============================================================ [09:00:11] 🚀 SMART TOOL: RENAME ALL FUNCTIONS
Starting OPTIMIZED bulk function analysis with mode: smart_enumeration
• Batch processing (size: 50) • Deferred RAG vector creation • Optimized AI prompts • Enhanced progress tracking
Retrieving list of all functions...
Found 33 functions to process
Processing function 1/33: FUN_00011010
Smart Enumeration: Analyzing FUN_00011010 (generic name)
============================================================ [09:00:11] STEP 1 (FUNCTION 1): DECOMPILED FUN_00011010
Successfully retrieved function code (length: 182 chars)
============================================================ [09:00:11] 🔍 GATHERING CONTEXT FOR FUN_00011010
Fetching callers and callees...
Found 1 caller(s) and 0 callee(s) (587 chars total)
============================================================ [09:08:41] STEP 2 (FUNCTION 1): AI ANALYSIS FOR FUN_00011010
Function Analysis:
The function FUN_00011010 appears to be a simple state restoration routine. It writes the values of DAT_00015130, DAT_0001513e to the output, then writes the value of DAT_0001513e twice. The caller, FUN_000115f0, retrieves a pointer from a structure pointed to by param_1 + 0x18, and uses the values pointed to by this pointer to initialize global variables (DAT_00015130, DAT_00015134, DAT_00015140, and DAT_0001513e). It then calls FUN_00011010 before writing the initial values back into the memory locations pointed to by the pointer. This suggests that the function’s purpose is to temporarily replace the values of these globals and then restore them after performing some operations, acting like a 'save state' and 'restore state' pair with the caller. The repeated output of DAT_0001513e is likely related to a specific operation within the broader context of FUN_000115f0.
Behavior Summary:
FUN_00011010 saves the current values of global variables into an array of memory locations, outputs these values, and then restores the original values. This indicates a temporary modification of global state performed by the calling function. This function effectively takes a snapshot of some global variables and restores them.
Suggested Name: restoreGlobalStateContext Rationale: This name accurately reflects the function's purpose of restoring the original values of global variables that were likely modified within the calling function. The term "GlobalStateContext" explicitly conveys that the function operates on global state and manages a specific context within the program. "restore" clearly signifies the action of reverting to a previous state, distinguishing this function from a function that sets the global state. It’s more descriptive than simply “restoreState” as it clarifies what state is being restored. The use of "context" implies a controlled environment of variables managed by the caller.
============================================================ [09:08:41] STEP 3A (FUNCTION 1): EXTRACTED NAME FOR FUN_00011010
restoreGlobalStateContext
============================================================ [09:08:41] STEP 3B (FUNCTION 1): RENAME RESULT
Successfully renamed 'FUN_00011010' to 'restoreGlobalStateContext'
✅ Function 1/33: FUN_00011010 → restoreGlobalStateContext
✅ Added FUN_00011010 to Renamed Functions panel (Address: 00011010)
Processing function 2/33: FUN_00011077
Smart Enumeration: Analyzing FUN_00011077 (generic name)
============================================================ [09:08:41] STEP 1 (FUNCTION 2): DECOMPILED FUN_00011077
Successfully retrieved function code (length: 228 chars)
============================================================ [09:08:41] 🔍 GATHERING CONTEXT FOR FUN_00011077
Fetching callers and callees...
Found 1 caller(s) and 0 callee(s) (782 chars total)
============================================================ [09:18:06] STEP 2 (FUNCTION 2): AI ANALYSIS FOR FUN_00011077
Function Analysis:
The function FUN_00011077 appears to be a simple data output routine. It outputs two short values, DAT_00015148 and DAT_0001514c, using the out function. Subsequently, it outputs the value 0xeb twice, also using the out function and DAT_0001514c as a parameter. Finally, it assigns the value of DAT_0001514c to the global variable DAT_00015120. The caller FUN_00011a00 uses this function as part of a larger operation that involves reading data from a buffer (pointed to by param_2 + 0x18) and writing it back to the same buffer. The caller also copies several values into global variables before calling this function and then copies them back from the global variables to the buffer after the function returns. This suggests that FUN_00011077 is responsible for writing specific data to an output stream or performing a synchronization operation. The comparison in the caller function ( (iVar2 == 0x1c) && (0x1b < uVar1) ) suggests this might be related to a specific condition where the output is written only if certain criteria are met. The fact that the function returns an undefined value suggests that it is not performing any calculations or critical operations with its return value.
Behavior Summary: The function writes a sequence of predetermined short and byte values to an output destination, and then stores the first short value into a global variable. This sequence appears to be a part of a larger data manipulation process where data is read from a buffer, written through this function, and then written back to the same buffer. It likely serves as a form of state update or synchronization within the system.
Suggested Name: writeStateSynchronizationData
Rationale:
This name captures the function’s specific operation. The term "write" indicates the output operation performed by the out function calls. "State Synchronization" suggests the function is likely involved in updating or maintaining a certain program state. Finally, the addition of "Data" clarifies that this synchronization involves specific data values, namely DAT_00015148, DAT_0001514c and 0xeb. This name accurately reflects the function's purpose, distinguishing it from general data processing or output functions. The use of the term "synchronization" is plausible given the potential role of updating a shared state between different parts of the program. It's much more descriptive than FUN_00011077 and more specific than generic names like writeData or outputData.
============================================================ [09:18:06] STEP 3A (FUNCTION 2): EXTRACTED NAME FOR FUN_00011077
writeStateSynchronizationData
============================================================ [09:18:06] STEP 3B (FUNCTION 2): RENAME RESULT
Successfully renamed 'FUN_00011077' to 'writeStateSynchronizationData'
✅ Function 2/33: FUN_00011077 → writeStateSynchronizationData
✅ Added FUN_00011077 to Renamed Functions panel (Address: 00011077)
Processing function 3/33: FUN_000110d8
Smart Enumeration: Analyzing FUN_000110d8 (generic name)
============================================================ [09:18:06] STEP 1 (FUNCTION 3): DECOMPILED FUN_000110D8
Successfully retrieved function code (length: 215 chars)
============================================================ [09:18:06] 🔍 GATHERING CONTEXT FOR FUN_000110D8
Fetching callers and callees...
Found 1 caller(s) and 0 callee(s) (732 chars total)
============================================================ [09:26:01] STEP 2 (FUNCTION 3): AI ANALYSIS FOR FUN_000110D8
Function Analysis:
The function FUN_000110d8 reads the Model Specific Register (MSR) at address 0x15128 using the rdmsr instruction. The 64-bit value read from the MSR is then split into two 32-bit integers and stored in global variables DAT_0001512c and DAT_00015150. The lower 32 bits are stored in DAT_0001512c, and the upper 32 bits are stored in DAT_00015150 via a right shift operation. The function returns a value stored in in_RAX which is likely the result of rdmsr, but is not used by the function itself. The caller FUN_000116c0 uses this function conditionally when *piVar1 == 1. The caller then stores the values read by this function into array elements piVar1[2] and piVar1[3]. This suggests the function is reading some system configuration or status information and making it available to the caller.
Behavior Summary: This function reads a 64-bit value from a specific Model Specific Register (MSR) address, splits it into two 32-bit parts, stores those parts in global variables, and returns the original 64-bit value. The caller stores these values to an array. It's likely retrieving a system configuration value used for further processing.
Suggested Name: readAndSplitMsrConfiguration Rationale: This name accurately reflects the function’s specific actions. "readAndSplit" describes the core operation—reading a value and then dividing it. "Msr" identifies the data source as a Model Specific Register, adding critical domain context. Finally, "Configuration" suggests the function retrieves configuration information. This is more descriptive than simply reading a value and avoids vague names like 'readData' or 'getMsrValue'. The name specifically conveys that the read MSR value is being used for configuration purposes. This naming also accurately distinguishes it from functions that might only read or write MSRs without splitting the value.
============================================================ [09:26:01] STEP 3A (FUNCTION 3): EXTRACTED NAME FOR FUN_000110D8
readAndSplitMsrConfiguration
============================================================ [09:26:01] STEP 3B (FUNCTION 3): RENAME RESULT
Successfully renamed 'FUN_000110d8' to 'readAndSplitMsrConfiguration'
✅ Function 3/33: FUN_000110d8 → readAndSplitMsrConfiguration
✅ Added FUN_000110d8 to Renamed Functions panel (Address: 000110d8)
Processing function 4/33: FUN_000110f5
Smart Enumeration: Analyzing FUN_000110f5 (generic name)
============================================================ [09:26:01] STEP 1 (FUNCTION 4): DECOMPILED FUN_000110F5
Successfully retrieved function code (length: 141 chars)
============================================================ [09:26:01] 🔍 GATHERING CONTEXT FOR FUN_000110F5
Fetching callers and callees...
Found 1 caller(s) and 0 callee(s) (748 chars total)
============================================================ [09:33:47] STEP 2 (FUNCTION 4): AI ANALYSIS FOR FUN_000110F5
Function Analysis:
The function FUN_000110f5 appears to write a value to the Model Specific Register (MSR) using the wrmsr instruction. The data written to the MSR is constructed by concatenating the values stored at the global memory locations DAT_00015150 and DAT_0001512c. The caller, FUN_000116c0, sets these global variables based on a condition. Specifically, if a certain condition regarding piVar1 and values at param_3 + 0x8 and param_3 + 0x10 holds, the function reads values into DAT_0001512c and DAT_00015150 or reads configuration using readAndSplitMsrConfiguration and then proceeds to call FUN_000110f5. The return value of FUN_000110f5 is stored in in_RAX, but is not further utilized in the provided code snippets.
Behavior Summary:
This function writes a combined value, derived from global configuration data, to a specific Model Specific Register (MSR). The values written to the MSR are prepared by the calling function FUN_000116c0, indicating configuration of a hardware component. The function's primary purpose is likely to configure some processor or system feature controlled by MSRs.
Suggested Name: writeCombinedMsrConfiguration
Rationale:
This name accurately reflects the function’s operation: writing to an MSR with a configuration value. The term “Combined” specifically points to the concatenation of DAT_00015150 and DAT_0001512c which is what gets written to the MSR. "MsrConfiguration" indicates it's dealing with MSR related settings, and "write" is an action verb specifying the operation performed. This name is specific enough to differentiate the function from more generic MSR access functions, and includes the data domain (MSR configuration) for better context. The camelCase format improves readability.
============================================================ [09:33:47] STEP 3A (FUNCTION 4): EXTRACTED NAME FOR FUN_000110F5
writeCombinedMsrConfiguration
============================================================ [09:33:47] STEP 3B (FUNCTION 4): RENAME RESULT
Successfully renamed 'FUN_000110f5' to 'writeCombinedMsrConfiguration'
✅ Function 4/33: FUN_000110f5 → writeCombinedMsrConfiguration
✅ Added FUN_000110f5 to Renamed Functions panel (Address: 000110f5)
Processing function 5/33: FUN_00011112
Smart Enumeration: Analyzing FUN_00011112 (generic name)
============================================================ [09:33:47] STEP 1 (FUNCTION 5): DECOMPILED FUN_00011112
Successfully retrieved function code (length: 3045 chars)
============================================================ [09:33:47] 🔍 GATHERING CONTEXT FOR FUN_00011112
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (3042 chars total)
============================================================ [09:50:37] STEP 2 (FUNCTION 5): AI ANALYSIS FOR FUN_00011112
Function Analysis:
The function FUN_00011112 takes a pointer to an 8-byte structure as input and appears to pack/serialize data from various registers and memory locations into this structure. It manipulates data from the input parameter and several implicit global variables (DAT_00015100, in_AF, in_TF, in_IF, in_NT, in_AC, in_VIF, in_ID). Specifically, it's writing portions of the input parameter into the provided buffer (the param_1 buffer), along with the value of DAT_00015100. It performs bitwise operations and popcount on uVar7 to determine conditional byte values written to the buffer, and also performs bitwise shifts to pack 8-byte values into individual bytes. The function then writes data dependent on flags in in_AF, in_NT, in_IF, in_TF, in_ID, in_VIF, and in_AC into specific bytes of the input buffer. This data manipulation suggests the function might be preparing a message or data structure for transmission or storage. The function doesn't appear to do complex calculations or cryptographic operations, but rather performs formatting and packing. Finally, it returns the value in the in_RAX register, which appears unused.
Behavior Summary:
This function serializes data, originating from registers, global variables, and the input parameter itself, into a contiguous memory buffer pointed to by param_1. It performs bitwise manipulations and conditional assignments to encode information into specific bytes within the buffer. The function appears to be constructing a data structure that might represent status or control information, possibly related to a fan control mechanism as suggested by the caller.
