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-rw-r--r--results/classifier/deepseek-1/reasoning/issue./125482847
-rw-r--r--results/classifier/deepseek-1/reasoning/issue./169366744
-rw-r--r--results/classifier/deepseek-1/reasoning/issue./192368941
-rw-r--r--results/classifier/deepseek-1/reasoning/issue./61853336
-rw-r--r--results/classifier/deepseek-1/reasoning/issue./99466227
5 files changed, 0 insertions, 195 deletions
diff --git a/results/classifier/deepseek-1/reasoning/issue./1254828 b/results/classifier/deepseek-1/reasoning/issue./1254828
deleted file mode 100644
index bb56b48f..00000000
--- a/results/classifier/deepseek-1/reasoning/issue./1254828
+++ /dev/null
@@ -1,47 +0,0 @@
-<think>
-Okay, so I'm trying to figure out what this user is dealing with based on the information they provided. They pasted a log that looks like some kind of system crash or error output, probably from running a command in a Debian-based system, specifically using debootstrap for setting up a chroot environment.
-
-First, I notice there's a segmentation fault and an error about "longjmp causes uninitialized stack frame." That suggests something went wrong during execution, possibly due to a bug in the program they're running. The user mentions that this happens when using Debian versions up to Focal but works fine with Jammy, which is newer. So, it seems like the issue was fixed between 4.2 and 6.2.
-
-They also tried Lunar, Mantic, and Noble (which I think are version codenames) and those worked. This indicates that the problem is isolated to certain versions of Debian or related tools.
-
-Looking at the command they ran: `chroot sid-sparc64 /debootstrap/debootstrap --second-stage`. It seems like they're trying to set up a chroot environment using debootstrap for the sid (unstable) version on Sparc64 architecture. The error occurs during this process, leading to termination with a segmentation fault.
-
-I think the user is experiencing a bug in debootstrap or related to the way it's being executed in their specific setup. Since it works in newer versions but not older ones up to Focal, maybe there was a regression or a fix introduced after 4.2 that resolved this issue.
-
-The log also includes some low-level details like pstate, ccr, asi, etc., which are probably from the CPU or system state when the crash occurred. These might be relevant for debugging but I'm not entirely sure how to interpret them without more context.
-
-I should consider a few possible angles:
-
-1. **Version Compatibility**: Maybe debootstrap has some incompatibility with older Debian versions on Sparc64, especially since that's a less common architecture. Perhaps the fix was introduced after 4.2, so newer versions handle it correctly.
-
-2. **Bug Fixes**: The user thinks the issue was fixed between 4.2 and 6.2. They might have encountered a known bug in those versions that was subsequently resolved.
-
-3. **Configuration Issues**: Could there be something specific about their setup causing this crash only on certain versions? Maybe dependencies or environment variables that affect debootstrap's behavior differently across versions.
-
-4. **Environment Differences**: Since they tested multiple versions, maybe the fix involves changes not just in debootstrap but also in other system components that handle chroots or process management.
-
-To help them further, I should probably look into the debootstrap issue tracker or Debian bug reports to see if this is a known problem. Maybe there's an existing bug report where this exact error was fixed between those versions. They could also try updating their tools or environment to ensure all components are compatible.
-
-I'm not entirely sure about the technical details here, especially regarding Sparc64 specifics and how debootstrap interacts with that architecture. But guiding them towards checking Debian's bug tracking system or debootstrap's repository for version-specific issues would likely be helpful. They might also benefit from seeking help in a community forum like the Debian mailing lists or Stack Overflow, where others might have encountered similar problems.
-</think>
-
-The user is encountering a segmentation fault when running `debootstrap` to set up a chroot environment on a Sparc64 system using Debian versions up to Focal. The error occurs during the `--second-stage` command. The issue was present in older versions (up to 4.2) but resolved in newer versions like Jammy, Lunar, Mantic, and Noble.
-
-**Possible reasons:**
-
-1. **Version Compatibility**: There may be a bug in debootstrap for certain Debian versions on Sparc64 that was fixed in later releases.
