AI Trajectory

null

{
  "EnableConfigs": [
    "FUSE_FS"
  ],
  "FocusSymbols": [
    "fuse_get_tree_submount",
    "fuse_dentry_automount"
  ],
  "KMSANReasoning": "The patch adds a missing NULL pointer check for the `root` inode returned by `fuse_iget()`. Without this check, a NULL pointer dereference would occur, which is easily caught by standard kernel mechanisms (page faults) or KASAN. The patch does not introduce or expose any uninitialized memory usage, info-leaks, or complex data structures that might remain uninitialized. Therefore, KMSAN is not required.",
  "NeedsKMSAN": false,
  "Reasoning": "The patch adds a missing NULL pointer check for the return value of fuse_iget() in fuse_fill_super_submount(). This prevents a potential NULL pointer dereference when mounting a FUSE submount and the root inode allocation fails. This is a functional change in the core FUSE filesystem logic that is reachable from user space and should be fuzzed.",
  "WorthFuzzing": true
}

null

{
  "PatchDiff": "commit 669fbdc706c49190886f8f9fbd8320dad84e2259\nAuthor: syz-cluster \u003ctriage@syzkaller.com\u003e\nDate:   Sat Aug 8 04:40:55 2026 +0000\n\n    syz-cluster: applied patch under review\n\ndiff --git a/fs/fuse/inode.c b/fs/fuse/inode.c\nindex d975073c60296..455c7feba0575 100644\n--- a/fs/fuse/inode.c\n+++ b/fs/fuse/inode.c\n@@ -1639,6 +1639,8 @@ static int fuse_fill_super_submount(struct super_block *sb,\n \tfuse_fill_attr_from_inode(\u0026root_attr, parent_fi);\n \troot = fuse_iget(sb, parent_fi-\u003enodeid, 0, \u0026root_attr, 0, 0,\n \t\t\t fuse_get_evict_ctr(fm-\u003efc));\n+\tif (!root)\n+\t\treturn -ENOMEM;\n \t/*\n \t * This inode is just a duplicate, so it is not looked up and\n \t * its nlookup should not be incremented.  fuse_iget() does\n"
}

best-expensive

null

{
  "EnableConfigs": [
    "FUSE_FS"
  ],
  "FocusSymbols": [
    "fuse_get_tree_submount",
    "fuse_dentry_automount"
  ],
  "Reasoning": "The patch adds a missing NULL pointer check for the return value of fuse_iget() in fuse_fill_super_submount(). This prevents a potential NULL pointer dereference when mounting a FUSE submount and the root inode allocation fails. This is a functional change in the core FUSE filesystem logic that is reachable from user space and should be fuzzed.",
  "WorthFuzzing": true
}

You are an expert Linux kernel maintainer.
Your job is to review a provided patch series and determine
if it makes functional changes to the kernel that should be fuzzed.

IMPORTANT: The changes have ALREADY been applied and committed as the HEAD commit in
your workspace. Do NOT rely on your internal knowledge of the kernel. You must actively
use your code access tools to examine the actual source code and confirm any assumptions.

Return WorthFuzzing=false if the patch only contains:
- Modifications to Documentation/, Kconfig files, or code comments.
- Purely decorative changes, such as logging (e.g., pr_err, printk) or tracepoints.
- Changes to numeric constants or macros that do not functionally alter execution flow.
- Code paths that are impossible to reach in virtualized environments like GCE or QEMU,
  even when utilizing software-emulated hardware (e.g., usb gadget, mac80211_hwsim).
- Code in vendor-specific PCIe switch, SmartNIC, or GPU drivers (e.g., mlxsw, pds_core, qed,
  ionic, amdgpu) that require physical PCIe hardware cards not emulated in standard QEMU.
- Driver .remove, .shutdown, or pci_unregister_driver teardown callbacks (e.g., igb_remove)
  that are executed only during PCI hot-unplug or sysfs driver unbind operations.

If it modifies reachable core kernel logic, drivers, or architectures, use your code search
tools to verify the code can be executed, then return WorthFuzzing=true.