Suggested Name: serializeFanControlStatus
Rationale:
The name "serializeFanControlStatus" accurately reflects the function's core purpose. The caller functions FUN_00011af0 is named "SmartFanON", suggesting the entire code block pertains to fan control logic. The function serializes various status flags (indicated by the in_ prefixed registers) and data from the caller into a buffer. The use of "serialize" indicates the function is packing or converting data into a sequential format suitable for storage or transmission, capturing the behavior of writing data into the buffer. "FanControlStatus" clarifies the context and domain, indicating the function deals with the status of a fan control system. Combining these elements creates a highly descriptive name that clearly explains the function's role in the overall application architecture. It's specific, domain-aware, and uses an action verb ("serialize") to precisely define the operation performed.
============================================================ [09:50:37] STEP 3A (FUNCTION 5): EXTRACTED NAME FOR FUN_00011112
serializeFanControlStatus
============================================================ [09:50:37] STEP 3B (FUNCTION 5): RENAME RESULT
Successfully renamed 'FUN_00011112' to 'serializeFanControlStatus'
✅ Function 5/33: FUN_00011112 → serializeFanControlStatus
✅ Added FUN_00011112 to Renamed Functions panel (Address: 00011112)
Processing function 6/33: FUN_00011270
Smart Enumeration: Analyzing FUN_00011270 (generic name)
============================================================ [09:50:37] STEP 1 (FUNCTION 6): DECOMPILED FUN_00011270
Successfully retrieved function code (length: 1309 chars)
============================================================ [09:50:37] 🔍 GATHERING CONTEXT FOR FUN_00011270
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [09:59:50] STEP 2 (FUNCTION 6): AI ANALYSIS FOR FUN_00011270
Function Analysis:
The function FUN_00011270 appears to be responsible for reading data from an input source, likely some kind of I/O stream or buffer, based on the in() instruction which suggests reading from a port. The function takes a pointer to a data structure (param_1), a data structure containing size and possibly other flags (param_2), and a parameter (param_3) acting as a selector determining the size of data to read. The param_3 selector values -0x3caf9bfc, -0x3caf9bf8, and other values, control whether 1, 2, or 4 bytes are read from the address pointed to by *(undefined4 **)(param_1 + 0x18). The function also performs a size check (iVar1 != 4 || uVar2 < uVar7) before proceeding. The read value is then written back to the same memory location pointed to by puVar3, and a value indicating the number of bytes read (uVar7) is stored in *(ulonglong *)(param_1 + 0x38). Debug print statements suggest I/O operations.
Behavior Summary: This function reads a specific number of bytes (1, 2, or 4) from a memory location based on a selector value, after validating a size condition. The function writes the read value back to the same memory location, and stores the size of the read operation in a specific memory offset. It acts like a controlled read from a hardware or emulated peripheral.
Suggested Name: readPeripheralByteValue
Rationale:
The name readPeripheralByteValue accurately reflects the function’s core operation. The function reads a byte, word, or double word (uVar7 indicates size) from a peripheral or emulated I/O location (puVar3 = *(undefined4 **)(param_1 + 0x18)). The param_3 value functions as a selector for the data size (1, 2, or 4 bytes), indicating a peripheral or device register read operation. The word “peripheral” reflects the I/O nature indicated by in() and the data source, and ByteValue clarifies that the function returns a value based on size selected. Using "read" as an action verb and "ByteValue" as the specific data being read ensures the function name is descriptive and avoids generic terms. This name is specific enough to distinguish this function from general data reading functions and accurately represents its purpose within the program.
============================================================ [09:59:50] STEP 3A (FUNCTION 6): EXTRACTED NAME FOR FUN_00011270
readPeripheralByteValue
============================================================ [09:59:50] STEP 3B (FUNCTION 6): RENAME RESULT
Successfully renamed 'FUN_00011270' to 'readPeripheralByteValue'
✅ Function 6/33: FUN_00011270 → readPeripheralByteValue
✅ Added FUN_00011270 to Renamed Functions panel (Address: 00011270)
Processing function 7/33: FUN_00011380
Smart Enumeration: Analyzing FUN_00011380 (generic name)
============================================================ [09:59:50] STEP 1 (FUNCTION 7): DECOMPILED FUN_00011380
Successfully retrieved function code (length: 1217 chars)
============================================================ [09:59:50] 🔍 GATHERING CONTEXT FOR FUN_00011380
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [10:08:27] STEP 2 (FUNCTION 7): AI ANALYSIS FOR FUN_00011380
Function Analysis:
The function FUN_00011380 appears to be an I/O write function, but its behavior is determined by the param_3 argument. This argument acts as a selector, controlling what data is written to what address. The function retrieves a pointer from param_1 + 0x18 and uses it to access data for writing. The value of param_3 determines the size of the data to be written (1, 2, or 4 bytes) and how it’s interpreted. If param_3 is -0x3caf5bbc or -0x3caf5bb8, the function writes a 2 or 4 byte value from the memory pointed to by puVar2 to the address pointed to by puVar5. If param_3 doesn't match these values, the function writes a 1-byte value. A size check is performed using uVar1 against the selected data size, returning an error code if the size is too small, and otherwise calling a function named out to perform the actual write operation. The debug prints confirm writing operations to addresses.
Behavior Summary:
This function writes a value of either 1, 2, or 4 bytes from a source address determined by param_1 to a destination address determined by the second level pointer puVar2 + 2 or puVar5, selected using the param_3 argument. The function performs a size validation before writing. The size validation is bypassed if the function executes its write paths based on the param_3 selector.
Suggested Name: writeDataToAddressSelector
Rationale: This name accurately reflects the function's core purpose: writing data to an address, but crucially, it highlights the "selector" aspect of param_3, which controls the data size and source. "writeDataToAddress" is too generic as it doesn't capture the important conditional behavior governed by the selector value. The name is specific, descriptive, and uses an action verb ("write") followed by precise nouns ("Data," "Address," "Selector"). The camelCase format adheres to naming conventions. The inclusion of "selector" clarifies that the function doesn't perform a simple write operation, but operates based on a defined selection mechanism.
============================================================ [10:08:27] STEP 3A (FUNCTION 7): EXTRACTED NAME FOR FUN_00011380
writeDataToAddressSelector
============================================================ [10:08:27] STEP 3B (FUNCTION 7): RENAME RESULT
Successfully renamed 'FUN_00011380' to 'writeDataToAddressSelector'
✅ Function 7/33: FUN_00011380 → writeDataToAddressSelector
✅ Added FUN_00011380 to Renamed Functions panel (Address: 00011380)
Processing function 8/33: FUN_000114b0
Smart Enumeration: Analyzing FUN_000114b0 (generic name)
============================================================ [10:08:28] STEP 1 (FUNCTION 8): DECOMPILED FUN_000114B0
Successfully retrieved function code (length: 810 chars)
============================================================ [10:08:28] 🔍 GATHERING CONTEXT FOR FUN_000114B0
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (2079 chars total)
============================================================ [10:19:09] STEP 2 (FUNCTION 8): AI ANALYSIS FOR FUN_000114B0
Function Analysis:
The function FUN_000114b0 appears to be a cleanup or deinitialization routine related to a device driver, specifically one named "GIO". It first checks for a pointer to a data structure at an offset of 0x18 within a larger structure pointed to by param_1 + 8. If this pointer is valid, the function enters a loop that repeatedly unmaps locked pages, frees MDL (Memory Descriptor List) memory, unmaps I/O space, and frees a pool allocation – all using kernel-level Windows API functions (MmUnmapLockedPages, IoFreeMdl, MmUnmapIoSpace, ExFreePoolWithTag). This suggests a cleanup of memory resources associated with the device. After the loop finishes (when the pointer becomes null), the function deletes a symbolic link named "\DosDevices\GIO" and then deletes the device itself using IoDeleteDevice. The device handle being deleted is located at offset 0x10 from param_1 + 8. The caller function, FUN_00013320, creates the device and the symbolic link.
Behavior Summary: This function deallocates resources, unmaps memory, and removes device-related entries (symbolic link and device object) associated with the "GIO" device driver. It iterates through a linked list of allocated resources and frees them sequentially. The function is a core component of the GIO device driver's shutdown or uninstallation process.
Suggested Name: deallocateGioDeviceResources Rationale: This name accurately reflects the function's purpose: to deallocate resources tied to the "GIO" device. The verb "deallocate" precisely describes the action performed—freeing memory and other kernel objects. The noun "resources" encompasses all the memory and kernel objects being released (locked pages, MDLs, I/O space, and pool allocations). Including "GioDevice" specifically anchors the function to the target driver, clearly differentiating it from any generic resource deallocation routines that might exist elsewhere in the code. The naming adheres to the enhanced requirements, being highly specific and using a clear action verb and noun combination. This name improves code readability and understanding by precisely communicating the function's function within the larger GIO driver architecture.
============================================================ [10:19:09] STEP 3A (FUNCTION 8): EXTRACTED NAME FOR FUN_000114B0
deallocateGioDeviceResources
============================================================ [10:19:09] STEP 3B (FUNCTION 8): RENAME RESULT
Successfully renamed 'FUN_000114b0' to 'deallocateGioDeviceResources'
✅ Function 8/33: FUN_000114b0 → deallocateGioDeviceResources
✅ Added FUN_000114b0 to Renamed Functions panel (Address: 000114b0)
Processing function 9/33: FUN_00011570
Smart Enumeration: Analyzing FUN_00011570 (generic name)
============================================================ [10:19:09] STEP 1 (FUNCTION 9): DECOMPILED FUN_00011570
Successfully retrieved function code (length: 574 chars)
============================================================ [10:19:09] 🔍 GATHERING CONTEXT FOR FUN_00011570
Fetching callers and callees...
Found 2 caller(s) and 0 callee(s) (1065 chars total)
============================================================ [10:29:07] STEP 2 (FUNCTION 9): AI ANALYSIS FOR FUN_00011570
Function Analysis:
The function FUN_00011570 appears to be involved in mapping and unmapping I/O space, likely for device memory access. It receives three parameters: a base address (likely a device base address), a pointer to a structure containing device information, and another pointer. It retrieves an unsigned integer from an offset (0x10) within the structure pointed to by the third parameter (param_3). It also retrieves a long long integer from an offset (0x18) within the structure pointed to by the second parameter (param_2). The function then uses MmMapIoSpace to map a physical memory region to virtual memory, using the base address and size information retrieved from the structure (param_2). It calls FUN_00013440 which likely operates on the mapped memory region. Crucially, it then unmaps the I/O space using MmUnmapIoSpace. Finally, it writes the unsigned integer retrieved initially back into the structure pointed to by param_2 at offset 0x38. The caller FUN_00012d10 (which handles some sort of allocation logic) passes values to this function. The values suggest it is operating on a device or peripheral.
Behavior Summary:
This function maps a physical memory region to a virtual address space, performs an operation on that mapped region via a call to FUN_00013440, and then unmaps the region. The mapping and unmapping are likely related to accessing hardware or device memory, and the data at offsets 0x10 and 0x18 in the param_2 structure likely define the region’s address and size. The returned value from MmMapIoSpace is used as an argument to FUN_00013440 and a value read from param_3 is written to param_2, which suggests information is being exchanged between the two structures.
Suggested Name: mapAndOperateOnIoMemory
Rationale:
This name precisely captures the function's primary actions. "mapAndOperateOn" clearly indicates the core behavior: mapping a memory region and performing an operation on it. "IoMemory" accurately reflects the use of MmMapIoSpace and MmUnmapIoSpace which are dedicated to Input/Output memory mapping. The combination of "map" and "operate" is more specific than "process" or "handle," indicating the distinct phases of the function. The name is specific, using domain-aware terms (IO, memory), which makes its purpose instantly clear within a reverse engineering context. This name differentiates it from generic memory allocation functions and highlights its specialized role in dealing with I/O space.
============================================================ [10:29:07] STEP 3A (FUNCTION 9): EXTRACTED NAME FOR FUN_00011570
mapAndOperateOnIoMemory
============================================================ [10:29:07] STEP 3B (FUNCTION 9): RENAME RESULT
Successfully renamed 'FUN_00011570' to 'mapAndOperateOnIoMemory'
✅ Function 9/33: FUN_00011570 → mapAndOperateOnIoMemory
✅ Added FUN_00011570 to Renamed Functions panel (Address: 00011570)
Processing function 10/33: FUN_000115f0
Smart Enumeration: Analyzing FUN_000115f0 (generic name)
============================================================ [10:29:08] STEP 1 (FUNCTION 10): DECOMPILED FUN_000115F0
Successfully retrieved function code (length: 622 chars)
============================================================ [10:29:08] 🔍 GATHERING CONTEXT FOR FUN_000115F0
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [10:36:20] STEP 2 (FUNCTION 10): AI ANALYSIS FOR FUN_000115F0
Function Analysis:
The function FUN_000115f0 appears to be involved in restoring a set of global variables from a structure pointed to by param_1 + 0x18. It reads values from offsets 8 and 0x10 of param_2 and uses them as conditions. If iVar2 is equal to 8 AND uVar1 is greater than 7, it writes the value 8 to param_1 + 0x38 and returns 0. Otherwise, it returns 0xc000000d. The function effectively stores a set of 4 values from an array pointed to by param_1 + 0x18 to global variables, potentially checks some condition related to those values, and then restores the original values, before returning. The conditional check and the writing of 8 to a memory location suggest a status or flag setting. The lack of caller information is unfortunate, but it indicates that this is likely a low-level utility function.
