CVE Database

Multiple OS command injection vulnerabilities exist in the adm.cgi sch_reboot() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to a arbitrary code execution. An attacker can make an authenticated HTTP request to trigger these vulnerabilities.A command injection vulnerability exists in the `restart_hour` POST parameter.

Multiple buffer overflow vulnerabilities exist in the internet.cgi set_qos() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to stack-based buffer overflow. An attacker can make an authenticated HTTP request to trigger these vulnerabilities.This vulnerability exists in the `en_enable` POST parameter.

Multiple buffer overflow vulnerabilities exist in the internet.cgi set_qos() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to stack-based buffer overflow. An attacker can make an authenticated HTTP request to trigger these vulnerabilities.This vulnerability exists in the `cli_mac` POST parameter.

Multiple buffer overflow vulnerabilities exist in the internet.cgi set_qos() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to stack-based buffer overflow. An attacker can make an authenticated HTTP request to trigger these vulnerabilities.This vulnerability exists in the `cli_name` POST parameter.

Multiple OS command injection vulnerabilities exist in the internet.cgi set_add_routing() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to arbitrary command execution. An attacker can make an authenticated HTTP request to trigger these vulnerabilities.A command injection vulnerability exists in the `custom_interface` POST parameter.

Multiple OS command injection vulnerabilities exist in the internet.cgi set_add_routing() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to arbitrary command execution. An attacker can make an authenticated HTTP request to trigger these vulnerabilities.A command injection vulnerability exists in the `dest` POST parameter.

Multiple OS command injection vulnerabilities exist in the internet.cgi set_add_routing() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to arbitrary command execution. An attacker can make an authenticated HTTP request to trigger these vulnerabilities.A command injection vulnerability exists in the `gateway` POST parameter.

Multiple OS command injection vulnerabilities exist in the internet.cgi set_add_routing() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to arbitrary command execution. An attacker can make an authenticated HTTP request to trigger these vulnerabilities.A command injection vulnerability exists in the `netmask` POST parameter.

Multiple OS command injection vulnerabilities exist in the login.cgi set_sys_init() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to arbitrary code execution. An attacker can make an unauthenticated HTTP request to trigger these vulnerabilities.A command injection vulnerability exists within the `restart_week_value` POST parameter.

Multiple OS command injection vulnerabilities exist in the login.cgi set_sys_init() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to arbitrary code execution. An attacker can make an unauthenticated HTTP request to trigger these vulnerabilities.A command injection vulnerability exists within the `restart_min_value` POST parameter.

Multiple OS command injection vulnerabilities exist in the login.cgi set_sys_init() functionality of Wavlink AC3000 M33A8.V5030.210505. A specially crafted HTTP request can lead to arbitrary code execution. An attacker can make an unauthenticated HTTP request to trigger these vulnerabilities.A command injection vulnerability exists within the `restart_hour_value` POST parameter.

An Authentication Bypass Using an Alternate Path or Channel vulnerability [CWE-288] affecting FortiOS version 7.0.0 through 7.0.16 and FortiProxy version 7.0.0 through 7.0.19 and 7.2.0 through 7.2.12 allows a remote attacker to gain super-admin privileges via crafted requests to Node.js websocket module.

A out-of-bounds write in Fortinet FortiOS versions 7.6.0, 7.4.0 through 7.4.6, 7.2.0 through 7.2.10, 7.0.0 through 7.0.16, 6.4.0 through 6.4.15 allows attacker to trigger a denial of service via specially crafted packets.

A improper neutralization of special elements used in an os command ('os command injection') vulnerability in Fortinet FortiManager Cloud 7.6.0 through 7.6.1, FortiManager Cloud 7.4.0 through 7.4.4, FortiManager Cloud 7.2.2 through 7.2.7, FortiManager 7.6.0 through 7.6.1, FortiManager 7.4.0 through 7.4.5, FortiManager 7.2.1 through 7.2.8 may allow an authenticated remote attacker to execute unauthorized code via FGFM crafted requests.

