远程 Ubuntu 25.04 主机上安装的程序包受到 USN-7594-1 公告中提及的多个漏洞的影响。

    在 Linux 内核中发现多个安全问题。攻击者可能利用这些问题入侵系统。此更新修正了以下子系统中的缺陷：

    - ARM32 架构；

    - ARM64 架构；

    - PowerPC 架构；

    - RISC-V 架构；

    - User-Mode Linux (UML)；

    - x86 架构；

    - 区块层子系统；

    - 加密 API；

    - 计算加速框架；

    - ACPI 驱动程序；

    - 串行 ATA 和并行 ATA 驱动程序；

    - 驱动程序核心；

    - ublk userspace block 驱动程序；

    - 蓝牙驱动程序；

    - 总线设备；

    - TPM 设备驱动程序；

    - 时钟框架和驱动程序；

    - CPU 频率缩放框架；

    - 缓冲区共享和同步框架；

    - DMA 引擎子系统；

    - GPU 驱动程序；

    - HID 子系统；

    - HSI 子系统；

    - I2C 子系统；

    - I3C 子系统；

    - IIO 子系统；

    - InfiniBand 驱动程序；

    - IOMMU 子系统；

    - IRQ 芯片驱动程序；

    - MCB 驱动程序；

    - 多设备驱动程序；

    - 媒体驱动程序；

    - MemoryStick 子系统；

    - 多功能设备驱动程序；

    - Microchip PCI 驱动程序；

    - Intel 管理引擎接口驱动程序

    - PCI 端点测试驱动程序；

    - MTD 块设备驱动程序；

    - 网络驱动程序；

    - 以太网绑定驱动程序；

    - Mellanox 网络驱动程序；

    - STMicroelectronics 网络驱动程序；

    - NTB 驱动程序；

    - NVME 驱动程序；

    - PCI 子系统；

    - Synopsys DesignWare PCIe PMU

    - Mellanox 平台驱动程序

    - PWM 驱动程序；

    - 远程处理器子系统；

    - S/390 驱动程序；

    - SCSI 子系统；

    - Samsung SoC 驱动程序；

    - SPI 子系统；

    - GPIB 驱动程序

    - VideoCore 服务驱动程序；

    - 热驱动程序；

    - TTY 驱动程序；

    - UFS 子系统；

    - Cadence USB3 驱动程序；

    - ChipIdea USB 驱动程序；

    - USB 设备类驱动程序；

    - DesignWare USB3 驱动程序；

    - USB Gadget 驱动程序；

    - USB 主机控制器驱动程序；

    - USB Type-C 支持驱动程序；

    - Virtio Host (VHOST) 子系统；

    - Backlight 驱动程序；

    - Framebuffer 层；

    - W1 Dallas 的 1-wire 总线驱动程序；

    - 9P 分布式文件系统；

    - 文件系统基础设施；

    - BTRFS 文件系统；

    - Ext4 文件系统；

    - F2FS 文件系统；

    - JFS 文件系统；

    - 网络文件系统库；

    - 网络文件系统 (NFS) 服务器后台程序；

    - NTFS3 文件系统；

    - Overlay 文件系统；

    - SMB 网络文件系统；

    - 以太网桥接；

    - io_uring 子系统；

    - Perf 事件；

    - 内存管理；

    - UProbes 跟踪；

    - Amateur Radio 驱动程序；

    - SCTP 协议；

    - 网络套接字；

    - RDMA verbs API；

    - BPF 子系统；

    - Kernel fork() syscall；

    - 休眠控制

    - 计划程序基础设施；

    - 跟踪基础设施；

    - 监视队列通知机制；

    - 矢量 I/O 迭代器库

    - 802.1Q VLAN 协议；

    - 9P 文件系统网络协议；

    - 异步传输模式 (ATM) 子系统；

    - Networking 核心；

    - Distributed Switch 架构；

    - Ethtool 驱动程序；

    - IPv4 联网；

    - IPv6 联网；

    - MAC80211 子系统；

    - 管理组件传输协议 (MCTP)；

    - 多路径 TCP；

    - Netfilter；

    - Open vSwitch；

    - 网络流量控制；

    - TIPC 协议；

    - TLS 协议；

    - 无线网络；

    - ALSA 框架；

    - WCD 音频编解码器

    - SoC Audio for Freescale CPU 驱动程序；

    - SoC 音频通用驱动程序

    - Intel ASoC 驱动程序；

    - QCOM ASoC 驱动程序；

    - Virtio sound 驱动程序；

