#FactCheck: Digitally Manipulated Video of Salman Khan, Rahul Gandhi, and Vijay

Introduction

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The recent cyber-attack on Jaguar Land Rover (JLR), one of the world's best-known car makers, has revealed extensive weaknesses in the interlinked character of international supply chains. The incident highlights the increasing cybersecurity issues of industries going through digital transformation. With its production stopped in several UK factories, supply chain disruptions, and service delays to its customers worldwide, this cyber-attack shows how cyber events can ripple into operation, finance, and reputation risks for large businesses.

The Anatomy of a Breakdown

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Jaguar Land Rover, a Tata Motors subsidiary, was forced to disable its IT infrastructure because of a cyber-attack over the weekend. This shut down was already an emergency shut down to mitigate damage and the disruption to business was serious. 

• No Production - The car plants at Halewood (Merseyside) and Solihull (West Midlands) and the engine plant (Wolverhampton) were all completely shut down.
• Sales and Distribution: Car sales were significantly impaired during a high-volume registration period in September, although certain transactions still passed through manual procedures.
• Global Effect: The breakdown did not reach only the UK, dealers and fix experts across the world, including in Australia, suffered with inaccessible parts databases.

JLR called the recovery process "extremely complex" as it involved a controlled recovery of systems and implementing alternative workarounds for offline services. The overall effects include the immediate and massive impact to their suppliers and customers, and has raised larger questions regarding the sustainability of digital ecosystems in the automobile value chain.

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The Human Impact: Beyond JLR's Factories

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The implications of the cyber-attack have extended beyond the production lines of JLR:

• Independent Garages: Repair centres such as Nyewood Express of West Sussex indicated that they could not use vital parts databases, which brought repair activities to a standstill and left clients waiting indefinitely.
• Global Dealers: Land Rover experts as distant as Tasmania indicated total system crashes, highlighting global dependency on centralized IT systems.
• Customer Frustration: Regular customers in need of urgent repairs were stranded by the inability to order replacement parts from original manufacturers.

This attack is an example of the cascading effect of cyber disruptions among interconnected industries, a single point of failure paralyzing complete ecosystems.

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The Culprit: The Hacker Collective

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The hack is justifiably claimed by a so-called hacker collective "Scattered Lapsus$ Hunters." The so-called hacking collective says that it consists of young English-speaking hackers and has previously targeted blue-chip brands like Marks & Spencer. While the attackers seem not to have publicly declared whether they exfiltrated sensitive information or deployed ransomware, they went ahead and posted screenshots of internal JLR documents-the kind of documents that probably are not supposed to see the light of day, including troubleshooting guides and system logs-implicating what can only be described as grossly unauthorized access into some of Jaguar Land Rover's core IT systems.

Jaguar Land Rover had gone on record to claim with no apropos proof or evidence that it probably did not see anyone getting into customer data; however, the very occurrence of this attack raises some very serious questions on insider threats, social engineering concepts, and how efficient cybersecurity governance architectures really are.

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Cybersecurity Weaknesses and Lessons Learned

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The JLR attack depicts some of the common weaknesses associated with large-scale manufacturing organizations:

1. Centralized IT Dependencies: Today's auto firms are based on worldwide IT systems for operations, logistics, and customer care. Compromise can lead to broad outages.
2. Supply Chain Vulnerabilities: Tier-2 and Tier-1 suppliers use OEM systems for placing and tracing components. Interrupting at the OEM level automatically stops their processes.
3. Inadequate Incident Visibility: Several suppliers complained about no clear information from JLR, which increased uncertainty and financial loss.
4. Rise of Youth Hacking Groups: Involvement of youth hacker groups highlight the necessity for active monitoring and community-level cybersecurity awareness initiatives.

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Broader Industry Context

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With ever-increasing cyber-attacks on the automotive industry, an area currently being rapidly digitalised through connected cars, IoT-based factories, and cloud-based operations, this series of incidents falls within such a context. In 2023, JLR awarded an £800 million contract to Tata Consultancy Services (TCS) for services in support of the company's digital transformation and cybersecurity enhancement. This attack shows that, no matter how much is spent, poorly conceptualised security programs can never stand up to ever-changing cyber threats.

