AI Trajectory

null

{
  "EnableConfigs": null,
  "FocusSymbols": [],
  "Reasoning": "The patch simply initializes a pointer argument in a dummy inline function when CONFIG_MEMCG_V1 is disabled. This fixes an uninitialized variable warning (e.g. from KMSAN), but has no functional effect on the execution flow since the variable is only passed to another dummy inline function that does nothing.",
  "WorthFuzzing": false
}

null

{
  "PatchDiff": "commit c305af88f3097dd9027c19e739bcd6ace1ae5db9\nAuthor: syz-cluster \u003ctriage@syzkaller.com\u003e\nDate:   Fri Jun 26 17:50:59 2026 +0000\n\n    syz-cluster: applied patch under review\n\ndiff --git a/mm/memcontrol-v1.h b/mm/memcontrol-v1.h\nindex f92f81108d5ed2..4fa6e2bc8413ff 100644\n--- a/mm/memcontrol-v1.h\n+++ b/mm/memcontrol-v1.h\n@@ -107,7 +107,11 @@ static inline void memcg1_remove_from_trees(struct mem_cgroup *memcg) {}\n static inline void memcg1_soft_limit_reset(struct mem_cgroup *memcg) {}\n static inline void memcg1_css_offline(struct mem_cgroup *memcg) {}\n \n-static inline bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked) { return true; }\n+static inline bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked)\n+{\n+\t*locked = false;\n+\treturn true;\n+}\n static inline void memcg1_oom_finish(struct mem_cgroup *memcg, bool locked) {}\n static inline void memcg1_oom_recover(struct mem_cgroup *memcg) {}\n \n"
}

gemini-3.1-pro-preview

null

{
  "EnableConfigs": null,
  "FocusSymbols": [],
  "Reasoning": "The patch simply initializes a pointer argument in a dummy inline function when CONFIG_MEMCG_V1 is disabled. This fixes an uninitialized variable warning (e.g. from KMSAN), but has no functional effect on the execution flow since the variable is only passed to another dummy inline function that does nothing.",
  "WorthFuzzing": false
}

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).

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.
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.
   Do not list too generic configs (we already have them enabled). Only list those that
   specifically cover the modified code. 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 c305af88f3097dd9027c19e739bcd6ace1ae5db9
Author: syz-cluster <triage@syzkaller.com>
Date:   Fri Jun 26 17:50:59 2026 +0000

    syz-cluster: applied patch under review

diff --git a/mm/memcontrol-v1.h b/mm/memcontrol-v1.h
index f92f81108d5ed2..4fa6e2bc8413ff 100644
--- a/mm/memcontrol-v1.h
+++ b/mm/memcontrol-v1.h
@@ -107,7 +107,11 @@ static inline void memcg1_remove_from_trees(struct mem_cgroup *memcg) {}
 static inline void memcg1_soft_limit_reset(struct mem_cgroup *memcg) {}
 static inline void memcg1_css_offline(struct mem_cgroup *memcg) {}
 
-static inline bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked) { return true; }
+static inline bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked)
+{
+	*locked = false;
+	return true;
+}
 static inline void memcg1_oom_finish(struct mem_cgroup *memcg, bool locked) {}
 static inline void memcg1_oom_recover(struct mem_cgroup *memcg) {}
 

gemini-3.1-pro-preview

null

null

							input: 1916
							output: 36
							thoughts: 69
						

**Analyzing the Memory Control Patch**

Okay, so this patch is touching `mm/memcontrol-v1.h`. That's interesting, and right away I'm thinking about the implications for memory control within the kernel. The specific function they are modifying, `memcg1_oom_prepare`, immediately flags something up. I need to understand the conditional here—specifically, what happens when `CONFIG_MEMCG_V1` *isn't* defined (or a similar condition, I'll need to double-check the exact logic). It’s crucial to understand the alternative path, if the old, v1 memcg implementation is not used. Let me go ahead and dive into `mm/memcontrol-v1.h` to see exactly what’s going on, and how this affects the OOM handling.