When returning WorthFuzzing=true, you MUST ALSO:
1. Extract any specific kernel functions that should be heavily fuzzed into FocusSymbols.
   Avoid listing generic hot-path functions to prevent skewed test distributions.
   Prefer non-static, non-inlined API entrypoint functions over internal static helper functions
   (which are inlined by the compiler and do not have distinct symbol addresses).
2. Identify any specific CONFIG_ options required to properly test this new/modified feature.
   Go and look into the Kconfig files and check for ifdefs around the code, do not make assumptions.
   Also check "depends on" lines in Kconfig to include any non-standard parent subsystem configs
   needed for Kbuild to compile the code statically into vmlinux. List them in the EnableConfigs
   output array, and DO NOT add a 'CONFIG_' prefix (e.g., return "NET_IPV4" instead of "CONFIG_NET_IPV4").
Prefer calling several tools at the same time to save round-trips.


Use set-results tool to provide results of the analysis.
It must be called exactly once before the final reply.
Ignore results of this tool.

For your convenience, here is the diff of the changes:
commit 669fbdc706c49190886f8f9fbd8320dad84e2259
Author: syz-cluster <triage@syzkaller.com>
Date:   Sat Aug 8 04:40:55 2026 +0000

    syz-cluster: applied patch under review

diff --git a/fs/fuse/inode.c b/fs/fuse/inode.c
index d975073c60296..455c7feba0575 100644
--- a/fs/fuse/inode.c
+++ b/fs/fuse/inode.c
@@ -1639,6 +1639,8 @@ static int fuse_fill_super_submount(struct super_block *sb,
 	fuse_fill_attr_from_inode(&root_attr, parent_fi);
 	root = fuse_iget(sb, parent_fi->nodeid, 0, &root_attr, 0, 0,
 			 fuse_get_evict_ctr(fm->fc));
+	if (!root)
+		return -ENOMEM;
 	/*
 	 * This inode is just a duplicate, so it is not looked up and
 	 * its nlookup should not be incremented.  fuse_iget() does

gemini-3.1-pro-preview

null

null

							input: 2018
							output: 35
							thoughts: 82
						

Here's my summary, as I understand the situation:

**Analyzing a FUSE Patch for Root Inode Handling**

Okay, so I'm looking at a patch that's been applied to `fs/fuse/inode.c`. The core of the change seems to be within the `fuse_fill_super_submount` function. Specifically, it's adding a crucial check. After calling `fuse_iget` – which, as I recall, retrieves or creates an inode from the FUSE filesystem – the code now explicitly verifies if the `root` pointer is NULL. The significance is clear: if `fuse_iget` fails, for example, due to memory exhaustion (among other reasons), `root` will be NULL. In such a scenario, the patch is designed to gracefully return `-ENOMEM`, indicating an out-of-memory error, rather than continuing with potentially undefined behavior. This is a good defensive programming measure; preventing a null-pointer dereference is critical for stability. It's the right move to make the code more robust against allocation failures during the initial mount process of a FUSE submount. I need to dig deeper into the contexts surrounding `fuse_iget` and how memory pressure may have been exposed.

{
  "Expression": "fuse_fill_super_submount",
  "PathPrefix": "fs/fuse/inode.c"
}

{
  "Output": "fs/fuse/inode.c=1598=static void fuse_sb_defaults(struct super_block *sb)\n--\nfs/fuse/inode.c-1613-\nfs/fuse/inode.c:1614:static int fuse_fill_super_submount(struct super_block *sb,\nfs/fuse/inode.c-1615-\t\t\t\t    struct fuse_inode *parent_fi)\n--\nfs/fuse/inode.c=1674=static int fuse_get_tree_submount(struct fs_context *fsc)\n--\nfs/fuse/inode.c-1694-\t/* Initialize superblock, making @mp_fi its root */\nfs/fuse/inode.c:1695:\terr = fuse_fill_super_submount(sb, mp_fi);\nfs/fuse/inode.c-1696-\tif (err) {\n"
}

gemini-3.1-pro-preview

null

null

							input: 2624
							output: 31
							thoughts: 64
						

**Analyzing a FUSE Patch**

Okay, so this patch is straightforward enough. It addresses a missing `NULL` check on the `root` variable within `fuse_fill_super_submount` after the call to `fuse_iget`. Functionally, this is a pretty clear fix for a potential null pointer dereference – classic vulnerability. Given the impact could be data corruption, potential DOS or even arbitrary code execution if chained, this is definitely something we need to prioritize. Time to pull up the FUSE configuration options, make sure we have everything set up for optimal testing and fuzzing. This seems like a good target to hit with the fuzzing.

