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NetworkSherlock is a powerful and flexible port scanning tool designed for network security professionals and penetration testers. With its advanced capabilities, NetworkSherlock can efficiently scan IP ranges, CIDR blocks, and multiple targets. It stands out with its detailed banner grabbing capabilities across various protocols and integration with Shodan, the world's premier service for scanning and analyzing internet-connected devices. This Shodan integration enables NetworkSherlock to provide enhanced scanning capabilities, giving users deeper insights into network vulnerabilities and potential threats. By combining local port scanning with Shodan's extensive database, NetworkSherlock offers a comprehensive tool for identifying and analyzing network security issues.
NetworkSherlock requires Python 3.6 or later.
FreshRSS 
git clone https://github.com/HalilDeniz/NetworkSherlock.gitpip install -r requirements.txtUpdate the networksherlock.cfg file with your Shodan API key:
[SHODAN]
api_key = YOUR_SHODAN_API_KEYpython3 networksherlock.py --help
usage: networksherlock.py [-h] [-p PORTS] [-t THREADS] [-P {tcp,udp}] [-V] [-s SAVE_RESULTS] [-c] target
NetworkSherlock: Port Scan Tool
positional arguments:
target Target IP address(es), range, or CIDR (e.g., 192.168.1.1, 192.168.1.1-192.168.1.5,
192.168.1.0/24)
options:
-h, --help show this help message and exit
-p PORTS, --ports PORTS
Ports to scan (e.g. 1-1024, 21,22,80, or 80)
-t THREADS, --threads THREADS
Number of threads to use
-P {tcp,udp}, --protocol {tcp,udp}
Protocol to use for scanning
-V, --version-info Used to get version information
-s SAVE_RESULTS, --save-results SAVE_RESULTS
File to save scan results
-c, --ping-check Perform ping check before scanning
--use-shodan Enable Shodan integration for additional information
target: The target IP address(es), IP range, or CIDR block to scan.-p, --ports: Ports to scan (e.g., 1-1000, 22,80,443).-t, --threads: Number of threads to use.-P, --protocol: Protocol to use for scanning (tcp or udp).-V, --version-info: Obtain version information during banner grabbing.-s, --save-results: Save results to the specified file.-c, --ping-check: Perform a ping check before scanning.--use-shodan: Enable Shodan integration.Scan a single IP address on default ports:
python networksherlock.py 192.168.1.1Scan an IP address with a custom range of ports:
python networksherlock.py 192.168.1.1 -p 1-1024Scan multiple IP addresses on specific ports:
python networksherlock.py 192.168.1.1,192.168.1.2 -p 22,80,443Scan an entire subnet using CIDR notation:
python networksherlock.py 192.168.1.0/24 -p 80Perform a scan using multiple threads for faster execution:
python networksherlock.py 192.168.1.1-192.168.1.5 -p 1-1024 -t 20Scan using a specific protocol (TCP or UDP):
python networksherlock.py 192.168.1.1 -p 53 -P udppython networksherlock.py 192.168.1.1 --use-shodanpython networksherlock.py 192.168.1.1,192.168.1.2 -p 22,80,443 -V --use-shodanPerform a detailed scan with banner grabbing and save results to a file:
python networksherlock.py 192.168.1.1 -p 1-1000 -V -s results.txtScan an IP range after performing a ping check:
python networksherlock.py 10.0.0.1-10.0.0.255 -c$ python3 networksherlock.py 10.0.2.12 -t 25 -V -p 21-6000 -t 25
********************************************
Scanning target: 10.0.2.12
Scanning IP : 10.0.2.12
Ports : 21-6000
Threads : 25
Protocol : tcp
---------------------------------------------
Port Status Service VERSION
22 /tcp open ssh SSH-2.0-OpenSSH_4.7p1 Debian-8ubuntu1
21 /tcp open telnet 220 (vsFTPd 2.3.4)
80 /tcp open http HTTP/1.1 200 OK
139 /tcp open netbios-ssn %SMBr
25 /tcp open smtp 220 metasploitable.localdomain ESMTP Postfix (Ubuntu)
23 /tcp open smtp #' #'
445 /tcp open microsoft-ds %SMBr
514 /tcp open shell
512 /tcp open exec Where are you?
