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What else can I help you with?
What is encryption that is loosely defined as very difficult to break?
strong encryption
What do computer hackers have to do with computers?
they break into computers for information
What is a silly thing to say?
Hackers fix things, crackers break them.
The difference and similarity between hackers and crackers?
The crackers are malicious programmers who break into secure systems. The hackers are more interested in gaining knowledge about computer systems and possibly using this knowledge for playful pranks. Similarity is that both break laws but intention of hackers are not bad while intention of crackers are not good.
Do ethical hackers break into someone else's computer?
It's a very good possibility, ethical hackers are usually employed by a company to attempt to hack into security to check defenses. Definitely.
What are Hackers that get paid to break into systems called?
They are called code breakers or more like coding thieves
how do you turn off screen time without parent's permissions (only hackers answer!)?
Oh yeah! only proffessional Black hat hackers can answer, because it is impossible to break through apple's devices! see if you can!
How do hackers and crackers differ?
Hackers gain unauthorised access to electronic information systems and may view data, but will not tamper with it. Crackers on the other hand, break into systems with the intention or stealing or damaging the data in some way.
My friend made a bet with me that I couldn't break his custom encryption or something. I really have no idea what Im doing with this. Any help?
Whether one particular encryption algorithm can be broken with ease or only with a huge effort depends on the strength of the cipher. A simple encryption algorithm such as ROT-x or XOR-n are not very hard to break, however, present-day industry-standard encryption algorithms such as many forms of AES are very hard to break. Those simple algorithms are broken by application of logic and observation; one example are common picture puzzles where shapes are used to represent different digits, and combinations of shapes represent different mathematical equations. No encryption algorithm has been proven to be unbreakable, but some have been proven to be virtually impossible to break by brute force. Brute force attacks are done by trying out huge numbers of keys, for example. The impossibility to break a cipher in this manner is deducted from statistic probabilities about the number of attempts one would need to make in order to find the correct key. However, some particular algorithms have known weaknesses which can be exploited. For example, a weak algorithm might produce the same output from the same input every time, or produce different output with predictable differences. Many encryption schemes are also exploited by taking advantage of human weakness, such as trying out a list of well-known passwords, etc. Other methods of breaking an encryption scheme involve a known plaintext content: knowing the data, or part of the data, which ought to be within the encrypted data, can allow for conclusions about the encryption algorithm. In WWII, the German Enigma encryption engine was famously broken based on such knowledge. Therefore, an important step about an encryption code is to collect as much information about the code, its application, and its inventor, as possible. These will often give clues about the nature of the algorithm, or about particular limitations, which would then lead to planning the next steps.
When you landmark during CPR compressions what bone are you trying not to break from the sternum?
You are trying not to break the xiphoid process bone.
What is a product cipher?
A product cipher is a type of encryption that combines multiple simple encryption techniques to enhance security. It typically involves two or more rounds of substitutions and permutations, where each round applies a different cipher method. This layering process makes it significantly more difficult for attackers to break the encryption compared to using a single cipher. Examples of product ciphers include the Data Encryption Standard (DES) and the Advanced Encryption Standard (AES).
What is the significance of the NP problem in the field of computer science and cryptography?
The NP problem is significant in computer science and cryptography because it represents a class of problems that are difficult to solve efficiently. In cryptography, the NP problem is used to create secure encryption methods that are hard for hackers to break. Solving NP problems efficiently could have major implications for computer security and the development of new technologies.
