$1.$ Malware reverse engineering $\_\_\_$

a$.$ basic static malware analysis

$2.$ Reverse engineering extracts $\_\_\_$ at different levels as a catalyst to performing malware analysis.

b$.$ malware analysis

$3.\_\_\_$ approaches using malware analysis and reverse engineering techniques present opportunities to pivot as needed to ensure efficient and effective reversing and analysis of the malware.

c$.$ disassembler

$4.$ A $\_\_\_$ converts compiled binary into its native code; however, there is not a decompiler for all architectures.

d$.$ debugger

$5.$ A $\_\_\_$ is used to convert the compiled binary into a human readable, assembly language form.

e$.$ is a process that accepts binary data as input to convert into its respective components.

$6.$ A $\_\_\_$ allows the controlled execution of the binary executable and functions as a disassembler to see how it flows and what actions it takes, and the implications to the underlying system and network.

f$.$ detection

$7.$ The principal objective of $\_\_\_$ is to discover malicious software before it executes.

g$.$ hybrid

$8.$ This technique is the most common because it does not require code execution. $\_\_\_$

h$.$ on$-$the$-$job experience

$9.$ A key challenge is the $\_\_\_$ of malware interactions at each OSI layer and the different levels of program execution to include assembly, system and function calls, and malware communications.

i$.$ information

$10.$ Malware reverse engineering is often considered a skillset requiring heavy investment in $\_\_\_$ due to the various tools, techniques, and methodologies leveraged in the pursuit of malware.

j$.$ decompiler