{
  "Expression": "memcg1_oom_prepare",
  "PathPrefix": "mm/memcontrol-v1.h"
}

{
  "Output": "mm/memcontrol-v1.h=60=enum res_type {\n--\nmm/memcontrol-v1.h-66-\nmm/memcontrol-v1.h:67:bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked);\nmm/memcontrol-v1.h-68-void memcg1_oom_finish(struct mem_cgroup *memcg, bool locked);\n--\nmm/memcontrol-v1.h=108=static inline void memcg1_css_offline(struct mem_cgroup *memcg) {}\nmm/memcontrol-v1.h-109-\nmm/memcontrol-v1.h:110:static inline bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked)\nmm/memcontrol-v1.h-111-{\n"
}

gemini-3.1-pro-preview

null

null

							input: 2421
							output: 29
							thoughts: 63
						

**Analyzing the memcg1_oom_prepare Patch**

Okay, so this patch is aimed at a dummy implementation of `memcg1_oom_prepare`, specifically when `CONFIG_MEMCG_V1` *isn't* enabled. Interesting. The key addition is the line `*locked = false;` just before the function returns `true`. Clearly, this is addressing a potential locking issue. Returning `true` likely signals something... a preparation, perhaps? And the `locked` variable suggests some kind of mutex or semaphore. Adding the `*locked = false;` explicitly clears any pre-existing lock state before proceeding.

My immediate question is, *why*? Why is this necessary in the dummy implementation? We need to understand the control flow. The next step is to find where `memcg1_oom_prepare` is called. That will provide critical context. I need to see what's happening *around* this function call to fully grasp the implications of this change and the rationale behind it. Understanding the call sites is essential for proper review.

{
  "Expression": "memcg1_oom_prepare",
  "PathPrefix": "mm/"
}

{
  "Output": "mm/memcontrol-v1.c=1393=bool mem_cgroup_oom_synchronize(bool handle)\n--\nmm/memcontrol-v1.c-1432-\nmm/memcontrol-v1.c:1433:bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked)\nmm/memcontrol-v1.c-1434-{\n--\nmm/memcontrol-v1.h=60=enum res_type {\n--\nmm/memcontrol-v1.h-66-\nmm/memcontrol-v1.h:67:bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked);\nmm/memcontrol-v1.h-68-void memcg1_oom_finish(struct mem_cgroup *memcg, bool locked);\n--\nmm/memcontrol-v1.h=108=static inline void memcg1_css_offline(struct mem_cgroup *memcg) {}\nmm/memcontrol-v1.h-109-\nmm/memcontrol-v1.h:110:static inline bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked)\nmm/memcontrol-v1.h-111-{\n--\nmm/memcontrol.c=1918=static bool mem_cgroup_oom(struct mem_cgroup *memcg, gfp_t mask, int order)\n--\nmm/memcontrol.c-1926-\nmm/memcontrol.c:1927:\tif (!memcg1_oom_prepare(memcg, \u0026locked))\nmm/memcontrol.c-1928-\t\treturn false;\n"
}

gemini-3.1-pro-preview

null

null

							input: 3169
							output: 32
							thoughts: 44
						

Okay, here's my take on those thoughts, framed as my own:

**Delving into the Memory Control OOM Handler**

Right, so I need to track down where the out-of-memory (OOM) handling specifically related to memory cgroups resides. The clue is in the name, really. It's indicating that `mem_cgroup_oom` is the function of interest. I know from experience that memory control functions are usually in the `mm` directory, with cgroup-related stuff frequently in a `memcontrol.c` or something similar, for organizational purposes. So, my hunch is that `mem_cgroup_oom` will be found within `mm/memcontrol.c`. Time to dive in and confirm that expectation. Let's see what's inside.

{
  "Expression": "mem_cgroup_oom",
  "PathPrefix": "mm/memcontrol.c"
}

{
  "Output": "mm/memcontrol.c=1885=static bool mem_cgroup_out_of_memory(struct mem_cgroup *memcg, gfp_t gfp_mask,\n--\nmm/memcontrol.c-1917- */\nmm/memcontrol.c:1918:static bool mem_cgroup_oom(struct mem_cgroup *memcg, gfp_t mask, int order)\nmm/memcontrol.c-1919-{\n--\nmm/memcontrol.c=2595=static int try_charge_memcg(struct mem_cgroup *memcg, gfp_t gfp_mask,\n--\nmm/memcontrol.c-2696-\t */\nmm/memcontrol.c:2697:\tif (mem_cgroup_oom(mem_over_limit, gfp_mask,\nmm/memcontrol.c-2698-\t\t\t   get_order(nr_pages * PAGE_SIZE))) {\n"
}

gemini-3.1-pro-preview

null

null

							input: 3661
							output: 35
							thoughts: 21
						

Here's my summary, as though I'm reading and thinking about `mm/memcontrol.c`:

**Diving into `mem_cgroup_oom`**

Okay, time to dig into `mm/memcontrol.c` and specifically, the `mem_cgroup_oom` function. I'm already anticipating some interesting edge cases and the usual complexity that comes with OOM handling, especially when dealing with memory cgroups. Let's see how they've structured this... I'm looking for the core logic: the decision process, the selection of victims (if any), and the eventual actions taken. The goal, as always, is to minimize disruption and avoid cascading failures while freeing up enough memory to keep the system responsive. I need to understand how they determine if the current cgroup is truly OOM, what triggers the OOM handling, and how they prioritize which cgroups to target if we're in a situation where memory needs to be reclaimed across multiple cgroups. I'm also curious if they have any specific logic for handling situations where a single task or cgroup is consuming far more resources than it should be, and how it is differentiated from a global shortage. Any clever heuristics or optimizations they've implemented will be interesting. Now, let's see how they implement the reclaim and kill process in each of these conditions.

