Executar análise estática (SAST) na base de código à procura do padrão inseguro no fluxo de dados.
Improper Protection against Electromagnetic Fault Injection (EM-FI)
This vulnerability occurs when a hardware device lacks sufficient shielding against electromagnetic interference, allowing attackers to disrupt its internal operations. By inducing targeted…
What is CWE-1319?
Real-world CVEs caused by CWE-1319
-
Chain: microcontroller system-on-chip uses a register value stored in flash to set product protection state on the memory bus and does not contain protection against fault injection (CWE-1319) which leads to an incorrect initialization of the memory bus (CWE-1419) causing the product to be in an unprotected state.
Trajeto do atacante passo a passo
- 1
Identificar um caminho de código que trata input não confiável sem validação.
- 2
Criar um payload que explora o comportamento inseguro — injeção, traversal, overflow ou abuso de lógica.
- 3
Entregar o payload através de um pedido normal e observar a reação da aplicação.
- 4
Iterar até que a resposta exponha dados, execute código do atacante ou escale privilégios.
Vulnerable pseudo
A MITRE não publicou um exemplo de código para este CWE. O padrão abaixo é ilustrativo — consulte os Recursos para referências canónicas.
// Example pattern — see MITRE for the canonical references.
function handleRequest(input) {
// Untrusted input flows directly into the sensitive sink.
return executeUnsafe(input);
} Secure pseudo
// Validate, sanitize, or use a safe API before reaching the sink.
function handleRequest(input) {
const safe = validateAndEscape(input);
return executeWithGuards(safe);
} How to prevent CWE-1319
- Architecture and Design / Implementation - 1. Redundancy - By replicating critical operations and comparing the two outputs can help indicate whether a fault has been injected. - 2. Error detection and correction codes - Gay, Mael, et al. proposed a new scheme that not only detects faults injected by a malicious adversary but also automatically corrects single nibble/byte errors introduced by low-multiplicity faults. - 3. Fail by default coding - When checking conditions (switch or if) check all possible cases and fail by default because the default case in a switch (or the else part of a cascaded if-else-if construct) is used for dealing with the last possible (and valid) value without checking. This is prone to fault injection because this alternative is easily selected as a result of potential data manipulation [REF-1141]. - 4. Random Behavior - adding random delays before critical operations, so that timing is not predictable. - 5. Program Flow Integrity Protection - The program flow can be secured by integrating run-time checking aiming at detecting control flow inconsistencies. One such example is tagging the source code to indicate the points not to be bypassed [REF-1147]. - 6. Sensors - Usage of sensors can detect variations in voltage and current. - 7. Shields - physical barriers to protect the chips from malicious manipulation.
How to detect CWE-1319
Executar testes dinâmicos de segurança de aplicações (DAST) contra o endpoint em execução.
Monitorizar os registos em tempo de execução para traços de exceção invulgares, input malformado ou tentativas de contornar a autorização.
Revisão de código: sinalizar qualquer novo código que trate input desta superfície sem usar os ajudantes validados do framework.
O Plexicus deteta automaticamente o CWE-1319 e abre um PR de correção em menos de 60 segundos.
O Codex Remedium analisa cada commit, identifica esta fraqueza exata e entrega um pull request pronto para revisão com o patch. Sem tickets. Sem transferências.
Frequently asked questions
O que é o CWE-1319?
This vulnerability occurs when a hardware device lacks sufficient shielding against electromagnetic interference, allowing attackers to disrupt its internal operations. By inducing targeted electromagnetic pulses, an attacker can force the device to malfunction, potentially bypassing security checks or leaking sensitive data.
Qual a gravidade do CWE-1319?
A MITRE não publicou uma classificação de probabilidade de exploração para esta fraqueza. Trate-a como impacto médio até o seu modelo de ameaças provar o contrário.
Que linguagens ou plataformas são afetadas pelo CWE-1319?
MITRE lists the following affected platforms: Not OS-Specific, Not Architecture-Specific, System on Chip, Microcontroller Hardware, Memory Hardware, Power Management Hardware, Processor Hardware, Test/Debug Hardware.
Como posso prevenir o CWE-1319?
- 1. Redundancy - By replicating critical operations and comparing the two outputs can help indicate whether a fault has been injected. - 2. Error detection and correction codes - Gay, Mael, et al. proposed a new scheme that not only detects faults injected by a malicious adversary but also automatically corrects single nibble/byte errors introduced by low-multiplicity faults. - 3. Fail by default coding - When checking conditions (switch or if) check all possible cases and fail by default…
Como é que o Plexicus deteta e corrige o CWE-1319?
O motor SAST do Plexicus correlaciona a assinatura de fluxo de dados do CWE-1319 em cada commit. Quando é encontrada uma correspondência, o nosso agente Codex Remedium abre um PR de correção com o código corrigido, testes e um resumo de uma linha para o revisor.
Onde posso saber mais sobre o CWE-1319?
A MITRE publica a definição canónica em https://cwe.mitre.org/data/definitions/1319.html. Pode também consultar a documentação da OWASP e do NIST para orientações adjacentes.
Weaknesses related to CWE-1319
Protection Mechanism Failure
This weakness occurs when software either lacks a necessary security control, implements one that is too weak, or fails to activate an…
Inadequate Detection or Handling of Adversarial Input Perturbations in Automated Recognition Mechanism
This vulnerability occurs when a system uses automated AI or machine learning to classify complex inputs like images, audio, or text, but…
Semiconductor Defects in Hardware Logic with Security-Sensitive Implications
A security-critical hardware component contains physical flaws in its semiconductor material, which can cause it to malfunction and…
Incorrect Selection of Fuse Values
This vulnerability occurs when a hardware security fuse is incorrectly programmed to represent a 'secure' state as logic 0 (unblown). An…
Product Released in Non-Release Configuration
This vulnerability occurs when a product ships to customers while still configured with its pre-production or manufacturing settings,…
Missing Protection Against Hardware Reverse Engineering Using Integrated Circuit (IC) Imaging Techniques
This vulnerability occurs when hardware lacks safeguards against physical inspection, allowing attackers to extract sensitive data by…
Public Key Re-Use for Signing both Debug and Production Code
This vulnerability occurs when the same cryptographic key is used to sign both development/debug software builds and final production…
Missing Support for Security Features in On-chip Fabrics or Buses
This vulnerability occurs when the communication channels (fabrics or buses) within a chip lack built-in or enabled security features,…
Missing Immutable Root of Trust in Hardware
This vulnerability occurs when a hardware chip lacks a permanent, unchangeable root of trust. Without this immutable foundation, attackers…
Further reading
- MITRE — CWE-1319 oficial https://cwe.mitre.org/data/definitions/1319.html
- Secure Application Programming in the presence of Side Channel Attacks https://riscureprodstorage.blob.core.windows.net/production/2017/08/Riscure_Whitepaper_Side_Channel_Patterns.pdf
- Injection of transient faults using electromagnetic pulses. Practical results on a cryptographic system https://eprint.iacr.org/2012/123.pdf
- Precise Spatio-Temporal Electromagnetic Fault Injections on Data Transfers https://hal.telecom-paris.fr/hal-02338456/document
- BAM BAM!! On Reliability of EMFI for in-situ Automotive ECU Attacks https://eprint.iacr.org/2020/937.pdf
- Design and Validation of a Platform for Electromagnetic Fault Injection https://ieeexplore.ieee.org/stamp/stamp.jsp?tp=&arnumber=8311630
- Error control scheme for malicious and natural faults in cryptographic modules https://link.springer.com/content/pdf/10.1007/s13389-020-00234-7.pdf
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