DPDP Bill 2023 A Comparative Analysis

Executive Summary

The IT giant Apple has alerted customers to the impending threat of "mercenary spyware" assaults in 92 countries, including India. These highly skilled attacks, which are frequently linked to both private and state actors  (such as the NSO Group’s Pegasus spyware), target specific individuals, including politicians, journalists, activists and diplomats. In sharp contrast to consumer-grade malware, these attacks are in a league unto themselves: highly-customized to fit the individual target and involving significant resources to create and use.

As the incidence of such attacks rises, it is important that all persons, businesses, and officials equip themselves with information about how such mercenary spyware programs work, what are the most-used methods, how these attacks can be prevented and what one must do if targeted. Individuals and organizations can begin protecting themselves against these attacks by enabling "Lockdown Mode" to provide an extra layer of security to their devices and by frequently changing passwords and by not visiting the suspicious URLs or attachments. 

Introduction: Understanding Mercenary Spyware

Mercenary spyware is a special kind of spyware that is developed exclusively for law enforcement and government organizations. These kinds of spywares are not available in app stores, and are developed for attacking a particular individual and require a significant investment of resources and advanced technologies. Mercenary spyware hackers infiltrate systems by means of techniques such as phishing (by sending malicious links or attachments), pretexting (by manipulating the individuals to share personal information) or baiting (using tempting offers). They often intend to use Advanced Persistent Threats (APT)  where the hackers remain undetected for a prolonged period of time to steal data by continuous stealthy infiltration of the target’s network. The other method to gain access is through zero-day vulnerabilities, which is the process of gaining access to mobile devices using vulnerabilities existing in software. A well-known example of mercenary spyware includes the infamous Pegasus by the NSO Group.

Actions:  By Apple against Mercenary Spyware

Apple has introduced an advanced, optional protection feature in its newer product versions (including iOS 16, iPadOS 16, and macOS Ventura) to combat mercenary spyware attacks. These features have been provided to the users who are at risk of targeted cyber attacks.

Apple released a statement on the matter, sharing, “mercenary spyware attackers apply exceptional resources to target a very small number of specific individuals and their devices. Mercenary spyware attacks cost millions of dollars and often have a short shelf life, making them much harder to detect and prevent.”

When Apple's internal threat intelligence and investigations detect these highly-targeted attacks, they take immediate action to notify the affected users. The notification process involves:

• Displaying a "Threat Notification" at the top of the user's Apple ID page after they sign in.

• Sending an email and iMessage alert to the addresses and phone numbers associated with the user's Apple ID.
• Providing clear instructions on steps the user should take to protect their devices, including enabling "Lockdown Mode" for the strongest available security.
• Apple stresses that these threat notifications are "high-confidence alerts" - meaning they have strong evidence that the user has been deliberately targeted by mercenary spyware. As such, these alerts should be taken extremely seriously by recipients.

Modus Operandi of Mercenary Spyware

1. Installing advanced surveillance equipment remotely and covertly.

2. Using zero-click or one-click attacks to take advantage of device vulnerabilities.

3. Gain access to a variety of data on the device, including location tracking, call logs, text messages, passwords, microphone, camera, and app information.

4. Installation by utilizing many system vulnerabilities on devices running particular iOS and Android versions.

5. Defense by patching vulnerabilities with security updates (e.g., CVE-2023-41991, CVE-2023-41992, CVE-2023-41993).

6. Utilizing defensive DNS services, non-signature-based endpoint technologies, and frequent device reboots as mitigation techniques.

Prevention Measures: Safeguarding Your Devices

1. Turn on security measures: Make use of the security features that the device maker has supplied, such as Apple's Lockdown Mode, which is intended to prevent viruses of all types from infecting Apple products, such as iPhones.

2. Frequent software upgrades: Make sure the newest security and software updates are installed on your devices. This aids in patching holes that mercenary malware could exploit.

3. Steer clear of misleading connections: Exercise caution while opening attachments or accessing links from unidentified sources. Installing mercenary spyware is possible via phishing links or attachments.

4. Limit app permissions: Reassess and restrict app permissions to avoid unwanted access to private information.

5. Use secure networks: To reduce the chance of data interception, connect to secure Wi-Fi networks and stay away from public or unprotected connections.

6. Install security applications: To identify and stop any spyware attacks, think about installing reliable security programs from reliable sources.

7. Be alert: If Apple or other device makers send you a threat notice, consider it carefully and take the advised security precautions.

8. Two-factor authentication: To provide an extra degree of protection against unwanted access, enable two-factor authentication (2FA) on your Apple ID and other significant accounts.

9. Consider additional security measures: For high-risk individuals, consider using additional security measures, such as encrypted communication apps and secure file storage services

Way Forward: Strengthening Digital Defenses, Strengthening Democracy

People, businesses and administrations must prioritize cyber security measures and keep up with emerging dangers as mercenary spyware attacks continue to develop and spread. To effectively address the growing threat of digital espionage, cooperation between government agencies, cybersecurity specialists, and technology businesses is essential.

In the Indian context, the update carries significant policy implications and must inspire a discussion on legal frameworks for government surveillance practices and cyber security protocols in the nation. As the public becomes more informed about such sophisticated cyber threats, we can expect a greater push for oversight mechanisms and regulatory protocols. The misuse of surveillance technology poses a significant threat to individuals and institutions alike. Policy reforms concerning surveillance tech must be tailored to address the specific concerns of the use of such methods by state actors vs. private players. 