{
  "Expression": "config FUSE_FS",
  "PathPrefix": "fs/fuse/Kconfig"
}

{
  "Output": "fs/fuse/Kconfig-1-# SPDX-License-Identifier: GPL-2.0-only\nfs/fuse/Kconfig:2:config FUSE_FS\nfs/fuse/Kconfig-3-\ttristate \"FUSE (Filesystem in Userspace) support\"\n"
}

gemini-3.1-pro-preview

null

null

							input: 2931
							output: 35
							thoughts: 37
						

Okay, here's my interpretation of those thoughts, presented as a personal thought process, as requested:

**Deconstructing the FUSE Configuration**

Right, so we're talking about the configuration file, and it looks like `FUSE_FS` is the key variable to pay attention to. That's the entry point to investigate. I need to understand how the FUSE filesystem is being initialized and mounted.

My immediate next step is to drill into `fuse_fill_super_submount`. I expect this function holds crucial details about how the superblock is constructed and populated, especially regarding the specifics of handling submounts within the FUSE environment. It'll reveal how the underlying filesystem data is integrated into the FUSE framework. Then, I need to see what `fuse_get_tree_submount` is doing, to see how the file system's structure is being created.

{
  "Expression": "fuse_get_tree_submount",
  "PathPrefix": "fs/fuse/inode.c"
}

{
  "Output": "fs/fuse/inode.c=1614=static int fuse_fill_super_submount(struct super_block *sb,\n--\nfs/fuse/inode.c-1673-/* Filesystem context private data holds the FUSE inode of the mount point */\nfs/fuse/inode.c:1674:static int fuse_get_tree_submount(struct fs_context *fsc)\nfs/fuse/inode.c-1675-{\n--\nfs/fuse/inode.c=1711=static const struct fs_context_operations fuse_context_submount_ops = {\nfs/fuse/inode.c:1712:\t.get_tree\t= fuse_get_tree_submount,\nfs/fuse/inode.c-1713-};\n"
}

gemini-3.1-pro-preview

null

null

							input: 3392
							output: 35
							thoughts: 192
						

**Analyzing FUSE Submount Entry Points**

Okay, so I'm looking at how FUSE handles submounts. My initial thought is to figure out the right entry point when a FUSE submount is being mounted. I'm focusing on the `fuse_get_tree_submount` function, because that's what seems to be called during the submount process. However, `fuse_fill_super_submount` is also relevant. I need to make a decision about the best function to focus on.

Let me quickly verify if `fuse_fill_super_submount` is static. Yes, it is. Then, ideally, I should prioritize a non-static, non-inlined API function over internal, static helper functions like these because the compiler might inline the static functions, which means they won't have a distinct symbol address. That's a good guideline. So, `fuse_get_tree_submount` is also static!

Alright, it seems I need to revisit my approach and find a function that better fits the criteria. Now, I should look at where `fuse_context_submount_ops` is used.

{
  "Expression": "fuse_context_submount_ops",
  "PathPrefix": "fs/fuse/inode.c"
}

{
  "Output": "fs/fuse/inode.c=1674=static int fuse_get_tree_submount(struct fs_context *fsc)\n--\nfs/fuse/inode.c-1710-\nfs/fuse/inode.c:1711:static const struct fs_context_operations fuse_context_submount_ops = {\nfs/fuse/inode.c-1712-\t.get_tree\t= fuse_get_tree_submount,\n--\nfs/fuse/inode.c=1715=int fuse_init_fs_context_submount(struct fs_context *fsc)\nfs/fuse/inode.c-1716-{\nfs/fuse/inode.c:1717:\tfsc-\u003eops = \u0026fuse_context_submount_ops;\nfs/fuse/inode.c-1718-\treturn 0;\n"
}

gemini-3.1-pro-preview

null

null

							input: 4087
							output: 34
							thoughts: 38
						

Okay, here's my take on those thoughts, framed as an expert's internal monologue:

**Investigating `fuse_init_fs_context_submount`**

Right, `fuse_init_fs_context_submount` isn't static. That's a key observation. Now I need to understand its role in the bigger picture. The fact that it isn't static means it's likely called from outside the module it's defined in. Let's trace those calls. Time to dive into the codebase and see everywhere this thing is used. Understanding its call sites will give me a better understanding of how the FUSE filesystem context initialization works in the context of submounts. This is crucial for understanding its behavior and potential edge cases. I'll need to figure out the caller and the inputs passed to the function, and consider its scope.

