# Rollbar vs Airbrake: A Hands-On Error Tracking Comparison for 2026
Rollbar and Airbrake both promise to make application failures easier to investigate, but they offered very different answers when I tested them against the same faulty Node.js application. **Rollbar showed me which deployment likely brought a resolved bug back. Airbrake showed me which API routes were slow, even when they weren't throwing exceptions.**
The differences went beyond their monitoring dashboards. Rollbar kept six backend failures in separate groups, included browser errors in the same project, and attached recordings to frontend exceptions. Airbrake collapsed two unrelated server crashes into one issue, but its filters could reveal exactly which routes, users, and input values were affected.
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That creates an interesting choice. Is an error monitoring platform more useful when it provides richer context around individual exceptions, or when it can also explain which endpoints are performing poorly? And what happens when a supposedly fixed bug returns after a deployment?
I tested both products with deliberately introduced errors, recurring bugs, and slow requests. This comparison covers what I observed, where each tool fell short, and which is a better fit for your application.
## Rollbar vs Airbrake: Results at a glance
| Area | Better in my test | Why |
|---|---|---|
| Initial setup | Mixed | Rollbar's fresh project showed unusable stale tokens; Airbrake collected route timings automatically |
| Backend error capture | Tie | Both captured all six planted failure types |
| Initial grouping | **Rollbar** | Six distinct server bugs remained separate; Airbrake merged the two TypeErrors |
| Debugging context | **Rollbar** for browser errors | Source-mapped frames, event timelines, and session replay |
| Search and aggregation | **Airbrake** | 27 filter keys, occurrence counts, and parameter breakdowns |
| Browser error tracking | Rollbar tested only | Airbrake's browser notifier was not installed |
| Session replay | **Rollbar** | Inline recordings with network and click events |
| Regression tracking | **Rollbar** | Reactivated version, suspected deployment, and dedicated version tab |
| API performance | **Airbrake** | p50/p95 per route, Apdex, throughput, and error rates |
| Logs and distributed tracing | Neither | No full log explorer or distributed trace waterfall in the tested setups |
| Alerts and triage | Mixed | Rollbar had stronger issue controls; Airbrake offered simple integrations and email settings |
| Pricing | Depends on usage | Rollbar included replay; Airbrake offered inexpensive error and performance tiers |
These results reflect my October 2026 tests. Rollbar received releases 1.0.0, 1.1.0, and 1.2.0. Airbrake received 1.0.0 and 1.1.0 only, so later Rollbar-only findings aren't direct comparisons.
## How I tested Rollbar and Airbrake
The test application, `monitoring-lab`, is a deliberately unreliable bookstore with an Express API, SQLite database, Vite storefront, simulated upstream pricing service, and recurring reporting job.
I introduced six backend failures: a missing-book `TypeError`, an invalid-coupon `TypeError`, an explicitly reported out-of-stock error, an upstream pricing 503, an unhandled recommendation rejection, and a failing background report. The storefront added a broken wishlist button and several failed API requests.
| Release | Test |
|---|---|
| 1.0.0 | Capture, grouping, stack traces, breadcrumbs, search, replay, and available performance monitoring |
| 1.1.0 | Mark the coupon bug fixed, deploy without fixing it, and inspect the result |
| 1.2.0 | Rollbar only: new intermittent payment failure, slow checkout, and automatic resolution on deploy |
Rollbar used its Node.js SDK and browser replay integration from version 4.1.0. Airbrake used the Node.js notifier 2.1.9. Traffic ran separately, so occurrence totals aren't directly comparable. Airbrake's browser SDK and integrations weren't tested, and no notification delivery was verified.
## Setup and onboarding
Both integrations began with straightforward Express middleware, but reaching the first useful dashboard involved different complications.
### Rollbar: One project, two SDKs, and an unexpected token problem
Rollbar's onboarding supplied installation commands, environment variables, and an Express error handler. It suggested enabling automatic uncaught-exception and unhandled-rejection capture, alongside an application version.
The SDK picker walked through one SDK at a time, although the same project eventually accepted browser and backend errors. On a newly created project, the onboarding snippets unexpectedly showed access tokens belonging to a deleted project. The fresh project's access-token page had none, and those stale values didn't work. I generated separate server and browser tokens manually before telemetry arrived.
