Wireshark TLS
tshark -l -i any -f 'port 443' -Y "ssl.handshake.ciphersuites" -Vx
tshark -i wlan1mon -l -T fields -e wlan.bssid -e wlan.ssid -e radiotap.dbm_antsignal -Y 'wlan.ssid' | grep -v "ff:ff:ff"
Maybe -e wlan.rsn.pcs.type and -e wlan.rsn.gcs.type are what you're looking for? Those are for the Pairwise Cipher Suite type" and "Group Cipher Suite type", respectively. https://stackoverflow.com/questions/47645051/display-network-encryption-type-in-tshark
https://www.iana.org/assignments/tls-parameters/tls-parameters.xhtml#tls-parameters-4
Client Hello: ssl.handshake.type == 1 Server Hello: ssl.handshake.type == 2 NewSessionTicket: ssl.handshake.type == 4 Certificate: ssl.handshake.type == 11 CertificateRequest ssl.handshake.type == 13 ServerHelloDone: ssl.handshake.type == 14 Note: “ServerHellpDone” means full-handshake TLS session. Cipher Suites: ssl.handshake.ciphersuite TLS handshake message types Message types Code Description 0 HelloRequest 1 ClientHello 2 ServerHello 4 NewSessionTicket 8 EncryptedExtensions (TLS 1.3 only) 11 Certificate 12 ServerKeyExchange 13 CertificateRequest 14 ServerHelloDone 15 CertificateVerify 16 ClientKeyExchange 20 Finished
{code}
include <tins/tins.h>
include
include
include
include
using namespace Tins; using namespace std;
/*
* Container class for the data that is retrieved from the beacon. /
class Unit { public:
/
* Constructor. Parses the Dot11Beacon object and takes all the necessary
* data from it.
*/
Unit(Dot11Beacon& beacon);
Unit() = default;
unsigned getCount();
void incrementCount();
/*
* Prints this object onto the command line, in CSV format
*/
void print();
private:
string ssid; string bssid; unsigned channel; unsigned count;
string gcs; // Group Cipher Suite
string pcs; // Pairwise Cipher Suite
string akm; // Authentication suite
/*
* Returns a string representation of a RSNInformation::CypherSuites enum value
*/
string type_to_string(const RSNInformation::CypherSuites& type);
/*
* Returns a string representation of a RSNInformation::AKMSuites enum value
*/
string type_to_string(const RSNInformation::AKMSuites& type);
};
Unit::Unit(Dot11Beacon& beacon) :
count {1} /* When this unit is created, it has been seen exactly once */ {
ssid = beacon.ssid();
bssid = beacon.addr3().to_string();
channel = unsigned(beacon.ds_parameter_set());
RSNInformation rsn;
for(const auto &opt : beacon.options()) {
if (opt.option() == Dot11::RSN) {
rsn = beacon.rsn_information();
// Put all authentication suite types in a string
const RSNInformation::akm_type& akmTypeList = rsn.akm_cyphers();
for (const auto& akmIt : akmTypeList) {
if (akm.size() == 0)
akm += type_to_string(akmIt);
else
akm += ";" + type_to_string(akmIt);
}
// Put all group cipher types in a string
const RSNInformation::CypherSuites& gcsType = rsn.group_suite();
gcs = type_to_string(gcsType);
// Put all pairwise ciphers in a string
const RSNInformation::cyphers_type& pcsTypeList = rsn.pairwise_cyphers();
for (const auto& pcsIt : pcsTypeList) {
if (pcs.size() == 0)
pcs += type_to_string(pcsIt);
else
pcs += ";" + type_to_string(pcsIt);
}
}
}
}
unsigned Unit::getCount() {
return count;
}
void Unit::incrementCount() {
count += 1;
}
void Unit::print() {
string ssid_to_print;
if (ssid.length() == 0) {
ssid_to_print = "";
} else if (!isprint(ssid[0])) {
ssid_to_print = to_string(static_cast(ssid[0]));
} else {
ssid_to_print = ssid;
}
if (find(ssid_to_print.begin(), ssid_to_print.end(), ',') != ssid_to_print.end()) {
ssid_to_print = "\"" + ssid_to_print + "\"";
}
cout << ssid_to_print << ","
<< bssid << ","
<< to_string(channel) << ","
<< to_string(count) << ","
<< gcs << ","
<< pcs << ","
<< akm << endl;
}
string Unit::type_to_string(const RSNInformation::CypherSuites& type) {
switch (type) {
case RSNInformation::CypherSuites::CCMP:
return "CCMP";
break;
case RSNInformation::CypherSuites::TKIP:
return "TKIP";
break;
case RSNInformation::CypherSuites::WEP_104:
return "WEP_104";
break;
case RSNInformation::CypherSuites::WEP_40:
return "WEP_40";
break;
}
}
string Unit::type_to_string(const RSNInformation::AKMSuites& type) {
switch (type) {
case RSNInformation::AKMSuites::PMKSA:
return "PMKSA";
break;
case RSNInformation::AKMSuites::PSK:
return "PSK";
break;
}
}
/*
* Class that reads the pcap, keeps track of the units and writes out one * beacon frame in pcap format for each unique AP it finds. This file is called * "unique_beacons.pcap" /
class PCAPParser { public:
/
* Constructor. It takes the exact parameters that it will pas on to its
* FileSniffer object (a FileSniffer is actually just a file reader).
*/
PCAPParser(const string& pcapFilename, const string& filter);
/*
* Start reading the file.
*/
bool run();
/*
* Print CSV header and ask all of our collected Unit objects to print themselves
*/
void print();
private:
FileSniffer sniffer; PacketWriter writer; map<string, Unit> apMap; // stands for Access Point Map
bool handler(PDU&);
};
PCAPParser::PCAPParser(const string& pcapFilename, const string& filter) :
sniffer {pcapFilename, filter},
writer {"unique_beacons.pcap", PacketWriter::RADIOTAP} {
for (auto it = apMap.begin(); it != apMap.end(); it++) {
it->second.print();
}
}
bool PCAPParser::run() {
sniffer.sniff_loop( [this] (PDU& pdu) { return (bool) this->handler (pdu); } );
return true;
}
bool PCAPParser::handler(PDU& pdu) {
Dot11Beacon& beacon = pdu.rfind_pdu();
// An ESSID may span multiple BSSID's. Also, it's nice to keep track of what
// channels an AP has been on. Therefore, the combination of SSID, BSSID and
// channel is considered key.
const string& ssid = beacon.ssid();
const string& mac = beacon.addr3().to_string();
const unsigned channel = unsigned(beacon.ds_parameter_set());
const string key = ssid + mac + to_string(channel);
if (apMap.find(key) == apMap.end()) { // we've got a new one
Unit unit(beacon);
apMap[key] = unit;
writer.write(pdu);
} else {
apMap[key].incrementCount();
}
return true;
}
void PCAPParser::print() {
// Print the headers for the CSV output cout << "SSID,BSSID,Current_channel,Count,Group_Cipher,Pairwise_Ciphers,Authentication_Suite" << endl;
// Ask each of the units to print themselves for the CSV output
for (auto it = apMap.begin(); it != apMap.end(); it++) {
it->second.print();
}
}
int main(int argc, char *argv[]) {
if(argc != 2) {
std::cout << "Usage: " << *argv << " \n";
return 1;
}
PCAPParser pcapParser(argv[1], "wlan type mgt subtype beacon");
pcapParser.run();
pcapParser.print();
}
{code}