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+ In cryptography, a brute-force attack or exhaustive key search is a cryptanalytic attack that + consists of an attacker submitting many possible keys or passwords with the hope of eventually + guessing correctly. This strategy can theoretically be used to break any form of encryption that is + not information-theoretically secure.[1] However, in a properly designed cryptosystem the chance of + successfully guessing the key is negligible. +
++ When cracking passwords, this method is very fast when used to check all short passwords, but for + longer passwords other methods such as the dictionary attack are used because a brute-force search + takes too long. Longer passwords, passphrases and keys have more possible values, making them + exponentially more difficult to crack than shorter ones due to the diversity of characters.[2] +
++ Brute-force attacks can be made less effective by implementing key stretching techniques making it + more difficult for an attacker to recognize when the code has been cracked or by making the attacker + do more work to test each guess. One of the measures of the strength of an encryption system is how + long it would theoretically take an attacker to mount a successful brute-force attack against it.[3] +
++ Brute-force attacks are an application of brute-force search, the general problem-solving technique + of enumerating all candidates and checking each one. The word 'hammering' is sometimes used to + describe a brute-force attack,[4] with 'anti-hammering' for countermeasures.[5] +
++ In cryptography, a brute-force attack or exhaustive key search is a cryptanalytic attack that consists + of an attacker submitting many possible keys or passwords with the hope of eventually guessing + correctly. This strategy can theoretically be used to break any form of encryption that is not + information-theoretically secure.[1] However, in a properly designed cryptosystem the chance of + successfully guessing the key is negligible. +
++ Brute-force attacks can be made less effective by implementing key stretching techniques making it more + difficult for an attacker to recognize when the code has been cracked or by making the attacker do more + work to test each guess. One of the measures of the strength of an encryption system is how long it + would theoretically take an attacker to mount a successful brute-force attack against it.[3] +
++ Brute-force attacks can be made less effective by implementing key stretching techniques making it more + difficult for an attacker to recognize when the code has been cracked or by making the attacker do more + work to test each guess. One of the measures of the strength of an encryption system is how long it + would theoretically take an attacker to mount a successful brute-force attack against it.[3] +
++ Brute-force attacks can be made less effective by implementing key stretching techniques making it more + difficult for an attacker to recognize when the code has been cracked or by making the attacker do more + work to test each guess. One of the measures of the strength of an encryption system is how long it + would theoretically take an attacker to mount a successful brute-force attack against it.[3] +
++ [SCROLL TO ELEMENT] + When cracking passwords, this method is very fast when used to check all short passwords, but for longer + passwords other methods such as the dictionary attack are used because a brute-force search takes too + long. Longer passwords, passphrases and keys have more possible values, making them exponentially more + difficult to crack than shorter ones due to the diversity of characters.[2] +
++ Brute-force attacks can be made less effective by implementing key stretching techniques making it more + difficult for an attacker to recognize when + [SCROLL INTO VIEW] + the code has been cracked or by making the attacker do more work to test each guess. One of the measures + of the strength of an encryption system is how long it would theoretically take an attacker to mount a + successful brute-force attack against it.[3] +
++ Brute-force attacks can be made less effective by implementing key stretching techniques making it more + difficult for an attacker to recognize when the code has been cracked or by making the attacker do more + work to test each guess. One of the measures of the strength of an encryption system is how long it + would theoretically take an attacker to mount a successful brute-force attack against it.[3] +
++ Brute-force attacks can be made less effective by implementing key stretching techniques making it more + difficult for an attacker to recognize when the code has been cracked or by making the attacker do more + work to test each guess. One of the measures of the strength of an encryption system is how long it + would theoretically take an attacker to mount a successful brute-force attack against it.[3] +
++ In cryptography, a brute-force attack or exhaustive key search is a cryptanalytic attack that consists + of an attacker submitting many possible keys or passwords with the hope of eventually guessing + correctly. This strategy can theoretically be used to break any form of encryption that is not + information-theoretically secure.[1] However, in a properly designed cryptosystem the chance of + successfully guessing the key is negligible. +
+