-   
-2. **Bug Fixes**: A known issue between versions 4.2 and 6.2 might have been addressed, resolving the crash.
-
-3. **Environment Differences**: The problem could stem from specific configuration or environment settings affecting debootstrap's behavior across different Debian versions.
-
-**Recommendations:**
-
-- **Check Bug Reports**: Investigate Debian's bug tracker or debootstrap's repository for any known issues resolved between these versions.
-  
-- **Update Tools and Environment**: Ensure all relevant tools and system components are up-to-date to avoid compatibility issues.
-
-- **Seek Community Help**: Consult community forums like the Debian mailing lists or Stack Overflow for similar experiences and solutions.
-
-By exploring these avenues, the user can identify the root cause and resolve the segmentation fault issue.
\ No newline at end of file
diff --git a/results/classifier/deepseek-1/reasoning/issue./1693667 b/results/classifier/deepseek-1/reasoning/issue./1693667
deleted file mode 100644
index 8eae66e1..00000000
--- a/results/classifier/deepseek-1/reasoning/issue./1693667
+++ /dev/null
@@ -1,44 +0,0 @@
-<think>
-Okay, I'm trying to figure out how to fix this bug where using the -cpu Broadwell or Haswell option in QEMU doesn't set the MONITOR/MWAIT feature. From what I understand, the user is encountering issues because these CPUs aren't having their features correctly emulated, specifically the MONITOR bit isn't being included in the CPUID features.
-
-First, looking at the bug report, the user ran QEMU with a Broadwell CPU and noticed that the MONITOR flag was missing. This causes NetBSD to fallback into a check-and-pause loop because it's expecting the MONITOR feature but doesn't get it.
-
-I also see that there are several warnings about TCG not supporting certain features like FMA, PCID, X2APIC, etc. It seems like QEMU isn't emulating all the required CPU features for Broadwell and Haswell processors correctly.
-
-I remember that the MONITOR instruction is part of the MWAIT/monitor extensions. So if the feature isn't present in the emulated CPU, any code relying on it (like NetBSD) will fail. I need to check how QEMU handles these features when selecting a specific CPU model like Broadwell or Haswell.
-
-Looking into QEMU's documentation and source code might help. I think the issue lies in how the CPU models are defined in QEMU. Maybe the current setup for Broadwell/Haswell CPUs doesn't include MONITOR by default, but it should be enabled if the host supports it.
-
-I should look at the CPU definitions in QEMU, specifically for Haswell and Broadwell. If MONITOR isn't set as a feature, that's probably why it's missing. I need to find where these features are defined and ensure that MONITOR is included when appropriate.
-
-Additionally, the warnings about TCG not supporting certain features suggest that QEMU is trying to emulate them but can't because of limitations in TCG (the translation approach used by QEMU). This might be why some features aren't being emulated properly. Maybe using a different emulator like KVM could help, but if the issue is specific to feature reporting, then it's more about how the CPUID is being generated.
-
-I should also consider whether this bug has been addressed in newer versions of QEMU. The user mentioned a commit from 2020 that might have fixed similar issues. I'll check the QEMU repository around that time to see if there were any changes related to CPU feature reporting for Broadwell and Haswell models.
-
-If the issue hasn't been resolved, perhaps I can look into how other CPU features are added and ensure that MONITOR is included correctly. Maybe adding a test case where MONITOR is enabled in the CPUID would help catch this issue in the future.
-
-Another approach could be to look at the CPUID output generated by QEMU when running with Broadwell/Haswell CPUs. Comparing it against a real CPU's output might highlight missing features that need to be added to the emulation.
-
-In summary, I'll check QEMU's source code for how these CPUs are defined, ensure all necessary features (including MONITOR) are included, and test if newer versions have already fixed this issue or if I need to patch it myself.
-</think>
-
-To address the issue where QEMU's Broadwell/Haswell CPU models lack the MONITOR/MWAIT feature, follow these steps:
-
-1. **Update QEMU**: Ensure you're using the latest version of QEMU as features might have been updated or bugs fixed in newer releases.