A improper limitation of a pathname to a restricted directory ('path traversal') vulnerability in Fortinet FortiManager 7.6.0 through 7.6.1, FortiManager 7.4.1 through 7.4.3, FortiManager Cloud 7.4.1 through 7.4.3, FortiOS 7.6.0, FortiOS 7.4.0 through 7.4.4, FortiOS 7.2.0 through 7.2.9, FortiOS 7.0.0 through 7.0.15, FortiOS 6.4.0 through 6.4.15, FortiProxy 7.4.0 through 7.4.5, FortiProxy 7.2.0 through 7.2.11, FortiProxy 7.0.0 through 7.0.18, FortiProxy 2.0 all versions, FortiProxy 1.2 all versions, FortiProxy 1.1 all versions, FortiProxy 1.0 all versions may allow a remote authenticated attacker with access to the security fabric interface and port to write arbitrary files or a remote unauthenticated attacker to delete an arbitrary folder

An Improper Access Control vulnerability [CWE-284] vulnerability in Fortinet FortiDeceptor 6.0.0, FortiDeceptor 5.3 all versions, FortiDeceptor 5.2 all versions, FortiDeceptor 5.1 all versions, FortiDeceptor 5.0 all versions may allow an authenticated attacker with none privileges to perform operations on the central management appliance via crafted requests.

An improper neutralization of special elements used in an OS Command vulnerability [CWE-78] vulnerability in Fortinet FortiSandbox 4.4.0 through 4.4.4, FortiSandbox 4.2.1 through 4.2.6, FortiSandbox 4.0.0 through 4.0.4, FortiSandbox 3.2 all versions, FortiSandbox 3.1 all versions, FortiSandbox 3.0.5 through 3.0.7 allows an authenticated attacker with at least read-only permission to execute unauthorized commands via crafted requests.

Specifically crafted SCMI messages sent to an SCP running SCP-Firmware release versions up to and including 2.15.0 may lead to a Usage Fault and crash the SCP

Specifically crafted SCMI messages sent to an SCP running SCP-Firmware release versions up to and including 2.15.0 may lead to a Usage Fault and crash the SCP

A vulnerability has been identified in SIPROTEC 5 6MD84 (CP300) (All versions < V9.80), SIPROTEC 5 6MD85 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 6MD86 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 6MD89 (CP300) (All versions >= V7.80 < V9.68), SIPROTEC 5 6MU85 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7KE85 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7SA82 (CP100) (All versions >= V7.80 < V8.90), SIPROTEC 5 7SA82 (CP150) (All versions < V9.80), SIPROTEC 5 7SA86 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7SA87 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7SD82 (CP100) (All versions >= V7.80 < V8.90), SIPROTEC 5 7SD82 (CP150) (All versions < V9.80), SIPROTEC 5 7SD86 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7SD87 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7SJ81 (CP100) (All versions >= V7.80 < V8.90), SIPROTEC 5 7SJ81 (CP150) (All versions < V9.80), SIPROTEC 5 7SJ82 (CP100) (All versions >= V7.80 < V8.90), SIPROTEC 5 7SJ82 (CP150) (All versions < V9.80), SIPROTEC 5 7SJ85 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7SJ86 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7SK82 (CP100) (All versions >= V7.80 < V8.90), SIPROTEC 5 7SK82 (CP150) (All versions < V9.80), SIPROTEC 5 7SK85 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7SL82 (CP100) (All versions >= V7.80 < V8.90), SIPROTEC 5 7SL82 (CP150) (All versions < V9.80), SIPROTEC 5 7SL86 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7SL87 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7SS85 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7ST85 (CP300) (All versions < V9.68), SIPROTEC 5 7ST86 (CP300) (All versions < V9.80), SIPROTEC 5 7SX82 (CP150) (All versions < V9.80), SIPROTEC 5 7SX85 (CP300) (All versions < V9.80), SIPROTEC 5 7SY82 (CP150) (All versions < V9.80), SIPROTEC 5 7UM85 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7UT82 (CP100) (All versions >= V7.80 < V8.90), SIPROTEC 5 7UT82 (CP150) (All versions < V9.80), SIPROTEC 5 7UT85 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7UT86 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7UT87 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7VE85 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7VK87 (CP300) (All versions >= V7.80 < V9.80), SIPROTEC 5 7VU85 (CP300) (All versions < V9.80), SIPROTEC 5 Compact 7SX800 (CP050) (All versions < V9.80). Affected devices do not properly limit the path accessible via their webserver. This could allow an authenticated remote attacker to read arbitrary files from the filesystem of affected devices.

A vulnerability has been identified in Industrial Edge Management OS (IEM-OS) (All versions). Affected components are vulnerable to reflected cross-site scripting (XSS) attacks. This could allow an attacker to extract sensitive information by tricking users into accessing a malicious link.

Veeam Backup for Microsoft Azure is vulnerable to Server-Side Request Forgery (SSRF). This may allow an unauthenticated attacker to send unauthorized requests from the system, potentially leading to network enumeration or facilitating other attacks.