1524/tcp open ingreslock ro ot@metasploitable:/#
2121/tcp open iprop 220 ProFTPD 1.3.1 Server (Debian) [::ffff:10.0.2.12]
3306/tcp open mysql >
5900/tcp open unknown RFB 003.003
53 /tcp open domain
---------------------------------------------$ python3 networksherlock.py 10.0.2.0/24 -t 10 -V -p 21-1000
********************************************
Scanning target: 10.0.2.1
Scanning IP : 10.0.2.1
Ports : 21-1000
Threads : 10
Protocol : tcp
---------------------------------------------
Port Status Service VERSION
53 /tcp open domain
********************************************
Scanning target: 10.0.2.2
Scanning IP : 10.0.2.2
Ports : 21-1000
Threads : 10
Protocol : tcp
---------------------------------------------
Port Status Service VERSION
445 /tcp open microsoft-ds
135 /tcp open epmap
********************************************
Scanning target: 10.0.2.12
Scanning IP : 10.0.2.12
Ports : 21- 1000
Threads : 10
Protocol : tcp
---------------------------------------------
Port Status Service VERSION
21 /tcp open ftp 220 (vsFTPd 2.3.4)
22 /tcp open ssh SSH-2.0-OpenSSH_4.7p1 Debian-8ubuntu1
23 /tcp open telnet #'
80 /tcp open http HTTP/1.1 200 OK
53 /tcp open kpasswd 464/udpcp
445 /tcp open domain %SMBr
3306/tcp open mysql >
********************************************
Scanning target: 10.0.2.20
Scanning IP : 10.0.2.20
Ports : 21-1000
Threads : 10
Protocol : tcp
---------------------------------------------
Port Status Service VERSION
22 /tcp open ssh SSH-2.0-OpenSSH_8.2p1 Ubuntu-4ubuntu0.9Contributions are welcome! To contribute to NetworkSherlock, follow these steps:
Welcome to CryptChat - where conversations remain truly private. Built on the robust Python ecosystem, our application ensures that every word you send is wrapped in layers of encryption. Whether you're discussing sensitive business details or sharing personal stories, CryptChat provides the sanctuary you need in the digital age. Dive in, and experience the next level of secure messaging!
Clone the repository:
git clone https://github.com/HalilDeniz/CryptoChat.gitNavigate to the project directory:
cd CryptoChatInstall the required dependencies:
pip install -r requirements.txt$ python3 server.py --help
usage: server.py [-h] [--host HOST] [--port PORT]
Start the chat server.
options:
-h, --help show this help message and exit
--host HOST The IP address to bind the server to.
--port PORT The port number to bind the server to.
--------------------------------------------------------------------------
$ python3 client.py --help
usage: client.py [-h] [--host HOST] [--port PORT]
Connect to the chat server.
options:
-h, --help show this help message and exit
--host HOST The server's IP address.
--port PORT The port number of the server.$ python3 serverE.py --help
usage: serverE.py [-h] [--host HOST] [--port PORT] [--key KEY]
Start the chat server.
options:
-h, --help show this help message and exit
--host HOST The IP address to bind the server to. (Default=0.0.0.0)
--port PORT The port number to bind the server to. (Default=12345)
--key KEY The secret key for encryption. (Default=mysecretpassword)
--------------------------------------------------------------------------
$ python3 clientE.py --help
usage: clientE.py [-h] [--host HOST] [--port PORT] [--key KEY]
Connect to the chat server.
options:
-h, --help show this help message and exit
--host HOST The IP address to bind the server to. (Default=127.0.0.1)
--port PORT The port number to bind the server to. (Default=12345)
--key KEY The secret key for encr yption. (Default=mysecretpassword)--help: show this help message and exit--host: The IP address to bind the server.--port: The port number to bind the server.--key : The secret key for encryptionContributions are welcome! If you find any issues or have suggestions for improvements, feel free to open an issue or submit a pull request.