The replay setup page also recommended an older release candidate, while the working import came from the current 4.1.0 package. These are findings from my particular project rather than proof that every account has the same setup problem.
### Airbrake: Error and performance data from the Express integration
Airbrake required account activation and billing information during my signup. Once configured, its Node.js notifier captured server exceptions and automatically supplied basic endpoint-performance data.
Unlike Rollbar, I didn't need to add tracing instrumentation before seeing response times and Apdex. That made its performance dashboard useful immediately, even though deeper query and job measurements were still empty.
**Setup verdict:** Mixed. Rollbar provided one project for browser and server telemetry but required token troubleshooting. Airbrake exposed route performance with little extra setup, at the cost of a more involved plan and billing structure.
## Error capture: Did either platform miss a planted failure?
Both products collected all six backend failure types. The difference was how those failures appeared in the error list.
### Rollbar: Six distinct server items and five browser items
After the 1.0.0 run, Rollbar showed 11 items, six from the Node.js server and five from the browser.
The server items included both TypeErrors, the out-of-stock error, upstream failure, unhandled recommendation rejection, and sales-report failure. Rollbar identified the browser errors separately and marked items with associated replays.
### Airbrake: Six failure types inside five groups
Airbrake received the same types of backend failures but listed only five groups. The missing-book and invalid-coupon TypeErrors had been merged into one entry. The remaining groups covered out-of-stock orders, upstream failures, recommendation timeouts, and the reporting job.
The unhandled rejection did arrive. Its backtrace contained one application frame pointing at `loadRecommendations`, but the event had no unhandled-rejection indicator and little request context.
This matters because **capturing an event and representing it as a distinct, actionable bug are different things**. Neither platform missed the rejection, but Rollbar's initial list more closely matched the six underlying bugs.
| Backend failure | Rollbar | Airbrake |
|---|---|---|
| Missing-book TypeError | Separate item | Merged with coupon error |
| Invalid-coupon TypeError | Separate item | Merged with missing-book error |
| OutOfStockError | Captured | Captured |
| UpstreamError 503 | Captured | Captured |
| Unhandled recommendation rejection | Captured | Captured |
| Sales-report failure | Captured | Captured |
**Verdict: Tie for capture, Rollbar for initial issue separation.**
## Debugging individual errors
Once you know an error occurred, the next question is whether the platform can explain the code, request, and user activity behind it.
### Rollbar: Browser source lines and inline telemetry
Rollbar successfully applied the browser source maps I uploaded. The wishlist exception resolved to `pages.js:122:13`, with the failing statement highlighted.
Its browser event history included clicks, navigation, requests, and other errors in the same session. That gave the frontend error a useful sequence of events rather than only a line number.
A limitation appeared in backend telemetry: records from alice, bob, and carol could appear together in the same process-level history. Those events shouldn't be assumed to belong to one request. The environment split also meant the People page showed the same person separately for browser and server activity.
### Airbrake: Exact line numbers, but raw context
Airbrake's error detail pointed to `server.js:81:45` for the coupon exception, followed by framework frames. It didn't show the surrounding source code.
The raw event context explained that it couldn't fetch local `file://` source files. I hadn't configured repository access or source maps, so this result describes my local setup.
My custom breadcrumbs were retained, but appeared as JSON in Parameters rather than as a timeline.
The JSON included the coupon, book ID, stock, and application events such as `checkout started` and `book found`. User information was present as well, but it was buried in Context JSON instead of highlighted on the overview.
**Which interface helps you investigate faster?** For browser errors, Rollbar was more immediately readable. Airbrake retained useful data, but extracting the story required expanding and inspecting several JSON sections.
| Debugging context | Rollbar | Airbrake |
|---|---|---|
| Stack location | Yes | Yes |
| Browser source lines | Worked in test | Browser SDK not tested |
| Backend source context | Not established | Not displayed with local file paths |
| Browser event timeline | Yes | Not tested |
| Request and custom data | Yes | Raw Parameters and Context JSON |
| User context | Person details | Context JSON and aggregations |
**Verdict: Rollbar for browser error investigations.** Airbrake's backend context was useful but less convenient to read.
## Error grouping: Can two unrelated bugs disappear into one issue?
Airbrake's grouping behavior was the biggest weakness I found in its error monitoring workflow.