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What Can Organizations Do? – Cyberpeace Recommendations

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To contain risks and develop a resilience against such events, organizations need to implement a multi-layered approach to cybersecurity:

1. Adopt Zero Trust Architecture - Presume breach as the new normal. Verify each user, device, and application before access is given, even inside the internal network.
2. Enhance Supply Chain Security - Perform targeted assessments on a routine basis to identify risk factors in diminishing suppliers. Include rigorous cybersecurity provisions in the agreements with suppliers, namely disclosure of vulnerabilities and the agreed period for incident response.
3. Durable Backups and Their Restoration - Backward hampers are kept isolated and encrypted to continue operations in case of ransomware incidents or any other occur in system compromise.
4. Periodic Red Team Exercises - Simulate cyber-attacks on IT and OT systems to examine if vulnerabilities exist and evaluate current incident response measures.
5. Employee Training and Insider Threat Monitoring - Social engineering being the forefront of attack vectors, continuous training and behavioural monitoring will have to be done to avoid credential disposal.
6. Public-Private Partnership - Interact with several government agencies and cybersecurity groups for sharing threat intelligence and enforcing best practices complementary to ISO/IEC 27001 and NIST Cybersecurity Framework.

Conclusion

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The hacking at Jaguar Land Rover is perhaps one of a thousand reminders that cybersecurity can no longer be seen as a back-office job but rather as an issue of business continuity at the very core of the organization. In the process of digital transformation, the attack surface grows, making the entities targeted by cybercriminals. Operation security demands that cybersecurity be ensured on a proactive basis through resilient supply chains and stakeholders working together. The JLR attack is not an isolated event; it is a warning for the entire automobile sector to maintain security at every level of digitalization.

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References

• https://www.bbc.com/news/articles/c1jzl1lw4y1o
• https://www.theguardian.com/business/2025/sep/07/disruption-to-jaguar-land-rover-after-cyber-attack-may-last-until-october
• https://uk.finance.yahoo.com/news/jaguar-factory-workers-told-stay-073458122.html

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Overview:

A recent addition to the  list of cybercrime  is SharpRhino, a RAT (Remote Access Trojan) actively used by Hunters International ransomware group. SharpRhino is highly developed and penetrates into the network mask of IT specialists, primarily due to the belief in the tools’ legitimacy. Going under the genuine software installer, SharpRhino started functioning in mid-June 2024. However, Quorum Cyber discovered it in early August 2024 while investigating ransomware.

About Hunters International Group:

Hunters International emerged as one of the most notorious groups focused on ransomware attacks, having compromised over 134 targets worldwide in the first seven months of 2024. It is believed that the group is the rebranding of Hive ransomware group that was previously active, and there are considerable similarities in the code. Its focus on IT employees in particular demonstrates the fact that they move tactically in gaining access to the organizations’ networks.

Modus Operandi:

1. Typosquatting Technique 

SharpRhino is mainly distributed by a domain that looks like the genuine Angry IP Scanner, which is a popular network discovery tool. The malware installer, labeled as ipscan-3.9.1-setup. It is a 32-bit Nullsoft installer which embeds a password protected 7z archive in it. 

2. Installation Process 

• Execution of Installer: When the victim downloads and executes the installer and changes the windows registry in order to attain persistence. This is done by generating a registry entry that starts a harmful file, Microsoft. AnyKey. exe, are fakes originating from fake versions of true legitimate Microsoft Visual Studio tools. 

• Creation of Batch File: This drops a batch file qualified as LogUpdate at the installer.bat, that runs the PowerShell scripts on the device. These scripts are to compile C# code into memory to serve as a means of making the malware covert in its operation. 

• Directory Creation: The installer establishes two directories that allow the C2 communication – C:\ProgramData\Microsoft: WindowsUpdater24 and LogUpdateWindows. 

3. Execution and Functionality: 

• Command Execution: The malware can execute PowerShell commands on the infected system, these actions may involve privilege escalation and other extended actions such as lateral movement. 