If you have any questions, comments, or suggestions about CryptChat, please feel free to contact me:
TrafficWatch, a packet sniffer tool, allows you to monitor and analyze network traffic from PCAP files. It provides insights into various network protocols and can help with network troubleshooting, security analysis, and more.
Clone the repository:
git clone https://github.com/HalilDeniz/TrafficWatch.gitNavigate to the project directory:
cd TrafficWatchInstall the required dependencies:
pip install -r requirements.txtpython3 trafficwatch.py --help
usage: trafficwatch.py [-h] -f FILE [-p {ARP,ICMP,TCP,UDP,DNS,DHCP,HTTP,SNMP,LLMNR,NetBIOS}] [-c COUNT]
Packet Sniffer Tool
options:
-h, --help show this help message and exit
-f FILE, --file FILE Path to the .pcap file to analyze
-p {ARP,ICMP,TCP,UDP,DNS,DHCP,HTTP,SNMP,LLMNR,NetBIOS}, --protocol {ARP,ICMP,TCP,UDP,DNS,DHCP,HTTP,SNMP,LLMNR,NetBIOS}
Filter by specific protocol
-c COUNT, --count COUNT
Number of packets to display
To analyze packets from a PCAP file, use the following command:
python trafficwatch.py -f path/to/your.pcapTo specify a protocol filter (e.g., HTTP) and limit the number of displayed packets (e.g., 10), use:
python trafficwatch.py -f path/to/your.pcap -p HTTP -c 10-f or --file: Path to the PCAP file for analysis.-p or --protocol: Filter packets by protocol (ARP, ICMP, TCP, UDP, DNS, DHCP, HTTP, SNMP, LLMNR, NetBIOS).-c or --count: Limit the number of displayed packets.Contributions are welcome! If you want to contribute to TrafficWatch, please follow our contribution guidelines.
If you have any questions, comments, or suggestions about Dosinator, please feel free to contact me:
This project is licensed under the MIT License.
Thank you for considering supporting me! Your support enables me to dedicate more time and effort to creating useful tools like DNSWatch and developing new projects. By contributing, you're not only helping me improve existing tools but also inspiring new ideas and innovations. Your support plays a vital role in the growth of this project and future endeavors. Together, let's continue building and learning. Thank you!"
The protocol aims to develop a application layer abstraction for the Hyper Service Transfer Protocol.
HSTP is a recursion as nature of HSTP. This protocol implements itself as a interface. On every internet connected device, there is a HSTP instance. That's why the adoption is not needed. HSTP already running top of the internet. We have just now achieved to explain the protocol over protocols on heterogeneous networks. That's why do not compare with web2, web3 or vice versa.
HSTP is a application representation interface for heterogeneous networks.
HSTP interface enforces to implement a set of methods to be able to communicate with other nodes in the network. Thus serves, clients, and other nodes can communicate with each other with trust based, end to end encrypted way. By the time the node resolution is based on fastest path resolution algorithm I wrote.
Story time!
A small overview
Think about, we're in the situation of one mother and one father lives a happy life. They had a baby! Suddenly, the mother needed to drink pills regularly to cure a disase. The pill is a poison for the baby. The baby is crying and the mother calls father because he is the only trusted person to help the baby. But the father sometime can not stay at home, he needs to do something to feed the baby. Father heard one milkman has fresh and high quality milks for low price. Father decides to try to talk the milkman, milkman deliver the milk to the father, father carry the milk to the mother. Mother give the milk to the baby. Baby is happy now and the baby sleeps, mother see the baby is happy.
The family never buy the milk from outside, this is the first time they buy milk for the baby: (Mom do not know the number of milkman, milkman do not know the home address)
As steps:
0) - Baby wants to drink milk.
1) - Baby cries to the mom.
