| CVE |
Vendors |
Products |
Updated |
CVSS v3.1 |
| Previously, DecodeElement would reset the depth counter causing it to never fire; this could lead to stack exhaustion. |
| A malicious GOPROXY was previously capable of forging up to two sumdb tiles that allow for a requested module to bypass the GOSUMDB check and persist attacker-controlled module content to a local Go module cache. This attack allows for a malicious GOPROXY to serve malicious module content that cannot be detected by evaluating the transparency log. All tiles are now correctly verified against their parents. In order to determine if you have been affected: rm -r go.sum go.work.sum vendor/ && go mod tidy |
| A malicious GOSUMDB was capable of serving arbitrary module content not contained within the transparency log. This attack allows for a coordinating GOPROXY and GOSUMDB to serve a client malicious module content that cannot be detected by evaluating the transparency log. In order to determine if you have been affected: rm -r go.sum go.work.sum vendor/ && go mod tidy |
| AI_ONLY_REPORT
package: iscsi-initiator-utils-6.2.1.11-0.git4b3e853.el10
------
Summary: Stack Buffer Overflow in idbm_recinfo_config via Malicious iSCSI
Target: a crafted SendTargets TargetName can inject an extra configuration
line into a persisted node record and later cause a stack buffer overflow
when that record is reparsed.
Requirements to exploit: An attacker must control an iSCSI target or tamper
with SendTargets discovery traffic, return a crafted `TargetName`
containing a newline and oversized injected key or value data, have the
victim run persistent discovery, and then trigger a later node-record read
such as update or login.
Component affected: `iscsi-initiator-utils`;
`usr/idbm.c:idbm_recinfo_config`, with attacker-controlled input reaching
it through SendTargets handling in `usr/discovery.c` and later record
serialization in `usr/idbm.c`.
Version affected: `iscsi-initiator-utils-6.2.1.11-0.git4b3e853.el10`
Patch available: no released package fix established; proposed patch
included below
Version fixed: unknown
Upstream coordination: Not notified.
CVSS: CVSS:3.1/AV:N/AC:L/PR:N/UI:R/S:U/C:L/I:L/A:H - 7.5 (HIGH)
AV:N - The attacker can supply the malicious data over the network in a
SendTargets discovery response.
AC:L - The target-name length cap still leaves enough room for a newline
plus an overlong injected key; no race or unusual memory state is required.
PR:N - No prior access to the initiator is required.
UI:R - The victim must run SendTargets discovery that persists records
and later read the saved record.
S:U - The impact remains within the initiator-side component that parses
and stores its own database records.
C:L - Memory corruption could expose limited process memory, but
confidentiality impact is not demonstrated.
I:L - Process memory corruption can affect integrity, but reliable code
execution is not established.
A:H - The clearest supported outcome is a crash during config parsing.
Impact: Moderate. This issue could otherwise resemble an Important remote
denial-of-service flaw, but Red Hat rates such issues lower when they are
less easily exploited or depend on narrower conditions. Here, exploitation
requires a multi-step SendTargets discovery workflow, persistence of the
discovered record, and a later reread of that record. The strongest
supported outcome is denial of service or other memory corruption, while
code execution remains unproven.
Embargo: no
Reason: The available evidence supports a multi-step,
configuration-dependent denial-of-service or memory-corruption issue rather
than a demonstrated remote code execution flaw, so embargoed handling does
not appear necessary.
Acknowledgement: Aisle Research
Vulnerability Details: `idbm_recinfo_config()` copies config keys and
values into fixed stack buffers without bounds checks:
```c
while (*nl && !isspace(c = *nl) && *nl != '=') {
*(name+i) = *nl; i+; nl+;
}
...
while (*nl) {
*(value+i) = *nl; i+; nl+;
}
```
In this code path, `name` and `value` are 128-byte and 256-byte stack
buffers, so an injected key longer than 128 bytes or a value longer than
256 bytes can corrupt stack memory.
During SendTargets discovery, attacker-controlled `TargetName` text is
copied into the node record and later written back to disk without
control-character filtering:
```c
strlcpy(rec->name, targetname, TARGET_NAME_MAXLEN);
...
if (strlen(info[i].value))
fprintf(f, "%s = %s\n", info[i].name, info[i].value);
```
`process_sendtargets_response()` treats `TargetName=` records as discovery
input, and `add_target_record()` accepts names up to `TARGET_NAME_MAXLEN`.
