1. What are some essential skills for a malware analyst?
2. How can I practice analyzing malware safely?
3. What are some common types of malware and how do they work
4. What tools and techniques are used in malware analysis?
1. What Is Malware?
Malware is a code that performs malicious actions; it can take the form of an executable,
script, code, or any other software. Attackers use malware to steal sensitive information,
spy on the infected system, or take control of the system. It typically gets into your system
without your consent and can be delivered via various communication channels such as
email, web, or USB drives.
The following are some of the malicious actions performed by malware:
Disrupting computer operations
Stealing sensitive information, including personal, business, and financial data
Unauthorized access to the victim's system
Spying on the victims
Sending spam emails
Engaging in distributed-denial-of-service attacks (DDOS)
Locking up the files on the computer and holding them for ransom
2. What Is Malware Analysis?
Malware analysis is the study of malware's behavior. The objective of malware analysis is
to understand the working of malware and how to detect and eliminate it. It involves
analyzing the suspect binary in a safe environment to identify its characteristics and
functionalities so that better defenses can be built to protect an organization's network.
3. Why Malware Analysis?
The primary motive behind performing malware analysis is to extract information from the
malware sample, which can help in responding to a malware incident. The goal of malware
analysis is to determine the capability of malware, detect it, and contain it. It also helps in
determining identifiable patterns that can be used to cure and prevent future infections
4. Types Of Malware Analysis
To understand the working and the characteristics of malware and to assess its impact on
the system, you will often use different analysis techniques. The following is the
classification of these analysis techniques:
Static analysis: This is the process of analyzing a binary without executing it. It is
easiest to perform and allows you to extract the metadata associated with the
suspect binary. Static analysis might not reveal all the required information, but
it can sometimes provide interesting information that helps in determining
where to focus your subsequent analysis efforts
Dynamic analysis (Behavioral Analysis): This is the process of executing the
suspect binary in an isolated environment and monitoring its behavior. This
analysis technique is easy to perform and gives valuable insights into the activity
of the binary during its execution. This analysis technique is useful but does not
reveal all the functionalities of the hostile program
Code analysis: It is an advanced technique that focuses on analyzing the code to
understand the inner workings of the binary. This technique reveals information
that is not possible to determine just from static and dynamic analysis. Code
analysis is further divided into Static code analysis and Dynamic code analysis. Static
code analysis involves disassembling the suspect binary and looking at the code to
understand the program's behavior, whereas Dynamic code analysis involves
debugging the suspect binary in a controlled manner to understand its
functionality. Code analysis requires an understanding of the programming
language and operating system concepts
Memory analysis (Memory forensics): This is the technique of analyzing the
computer's RAM for forensic artifacts. It is typically a forensic technique, but
integrating it into your malware analysis will assist in gaining an understanding
of the malware's behavior after infection. Memory analysis is especially useful to
determine the stealth and evasive capabilities of the malware
Integrating different analysis techniques while performing malware
analysis can reveal a wealth of contextual information, which will prove
to be valuable in your malware investigation
Comments
Post a Comment