3) - Mom see the baby is crying.
4) - Mom checks the fridge. Mom sees the milk is empty. (Mother is only trusting the Father)
5) - Mom calls the father.
6) - Father calls the milkman.
7) - Milkman delivers the milk to father.
8) - Father delivers the milk to mom.
9) - Mom gives the milk to the baby.
10) - Baby drinks the milk.
11) - Baby is happy.
12) - Baby sleeps.
13) - Mother see the baby is happy and sleeps.
14) - In order to be able to contact the milkman again, the mother asks the father to tell her that she wants the milkman to save the address of the house and the mobile phone of the mother.
15) - Mother calls the father.
16) - Father calls the milkman.
17) - Milkman saves the address of the house and the mobile phone of the mother.
Oops, tomorrow baby wakes up and cries again,
0) - Baby wants to drink milk.
1) - Baby cries to the mom.
2) - Mom see the baby is crying.
3) - Mom checks the fridge. Mom sees the milk is empty. (Mother is trusting the Father had right decision in the first place by giving the address to the milkman, and the milkman had right decision in the first place by saving the address of the house and the mobile phone of the mother.)
4) - Mother calls the milkman (Mother is trusting the Father's decision only)
5) - Milkman delivers the milk to mom.
6) - Mom gives the milk to the baby.
7) - Baby drinks the milk.
8) - Baby is happy.
9) - Baby sleeps.
10) - Mother see the baby is happy and sleeps.
11) - Mother is happy and the mother trust the milkman now.
this document you're reading is a manifest for the internet people to connecting the other people by trusting the service serve the client and the trust only can be maintainable by providing good services. trust is the key, but not enough for survive. the service has to be reliable, consistent, cheap. unless the people will decide to not ask from you again.
So, it's easy right? It's so simple to understand, who are those people in the story?
also,
Baby is in trusted hands. Nothing to worry about. They love you, you will understand when you grow up and have a child.
// Technical step explanation soon, but not that hard as you see.
HSTP is a interface, which is a set of methods that must be implemented by the application layer. The interface is used to communicate with other nodes in the network. The interface is designed to be used in a heterogeneous network.
HSTP shall be implemented on any layer of network connected devices/environment.
HSTP node could be a TCP server, HTTP server, static file or contract in any chain. One HSTP node is able to call any other HSTP node. Thus the nodes can call each other freely, they can check their system status, and they can communicate with each other.
HSTP is already implemented on language level, by people for people. English is mostly adopted language around the Earth. JavaScript could be known also mostly adopted language for browser environments. Solidity is for EVM-based chains, hyperbees for TCP based networks, etc.
HSTP interface shall be applied between any HSTP connected devices/networks.
Infinitive scaling options: Any TCP connected device can talk with any other TCP connected device over HSTP. That means any web browser is serve of another HSTP node, and any web browser can call any other web browser.
Uniform application representation interface: HSTP is a uniform interface, which is a set of methods that must be implemented by the application layer.
Heterogeneous networks: Any participant of network is allowing to share the resources with other participants of the network. The resources can be CPU, memory, storage, network, etc.
Conjucation of web versions Since the blockchain technologies calling as web3, people started discussing about the differanciates between the web's. Comparing is a behaviour for incremental numeric system education's mindset. Which one is better: none of them. We have to build systems could talk in one uniform protocol, underneath services could be anything. HSTP is aiming for that.
Registry interface Registry interface designed for using on TCP layer, to be able to register top level tld nodes in the network. The first implementation of HSTP TCP relay will resolve hstp/
The registry has two parts of the interface:
Registry implementation needs two HSTP node,
Router interface
For demonstration purposes, we will use the following solidity example:
// SPDX-License-Identifier: GNU-3.0-or-later
pragma solidity ^0.8.0;
import "./HSTP.sol";
import "./ERC165.sol";
enum Operation {
Query,
Mutation
}
struct Response {
uint256 status;
string body;
}
struct Registry {
HSTP resolver;
}
// HSTP/Router.sol
abstract contract Router is ERC165 {
event Log(address indexed sender, Operation operation, bytes payload);
event Register(address indexed sender, Registry registry);
mapping(string => Registry) public routes;
function reply(string memory name, Operation _operation, bytes memory payload) public virtual payable returns(Response memory response) {
emit Log(msg.sender, _operation, payload);
// Traverse upwards and downwards of the tree.