There is a pressing need for electoral reforms that help safeguard democratic processes in the current digital age. There has been a paradigm shift in how political activities are conducted in current times: the advent of the digital domain has seen parties and leaders pivot their campaigning efforts to favor the online audience as enthusiastically as they campaign offline. Given that this is an election year, quite possibly the most significant one in modern Indian history, digital outreach and online public engagement are expected to be at an all-time high. And so, it is imperative to protect the electoral process against cyber threats so that public trust in the legitimacy of India’s democratic is rewarded and the digital domain is an asset, and not a threat, to good governance.

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Amid protests against rising inflation in Iran, a video is being widely shared on social media showing people gathering on streets at night while using mobile phone flashlights. The video is being circulated with the claim that it shows recent protests in Iran. Cyber Peace Foundation’s research found that the video being shared as visuals from the ongoing protests in Iran is not real. Our investigation revealed that the viral video is AI-generated and has no connection with actual events on the ground.

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Claim

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On January 11, 2026, an Instagram user shared the video with a caption written in Spanish. The Hindi translation of the caption reads: “The Iranian government shut down the lights of protesters, but that did not stop them from remaining on the streets demanding that the Ayatollahs step down from power.”The post link, its archived version, and screenshots can be seen below: https://www.instagram.com/p/DTXqzayjqFz/ 

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FactCheck:

To verify the claim, we extracted keyframes from the viral video and conducted a Google reverse image search.During this process, we found the same video uploaded on Instagram on January 11, 2026. In that post, the user explicitly stated that the video was created using AI. The caption reads that the streetlights were turned off to hide the scale of protesters, but people used their phone lights to show their presence, adding:

“I created this video using AI, inspired by tonight’s protests (January 10, 2026) in Tehran, Iran.” Link to the post and screenshot can be seen below: https://www.instagram.com/p/DTWXsHajNvl/ 

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To further verify the authenticity of the video, we scanned it using multiple AI detection tools.Hive Moderation flagged the video as 97 percent AI-generated.

We also scanned the video using another AI detection tool, Wasitai, which likewise identified the video as AI-generated.

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Conclusion

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Our investigation confirms that the video being shared as footage from protests in Iran is not real. The viral video has been created using artificial intelligence and is being falsely linked to the ongoing protests. The claim circulating on social media is false and misleading.

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Introduction

The advancement of technology has brought about remarkable changes in the aviation industry, including the introduction of inflight internet access systems. While these systems provide passengers with connectivity during their flights, they also introduce potential vulnerabilities that can compromise the security of aircraft systems.

Inflight Internet Access Systems

Inflight internet access systems have become integral to the modern air travel experience, allowing passengers to stay connected even at 30,000 feet. However, these systems can also be attractive targets for hackers, raising concerns about the safety and security of aircraft operations.

The Vulnerabilities of Inflight Internet Access Systems:

Securing Networked Avionics

Avionics, the electronic systems that support aircraft operation, play a crucial role in flight safety and navigation. While networked avionics are designed with robust security measures, they are not invulnerable to cyber threats. Therefore, it is essential to implement comprehensive security measures to protect these critical systems.

1. Ensuring Robust Architecture: Networked avionics should be designed with a strong focus on security. Implementing secure network architectures, such as segmentation and isolation, can minimise the risk of unauthorised access and limit the potential impact of a breach.
2. Rigorous Security Testing: Avionics systems should undergo rigorous security testing to identify vulnerabilities and weaknesses. Regular assessments, penetration testing, and vulnerability scanning are essential to proactively address any security flaws.
3. Collaborative Industry Efforts: Collaboration between manufacturers, airlines, regulatory bodies, and security researchers is crucial in strengthening the security of networked avionics. Sharing information, best practices, and lessons learned can help identify and address emerging threats effectively.
4. Continuous Monitoring and Updtes: Networked avionics should be continuously monitored for any potential security breaches. Prompt updates and patches should be applied to address newly discovered vulnerabilities and protect against known attack vectors.

Best practices to be adopted for the security of  Aircraft Systems

1. Holistic Security Approach: Recognizing the interconnectedness of inflight internet access systems and networked avionics is essential. A holistic security approach should be adopted to address vulnerabilities in both systems and protect the overall aircraft infrastructure.
2. Comprehensive Security Measures: The security of inflight internet access systems should be on par with any other internet-connected device. Strong authentication, encryption, intrusion detection, and prevention systems should be implemented to mitigate risks and ensure the integrity of data transmissions.
3. Responsible Practices and Industry Collaboration: Encouraging responsible practices and fostering collaboration between security researchers and industry stakeholders can accelerate the identification and remediation of vulnerabilities. Open communication channels and a cooperative mindset are vital in addressing emerging threats effectively.
4. Robust Access Controls: Strong access controls, such as multi-factor authentication and role-based access, should be implemented to limit unauthorised access to avionics systems. Only authorised personnel should have the necessary privileges to interact with these critical systems.

Conclusion

Inflight internet access systems bring convenience and connectivity to air travel but also introduce potential risks to the security of aircraft systems. It is crucial to understand and address the vulnerabilities associated with these systems to protect networked avionics and ensure passenger safety. By implementing robust security measures, conducting regular assessments, fostering collaboration, and adopting a comprehensive approach to aircraft cybersecurity, the aviation industry can mitigate the risks and navigate the sky with enhanced safety and confidence. Inflight internet access systems and networked avionics are vital components of modern aircraft, providing connectivity and supporting critical flight operations. Balancing connectivity and cybersecurity is crucial to ensure the safety and integrity of aircraft systems.