Reformat Zeek in Spicy style

This largely copies over Spicy's `.clang-format` configuration file. The
one place where we deviate is header include order since Zeek depends on
headers being included in a certain order.
This commit is contained in:
Benjamin Bannier 2023-10-10 21:13:34 +02:00
parent 7b8e7ed72c
commit f5a76c1aed
786 changed files with 131714 additions and 153609 deletions

View file

@ -11,171 +11,135 @@
#include "zeek/Var.h"
#include "zeek/digest.h"
namespace zeek::probabilistic::detail
{
namespace zeek::probabilistic::detail {
Hasher::seed_t Hasher::MakeSeed(const void* data, size_t size)
{
u_char buf[SHA256_DIGEST_LENGTH];
seed_t tmpseed;
EVP_MD_CTX* ctx = zeek::detail::hash_init(zeek::detail::Hash_SHA256);
Hasher::seed_t Hasher::MakeSeed(const void* data, size_t size) {
u_char buf[SHA256_DIGEST_LENGTH];
seed_t tmpseed;
EVP_MD_CTX* ctx = zeek::detail::hash_init(zeek::detail::Hash_SHA256);
assert(sizeof(tmpseed) == 16);
assert(sizeof(tmpseed) == 16);
static auto global_hash_seed = id::find_val<StringVal>("global_hash_seed");
static auto global_hash_seed = id::find_val<StringVal>("global_hash_seed");
if ( data )
zeek::detail::hash_update(ctx, data, size);
if ( data )
zeek::detail::hash_update(ctx, data, size);
else if ( global_hash_seed->Len() > 0 )
zeek::detail::hash_update(ctx, global_hash_seed->Bytes(), global_hash_seed->Len());
else if ( global_hash_seed->Len() > 0 )
zeek::detail::hash_update(ctx, global_hash_seed->Bytes(), global_hash_seed->Len());
else
{
unsigned int first_seed = util::detail::initial_seed();
zeek::detail::hash_update(ctx, &first_seed, sizeof(first_seed));
}
else {
unsigned int first_seed = util::detail::initial_seed();
zeek::detail::hash_update(ctx, &first_seed, sizeof(first_seed));
}
zeek::detail::hash_final(ctx, buf);
memcpy(&tmpseed, buf, sizeof(tmpseed)); // Use the first bytes as seed.
return tmpseed;
}
zeek::detail::hash_final(ctx, buf);
memcpy(&tmpseed, buf, sizeof(tmpseed)); // Use the first bytes as seed.
return tmpseed;
}
Hasher::digest_vector Hasher::Hash(const zeek::detail::HashKey* key) const
{
return Hash(key->Key(), key->Size());
}
Hasher::digest_vector Hasher::Hash(const zeek::detail::HashKey* key) const { return Hash(key->Key(), key->Size()); }
Hasher::Hasher(size_t arg_k, seed_t arg_seed)
{
k = arg_k;
seed = arg_seed;
}
Hasher::Hasher(size_t arg_k, seed_t arg_seed) {
k = arg_k;
seed = arg_seed;
}
broker::expected<broker::data> Hasher::Serialize() const
{
return {broker::vector{static_cast<uint64_t>(Type()), static_cast<uint64_t>(k), seed.h[0],
seed.h[1]}};
}
broker::expected<broker::data> Hasher::Serialize() const {
return {broker::vector{static_cast<uint64_t>(Type()), static_cast<uint64_t>(k), seed.h[0], seed.h[1]}};
}
std::unique_ptr<Hasher> Hasher::Unserialize(const broker::data& data)
{
auto v = broker::get_if<broker::vector>(&data);
std::unique_ptr<Hasher> Hasher::Unserialize(const broker::data& data) {
auto v = broker::get_if<broker::vector>(&data);
if ( ! (v && v->size() == 4) )
return nullptr;
if ( ! (v && v->size() == 4) )
return nullptr;
auto type = broker::get_if<uint64_t>(&(*v)[0]);
auto k = broker::get_if<uint64_t>(&(*v)[1]);
auto h1 = broker::get_if<uint64_t>(&(*v)[2]);
auto h2 = broker::get_if<uint64_t>(&(*v)[3]);
auto type = broker::get_if<uint64_t>(&(*v)[0]);
auto k = broker::get_if<uint64_t>(&(*v)[1]);
auto h1 = broker::get_if<uint64_t>(&(*v)[2]);
auto h2 = broker::get_if<uint64_t>(&(*v)[3]);
if ( ! (type && k && h1 && h2) )
return nullptr;
if ( ! (type && k && h1 && h2) )
return nullptr;
std::unique_ptr<Hasher> hasher;
std::unique_ptr<Hasher> hasher;
switch ( *type )
{
case Default:
hasher = std::unique_ptr<Hasher>(new DefaultHasher(*k, {*h1, *h2}));
break;
switch ( *type ) {
case Default: hasher = std::unique_ptr<Hasher>(new DefaultHasher(*k, {*h1, *h2})); break;
case Double:
hasher = std::unique_ptr<Hasher>(new DoubleHasher(*k, {*h1, *h2}));
break;
}
case Double: hasher = std::unique_ptr<Hasher>(new DoubleHasher(*k, {*h1, *h2})); break;