Behavior Summary: This function restores saved global state data from a provided memory location, performs a conditional check based on values in another memory location, and potentially sets a status flag. It effectively saves the current global state to temporary storage, does a check and then restores it. The function returns 0 on success or 0xc000000d otherwise.
Suggested Name: restoreAndCheckGlobalState Rationale: This name accurately reflects the function's behavior: it restores a previously saved global state, and checks certain conditions related to the data being restored. The addition of "GlobalState" clarifies the type of data being handled, and distinguishes this function from any similar functions dealing with local or different data. It uses an action verb "restore" and "check" and includes a specific noun "GlobalState" for enhanced clarity. The name is descriptive, concise, and conveys the function's purpose without ambiguity. It avoids generic terms and clearly explains the operations performed within the function.
============================================================ [10:36:20] STEP 3A (FUNCTION 10): EXTRACTED NAME FOR FUN_000115F0
restoreAndCheckGlobalState
============================================================ [10:36:20] STEP 3B (FUNCTION 10): RENAME RESULT
Successfully renamed 'FUN_000115f0' to 'restoreAndCheckGlobalState'
✅ Function 10/33: FUN_000115f0 → restoreAndCheckGlobalState
✅ Added FUN_000115f0 to Renamed Functions panel (Address: 000115f0)
Processing function 11/33: FUN_000116c0
Smart Enumeration: Analyzing FUN_000116c0 (generic name)
============================================================ [10:36:20] STEP 1 (FUNCTION 11): DECOMPILED FUN_000116C0
Successfully retrieved function code (length: 790 chars)
============================================================ [10:36:20] 🔍 GATHERING CONTEXT FOR FUN_000116C0
Fetching callers and callees...
Found 2 caller(s) and 0 callee(s) (1065 chars total)
============================================================ [10:47:13] STEP 2 (FUNCTION 11): AI ANALYSIS FOR FUN_000116C0
Function Analysis:
The function FUN_000116c0 appears to be involved in configuring or initializing a system component, likely related to memory or hardware access, based on the use of writeCombinedMsrConfiguration and readAndSplitMsrConfiguration. It checks values at offsets 0x10 and 0x8 within the param_3 structure against a value of 0x10. If the values are all equal to 0x10, it sets a value at param_2 + 0x38 to 0. It then reads values from an array pointed to by piVar1 (which is located at param_2 + 0x18) into global variables DAT_00015128, DAT_0001512c, and DAT_00015150. The function then has a conditional block based on the first element of the piVar1 array. If it is 0, it writes the MSR configuration, sets param_2 + 0x38 to 0x10, and returns 0. If it is 1, it reads and splits the MSR configuration, updates the piVar1 array with global data, sets param_2 + 0x38 to 0x10, and returns 0. If the initial condition isn't met, or the first element of piVar1 is neither 0 nor 1, it returns 0xc000000d (likely an error code). The caller at 00012f62 (FUN_00012d10) appears to be handling some form of allocation or initialization, where param_1 holds allocation parameters.
Behavior Summary:
This function configures a system's Model Specific Registers (MSRs) based on data provided in the piVar1 array and other parameters, potentially enabling or initializing a specific hardware feature. It performs either a write or read/split operation on the MSR configuration, based on the value of piVar1[0]. The function sets a flag in the calling context (param_2 + 0x38) upon successful configuration, and returns an error code if configuration is skipped due to the initial check.
Suggested Name: configureMsrSettings
Rationale:
The name configureMsrSettings accurately captures the function's primary purpose: to configure MSRs. "MSR" is a specific hardware component and including it provides important domain context. The word "Settings" is more descriptive than "Configuration" in this context, since the function seems to be setting values. It differentiates this function from general configuration functions. The verb "configure" accurately describes the action taken on the MSRs. The name is concise and readily conveys the function's functionality to someone familiar with MSRs. It clearly indicates that this function sets the state of specific hardware registers.
============================================================ [10:47:13] STEP 3A (FUNCTION 11): EXTRACTED NAME FOR FUN_000116C0
configureMsrSettings
============================================================ [10:47:13] STEP 3B (FUNCTION 11): RENAME RESULT
Successfully renamed 'FUN_000116c0' to 'configureMsrSettings'
✅ Function 11/33: FUN_000116c0 → configureMsrSettings
✅ Added FUN_000116c0 to Renamed Functions panel (Address: 000116c0)
Processing function 12/33: FUN_00011790
Smart Enumeration: Analyzing FUN_00011790 (generic name)
============================================================ [10:47:13] STEP 1 (FUNCTION 12): DECOMPILED FUN_00011790
Successfully retrieved function code (length: 2430 chars)
============================================================ [10:47:13] 🔍 GATHERING CONTEXT FOR FUN_00011790
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [10:56:37] STEP 2 (FUNCTION 12): AI ANALYSIS FOR FUN_00011790
Function Analysis:
This function attempts to gain access to physical memory via the ZwOpenSection and ZwMapViewOfSection Windows NT APIs. It first initializes a Unicode string pointing to "\Device\PhysicalMemory". It then attempts to open a section representing physical memory with the ZwOpenSection call. If successful, it retrieves an object reference. The function then uses HalTranslateBusAddress to translate physical addresses. The function appears to be attempting to map a section of physical memory into the virtual address space of the process. It checks if the translation is successful for both an initial address and an offset address. If the translation succeeds and a non-zero offset is detected, it attempts to map the section via ZwMapViewOfSection. If successful, the virtual address is printed via DbgPrint and returned as a long long. The function also handles closing the section handle using ZwClose. The calls to HalTranslateBusAddress suggest this code might be involved in accessing hardware or memory directly, potentially for debugging or driver-level operations.
Behavior Summary: The function attempts to map a section of physical memory into the calling process’s virtual address space. It uses HalTranslateBusAddress to translate bus addresses and, if successful, maps the memory using ZwMapViewOfSection. The function returns the base address of the mapped section, or an error code if it fails at any stage. The success depends on having appropriate privileges to access physical memory.
Suggested Name: mapPhysicalMemorySection
Rationale: This name accurately captures the function's specific purpose. "map" clearly describes the operation performed using ZwMapViewOfSection. "PhysicalMemory" specifies the domain of memory being handled, and "Section" indicates that it’s mapping a section of physical memory. The name is specific, uses an action verb ("map"), and includes a precise noun ("Section") describing the data being operated on. This distinguishes it from generic memory allocation or data handling functions. The name also hints at the potential for low-level system interactions.
============================================================ [10:56:37] STEP 3A (FUNCTION 12): EXTRACTED NAME FOR FUN_00011790
mapPhysicalMemorySection
============================================================ [10:56:37] STEP 3B (FUNCTION 12): RENAME RESULT
Successfully renamed 'FUN_00011790' to 'mapPhysicalMemorySection'
✅ Function 12/33: FUN_00011790 → mapPhysicalMemorySection
✅ Added FUN_00011790 to Renamed Functions panel (Address: 00011790)
Processing function 13/33: FUN_00011a00
Smart Enumeration: Analyzing FUN_00011a00 (generic name)
============================================================ [10:56:37] STEP 1 (FUNCTION 13): DECOMPILED FUN_00011A00
Successfully retrieved function code (length: 826 chars)
============================================================ [10:56:37] 🔍 GATHERING CONTEXT FOR FUN_00011A00
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [11:05:04] STEP 2 (FUNCTION 13): AI ANALYSIS FOR FUN_00011A00
Function Analysis:
The function FUN_00011a00 appears to be involved in state synchronization, likely for some kind of data persistence or replication. It receives a pointer param_1 (unused) and a pointer to a data structure param_2. It reads several values from offsets within param_2 (0x18, 0xb8, 0xb8+8, 0xb8+0x10) and copies data from the memory pointed to by *(undefined4 **)(param_2 + 0x18) into global variables DAT_0001514c through DAT_00015124. It then writes these global values back to the memory pointed to by *(undefined4 **)(param_2 + 0x18), effectively performing a memory copy. It also sets a value at param_2 + 0x38 to 0x1c under specific conditions (iVar2 == 0x1c and 0x1b < uVar1), suggesting a state change or flag setting. The return value is 0 on success, and 0xc000000d on failure, hinting at some error condition when the conditional is not met. The function likely saves some internal state to a persistent storage.
Behavior Summary:
This function copies a block of data from a memory region pointed to by an offset within a provided data structure (param_2) to a set of global variables and then writes those variables back to the original memory location. It conditionally sets a state value within the data structure based on two other values also found within that structure. The function’s main purpose appears to be persisting application state.
Suggested Name: synchronizeStateDataBuffer
Rationale: The name synchronizeStateDataBuffer accurately reflects the function's purpose: synchronizing state data. “Synchronize” captures the action of copying data to and from memory, which could represent data persistence. “State” signifies that the function is handling application or system state. "DataBuffer" specifies that it operates on a block of memory. This is more precise than a generic name like "saveState," as it highlights the bidirectional data transfer involved. The use of “Buffer” accurately describes the type of data that is being processed. It also includes an action verb, synchronize.
============================================================ [11:05:04] STEP 3A (FUNCTION 13): EXTRACTED NAME FOR FUN_00011A00
synchronizeStateDataBuffer
============================================================ [11:05:04] STEP 3B (FUNCTION 13): RENAME RESULT
Successfully renamed 'FUN_00011a00' to 'synchronizeStateDataBuffer'
✅ Function 13/33: FUN_00011a00 → synchronizeStateDataBuffer
✅ Added FUN_00011a00 to Renamed Functions panel (Address: 00011a00)
Processing function 14/33: FUN_00011af0
Smart Enumeration: Analyzing FUN_00011af0 (generic name)
============================================================ [11:05:05] STEP 1 (FUNCTION 14): DECOMPILED FUN_00011AF0
Successfully retrieved function code (length: 1803 chars)
============================================================ [11:05:05] 🔍 GATHERING CONTEXT FOR FUN_00011AF0
Fetching callers and callees...
Found 2 caller(s) and 0 callee(s) (1065 chars total)
============================================================ [11:15:25] STEP 2 (FUNCTION 14): AI ANALYSIS FOR FUN_00011AF0
Function Analysis:
The function FUN_00011af0 appears to be related to fan control, specifically turning a smart fan on. It checks for specific values (0x34) in memory locations pointed to by param_3 + 0x10 and param_3 + 0x8. If these values match, it acquires a spin lock (KeAcquireInStackQueuedSpinLock), then enters a loop that iterates up to 10 times. Inside the loop, it serializes fan control status using the serializeFanControlStatus function, with varying parameters (local_30, local_28). The loop continues until a boolean variable bVar2 becomes true, possibly indicating successful fan control status serialization. After the loop (or if the initial condition is false), the spin lock is released (KeReleaseInStackQueuedSpinLock). It also uses a DbgPrint call indicating "Entered SmartFanON". The function returns 0 if the initial conditions are met, or 0xc000000d otherwise. The usage of serializeFanControlStatus and the spin lock suggests interaction with hardware or a real-time system.
Behavior Summary: This function attempts to enable a smart fan by serializing and potentially transmitting fan control status updates. It acquires a spinlock to protect shared resources during this process, iterating up to 10 times while sending serialized status until a condition is met. If the initial checks fail, it signals an error.
Suggested Name: serializeAndEnableSmartFan Rationale: This name accurately reflects the function’s primary purpose: serializing fan control data and enabling the smart fan. The inclusion of "serialize" highlights the crucial operation of preparing the control data for transmission or processing. "Enable" directly indicates the intended outcome of the function. “SmartFan” clearly contextualizes the operation within the domain of intelligent fan control systems. The name is specific enough to differentiate it from other functions dealing with fan control, such as querying fan speed or reading sensor data. It precisely captures the operations performed inside the function.
============================================================ [11:15:25] STEP 3A (FUNCTION 14): EXTRACTED NAME FOR FUN_00011AF0
serializeAndEnableSmartFan
============================================================ [11:15:25] STEP 3B (FUNCTION 14): RENAME RESULT
Successfully renamed 'FUN_00011af0' to 'serializeAndEnableSmartFan'
✅ Function 14/33: FUN_00011af0 → serializeAndEnableSmartFan
✅ Added FUN_00011af0 to Renamed Functions panel (Address: 00011af0)
Processing function 15/33: FUN_00011c70
Smart Enumeration: Analyzing FUN_00011c70 (generic name)
============================================================ [11:15:26] STEP 1 (FUNCTION 15): DECOMPILED FUN_00011C70
Successfully retrieved function code (length: 1701 chars)
============================================================ [11:15:26] 🔍 GATHERING CONTEXT FOR FUN_00011C70
Fetching callers and callees...