    - CPU电源监控子系统；(CVE-2025-37806, CVE-2025-22084, CVE-2025-39688, CVE-2025-22030, CVE-2025-37754, CVE-2025-37783, CVE-2025-37825, CVE-2025-37752, CVE-2025-22104, CVE-2025-40014, CVE-2025-22103, CVE-2025-37874, CVE-2025-37773, CVE-2025-37741, CVE-2025-37763, CVE-2025-37859, CVE-2025-37779, CVE-2025-23155, CVE-2025-23143, CVE-2025-37788, CVE-2025-22028, CVE-2024-58096, CVE-2025-37842, CVE-2025-37854, CVE-2025-38637, CVE-2024-58097, CVE-2023-53034, CVE-2025-37797, CVE-2025-37851, CVE-2025-37941, CVE-2025-37942, CVE-2025-37748, CVE-2025-37982, CVE-2025-22058, CVE-2025-37781, CVE-2025-23130, CVE-2025-23149, CVE-2025-23146, CVE-2025-37809, CVE-2025-37801, CVE-2025-22080, CVE-2025-23160, CVE-2025-37823, CVE-2025-37827, CVE-2025-39755, CVE-2025-22124, CVE-2025-22033, CVE-2025-22075, CVE-2025-37850, CVE-2025-37757, CVE-2025-22060, CVE-2025-37979, CVE-2025-22098, CVE-2025-39989, CVE-2025-37989, CVE-2025-37790, CVE-2025-37885, CVE-2025-37875, CVE-2025-22066, CVE-2025-37975, CVE-2025-37819, CVE-2025-37755, CVE-2025-37794, CVE-2025-23148, CVE-2025-22067, CVE-2025-22061, CVE-2025-22109, CVE-2025-37884, CVE-2025-37852, CVE-2025-37866, CVE-2025-37872, CVE-2025-37751, CVE-2025-23156, CVE-2025-22065, CVE-2025-37837, CVE-2025-22069, CVE-2025-37822, CVE-2025-22128, CVE-2025-22087, CVE-2025-22023, CVE-2025-22038, CVE-2025-22096, CVE-2025-22076, CVE-2025-22045, CVE-2025-38049, CVE-2025-37870, CVE-2025-37939, CVE-2025-37865, CVE-2025-37860, CVE-2025-37771, CVE-2025-23144, CVE-2025-22081, CVE-2025-39778, CVE-2025-23153, CVE-2025-22036, CVE-2025-23154, CVE-2025-22101, CVE-2025-37808, CVE-2025-37772, CVE-2025-22070, CVE-2025-37789, CVE-2025-22025, CVE-2025-22019, CVE-2025-37868, CVE-2025-22083, CVE-2025-22095, CVE-2025-23161, CVE-2025-22027, CVE-2025-37843, CVE-2025-37985, CVE-2025-23132, CVE-2025-22073, CVE-2025-37940, CVE-2025-23140, CVE-2025-37828, CVE-2025-22063, CVE-2025-22053, CVE-2025-37787, CVE-2025-23152, CVE-2025-37840, CVE-2025-22118, CVE-2025-37981, CVE-2025-22111, CVE-2025-22091, CVE-2025-37841, CVE-2025-23142, CVE-2025-37838, CVE-2025-37775, CVE-2025-23147, CVE-2025-22022, CVE-2025-37745, CVE-2025-37785, CVE-2025-37821, CVE-2025-37988, CVE-2025-37986, CVE-2025-23138, CVE-2025-37836, CVE-2025-37792, CVE-2025-23141, CVE-2025-23159, CVE-2025-38240, CVE-2025-37764, CVE-2025-22120, CVE-2025-37881, CVE-2025-37777, CVE-2025-37987, CVE-2025-37811, CVE-2025-22032, CVE-2025-22044, CVE-2025-37943, CVE-2025-37802, CVE-2025-37829, CVE-2025-37862, CVE-2025-38575, CVE-2025-37799, CVE-2025-37882, CVE-2025-37812, CVE-2025-37765, CVE-2025-37813, CVE-2025-37980, CVE-2025-37873, CVE-2025-37766, CVE-2025-37761, CVE-2025-37892, CVE-2025-22094, CVE-2025-22035, CVE-2025-22055, CVE-2025-22100, CVE-2025-