Hackers Associate is an official platform that provides advanced cybersecurity training with complete hands-on, VAPT services to private & government organization, events & workshops. Being the only organization in India that provides 80+ Cyber Security Training Certifications, we ensure quality education with the pillars of practical instances and real-life case studies.
Welcome to our advanced mobile penetration testing training program, designed to equip you with the latest techniques and tools to identify and exploit vulnerabilities in Android and iOS systems.
OMPT is a cutting-edge training program offered by the renowned cybersecurity firm, Hacker Associate. Our program stands at the forefront of the industry, specializing in the detection, analysis, and exploitation of security vulnerabilities on both IOS and Android mobile devices. Our team of seasoned professionals, including penetration testers, reverse engineers, and forensics specialists, conducts comprehensive examinations of all hardware, software, and mobile application components to uncover any potential signs of compromise. With our rigorous training, you can be confident in your ability to safeguard mobile devices from cyber threats.
OMPT Training Highlights
Our instructors offer years of experience in both digital security and ethical hacking, so you can trust our teachings to be reliable and accurate. Whether you’re a student learning how to make the most out of video game security or a professional looking to advance your career, legal note has the resources you need.
Mobile Red Teaming Practices
Bug Bounty methodology
Setting up Mobile Red Teaming Lab
Mobile App Vulnerability Assessment
Static Analysis & Dynamic Analysis
OWASP TOP 10 for Mobile App Exploitation
Live Mobile App Assessment
Writing your own scripts for iOS and Android app exploitation
Root Detection Bypass (Android)
SSL Pinning Bypass
Jailbreak Detection Bypass (iOS)
Live Attack Emulation
Automate Mobile App Security Assessment (Live Apps)
Reverse Engineering Mobile Applications
Exploitation using Frida
Exploitation using Objection
Mobile Apps API Exploitation
Examining or modifying a mobile app's network traffic
Dealing with different encryption Algorithm
Crypto Attacks
Offensive Android Penetration Testing
Offensive Mobile Penetration Testing (OMPT) is your go-to resource for Android security & App Exploitation.
At Android Hacking & Security, we believe that when it comes to Android app security and ethical hacking, knowledge is power. That’s why our expert-led courses equip you with the skills you need to stay ahead of the curve.
Enhance your Android app security and ethical hacking skills with our expert-led course. From basic concepts to advanced techniques, we cover everything from reverse engineering to hacking mobile games. Our fun and interactive classes will equip you with the knowledge you need to protect yourself or your company against digital threats. Stay ahead of the curve and become a confident Android security professional with us.
Upgrade your penetration testing skills with our course and stay ahead in the rapidly evolving technology landscape. Learn the latest strategies and practices to identify potential vulnerabilities and develop robust fixes. Say goodbye to outdated methods and gain a comprehensive understanding of modern techniques.
Offensive iOS Penetration Testing
Offensive iOS Penetration Testing
Explore and test the depths of iOS app security with iOS penetration testing with "Hacker Associate".
Conduct an in-depth investigation of all of the versions of iOS 12.x, 13.x, 14.x, 15.x, and 16.x, and offer jail breaking and debugging services in order to locate potential vulnerabilities in newer applications.
Offensive IOS app Exploitation provides cyber security services & trainings to the organizations in the iOS-centric market. We specialize in reverse engineering and exploitation of iOS applications, enabling us to locate and address security risks before they become a major issue.
Our experienced team of engineers is at the forefront of best practice approaches when it comes to finding, understanding, and addressing these potential vulnerabilities. We are committed to providing comprehensive solutions with fast response times and superior customer service. Trust Offensive IOS app Exploitation for your cyber security needs!
Why Hacker Associate?
We provide a hands-on approach to our tests that give you the assurance your mobile systems are secure from malicious attacks while optimizing their performance at the same time. With OMPT, you can trust that our experienced specialists will keep your mobile environment safe!
In addition to providing comprehensive advisory services, OMPT specializes in live training sessions where real-world applications are deconstructed and tested in-depth with professional reporting on identified vulnerabilities. Reversing IOS and Android apps is done with a specialized focus on both static and dynamic analysis.
OMPT also focuses on writing your own scripts for iOS and Android app exploitation.
At writing your own script, we take mobile app exploitation to the next level. Our experienced team of Black Hat Hackers specializes in creating and implementing customized scripts that are tailored to meet our clients' specific needs. We provide solutions for both IOS and Android app exploitation, ensuring that our clients get optimal results. The OMPT methodology has proven successful in a variety of different cases, and with our attentive customer service team, you can be sure that you'll receive the best advice throughout every step of the process. Trust us to create a unique solution for your mobile application security testing today!
The Transport Layer Security (TLS) protocol is used to encrypt data over the network. The encrypted communication channel is utilised throughout the entirety of the app.
Current best practises for TLS configuration have been used, or reasonable alternatives have been chosen if the mobile OS does not natively support these settings.
When the secure channel is initially formed, the application conducts a check on the X.509 certificate that was provided by the remote endpoint. Only certificates that have been signed by a reputable CA can be used.