{
  "File": "mm/memcontrol.c",
  "FirstLine": 1918,
  "LineCount": 30
}

{
  "Contents": "1918:\tstatic bool mem_cgroup_oom(struct mem_cgroup *memcg, gfp_t mask, int order)\n1919:\t{\n1920:\t\tbool locked, ret;\n1921:\t\n1922:\t\tif (order \u003e PAGE_ALLOC_COSTLY_ORDER)\n1923:\t\t\treturn false;\n1924:\t\n1925:\t\tmemcg_memory_event(memcg, MEMCG_OOM);\n1926:\t\n1927:\t\tif (!memcg1_oom_prepare(memcg, \u0026locked))\n1928:\t\t\treturn false;\n1929:\t\n1930:\t\tret = mem_cgroup_out_of_memory(memcg, mask, order);\n1931:\t\n1932:\t\tmemcg1_oom_finish(memcg, locked);\n1933:\t\n1934:\t\treturn ret;\n1935:\t}\n1936:\t\n1937:\t/**\n1938:\t * mem_cgroup_get_oom_group - get a memory cgroup to clean up after OOM\n1939:\t * @victim: task to be killed by the OOM killer\n1940:\t * @oom_domain: memcg in case of memcg OOM, NULL in case of system-wide OOM\n1941:\t *\n1942:\t * Returns a pointer to a memory cgroup, which has to be cleaned up\n1943:\t * by killing all belonging OOM-killable tasks.\n1944:\t *\n1945:\t * Caller has to call mem_cgroup_put() on the returned non-NULL memcg.\n1946:\t */\n1947:\tstruct mem_cgroup *mem_cgroup_get_oom_group(struct task_struct *victim,\n"
}

gemini-3.1-pro-preview

null

null

							input: 4482
							output: 36
							thoughts: 98
						

**Debugging a Memory Cgroup OOM Issue**

Alright, let's dive in. It looks like `locked` within the `mem_cgroup_oom` function is uninitialized. That's a classic source of potential bugs. Now, if I remember correctly – and I think I'm right about this – when `CONFIG_MEMCG_V1` is disabled, `memcg1_oom_prepare` just bails out early, returning `true` without touching the `*locked` variable. And that's where things get interesting, because subsequently, `memcg1_oom_finish` gets called, but it's passed this potentially garbage value for `locked`. I need to confirm my hunch. Time to dig into the definition of `memcg1_oom_finish`. Let's open up `mm/memcontrol-v1.h` and see what it's doing with that uninitialized pointer. I'm betting that's where the problem lies.

{
  "Expression": "memcg1_oom_finish",
  "PathPrefix": "mm/memcontrol-v1.h"
}

{
  "Output": "mm/memcontrol-v1.h=67=bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked);\nmm/memcontrol-v1.h:68:void memcg1_oom_finish(struct mem_cgroup *memcg, bool locked);\nmm/memcontrol-v1.h-69-void memcg1_oom_recover(struct mem_cgroup *memcg);\n--\nmm/memcontrol-v1.h=110=static inline bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked)\n--\nmm/memcontrol-v1.h-114-}\nmm/memcontrol-v1.h:115:static inline void memcg1_oom_finish(struct mem_cgroup *memcg, bool locked) {}\nmm/memcontrol-v1.h-116-static inline void memcg1_oom_recover(struct mem_cgroup *memcg) {}\n"
}

gemini-3.1-pro-preview

null

null

							input: 5074
							output: 30
							thoughts: 243
						

**Analyzing a Potentially Harmless, Yet Concerning, Code Snippet**

Okay, so I'm looking at this `memcg1_oom_finish` function, and it's striking me as odd. The code shows it's an empty inline function when `CONFIG_MEMCG_V1` is disabled. That means the `locked` variable, passed into it uninitialized, wouldn't actually *do* anything. My initial thought was that it was likely harmless, maybe just a compiler warning about an uninitialized variable, or perhaps even a KMSAN warning. I had a quick back-and-forth in my head, thinking: does KMSAN even *care* about an empty inline function?

