Nemoclaw
Monthly
Unauthenticated access to the NVIDIA NemoClaw inference server on Linux exposes sensitive model inference data and enables denial of service by adjacent network attackers. The flaw stems from a missing authentication check (CWE-306) on the inference service endpoint, meaning any host on the same network segment can interact with the service without credentials. No active exploitation has been confirmed by CISA KEV and no public exploit code is known at time of analysis, but the low attack complexity and absence of authentication barriers make this straightforward to exploit for any attacker with adjacent network positioning.
Improper certificate validation in NVIDIA NemoClaw for Linux (versions up to and including 0.0.1) allows network attackers to intercept or manipulate the deployment process, potentially yielding information disclosure, data tampering, remote code execution, and privilege escalation. The flaw stems from the deployment routine failing to properly verify TLS certificates (CWE-295), enabling machine-in-the-middle attacks. No public exploit is identified at time of analysis and it is not listed in CISA KEV, but the vendor rates full technical impact.
Code injection in NVIDIA NemoClaw's migration command (Linux, versions up to 0.0.17) allows a local attacker with low-privilege access to inject and execute arbitrary code within the process context, yielding full confidentiality, integrity, and availability impact on the vulnerable system. SSVC rates technical impact as total, consistent with the CVSS 7.8 rating, though EPSS remains very low at 0.16% (5th percentile) and no active exploitation has been observed. No public exploit has been identified at time of analysis.
Untrusted code execution in NVIDIA NemoClaw for Linux (versions up to and including 0.0.21) stems from the installer executing code without verifying its integrity, letting an attacker who can supply or interpose malicious code during installation achieve arbitrary code execution, privilege escalation, data tampering, information disclosure, and denial of service. NVIDIA assigns a CVSS of 9.8 with a fully network-based, no-privilege, no-interaction vector, though the flaw is rooted in the install process. There is no public exploit identified at time of analysis, EPSS is low at 0.25% (17th percentile), and CISA SSVC records no known exploitation.
OS command injection in NVIDIA NemoClaw for Linux allows a local low-privileged attacker to execute arbitrary operating system commands through the application's status and logs plugin command interfaces. The CVSS 7.8 score reflects high impact across confidentiality, integrity, and availability with low attack complexity and no user interaction required. No public exploit identified at time of analysis, and no CISA KEV listing observed, but the fully unscopeed local impact makes this a meaningful risk on multi-tenant or shared Linux systems running NemoClaw.
OS command injection in NVIDIA NemoClaw's NIM management component on Linux enables a local authenticated attacker to execute arbitrary operating system commands with the privileges of the targeted process. All versions of NemoClaw are indicated as affected per NVD CPE data (wildcard version range). Successful exploitation can result in full code execution, persistent data tampering, sensitive information disclosure, and denial of service on the host. No public exploit code or CISA KEV listing has been identified at time of analysis.
OS command injection in NVIDIA NemoClaw's command-line interface on Linux enables a local low-privileged attacker to execute arbitrary operating system commands, leading to full compromise of confidentiality, integrity, and availability. All versions of NemoClaw appear affected per the CPE wildcard (*), and the vulnerability is rooted in improper neutralization of user-supplied input passed to shell commands (CWE-78). No public exploit code and no CISA KEV listing have been identified at time of analysis, limiting current real-world risk primarily to environments with untrusted local users.
Weak authentication in NVIDIA NemoClaw for Linux (versions 0 through 0.0.4) lets remote attackers bypass the authentication enforced by its remote-access helper workflow, enabling code execution, information disclosure, and data tampering on the host. The flaw was self-reported by NVIDIA and carries a critical 9.8 CVSS rating with a fully unauthenticated network vector. No public exploit identified at time of analysis, and EPSS estimates only a 0.57% 30-day exploitation probability, so the raw severity outpaces observed real-world activity.