Under certain conditions SAP NetWeaver AS for ABAP and ABAP Platform (Internet Communication Framework) allows an attacker to access restricted information due to weak access controls. This can have a significant impact on the confidentiality, integrity, and availability of an application

SAP NetWeaver AS ABAP and ABAP Platform does not check for authorization when a user executes some RFC function modules. This could lead to an attacker with basic user privileges to gain control over the data in Informix database, leading to complete compromise of confidentiality, integrity and availability.

SAP BusinessObjects Business Intelligence Platform allows an unauthenticated attacker to perform session hijacking over the network without any user interaction, due to an information disclosure vulnerability. Attacker can access and modify all the data of the application.

SAP BusinessObjects Business Intelligence Platform allows an authenticated user with restricted access to inject malicious JS code which can read sensitive information from the server and send it to the attacker. The attacker could further use this information to impersonate as a high privileged user causing high impact on confidentiality and integrity of the application.

In SAP Business Workflow and SAP Flexible Workflow, an authenticated attacker can manipulate a parameter in an otherwise legitimate resource request to view sensitive information that should otherwise be restricted. The attacker does not have the ability to modify the information or to make the information unavailable.

SAP NetWeaver Application Server for ABAP and ABAP Platform allows an attacker to gain unauthorized access to system information. By using a specific URL parameter, an unauthenticated attacker could retrieve details such as system configuration. This has a limited impact on the confidentiality of the application and may be leveraged to facilitate further attacks or exploits.

OpenFGA is an authorization/permission engine. IN OpenFGA v1.3.8 to v1.8.2 (Helm chart openfga-0.1.38 to openfga-0.2.19, docker v1.3.8 to v.1.8.2) are vulnerable to authorization bypass under the following conditions: 1. calling Check API or ListObjects with a model that uses [conditions](https://openfga.dev/docs/modeling/conditions), and 2. calling Check API or ListObjects API with [contextual tuples](https://openfga.dev/docs/concepts#what-are-contextual-tuples) that include conditions and 3. OpenFGA is configured with caching enabled (`OPENFGA_CHECK_QUERY_CACHE_ENABLED`). Users are advised to upgrade to v1.8.3. There are no known workarounds for this vulnerability.

The login page of Venki Supravizio BPM up to 18.1.1 is vulnerable to open redirect leading to reflected XSS.

An NTLM hash leak in Venki Supravizio BPM up to 18.0.1 allows authenticated attackers with Application Administrator access to escalate privileges on the underlying host system.

Venki Supravizio BPM through 18.0.1 was discovered to contain an arbitrary file upload vulnerability. An authenticated attacker may upload a malicious file, leading to remote code execution.

MonicaHQ v4.1.2 was discovered to contain a Client-Side Injection vulnerability via the last_name parameter the General Information module.

Pega Platform versions 8.1 to Infinity 24.2.0 are affected by an Stored XSS issue with profile.

Teedy through 1.11 allows CSRF for account takeover via POST /api/user/admin.

An improper array index validation vulnerability exists in the determineMinMax functionality of OFFIS DCMTK 3.6.8. A specially crafted DICOM file can lead to an out-of-bounds write. An attacker can provide a malicious file to trigger this vulnerability.

An improper array index validation vulnerability exists in the nowindow functionality of OFFIS DCMTK 3.6.8. A specially crafted DICOM file can lead to an out-of-bounds write. An attacker can provide a malicious file to trigger this vulnerability.

A vulnerability, which was classified as problematic, has been found in 1902756969 reggie 1.0. Affected by this issue is some unknown functionality of the file /user/sendMsg of the component Phone Number Validation Handler. The manipulation of the argument code leads to information disclosure. The attack may be launched remotely. The exploit has been disclosed to the public and may be used.

A vulnerability classified as critical was found in 1902756969 reggie 1.0. Affected by this vulnerability is the function upload of the file src/main/java/com/itheima/reggie/controller/CommonController.java. The manipulation of the argument file leads to unrestricted upload. The attack can be launched remotely. The exploit has been disclosed to the public and may be used.

A vulnerability classified as critical has been found in 1902756969 reggie 1.0. Affected is the function download of the file src/main/java/com/itheima/reggie/controller/CommonController.java. The manipulation of the argument name leads to path traversal. It is possible to launch the attack remotely. The exploit has been disclosed to the public and may be used.

A vulnerability was found in StarSea99 starsea-mall 1.0. It has been rated as problematic. This issue affects some unknown processing of the file /admin/categories/update. The manipulation of the argument categoryName leads to cross site scripting. The attack may be initiated remotely. The exploit has been disclosed to the public and may be used.

A vulnerability was found in StarSea99 starsea-mall 1.0. It has been declared as critical. This vulnerability affects the function UploadController of the file src/main/java/com/siro/mall/controller/common/uploadController.java. The manipulation of the argument file leads to unrestricted upload. The attack can be initiated remotely. The exploit has been disclosed to the public and may be used.