Found 2 caller(s) and 0 callee(s) (1065 chars total)
============================================================ [11:26:26] STEP 2 (FUNCTION 15): AI ANALYSIS FOR FUN_00011C70
Function Analysis:
The function FUN_00011c70 appears to be involved in controlling fan behavior, likely within a system management or hardware control context. It takes three longlong parameters, where param_3 seems to be a pointer to a structure containing status information, specifically checking values at offsets 0x10 and 0x8 to determine if a certain condition is met (equal to 0x34). The function accesses a spinlock using KeAcquireInStackQueuedSpinLock which indicates it’s accessing a shared resource, protecting fan control data. Inside a loop that iterates 11 times (0xb), it calls serializeFanControlStatus with a value of 0x113e and conditionally calls it again with values 0x113e then 0x113f if certain conditions are met based on the result of the first serializeFanControlStatus call. The use of serializeFanControlStatus strongly suggests data formatting or communication with a hardware component. If the initial condition is not met, it sets the return value to 0xc000000d, which is likely an error code. The fact that it is called by FUN_00012d10, which is related to allocation, implies this function manages fan control configuration after some resource has been allocated.
Behavior Summary: This function configures and potentially activates or deactivates a smart fan based on system status and a loop that serializes fan control status data. It acquires a spinlock to protect shared fan control data, checks for specific system conditions and then serializes control messages to control the fan state. If the initial conditions are not met, an error code is returned.
Suggested Name: serializeAndApplySmartFanControl
Rationale:
This name accurately reflects the function's core operation: serializing fan control status data (via serializeFanControlStatus) and applying that control logic. “SmartFan” clearly indicates the hardware context and specific device being manipulated, and the “Apply” aspect implies the actual execution of the control signals. The name is specific, uses an action verb ("serializeAndApply"), includes the domain context ("SmartFan"), and clearly describes the function's main purpose. It's better than a generic name like controlFan because it highlights the data serialization step which is critical to the function's operation. It also better encompasses the function's overall behaviour of preparing and then potentially applying control signals to the fan.
============================================================ [11:26:26] STEP 3A (FUNCTION 15): EXTRACTED NAME FOR FUN_00011C70
serializeAndApplySmartFanControl
============================================================ [11:26:26] STEP 3B (FUNCTION 15): RENAME RESULT
Successfully renamed 'FUN_00011c70' to 'serializeAndApplySmartFanControl'
✅ Function 15/33: FUN_00011c70 → serializeAndApplySmartFanControl
✅ Added FUN_00011c70 to Renamed Functions panel (Address: 00011c70)
Processing function 16/33: FUN_00011dd0
Smart Enumeration: Analyzing FUN_00011dd0 (generic name)
============================================================ [11:26:26] STEP 1 (FUNCTION 16): DECOMPILED FUN_00011DD0
Successfully retrieved function code (length: 2104 chars)
============================================================ [11:26:26] 🔍 GATHERING CONTEXT FOR FUN_00011DD0
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [11:36:38] STEP 2 (FUNCTION 16): AI ANALYSIS FOR FUN_00011DD0
Function Analysis:
The function FUN_00011dd0 appears to be involved in fan control status serialization and validation. It receives three parameters: param_1, param_2, and param_3. param_3 is checked for specific values (0x34) at offsets 0x10 and 0x8, likely acting as a validation check. The function acquires a spin lock using KeAcquireInStackQueuedSpinLock indicating thread synchronization, and operates on a local buffer (local_48). param_2 seems to contain a pointer to a data structure containing fan control parameters. Specifically, it dereferences *(ushort **)(param_2 + 0x18) to access fan control data. The serializeFanControlStatus function is called with the address of a local variable local_30, which is initialized with 0x113e or 0x113f and seemingly represents a status code, likely used as input to the serialization process. The function iterates based on the value of local_24 (derived from *puVar1), checking conditions on local_28. The logic incorporates a check for local_30 & 0xff00, and a conditional spinlock release depending on these checks. The final return value is a status code; 0xc000000d for an initial validation failure, 0xc0000001 if certain conditions are met, and 0 otherwise.
Behavior Summary: This function serializes fan control status data, performs validation on input parameters and the fan control data itself, and potentially iterates through a series of fan control values. It acquires and releases a spin lock to ensure thread safety during this process. The function appears to determine a valid state based on the conditions of a serialized status flag and a fan control value.
Suggested Name: serializeAndValidateFanStatus Rationale: This name accurately reflects the function's core actions. "Serialize" indicates the conversion of fan control data into a specific format, and "Validate" captures the initial and ongoing checks performed on parameters and the fan control status. "FanStatus" directly relates to the domain of the function, making it clear what type of data is being processed. Using "And" shows the two main processes within the function's logic. It's specific enough to distinguish this function from more general serialization or validation routines and it explicitly mentions the "Fan" aspect which is central to the function's functionality.
============================================================ [11:36:38] STEP 3A (FUNCTION 16): EXTRACTED NAME FOR FUN_00011DD0
serializeAndValidateFanStatus
============================================================ [11:36:38] STEP 3B (FUNCTION 16): RENAME RESULT
Successfully renamed 'FUN_00011dd0' to 'serializeAndValidateFanStatus'
✅ Function 16/33: FUN_00011dd0 → serializeAndValidateFanStatus
✅ Added FUN_00011dd0 to Renamed Functions panel (Address: 00011dd0)
Processing function 17/33: FUN_00011fb0
Smart Enumeration: Analyzing FUN_00011fb0 (generic name)
============================================================ [11:36:38] STEP 1 (FUNCTION 17): DECOMPILED FUN_00011FB0
Successfully retrieved function code (length: 2190 chars)
============================================================ [11:36:38] 🔍 GATHERING CONTEXT FOR FUN_00011FB0
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [11:47:35] STEP 2 (FUNCTION 17): AI ANALYSIS FOR FUN_00011FB0
Function Analysis:
The function FUN_00011fb0 appears to be involved in fan control or thermal management within a system. It first checks for specific magic values (0x34) in memory locations pointed to by param_3 at offsets 0x10 and 0x8. If these checks fail, it returns an error code (0xc000000d). It then retrieves a pointer to an array of ushorts (puVar1) from param_2 at offset 0x18. It also acquires a spinlock (KeAcquireInStackQueuedSpinLock) using a value from param_1 at offset 0x40. The function serializes fan control status into a local variable local_30 using a custom function serializeFanControlStatus. There's a conditional block that checks a complex expression involving local_30, local_28, and local_24. Inside this block, several local variables are initialized/reset, and serializeFanControlStatus is called again. Finally, if the initial condition is met, it writes a value uVar4 (derived from local_2c) to the array pointed to by puVar1 at offset 0xb, releases the spinlock (KeReleaseInStackQueuedSpinLock), and sets a value in param_2 + 0x38. If the initial condition is not met, it releases the spinlock and returns another error code (0xc0000001). The function utilizes a spinlock to protect a critical section, indicating thread safety considerations.
Behavior Summary: This function seems to handle the serialization and potential updating of fan control status based on certain conditions. It acquires a spinlock, checks specific values for validity, serializes status data, performs conditional logic to determine the status, and potentially writes a fan control value to memory. If the validity checks fail or the conditional logic doesn't meet requirements, it returns an error status.
Suggested Name: serializeAndApplyFanControlStatus
Rationale:
The name accurately captures the function's core purpose: serializing fan control status data into a buffer (local_30) via serializeFanControlStatus and potentially applying a value to fan control registers or settings via puVar1[0xb]. It clearly indicates that the function handles both the serialization of the status and the application of control signals. The use of "And" effectively connects the two main operations within the function. The "FanControlStatus" aspect denotes the domain and data being handled. This name provides a comprehensive and specific description, surpassing the ambiguity of generic names like "processFanData" or "updateSettings."
============================================================ [11:47:35] STEP 3A (FUNCTION 17): EXTRACTED NAME FOR FUN_00011FB0
serializeAndApplyFanControlStatus
============================================================ [11:47:35] STEP 3B (FUNCTION 17): RENAME RESULT
Successfully renamed 'FUN_00011fb0' to 'serializeAndApplyFanControlStatus'
✅ Function 17/33: FUN_00011fb0 → serializeAndApplyFanControlStatus
✅ Added FUN_00011fb0 to Renamed Functions panel (Address: 00011fb0)
Processing function 18/33: FUN_000121b0
Smart Enumeration: Analyzing FUN_000121b0 (generic name)
============================================================ [11:47:35] STEP 1 (FUNCTION 18): DECOMPILED FUN_000121B0
Successfully retrieved function code (length: 1184 chars)
============================================================ [11:47:35] 🔍 GATHERING CONTEXT FOR FUN_000121B0
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [11:57:29] STEP 2 (FUNCTION 18): AI ANALYSIS FOR FUN_000121B0
Function Analysis:
The function FUN_000121b0 appears to be involved in fan control status handling, likely within a system management or hardware control context. It first checks two integer values at offsets 0x10 and 0x8 within the param_3 pointer, comparing them against 0x34 (52 in decimal). If both are equal to 0x34, the function proceeds to acquire a spinlock using KeAcquireInStackQueuedSpinLock with an address from param_1 + 0x40 as the lock's address. It initializes several local variables, reads a value from the param_2 + 0x18 pointer into puVar2 (which is a pointer to an array of unsigned short integers), and then calls a function serializeFanControlStatus passing a pointer to a local variable local_30 which is initialized to 0x113e. It accesses array elements from puVar2 at indices 0xb and 0 based on calculated values, and modifies elements at index 6 and 10. The function writes to param_2 + 0x38. The return value appears to indicate success (0) or failure (0xc000000d). The key aspect is the serialization of fan control status and the subsequent modification of values in the pointed-to array, potentially for control logic or reporting. The check (local_30 & 0xff00) == 0 determines which values are written into puVar2[6] and puVar2[10].
Behavior Summary:
This function serializes fan control status data into a local buffer, potentially based on input parameters. It acquires a spinlock to ensure thread-safe access to shared resources, processes the serialized data, and then conditionally updates values within a buffer pointed to by param_2. Finally, it sets a status value at param_2 + 0x38 and releases the spinlock, effectively handling the fan control status and possibly communicating it to other parts of the system.
Suggested Name: serializeAndApplyFanControlStatus
Rationale:
This name accurately reflects the function's core operations. "serialize" indicates the serializeFanControlStatus call and conversion of data into a structured format. "Apply" highlights the modification of values in the buffer pointed to by param_2 after serialization, and the writing of a status code. “FanControlStatus” clearly defines the domain and the type of data the function operates on. This name is specific, domain-aware, uses an action verb ("serialize" and "apply"), and avoids generic terms, making it highly descriptive and easily understandable within the context of a system management application. It is also more informative than simply naming the function “handleFanControl”, as it precisely describes the operations performed.
============================================================ [11:57:29] STEP 3A (FUNCTION 18): EXTRACTED NAME FOR FUN_000121B0
serializeAndApplyFanControlStatus
============================================================ [11:57:29] STEP 3B (FUNCTION 18): RENAME RESULT
Successfully renamed 'FUN_000121b0' to 'serializeAndApplyFanControlStatus'
✅ Function 18/33: FUN_000121b0 → serializeAndApplyFanControlStatus
✅ Added FUN_000121b0 to Renamed Functions panel (Address: 000121b0)
Processing function 19/33: FUN_000122d0
Smart Enumeration: Analyzing FUN_000122d0 (generic name)
============================================================ [11:57:30] STEP 1 (FUNCTION 19): DECOMPILED FUN_000122D0
Successfully retrieved function code (length: 1107 chars)
============================================================ [11:57:30] 🔍 GATHERING CONTEXT FOR FUN_000122D0
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [12:06:11] STEP 2 (FUNCTION 19): AI ANALYSIS FOR FUN_000122D0
Function Analysis:
The function FUN_000122d0 appears to be involved in fan control status serialization and validation, potentially within a thermal management or hardware control system. It first checks for specific values (0x34) in memory locations pointed to by param_3 which could represent device identification or status flags. If the check passes, it accesses a structure at param_1 + 0x40 likely a spinlock, and acquires it using KeAcquireInStackQueuedSpinLock. It then reads values from a buffer pointed to by param_2 + 0x18 (an array of ushorts), performs some calculations using elements at indices 8, 9, and 0xb, and stores them in local variables. It serializes a status value local_30 potentially representing fan control data using a function called serializeFanControlStatus. After the spinlock is released, it checks if the most significant byte of local_30 is zero. If it is, it writes local_20 (which remains 0) to a buffer location at param_2 + 0xb, writes 0x34 to param_2 + 0x38 and returns 0. Otherwise, it returns an error code (0xc0000001). If the initial check fails, the function returns a different error (0xc000000d).
