpu, latency percentile, memory, KEDA, multi-metricPartial: p95 response-time target only, floor of 1 dyno; Performance, Private and Shield tiers, Cedar only — not yet on Fir; CPU/memory scaling via third-party add-ons
Automatic vertical resizing of a running workloadYes: Analyses historical usage and resizes container CPU and memory in place, without a restart; update frequency is throttleableNo: Not documented; native autoscaling only adds or removes web dynos, dyno size is a fixed plan changed manually (ps:type) with a restart
Scale to zero with automatic wakeYes: Request-rate or concurrency triggers on serverless workloads; event-driven via KEDA for long-running and stateful onesPartial: Only Eco ($5 pool) web dynos sleep after 30 min idle and wake on traffic; autoscaling floor is 1; paid tiers need a third-party add-on, non-production
Published cold-start or wake latency figuresNo: No figures publishedNo: Not documented; Eco wake described only as 'a short delay' — the only numbers are in a third-party add-on's doc
Spot or preemptible instance supportPartial: Spot allocation in Managed Kubernetes node poolsNo: Not documented; all dyno tiers are fixed-price and always-on (Eco sleeps but is not interruptible)
Networking & edge7
First-party CDN or edge cachingNo: Docs cover configuring an external CDN; no first-party CDNNo: Not documented; router does no caching, docs point to CloudFront/Cloudflare or third-party CDN add-ons
First-party managed WAFNo: External CDN/WAF compatible; none first-partyNo: Not documented; help says no user-configurable firewall per app, platform DDoS mitigation only; WAF is a third-party add-on, 'enhanced networking firewalls' listed as Coming on Fir
Egress control: restrict which destinations a workload may reachYes: Outbound CIDR allow and block, hostname allowlist, port restrictionNo: Not documented; Private Spaces give stable outbound NAT IPs for allowlisting at the destination and trusted IP ranges are inbound-only — no outbound allow/deny rules
Private connectivity into a customer VPC or on-prem networkYes: An agent inside the private network tunnels TCP and UDP from workloads to internal endpoints; newer protocol adds HA across agent instances and bi-directional trafficPartial: IPsec VPN (1 per space, static routes) and AWS VPC peering (max 5, primary CIDR only); Private/Shield Spaces on Cedar only, data services unreachable over it
Encrypted service-to-service networking as a platform defaultYes: Sidecar-based service mesh providing mTLS between workloads by defaultNo: Not documented; router-to-dyno and dyno-to-dyno traffic in Private Spaces is plain HTTP on the private network (DNS discovery offers no TLS termination), TLS only at the router and to data services
Application-layer request authentication at the edgeYes: JWT validation at the edge: multiple issuers, remote JWKS, claim-to-header mapping, per-path rulesPartial: Only via a buildpack-installed proxy that verifies inbound requests come from connected Salesforce orgs (AppLink service mesh); the router itself does TLS and Private Spaces trusted IP ranges only, no JWT/OIDC
Static IP addresses for inbound or outbound trafficYes: Reserved static public IP per location, attachable to a load balancerPartial: Stable outbound NAT IPs per Private/Shield Space (Cedar and Fir); none on the Common Runtime, no dedicated inbound IPs
Storage & data services6
Managed relational or key-value databases as a first-party productYes: Postgres, Redis, MySQL, and more from the template catalogYes: Postgres (1 GB to 8 TB, HA on Premium+), Key-Value Store (Redis-compatible, HA on Premium+), Kafka (3 or 8 brokers) — the broadest first-party data line-up in this set
Persistent volumes attachable to a scaled-out workloadYes: One volume per replica, preserved when the workload scales downNo: Not documented; dyno filesystem is ephemeral and per-dyno, no attachable disks — docs direct to Postgres or S3
Automatic volume growth before capacity is exhaustedYes: Expands on a free-space threshold, and also projects a growth rate from recent usage to expand ahead of needPartial: No dyno volumes to grow; classic Postgres plans are fixed-size (writes revoked over capacity), only the Advanced tier (Limited GA) auto-adjusts storage 100 GB–100 TB
Backup and restore with scheduled retentionPartial: Snapshot and restore are available as commands; no scheduled backup or retention policy documentedYes: Postgres continuous protection with rollback (4 days Standard, 1 week Premium+) plus scheduled logical backups retained 7 daily / up to 8 weekly / up to 12 monthly by plan