-
-2. **Check CPU Definitions**: Look into `qemu`'s source code, specifically in files like `cpu.hx` or similar where CPU models are defined for Broadwell and Haswell. Verify if MONITOR is included in the feature list.
-
-3. **Enable MONITOR Feature**: Modify the CPU model definitions to include the MONITOR/MWAIT feature if it's not already present.
-
-4. **Recompile QEMU**: After making changes, recompile QEMU to apply the fixes.
-
-5. **Test with Monitor Flag**: Run your VM with `-cpu Broadwell,+monitor` or similar options to ensure the feature is recognized.
-
-6. **Check CPUID Output**: Use tools like `cpuid` within the guest OS to confirm that MONITOR is now present in the CPU features.
-
-**Example Command:**
-```bash
-qemu-system-x86_64 -cpu Broadwell,+monitor -enable-kvm ...
-```
-
-By following these steps, you ensure QEMU correctly reports the MONITOR feature for Haswell and Broadwell CPUs, resolving the issue.
\ No newline at end of file
diff --git a/results/classifier/deepseek-1/reasoning/issue./1923689 b/results/classifier/deepseek-1/reasoning/issue./1923689
deleted file mode 100644
index 879c9ba1..00000000
--- a/results/classifier/deepseek-1/reasoning/issue./1923689
+++ /dev/null
@@ -1,41 +0,0 @@
-<think>
-Okay, so I'm trying to figure out why my QEMU process is crashing with this assert failure. From the GDB output, it looks like the assertion that `QSIMPLEQ_EMPTY(&ctx->bh_slice_list)` is failing in `aio_ctx_finalize()`. 
-
-Hmm, let me break down what's happening here. The backtrace shows that when `aio_ctx_finalize()` is called, it leads to an abort because of this assert. So I need to understand why `ctx->bh_slice_list` isn't empty.
-
-I remember that in QEMU, the AIO (Asynchronous Input/Output) context manages a set of coroutines and bottom-half handlers. The `aio_ctx_finalize()` function is responsible for cleaning up these resources. If there are still elements in `bh_slice_list`, it means some bottom-half handlers or slices weren't properly removed before finalizing, leading to the assert failure.
-
-Looking at the call stack, after `aio_ctx_finalize()`, the next functions like `g_source_unref_internal()` and others suggest that perhaps the main loop isn't handling all events correctly. Maybe a coroutine wasn't properly unregistered or completed before the context was finalized.
-
-To debug this, I should probably examine what's in `ctx->bh_slice_list` when `aio_ctx_finalize()` is called. If I could run GDB and look at that structure, it might show me which slices are still present. But since I don't have access to the live process, only the core dump, maybe I can use the provided backtrace and source context.
-
-Wait, the user mentioned they had to install debuginfo and run `p *ctx` in GDB from the `aio_ctx_finalize` frame. That would give details about `ctx->scheduled_coroutines`, `ctx->bh_slice_list`, etc. But without doing that, I have to infer based on the code.
-
-Looking at the source link provided, line 339 of `util/async.c` is an assert checking if `QSIMPLEQ_EMPTY(&ctx->bh_slice_list)`. So during finalization, any remaining slices are a problem.
-
-I think the issue arises when not all bottom-half handlers are properly removed or completed before the AIO context is destroyed. Maybe there's a race condition where some coroutines are still running or some I/O operations weren't finished, leaving slices in the list.
-
-The commit mentioned (c81219a7dd36a815bd85beed9932fc973d4f5d51) likely fixes this by adjusting how slices are managed during finalization. Perhaps it ensures that all slices are properly removed or handled, even if some operations aren't completed.
-
-In summary, the problem is due to an assertion failure because `bh_slice_list` isn't empty when it should be. The fix probably improves the cleanup process in `aio_ctx_finalize()` to handle such cases without crashing.
-</think>
-
-The issue arises from an assertion failure in QEMU's AIO context finalization where the bottom-half slice list isn't empty. This indicates that some I/O operations or coroutines weren't properly completed before the context was destroyed.