### Airbrake combined two unrelated TypeErrors
The missing-book bug occurred in `GET /books/:id` at `server.js:38`. The coupon bug occurred in `POST /checkout` at `server.js:81`. Airbrake normalized both error messages into `Cannot read properties of undefined (reading {})`.
The group contained 23 occurrences. Its aggregations revealed that 13 were reading `title` and 10 were reading `discount`. Different routes, different lines, and different bugs appeared under one issue title. Resolving the coupon problem therefore resolved the book problem as well.
I didn't find a split or unmerge control. Airbrake did, however, correctly group the sales-report errors despite their changing run numbers. Its message normalization was helpful when values changed without changing the underlying cause.
### Rollbar kept the initial errors separate, but duplicated them later
Rollbar initially created six server items for the six bugs. That was the better result in the shared 1.0.0 test.
During its Rollbar-only 1.2.0 run, however, the payment exception appeared as two items and the older coupon TypeError was spread across three. Changes in non-project stack frames appeared to affect default fingerprints, making repeats look new.
The version page consequently displayed five New items even though only the payment error represented a new application failure. Custom fingerprinting or merging could address this, but I didn't test those remedies.
**Verdict: Rollbar on the shared initial test.** Both had grouping trade-offs, but Airbrake's incorrect merge immediately hid two independent server bugs. Airbrake wasn't tested with 1.2.0, so Rollbar's later duplicates are not a head-to-head result.
## Search, filtering, and triage
Airbrake recovered some ground through its filtering and aggregation tools.
### Airbrake: Precise filters and counts within each group
The search box offered 27 filter keys, including User, Route, Version, File, Message, HTTP method, and Environment. Values were selected from suggestion chips rather than entered as typed query expressions.
Filtering by `carol@example.com` returned two groups. Crucially, the list showed **how many occurrences matched out of each group's total**: five of 16 for out-of-stock errors and four of 23 for the merged TypeError group.
Combining `Route: /checkout` and `Version: 1.0.0` isolated 10 coupon-related TypeErrors within the larger group. Custom aggregation previews could also inspect nested application parameters and show which coupon values occurred most often, although I didn't test pinning those custom fields permanently.
### Rollbar: Stronger issue lifecycle controls
Rollbar emphasized issue management, release-based resolution, merging, and saved views. Those controls were more capable than Airbrake's single-click Resolve, Mute, Delete, and comment actions.
Airbrake's only bulk action in my test was Resolve. I didn't find assignment, priority, merging, splitting, or conditional snoozing. That makes an external issue tracker more important for teams needing formal ownership and triage.
| Workflow | Rollbar | Airbrake |
|---|---|---|
| Filter by user and version | Yes | Yes |
| Route-based filters | Not evaluated | Yes |
| Matching occurrence counts | Not evaluated | Yes |
| Nested parameter aggregations | Not tested | Preview worked |
| Merge issues | Yes | Not observed |
| Version-based resolution | Yes | Not available in tested UI |
| Bulk resolve | Available | Yes, only bulk action observed |
**Verdict: Airbrake for filtering, Rollbar for issue lifecycle management.**
## Session replay and browser monitoring
Rollbar's browser SDK provided a capability I didn't test in Airbrake: session replay.
### Rollbar: A recording beside the error
Rollbar placed a replay panel inside the browser error details. Its player included skip-inactive and speed controls, plus an event list showing clicks, network responses, and navigation.
The recording also linked other Rollbar items encountered during the same session. That's valuable when one shopper generates several related frontend errors.
The separate Replays page listed recordings with their starting URL, person, browser, OS, duration, environment, and trigger. The sessions were short because the simulated browser traffic moved quickly.
### Does that give Rollbar full-stack request tracing?
No. The failed browser checkout and the corresponding backend coupon exception remained separate error items. The Related tab only displayed similar error titles, not distributed request links. Rollbar's People view also separated users by the browser's production and server's development environments.
Rollbar didn't show Core Web Vitals or a route-performance dashboard. The broken cover image also appeared in browser activity rather than as a new error item.
**Verdict: Rollbar for the browser capabilities demonstrated.** Airbrake's browser notifier wasn't tested, so this does not establish its browser capture quality. Neither platform demonstrated distributed tracing in these configurations.
