Quick answer: Capture crashes with the Proton version, Steam Deck detection, and OS context, because most Decks run Windows builds through a compatibility layer on Linux. Watch suspend and resume, controller input, and small-screen issues that affect Verified status, and let crash data tell you what the layer breaks.

The Steam Deck is a uniquely standardized target with a uniquely complicated runtime. The hardware is fixed, one controller, one screen, known specs, but most games run as Windows builds translated to Linux through the Proton compatibility layer, which introduces its own failure modes. On top of that, the Verified badge depends on the game handling controller input, text readability, and suspend and resume well. Crash reporting that captures the Proton and hardware context is how you keep a Steam Deck game stable and Verified.

Fixed hardware, complicated runtime

The Steam Deck flips the usual fragmentation problem. Where PC means infinite hardware variety, the Deck is a single known device, which should make testing easy. The complication is the runtime: unless you ship a native Linux build, your Windows build runs through Proton, a compatibility layer that translates Windows and DirectX calls to Linux and Vulkan. That layer is excellent but not perfect, and it introduces crashes that exist only on the Deck.

This means a Steam Deck crash is often not a bug in your game at all, but an interaction between your game and the compatibility layer, sometimes specific to a particular Proton version. Capturing the Proton version and whether the game is running on a Deck is therefore essential context, because it determines whether you are looking at a game bug or a compatibility-layer issue, which are addressed in completely different ways.

Capture Proton and runtime context

For every crash, detect and capture whether the game is running on a Steam Deck, the Proton version in use, and the underlying OS, because the Deck runs a specific Linux distribution. A crash that appears only on one Proton version points at a compatibility-layer issue that may be fixed by a different Proton version or a workaround, rather than a change to your game.

Distinguishing native Linux from Proton-translated execution matters too. If you ship both a native Linux build and rely on Proton for others, the same crash can have different causes in each. Capturing the runtime context lets you separate native Linux bugs from Proton-translation bugs, so you fix each in the right place instead of conflating two different problems into one confusing report.

Suspend and resume is critical

Steam Deck players treat the device like a handheld console: they suspend it constantly by pressing the power button, often mid-game, and expect to resume exactly where they left off. A game that crashes or corrupts state on resume is a serious problem on the Deck, both for player experience and for Verified status, which considers good suspend and resume behavior.

Test and monitor suspend and resume specifically, because it is one of the most common Deck-specific failure points. Capture crashes that occur on resume with the context of how long the device was suspended, since time-based and network-based systems often break across a long suspend. Resume handling is to the Steam Deck what it is to the Switch: a make-or-break behavior that your PC development never exercises.

Verified status depends on the experience

The Steam Deck Verified badge signals to players that your game works well on the device, and it covers input, display, and stability. Beyond crashes, Verified considers whether your game uses the Deck controller correctly by default, whether text is readable on the small screen, and whether the game launches and runs without configuration. These are experience requirements, not just stability ones.

Capture context that helps you monitor these dimensions: controller input issues, and resolution or scaling problems on the Deck small high-density screen. Text readability in particular is a frequent Verified concern, since UI designed for a large monitor can be unreadably small on the Deck. While crash reporting focuses on stability, capturing the Deck context across all reports helps you maintain the broader experience that Verified status depends on.

Setting it up with Bugnet

Bugnet captures crashes with the OS and hardware context, and you can add custom fields for Steam Deck detection, Proton version, and runtime mode so every Deck crash carries the context that distinguishes a game bug from a compatibility-layer issue. Reports flow into one dashboard where you can filter to Deck crashes specifically.

Group Deck crashes into occurrence counts and watch them after Proton updates, because a new Proton version can both fix and introduce issues. Because the Deck is a single known device, once you see a crash clustering on it you can often reproduce it directly on your own Deck, and the captured Proton context tells you whether to fix your game, ship a native build, or apply a compatibility workaround.

Test on a real Steam Deck

The single most valuable thing you can do for a Steam Deck game is test on an actual Deck. Because the hardware is fixed and affordable relative to a test matrix of PCs, owning one Deck gives you the exact target your players use, which is a luxury no other platform offers. Most Deck issues, controller defaults, text size, suspend and resume, Proton quirks, reveal themselves quickly on the real device.

Pair that direct testing with your captured crash data for the issues that only appear under specific conditions or Proton versions. The Deck rewards this combination especially well: the fixed hardware means your test device matches reality, and the crash data fills in the runtime-specific gaps. Together they make achieving and keeping Verified status a manageable, data-driven process rather than a guessing game about how the compatibility layer treats your particular game.

Fixed hardware, shifting runtime. Capture the Proton version or you cannot tell a game bug from a layer bug.