That limit is 255 bytes in this package, which is still enough to carry a
newline plus a key longer than the 128-byte `name` buffer. A `TargetName`
such as `iqn.test\nAAAA...=B` can therefore split the serialized
`node.name` entry into two lines and inject a second config line.
Persistent SendTargets discovery stores discovered node records unless
nonpersistent mode is used, and later discovery update/login or explicit
node operations reread those saved records. The 2048-byte line buffer in
`idbm_recinfo_config()` does not prevent this because the injected line
only needs to exceed 128 bytes for the key or 256 bytes for the value.
Based on the available evidence, the supported impact is a crash or other
memory corruption during reparsing. Reliable code execution is plausible
but not established.
Steps to reproduce:
1. Run a malicious SendTargets responder, or intercept discovery traffic,
and return a `TargetName` value containing a newline and an oversized
injected key, for example `TargetName=iqn.test\nAAAAAAAA...(>=129 chars)=B`.
2. Run SendTargets discovery in its normal persistent mode. The default
`iscsiadm -m discovery ...` workflow persists records unless nonpersistent
mode is selected.
3. Inspect the saved node record and confirm that it contains both the
expected `node.name = ...` line and an injected `AAAA...=B` line.
4. Trigger any operation that rereads the node record, such as discovery
update, node update, or login.
5. Observe a crash during parsing. With instrumentation enabled, the
overflow should be reported in `idbm_recinfo_config()`.
Mitigation: Until a fix is available, avoid persistent SendTargets
discovery against untrusted or interceptable networks. Where operationally
acceptable, use nonpersistent discovery, and remove node records created
from untrusted discovery results before later update or login operations.
Proposed Fix: The fix should address both parts of the chain: bound the key
and value copies in `idbm_recinfo_config()` and reject control characters
in `TargetName` before persistence.
```diff
diff --git a/usr/idbm.c b/usr/idbm.c
@@ void idbm_recinfo_config(recinfo_t *info, FILE *f)
while (*nl && !isspace(c = *nl) && *nl != '=') {
*(name+i) = *nl; i+; nl+;
}
+ while (*nl && !isspace(c = *nl) && *nl != '=') {
+ if (i >= NAME_MAXVAL - 1) {
+ log_warning("Config file line %d key too long",
line_number);
+ break;
+ }
+ name[i++] = *nl++;
+ }
@@
while (*nl) {
*(value+i) = *nl; i+; nl+;
}
+ while (*nl) {
+ if (i >= VALUE_MAXVAL - 1) {
+ log_warning("Config file line %d value too long",
line_number);
+ break;
+ }
+ value[i++] = *nl++;
+ }
diff --git a/usr/discovery.c b/usr/discovery.c
@@ static int add_target_record(char *name, char *end, discovery_rec_t
*drec,
while ((nul < end) && (*nul != '\0'))
nul++;
+ for (char *p = name; p < nul; p++) {
+ if (*p == '\n' || *p == '\r' || (unsigned char)*p < 0x20) {
+ log_error("TargetName contains control characters,
rejecting");
+ return 0;
+ }
+ }
```
------
This report was generated using AI technology. Always review AI-generated
content prior to use |
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| Use after free in Microsoft Office Word allows an unauthorized attacker to execute code locally. |
| SiYuan before v3.7.4 contains an information disclosure vulnerability in the /api/filetree/authFilePublishAccess endpoint, which is registered with CheckAuth only and is reachable anonymously. The endpoint never sets a failure code, so its outcome is signalled entirely by the response message and by the presence of a Set-Cookie header, and these signals differ across access tiers. By submitting requests with an empty password for a candidate document identifier, an anonymous attacker can distinguish whether a document is public/nonexistent, password-protected, or exists at the hidden or forbidden tier, thereby confirming the existence of documents they are not permitted to access. Because hidden and forbidden entries store an empty password, such requests also cause the server to issue a publish-auth cookie for forbidden documents. |
| actix-http versions before 3.12.1 contain an HTTP request smuggling vulnerability in the HTTP/1.1 parser that accepts requests with both Content-Length and Transfer-Encoding: chunked headers. Unauthenticated remote attackers can exploit this through a front-end intermediary to desynchronize backend requests and smuggle malicious HTTP requests to the Actix service. |
| SiYuan versions before v3.7.4 contain an information disclosure vulnerability in the getAttributeViewBacklinks endpoint that consults the forbidden access list instead of the visibility list when filtering backlinks. Anonymous readers can supply a publicly visible database row identifier to discover hidden-tier documents that reference it, receiving the database name, row title, and document path of hidden documents. |
| SiYuan versions before v3.7.4 contain an information disclosure vulnerability in the getRefIDsByFileAnnotationID endpoint that returns block identifiers citing PDF annotations without publish-access filtering. Attackers can extract block identifiers from restricted documents by supplying annotation identifiers visible in published pages, revealing citation relationships across forbidden and password-protected tiers. |