Static site hosting as a first-class productNo: Not documentedNo: Not documented as a product; static sites run as web dynos via buildpacks, and Heroku's own static buildpack is deprecated in favour of a community NGINX buildpack
First-class background jobs, queues and cronPartial: Cron workload type and one-off runs; no managed queue primitiveYes: Worker process types scaled independently, one-off dynos, and a first-party Scheduler add-on (10-min, hourly, daily; best-effort); the queue itself is BYO
Identity & secrets6
How a workload authenticates to external cloud servicesYes: A single identity grants a workload least-privilege access to resources in AWS, GCP and Azure simultaneously, with no credentials stored in the workloadNo: Not documented for AWS, GCP or Azure — guides set static IAM access keys as config vars; brokered, scoped tokens exist only toward Salesforce and Data Cloud (AppLink)
Secrets management with access control on retrievalYes: Typed secret kinds with a runtime permission gate — a workload without an explicitly granted identity cannot read a secret at allPartial: Config vars injected as env vars into every dyno; viewing values needs the Deploy app permission; no per-workload gating, no dedicated secrets store
Role-based access control granularityYes: Permissions expressed as verbs per resource type, granted to users, service accounts, groups, or workload identitiesPartial: 4 team roles (admin, member, viewer, collaborator) plus per-app view/deploy/operate/manage grants; no per-resource policies
Audit trail of platform changesYes: Tamper-proof audit trail covering platform actions, and extensible so an application can write its own entries into the same trailPartial: Enterprise Accounts only; monthly JSON archive export, not real-time, covers apps, config, add-ons, deploys and membership; no retention period or tamper-evidence documented
Third-party compliance certificationsYes: SOC 2 Type II, PCI DSS Level 1, HIPAA, GDPRYes: SOC 1/2/3 Type 2, ISO 27001/27017/27018 across runtimes and data services; PCI DSS Level 1 and HIPAA (BAA) only on the Shield tier
Multi-tenancy for the customer's own end customersPartial: Top-level tenancy boundaries give hard isolation, but per-end-customer tenancy is not positioned as a use caseNo: Not documented; Teams and Private Spaces isolate the customer's own environments and network, no tenant primitive for a customer's end customers
Operations & observability8
Metrics with a queryable interfaceYes: Scrapes Prometheus-format metrics from containers on a 30s interval with regex filtering; queryable through a per-org GrafanaPartial: Fixed Application Metrics dashboard (7-day max, no metrics API); Fir exports dyno CPU/memory and router metrics over OTLP to your own backend
Distributed tracingYes: Distributed tracing with custom tags and a configurable sampling rate, set at environment levelPartial: Fir only: OTLP traces with router spans and context propagation, exported via telemetry drains to a third-party backend; no built-in trace UI; none on Cedar
Managed log export to third-party destinationsYes: Datadog, CloudWatch, Coralogix, Logz.io, S3, Stackdriver, SyslogYes: Cedar: syslog+TLS/HTTPS log drains and logging add-ons; Fir: OTLP telemetry drains for logs, metrics and traces to any OTLP endpoint, per app or space
Default log retentionYes: 30 days by default, adjustable per orgPartial: Cedar keeps only the most recent 1,500 lines (up to 1 week); Fir has no log history, real-time tail only; persistence needs a drain or add-on
Built-in alerting with notification channelsYes: Pre-provisioned alert rules with configurable contact points; notifications are off until a contact point is addedPartial: Threshold alerts on p95 response time and 5xx failed-request rate only; email, PagerDuty and dashboard (no Slack); Professional and Fir dynos only
Shell, file copy and port-forward into a running workloadYes: Interactive shell into a replica, file copy in and out, and local port-forwarding — all from the CLIPartial: Cedar: SSH, port-forward and file copy (ps:exec, ps:forward, ps:copy), 1-hour max, not in Shield; Fir: shell only (run:inside)
Progressive delivery: weighted traffic between versionsYes: Route-level traffic splitting by integer weight across workload versions; weighting everything to the new version performs a blue/green cutoverNo: Not documented; preboot is a one-shot cutover and Private Spaces rolling deploys replace 25% of dynos at a time, no weighted split or canary — blue/green is listed as Coming on the Fir roadmap