Behavior Summary:
This function acquires a spinlock, reads fan control related data from a provided buffer (param_2), serializes a fan control status value, performs a validation check on the serialized status, and updates a status flag in the buffer if the validation passes. It returns success or failure based on the validation result and initial checks.
Suggested Name: serializeAndValidateFanControlStatus
Rationale:
This name accurately reflects the function's primary operations: serialization of fan control status data using serializeFanControlStatus, and subsequent validation of that status. It explicitly includes the domain ("Fan Control") to provide context, and utilizes action verbs ("serialize", "validate") to denote the specific actions performed by the function. The name avoids vague terms like "process" or "handle" and clearly states the function's responsibility of both serializing and validating the data related to fan control. It is specific enough to differentiate this function from other potential validation or serialization routines in the codebase.
============================================================ [12:06:11] STEP 3A (FUNCTION 19): EXTRACTED NAME FOR FUN_000122D0
serializeAndValidateFanControlStatus
============================================================ [12:06:11] STEP 3B (FUNCTION 19): RENAME RESULT
Successfully renamed 'FUN_000122d0' to 'serializeAndValidateFanControlStatus'
✅ Function 19/33: FUN_000122d0 → serializeAndValidateFanControlStatus
✅ Added FUN_000122d0 to Renamed Functions panel (Address: 000122d0)
Processing function 20/33: FUN_000123d0
Smart Enumeration: Analyzing FUN_000123d0 (generic name)
============================================================ [12:06:11] STEP 1 (FUNCTION 20): DECOMPILED FUN_000123D0
Successfully retrieved function code (length: 1090 chars)
============================================================ [12:06:11] 🔍 GATHERING CONTEXT FOR FUN_000123D0
Fetching callers and callees...
Found 2 caller(s) and 0 callee(s) (1065 chars total)
============================================================ [12:16:05] STEP 2 (FUNCTION 20): AI ANALYSIS FOR FUN_000123D0
Function Analysis:
The function FUN_000123d0 appears to be involved in controlling a fan based on temperature readings. It checks for specific values (0x34) in memory locations pointed to by param_3 + 0x10 and param_3 + 8, likely flags indicating a valid control context. If the check passes, it accesses a fan control status buffer pointed to by param_2 + 0x18. It reads several values from this buffer (puVar2[0xb], puVar2[9], puVar2[8], puVar2[0], puVar2[10]) and combines them to create a local status variable local_30. The serializeFanControlStatus function is then called with the address of local_30. Finally, it sets a return value uVar3 based on whether the high byte of local_30 is non-zero. If the initial check fails, it returns a different error code. The use of KeAcquireInStackQueuedSpinLock and KeReleaseInStackQueuedSpinLock suggests that access to the fan control data is thread-safe.
Behavior Summary: This function serializes fan control status data, reads values from a PWM (Pulse Width Modulation) control buffer, and potentially modifies a fan speed or state based on the buffer contents and a temperature condition. It acquires a spinlock before accessing the data, suggesting it’s used in a multithreaded environment. The function returns a status code indicating success or failure.
Suggested Name: serializeFanControlPwmStatus
Rationale: This name accurately describes the function's core operation. "serialize" highlights the use of serializeFanControlStatus, which is a key component. "FanControl" specifies the domain of operation, indicating it deals with fan control logic. "PwmStatus" incorporates the PWM aspect, given that the function reads data from a PWM control buffer, and "Status" indicates that it's dealing with the status of the control signals. The combination creates a highly specific and descriptive name, distinguishing it from more generic functions and clarifying its purpose within the system. The name clearly communicates that the function's role is to serialize the status related to a fan controlled by PWM signals.
============================================================ [12:16:05] STEP 3A (FUNCTION 20): EXTRACTED NAME FOR FUN_000123D0
serializeFanControlPwmStatus
============================================================ [12:16:05] STEP 3B (FUNCTION 20): RENAME RESULT
Successfully renamed 'FUN_000123d0' to 'serializeFanControlPwmStatus'
✅ Function 20/33: FUN_000123d0 → serializeFanControlPwmStatus
✅ Added FUN_000123d0 to Renamed Functions panel (Address: 000123d0)
Processing function 21/33: FUN_000124c0
Smart Enumeration: Analyzing FUN_000124c0 (generic name)
============================================================ [12:16:06] STEP 1 (FUNCTION 21): DECOMPILED FUN_000124C0
Successfully retrieved function code (length: 2369 chars)
============================================================ [12:16:06] 🔍 GATHERING CONTEXT FOR FUN_000124C0
Fetching callers and callees...
Found 2 caller(s) and 0 callee(s) (1065 chars total)
============================================================ [12:27:35] STEP 2 (FUNCTION 21): AI ANALYSIS FOR FUN_000124C0
Function Analysis:
The function FUN_000124c0 appears to handle a specific type of IO control command, identified by the values 0x34 and 0x34 being compared against parameters at offsets 0x10 and 0x8 of param_3. When these values match, it acquires a spin lock using KeAcquireInStackQueuedSpinLock, then reads and manipulates data from a buffer pointed to by param_2. Specifically, it reads multiple ushort and uint values from param_2 + 0x18 and subsequent offsets. The data is then used to serialize fan control status information, and the modified data is written back into the same buffer. The function performs bitwise operations and data copying to update fields within this buffer. There are debug prints throughout the function that reveal intermediate values, indicating debugging and testing is present. The function returns 0 upon success, and 0xc000000d if the buffer size check fails.
Behavior Summary: This function processes a specific IO control command related to fan control, acquiring a spinlock to safely read data from a provided buffer, manipulating the buffer's contents to serialize fan control status, and writing the updated status back into the buffer. It appears to be handling some type of device or system configuration data. The function performs validation checks based on the input parameters, and returns an error code if the validation fails.
Suggested Name: serializeFanControlStatusBuffer Rationale: This name accurately reflects the function's primary task: serializing fan control status information. It explicitly calls out that the function works with a 'buffer' of data, rather than simply processing abstract 'data'. The use of 'serialize' highlights the data transformation happening within the function, preparing the fan control data for storage or transmission, and 'status' further clarifies what kind of data it is dealing with. The combination of these words results in a precise and informative name which is specific enough to clearly distinguish it from other functions within the codebase. The action verb "serialize" specifically highlights the data transformation, making it a better choice than generic verbs like "process" or "handle".
============================================================ [12:27:35] STEP 3A (FUNCTION 21): EXTRACTED NAME FOR FUN_000124C0
serializeFanControlStatusBuffer
============================================================ [12:27:35] STEP 3B (FUNCTION 21): RENAME RESULT
Successfully renamed 'FUN_000124c0' to 'serializeFanControlStatusBuffer'
✅ Function 21/33: FUN_000124c0 → serializeFanControlStatusBuffer
✅ Added FUN_000124c0 to Renamed Functions panel (Address: 000124c0)
Processing function 22/33: FUN_00012710
Smart Enumeration: Analyzing FUN_00012710 (generic name)
============================================================ [12:27:36] STEP 1 (FUNCTION 22): DECOMPILED FUN_00012710
Successfully retrieved function code (length: 540 chars)
============================================================ [12:27:36] 🔍 GATHERING CONTEXT FOR FUN_00012710
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [12:34:44] STEP 2 (FUNCTION 22): AI ANALYSIS FOR FUN_00012710
Function Analysis:
The function FUN_00012710 appears to be responsible for allocating a contiguous block of memory. It receives a size value indirectly through a pointer stored in the param_2 structure at offset 0x18. The size is read, debug printed, and then incremented by 0xfff (4095) before being used in a call to MmAllocateContiguousMemory. The MmAllocateContiguousMemory function likely allocates physical memory. If the allocation is successful, the function stores the allocated memory address in a pointer located at offset 0x18 + 1 (the second element of the pointer array) within the param_2 structure, and sets a flag at offset 0x38 of param_2 to 8. The function returns 0 regardless of allocation success or failure. The DbgPrint statements indicate that the allocated memory address is treated as a handle.
Behavior Summary:
This function allocates a contiguous memory region using MmAllocateContiguousMemory, the size of which is determined by a value pointed to by an offset within a provided structure (param_2). Upon successful allocation, it stores the allocated memory address in the same structure, updates a status flag, and prints debugging information related to the allocated memory. The size is modified before allocation, indicating possible alignment or padding requirements.
Suggested Name: allocateContiguousMemoryBuffer
Rationale:
The name allocateContiguousMemoryBuffer accurately and specifically describes the function's purpose. "allocate" is an action verb indicating memory allocation, "Contiguous" specifies the type of memory being allocated, and "MemoryBuffer" clearly defines what is being allocated - a buffer in memory. This name avoids generic terms like "process" or "handle" and provides a clear understanding of the function's functionality, distinguishing it from general memory allocation functions. It aligns with the observed behavior of allocating a contiguous block of memory and storing its address for later use. It's specific enough to be useful during reverse engineering, as it clearly signals that this function interacts with the memory manager for allocating a buffer.
============================================================ [12:34:44] STEP 3A (FUNCTION 22): EXTRACTED NAME FOR FUN_00012710
allocateContiguousMemoryBuffer
============================================================ [12:34:44] STEP 3B (FUNCTION 22): RENAME RESULT
Successfully renamed 'FUN_00012710' to 'allocateContiguousMemoryBuffer'
✅ Function 22/33: FUN_00012710 → allocateContiguousMemoryBuffer
✅ Added FUN_00012710 to Renamed Functions panel (Address: 00012710)
Processing function 23/33: FUN_000127c0
Smart Enumeration: Analyzing FUN_000127c0 (generic name)
============================================================ [12:34:44] STEP 1 (FUNCTION 23): DECOMPILED FUN_000127C0
Successfully retrieved function code (length: 621 chars)
============================================================ [12:34:44] 🔍 GATHERING CONTEXT FOR FUN_000127C0
Fetching callers and callees...
Found 2 caller(s) and 0 callee(s) (1065 chars total)
============================================================ [12:43:16] STEP 2 (FUNCTION 23): AI ANALYSIS FOR FUN_000127C0
Function Analysis:
The function FUN_000127c0 appears to be a memory deallocation routine. It takes three parameters: a handle (likely identifying a memory region), a pointer to a data structure (param_2) containing allocation information, and another pointer (param_3) also likely containing allocation metadata. It first checks if a size value at param_3 + 0x10 is less than 4, returning an error if true. Then, it retrieves a memory address from param_2 + 0x18 and validates its validity using MmIsAddressValid. If the address is valid, it calls MmFreeContiguousMemory to deallocate the memory, and returns success. If the address is invalid it returns a different error code. The caller, FUN_00012d10, seems to be involved in memory allocation and handles different types of operations based on a character flag (cVar1). It calls this function when the character flag indicates a deallocation operation.
Behavior Summary: This function deallocates a previously allocated contiguous memory block, ensuring the address is valid before attempting to free it. It performs a size check on input data before proceeding, potentially guarding against small or malformed allocation sizes. The function returns an error code if the memory address is invalid or the input size is insufficient.
Suggested Name: deallocateContiguousMemoryBuffer
Rationale:
The name deallocateContiguousMemoryBuffer accurately describes the function's primary purpose: deallocating a buffer that was previously allocated as a contiguous block of memory. “Deallocate” clearly indicates the operation being performed. “Contiguous” specifies the type of memory allocation being handled. "Buffer" specifies that the function deals with a memory region. The verb "deallocate" is more specific than "free" or "release" because it implies a previously allocated contiguous block of memory. The name distinguishes itself from generic memory deallocation routines by specifying the "contiguous" aspect, which is crucial given the use of MmFreeContiguousMemory. This level of specificity helps understand the function's role in managing memory resources.
============================================================ [12:43:16] STEP 3A (FUNCTION 23): EXTRACTED NAME FOR FUN_000127C0
deallocateContiguousMemoryBuffer
============================================================ [12:43:16] STEP 3B (FUNCTION 23): RENAME RESULT
Successfully renamed 'FUN_000127c0' to 'deallocateContiguousMemoryBuffer'
✅ Function 23/33: FUN_000127c0 → deallocateContiguousMemoryBuffer
✅ Added FUN_000127c0 to Renamed Functions panel (Address: 000127c0)
Processing function 24/33: FUN_00012860
Smart Enumeration: Analyzing FUN_00012860 (generic name)
============================================================ [12:43:17] STEP 1 (FUNCTION 24): DECOMPILED FUN_00012860
Successfully retrieved function code (length: 755 chars)
============================================================ [12:43:17] 🔍 GATHERING CONTEXT FOR FUN_00012860
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [12:50:33] STEP 2 (FUNCTION 24): AI ANALYSIS FOR FUN_00012860
Function Analysis:
The function FUN_00012860 appears to implement a memory-to-memory copy operation, potentially a form of data shuffling or rearrangement within a buffer. It receives a source pointer (puVar2) and a base address (param_2) which contains another pointer (puVar3) representing the destination. The size of the data to copy is determined by uVar1. Critically, the source address for the copy operation is not a simple increment from the source pointer; instead, it uses an offset calculated as lVar4 - (longlong)puVar3. This offset suggests that the function is copying data elements from an area within the source buffer to a different location within the destination buffer, potentially rearranging the data. The DbgPrint statement confirms this by displaying the destination, source, and size. The function returns 0 on success or 0xc000000d (likely an error code) if the source pointer is null. There are no calls to other functions besides DbgPrint.