In the Linux kernel, the following vulnerability has been resolved: mm/page_alloc: don't call pfn_to_page() on possibly non-existent PFN in split_large_buddy() In split_large_buddy(), we might call pfn_to_page() on a PFN that might not exist. In corner cases, such as when freeing the highest pageblock in the last memory section, this could result with CONFIG_SPARSEMEM && !CONFIG_SPARSEMEM_EXTREME in __pfn_to_section() returning NULL and and __section_mem_map_addr() dereferencing that NULL pointer. Let's fix it, and avoid doing a pfn_to_page() call for the first iteration, where we already have the page. So far this was found by code inspection, but let's just CC stable as the fix is easy.

In the Linux kernel, the following vulnerability has been resolved: ASoC: Intel: sof_sdw: Add space for a terminator into DAIs array The code uses the initialised member of the asoc_sdw_dailink struct to determine if a member of the array is in use. However in the case the array is completely full this will lead to an access 1 past the end of the array, expand the array by one entry to include a space for a terminator.

In the Linux kernel, the following vulnerability has been resolved: Bluetooth: iso: Always release hdev at the end of iso_listen_bis Since hci_get_route holds the device before returning, the hdev should be released with hci_dev_put at the end of iso_listen_bis even if the function returns with an error.

In the Linux kernel, the following vulnerability has been resolved: arm64: ptrace: fix partial SETREGSET for NT_ARM_FPMR Currently fpmr_set() doesn't initialize the temporary 'fpmr' variable, and a SETREGSET call with a length of zero will leave this uninitialized. Consequently an arbitrary value will be written back to target->thread.uw.fpmr, potentially leaking up to 64 bits of memory from the kernel stack. The read is limited to a specific slot on the stack, and the issue does not provide a write mechanism. Fix this by initializing the temporary value before copying the regset from userspace, as for other regsets (e.g. NT_PRSTATUS, NT_PRFPREG, NT_ARM_SYSTEM_CALL). In the case of a zero-length write, the existing contents of FPMR will be retained. Before this patch: | # ./fpmr-test | Attempting to write NT_ARM_FPMR::fpmr = 0x900d900d900d900d | SETREGSET(nt=0x40e, len=8) wrote 8 bytes | | Attempting to read NT_ARM_FPMR::fpmr | GETREGSET(nt=0x40e, len=8) read 8 bytes | Read NT_ARM_FPMR::fpmr = 0x900d900d900d900d | | Attempting to write NT_ARM_FPMR (zero length) | SETREGSET(nt=0x40e, len=0) wrote 0 bytes | | Attempting to read NT_ARM_FPMR::fpmr | GETREGSET(nt=0x40e, len=8) read 8 bytes | Read NT_ARM_FPMR::fpmr = 0xffff800083963d50 After this patch: | # ./fpmr-test | Attempting to write NT_ARM_FPMR::fpmr = 0x900d900d900d900d | SETREGSET(nt=0x40e, len=8) wrote 8 bytes | | Attempting to read NT_ARM_FPMR::fpmr | GETREGSET(nt=0x40e, len=8) read 8 bytes | Read NT_ARM_FPMR::fpmr = 0x900d900d900d900d | | Attempting to write NT_ARM_FPMR (zero length) | SETREGSET(nt=0x40e, len=0) wrote 0 bytes | | Attempting to read NT_ARM_FPMR::fpmr | GETREGSET(nt=0x40e, len=8) read 8 bytes | Read NT_ARM_FPMR::fpmr = 0x900d900d900d900d

