DLL Injection and Code Injection in native compiled applications MCQs

DLL Injection is a technique used to inject malicious code into the address space of a running process by loading an external DLL, potentially leading to unauthorized code execution.

Attackers achieve DLL Injection by using legitimate functions like LoadLibrary to load a malicious DLL into the target process, injecting their code into the address space.

The primary goal of DLL Injection attacks is to execute arbitrary code within the context of a target process, allowing attackers to manipulate or control the behavior of the process.

Reflective DLL Injection is a technique that involves injecting malicious code into the address space of a running process using reflective loading, allowing the injected DLL to be self-contained and independent.

Process hollowing differs from traditional DLL Injection as it does not involve injecting code into a target process. Instead, it replaces the content of a legitimate process with the malicious code.

Code Injection is a technique that involves injecting malicious code into the address space of a running process, allowing attackers to influence or control the behavior of the process.

Attackers can perform Code Injection by exploiting vulnerabilities to inject code into the address space of a running process, potentially leading to unauthorized code execution.

Direct code injection techniques are significant as they allow attackers to inject code directly into the process without the use of external modules like DLLs, making the injection more stealthy.

Reflective code injection involves injecting code into a target process without using external modules like DLLs, making the injected code self-contained and independent.

The primary goal of Code Injection attacks is to execute arbitrary code within the context of a target process, allowing attackers to influence or control the behavior of the process.

Attackers can use Code Injection to bypass security mechanisms by injecting code that evades detection into the address space of a running process, allowing them to execute malicious operations undetected.

Injecting malicious code into web browser processes is often done to steal sensitive information such as login credentials or browsing history, compromising the security and privacy of users.

Code injection contributes to privilege escalation attacks by injecting code that exploits vulnerabilities, allowing attackers to escalate privileges within a compromised system.

Obfuscation in code injection attacks is used to disguise injected code, making it more challenging for security measures to detect and analyze the malicious code.

Attackers can use code injection to perform remote code execution by injecting code that establishes a connection to a remote server, enabling them to execute commands and maintain control.

Shellcode in code injection attacks serves as a payload for executing specific actions within the target process, allowing attackers to achieve their objectives.

Code injection contributes to data exfiltration attacks by injecting code that steals and transmits sensitive data to external servers, compromising the confidentiality of the data.

"RunPE" techniques in code injection attacks involve injecting code into a running process without using external modules like DLLs, making the injection more stealthy.

Attackers can use code injection to manipulate system resources by injecting code that manipulates system components, potentially leading to denial-of-service or system instability.

Injecting code into system processes is significant for attackers as it helps achieve persistence and evade detection by placing malicious code within critical system components.

Code injection contributes to the execution of privilege escalation exploits by injecting code that exploits vulnerabilities, allowing attackers to escalate privileges within a compromised system.

Code caves in code injection attacks provide space within the target process for injected code to reside, facilitating the execution of malicious operations.

Attackers can use code injection to manipulate file operations by injecting code that manipulates file-related functions, potentially leading to unauthorized access or data corruption.

"Atom bombing" techniques in code injection attacks involve injecting code into a running process by abusing Windows' Atom Tables, providing an additional avenue for malicious activity.

Code injection contributes to the execution of ransomware attacks by injecting code that encrypts files and demands ransom payments, causing significant harm to victims.

Using position-independent code in code injection attacks is significant as it allows injected code to execute regardless of its location in memory, improving the flexibility of the attack.

Code injection can be used for injecting rootkits into a target system by injecting code that hides malicious activities within the operating system, making detection and removal more challenging.

"Process injection" techniques in code injection attacks involve injecting code into a running process by exploiting vulnerabilities or using legitimate functions, providing a means for malicious operations.

Attackers can use code injection to manipulate network communications by injecting code that manipulates network-related functions, potentially leading to unauthorized access or data interception, and influencing communication behavior.

Code injection in anti-analysis techniques involves injecting code that evades analysis by security researchers or antivirus tools, making it more challenging to detect and understand the malicious behavior.