Ephemeral preview environment per pull requestYes: Per-PR preview environmentsYes: Review apps auto-created on PR open and destroyed on close, optional stale teardown after 1–30 days; needs app.json; works in Private Spaces
Automation & extensibility6
First-party infrastructure-as-code provider (Terraform or equivalent)Yes: First-party Terraform and Pulumi providers, plus a Kubernetes operator exposing platform resources as CRDs for ArgoCDYes: heroku/terraform-provider-heroku, official, MPL-2.0, v5.4.0 June 2026; apps, add-ons, spaces, pipelines, Fir supported
Complete public API referenceYes: Full API and CLI referenceYes: Platform API reference covering 100+ resources (apps, dynos, add-ons, pipelines, spaces, audit trail, teams)
MCP server for AI-agent operation of the platformYes: First-party, with documented setup for Claude, Codex, Cursor, Gemini CLI, VS Code and AntigravityPartial: Official open-source STDIO MCP server backed by the CLI (apps, dynos, add-ons, pipelines, Postgres); 'early development', local only, no hosted option
Machine-readable documentation (llms.txt, per-page markdown)Yes: llms.txt published and referenced from every pageYes: llms.txt index, and any Dev Center article served as raw Markdown by appending .md
Ephemeral sandboxes for running untrusted or AI-generated codeYes: Sandboxes documentedPartial: No sandbox product; an MCP tool runs code in a one-off dyno with auto-cleanup, and the managed-inference code-exec tools run agent-written code (isolation undocumented)
Core product available as open sourceNo: Not open sourcePartial: Platform is proprietary; buildpacks (BSD-3, usable off-Heroku), CLI, MCP server and Terraform provider are open source
Specialized compute2
Run full virtual machines, not just containersYes: VMs run with their own guest OS and kernel while sharing the same mesh, identity, firewall and observability as containers; supports Windows guests and lifting existing VM disk imagesNo: Not documented; dynos are Linux containers (Cedar) or Kubernetes pods (Fir) — larger tiers get a dedicated VM underneath, but the workload is still a container, no VM workload type
Run GPU workloads alongside standard servicesYes: NVIDIA T4 and A10G requested per container in the standard workload spec, drivers managed by the platform, billed at standard unit rates; GPU capacity from any provider, including neoclouds, joins through attached or provisioned Kubernetes clusters; automatic right-sizing does not apply to GPU workloadsNo: Not documented; 'GPU dynos' still listed as Coming on the Fir roadmap; managed inference models are hosted on Amazon Bedrock rather than on dynos
Commercial terms6
Published compute and memory unit pricesNo: No price list in the documentation snapshotPartial: Per-dyno monthly prices published for every tier, prorated to the second; bundled dyno sizes rather than vCPU/GB unit rates
Published uptime SLA with a numberYes: 99.999% uptime SLANo: Not documented; no platform SLA percentage in the MSA, policy, support, enterprise, Private Spaces, Shield or compliance pages — only 'expected uptime 99.5%' guidance for Essential Postgres
Documented path to migrate off the platformPartial: Environment export produces a portable spec, and workloads are OCI images that can run on the customer's own clusters; no migration-out guide publishedPartial: Off-boarding steps (export database and add-on data, destroy add-ons) and Postgres pg_dump export documented; no guide for moving apps or config elsewhere
Public community channelPartial: Support via Slack and Discord referenced in docs; no public community forum documentedPartial: No Heroku-run forum, Discord or Slack; support pages point to the Stack Overflow heroku tag and the Salesforce Trailblazer Community's Heroku group
Named reference customers publishedPartial: Customer stories exist off-docs; none named in the documentation snapshotYes: 80 named customer stories (World Economic Forum, Unsplash, PensionBee, Kajabi, Salesforce+), each with a story page
Vendor continuity risk signalsPartial: Independent; funding and headcount not documented in the snapshotPartial: Salesforce-owned since 2010 and still actively supported, but an official Feb 2026 statement moved it to a sustaining-engineering model: no new features, no new Enterprise contracts