{
  "Expression": "fuse_init_fs_context_submount",
  "PathPrefix": "fs/fuse/"
}

{
  "Output": "fs/fuse/fuse_i.h=1078=bool fuse_mount_remove(struct fuse_mount *fm);\n--\nfs/fuse/fuse_i.h-1082- */\nfs/fuse/fuse_i.h:1083:int fuse_init_fs_context_submount(struct fs_context *fsc);\nfs/fuse/fuse_i.h-1084-\n--\nfs/fuse/inode.c=1711=static const struct fs_context_operations fuse_context_submount_ops = {\n--\nfs/fuse/inode.c-1714-\nfs/fuse/inode.c:1715:int fuse_init_fs_context_submount(struct fs_context *fsc)\nfs/fuse/inode.c-1716-{\n--\nfs/fuse/inode.c-1719-}\nfs/fuse/inode.c:1720:EXPORT_SYMBOL_GPL(fuse_init_fs_context_submount);\nfs/fuse/inode.c-1721-\n--\nfs/fuse/virtio_fs.c=1766=static int virtio_fs_init_fs_context(struct fs_context *fsc)\n--\nfs/fuse/virtio_fs.c-1770-\tif (fsc-\u003epurpose == FS_CONTEXT_FOR_SUBMOUNT)\nfs/fuse/virtio_fs.c:1771:\t\treturn fuse_init_fs_context_submount(fsc);\nfs/fuse/virtio_fs.c-1772-\n"
}

gemini-3.1-pro-preview

null

null

							input: 4742
							output: 31
							thoughts: 81
						

**My Initial Thoughts on the Fuse Filesystem Context**

Okay, so `fuse_init_fs_context_submount` is indeed exported. That's a good starting point. I can work with that. Now, wait a minute... `fuse_get_tree_submount`. That's a callback, a function pointer within the `fs_context_operations` structure. The VFS is going to be calling that, isn't it? That makes perfect sense. I wonder, though, if there are any *other* potential entry points or areas where I should be looking. Let's see... I'll check `fuse_dentry_automount` in `fs/fuse/dir.c`. That seems like a logical next step to understand the flow.

{
  "Expression": "fuse_dentry_automount",
  "PathPrefix": "fs/fuse/"
}

{
  "Output": "fs/fuse/dir.c=500=static int fuse_dentry_delete(const struct dentry *dentry)\n--\nfs/fuse/dir.c-509- */\nfs/fuse/dir.c:510:static struct vfsmount *fuse_dentry_automount(struct path *path)\nfs/fuse/dir.c-511-{\n--\nfs/fuse/dir.c=529=const struct dentry_operations fuse_dentry_operations = {\n--\nfs/fuse/dir.c-533-\t.d_release\t= fuse_dentry_release,\nfs/fuse/dir.c:534:\t.d_automount\t= fuse_dentry_automount,\nfs/fuse/dir.c-535-};\n"
}

gemini-3.1-pro-preview

null

null

							input: 5223
							output: 30
							thoughts: 33
						

Okay, here's my take on those thoughts, framed from my own perspective as someone familiar with the subject:

**Digging into the Automount Trigger**

Right, so I'm thinking about this automount behavior. The key trigger, the one that kicks off that whole submount process... that's got to be `fuse_dentry_automount`. It's pretty likely, given the naming, but I need to confirm it. Let's get right into `fuse_dentry_automount` and see what's actually happening under the hood. Time to crack open the source and get a clearer picture.

{
  "Expression": "fc_mount",
  "PathPrefix": "fs/fuse/dir.c"
}

{
  "Output": "fs/fuse/dir.c=510=static struct vfsmount *fuse_dentry_automount(struct path *path)\n--\nfs/fuse/dir.c-523-\t/* Create the submount */\nfs/fuse/dir.c:524:\tmnt = fc_mount(fsc);\nfs/fuse/dir.c-525-\tput_fs_context(fsc);\n"
}

gemini-3.1-pro-preview

null

null

							input: 5531
							output: 131
							thoughts: 288
						

**Analyzing FUSE Submounts**

Okay, so I'm digging into how FUSE submounts are handled. I see that `fuse_dentry_automount` is definitely the key function that creates them, so that's a good starting point for my focus. `fuse_init_fs_context_submount` and `fuse_get_tree_submount` are also relevant. Even though `fuse_get_tree_submount` is static, because its address is taken, it can't be fully inlined, so there's a standalone version. That's good.