37816, CVE-2025-22062, CVE-2025-22110, CVE-2025-22088, CVE-2025-23129, CVE-2025-38479, CVE-2025-37740, CVE-2025-23136, CVE-2025-37846, CVE-2025-23163, CVE-2025-37977, CVE-2025-37879, CVE-2025-22082, CVE-2025-22046, CVE-2025-22050, CVE-2025-22126, CVE-2025-37796, CVE-2025-37815, CVE-2025-22127, CVE-2025-22105, CVE-2025-22068, CVE-2025-22119, CVE-2025-22089, CVE-2025-37858, CVE-2025-37826, CVE-2025-37945, CVE-2025-23157, CVE-2025-22054, CVE-2025-37805, CVE-2025-37856, CVE-2025-37878, CVE-2025-37768, CVE-2025-22040, CVE-2025-37944, CVE-2025-37774, CVE-2025-22117, CVE-2025-37888, CVE-2025-37857, CVE-2025-37791, CVE-2025-37817, CVE-2025-22041, CVE-2025-37983, CVE-2025-22039, CVE-2025-37749, CVE-2025-22097, CVE-2025-37747, CVE-2025-37762, CVE-2025-22114, CVE-2025-37831, CVE-2025-23133, CVE-2025-22020, CVE-2025-22085, CVE-2025-37807, CVE-2025-22059, CVE-2025-22042, CVE-2025-22123, CVE-2025-22107, CVE-2025-37759, CVE-2024-58094, CVE-2025-40114, CVE-2025-37810, CVE-2025-37833, CVE-2025-23134, CVE-2025-23151, CVE-2025-37743, CVE-2025-22034, CVE-2025-37739, CVE-2025-37863, CVE-2025-39735, CVE-2025-39930, CVE-2025-37847, CVE-2025-37803, CVE-2025-37786, CVE-2025-22112, CVE-2025-37830, CVE-2025-22108, CVE-2025-37767, CVE-2025-37814, CVE-2025-37798, CVE-2025-22086, CVE-2025-37778, CVE-2024-58093, CVE-2025-37848, CVE-2025-22024, CVE-2025-37776, CVE-2025-38104, CVE-2025-37938, CVE-2025-37861, CVE-2025-23150, CVE-2025-22021, CVE-2025-22018, CVE-2025-23137, CVE-2025-37756, CVE-2025-37784, CVE-2025-37769, CVE-2025-37820, CVE-2025-37758, CVE-2025-22047, CVE-2025-37844, CVE-2025-22093, CVE-2025-23162, CVE-2025-22051, CVE-2025-22115, CVE-2025-37845, CVE-2025-22074, CVE-2025-37883, CVE-2025-22116, CVE-2025-37824, CVE-2025-22052, CVE-2025-22090, CVE-2025-37750, CVE-2025-39728, CVE-2025-23145, CVE-2025-22125, CVE-2025-37834, CVE-2025-37738, CVE-2025-37760, CVE-2025-22079, CVE-2025-37877, CVE-2025-37849, CVE-2025-22026, CVE-2025-37886, CVE-2025-22043, CVE-2025-22122, CVE-2025-37937, CVE-2025-22071, CVE-2025-37742, CVE-2025-37744, CVE-2025-22106, CVE-2025-38152, CVE-2025-37869, CVE-2025-23135, CVE-2025-22056, CVE-2024-58095, CVE-2025-37853, CVE-2025-37770, CVE-2025-22031, CVE-2025-23158, CVE-2025-22072, CVE-2025-22102, CVE-2025-40325, CVE-2025-22037, CVE-2025-37876, CVE-2025-37864, CVE-2025-37867, CVE-2025-37855, CVE-2025-37984, CVE-2025-37839, CVE-2025-23131, CVE-2025-22121, CVE-2025-22078, CVE-2025-37800, CVE-2025-37880, CVE-2025-37925, CVE-2025-22113, CVE-2025-22064, CVE-2025-22057, CVE-2025-22092, CVE-2025-37780, CVE-2025-37887, CVE-2025-22099, CVE-2025-37793, CVE-2025-37978, CVE-2025-37746)