• C2 Communication: SharpRhino interacts with command and control servers located on domains from platforms such as Cloudflare. This communication is necessary for receiving commands from the attackers and for returning any data of interest to the attackers. 

• Data Exfiltration and Ransomware Deployment: Once SharpRhino has gained control, it can steal information and then proceed to encrypt it with a .locked extension. The procedure generally concludes with a ransom message, which informs users on how to purchase the decryption key. 

4. Propagation Techniques: 

Also, SharpRhino can spread through the self-copying method, this is the virus may copy itself to other computers using the network account of the victim and pretending to be trustworthy senders such as emails or network-shared files. Moreover, the victim’s machine may then proceed to propagate the malware to other systems like sharing in the company with other employees.

Indicators of Compromise (IOCs):

• LogUpdate.bat
• Wiaphoh7um.t
• ipscan-3.9.1-setup.exe
• kautix2aeX.t
• WindowsUpdate.bat

Command and Control Servers:

• cdn-server-1.xiren77418.workers.dev
• cdn-server-2.wesoc40288.workers.dev
• Angryipo.org
• Angryipsca.com

Analysis:

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Graph:

Precautionary measures to be taken:

To mitigate the risks posed by SharpRhino and similar malware, organizations should implement the following measures:

• Implement Security Best Practices: It is important only to download software from official sites and avoid similar sites to confuse the user by changing a few letters.

• Enhance Detection Capabilities: Use technology in detection that can detect the IOCs linked to Sharp Rhino.

• Educate Employees: Educate IT people and employees on phishing scams and the requirement to check the origin of the application.

• Regular Backups: It is also important to back up important files from systems and networks in order to minimize the effects of ransomware attacks on a business.

Conclusion:

SharpRhino could be deemed as the evolution of the strategies used by organizations like Hunters International and others involved in the distribution of ransomware. SharpRhino primarily focuses on the audience of IT professionals and employs complex delivery and execution schemes, which makes it an extremely serious threat for corporate networks. To do so it is imperative that organizations have an understanding of its inner workings in order to fortify their security measures against this relatively new threat. Through the enforcement of proper security measures and constant enlightenment of organizations on the importance of cybersecurity, firms can prevent the various risks associated with SharpRhino and related malware. Be safe, be knowledgeable, and most importantly, be secure when it comes to cyber security for your investments.

Reference: 

https://cybersecuritynews.com/sharprhino-ransomware-alert/

https://cybersecsentinel.com/sharprhino-explained-key-facts-and-how-to-protect-your-data/

https://www.dataprivacyandsecurityinsider.com/2024/08/sharprhino-malware-targeting-it-professionals/

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Introduction

Web applications are essential in various sectors, including online shopping, social networks, banking, and healthcare systems. However, they also pose numerous security threats, including Cross-Site Scripting (XSS), a client-side code injection vulnerability. XSS attacks exploit the trust relationship between users and websites, allowing them to change web content, steal private information, hijack sessions, and gain full control of user accounts without breaking into the core server. This vulnerability is part of the OWASP Top 10 Web Application Security Risks.

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What is Cross-Site Scripting (XSS)?

An XSS attack occurs when an attacker injects client-side scripts into web pages viewed by other users. When users visit the affected pages, their browsers naively execute the inserted scripts. The exploit takes advantage of web applications that allow users to submit content without properly sanitising inputs or encoding outputs. These scripts can cause a wide range of damage, including but not limited to stealing session cookies for session hijacking, redirecting users to malicious sites, logging keystrokes to capture credentials, and altering the DOM to display fake or phishing content.

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How Does XSS Work?

1. Injection: A malicious user submits code through a website input, like a comment or form.
2. Execution: The submitted code runs automatically in the browsers of other users who view the page.
3. Exploitation:The attacker can steal session information, capture credentials, redirect users, or modify the page content.

The fundamental cause behind the XSS vulnerabilities is the application of:

• Accepting trusted input from the users.  
• After users' input, web pages have the strings embedded without any sanitisation.  
• Not abiding by security policies like Content Security Policy (CSP).  

