![]() The closest thing that I could find for comparison was a C++ program by a coworker that takes ~37 seconds on the same hardware to find the hard anagram only. indicates the amount of time elapsed since the proprocessing stage was done. Total Runtime indicates the amount of time required to iterate through all possible anagrams up to 4 words, even after the easy, medium and hard solutions have all been found already. Using this algorithm I was able to get all 3 anagrams very quickly: Benchmark RAM: 2x Kingston KHX2400C15D4/8G at 2400 MT/s in dual-channel mode.For each permutation, iterate through every fingerprint's words (see preprocessing step 4) to generate an anagram.For each combination, generate a permutation (ordered, unrepeating) of n fingerprints.In summation, different positions within the same position (an anagram) amidst a gay couple (rainbow). (One could say they switched to a reverse 96). If found, add it as the last fingerprint in the combination and continue The act of a gay and or lesbian couple engaging in the classic 69 position, and then flipping 180 degrees and continuing the same position. Try to find a fingerprint in the hashtable.Count the remaining characters, use them to generate a fingerprint and hash it.Make sure the combination doesn't have too many of any character.Make sure that the length in characters is less than the input's.Generate a combination (unordered, repeating) of n-1 fingerprints, n being the number of words of the resulting anagram.Sort the fingerprint list by length (in characters). ![]() If not, add it to both the hashtable and the fingerprint list If it is, add the word (value) only to the hashtable, allowing us to find the word (and others with the same fingerprint) using the fingerprint. Iterate through the newly generated wordlist, check if the fingerprint (key) is in the hashtable.Split it into words, calculate their lengths, check if they don't have too many/different characters, generate their "fingerprints" (alphabetically sorted list of the word's characters, example: "fast" -> "afst"), and hash the fingerprints (djb2 for hashtable lookup).Save entire wordlist to memory (calm down, it's under a megabyte, plus it makes processing faster and easier).Count the number of each letter's occurrence in the phrase (simplified example: "hello":, total length: 5).If it isn't obvious already, it's called "nag-a-ram" because "nag a ram" is an anagram of "anagram". It was made as a submission to the Trustpilot Anagram Challenge. Memory mirroring’s key disadvantage is the higher memory cost required to create this redundancy.Nag-a-ram is a fast anagram solving algorithm, allowing for extremely fast and efficient anagram generation. It provides full protection for single bit and multiple bit errors.It may be coupled with memory sparing for integrating and installing other hot spare memory modules, as needed.It runs just as easily in Linux and Windows. It is independent of the operating system (OS) used, as it is built into the memory controller.With regard to memory processors, memory mirroring facilitates the attainment of the highest possible consistency between memories.This is because the memory controller shifts to the other channel without any disruption, and synchronization between channels is established after the issues are resolved. In the event of failures, like Dual In-line Memory Module (DIMM) failure, the overall system remains unaffected and operational, allowing processes to continue without unscheduled downtime.The advantages of memory mirroring include the following:
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