Unverified code download in NVIDIA NemoClaw installation scripts for Linux (versions 0.0.0 through 0.0.21) allows a network-positioned attacker to substitute malicious payloads during installation, enabling code execution, privilege escalation, information disclosure, and data tampering on the target host. The root cause is CWE-494: the installation pipeline fetches remote code without cryptographic integrity verification, leaving the download channel open to man-in-the-middle substitution or upstream server compromise. No public exploit has been identified at time of analysis; EPSS sits at 0.20% (9th percentile) and SSVC confirms Exploitation: none, placing this firmly in the theoretical high-severity category rather than an actively exploited threat.
OS command injection in NVIDIA NemoClaw's Telegram bridge component on Linux enables a local attacker with low-privileged access to execute arbitrary operating system commands. Exploitation yields full confidentiality, integrity, and availability compromise on the affected host, with potential for privilege escalation beyond the invoking user. No active exploitation is confirmed in CISA KEV and no public exploit code has been identified at time of analysis, but the low attack complexity (AC:L) and minimal privilege requirement (PR:L) lower the practical bar for exploitation once local access is obtained.
Sensitive information disclosure in NVIDIA NemoClaw arises from process invocation that exposes secrets - such as API keys or authentication tokens - through visible command-line arguments or environment variables, observable by other local users via standard tools like `ps`. All versions are affected per the wildcard CPE (`cpe:2.3:a:nvidia:nemoclaw:*:*:*:*:*:*:*:*`), and exploitation requires only a low-privileged local account on the same system. No active exploitation has been confirmed (not in CISA KEV), and no public proof-of-concept exploit code has been identified at time of analysis.
Credential exposure in NVIDIA NemoClaw allows a local low-privileged user, upon triggering user interaction, to access insufficiently protected credential material stored or accessible within the application's runtime context. The CVSS 5.6 Medium score reflects the constrained local attack vector (AV:L), but the high confidentiality impact (C:H) indicates that successfully harvested credentials could enable meaningful lateral movement or downstream access beyond the initial system. No public exploit code has been identified and no CISA KEV listing exists at time of analysis.
Unauthenticated access to the NVIDIA NemoClaw inference server on Linux exposes sensitive model inference data and enables denial of service by adjacent network attackers. The flaw stems from a missing authentication check (CWE-306) on the inference service endpoint, meaning any host on the same network segment can interact with the service without credentials. No active exploitation has been confirmed by CISA KEV and no public exploit code is known at time of analysis, but the low attack complexity and absence of authentication barriers make this straightforward to exploit for any attacker with adjacent network positioning.
Improper certificate validation in NVIDIA NemoClaw for Linux (versions up to and including 0.0.1) allows network attackers to intercept or manipulate the deployment process, potentially yielding information disclosure, data tampering, remote code execution, and privilege escalation. The flaw stems from the deployment routine failing to properly verify TLS certificates (CWE-295), enabling machine-in-the-middle attacks. No public exploit is identified at time of analysis and it is not listed in CISA KEV, but the vendor rates full technical impact.
Code injection in NVIDIA NemoClaw's migration command (Linux, versions up to 0.0.17) allows a local attacker with low-privilege access to inject and execute arbitrary code within the process context, yielding full confidentiality, integrity, and availability impact on the vulnerable system. SSVC rates technical impact as total, consistent with the CVSS 7.8 rating, though EPSS remains very low at 0.16% (5th percentile) and no active exploitation has been observed. No public exploit has been identified at time of analysis.
Untrusted code execution in NVIDIA NemoClaw for Linux (versions up to and including 0.0.21) stems from the installer executing code without verifying its integrity, letting an attacker who can supply or interpose malicious code during installation achieve arbitrary code execution, privilege escalation, data tampering, information disclosure, and denial of service. NVIDIA assigns a CVSS of 9.8 with a fully network-based, no-privilege, no-interaction vector, though the flaw is rooted in the install process. There is no public exploit identified at time of analysis, EPSS is low at 0.25% (17th percentile), and CISA SSVC records no known exploitation.