| Budibase versions 3.39.4 before 3.40.0 contain an authorization regression in the S3 attachment upload endpoint that allows BASIC users to obtain S3 PutObject presigned URLs by sending POST requests to the attachments endpoint. The route was changed from a BUILDER permission check to a TABLE/WRITE check, which BASIC users hold by default. Attackers can specify arbitrary S3 buckets in the request body to generate presigned URLs for writing to any bucket accessible by the stored IAM credentials, enabling unauthorized file uploads. |
| FileBrowser versions before 2.63.19 fail to enforce the declared Upload-Length in the TUS resumable-upload PATCH endpoint, allowing authenticated users to write arbitrary data to disk. Attackers can send oversized request bodies that exceed the declared upload length to exhaust available disk space and cause service unavailability. |
| File Browser versions before 2.63.20 fail to honor the createUserDir isolation in proxy and hook authentication auto-provisioning paths. Attackers with valid upstream-authenticated credentials can read, modify, delete, and share files belonging to other users by exploiting the server root scope assignment. |
| FileBrowser before 2.63.19 does not account for case-insensitive filesystems when checking home directory ownership during self-registration. When Signup and CreateUserDir are enabled and FileBrowser's root is on a case-insensitive filesystem (confirmed on Windows/NTFS), two self-registered usernames that differ only in letter case (e.g., CaseVictim and casevictim) are stored as distinct accounts but resolve to the same physical home directory, because the scope-ownership check compares the persisted scope as an exact case-sensitive string. A second registrant can therefore read, overwrite, and delete another account's files through authenticated HTTP endpoints, without needing an existing account or victim interaction. |
| The Grav API plugin (getgrav/grav-plugin-api) versions >= 1.0.6 and <= 1.0.11 contain a privilege escalation vulnerability. A scoped API key minted on a super-admin account bypasses its declared scope cap on four isSuperAdmin()-gated write endpoints (in GroupsController, AccountsConfigController, PreferencesController, and DashboardWidgetController). These endpoints authorize via a super-admin early-return that never invokes requirePermission()—the sole enforcement point of the scope cap—so a 'read-only'-scoped key (e.g. api.pages.read) can perform super-only write operations, including rewriting group ACL maps to grant super-admin privileges to arbitrary accounts. A leaked or delegated read-only CI/monitoring key can therefore gain full super-admin write capability. Fixed in 1.0.13. |
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| The Flex Objects plugin (through 1.4.6, tested with Grav 2.0.11) contains an incorrect authorization vulnerability in its Flex Objects API. FlexApiController::update() checks only the general Flex directory permission and does not apply the additional target/field/super-admin checks enforced by the dedicated Users and Groups API controllers. An authenticated account with api.access, admin.login, and users.update permissions (but without api.users.write or admin.super) can use the generic /api/v1/flex-objects/user-accounts endpoint to change a super administrator's password, or the /api/v1/flex-objects/user-groups endpoint to grant its group admin.super, resulting in full site takeover. Fixed in Flex Objects 1.4.7. |
| Grav API plugin versions before 1.0.13 fail to enforce API key scope caps in ConfigController super-scope gates, allowing scoped keys to write scheduler configuration. Attackers with a scoped api.config.write key can inject arbitrary commands into scheduler.custom_jobs that execute via Symfony Process for remote code execution. |
| The Grav API plugin (getgrav/grav-plugin-api) before 1.0.13 contains an API-key scope-cap bypass in UsersController's create() and update() methods. These methods enforce the scope cap only for api.users.write, but gate super-privilege grants on a bare isSuperAdmin() check that reads access.api.super directly without consulting the key's scopes. As a result, an api.users.write-scoped key minted on a super account can set access.api.super or assign a super-granting group to mint or promote a full super account, then authenticate as that account for uncapped administrative privileges. |
| Grav Plugin API (getgrav/grav-plugin-api) before 1.0.13 fails to enforce API-key scope caps in InvitationsController. The strip-super and accept-groups decisions are gated on a bare isSuperAdmin() check rather than a scope-aware permission check, so a least-privilege API key (scoped to api.users.write) minted on a super account can create an invitation record containing super-admin access flags. When the invitation is accepted, those flags are written verbatim to the new account, resulting in privilege escalation to a fully controlled super account. |