Then I remembered that KMSAN instruments at the Intermediate Representation (IR) level. That means it likely sees the load of the uninitialized variable before the inlining optimization potentially gets rid of the call. That's it! This patch actually *does* fix an uninitialized variable use, even if the "function" is effectively a no-op in this configuration.

Hmm, I then paused, wondering if this was worth fuzzing? The patch itself is incredibly simple: it's just adding `*locked = false;` to this dummy inline function. Because `memcg1_oom_finish` doesn't *do* anything with `locked` when `CONFIG_MEMCG_V1` is disabled, the change shouldn't have any functional impact. But, it does eliminate a potential KMSAN warning.

Now I really should check whether or not `CONFIG_MEMCG_V1` is disabled by default, or what... I bet it's not.

{
  "Expression": "config MEMCG_V1",
  "PathPrefix": "init/Kconfig"
}

{
  "Output": "init/Kconfig=1078=config MEMCG_NMI_SAFETY_REQUIRES_ATOMIC\n--\ninit/Kconfig-1084-\ninit/Kconfig:1085:config MEMCG_V1\ninit/Kconfig-1086-\tbool \"Legacy cgroup v1 memory controller\"\n"
}

gemini-3.1-pro-preview

null

null

							input: 5788
							output: 33
							thoughts: 17
						

Here's my take on the thought process, as requested:

**Navigating the Kconfig Labyrinth**

Okay, so I'm diving into this `init/Kconfig` file. Specifically, I need to get a handle on what's happening around line 1085. I've got a specific question I'm trying to answer, and I'm betting this section holds the key. Let's see if this section of the config file can help me elucidate the details. It's time to dig in and decipher the dependencies, options, and logic that are probably defined within that chunk of code. Hopefully, the answer is within reach.

{
  "File": "init/Kconfig",
  "FirstLine": 1080,
  "LineCount": 20
}

{
  "Contents": "1080:\t\tdepends on MEMCG\n1081:\t\tdepends on HAVE_NMI\n1082:\t\tdepends on !ARCH_HAS_NMI_SAFE_THIS_CPU_OPS \u0026\u0026 ARCH_HAVE_NMI_SAFE_CMPXCHG\n1083:\t\tdefault y\n1084:\t\n1085:\tconfig MEMCG_V1\n1086:\t\tbool \"Legacy cgroup v1 memory controller\"\n1087:\t\tdepends on MEMCG\n1088:\t\tdefault n\n1089:\t\thelp\n1090:\t\t  Legacy cgroup v1 memory controller which has been deprecated by\n1091:\t\t  cgroup v2 implementation. The v1 is there for legacy applications\n1092:\t\t  which haven't migrated to the new cgroup v2 interface yet. If you\n1093:\t\t  do not have any such application then you are completely fine leaving\n1094:\t\t  this option disabled.\n1095:\t\n1096:\t\t  Please note that feature set of the legacy memory controller is likely\n1097:\t\t  going to shrink due to deprecation process. New deployments with v1\n1098:\t\t  controller are highly discouraged.\n1099:\t\n"
}

gemini-3.1-pro-preview

null

null

							input: 6296
							output: 27
							thoughts: 182
						

**WorthFuzzing=False: A Deep Dive into a Minor Kernel Patch**

Okay, so I've been looking at this patch and, honestly, it's pretty straightforward. `MEMCG_V1` is disabled by default, which means the real function `memcg1_oom_prepare` is just a dummy inline. The patch simply initializes `*locked = false;` within this dummy function. Hmm, it's just meant to silence a KMSAN warning or maybe a compiler complaint about an uninitialized `locked` variable. It's really just a defensive coding measure.

Critically, this initialization *doesn't* actually change the control flow. The `locked` variable's value is passed to `memcg1_oom_finish`, which is *also* a dummy inline function that does absolutely nothing. So, in terms of actual kernel functionality, this patch has no impact whatsoever. No new code paths, no new behaviors to explore. It's essentially a no-op from a fuzzing perspective. Therefore, I'm confident in setting `WorthFuzzing=false`. Just to be absolutely sure, I'll quickly check if `memcg1_oom_prepare` is used anywhere else in the code, but I highly doubt it'll turn up anything of interest.

