}
// public static
-CIDRNetwork IPAddress::createNetwork(StringPiece ipSlashCidr,
- int defaultCidr, /* = -1 */
- bool applyMask /* = true */) {
+CIDRNetwork IPAddress::createNetwork(
+ StringPiece ipSlashCidr,
+ int defaultCidr, /* = -1 */
+ bool applyMask /* = true */) {
if (defaultCidr > std::numeric_limits<uint8_t>::max()) {
throw std::range_error("defaultCidr must be <= UINT8_MAX");
}
}
// default constructor
-IPAddress::IPAddress()
- : addr_()
- , family_(AF_UNSPEC)
-{
-}
+IPAddress::IPAddress() : addr_(), family_(AF_UNSPEC) {}
// public string constructor
-IPAddress::IPAddress(StringPiece addr)
- : addr_()
- , family_(AF_UNSPEC)
-{
- string ip = addr.str(); // inet_pton() needs NUL-terminated string
+IPAddress::IPAddress(StringPiece addr) : addr_(), family_(AF_UNSPEC) {
+ string ip = addr.str(); // inet_pton() needs NUL-terminated string
auto throwFormatException = [&](const string& msg) {
throw IPAddressFormatException(sformat("Invalid IP '{}': {}", ip, msg));
};
}
// public sockaddr constructor
-IPAddress::IPAddress(const sockaddr* addr)
- : addr_()
- , family_(AF_UNSPEC)
-{
+IPAddress::IPAddress(const sockaddr* addr) : addr_(), family_(AF_UNSPEC) {
if (addr == nullptr) {
throw IPAddressFormatException("sockaddr == nullptr");
}
family_ = addr->sa_family;
switch (addr->sa_family) {
case AF_INET: {
- const sockaddr_in *v4addr = reinterpret_cast<const sockaddr_in*>(addr);
+ const sockaddr_in* v4addr = reinterpret_cast<const sockaddr_in*>(addr);
addr_.ipV4Addr = IPAddressV4(v4addr->sin_addr);
break;
}
case AF_INET6: {
- const sockaddr_in6 *v6addr = reinterpret_cast<const sockaddr_in6*>(addr);
+ const sockaddr_in6* v6addr = reinterpret_cast<const sockaddr_in6*>(addr);
addr_.ipV6Addr = IPAddressV6(*v6addr);
break;
}
// public ipv4 constructor
IPAddress::IPAddress(const IPAddressV4 ipV4Addr)
- : addr_(ipV4Addr)
- , family_(AF_INET)
-{
-}
+ : addr_(ipV4Addr), family_(AF_INET) {}
// public ipv4 constructor
IPAddress::IPAddress(const in_addr ipV4Addr)
- : addr_(IPAddressV4(ipV4Addr))
- , family_(AF_INET)
-{
-}
+ : addr_(IPAddressV4(ipV4Addr)), family_(AF_INET) {}
// public ipv6 constructor
IPAddress::IPAddress(const IPAddressV6& ipV6Addr)
- : addr_(ipV6Addr)
- , family_(AF_INET6)
-{
-}
+ : addr_(ipV6Addr), family_(AF_INET6) {}
// public ipv6 constructor
IPAddress::IPAddress(const in6_addr& ipV6Addr)
- : addr_(IPAddressV6(ipV6Addr))
- , family_(AF_INET6)
-{
-}
+ : addr_(IPAddressV6(ipV6Addr)), family_(AF_INET6) {}
// Assign from V4 address
IPAddress& IPAddress::operator=(const IPAddressV4& ipv4_addr) {
}
// public
-bool IPAddress::inSubnetWithMask(const IPAddress& subnet,
- ByteRange mask) const {
+bool IPAddress::inSubnetWithMask(const IPAddress& subnet, ByteRange mask)
+ const {
auto mkByteArray4 = [&]() -> ByteArray4 {
ByteArray4 ba{{0}};
std::memcpy(ba.data(), mask.begin(), std::min<size_t>(mask.size(), 4));
return false;
}
-CIDRNetwork
-IPAddress::longestCommonPrefix(const CIDRNetwork& one, const CIDRNetwork& two) {
+CIDRNetwork IPAddress::longestCommonPrefix(
+ const CIDRNetwork& one,
+ const CIDRNetwork& two) {
if (one.first.family() != two.first.family()) {
throw std::invalid_argument(sformat(
"Can't compute longest common prefix between addresses of different"
}
if (one.first.isV4()) {
auto prefix = IPAddressV4::longestCommonPrefix(
- {one.first.asV4(), one.second},
- {two.first.asV4(), two.second});
+ {one.first.asV4(), one.second}, {two.first.asV4(), two.second});
return {IPAddress(prefix.first), prefix.second};
} else if (one.first.isV6()) {
auto prefix = IPAddressV6::longestCommonPrefix(
- {one.first.asV6(), one.second},
- {two.first.asV6(), two.second});
+ {one.first.asV6(), one.second}, {two.first.asV6(), two.second});
return {IPAddress(prefix.first), prefix.second};
} else {
throw std::invalid_argument("Unknown address family");