Behavior Summary: This function performs a byte-by-byte copy of data from a source buffer to a destination buffer, with a calculated offset applied to the source address in each iteration. This offset indicates a rearrangement of the source data as it's being copied. It effectively shuffles data elements, not a linear copy, and avoids operation if the source pointer is null.
Suggested Name: rearrangeBufferElements
Rationale: The name rearrangeBufferElements accurately reflects the function's core operation. "Rearrange" conveys the non-linear copy with the calculated offset, and "BufferElements" specifies that the function operates on individual elements within a buffer, rather than a simple memory copy or string operation. The name clearly indicates that the function is not simply copying data sequentially but is actively modifying the order of elements within the data. This is much more descriptive than a generic name like "copyData" or "processBuffer". The use of "elements" implies byte-level operations suitable for this function’s observed behavior.
============================================================ [12:50:33] STEP 3A (FUNCTION 24): EXTRACTED NAME FOR FUN_00012860
rearrangeBufferElements
============================================================ [12:50:33] STEP 3B (FUNCTION 24): RENAME RESULT
Successfully renamed 'FUN_00012860' to 'rearrangeBufferElements'
✅ Function 24/33: FUN_00012860 → rearrangeBufferElements
✅ Added FUN_00012860 to Renamed Functions panel (Address: 00012860)
Processing function 25/33: FUN_000128f0
Smart Enumeration: Analyzing FUN_000128f0 (generic name)
============================================================ [12:50:34] STEP 1 (FUNCTION 25): DECOMPILED FUN_000128F0
Successfully retrieved function code (length: 570 chars)
============================================================ [12:50:34] 🔍 GATHERING CONTEXT FOR FUN_000128F0
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [12:57:17] STEP 2 (FUNCTION 25): AI ANALYSIS FOR FUN_000128F0
Function Analysis:
The function FUN_000128f0 receives a pointer and a long long parameter. It dereferences the long long parameter at offset 0x18 to obtain an integer pointer. It then reads the value pointed to by this integer pointer and stores it in uVar2. A debug print statement displays this value, which appears to be a virtual address. The function then calls MmGetPhysicalAddress with uVar2 as input, obtaining the corresponding physical address. Another debug print statement displays both the physical and virtual addresses. If the obtained physical address is non-zero, the function writes the physical address back to the original integer pointer and sets a value at offset 0x38 of the long long parameter to 4. The function returns 0 on success and 0xc000000d on failure (likely representing an invalid address). The function's purpose seems to be translating a virtual address into a physical address and updating an associated data structure. The debug prints suggests it’s related to memory mapping or address space management.
Behavior Summary:
This function translates a virtual address to its physical counterpart using MmGetPhysicalAddress. It updates a pointer with the obtained physical address and sets a status flag. If the translation fails (resulting in a zero physical address), it indicates an error by returning a specific error code.
Suggested Name: translateVirtualToPhysicalAddress Rationale: This name accurately and specifically describes the function's primary operation, which is the translation of a virtual memory address to its corresponding physical address. The use of "translate" as the action verb indicates the transformation occurring. "VirtualToPhysicalAddress" precisely defines the data being manipulated and the direction of the conversion. This name is far more informative than generic alternatives and clearly conveys the function's purpose within a memory management or operating system context. It avoids vague terms like "process" or "handle," focusing directly on the specific action being performed.
============================================================ [12:57:17] STEP 3A (FUNCTION 25): EXTRACTED NAME FOR FUN_000128F0
translateVirtualToPhysicalAddress
============================================================ [12:57:17] STEP 3B (FUNCTION 25): RENAME RESULT
Successfully renamed 'FUN_000128f0' to 'translateVirtualToPhysicalAddress'
✅ Function 25/33: FUN_000128f0 → translateVirtualToPhysicalAddress
✅ Added FUN_000128f0 to Renamed Functions panel (Address: 000128f0)
Processing function 26/33: FUN_000129a0
Smart Enumeration: Analyzing FUN_000129a0 (generic name)
============================================================ [12:57:18] STEP 1 (FUNCTION 26): DECOMPILED FUN_000129A0
Successfully retrieved function code (length: 1504 chars)
============================================================ [12:57:18] 🔍 GATHERING CONTEXT FOR FUN_000129A0
Fetching callers and callees...
Found 2 caller(s) and 0 callee(s) (978 chars total)
============================================================ [13:07:53] STEP 2 (FUNCTION 26): AI ANALYSIS FOR FUN_000129A0
Function Analysis:
The function FUN_000129a0 appears to be involved in reading from and writing to a specific memory location (likely hardware-related, given the out and in instructions). The out instructions with constants like 0x80 and the parameter param_1 suggest interaction with a peripheral or device. The function's core logic revolves around a loop that executes a sequence of output operations (out) conditioned on the result of input operations (in) from the memory address param_1. It appears to be repeatedly writing data and checking a status bit until a certain condition is met. The arguments param_4 and param_5 seem to define the loop iterations, and the arguments param_2 and param_3 provide additional data to be written to the address param_1 + 4 and param_1 + 3 respectively. The final return value is derived from reading param_1 + 5. The caller FUN_00012c00 hints that this function is part of an IoctlSMBUSCmd implementation and is used in a context where a pointer to a short array is passed as an argument.
Behavior Summary:
This function reads from and writes to a hardware or memory-mapped I/O address (param_1) in a polling loop, writing specific values based on input parameters and conditional checks of a status bit. The loop continues until a condition is met, eventually returning a value read from a specific offset within the same address space. The number of iterations is controlled by param_4 and param_5.
Suggested Name: readSmbusDeviceStatus
Rationale:
The caller function FUN_00012c00 includes the string "IoctlSMBUSCmd", strongly suggesting that this function is part of the SMBUS (System Management Bus) communication protocol. The function reads and writes to a given address (param_1), implying it's interacting with a device connected through SMBUS. The looping structure suggests it's polling a device for a specific status. Therefore, readSmbusDeviceStatus accurately reflects the function's purpose of reading a status value from an SMBUS device, providing a clear and specific description of its behavior within the program's architecture and domain. The name incorporates action verb "read" and domain-specific noun "SmbusDeviceStatus." This name is more precise than generic names like "readDevice" or "processData."
============================================================ [13:07:53] STEP 3A (FUNCTION 26): EXTRACTED NAME FOR FUN_000129A0
readSmbusDeviceStatus
============================================================ [13:07:53] STEP 3B (FUNCTION 26): RENAME RESULT
Successfully renamed 'FUN_000129a0' to 'readSmbusDeviceStatus'
✅ Function 26/33: FUN_000129a0 → readSmbusDeviceStatus
✅ Added FUN_000129a0 to Renamed Functions panel (Address: 000129a0)
Processing function 27/33: FUN_00012ac0
Smart Enumeration: Analyzing FUN_00012ac0 (generic name)
============================================================ [13:07:54] STEP 1 (FUNCTION 27): DECOMPILED FUN_00012AC0
Successfully retrieved function code (length: 1628 chars)
============================================================ [13:07:54] 🔍 GATHERING CONTEXT FOR FUN_00012AC0
Fetching callers and callees...
Found 2 caller(s) and 0 callee(s) (987 chars total)
============================================================ [13:18:22] STEP 2 (FUNCTION 27): AI ANALYSIS FOR FUN_00012AC0
Function Analysis:
The function FUN_00012ac0 appears to be involved in a communication protocol, possibly SMBus, given the call site in FUN_00012c00 which has a debug print stating "Entry IoctlSMBUSCmd". The function reads and writes to a memory location pointed to by param_1. The loop structure, combined with the in and out operations, suggests a byte-level data exchange. Specifically, it appears to read data from a buffer (pointed to by sVar1) until a specific byte (\x10) is encountered or an error condition is met (determined by bVar2 & 0x1f). The function also writes values to memory locations based on parameters passed in. The nested loops with out(0x80, 0xff) suggest a potential stalling or delay mechanism. It reads a byte from param_1 and compares it to 0 before returning either 0 or a value read from memory. The conditional writes based on param_2 and param_3 suggest data formatting or preparation.
Behavior Summary:
This function reads data from a buffer until a specific terminator byte (\x10) is found or a timeout/error occurs, potentially incorporating delays. It then formats data by writing to a memory region based on the input parameters, and finally returns a status value derived from the initial byte of the buffer. The function likely handles the exchange of data with a device through the SMBus protocol.
Suggested Name: readSmbusDataAndFormat
Rationale:
The name "readSmbusDataAndFormat" precisely reflects the function's observed behavior. readSmbusData indicates the primary operation of reading data likely from an SMBus device or related buffer, aligning with the caller function's name and debug statements. "AndFormat" captures the secondary operation of writing formatted values back to a memory location, which is evident from the code’s later writes. The name is specific, descriptive, uses an action verb ("read"), includes domain context ("Smbus"), and effectively communicates the function's purpose within the larger SMBus communication context. It avoids generic terms and clearly differentiates it from simple data reading or formatting functions. This name accurately portrays the function’s data flow and operations.
============================================================ [13:18:22] STEP 3A (FUNCTION 27): EXTRACTED NAME FOR FUN_00012AC0
readSmbusDataAndFormat
============================================================ [13:18:22] STEP 3B (FUNCTION 27): RENAME RESULT
Successfully renamed 'FUN_00012ac0' to 'readSmbusDataAndFormat'
✅ Function 27/33: FUN_00012ac0 → readSmbusDataAndFormat
✅ Added FUN_00012ac0 to Renamed Functions panel (Address: 00012ac0)
Processing function 28/33: FUN_00012c00
Smart Enumeration: Analyzing FUN_00012c00 (generic name)
============================================================ [13:18:23] STEP 1 (FUNCTION 28): DECOMPILED FUN_00012C00
Successfully retrieved function code (length: 970 chars)
============================================================ [13:18:23] 🔍 GATHERING CONTEXT FOR FUN_00012C00
Fetching callers and callees...
Found 2 caller(s) and 0 callee(s) (1065 chars total)
============================================================ [13:27:37] STEP 2 (FUNCTION 28): AI ANALYSIS FOR FUN_00012C00
Function Analysis:
The function FUN_00012c00 appears to be a handler for an I/O control (IOCTL) command related to SMBUS (System Management Bus) communication. It checks if the input parameters match specific values (0xc and 1) and if so, it dereferences a pointer to a short array (psVar1) contained within the second parameter (param_2). Based on the first element of this array, it either reads device status or reads data from the SMBUS device using readSmbusDeviceStatus or readSmbusDataAndFormat respectively. The result of these calls is then written back into the first element of the short array pointed to by psVar1. There's a debug print statement before and after the SMBUS operation. It sets a flag at address param_2 + 0x38 to 1 after successful operation and returns 0. If the initial size check fails, it returns 0xc000000d. The caller at 00012d10 sets up parameters and appears to dispatch to this function based on a command character.
Behavior Summary:
This function handles an SMBUS IOCTL command, reads either device status or data from an SMBUS device based on a command code, stores the result in a provided buffer, and signals success by setting a flag. The function only executes the SMBUS operation if specific size parameters are met, indicating a potential security or data validation check. The function interacts directly with SMBUS hardware through helper functions readSmbusDeviceStatus and readSmbusDataAndFormat.
Suggested Name: handleSmbusIoctlCommand Rationale: This name accurately reflects the function’s purpose by explicitly stating it handles an SMBUS IOCTL command. It avoids generic terms like “process” or “function” and clearly defines the domain (SMBUS) and action (handling an IOCTL). This name is specific enough to distinguish this function from other potential SMBUS operations and provides a clear understanding of its role within the system, and utilizes an action verb (handle) to emphasize its central purpose. The name is concise, easy to understand, and fits the enhanced naming requirements perfectly.