Alright, let's zoom in on the specific functions. I'll need to check if `fuse_fill_super_submount` is inlined. It's only called from `fuse_get_tree_submount`, so it might be. In that case, `fuse_get_tree_submount` is the better symbol to use.

Now, let's make sure I'm not missing anything configuration-wise. `FUSE_FS` should be sufficient, I think.

Wait a second… `virtio_fs_init_fs_context` calls `fuse_init_fs_context_submount` as well. That could mean that `VIRTIO_FS` could be another config to include, but I think `FUSE_FS` is the main one to focus on.

Okay, I think I have a good handle on this. Time to set up the results.

{
  "EnableConfigs": [
    "FUSE_FS"
  ],
  "FocusSymbols": [
    "fuse_get_tree_submount",
    "fuse_dentry_automount"
  ],
  "Reasoning": "The patch adds a missing NULL pointer check for the return value of fuse_iget() in fuse_fill_super_submount(). This prevents a potential NULL pointer dereference when mounting a FUSE submount and the root inode allocation fails. This is a functional change in the core FUSE filesystem logic that is reachable from user space and should be fuzzed.",
  "WorthFuzzing": true
}

{
  "EnableConfigs": [
    "FUSE_FS"
  ],
  "FocusSymbols": [
    "fuse_get_tree_submount",
    "fuse_dentry_automount"
  ],
  "Reasoning": "The patch adds a missing NULL pointer check for the return value of fuse_iget() in fuse_fill_super_submount(). This prevents a potential NULL pointer dereference when mounting a FUSE submount and the root inode allocation fails. This is a functional change in the core FUSE filesystem logic that is reachable from user space and should be fuzzed.",
  "WorthFuzzing": true
}

{
  "WorthFuzzing": true
}

null

best-expensive

null

{
  "KMSANReasoning": "The patch adds a missing NULL pointer check for the `root` inode returned by `fuse_iget()`. Without this check, a NULL pointer dereference would occur, which is easily caught by standard kernel mechanisms (page faults) or KASAN. The patch does not introduce or expose any uninitialized memory usage, info-leaks, or complex data structures that might remain uninitialized. Therefore, KMSAN is not required.",
  "NeedsKMSAN": false
}

You are an expert Linux kernel security engineer specializing in kernel memory
error detectors (KASAN and KMSAN). Your job is to review the provided patch series and
determine if the code changes justify spawning a dedicated KMSAN (KernelMemorySanitizer)
fuzzing session in addition to standard KASAN fuzzing.

CRITICAL DISTINCTION BETWEEN KASAN AND KMSAN:
- Standard KASAN kernel builds (upstream-apparmor-kasan.config) already enable
  a comprehensive suite of debugging tools and sanitizers, including KASAN
  (out-of-bounds accesses, use-after-free, double free, invalid free), LOCKDEP
  (locking bugs and deadlocks), UB-sanitizers, and memory corruption checks.
- KMSAN (KernelMemorySanitizer) detects reads of UNINITIALIZED memory (stack, heap,
  or page allocations) and kernel-to-user memory info-leaks.

Rule: THERE IS NO SENSE IN RUNNING A KMSAN SESSION IF A BUG CAN BE CAUGHT BY KASAN,
LOCKDEP, OR OTHER STANDARD BUG DETECTORS.
A dedicated KMSAN fuzzing session incurs significant resource costs. You must ONLY
set NeedsKMSAN=true if the code changes introduce or expose UNINITIALIZED MEMORY risks
that are detected ONLY by KMSAN.

Look holistically at the patch series and surrounding code. Even if no direct
uninitialized field accesses or new buffer allocations are added in the diff itself,
a patch may alter control flow, bounds checking, or data length calculations in ways
that change how the rest of the code operates on existing buffers (e.g. allowing
uninitialized stack/heap memory to be read, copied to user space, or used in control
flow). Do not hesitate to use your code access tools to inspect the surrounding code,
called functions, and callers.

