(2024). Artificial intelligence (AI) and reverse engineering -THE BASICS.
reformatted for clarity_________________________________________________________________________
Understanding System Functionality: AI can analyse the behaviour of a system,
such as a software program or a physical device, to infer its internal workings.
This can be immensely helpful for engineers trying to reverse engineer complex systems,
allowing them to understand the relationships between different components
and how they interact.
AI algorithms can process vast amounts of data, like a program's input, output,
and internal states. By analysing these, AI can identify patterns and relationships
between different parts of the system. Imagine a program that takes numbers as input
and produces specific outputs.
AI can analyse these inputs and outputs to build a model of how the program transforms
the data internally. This model helps engineers understand how the program works
even without seeing its source code.
Decoding Encoded Data: AI can be used to crack codes and reverse engineer encryption
algorithms. This has applications in security, where it can be used to identify
vulnerabilities in encryption systems, and also in data recovery, where it can be used
to access lost data that has been encrypted.
AI excels at pattern recognition. It can be trained on massive datasets of encrypted
and unencrypted data. This training allows it to identify patterns in the encrypted data
that might correspond to specific coding schemes. By analysing these patterns,
AI can potentially crack the code and reveal the original data. This is similar
to how AI can recognize objects in images-by finding patterns that differentiate
a cat from a dog.
Identifying Design Patterns: By analysing a system's design, AI can identify
patterns that can reveal clues about how it was built and what its purpose is.
This can be a valuable asset in understanding the logic behind a system and
facilitating the process of recreating it.
AI can analyse the structure of a system, like the layout of a circuit board
or the organization of code. By comparing this structure to known design patterns,
AI can make educated guesses about how the system was built and what its purpose might be.
Imagine AI analysing a circuit board. By recognizing patterns of how components
are connected (known design patterns for certain functionalities), AI can infer
what function each part serves in the overall circuit.
Automating Recreation Tasks: Once a system has been reverse engineered,
AI can be used to automate the process of recreating it. This can involve tasks
such as generating code, designing new components, or even simulating the system's
behaviour. This can significantly speed up the reverse engineering process and
make it more efficient. Once AI understands a system, it can be used to automate
tasks involved in rebuilding it. In code generation, AI can analyse existing code
and use that knowledge to write new code with similar functionality.
For designing new components, AI can be trained on existing designs and use
that knowledge to create new components that fit the reverse-engineered system.
AI can even simulate the system's behaviour by creating a virtual model that mimics
how the original system works. In essence, AI acts as a powerful analyst in
the reverse engineering process. It can sift through complex data, identify
hidden patterns, and even help recreate the system based on its findings.
_______________________________________________________________________________________________
Drat the luck, my MD/PhD rug rat left his research lab position on Monday to go into industry. He might have been able to get this paper for me.
Anybody out there in a research organization in order to get the paper in .PDF?