{
  "Expression": "memcg1_oom_prepare",
  "PathPrefix": ""
}

{
  "Output": "mm/memcontrol-v1.c=1393=bool mem_cgroup_oom_synchronize(bool handle)\n--\nmm/memcontrol-v1.c-1432-\nmm/memcontrol-v1.c:1433:bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked)\nmm/memcontrol-v1.c-1434-{\n--\nmm/memcontrol-v1.h=60=enum res_type {\n--\nmm/memcontrol-v1.h-66-\nmm/memcontrol-v1.h:67:bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked);\nmm/memcontrol-v1.h-68-void memcg1_oom_finish(struct mem_cgroup *memcg, bool locked);\n--\nmm/memcontrol-v1.h=108=static inline void memcg1_css_offline(struct mem_cgroup *memcg) {}\nmm/memcontrol-v1.h-109-\nmm/memcontrol-v1.h:110:static inline bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked)\nmm/memcontrol-v1.h-111-{\n--\nmm/memcontrol.c=1918=static bool mem_cgroup_oom(struct mem_cgroup *memcg, gfp_t mask, int order)\n--\nmm/memcontrol.c-1926-\nmm/memcontrol.c:1927:\tif (!memcg1_oom_prepare(memcg, \u0026locked))\nmm/memcontrol.c-1928-\t\treturn false;\n"
}

gemini-3.1-pro-preview

null

null

							input: 7213
							output: 27
							thoughts: 42
						

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

**Focusing on Memory OOM Handling**

Right, so I'm honing in on the memory OOM (Out of Memory) situation within the cgroup code. It's clear that the function `mem_cgroup_oom` is the crucial entry point for OOM events that pertain to memory cgroups. And as a further datapoint, `memcg1_oom_finish` - that's *also* only used within the `mem_cgroup_oom` path. Which seems sensible, since it's most likely handling tasks internal to dealing with the OOM events. So the question is what happens in the function, and what other factors come into play?

{
  "Expression": "memcg1_oom_finish",
  "PathPrefix": ""
}

{
  "Output": "mm/memcontrol-v1.c=1433=bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked)\n--\nmm/memcontrol-v1.c-1472-\nmm/memcontrol-v1.c:1473:void memcg1_oom_finish(struct mem_cgroup *memcg, bool locked)\nmm/memcontrol-v1.c-1474-{\n--\nmm/memcontrol-v1.h=67=bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked);\nmm/memcontrol-v1.h:68:void memcg1_oom_finish(struct mem_cgroup *memcg, bool locked);\nmm/memcontrol-v1.h-69-void memcg1_oom_recover(struct mem_cgroup *memcg);\n--\nmm/memcontrol-v1.h=110=static inline bool memcg1_oom_prepare(struct mem_cgroup *memcg, bool *locked)\n--\nmm/memcontrol-v1.h-114-}\nmm/memcontrol-v1.h:115:static inline void memcg1_oom_finish(struct mem_cgroup *memcg, bool locked) {}\nmm/memcontrol-v1.h-116-static inline void memcg1_oom_recover(struct mem_cgroup *memcg) {}\n--\nmm/memcontrol.c=1918=static bool mem_cgroup_oom(struct mem_cgroup *memcg, gfp_t mask, int order)\n--\nmm/memcontrol.c-1931-\nmm/memcontrol.c:1932:\tmemcg1_oom_finish(memcg, locked);\nmm/memcontrol.c-1933-\n"
}

gemini-3.1-pro-preview

null

null

							input: 7902
							output: 94
							thoughts: 44
						

Okay, here's my take on those thoughts, framed as my own reasoning:

**Addressing the Compiler's Grumbles**

Alright, so this is just a quick cleanup. It's a classic case of the compiler being a little too pedantic, squawking about an uninitialized variable. The good news is, from a *functional* perspective, this is a non-issue. The variable is only being fed into an inline function that does absolutely nothing. No code path actually *uses* the uninitialized value. It's purely about silencing that pesky warning. Therefore, I will set `WorthFuzzing=false`. It's not worth the effort for something that does not effect the outcome.

{
  "EnableConfigs": [],
  "FocusSymbols": [],
  "Reasoning": "The patch simply initializes a pointer argument in a dummy inline function when CONFIG_MEMCG_V1 is disabled. This fixes an uninitialized variable warning (e.g. from KMSAN), but has no functional effect on the execution flow since the variable is only passed to another dummy inline function that does nothing.",
  "WorthFuzzing": false
}

{
  "EnableConfigs": null,
  "FocusSymbols": [],
  "Reasoning": "The patch simply initializes a pointer argument in a dummy inline function when CONFIG_MEMCG_V1 is disabled. This fixes an uninitialized variable warning (e.g. from KMSAN), but has no functional effect on the execution flow since the variable is only passed to another dummy inline function that does nothing.",
  "WorthFuzzing": false
}