// Tries to find the closest path for given operation.
// If the route is registered on HSTP node, reply from children node.
// If the node do not have the route on this node, ask for parent.
if (routes[name]) {
if (_operation == Operation.Query) {
return this.query(payload);
} else if (_operation == Operation.Mutation) {
return this.mutation(payload);
}
}
return super.reply(name, _operation, payload);
}
function query(string memory name, bytes memory payload) public view returns (Response memory) {
return routes[name].resolver.query(payload);
}
function mutation(string memory name, bytes memory payload) public payable returns (Response memory) {
return routes[name].resolver.mutation(payload);
}
function register(string memory name, HSTP node) public {
Registry memory registry = Registry({
resolver: node
});
emit Register(msg.sender, registry);
routes[name] = registry;
}
function supportsInterface(bytes4 interfaceId) public view virtual override returns (bool) {
return interfaceId == type(HSTP).interfaceId;
}
}
HSTP interface
// SPDX-License-Identifier: GNU-3.0-or-later
pragma solidity ^0.8.0;
import "./Router.sol";
// Stateless Hyper Service Transfer Protocol for on-chain services.
// Will implement: EIP-4337 when it's on final stage.
// https://github.com/ethereum/EIPs/blob/master/EIPS/eip-4337.md
abstract contract HSTP is Router {
constructor(string memory name) {
register(name, this);
}
function query(bytes memory payload)
public
view
virtual
returns (Response memory);
function mutation(bytes memory payload)
public
payable
virtual
returns (Response memory);
}Example HSTP Node
HSTP node has access to call parent router by super.reply(name, operation, payload) method. HSTP node can also call children nodes by calling this.query(payload) or this.mutation(payload) methods.
A HSTP node can be a smart contract, or a web browser, or a TCP connected device.
Node has full capability of adding more HSTP nodes to the network or itself as sub services.
HSTP HSTP
/ \ / \
HSTP HSTP HSTP
/ \
HSTP HSTP
/ /
HSTP HSTP
// SPDX-License-Identifier: UNLICENSED
pragma solidity ^0.8.0;
import "hstp/HSTP.sol";
// Stateless Hyper Service Transfer Protocol for on-chain services.
contract Todo is HSTP("Todo") {
struct ITodo {
string todo;
}
function addTodo(ITodo memory request) public payable returns(Response memory response) {
response.body = request.todo;
return response;
}
// Override for HSTP.
function query(bytes memory payload)
public
view
virtual
override
returns (Response memory) {}
function mutation(bytes memory payload)
public
payable
virtual
override
returns (Response memory) {
(ITodo memory request) = abi.decode(payload, (ITodo));
return this.addTodo(request);
}
}</ code>Ethereum proposal is draft now, but the protocol has referance implementation Todo.sol.
You can test the HSTP and try on remix now.
// SPDX-License-Identifier: UNLICENSED
pragma solidity ^0.8.0;
import "hstp/HSTP.sol";
// Stateless Hyper Service Transfer Protocol for on-chain services.
contract Todo is HSTP("Todo") {
struct TodoRequest {
string todo;
}
function addTodo(TodoRequest memory request) public payable returns(Response memory response) {
response.body = request.todo;
return response;
}
// Override for HSTP.
function query(bytes memory payload)
public
view
virtual
override
returns (Response memory) {}
function mutation(bytes memory payload)
public
payable
virtual
override
returns (Response memory) {
(TodoRequest memory todoRequest) = abi.decode(payload, (TodoRequest));
return this.addTodo(tod oRequest);
}
}GNU GENERAL PUBLIC LICENSE V3