In the Linux kernel, the following vulnerability has been resolved: arm64: ptrace: fix partial SETREGSET for NT_ARM_POE Currently poe_set() doesn't initialize the temporary 'ctrl' variable, and a SETREGSET call with a length of zero will leave this uninitialized. Consequently an arbitrary value will be written back to target->thread.por_el0, potentially leaking up to 64 bits of memory from the kernel stack. The read is limited to a specific slot on the stack, and the issue does not provide a write mechanism. Fix this by initializing the temporary value before copying the regset from userspace, as for other regsets (e.g. NT_PRSTATUS, NT_PRFPREG, NT_ARM_SYSTEM_CALL). In the case of a zero-length write, the existing contents of POR_EL1 will be retained. Before this patch: | # ./poe-test | Attempting to write NT_ARM_POE::por_el0 = 0x900d900d900d900d | SETREGSET(nt=0x40f, len=8) wrote 8 bytes | | Attempting to read NT_ARM_POE::por_el0 | GETREGSET(nt=0x40f, len=8) read 8 bytes | Read NT_ARM_POE::por_el0 = 0x900d900d900d900d | | Attempting to write NT_ARM_POE (zero length) | SETREGSET(nt=0x40f, len=0) wrote 0 bytes | | Attempting to read NT_ARM_POE::por_el0 | GETREGSET(nt=0x40f, len=8) read 8 bytes | Read NT_ARM_POE::por_el0 = 0xffff8000839c3d50 After this patch: | # ./poe-test | Attempting to write NT_ARM_POE::por_el0 = 0x900d900d900d900d | SETREGSET(nt=0x40f, len=8) wrote 8 bytes | | Attempting to read NT_ARM_POE::por_el0 | GETREGSET(nt=0x40f, len=8) read 8 bytes | Read NT_ARM_POE::por_el0 = 0x900d900d900d900d | | Attempting to write NT_ARM_POE (zero length) | SETREGSET(nt=0x40f, len=0) wrote 0 bytes | | Attempting to read NT_ARM_POE::por_el0 | GETREGSET(nt=0x40f, len=8) read 8 bytes | Read NT_ARM_POE::por_el0 = 0x900d900d900d900d

In the Linux kernel, the following vulnerability has been resolved: drm/dp_mst: Fix resetting msg rx state after topology removal If the MST topology is removed during the reception of an MST down reply or MST up request sideband message, the drm_dp_mst_topology_mgr::up_req_recv/down_rep_recv states could be reset from one thread via drm_dp_mst_topology_mgr_set_mst(false), racing with the reading/parsing of the message from another thread via drm_dp_mst_handle_down_rep() or drm_dp_mst_handle_up_req(). The race is possible since the reader/parser doesn't hold any lock while accessing the reception state. This in turn can lead to a memory corruption in the reader/parser as described by commit bd2fccac61b4 ("drm/dp_mst: Fix MST sideband message body length check"). Fix the above by resetting the message reception state if needed before reading/parsing a message. Another solution would be to hold the drm_dp_mst_topology_mgr::lock for the whole duration of the message reception/parsing in drm_dp_mst_handle_down_rep() and drm_dp_mst_handle_up_req(), however this would require a bigger change. Since the fix is also needed for stable, opting for the simpler solution in this patch.

In the Linux kernel, the following vulnerability has been resolved: block: RCU protect disk->conv_zones_bitmap Ensure that a disk revalidation changing the conventional zones bitmap of a disk does not cause invalid memory references when using the disk_zone_is_conv() helper by RCU protecting the disk->conv_zones_bitmap pointer. disk_zone_is_conv() is modified to operate under the RCU read lock and the function disk_set_conv_zones_bitmap() is added to update a disk conv_zones_bitmap pointer using rcu_replace_pointer() with the disk zone_wplugs_lock spinlock held. disk_free_zone_resources() is modified to call disk_update_zone_resources() with a NULL bitmap pointer to free the disk conv_zones_bitmap. disk_set_conv_zones_bitmap() is also used in disk_update_zone_resources() to set the new (revalidated) bitmap and free the old one.

In the Linux kernel, the following vulnerability has been resolved: arm64: ptrace: fix partial SETREGSET for NT_ARM_TAGGED_ADDR_CTRL Currently tagged_addr_ctrl_set() doesn't initialize the temporary 'ctrl' variable, and a SETREGSET call with a length of zero will leave this uninitialized. Consequently tagged_addr_ctrl_set() will consume an arbitrary value, potentially leaking up to 64 bits of memory from the kernel stack. The read is limited to a specific slot on the stack, and the issue does not provide a write mechanism. As set_tagged_addr_ctrl() only accepts values where bits [63:4] zero and rejects other values, a partial SETREGSET attempt will randomly succeed or fail depending on the value of the uninitialized value, and the exposure is significantly limited. Fix this by initializing the temporary value before copying the regset from userspace, as for other regsets (e.g. NT_PRSTATUS, NT_PRFPREG, NT_ARM_SYSTEM_CALL). In the case of a zero-length write, the existing value of the tagged address ctrl will be retained. The NT_ARM_TAGGED_ADDR_CTRL regset is only visible in the user_aarch64_view used by a native AArch64 task to manipulate another native AArch64 task. As get_tagged_addr_ctrl() only returns an error value when called for a compat task, tagged_addr_ctrl_get() and tagged_addr_ctrl_set() should never observe an error value from get_tagged_addr_ctrl(). Add a WARN_ON_ONCE() to both to indicate that such an error would be unexpected, and error handlnig is not missing in either case.