CVE-2026-44414 in Industrial Edge Cloud Device
Summary
by MITRE • 10/13/2026
A vulnerability has been identified in Industrial Edge Cloud Device (IECD), Industrial Edge Device Kit - arm64 V1.10, Industrial Edge Device Kit - arm64 V1.11, Industrial Edge Device Kit - arm64 V1.12, Industrial Edge Device Kit - arm64 V1.13, Industrial Edge Device Kit - arm64 V1.14, Industrial Edge Device Kit - arm64 V1.15, Industrial Edge Device Kit - arm64 V1.16, Industrial Edge Device Kit - arm64 V1.17, Industrial Edge Device Kit - arm64 V1.18, Industrial Edge Device Kit - arm64 V1.19, Industrial Edge Device Kit - arm64 V1.20, Industrial Edge Device Kit - arm64 V1.21, Industrial Edge Device Kit - arm64 V1.22, Industrial Edge Device Kit - arm64 V1.23, Industrial Edge Device Kit - arm64 V1.24, Industrial Edge Device Kit - arm64 V1.25, Industrial Edge Device Kit - arm64 V1.26, Industrial Edge Device Kit - arm64 V1.27, Industrial Edge Device Kit - arm64 V1.28, Industrial Edge Device Kit - arm64 V1.5, Industrial Edge Device Kit - arm64 V1.6, Industrial Edge Device Kit - arm64 V1.7, Industrial Edge Device Kit - arm64 V1.8, Industrial Edge Device Kit - arm64 V1.9, Industrial Edge Device Kit - x86-64 V1.10, Industrial Edge Device Kit - x86-64 V1.11, Industrial Edge Device Kit - x86-64 V1.12, Industrial Edge Device Kit - x86-64 V1.13, Industrial Edge Device Kit - x86-64 V1.14, Industrial Edge Device Kit - x86-64 V1.15, Industrial Edge Device Kit - x86-64 V1.16, Industrial Edge Device Kit - x86-64 V1.17, Industrial Edge Device Kit - x86-64 V1.18, Industrial Edge Device Kit - x86-64 V1.19, Industrial Edge Device Kit - x86-64 V1.20, Industrial Edge Device Kit - x86-64 V1.21, Industrial Edge Device Kit - x86-64 V1.22, Industrial Edge Device Kit - x86-64 V1.23, Industrial Edge Device Kit - x86-64 V1.24, Industrial Edge Device Kit - x86-64 V1.25, Industrial Edge Device Kit - x86-64 V1.26, Industrial Edge Device Kit - x86-64 V1.27, Industrial Edge Device Kit - x86-64 V1.28, Industrial Edge Device Kit - x86-64 V1.5, Industrial Edge Device Kit - x86-64 V1.6, Industrial Edge Device Kit - x86-64 V1.7, Industrial Edge Device Kit - x86-64 V1.8, Industrial Edge Device Kit - x86-64 V1.9, Industrial Edge Own Device (IEOD), Industrial Edge Virtual Device (IEVD), SCALANCE LPE9413 (6GK5998-3GS01-2AC2), SCALANCE LPE9433 (6GK5998-3GS11-2AC2), SIMATIC IoT2050 Advanced IED (6ES7647-0BW00-1YA2), SIMATIC IoT2050 SM IED (6ES7647-0CW00-1AA2), SIMATIC IPC BX-21A Industrial Edge Device, SIMATIC IPC BX-39A Industrial Edge Device, SIMATIC IPC BX-59A Industrial Edge Device, SIMATIC IPC127E Industrial Edge Device, SIMATIC IPC227E Industrial Edge Device, SIMATIC IPC227G Industrial Edge Device, SIMATIC IPC427E Industrial Edge Device, SIMATIC IPC847E Industrial Edge Device. Affected systems do not properly restrict access to internal APIs and paths for authenticated users. This could allow an authenticated remote attacker to access sensitive internal information, which in the worst case could be leveraged to facilitate unauthorized access to the system.
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Analysis
by VulDB Data Team • 10/13/2026
The identified vulnerability affects a broad spectrum of Siemens Industrial Edge hardware and software components, including various versions of the Industrial Edge Device Kit for both arm64 and x86-64 architectures, as well specific industrial edge devices such as SCALANCE LPE9413, SCALANCE LPE9433, SIMATIC IoT2050 variants, and several models within the SIMATIC IPC series. This extensive list of affected products highlights a systemic issue in how these platforms handle authentication boundaries for internal application programming interfaces and resource paths. The core technical flaw lies in an improper access control mechanism where authenticated users are granted permissions that exceed their intended privileges regarding sensitive internal endpoints. Rather than restricting API calls to only those necessary for the user's specific role or function, the system allows any authenticated session to interact with administrative-level APIs or retrieve confidential configuration data and operational metrics that should remain isolated from standard user contexts.
This misconfiguration aligns directly with CWE-269, which classifies Improper Privilege Control vulnerabilities where a subject is granted more privileges than it requires for its legitimate purpose. In the context of industrial control systems and edge computing devices, this flaw creates a significant security gap because authenticated users often include operators or maintenance personnel who may not require deep administrative access to internal system components. By allowing these users to probe and interact with unrestricted internal APIs, attackers can enumerate sensitive information such as network configurations, authentication tokens, firmware update mechanisms, or connected device details. This exposure violates the principle of least privilege, a fundamental tenet in secure industrial architecture design, thereby increasing the attack surface for systems that are often deployed in critical infrastructure environments where availability and integrity are paramount.
From an operational perspective, the ability to access this sensitive internal information serves as a powerful reconnaissance tool for adversaries. While the initial vulnerability requires authentication, which limits its exploitability by unauthenticated remote attackers, it significantly lowers the barrier for insider threats or compromised user credentials. An attacker with valid but limited credentials can leverage these unrestricted paths to gather intelligence about the network topology and system architecture. In the worst-case scenario described in the vendor advisory, this information gathering phase facilitates unauthorized access to the underlying operating system or control logic. This progression maps closely to ATT&CK technique T1078, Valid Accounts, where attackers use legitimate credentials to move laterally within a network or escalate privileges by exploiting trust relationships and insufficient separation of duties between different user roles on the device.
The implications for industrial environments are severe because these devices often serve as gateways connecting OT networks with IT infrastructure. If an attacker gains access to internal APIs that expose management interfaces, they may be able to manipulate settings that affect data flow, trigger denial-of-service conditions by misconfiguring network parameters, or install malicious firmware updates if update mechanisms are also exposed through the same unrestricted paths. The lack of strict role-based access control means that a single compromised user account can potentially lead to full system compromise, undermining the security posture of the entire industrial edge deployment. This is particularly concerning given that many of these devices operate in environments with limited physical security or where remote management is common, increasing the likelihood of credential theft via phishing or other social engineering attacks.
To mitigate this vulnerability, organizations must prioritize applying the vendor-provided software updates immediately to patch the access control logic within the Industrial Edge platform and affected device firmware versions. Until patches are applied, administrators should implement strict network segmentation policies to isolate these devices from untrusted networks and limit administrative access to a minimal set of highly privileged accounts with multi-factor authentication enabled. Additionally, implementing robust logging and monitoring solutions can help detect anomalous API calls or unusual data exfiltration patterns indicative of exploitation attempts. Security teams should also review user roles within the Industrial Edge environment to ensure that no standard operator account has been inadvertently granted administrative privileges over internal APIs, thereby enforcing the principle of least privilege at the application level while waiting for comprehensive vendor remediation.