}
// Note that the derived classed don't hold any further state of
// their own. They reconstruct all their information from their
// constructors' arguments.
// Note that the derived classed don't hold any further state of
// their own. They reconstruct all their information from their
// constructors' arguments.
return hasher;
}
return hasher;
}
UHF::UHF()
{
memset(&seed, 0, sizeof(seed));
}
UHF::UHF() { memset(&seed, 0, sizeof(seed)); }
UHF::UHF(Hasher::seed_t arg_seed)
{
seed = arg_seed;
}
UHF::UHF(Hasher::seed_t arg_seed) { seed = arg_seed; }
// This function is almost equivalent to HashKey::HashBytes except that it
// does not depend on global state and that we mix in the seed multiple
// times.
Hasher::digest UHF::hash(const void* x, size_t n) const
{
static_assert(std::is_same_v<highwayhash::SipHashState::Key, decltype(seed.h)>,
"Seed value is not the same type as highwayhash key");
return highwayhash::SipHash(seed.h, reinterpret_cast<const char*>(x), n);
}
Hasher::digest UHF::hash(const void* x, size_t n) const {
static_assert(std::is_same_v<highwayhash::SipHashState::Key, decltype(seed.h)>,
"Seed value is not the same type as highwayhash key");
return highwayhash::SipHash(seed.h, reinterpret_cast<const char*>(x), n);
}
DefaultHasher::DefaultHasher(size_t k, Hasher::seed_t seed) : Hasher(k, seed)
{
for ( size_t i = 1; i <= k; ++i )
{
seed_t s = Seed();
s.h[0] += util::detail::prng(i);
hash_functions.emplace_back(s);
}
}
DefaultHasher::DefaultHasher(size_t k, Hasher::seed_t seed) : Hasher(k, seed) {
for ( size_t i = 1; i <= k; ++i ) {
seed_t s = Seed();
s.h[0] += util::detail::prng(i);
hash_functions.emplace_back(s);
}
}
Hasher::digest_vector DefaultHasher::Hash(const void* x, size_t n) const
{
digest_vector h(K(), 0);
Hasher::digest_vector DefaultHasher::Hash(const void* x, size_t n) const {
digest_vector h(K(), 0);
for ( size_t i = 0; i < h.size(); ++i )
h[i] = hash_functions[i](x, n);
for ( size_t i = 0; i < h.size(); ++i )
h[i] = hash_functions[i](x, n);
return h;
}
return h;
}
DefaultHasher* DefaultHasher::Clone() const
{
return new DefaultHasher(*this);
}
DefaultHasher* DefaultHasher::Clone() const { return new DefaultHasher(*this); }
bool DefaultHasher::Equals(const Hasher* other) const
{
if ( typeid(*this) != typeid(*other) )
return false;
bool DefaultHasher::Equals(const Hasher* other) const {
if ( typeid(*this) != typeid(*other) )
return false;
const DefaultHasher* o = static_cast<const DefaultHasher*>(other);
return hash_functions == o->hash_functions;
}
const DefaultHasher* o = static_cast<const DefaultHasher*>(other);
return hash_functions == o->hash_functions;
}
DoubleHasher::DoubleHasher(size_t k, seed_t seed)
: Hasher(k, seed), h1(seed + util::detail::prng(1)), h2(seed + util::detail::prng(2))
{
}
: Hasher(k, seed), h1(seed + util::detail::prng(1)), h2(seed + util::detail::prng(2)) {}
Hasher::digest_vector DoubleHasher::Hash(const void* x, size_t n) const
{
digest d1 = h1(x, n);
digest d2 = h2(x, n);
digest_vector h(K(), 0);
Hasher::digest_vector DoubleHasher::Hash(const void* x, size_t n) const {
digest d1 = h1(x, n);
digest d2 = h2(x, n);
digest_vector h(K(), 0);
for ( size_t i = 0; i < h.size(); ++i )
h[i] = d1 + i * d2;
for ( size_t i = 0; i < h.size(); ++i )
h[i] = d1 + i * d2;
return h;
}
return h;
}
DoubleHasher* DoubleHasher::Clone() const
{
return new DoubleHasher(*this);
}
DoubleHasher* DoubleHasher::Clone() const { return new DoubleHasher(*this); }
bool DoubleHasher::Equals(const Hasher* other) const
{
if ( typeid(*this) != typeid(*other) )
return false;
bool DoubleHasher::Equals(const Hasher* other) const {
if ( typeid(*this) != typeid(*other) )
return false;
const DoubleHasher* o = static_cast<const DoubleHasher*>(other);
return h1 == o->h1 && h2 == o->h2;
}
const DoubleHasher* o = static_cast<const DoubleHasher*>(other);
return h1 == o->h1 && h2 == o->h2;
}
} // namespace zeek::probabilistic::detail
} // namespace zeek::probabilistic::detail