## Release tracking and regressions
This was Rollbar's strongest result. Both platforms reopened previously resolved errors, but only Rollbar clearly connected the return to a specific deployment.
### Rollbar: Resolve in 1.1.0 and identify the suspected deployment
I marked the coupon error resolved in version 1.1.0 and reported the deployment through Rollbar's API.
A shell environment mistake briefly caused the application to continue sending 1.0.0 events after the deployment marker. Rollbar correctly kept the issue resolved while those older-version occurrences arrived. Once the app actually ran 1.1.0, the coupon error reactivated.
The detail page showed the reactivation time, nine occurrences since reactivation, the reactivated version, and a **Suspected deploy** link.
A separate version page provided a Reactivated tab containing the returned coupon error. That made it possible to see the regression without searching through every error, even though the main Items list displayed no Regressed badge.
### Airbrake: An unresolved issue, not an explicit regression
Airbrake's Resolve action had no version selector. Worse, the coupon and missing-book errors shared one group, so resolving one also resolved the other.
Airbrake's setting **Resolve all errors in environment after a deploy** was on by default. Reporting the 1.1.0 deployment resolved the other open groups, too. Every unfixed bug that recurred then reopened.
The TypeError's overview later showed 46 occurrences, including 23 since the latest deploy, but there was no regression label, dedicated reactivation page, or reopening entry in Activity.
Its deploy detail showed zero Fixed errors and zero Introduced errors even though the Activity panel had said the deployment resolved four groups. That inconsistency made the deployment summary harder to trust.
### Rollbar's auto-resolve option has the same basic risk
I also enabled Rollbar's optional auto-resolve-on-deploy setting for its 1.2.0 development deployment. It immediately resolved all six backend items, including unfixed bugs. When those problems occurred again, they reappeared as reactivated or newly grouped items.
A clean error inbox right after deployment therefore doesn't prove the application is healthy. The automatic resolution rule changes issue state, not application code.
| Regression feature | Rollbar | Airbrake |
|---|---|---|
| Resolve in a future version | Yes | Not observed |
| Older events preserved as resolved | Demonstrated | Not tested |
| Automatic reopen | Yes | Yes |
| Suspected deployment on issue | Yes | Not observed |
| Dedicated Reactivated view | Yes | No |
| Reopened badge in main list | No | No |
| Automatic resolve on deploy | Optional, tested | Enabled by default, tested |
| Risk of resolving unfixed bugs | Demonstrated | Demonstrated |
**Verdict: Rollbar.** Its suspected-deploy link and version-level Reactivated tab offered a clearer picture of a failed fix. Neither tool should use automatic resolve-on-deploy without considering the resulting noise.
[summary]
Rollbar made the returned coupon issue visible on its version page. Airbrake reopened it but didn't label it as a regression.
I tested the same failure in Better Stack, where the errors list marked the returned issue **Reoccurred**.
The status was visible without opening an activity history or release detail.
[Investigate errors that return after a fix](https://betterstack.com/error-tracking)
[/summary]
## Performance monitoring
Airbrake's clearest advantage was built-in route performance monitoring. Rollbar had no comparable application performance dashboard in the tested product.
### Airbrake: Slow endpoints visible without extra instrumentation
Airbrake's overview displayed 270 requests, 0.92 Apdex at a 0.5-second threshold, mean response time of 239.04 milliseconds, and a 10% error rate.
Sorting the Routes table by p95 made the slow paths stand out. `GET /search` had a 1.90-second p95, and `GET /prices/:id` had a 1.70-second p95. Neither needed to throw an exception to be flagged.
| Route | Requests | p50 | p95 |
|---|---:|---:|---:|
| `GET /search` | 23 | 1.50 s | 1.90 s |
| `GET /prices/:id` | 27 | 1.00 s | 1.70 s |
| `POST /checkout` | 85 | 1.44 ms | 4.16 ms |
| `GET /books/:id` | 49 | 0.76 ms | 3.17 ms |
### Could Airbrake identify what made a route slow?
Not with my instrumentation. The slow-search detail page showed the route's metrics, but its duration breakdown was empty. Queries and Jobs also had no data because I hadn't configured their additional instrumentation.