Tenable 已直接从 Ubuntu 安全公告中提取上述描述块。

请注意，Nessus 尚未测试这些问题，而是只依据应用程序自我报告的版本号进行判断。

Rocky Linux 9.6 主机上存在安装的程序包，该程序包受到 TuxCare ALMALINUX9.6：CLSA-2026：2026：1789986443公告中提及的多个漏洞的影响。

  - 已修复 Linux 内核中的下列漏洞：net: hns3: add vlan list lock to protect vlan list When adding port base VLAN, vf VLAN need to remove from HW and modify the vlan state in vf VLAN list as false. If the periodicity task is freeing the same node, it may cause use after free error. This patch adds a vlan list lock to protect the vlan list. (CVE-2022-49182)

  - 已修复 Linux 内核中的下列漏洞：tracing: Fix reading strings from synthetic events The follow commands caused a crash: # cd /sys/kernel/tracing # echo 's:open char file[]' > dynamic_events # echo 'hist:keys=common_pid:file=filename:onchange($file).trace(open,$file)' > events/syscalls/sys_enter_openat/trigger' # echo 1 > events/synthetic/open/enable BOOM! The problem is that the synthetic event field char file[] will read the value given to it as a string without any memory checks to make sure the address is valid. The above example will pass in the user space address and the sythetic event code will happily call strlen() on it and then strscpy() where either one will cause an oops when accessing user space addresses. Use the helper functions from trace_kprobe and trace_eprobe that can read strings safely (and actually succeed when the address is from user space and the memory is mapped in). Now the above can show: packagekitd-1721 [000] ...2. 104.597170: open:
    file=/usr/lib/rpm/fileattrs/cmake.attr in:imjournal-978 [006] ...2. 104.599642: open:
    file=/var/lib/rsyslog/imjournal.state.tmp packagekitd-1721 [000] ...2. 104.626308: open:
    file=/usr/lib/rpm/fileattrs/debuginfo.attr (CVE-2022-50255)

  - 已修复 Linux 内核中的下列漏洞：ipc: fix memleak if msg_init_ns failed in create_ipc_ns Percpu memory allocation may failed during create_ipc_ns however this fail is not handled properly since ipc sysctls and mq sysctls is not released properly. Fix this by release these two resource when failure. Here is the kmemleak stack when percpu failed: unreferenced object 0xffff88819de2a600 (size 512): comm shmem_2nstest, pid 120711, jiffies 4300542254 hex dump (first 32 bytes): 60 aa 9d 84 ff ff ff ff fc 18 48 b2 84 88 ff ff `.........H..... 04 00 00 00 a4 01 00 00 20 e4 56 81 ff ff ff ff ........
    .V..... backtrace (crc be7cba35): [<ffffffff81b43f83>] __kmalloc_node_track_caller_noprof+0x333/0x420 [<ffffffff81a52e56>] kmemdup_noprof+0x26/0x50 [<ffffffff821b2f37>] setup_mq_sysctls+0x57/0x1d0 [<ffffffff821b29cc>] copy_ipcs+0x29c/0x3b0 [<ffffffff815d6a10>] create_new_namespaces+0x1d0/0x920 [<ffffffff815d7449>] copy_namespaces+0x2e9/0x3e0 [<ffffffff815458f3>] copy_process+0x29f3/0x7ff0 [<ffffffff8154b080>] kernel_clone+0xc0/0x650 [<ffffffff8154b6b1>] __do_sys_clone+0xa1/0xe0 [<ffffffff843df8ff>] do_syscall_64+0xbf/0x1c0 [<ffffffff846000b0>] entry_SYSCALL_64_after_hwframe+0x4b/0x53 (CVE-2024-53175)

