Wrapper for integerToByteString to make it more convenient to define as a builtin.

Wrapper for byteStringToInteger to make it more convenient to define as a builtin.

Wrapper for calling shiftByteString safely. Specifically, we avoid various edge cases:

• Empty ByteStrings and zero moves don't do anything
• Bit moves whose absolute value is larger than the bit length produce all-zeroes

This also ensures we don't accidentally hit integer overflow issues.

Wrapper for calling rotateByteString safely. Specifically, we avoid various edge cases:

• Empty ByteStrings and zero moves don't do anything
• Bit moves whose absolute value is larger than the bit length gets modulo reduced

Furthermore, we can convert all rotations into positive rotations, by noting that a rotation by b is the same as a rotation by b mod bitLen, where bitLen is the length of the ByteString argument in bits. This value is always non-negative, and if we get 0, we have nothing to do. This reduction also helps us avoid integer overflow issues.

Needed due to the complexities of passing lists of pairs as arguments. Effectively, we pass the second argument as required by CIP-122 in its 'unzipped' form, truncating mismatches.

Structured type to help indicate conversion errors.

Conversion from Integer to ByteString, as per CIP-121.

For performance and clarity, the endianness argument uses ByteOrder, and the length argument is an Int.

Conversion from ByteString to Integer, as per CIP-121.

For clarity, the stated endianness argument uses ByteOrder.

Bitwise logical AND, as per CIP-122.

Bitwise logical OR, as per CIP-122.

Bitwise logical XOR, as per CIP-122.

Bitwise logical complement, as per CIP-122.

Bit read at index, as per CIP-122

Bulk bit write, as per CIP-122

Byte replication, as per CIP-122

Shifts, as per CIP-123.

Rotations, as per CIP-123.

Counting the number of set bits, as per CIP-123.

Finding the first set bit's index, as per CIP-123.