OS command injection in NVIDIA NemoClaw for Linux allows a local low-privileged attacker to execute arbitrary operating system commands through the application's status and logs plugin command interfaces. The CVSS 7.8 score reflects high impact across confidentiality, integrity, and availability with low attack complexity and no user interaction required. No public exploit identified at time of analysis, and no CISA KEV listing observed, but the fully unscopeed local impact makes this a meaningful risk on multi-tenant or shared Linux systems running NemoClaw.
OS command injection in NVIDIA NemoClaw's NIM management component on Linux enables a local authenticated attacker to execute arbitrary operating system commands with the privileges of the targeted process. All versions of NemoClaw are indicated as affected per NVD CPE data (wildcard version range). Successful exploitation can result in full code execution, persistent data tampering, sensitive information disclosure, and denial of service on the host. No public exploit code or CISA KEV listing has been identified at time of analysis.
OS command injection in NVIDIA NemoClaw's command-line interface on Linux enables a local low-privileged attacker to execute arbitrary operating system commands, leading to full compromise of confidentiality, integrity, and availability. All versions of NemoClaw appear affected per the CPE wildcard (*), and the vulnerability is rooted in improper neutralization of user-supplied input passed to shell commands (CWE-78). No public exploit code and no CISA KEV listing have been identified at time of analysis, limiting current real-world risk primarily to environments with untrusted local users.
Weak authentication in NVIDIA NemoClaw for Linux (versions 0 through 0.0.4) lets remote attackers bypass the authentication enforced by its remote-access helper workflow, enabling code execution, information disclosure, and data tampering on the host. The flaw was self-reported by NVIDIA and carries a critical 9.8 CVSS rating with a fully unauthenticated network vector. No public exploit identified at time of analysis, and EPSS estimates only a 0.57% 30-day exploitation probability, so the raw severity outpaces observed real-world activity.
Unverified code download in NVIDIA NemoClaw installation scripts for Linux (versions 0.0.0 through 0.0.21) allows a network-positioned attacker to substitute malicious payloads during installation, enabling code execution, privilege escalation, information disclosure, and data tampering on the target host. The root cause is CWE-494: the installation pipeline fetches remote code without cryptographic integrity verification, leaving the download channel open to man-in-the-middle substitution or upstream server compromise. No public exploit has been identified at time of analysis; EPSS sits at 0.20% (9th percentile) and SSVC confirms Exploitation: none, placing this firmly in the theoretical high-severity category rather than an actively exploited threat.
OS command injection in NVIDIA NemoClaw's Telegram bridge component on Linux enables a local attacker with low-privileged access to execute arbitrary operating system commands. Exploitation yields full confidentiality, integrity, and availability compromise on the affected host, with potential for privilege escalation beyond the invoking user. No active exploitation is confirmed in CISA KEV and no public exploit code has been identified at time of analysis, but the low attack complexity (AC:L) and minimal privilege requirement (PR:L) lower the practical bar for exploitation once local access is obtained.
Sensitive information disclosure in NVIDIA NemoClaw arises from process invocation that exposes secrets - such as API keys or authentication tokens - through visible command-line arguments or environment variables, observable by other local users via standard tools like `ps`. All versions are affected per the wildcard CPE (`cpe:2.3:a:nvidia:nemoclaw:*:*:*:*:*:*:*:*`), and exploitation requires only a low-privileged local account on the same system. No active exploitation has been confirmed (not in CISA KEV), and no public proof-of-concept exploit code has been identified at time of analysis.
Credential exposure in NVIDIA NemoClaw allows a local low-privileged user, upon triggering user interaction, to access insufficiently protected credential material stored or accessible within the application's runtime context. The CVSS 5.6 Medium score reflects the constrained local attack vector (AV:L), but the high confidentiality impact (C:H) indicates that successfully harvested credentials could enable meaningful lateral movement or downstream access beyond the initial system. No public exploit code has been identified and no CISA KEV listing exists at time of analysis.