  - 已修复 Linux 内核中的下列漏洞：net/mlx5: HWS, change error flow on matcher disconnect Currently, when firmware failure occurs during matcher disconnect flow, the error flow of the function reconnects the matcher back and returns an error, which continues running the calling function and eventually frees the matcher that is being disconnected. This leads to a case where we have a freed matcher on the matchers list, which in turn leads to use-after-free and eventual crash. This patch fixes that by not trying to reconnect the matcher back when some FW command fails during disconnect. Note that we're dealing here with FW error. We can't overcome this problem. This might lead to bad steering state (e.g. wrong connection between matchers), and will also lead to resource leakage, as it is the case with any other error handling during resource destruction. However, the goal here is to allow the driver to continue and not crash the machine with use-after-free error. (CVE-2025-21751)

  - 已修复 Linux 内核中的下列漏洞：wifi: ath12k: Avoid memory leak while enabling statistics Driver uses monitor destination rings for extended statistics mode and standalone monitor mode. In extended statistics mode, TLVs are parsed from the buffer received from the monitor destination ring and assigned to the ppdu_info structure to update per-packet statistics. In standalone monitor mode, along with per-packet statistics, the packet data (payload) is captured, and the driver updates per MSDU to mac80211. When the AP interface is enabled, only extended statistics mode is activated. As part of enabling monitor rings for collecting statistics, the driver subscribes to HAL_RX_MPDU_START TLV in the filter configuration. This TLV is received from the monitor destination ring, and kzalloc for the mon_mpdu object occurs, which is not freed, leading to a memory leak. The kzalloc for the mon_mpdu object is only required while enabling the standalone monitor interface. This causes a memory leak while enabling extended statistics mode in the driver. Fix this memory leak by removing the kzalloc for the mon_mpdu object in the HAL_RX_MPDU_START TLV handling. Additionally, remove the standalone monitor mode handlings in the HAL_MON_BUF_ADDR and HAL_RX_MSDU_END TLVs. These TLV tags will be handled properly when enabling standalone monitor mode in the future. Tested-on: QCN9274 hw2.0 PCI WLAN.WBE.1.3.1-00173-QCAHKSWPL_SILICONZ-1 Tested-on: WCN7850 hw2.0 PCI WLAN.HMT.1.0.c5-00481-QCAHMTSWPL_V1.0_V2.0_SILICONZ-3 (CVE-2025-37743)

请注意，Nessus 尚未测试这些问题，而是只依据应用程序自我报告的版本号进行判断。

AlmaLinux 9.6 主机上存在安装的程序包，该程序包受到 TuxCare ALMALINUX9.6：CLSA-2026：2026：1789986443公告中提及的多个漏洞的影响。

  - 已修复 Linux 内核中的下列漏洞：net: hns3: add vlan list lock to protect vlan list When adding port base VLAN, vf VLAN need to remove from HW and modify the vlan state in vf VLAN list as false. If the periodicity task is freeing the same node, it may cause use after free error. This patch adds a vlan list lock to protect the vlan list. (CVE-2022-49182)