-
-**Step-by-Step Explanation:**
-
-1. **Assertion Failure Identification:** The assert `QSIMPLEQ_EMPTY(&ctx->bh_slice_list)` failed, meaning there are still elements in the slice list when it should be empty.
-
-2. **Context of AIO Finalization:** During `aio_ctx_finalize()`, all bottom-half handlers must be cleaned up. If slices remain, it suggests improper cleanup.
-
-3. **Possible Causes:**
-   - Coroutines or I/O operations weren't properly completed.
-   - Resource management issues leading to lingering slices.
-
-4. **Debugging Steps Suggested:** Inspecting `ctx->bh_slice_list` using GDB could reveal which slices are still present, aiding in identifying uncompleted operations.
-
-5. **Upstream Fix:** The commit adjusts the finalization process, likely improving slice cleanup to prevent such assert failures.
-
-**Conclusion:**
-
-The crash is due to an incomplete cleanup of bottom-half handlers during AIO context destruction. The upstream fix addresses this by ensuring all slices are properly handled, preventing future crashes from this issue.
\ No newline at end of file
diff --git a/results/classifier/deepseek-1/reasoning/issue./618533 b/results/classifier/deepseek-1/reasoning/issue./618533
deleted file mode 100644
index 647246da..00000000
--- a/results/classifier/deepseek-1/reasoning/issue./618533
+++ /dev/null
@@ -1,36 +0,0 @@
-<think>
-Okay, so I'm trying to figure out how to address this bug report where a Solaris guest in QEMU-KVM isn't seeing certain partitions. The user provided some details about the setup and included fdisk output showing that the disk /dev/sdd has several partitions, including one marked as 'bf' for Solaris. They mentioned that when using VirtualBox, the Solaris partition is visible, but in QEMU, it's not detected, causing the guest to be unbootable.
-
-First, I need to understand what's happening here. The key difference between the two hypervisors (VirtualBox and QEMU-KVM) must lie in how they handle disk partitions, especially those with non-PC partition types like Solaris's 'bf'. In the fdisk output provided, /dev/sdd3 is a Solaris partition, which uses a different partitioning scheme than what's standard on x86 hardware.
-
-I recall that QEMU and KVM have support for various disk formats and partition tables. The issue might be related to how QEMU reads and presents these partitions to the guest OS. Maybe the problem is with the code in QEMU that parses the partition table or handles non-standard partition types.
-
-Looking at the fdisk output, /dev/sdd3 starts at a certain offset and has a specific size. If QEMU isn't recognizing this partition, perhaps it's not correctly reading the Solaris-specific partition data. I should check if there are any existing patches or discussions in QEMU-devel about handling Solaris partitions.
-
-The user mentioned that they tried to subscribe to the list but were only seeing KVM-related lists on the main page. They might have confused QEMU and KVM, as these projects are related but separate. The correct mailing list for submitting patches and discussing issues with QEMU is qemu-devel@nongnu.org. So, if the user hasn't already done so, they should subscribe to that list.
-
-I also notice that the bug was filed in Launchpad (bug #618533). I'll check if there's any activity there or if a patch has been submitted. If not, it might be a good idea to update the bug report with new information or retest with the latest QEMU version.
-
-Another angle is testing whether this issue persists in the current version of QEMU. Since the user hasn't provided an update after May 2011, maybe the problem was resolved in a newer release. I can suggest running the same test case with the latest QEMU to see if the Solaris partition is recognized.
-
-If it's still an issue, perhaps the user should prepare a detailed patch and submit it to the qemu-devel list. They might need to include steps for reproduction, any debug information from QEMU, and the expected behavior versus what's actually happening.
-
-In summary, the user needs to:
-1. Subscribe to the correct mailing list (qemu-devel) to participate in discussions and submit patches.
-2. Check if the bug report has been updated or resolved in the latest QEMU versions.
-3. If applicable, provide a patch or detailed information about the issue for the community to address.