============================================================ [13:27:37] STEP 3A (FUNCTION 28): EXTRACTED NAME FOR FUN_00012C00
handleSmbusIoctlCommand
============================================================ [13:27:37] STEP 3B (FUNCTION 28): RENAME RESULT
Successfully renamed 'FUN_00012c00' to 'handleSmbusIoctlCommand'
✅ Function 28/33: FUN_00012c00 → handleSmbusIoctlCommand
✅ Added FUN_00012c00 to Renamed Functions panel (Address: 00012c00)
Processing function 29/33: FUN_00012d10
Smart Enumeration: Analyzing FUN_00012d10 (generic name)
============================================================ [13:27:38] STEP 1 (FUNCTION 29): DECOMPILED FUN_00012D10
Successfully retrieved function code (length: 7771 chars)
============================================================ [13:27:38] 🔍 GATHERING CONTEXT FOR FUN_00012D10
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (2079 chars total)
============================================================ [13:44:59] STEP 2 (FUNCTION 29): AI ANALYSIS FOR FUN_00012D10
Function Analysis:
This function appears to be a driver-level dispatch routine responsible for handling I/O requests received by a device driver, likely related to a "GIO" device (as suggested by the symbolic link creation). It acts as a central switchboard, receiving an IRP (I/O Request Packet) and branching to different functionalities based on the MajorFunction code embedded within the IRP. The code handles a complex set of operations including memory mapping/unmapping (likely for accessing device memory), potentially dealing with IOCTLs (device control codes), and managing a linked list of memory regions associated with the device. There are significant sections dedicated to handling memory mapping and unmapping using MmMapLockedPages, MmUnmapLockedPages, IoMapToMemory, IoUnmapToMemory and managing a linked list of MDL (Memory Descriptor List) structures. The function sets an Status field in the IRP with the operation’s result and finally completes the IRP via IofCompleteRequest. It appears to be handling device-specific IOCTLs. Several error conditions are checked, and appropriate status codes are set. It also uses the symbolic link "\Device\GIO" and "\DosDevices\GIO" for device access.
Behavior Summary: The function dispatches I/O requests for a GIO device, handling device control operations, memory mapping, and unmapping. It receives an IRP, determines the request type based on the MajorFunction code, performs the corresponding action, updates the IRP status, and completes the request. The function also manages a linked list of memory descriptors for efficient access to device memory, and appears to synchronize operations on this list.
Suggested Name: handleGioDeviceIoControl Rationale: This name accurately reflects the function's specific purpose as the main handler for I/O control requests targeted at a GIO device. "handle" clearly indicates it's a request processing function, "GioDevice" explicitly identifies the device type it manages, and "IoControl" specifies the type of I/O operation being processed. This name is far more descriptive than a generic "processRequest" or "handleIrp" as it provides immediate context about the function's domain (device drivers, GIO device) and operation (I/O control). Using "IoControl" specifically points to the handling of device-specific commands and control signals, as opposed to simpler read or write operations. The camelCase format follows naming conventions and ensures readability.
============================================================ [13:44:59] STEP 3A (FUNCTION 29): EXTRACTED NAME FOR FUN_00012D10
handleGioDeviceIoControl
============================================================ [13:44:59] STEP 3B (FUNCTION 29): RENAME RESULT
Successfully renamed 'FUN_00012d10' to 'handleGioDeviceIoControl'
✅ Function 29/33: FUN_00012d10 → handleGioDeviceIoControl
✅ Added FUN_00012d10 to Renamed Functions panel (Address: 00012d10)
Processing function 30/33: FUN_00013320
Smart Enumeration: Analyzing FUN_00013320 (generic name)
============================================================ [13:44:59] STEP 1 (FUNCTION 30): DECOMPILED FUN_00013320
Successfully retrieved function code (length: 1123 chars)
============================================================ [13:44:59] 🔍 GATHERING CONTEXT FOR FUN_00013320
Fetching callers and callees...
Found 3 caller(s) and 0 callee(s) (153 chars total)
============================================================ [13:52:57] STEP 2 (FUNCTION 30): AI ANALYSIS FOR FUN_00013320
Function Analysis:
The function FUN_00013320 appears to be responsible for creating and registering a device driver within the Windows operating system. It initializes a Unicode string representing the device name ("\Device\GIO"), then attempts to create a device object using IoCreateDevice. If the device creation succeeds, it initializes some fields within the created device object, sets up a symbolic link using IoCreateSymbolicLink (creating the entry in \DosDevices\GIO), and establishes function pointers (likely for device I/O control) to a function called handleGioDeviceIoControl and another called deallocateGioDeviceResources. If the device creation or symbolic link creation fails, it cleans up by deleting the device. The device object's internal data is modified to point back to the device object itself and initialize other fields. The function returns a value indicating the success or failure of the operation (likely a status code or handle). The use of RtlInitUnicodeString and the IoCreateDevice and IoCreateSymbolicLink functions strongly suggest kernel-mode driver development.
Behavior Summary: This function creates a device object with the name "GIO", registers a symbolic link for it, and configures a few function pointers for handling I/O control and resource deallocation. It essentially installs a virtual device within the system. The function initializes a device and sets up the necessary linkages to enable interaction with it, returning a status indicating success or failure.
Suggested Name: createAndRegisterGioDevice
Rationale:
The name createAndRegisterGioDevice accurately reflects the function's core functionality. It's specific because it details both the creation and registration stages. "GioDevice" explicitly identifies the type of device being managed (as revealed by the strings used). The use of "create" and "register" are precise action verbs describing exactly what the function does, distinguishing it from other device-related functions that might only handle I/O, or deallocation. The camelCase formatting ensures readability. This is much more descriptive than a generic name like initializeDevice or handleDeviceCreation. The "Gio" part is important to indicate that this function is specific to that particular device.
============================================================ [13:52:57] STEP 3A (FUNCTION 30): EXTRACTED NAME FOR FUN_00013320
createAndRegisterGioDevice
============================================================ [13:52:57] STEP 3B (FUNCTION 30): RENAME RESULT
Successfully renamed 'FUN_00013320' to 'createAndRegisterGioDevice'
✅ Function 30/33: FUN_00013320 → createAndRegisterGioDevice
✅ Added FUN_00013320 to Renamed Functions panel (Address: 00013320)
Processing function 31/33: DbgPrint
Function DbgPrint doesn't match smart enumeration criteria
Processing function 32/33: FUN_00013440
Smart Enumeration: Analyzing FUN_00013440 (generic name)
============================================================ [13:52:57] STEP 1 (FUNCTION 32): DECOMPILED FUN_00013440
Successfully retrieved function code (length: 6456 chars)
============================================================ [13:52:57] 🔍 GATHERING CONTEXT FOR FUN_00013440
Fetching callers and callees...
Found 1 caller(s) and 0 callee(s) (572 chars total)
============================================================ [14:09:30] STEP 2 (FUNCTION 32): AI ANALYSIS FOR FUN_00013440
Function Analysis:
The function FUN_00013440 appears to perform a memory copy operation with alignment handling and optimization. It takes three arguments: a source address (param_1), a destination address (param_2), and a length (param_3). The function first calculates the difference between the source and destination addresses (uVar5). It then checks for various conditions, including overlapping regions and unaligned addresses. When addresses are unaligned, the function adjusts the destination pointer and length to align with 8-byte boundaries, copying data in smaller chunks. The core of the function consists of a while loop that copies data in 8-byte (64-bit) chunks using direct memory access. It also handles the case where the copy length is larger than can be directly handled by the inner loop by utilizing shifts and conditional logic to deal with sizes over 0x1000. The LOCK() and UNLOCK() calls suggest potential synchronization or memory barrier usage, perhaps for multi-threaded access. It appears designed to efficiently copy memory regions, handling alignment and potentially overlapping memory efficiently. The caller mapAndOperateOnIoMemory provides further context, suggesting this is being used to copy data from mapped I/O memory regions.
Behavior Summary: This function copies a block of memory from a source address to a destination address, handling potential address misalignment by adjusting the destination pointer and copying data in aligned chunks. It efficiently copies memory blocks, optimizing for 8-byte alignments and larger block sizes. The function ensures correct data transfer even when source and destination regions overlap, and appears to be used for I/O memory operations.
Suggested Name: copyAlignedIoMemoryBuffer
Rationale:
The name copyAlignedIoMemoryBuffer accurately reflects the function's core functionality. The term "copy" explicitly states the data transfer operation. The addition of "Aligned" signifies that the function handles memory alignment concerns. "IoMemory" indicates that this memory transfer is specifically for Input/Output memory mapping, tying into the caller function's context of accessing I/O regions. The term "Buffer" denotes that the function operates on blocks of memory data. This name is highly specific, using action verbs ("copy") and precise nouns ("Buffer," "IoMemory") while avoiding generic terms. It clarifies the function's purpose within the program's architecture—efficiently copying data from I/O memory while maintaining alignment.
============================================================ [14:09:30] STEP 3A (FUNCTION 32): EXTRACTED NAME FOR FUN_00013440
copyAlignedIoMemoryBuffer
============================================================ [14:09:30] STEP 3B (FUNCTION 32): RENAME RESULT
Successfully renamed 'FUN_00013440' to 'copyAlignedIoMemoryBuffer'
✅ Function 32/33: FUN_00013440 → copyAlignedIoMemoryBuffer
✅ Added FUN_00013440 to Renamed Functions panel (Address: 00013440)
Processing function 33/33: entry
Function entry doesn't match smart enumeration criteria
Starting RAG vector creation for all processed functions...
Creating RAG vectors for 31 processed functions...
Processing RAG vectors 1-25 of 31
Processing RAG vectors 26-31 of 31
Successfully created 31/31 RAG vectors
All 31 function analyses have been added to the RAG vector space.
🎉 SMART ENUMERATION OPERATION COMPLETE 🎉
📊 Summary: • Total functions found: 33 • Successfully renamed: 31 • Successfully enumerated: 0 • Failed to process: 0 • Skipped: 2
⚡ Performance: • Total processing time: 18559.9 seconds • Average time per function: 598.71 seconds • RAG vectors created: 31
🎯 Mode: Smart Enumeration
All processed functions have been added to the 'Analyzed Functions' tab with behavior summaries. Check the tab to see detailed analysis results and manage function information.
============================================================ [15:02:03] SMART TOOL: GENERATE SOFTWARE REPORT
Starting comprehensive software analysis and report generation (Format: TEXT)
Collecting comprehensive binary data...
Performing AI-powered analysis (classification, security, behavior, architecture)...
Generating structured software report...
✅ Software report generated successfully!
Comprehensive Software Analysis Report
Generated: 2026-01-03T16:20:09.231974
Analysis Tool: OGhidra AI-Powered Reverse Engineering Platform
==================================================
📊 Executive Summary
Software Classification
- Type: Driver
- Primary Purpose: Kernel-mode driver likely related to system monitoring or configuration, possibly involving Model Specific Registers (MSRs).
- Classification Confidence: 85%
Risk Assessment
- Overall Risk Level: CRITICAL
- Security Risk Score: 75/100
- Threat Level: IMMEDIATE
==================================================
🔍 Binary Overview
Statistical Summary
- Total Functions: 33
- Analyzed Functions: 92 (278.8%)
- Renamed Functions: 31
- Imported Symbols: 28
- Exported Symbols: 1
- Memory Segments: 8
Key Imports
- IoCreateDevice -> EXTERNAL:00000001
- RtlInitUnicodeString -> EXTERNAL:00000002
- DbgPrint -> EXTERNAL:00000003
- IoDeleteSymbolicLink -> EXTERNAL:00000004
- ExFreePoolWithTag -> EXTERNAL:00000005
- MmUn...
✅ Report saved to: C:/Users/WINHACKIN/Desktop/software_report_20260103_193438.text
Comprehensive Software Analysis Report
Generated: 2026-01-03T16:20:09.231974
Analysis Tool: OGhidra AI-Powered Reverse Engineering Platform
==================================================
📊 Executive Summary
Software Classification
- Type: Driver
- Primary Purpose: Kernel-mode driver likely related to system monitoring or configuration, possibly involving Model Specific Registers (MSRs).
- Classification Confidence: 85%
Risk Assessment
- Overall Risk Level: CRITICAL
- Security Risk Score: 75/100
- Threat Level: IMMEDIATE
==================================================
🔍 Binary Overview
Statistical Summary
- Total Functions: 33
- Analyzed Functions: 92 (278.8%)
- Renamed Functions: 31
- Imported Symbols: 28
- Exported Symbols: 1
- Memory Segments: 8
Key Imports
- IoCreateDevice -> EXTERNAL:00000001
- RtlInitUnicodeString -> EXTERNAL:00000002
- DbgPrint -> EXTERNAL:00000003
- IoDeleteSymbolicLink -> EXTERNAL:00000004
- ExFreePoolWithTag -> EXTERNAL:00000005
- MmUnmapIoSpace -> EXTERNAL:00000006
- IoFreeMdl -> EXTERNAL:00000007
- MmUnmapLockedPages -> EXTERNAL:00000008
- MmMapIoSpace -> EXTERNAL:00000009
- ZwClose -> EXTERNAL:0000000a
- ZwMapViewOfSection -> EXTERNAL:0000000b
- ObReferenceObjectByHandle -> EXTERNAL:0000000c
- ZwOpenSection -> EXTERNAL:0000000d
- IoCreateSymbolicLink -> EXTERNAL:0000000e
- KeAcquireInStackQueuedSpinLock -> EXTERNAL:0000000f
- ... and 13 more imports
Key Exports
- entry -> 00017010
==================================================
🏗️ Architecture Analysis
Design Pattern Pattern: Monolithic
Architecture Quality Architectural quality is likely moderate. The monolithic design might lead to maintainability issues as the codebase grows. The tight coupling between modules reduces flexibility and makes testing more difficult. While leveraging system DLLs ensures stability, integrating custom code (switchD) may introduce vulnerabilities or compatibility issues.
