Michael Anthony Knyszek <******@****.***> 1717451199 +0000

  }

  public void testNewHashSetEmpty() {
    HashSet<Integer> set = Sets.newHashSet();
    verifySetContents(set, EMPTY_COLLECTION);
  }

  public void testNewHashSetVarArgs() {
    HashSet<Integer> set = Sets.newHashSet(0, 1, 1);
    verifySetContents(set, Arrays.asList(0, 1));
  }

  public void testNewHashSetFromCollection() {
    HashSet<Integer> set = Sets.newHashSet(SOME_COLLECTION);

                if (key.getRawType() == List.class) {
                    Set<Binding<Object>> res2 = getBindings(key.getTypeParameter(0));
                    Set<Binding<Object>> res3 = res2 != null ? new HashSet<>(res2) : new HashSet<>();
                    try {
                        List<Object> l = containerProvider
                                .get()
                                .lookupList(key.getTypeParameter(0).getRawType());

        val root = this@hashWithoutMessages
        val hasher = Hashing.newHasher()
        for (failure in sequence { visitFailures(root) }) {
            hasher.putString(failure.exceptionType.name)
            for (element in failure.stackTrace) {
                hasher.putString(element.toString())
            }
        }
        return hasher.hash()
    }

    private

// final executable generated by the external linker.

import (
	"cmd/internal/notsha256"
	"debug/macho"
	"io"
	"os"
	"unsafe"
)

// uuidFromGoBuildId hashes the Go build ID and returns a slice of 16
// bytes suitable for use as the payload in a Macho LC_UUID load
// command.
func uuidFromGoBuildId(buildID string) []byte {
	if buildID == "" {
		return make([]byte, 16)
	}

	}
	if ctxt != nil {
		ctxts = append(ctxts, ctxt)
	}
	assert(len(ctxts) > 0)

	// Compute all hashes; hashes may differ across contexts due to different
	// unique IDs for Named types within the hasher.
	hashes := make([]string, len(ctxts))
	for i, ctxt := range ctxts {
		hashes[i] = ctxt.instanceHash(orig, targs)
	}

	// Record the result in all contexts.

	}
	if ctxt != nil {
		ctxts = append(ctxts, ctxt)
	}
	assert(len(ctxts) > 0)

	// Compute all hashes; hashes may differ across contexts due to different
	// unique IDs for Named types within the hasher.
	hashes := make([]string, len(ctxts))
	for i, ctxt := range ctxts {
		hashes[i] = ctxt.instanceHash(orig, targs)
	}

	// Record the result in all contexts.

  }

  public void testNewHashSetEmpty() {
    HashSet<Integer> set = Sets.newHashSet();
    verifySetContents(set, EMPTY_COLLECTION);
  }

  public void testNewHashSetVarArgs() {
    HashSet<Integer> set = Sets.newHashSet(0, 1, 1);
    verifySetContents(set, Arrays.asList(0, 1));
  }

  public void testNewHashSetFromCollection() {
    HashSet<Integer> set = Sets.newHashSet(SOME_COLLECTION);

If your database is stolen, the thief won't have your users' plaintext passwords, only the hashes.

So, the thief won't be able to try to use that password in another system (as many users use the same password everywhere, this would be dangerous).

## Install `passlib`

PassLib is a great Python package to handle password hashes.

It supports many secure hashing algorithms and utilities to work with them.

	}

	hash := sha1.New()
	hash.Write(msg)
	hashed := hash.Sum(nil)

	encoded, err := EMSAPSSEncode(hashed, 1023, salt, sha1.New())
	if err != nil {
		t.Errorf("Error from emsaPSSEncode: %s\n", err)
	}
	if !bytes.Equal(encoded, expected) {
		t.Errorf("Bad encoding. got %x, want %x", encoded, expected)
	}

	if err = EMSAPSSVerify(hashed, encoded, 1023, len(salt), sha1.New()); err != nil {