net.IPNet.IP (field)

19 uses

	net (current package)
		interface_linux.go#L180: 			return &IPNet{IP: IPv4(a.Value[0], a.Value[1], a.Value[2], a.Value[3]), Mask: CIDRMask(int(ifam.Prefixlen), 8*IPv4len)}
		interface_linux.go#L182: 			ifa := &IPNet{IP: make(IP, IPv6len), Mask: CIDRMask(int(ifam.Prefixlen), 8*IPv6len)}
		interface_linux.go#L183: 			copy(ifa.IP, a.Value[:])
		ip.go#L47: 	IP   IP     // network number
		ip.go#L457: 	if ip = n.IP.To4(); ip == nil {
		ip.go#L458: 		ip = n.IP
		ip.go#L567: 	return IP(addr16[:]), &IPNet{IP: IP(addr16[:]).Mask(m), Mask: m}, nil
		sockopt_posix.go#L37: 			if v.IP.To4() != nil {
		sockopt_posix.go#L38: 				return v.IP, nil

	crypto/x509
		constraints.go#L127: 	if !a.Contains(b.IP) {
		constraints.go#L130: 	broadcast := make(net.IP, len(b.IP))
		constraints.go#L131: 	for i := range b.IP {
		constraints.go#L132: 		broadcast[i] = b.IP[i] | (^b.Mask[i])
		constraints.go#L138: 	i := bytes.Compare(a.IP, b.IP)
		constraints.go#L146: 	return bytes.Compare(constraint.IP, target)
		constraints.go#L172: 		if len(n.IP) == net.IPv4len {
		parser.go#L617: 				ips = append(ips, &net.IPNet{IP: net.IP(ip), Mask: net.IPMask(mask)})
		x509.go#L1303: 			maskedIP := ipNet.IP.Mask(ipNet.Mask)