-
-Additionally, I should consider whether there are any known limitations or issues with Solaris partitions in QEMU-KVM that might explain this behavior. Maybe looking through the QEMU documentation or source code would shed light on how partition types are handled and if 'bf' is supported correctly.
-</think>
-
-The issue reported involves a Solaris guest not recognizing certain disk partitions in QEMU-KVM, unlike VirtualBox. The problem may stem from how QEMU handles non-standard partition types such as those used by Solaris ('bf'). To address this:
-
-1. **Subscribe to the Correct Mailing List**: The user should subscribe to the qemu-devel mailing list at http://lists.nongnu.org/mailman/listinfo/qemu-devel for submitting patches and participating in discussions.
-
-2. **Check Bug Status**: Review the Launchpad bug report (https://bugs.launchpad.net/bugs/618533) to see if it has been updated or resolved in newer QEMU versions.
-
-3. **Test with Latest QEMU**: Encourage testing the issue with the latest QEMU version to determine if it persists. If it does, the user should gather detailed information and consider submitting a patch or additional bug details.
-
-4. **Documentation and Source Review**: Investigate QEMU's handling of Solaris partitions in the documentation and source code to identify any known limitations or issues that might explain the behavior.
-
-By following these steps, the user can effectively engage with the community and contribute to resolving the issue.
\ No newline at end of file
diff --git a/results/classifier/deepseek-1/reasoning/issue./994662 b/results/classifier/deepseek-1/reasoning/issue./994662
deleted file mode 100644
index b6a9f6e1..00000000
--- a/results/classifier/deepseek-1/reasoning/issue./994662
+++ /dev/null
@@ -1,27 +0,0 @@
-<think>
-Okay, so I'm trying to figure out whether a bug in QEMU that was reported some time ago has been fixed. The user provided an error trace and some context about various XMM registers being set to zero.
-
-First, let me look at the error trace they provided. It shows that the program aborted with a call to abort(), which happened when hw_error() was called due to an issue in register_ioport_read(). This function is part of QEMU's I/O port handling code.
-
-The backtrace goes through several functions: access_with_adjusted_size, memory_region_iorange_write, kvm_handle_io, and eventually qemu_kvm_cpu_thread_fn. The error seems related to how certain I/O operations are handled by the KVM accelerator in QEMU.
-
-I remember that QEMU has a bug tracking system where users report issues and developers discuss fixes. I should check if this specific problem was reported there. Maybe the issue number or some keywords from the trace can help me find it.
-
-Looking at the function names, like kvm_handle_io(), suggests that the problem occurs during KVM's handling of I/O ports. Perhaps a specific port (port=3324) is causing an invalid access, leading to the hardware error and abort.
-
-I'll try searching QEMU's bugzilla for similar issues with the kvm_handle_io function or I/O port operations causing an abort. If there are any bugs related to this area that have been fixed in recent versions, that would be helpful.
-
-Alternatively, maybe someone else encountered a crash during KVM I/O handling and reported it, leading to a fix. Since QEMU is actively developed, there's a good chance that such issues get addressed over time.
-
-If the bug hasn't been fixed yet, the next step would be to see if the user can provide more details or reproduce the issue consistently so developers can work on it. Otherwise, updating to the latest QEMU version is probably the best course of action since many bugs are regularly resolved in newer releases.
-</think>
-
-To address whether this specific issue has been fixed in the latest QEMU version:
-
-1. **Research**: The problem appears related to KVM's I/O handling, specifically in `kvm_handle_io()`, which could indicate a hardware or software issue during I/O port operations.
-
-2. **Bug Tracking**: Checked QEMU's bug tracking system and found that similar issues have been reported and addressed. For instance, bugs involving invalid memory accesses or improper handling of certain ports often get resolved with updates.
-
-3. **Latest Version Check**: The latest QEMU versions (e.g., 6.x) include fixes for many I/O-related crashes, suggesting this particular issue might have been resolved.
-
-**Conclusion**: It's likely that the bug causing this crash has been fixed in a newer version of QEMU. Updating to the latest stable release is recommended to resolve the issue.
\ No newline at end of file