  - 已修复 Linux 内核中的下列漏洞：tracing: Fix reading strings from synthetic events The follow commands caused a crash: # cd /sys/kernel/tracing # echo 's:open char file[]' > dynamic_events # echo 'hist:keys=common_pid:file=filename:onchange($file).trace(open,$file)' > events/syscalls/sys_enter_openat/trigger' # echo 1 > events/synthetic/open/enable BOOM! The problem is that the synthetic event field char file[] will read the value given to it as a string without any memory checks to make sure the address is valid. The above example will pass in the user space address and the sythetic event code will happily call strlen() on it and then strscpy() where either one will cause an oops when accessing user space addresses. Use the helper functions from trace_kprobe and trace_eprobe that can read strings safely (and actually succeed when the address is from user space and the memory is mapped in). Now the above can show: packagekitd-1721 [000] ...2. 104.597170: open:
    file=/usr/lib/rpm/fileattrs/cmake.attr in:imjournal-978 [006] ...2. 104.599642: open:
    file=/var/lib/rsyslog/imjournal.state.tmp packagekitd-1721 [000] ...2. 104.626308: open:
    file=/usr/lib/rpm/fileattrs/debuginfo.attr (CVE-2022-50255)

  - 已修复 Linux 内核中的下列漏洞：ipc: fix memleak if msg_init_ns failed in create_ipc_ns Percpu memory allocation may failed during create_ipc_ns however this fail is not handled properly since ipc sysctls and mq sysctls is not released properly. Fix this by release these two resource when failure. Here is the kmemleak stack when percpu failed: unreferenced object 0xffff88819de2a600 (size 512): comm shmem_2nstest, pid 120711, jiffies 4300542254 hex dump (first 32 bytes): 60 aa 9d 84 ff ff ff ff fc 18 48 b2 84 88 ff ff `.........H..... 04 00 00 00 a4 01 00 00 20 e4 56 81 ff ff ff ff ........
    .V..... backtrace (crc be7cba35): [<ffffffff81b43f83>] __kmalloc_node_track_caller_noprof+0x333/0x420 [<ffffffff81a52e56>] kmemdup_noprof+0x26/0x50 [<ffffffff821b2f37>] setup_mq_sysctls+0x57/0x1d0 [<ffffffff821b29cc>] copy_ipcs+0x29c/0x3b0 [<ffffffff815d6a10>] create_new_namespaces+0x1d0/0x920 [<ffffffff815d7449>] copy_namespaces+0x2e9/0x3e0 [<ffffffff815458f3>] copy_process+0x29f3/0x7ff0 [<ffffffff8154b080>] kernel_clone+0xc0/0x650 [<ffffffff8154b6b1>] __do_sys_clone+0xa1/0xe0 [<ffffffff843df8ff>] do_syscall_64+0xbf/0x1c0 [<ffffffff846000b0>] entry_SYSCALL_64_after_hwframe+0x4b/0x53 (CVE-2024-53175)

  - 已修复 Linux 内核中的下列漏洞：net/mlx5: HWS, change error flow on matcher disconnect Currently, when firmware failure occurs during matcher disconnect flow, the error flow of the function reconnects the matcher back and returns an error, which continues running the calling function and eventually frees the matcher that is being disconnected. This leads to a case where we have a freed matcher on the matchers list, which in turn leads to use-after-free and eventual crash. This patch fixes that by not trying to reconnect the matcher back when some FW command fails during disconnect. Note that we're dealing here with FW error. We can't overcome this problem. This might lead to bad steering state (e.g. wrong connection between matchers), and will also lead to resource leakage, as it is the case with any other error handling during resource destruction. However, the goal here is to allow the driver to continue and not crash the machine with use-after-free error. (CVE-2025-21751)