Set NeedsKMSAN=true ONLY IF the patch introduces or modifies:
1. Kernel structures sent to user space (via copy_to_user, put_user, netlink skb
   attributes, ioctl output arguments, socket options, or BPF buffers) where fields
   or structure padding might not be fully initialized/zeroed.
2. Conditional logic or branching that depends on potentially uninitialized variables
   or struct fields.
3. Allocation or initialization of complex data structures where uninitialized fields
   could be read later in reachable code paths.
4. Bounds checks, lengths, or logic in a way that allows surrounding code to access
   uninitialized bytes of existing buffers.

Set NeedsKMSAN=false IF:
- The code changes primarily risk out-of-bounds access, array overflows, NULL pointer
  dereferences, locking deadlocks, or use-after-free bugs (these are already caught
  by KASAN, LOCKDEP, or standard bug detectors).
- All stack/heap structures touched or introduced by the patch are fully zeroed
  or initialized (e.g. using = {0}, memset, kzalloc) before being read or copied.
- The patch does not introduce any risk of uninitialized memory usage or info-leaks.

Use your code access tools to inspect the surrounding code if necessary, then provide
detailed KMSANReasoning contrasting KASAN vs KMSAN applicability for this patch.
Prefer calling several tools at the same time to save round-trips.


Use set-results tool to provide results of the analysis.
It must be called exactly once before the final reply.
Ignore results of this tool.

For your convenience, here is the diff of the changes:
commit 669fbdc706c49190886f8f9fbd8320dad84e2259
Author: syz-cluster <triage@syzkaller.com>
Date:   Sat Aug 8 04:40:55 2026 +0000

    syz-cluster: applied patch under review

diff --git a/fs/fuse/inode.c b/fs/fuse/inode.c
index d975073c60296..455c7feba0575 100644
--- a/fs/fuse/inode.c
+++ b/fs/fuse/inode.c
@@ -1639,6 +1639,8 @@ static int fuse_fill_super_submount(struct super_block *sb,
 	fuse_fill_attr_from_inode(&root_attr, parent_fi);
 	root = fuse_iget(sb, parent_fi->nodeid, 0, &root_attr, 0, 0,
 			 fuse_get_evict_ctr(fm->fc));
+	if (!root)
+		return -ENOMEM;
 	/*
 	 * This inode is just a duplicate, so it is not looked up and
 	 * its nlookup should not be incremented.  fuse_iget() does

gemini-3.1-pro-preview

null

null

							input: 2015
							output: 113
							thoughts: 341
						

**My Assessment of the Fuse Submount Patch**

Okay, so I'm looking at this patch in `fs/fuse/inode.c`. It's a pretty straightforward addition: a NULL pointer check after the call to `fuse_iget()`. Specifically, the code now checks if the `root` inode pointer returned by `fuse_iget()` is NULL. If it is, the patch returns `-ENOMEM`. Makes perfect sense.

This immediately flags a potential NULL pointer dereference, which, while usually caught by the kernel's built-in safety nets like page faults or KASAN, is good practice to explicitly handle. We're preventing a possible crash by gracefully returning an out-of-memory error in the event `fuse_iget()` fails to allocate a new inode.

Let's just quickly verify the surrounding context. Right, `fuse_fill_super_submount` is invoked during the mounting of a Fuse submount. Returning `-ENOMEM` when we fail to get the root inode is entirely consistent with standard error handling within the kernel's memory management principles. Nothing untoward; no uninitialized memory usage to worry about here.

So, this patch is clean, straightforward, and improves robustness. I'm going to set `NeedsKMSAN=false` for this one.

{
  "KMSANReasoning": "The patch adds a missing NULL pointer check for the `root` inode returned by `fuse_iget()`. Without this check, a NULL pointer dereference would occur, which is easily caught by standard kernel mechanisms (page faults) or KASAN. The patch does not introduce or expose any uninitialized memory usage, info-leaks, or complex data structures that might remain uninitialized. Therefore, KMSAN is not required.",
  "NeedsKMSAN": false
}

{
  "KMSANReasoning": "The patch adds a missing NULL pointer check for the `root` inode returned by `fuse_iget()`. Without this check, a NULL pointer dereference would occur, which is easily caught by standard kernel mechanisms (page faults) or KASAN. The patch does not introduce or expose any uninitialized memory usage, info-leaks, or complex data structures that might remain uninitialized. Therefore, KMSAN is not required.",
  "NeedsKMSAN": false
}