Scored from public documentation as of September 2026. “No” means not documented, not necessarily absent; breadth is not a quality ranking, and specialists doing one thing well score narrow by design.

Which fits your scenario

Control Plane fits: a growing team whose Heroku bill is climbing and that now needs to run across more than one cloud. You run the same standard containers across AWS, GCP, Azure, and on-prem in your own accounts under one identity and network model, without having to operate a cluster yourself, scale-to-zero, and automatic right-sizing to hold down cost. Heroku keeps every app on its single-vendor platform, so it cannot give you ownership, data residency, or multi-cloud reach. Universal Cloud Identity lets those workloads reach native services like S3, DynamoDB, and BigQuery with temporary session credentials instead of stored keys.

What Heroku is. Heroku is the classic single-vendor git-push PaaS: git push heroku main builds and runs your app on Heroku's own infrastructure, with an add-on marketplace for Postgres, Redis, and more. Control Plane delivers push-to-deploy from Git with buildpacks and per-PR preview environments too, and also lets you run in your own cloud accounts across multiple clouds and on-prem, add VMs, and pay by consumption, so you do not outgrow it as you scale.

Why teams consolidate on Control Plane. The moment a climbing bill, regulated data, VMs, or workloads spanning more than one cloud enter the picture, a single-vendor PaaS stops being enough. Control Plane matches the Heroku workflow, with git-driven builds, buildpacks, per-PR preview environments, and managed databases, and adds control over where workloads run, your own cloud accounts, full VMs, scale-to-zero, automatic right-sizing, and consumption pricing across every cloud and on-prem, so you run one platform instead of two.

"We can do the same things we could do in Heroku (so we don't have to go low-level in AWS) but Control Plane gives us fine-grained control over the resources allocated to an individual process."
Jame MacksonCTO, Upsie50% savings over Heroku

Frequently asked questions

Is Control Plane a Heroku replacement?

For teams scaling past a single-vendor PaaS, often yes. Heroku hosts your app on its own platform with a git-push workflow. Control Plane is an enterprise platform that runs the same containerized apps on managed clusters, on its cloud accounts by default or in your own accounts across AWS, GCP, Azure, and on-prem, without having to operate a cluster yourself. Deploys use git-driven builds, or standard containers via CLI, Terraform, and API, which keeps them portable across clouds.

Is Heroku still being developed in 2026?

In February 2026 Heroku moved to what it calls a sustaining engineering model, focused on stability, security, and support rather than major new features. It continues to run existing apps, but teams planning long-term growth weigh that roadmap when deciding where to invest. Control Plane is under active development, with scale-to-zero, VMs, multi-cloud, and the ability to run in your own cloud accounts.

Does Control Plane deploy from Git like Heroku?

Yes. Control Plane supports git-driven builds with buildpacks and per-PR preview environments for push-to-deploy delivery, and also deploys prebuilt containers and VMs through the CLI, Terraform, Pulumi, API, and UI. You get the push-to-deploy workflow without being locked to one vendor's infrastructure, and workloads stay portable across clouds.

What is the difference between Heroku and Control Plane?

Heroku is a managed, single-vendor PaaS: you rent capacity on Heroku's own infrastructure and deploy with git push. Control Plane is a cloud virtualization platform. It runs your standard containers on hardened, managed clusters, on its own cloud accounts by default or in your own accounts or on-prem, one cloud or several, without having to operate a cluster yourself. Scale-to-zero, automatic right-sizing, identity, networking, and compliance are built in. Heroku hosts your app on its own infrastructure; Control Plane lets you control where the workload runs and move it across clouds.

Can I move Heroku apps to Control Plane?

Most Heroku apps are already twelve-factor and containerize cleanly. Once in a container they run on Control Plane's managed clusters, on its cloud accounts by default or in your own accounts, with scale-to-zero and automatic right-sizing. Add-ons like Postgres, Redis, Kafka, and Mongo have equivalents in the Control Plane Template Catalog. The main change is the deploy workflow: git push becomes a container build plus CLI, API, or IaC deploy.

Outgrowing Heroku?

Run the same apps as standard containers on managed clusters, on Control Plane's compute or your own accounts across AWS, GCP, Azure, and on-prem. It is one layer with operational ease and no cluster you have to operate yourself, plus scale-to-zero, automatic right-sizing, and compliance. Test it on one real workload and see.99.999% uptime SLA · SOC 2 Type II · PCI DSS Level 1

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