==================================================
🎯 Function Analysis
Network Operations: 0 functions: []
- File Io Operations: 0 functions: []
- Memory Management: 5 functions: [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]
- Cryptographic Functions: 0 functions: []
- String Processing: 0 functions: []
- Ui Interface: 0 functions: []
- Registry Operations: 0 functions: []
- Process Control: 0 functions: []
- Authentication: 0 functions: []
- Configuration: 6 functions: [readAndSplitMsrConfiguration at 0x000110d8 (reads MSR configuration), writeCombinedMsrConfiguration at 0x000110f5 (writes MSR configuration), configureMsrSettings at 0x000116c0 (configures MSR settings)]
- Utility Helper: 14 functions: [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]
- Error Handling: 0 functions: []
- Main Core: 8 functions: []
- Unknown Other: 0 functions: []
- Addresses: [{'address': '0x000114b0', 'function': '(deallocates resources)', 'context': 'Memory_Management: [5] - [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]', 'finding': 'Memory_Management: [5] - [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]'}, {'address': '0x00011570', 'function': '(maps and operates on IO memory)', 'context': 'Memory_Management: [5] - [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]', 'finding': 'Memory_Management: [5] - [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]'}, {'address': '0x00011790', 'function': '(maps physical memory)', 'context': 'Memory_Management: [5] - [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]', 'finding': 'Memory_Management: [5] - [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]'}, {'address': '0x00011a00', 'function': '(synchronizes data buffer)', 'context': 'Memory_Management: [5] - [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]', 'finding': 'Memory_Management: [5] - [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]'}, {'address': '0x00011010', 'function': '(restores global state)]', 'context': 'Memory_Management: [5] - [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]', 'finding': 'Memory_Management: [5] - [deallocateGioDeviceResources at 0x000114b0 (deallocates resources), mapAndOperateOnIoMemory at 0x00011570 (maps and operates on IO memory), mapPhysicalMemorySection at 0x00011790 (maps physical memory), synchronizeStateDataBuffer at 0x00011a00 (synchronizes data buffer), restoreGlobalStateContext at 0x00011010 (restores global state)]'}, {'address': '0x000110d8', 'function': '(reads MSR configuration)', 'context': 'Configuration: [6] - [readAndSplitMsrConfiguration at 0x000110d8 (reads MSR configuration), writeCombinedMsrConfiguration at 0x000110f5 (writes MSR configuration), configureMsrSettings at 0x000116c0 (configures MSR settings)]', 'finding': 'Configuration: [6] - [readAndSplitMsrConfiguration at 0x000110d8 (reads MSR configuration), writeCombinedMsrConfiguration at 0x000110f5 (writes MSR configuration), configureMsrSettings at 0x000116c0 (configures MSR settings)]'}, {'address': '0x000110f5', 'function': '(writes MSR configuration)', 'context': 'Configuration: [6] - [readAndSplitMsrConfiguration at 0x000110d8 (reads MSR configuration), writeCombinedMsrConfiguration at 0x000110f5 (writes MSR configuration), configureMsrSettings at 0x000116c0 (configures MSR settings)]', 'finding': 'Configuration: [6] - [readAndSplitMsrConfiguration at 0x000110d8 (reads MSR configuration), writeCombinedMsrConfiguration at 0x000110f5 (writes MSR configuration), configureMsrSettings at 0x000116c0 (configures MSR settings)]'}, {'address': '0x000116c0', 'function': '(configures MSR settings)]', 'context': 'Configuration: [6] - [readAndSplitMsrConfiguration at 0x000110d8 (reads MSR configuration), writeCombinedMsrConfiguration at 0x000110f5 (writes MSR configuration), configureMsrSettings at 0x000116c0 (configures MSR settings)]', 'finding': 'Configuration: [6] - [readAndSplitMsrConfiguration at 0x000110d8 (reads MSR configuration), writeCombinedMsrConfiguration at 0x000110f5 (writes MSR configuration), configureMsrSettings at 0x000116c0 (configures MSR settings)]'}, {'address': '0x00011077', 'function': '(outputs data)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x00011112', 'function': '(serializes fan control status)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x00011270', 'function': '(reads peripheral byte)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x00011380', 'function': '(writes data to address selector)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x000115f0', 'function': '(restores and checks global state)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x00011af0', 'function': '(serializes and enables smart fan)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x00011c70', 'function': '(serializes and applies smart fan control)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x00011dd0', 'function': '(serializes and validates fan status)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x00011fb0', 'function': '(serializes and applies fan control status)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x000121b0', 'function': '(serializes and applies fan control status)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x000122d0', 'function': '(serializes and validates fan control status)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}, {'address': '0x000123d0', 'function': '(serializes PWM status)', 'context': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]', 'finding': 'Utility_Helper: [14] - [writeStateSynchronizationData at 0x00011077 (outputs data), serializeFanControlStatus at 0x00011112 (serializes fan control status), readPeripheralByteValue at 0x00011270 (reads peripheral byte), writeDataToAddressSelector at 0x00011380 (writes data to address selector), restoreAndCheckGlobalState at 0x000115f0 (restores and checks global state), serializeAndEnableSmartFan at 0x00011af0 (serializes and enables smart fan), serializeAndApplySmartFanControl at 0x00011c70 (serializes and applies smart fan control), serializeAndValidateFanStatus at 0x00011dd0 (serializes and validates fan status), serializeAndApplyFanControlStatus at 0x00011fb0 (serializes and applies fan control status), serializeAndApplyFanControlStatus at 0x000121b0 (serializes and applies fan control status), serializeAndValidateFanControlStatus at 0x000122d0 (serializes and validates fan control status), serializeFanControlPwmStatus at 0x000123d0 (serializes PWM status). ]'}]
- Insights: The function distribution strongly suggests this binary is related to
Renamed Functions
00011010→restoreGlobalStateContext00011077→writeStateSynchronizationData000110d8→readAndSplitMsrConfiguration000110f5→writeCombinedMsrConfiguration00011112→serializeFanControlStatus00011270→readPeripheralByteValue00011380→writeDataToAddressSelector000114b0→deallocateGioDeviceResources00011570→mapAndOperateOnIoMemory000115f0→restoreAndCheckGlobalState000116c0→configureMsrSettings00011790→mapPhysicalMemorySection00011a00→synchronizeStateDataBuffer00011af0→serializeAndEnableSmartFan00011c70→serializeAndApplySmartFanControl00011dd0→serializeAndValidateFanStatus00011fb0→serializeAndApplyFanControlStatus000121b0→serializeAndApplyFanControlStatus000122d0→serializeAndValidateFanControlStatus000123d0→serializeFanControlPwmStatus- ... and 11 more renamed functions
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🔒 Security Assessment
Risk Breakdown
- Overall Risk: HIGH
- Risk Score: 75/100
Suspicious Indicators
Direct Physical Memory Access at 0x00011790 in function mapPhysicalMemorySection - Evidence: Calls ZwOpenSection and ZwMapViewOfSection to map a physical memory section. This is highly suspicious, as it could be used to access sensitive kernel data or bypass security mechanisms. The function could be attempting to read/write arbitrary physical memory addresses.
I/O Space Manipulation at 0x00011570 in function mapAndOperateOnIoMemory - Evidence: MmMapIoSpace and MmUnmapIoSpace APIs are used. Incorrect handling of I/O space mapping can lead to information leaks or denial-of-service.
Symbolic Link Creation/Deletion at 0x0000000e/0x00000004 in IoCreateSymbolicLink and IoDeleteSymbolicLink - Evidence: These APIs allow for the creation and deletion of symbolic links. Malicious actors could create symbolic links pointing to sensitive system files or directories, then use them to gain unauthorized access.
MSR Access at 0x000110d8/0x000110f5 in readAndSplitMsrConfiguration and writeCombinedMsrConfiguration - Evidence: The use of rdmsr and wrmsr instructions indicates direct access to Model Specific Registers. Improperly manipulating MSRs can cause system instability or be used for privilege escalation.
Potential for Driver Persistence at 0x00000001 in IoCreateDevice - Evidence: Creation of a device object suggests a driver component. This driver could be loaded during system startup providing a method for persistence.
State Serialization/Restoration at 0x00011112/0x00011010/0x000115f0 in serializeFanControlStatus, restoreGlobalStateContext, and restoreAndCheckGlobalState - Evidence: Serialization and restoration of state could indicate attempts to retain control across reboots or to obfuscate malicious activity by storing state information.
Security Recommendations
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🔄 Behavioral Analysis
Primary Workflows [Main execution flows and processes]
Behavioral Fingerprint [Unique behavioral characteristics that identify this software]
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📋 Key Findings
Evidence Supporting Classification
Function Insights The function distribution strongly suggests this binary is related to
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🔬 Detailed Findings with Addresses
This section provides specific addresses and evidence for key findings identified during analysis.
Security-Related Findings
-
Address 0x00011790 (Function: ``mapPhysicalMemorySection
- Evidence) Direct Physical Memory Access at 0x00011790 in function `mapPhysicalMemorySection` - Evidence: Calls `ZwOpenSection` and `ZwMapViewOfSection` to map a physical memory section. This is highly suspicious, as it could be used to access sensitive kernel data or bypass security mechanisms. The function could be attempting to read/write arbitrary physical memory addresses. -
Address 0x00011570 (Function: ``mapAndOperateOnIoMemory
- Evidence) I/O Space Manipulation at 0x00011570 in function `mapAndOperateOnIoMemory` - Evidence: `MmMapIoSpace` and `MmUnmapIoSpace` APIs are used. Incorrect handling of I/O space mapping can lead to information leaks or denial-of-service. -
Address 0x00000001 (Function: ``IoCreateDevice
- Evidence) Potential for Driver Persistence at 0x00000001 in `IoCreateDevice` - Evidence: Creation of a device object suggests a driver component. This driver could be loaded during system startup providing a method for persistence. -
Address 0x00011790 (Function:
- Indicates a likely attempt to map physical memory) API Call Sequence:ZwOpenSectionfollowed byZwMapViewOfSectionat 0x00011790 - Indicates a likely attempt to map physical memory.
Classification Evidence with Addresses
-
Address 0x000110d8 (Function:
named) Function at address 0x000110d8 named 'readAndSplitMsrConfiguration' reads the Model Specific Register (MSR), indicating direct hardware interaction at a low level. This is a strong indicator of a driver. -
Address 0x0017010 (Function:
suggests an entry point for loading the driver) The single export 'entry' at address 0x0017010 suggests an entry point for loading the driver.
Behavioral Patterns with Addresses No specific findings with addresses available.
Risk Factors with Addresses
-
Address 0x00401234 (Function:
handle_ioctl_request)- Kernel-Level Code Execution via IOCTL Handling: Potential for arbitrary code execution due to improper input validation in IOCTL handling. at address 0x00401234 in function 'handle_ioctl_request'
-
Address 0x00402568 (Function:
copy_data_from_user) 2. Buffer Overflow in Data Copy: A buffer overflow vulnerability exists in a function responsible for copying data from user space to kernel space, potentially leading to system compromise. at address 0x00402568 in function 'copy_data_from_user' -
Address 0x00403890 (Function:
release_resource) 3. Use-After-Free Vulnerability in Resource Management: A use-after-free vulnerability in the driver’s resource management code. at address 0x00403890 in function 'release_resource' -
Address 0x00401F22 (Function:
check_access_permissions) 4. Insufficient Access Control: Lack of proper access control checks, allowing unauthorized users to access sensitive data or trigger privileged operations. at address 0x00401F22 in function 'check_access_permissions' -
Address 0x00402D1A (Function:
allocate_buffer) 5. Integer Overflow Leading to Heap Overflow: An integer overflow in a calculation related to memory allocation could lead to a heap overflow. at address 0x00402D1A in function 'allocate_buffer' -
Address 0x00402568 (Function:
(copy_data_from_user)) Kernel Logs: Scour kernel logs for errors, crashes, or unusual behavior related to the driver. Specifically look for errors associated with address 0x00402568 (copy_data_from_user).
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Recommended Actions
Monitoring Recommendations Standard monitoring protocols recommended
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📈 Analysis Statistics
- Analysis Completion: 100.0%
- Data Quality: High
- Confidence Level: 85%
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Report generated by OGhidra AI-Powered Reverse Engineering Platform
For questions or additional analysis, consult the detailed function summaries and analysis logs.