  - 已修复 Linux 内核中的下列漏洞：wifi: ath12k: Avoid memory leak while enabling statistics Driver uses monitor destination rings for extended statistics mode and standalone monitor mode. In extended statistics mode, TLVs are parsed from the buffer received from the monitor destination ring and assigned to the ppdu_info structure to update per-packet statistics. In standalone monitor mode, along with per-packet statistics, the packet data (payload) is captured, and the driver updates per MSDU to mac80211. When the AP interface is enabled, only extended statistics mode is activated. As part of enabling monitor rings for collecting statistics, the driver subscribes to HAL_RX_MPDU_START TLV in the filter configuration. This TLV is received from the monitor destination ring, and kzalloc for the mon_mpdu object occurs, which is not freed, leading to a memory leak. The kzalloc for the mon_mpdu object is only required while enabling the standalone monitor interface. This causes a memory leak while enabling extended statistics mode in the driver. Fix this memory leak by removing the kzalloc for the mon_mpdu object in the HAL_RX_MPDU_START TLV handling. Additionally, remove the standalone monitor mode handlings in the HAL_MON_BUF_ADDR and HAL_RX_MSDU_END TLVs. These TLV tags will be handled properly when enabling standalone monitor mode in the future. Tested-on: QCN9274 hw2.0 PCI WLAN.WBE.1.3.1-00173-QCAHKSWPL_SILICONZ-1 Tested-on: WCN7850 hw2.0 PCI WLAN.HMT.1.0.c5-00481-QCAHMTSWPL_V1.0_V2.0_SILICONZ-3 (CVE-2025-37743)

请注意，Nessus 尚未测试这些问题，而是只依据应用程序自我报告的版本号进行判断。

Linux/Unix 主机中安装的一个或多个程序包受到一个漏洞影响，而供应商没有提供补丁程序。

  - wifiath12k避免在启用统计数据时出现内存泄漏 驱动程序针对扩展的统计数据模式和独立监控模式使用监控目标环。在扩展统计数据模式下从来自监控目标环的缓冲区中解析 TLV 并将其分配给 ppdu_info 结构以更新每个数据包的统计数据。在独立监控模式下，在捕获每个数据包的统计数据的同时，还将捕获数据包数据（负载），并根据到 mac80211 的 MSDU 更新驱动程序。启用 AP 接口时仅激活扩展统计模式。作为启用监控环以收集统计数据的一部分驱动程序会订阅筛选器配置中的 HAL_RX_MPDU_START TLV。从监控目标环接收此 TLV 时会发生未释放的 mon_mpdu 对象的 kzalloc导致内存泄漏。只有在启用独立监控接口时才需要 mon_mpdu 对象的 kzalloc。这会在驱动程序中启用扩展统计数据模式时造成内存泄露。通过删除 HAL_RX_MPDU_START TLV 处理中 mon_mpdu 对象的 kzalloc修复此内存泄漏。
    此外删除 HAL_MON_BUF_ADDR 和 HAL_RX_MSDU_END TLV 中的独立监控模式处理。未来启用独立监控模式时将正确处理这些 TLV 标签。已进行测试 QCN9274 hw2.0 PCI WLAN.WBE.1.3.1-00173-QCAHKSWPL_SILICONZ-1 已进行测试 WCN7850 hw2.0 PCI WLAN.HMT.1.0.c5-00481-QCAHMTSWPL_V1.0_V2.0_SILICONZ-3 (CVE-2025-37743)

请注意，Nessus 依赖供应商报告的程序包是否存在进行判断。

ID	名称	产品	系列	发布时间	最近更新时间	严重程度
240657	Ubuntu 25.04：Linux 内核漏洞 (USN-7594-1)	Nessus	Ubuntu Local Security Checks	2025/6/26	2026/1/6	high
352273	Rocky Linux 9.6 [TuxCare] 安全更新：kernel / kernel-abi-stablelists / kernel-core / 等多个漏洞（ALMALINUX9.6：CLSA-2026：1789986443）	Nessus	Rocky Linux Local Security Checks	2026/9/30	2026/9/30	high
352548	AlmaLinux 9.6 [TuxCare] 安全更新：kernel / kernel-abi-stablelists / kernel-core / 等多个漏洞（ALMALINUX9.6：CLSA-2026：1789986443）	Nessus	Alma Linux Local Security Checks	2026/9/30	2026/9/30	high
252989	Linux Distros 未修补的漏洞：CVE-2025-37743	Nessus	Misc.	2025/8/20	2026/10/12	medium

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