Nightmare

Nightmare is a software efficiency enhancement service provided by GhostProxies.

Priority bid inquiries are considered to enhance the efficiency of critical systems that rely on massive-scale fundamental procedures such as RNG, hashing, searching and sorting.

For example, the following case studies apply the precise capabilities of Nightmare to satisfy simulated client requirements.

Case Study 1

A client requires a non-cryptographic PRNG in C# that's faster than BlastCircuit in C# for both 8-bit output and a 2⁶⁴ period that passes up to 1TB in PractRand 0.96 stdin8.

The application isn't sensitive to parallel sequence overlap or pseudorandom output sequence scrutiny beyond avoiding patterns that PractRand reveals in the sets of tests from 1KB to 1TB.

GhostProxies develops QuarkSplat and satisfies client requirements to decrease compute overhead when generating relational database IDs for frequent user account updates.

// Copyright William Stafford Parsons

public class QuarkSplat {
  public ulong a;
  public ulong b;

  public byte Next() {
    a += 1111111111;
    b += (b >> 8) + a;
    return (byte)b;
  }
}

Case Study 2

A client requires an efficient binary search algorithm in Go for the first occurrence of a needle within a haystack array of unknown elements.

The application requires haystack to contain a range of 30 to 40 elements that are already sorted in ascending order before searching.

GhostProxies develops ChargeSearch and satisfies client requirements to decrease average round-trip latency when searching queues within a distributed AI system.

// Copyright William Stafford Parsons

func ChargeSearch(haystack []int, needle int) int {
  low := 0
  high := len(haystack) - 1

  if haystack[high] >= needle {
    if haystack[0] < needle {
      high >>= 1

      if haystack[high] < needle {
        low = high
      }

      high >>= 2

      if haystack[low + high] < needle {
        low += high

        if haystack[low + high] < needle {
          low += high

          if haystack[low + high] < needle {
            low += high

            if haystack[low + high] < needle {
              low += high
            }
          }
        }
      }

      for haystack[low] < needle {
        low++
      }
    }

    if haystack[low] == needle {
      return low
    }
  }

  return -1
}