The app either uses its own certificate store or pins the endpoint's certificate or public key. It then won't connect to endpoints that offer a different certificate or key, even if it was signed by a trusted CA.
The software does not rely on a single insecure communication channel, such as email or SMS, in order to perform essential tasks, such as account recovery and enrolment.
The app only needs up-to-date libraries for connectivity and protection.
Symmetric cryptography with hardcoded keys is not the only way the app encrypts information.
Cryptographic primitives are implemented using tried-and-true methods within the software.
The app uses cryptographic primitives that are right for the specific use case and are set up with settings that follow best practices in the industry.
No outdated or unsupported cryptographic methods or algorithms were used in the development of this software.
There is no recycling of cryptographic keys within the app.
An adequately protected random number generator is used to create all random values.
Personal information, user credentials, and cryptographic keys should all be safely stored in the system's dedicated credential storage facilities.
No private data should be kept anywhere other than the app container or the system credential storage facilities.
No private information is ever recorded in application logs.
Except where it is strictly required by technical design, no private information is ever transmitted to outside parties.
When handling private information, the keyboard cache is cleared before accepting the input.
No private information is leaked due to IPC protocols.
Authentication information such as passwords and PINs are never displayed in plain text.
No private information is saved in backups made by the mobile operating system.
Once the software is put into the background, any private information is hidden from view.
No private information is kept in app memory for any longer than is absolutely necessary, and all app data is deleted when the app is closed.
The program requires the user to set a passcode on their device as part of a minimal security policy for accessing their device.
The app informs the user on what kinds of personally identifiable information are collected and stored, as well as what the user may do to protect their data.
No private information should ever be kept on the device's local storage. Instead of permanently storing data locally, it should be cached in RAM and accessed from a distant endpoint as needed.
Authentication-required hardware storage should be used to derive an encryption key for any sensitive data that must be kept locally.
After a certain number of unsuccessful authentication attempts, the app should delete all of its local data.
The authentication process, such as username/password authentication, takes place at the remote endpoint if the app grants access to a remote service.
When a stateful session is managed, the remote endpoint does not send the user's credentials with each request but instead utilises a randomly generated session identifier.
When stateless token-based authentication is used, the server gives a token that has been signed using a safe technique. This token is then presented to the user.
When the user exits their session, the remote endpoint puts an end to the currently active session.
At the remote endpoint, there is a password strategy that is followed.
The remote host has safeguards in place to prevent repeated attempts to log in with the same credentials.
After a time of inactivity that has been predetermined, sessions will be invalidated at the remote endpoint, and access tokens will become invalid.
Event-based authentication cannot be used in conjunction with biometric authentication (i.e., an API that returns "true" or "false"), if used at all. Unlocking the keychain or keystore is what determines success here instead.
The 2FA requirement is continuously implemented, and there is a second factor of authentication available at the off-site endpoint.
Enhanced authentication is required for any transaction that involves sensitive information.
The user is kept apprised of any potentially embarrassing actions taken with regard to their account by the application. Users have the ability to browse a list of devices, access contextual information (including IP address and location, among other things), and block particular devices.
The Transport Layer Security (TLS) protocol is used to encrypt data over the network. The encrypted communication channel is utilised throughout the entirety of the app.
Current best practises for TLS configuration have been used, or reasonable alternatives have been chosen if the mobile OS does not natively support these settings.bypassing.
When the secure channel is initially formed, the application conducts a check on the X.509 certificate that was provided by the remote endpoint. Only certificates that have been signed by a reputable CA can be used.
The app either uses its own certificate store or pins the endpoint's certificate or public key. It then won't connect to endpoints that offer a different certificate or key, even if it was signed by a trusted CA.
The software does not rely on a single insecure communication channel, such as email or SMS, in order to perform essential tasks, such as account recovery and enrolment.
The app only needs up-to-date libraries for connectivity and protection.
The application recognizes the existence of a device that has been rooted or jailbroken, and it reacts to this recognition by either notifying the user or closing down the application.
The application either stops debugging from occurring or recognizes the presence of a debugger and reacts appropriately to its presence. It is necessary to cover every debugging protocol that is currently accessible.
Within its own sandbox, the application monitors for any alterations made to executable files or vital data and takes appropriate action in response to those alterations.
The app checks for and reacts to the presence of widely used reverse engineering tools and frameworks on the device.
The application recognizes when it is being executed in an emulator and acts appropriately in response to this recognition.
The application can identify when the code and data stored in its own memory area have been altered and will react appropriately.
Mechanisms for detection set off a variety of reactions, some of which are more subtle or take time to manifest.
Obfuscation is used on programming defenses, which thus makes it more difficult to do de-obfuscation through dynamic analysis.
The software incorporates a functionality known as "device binding" by making use of a device fingerprint that is derived from numerous properties that are specific to the device.
The application's libraries and executables are encrypted either at the file level or by encrypting or packing critical sections of code and data. Trivial static analysis does not expose vital code or data.
Eavesdropping can be made far more difficult by implementing application-level payload encryption in addition to having strong hardening of the parties involved in the communication. This is an example of the defense-in-depth strategy.