With such vulnerabilities, attackers can generate malicious payloads like:  <script>alert('XSS');</script>  

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This code might seem simple, but its execution provides the attacker with the possibility to do the following:  

• Copy session tokens through hidden HTTP requests.  
• From attacker-controlled domains, load attacker scripts.  
• Change the DOM structure to show fake login forms for phishing.

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Types of XSS Attacks: XSS (Cross-Site Scripting) attacks can occur in three main variations: 

1. Stored XSS: This type of attack occurs when an attacker injects an administered payload into the database or a message board. The script then runs whenever a user visits the affected board.
2. Reflected XSS: In this attack, the danger lies in a parameter of the URL. Its social engineering techniques are attacks, in which it requires tricking people to click on a specially designed link. For example:
3. DOM-Based XSS: This technique injects anything harmful without the need for server-side scripts, in contrast to other approaches. It targets JavaScript client-side scripts such as `document.write` and `innerHTML`. Without carrying out any safety checks, these scripts will alter the page's look (DOM stands for Document Object Model). If the hash is given a malicious string, it is run directly within the browser.

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What Makes XSS a Threat?  

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A Cross-Site Scripting attack is only a primary attack vector, and can lead to significant damage that includes the following: 

• Statement Hijacking. This uses scripts to steal cookies, which are then used to pose as authorized users.  
• Theft of Credentials. Users’ passwords and usernames are wrenched from keystroke trackers.  
• Phishing. Users are prompted with deceitful login forms that are used to capture sensitive details.  
• Website Vandalism. Modified website material lowers the esteem of the brand.  
• Monetary and Legal Consequences. There are compounding effects to GDPR and DPDP Act compliance in case of Data breaches, which incur penalties and fines.  ‍

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Incidents in the Real World  

In 2021, an XSS Stored attack occurred on a famous e-commerce platform eBay, through their product review system. The malicious JavaScript code was set to trigger every time an infected product page was accessed by customers. This caused a lot of problems, including account takeovers, unauthorised purchases, and damage to the company’s reputation. This example further worsens the fact that even reputed platforms can be targeted by XSS attacks.

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How to Prevent XSS?

Addressing XSS vulnerabilities demands attention to detail and coordinated efforts across functions, as illustrated in the steps below:

 Input Validation and Output Encoding:

• Ensure input validation is in place on the client and server.
• Perform output encoding relative to context: HTML: <, >, &.
• JavaScript: Escape quotes and slashes

Content Security Policy (CSP): CSP allows scripts to be executed only from the verified sources, which helps diminish the odds of harmful scripts running on your website. For example, the Header in the code could look to some degree like this: Content-Security-Policy: script-src 'self';

Unsafe APIs should be dodged: Avoid the use of document.write(), innerHTML, and eval(), and make sure to use:

• TextContent for inserting text.
• CreateElement() and other DOM creation methods for structured content.

Secure Cookies: Apply the HttpOnly and Secure cookie flags to block JavaScript access. 

Framework Protections: Use the protective features in frameworks such as:

• React, which escapes data embedded in JSX automatically.
• Angular, which uses context-aware sanitisation.

Periodic Security Assessment:

• Use DAST tools to test the security posture of an application.
• Perform thorough penetration testing and security-oriented code reviews.

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‍Best Practices for Developers: Assume a Secure Development Lifecycle (SDLC) integrating XSS stoppage at each point.

• Educate developers on OWASP secure coding guidelines.
• Automate scanning for vulnerabilities in CI/CD pipelines.

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‍Conclusion:

To reduce the potential danger of XSS, both developers and companies must be diligent in their safety initiatives, ranging from using Content Security Policies (CSP) to verifying user input. Web applications can shield consumers and the company from the subtle but long-lasting threat of Cross-Site Scripting if security controls are implemented during the web application development stage and regular vulnerability scans are conducted.

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References

• https://owasp.org/www-community/attacks/xss/
• https://www.paloaltonetworks.com/cyberpedia/xss-cross-site-scripting
• https://developer.mozilla.org/en-US/docs/Glossary/Cross-site_scripting
• https://www.cloudflare.com/learning/security/threats/cross-site-scripting/

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