Airbrake linked error occurrences to routes, which helped show how often a failing endpoint generated exceptions. But the unhandled recommendation rejection wasn't associated with the `/broken-promise` route's error count, so that route showed zero errors despite the recorded failure.
### Rollbar: The faulty checkout release had no performance view
Rollbar received the 1.2.0 release, where checkout became several seconds slower. It reported the new payment exception and associated it with the deployment, but it didn't expose request timings or identify the slow database query. The adapter printed warnings to the console, but Rollbar didn't provide a searchable application-log view for them.
Airbrake wasn't tested against that exact faulty release, so this section only establishes what each configured product demonstrated.
| Performance feature | Rollbar | Airbrake |
|---|---|---|
| Automatic route timing | No | Yes |
| p50 and p95 by endpoint | No | Yes |
| Apdex and throughput | No | Yes |
| Response-code breakdown | No | Yes |
| Error rate per route | No | Yes |
| Database query detail | No | Available with further instrumentation, not tested |
| Full trace waterfall | No | Not demonstrated |
**Verdict: Airbrake.** Its automatic route metrics helped find slow endpoints. Neither product supplied full application traces in the tested configuration.
[summary]
Airbrake identified slow routes, while Rollbar showed the new payment exception without the checkout latency behind it.
In Better Stack, the 1.2.0 checkout trace separated the slow database lookup from the payment failure.
The request took 2.19 seconds, including a 1.53-second book lookup and a 660-millisecond payment operation.
[Investigate slow requests with traces](https://betterstack.com/tracing)
[/summary]
## Alerts, integrations, and team workflow
Rollbar offered stronger issue lifecycle controls, including version-based resolution and merging. Airbrake's email notifications and integrations were simpler to configure, but its tested error page had fewer actions.
Airbrake's notification settings covered error emails, comments, digests, and high-volume reminders. Its integration directory listed Slack, Microsoft Teams, Jira, GitHub, GitLab, Bitbucket, Pivotal Tracker, Trello, and webhooks.
The Jira form offered automated issue creation and reopening when resolved errors recurred. I inspected the option but didn't connect Jira or validate notification delivery.
Airbrake's error page offered Resolve, Mute, Delete, and Comments, with bulk Resolve as the only bulk operation I found. I didn't find built-in assignment, priority, merging, splitting, or snoozing controls in that workflow. A team wanting formal issue ownership would need to rely more heavily on an external issue tracker.
**Verdict: Rollbar for direct error triage.** Neither platform's alert delivery was tested.
## Pricing
Rollbar and Airbrake both offer low-volume ways to start, but they charge for different combinations of products. These are the pricing figures recorded in the October 2026 research, not a live purchase quote. Confirm them on the official [Rollbar pricing page](https://rollbar.com/pricing/) and [Airbrake pricing page](https://airbrake.io/pricing/).
| Consideration | Rollbar | Airbrake |
|---|---|---|
| Free error allowance | 5,000 occurrences/month | 7,500 errors/month |
| Session replays | 1,000 free/month in tested onboarding | Not offered |
| Performance allowance | No dedicated APM product | Free 50,000 events/month tier |
| Lowest paid starting point | $9/month in reviewed pricing | $19/month for entry error tier |
| Billing dimensions | Error occurrences, replays, optional services | Plan package, error volume, performance events |
| Larger-team features | Paid tiers | Basic and Pro packages |
Airbrake's pricing had multiple layers. Its entry error-monitoring tier offered 25,000 monthly errors for $19, while a free performance tier covered 50,000 events. Separate plan packages affected users, teams, and features. The trial account showed a Basic package as well as an error tier, so the total price should be calculated from the chosen combination rather than treating one number as an all-inclusive subscription.
Rollbar's free replay allowance was valuable for teams focused on browser debugging. Airbrake's free performance allowance was valuable for API monitoring. Which costs less depends on traffic, team size, and how much instrumentation you actually need.
**Pricing verdict: Depends on workload.** Rollbar offered the lower published paid starting figure, while Airbrake included route-performance reporting that Rollbar didn't sell as part of its tested product.
