| Safe Haskell | None |
|---|---|
| Language | Haskell2010 |
Data.Digest.Pure.MD5
Description
It is suggested you use the 'crypto-api' class-based interface to access the MD5 algorithm. Either rely on type inference or provide an explicit type:
hashFileStrict = liftM hash' . B.readFile hashFileLazyBS = liftM hash . B.readFile
- data MD5Context
- data MD5Digest
- md5InitialContext :: MD5Context
- md5 :: ByteString -> MD5Digest
- md5Update :: MD5Context -> ByteString -> MD5Context
- md5Finalize :: MD5Context -> ByteString -> MD5Digest
- md5DigestBytes :: MD5Digest -> ByteString
- class (Serialize d, Eq d, Ord d) => Hash ctx d | d -> ctx, ctx -> d where
Types
data MD5Context #
The type for final results.
Instances
| Binary MD5Context # | |
| Serialize MD5Context # | |
| Hash MD5Context MD5Digest # | |
After finalizing a context, using md5Finalize, a new type is returned to prevent 're-finalizing' the structure.
Static data
md5InitialContext :: MD5Context #
The initial context to use when calling md5Update for the first time
Functions
md5 :: ByteString -> MD5Digest #
Processes a lazy ByteString and returns the md5 digest. This is probably what you want.
md5Update :: MD5Context -> ByteString -> MD5Context #
Alters the MD5Context with a partial digest of the data.
The input bytestring MUST be a multiple of the blockSize or bad things can happen (incorrect digest results)!
md5Finalize :: MD5Context -> ByteString -> MD5Digest #
Closes an MD5 context, thus producing the digest.
md5DigestBytes :: MD5Digest -> ByteString #
Crypto-API interface
class (Serialize d, Eq d, Ord d) => Hash ctx d | d -> ctx, ctx -> d where #
Minimal complete definition
Methods
outputLength :: Tagged * d BitLength #
blockLength :: Tagged * d BitLength #
initialCtx :: ctx #
updateCtx :: ctx -> ByteString -> ctx #
finalize :: ctx -> ByteString -> d #
hash :: ByteString -> d #
hash' :: ByteString -> d #
Instances