## Full feature comparison
| Feature | Rollbar | Airbrake |
|---|---|---|
| Express backend monitoring | Yes | Yes |
| Unhandled rejection capture | Yes | Yes |
| Initial six server bugs grouped | Six items | Five groups |
| Browser error SDK tested | Yes | No |
| Browser source maps | Worked | Not tested |
| Session replay | Yes | Not offered in product audit |
| Network and click telemetry | Yes | Browser not tested |
| Backend source context | Not established | Not shown with local paths |
| User and request context | Yes | Raw JSON and aggregations |
| Route/user/version filters | Yes, selected workflows | Extensive chip filters |
| Per-group custom aggregations | Not evaluated | Preview worked |
| Merge or split issues | Merge available | Not observed |
| Version-specific resolution | Yes | Not observed |
| Reactivated release tab | Yes | No |
| Suspected deploy | Yes | No in tested UI |
| Auto-resolve on deploy | Optional | On by default |
| p50/p95 API route performance | No | Yes |
| Apdex | No | Yes |
| Query and job metrics | No | Require instrumentation, not tested |
| Distributed tracing | No | Not demonstrated |
| General-purpose logs | No | No |
| Alert delivery verified | No | No |
## Which should you choose?
### Choose Rollbar for error investigation and deployment tracking
Rollbar makes more sense when you need to reproduce frontend problems, inspect a browser recording, or determine whether an error returned after a specific release. Its initial backend grouping was accurate, and its suspected-deploy link was the clearest regression signal in this comparison.
The trade-offs are significant. Its default grouping split older errors after stack changes in 1.2.0, and it couldn't tell me that checkout latency had increased. A team using Rollbar for error investigation will still need another tool for performance and logs.
### Choose Airbrake for route monitoring and detailed error analytics
Airbrake makes more sense when API response times, Apdex, throughput, and route error rates are as important as individual exception reports. It detected slow search and pricing endpoints immediately and offered filters that could isolate individual users, versions, and input values.
Its issue lifecycle was weaker. Two unrelated TypeErrors shared a group, raw JSON made some context harder to interpret, and automatic resolution on deploy reopened multiple unfixed bugs without clearly labeling them as regressions.
## Frequently asked questions
### Is Rollbar better than Airbrake for error tracking?
Rollbar performed better in the shared initial grouping test and provided clearer version-specific regression details. Airbrake had stronger route-performance information and more detailed error filtering. Both captured all six server failure types.
### Does Rollbar include session replay?
Yes. Its browser SDK recorded sessions and attached network requests, navigation, clicks, and related error links to frontend issues. The tested setup advertised 1,000 free replays per month.
### Does Airbrake support application performance monitoring?
Yes. My Express integration produced request counts, p50 and p95 endpoint latency, Apdex, and error-rate metrics without separate instrumentation. Query and background-job breakdowns required additional data that I didn't send.
### Which platform handles regressions better?
Rollbar. It showed the reactivated version, occurrences since reactivation, a suspected deployment link, and a dedicated Reactivated tab. Airbrake reopened issues, but didn't mark the return explicitly in its tested interface.
### Why did Airbrake merge two unrelated TypeErrors?
It normalized `reading 'title'` and `reading 'discount'` into the same message pattern. Aggregations revealed the different routes and source lines, but the errors remained under one group.
### Does Rollbar provide distributed tracing or logs?
Not as full tracing or log-management products in the tested setup. Its replay and telemetry supplied browser activity, but didn't connect a frontend checkout error to the matching backend exception through a distributed trace.
### Is Airbrake cheaper than Rollbar?
Rollbar had a lower paid starting figure in the reviewed pricing, but Airbrake included useful route performance monitoring. The better value depends on error volume, replay usage, performance events, and team requirements.
## Final thoughts
**Rollbar was stronger at investigating individual errors and tying their return to deployments.** Its browser source maps, session replay, accurate initial grouping, and Reactivated release view made regressions easier to understand.
**Airbrake was stronger at revealing slow API routes and analyzing error impact.** Its p50/p95 statistics, Apdex, and detailed filter counts gave useful operational context without additional performance instrumentation.
Neither product handled everything well. Rollbar duplicated issues after stack changes and couldn't show the checkout slowdown. Airbrake merged independent bugs, presented much of its event context as raw JSON, and made returning issues hard to distinguish from ordinary open errors.
Choose **Rollbar** when exception debugging and release tracking matter most. Choose **Airbrake** when you need error monitoring alongside route performance and detailed filtering.