#FactCheck - AI Artwork Misattributed: Mahendra Singh Dhoni Sand Sculptures Exposed as AI-Generated

Introduction

Smartphones have revolutionised human connectivity. In 2023, it was estimated that almost 96% of the global digital population is accessing the internet via their mobile phones and India alone has 1.05 billion users. Information consumption has grown exponentially due to the enhanced accessibility that these mobiles provide. These devices allow accessibility to information no matter where one is, and have completely transformed how we engage with the world around us, be it to skim through work emails while commuting, video streaming during breaks, reading an ebook at our convenience or even catching up on news at any time or place. Mobile phones  grant us instant access to the web and are always within reach. 

But this instant connection has its downsides too, and one of the most worrying of these is the rampant rise of misinformation. These tiny screens and our constant, on-the-go dependence on them can be directly linked to the spread of “fake news,” as people consume more and more content in rapid bursts, without taking the time to really process the same or think deeply about its authenticity. There is an underlying cultural shift in how we approach information and learning currently: the onslaught of vast amounts of “bite-sized information” discourages people from researching what they’re being told or shown. The focus has shifted from learning deeply to consuming more and sharing faster. And this change in audience behaviour is making us vulnerable to misinformation, disinformation and unchecked foreign influence.

The Growth of Mobile Internet Access 

More than 5 billion people are connected to the internet and web traffic is increasing rapidly. The developed countries in North America and Europe are experiencing mobile internet penetration at a universal rate.  Contrastingly, the developing countries of Africa, Asia, and Latin America are experiencing rapid growth in this penetration. The introduction of affordable smartphones and low-cost mobile data plans has expanded access to internet connectivity. 4G and 5G infrastructure development have further bridged any connectivity gaps. This widespread access to the mobile internet has democratised information, allowing millions of users to participate in the digital economy.  Access to educational resources while at the same time engaging in global conversations is one such example of the democratisation of information. This reduces the digital divide between diverse groups and empowers communities with unprecedented access to knowledge and opportunities.

The Nature of Misinformation in the Mobile Era 

Misinformation spread has become more prominent in recent times and one of the contributing factors is the rise of mobile internet. This instantaneous connection has made social media platforms like Facebook, WhatsApp, and X (formerly Twitter) available on a single compact and portable device. These social media platforms enable users to share content instantly and to a wide user base, many times without verifying its accuracy. The virality of social media sharing, where posts can reach thousands of users in seconds, accelerates the spread of false information. This ease of sharing, combined with algorithms that prioritise engagement, creates a fertile ground for misinformation to flourish, misleading vast numbers of people before corrections or factual information can be disseminated. 

Some of the factors that are amplifying misinformation sharing through mobile internet are algorithmic amplification which prioritises engagement, the ease of sharing content due to instant access and user-generated content, the limited media literacy of users and the echo chambers which reinforce existing biases and spread false information. 

Gaps and Challenges due to the increased accessibility of  Mobile Internet 

Despite growing concerns about misinformation spread due to mobile internet, policy responses remain inadequate, particularly in developing countries. These gaps include: the lack of algorithm regulation, as social media platforms prioritise engaging content, often fueling misinformation. Inadequate international cooperation further complicates enforcement, as addressing the cross-border nature of misinformation has been a struggle for national regulations. 

Additionally, balancing content moderation with free speech remains challenging, with efforts to curb misinformation sometimes leading to concerns over censorship. 

Finally, a deficit in media literacy leaves many vulnerable to false information. Governments and international organisations must prioritise public education to equip users with the required skills to evaluate online content, especially in low-literacy regions.

CyberPeace Recommendations

Addressing misinformation via mobile internet requires a collaborative, multi-stakeholder approach. 

• Governments should mandate algorithm transparency, ensuring social media platforms disclose how content is prioritised and give users more control. 
• Collaborative fact-checking initiatives between governments, platforms, and civil society could help flag or correct false information before it spreads, especially during crises like elections or public health emergencies. 
• International organisations should lead efforts to create standardised global regulations to hold platforms accountable across borders. 
• Additionally, large-scale digital literacy campaigns are crucial, teaching the public how to assess online content and avoid misinformation traps.

Conclusion

Mobile internet access has transformed information consumption and bridged the digital divide. At the same time, it has also accelerated the spread of misinformation. The global reach and instant nature of mobile platforms, combined with algorithmic amplification, have created significant challenges in controlling the flow of false information. Addressing this issue requires a collective effort from governments, tech companies, and civil society to implement transparent algorithms, promote fact-checking, and establish international regulatory standards. Digital literacy should be enhanced to empower users to assess online content and counter any risks that it poses.  

References

• https://www.statista.com/statistics/1289755/internet-access-by-device-worldwide/ 
• https://www.forbes.com/sites/kalevleetaru/2019/05/01/are-smartphones-making-fake-news-and-disinformation-worse/
• https://www.pewresearch.org/short-reads/2019/03/07/7-key-findings-about-mobile-phone-and-social-media-use-in-emerging-economies/ft_19-02-28_globalmobilekeytakeaways_misinformation/ 
• https://www.psu.edu/news/research/story/slow-scroll-users-less-vigilant-about-misinformation-mobile-phones 

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About Global Commission on Internet Governance 

The Global Commission on Internet Governance was established in January 2014 with the goal of formulating and advancing a strategic vision for Internet governance going forward. Independent research on Internet-related issues of international public policy is carried out and supported over the two-year initiative. An official commission report with particular policy recommendations for the future of Internet governance will be made available as a result of this initiative.

There are two goals for the Global Commission on Internet Governance. First, it will encourage a broad and inclusive public discussion on how Internet governance will develop globally. Second, through its comprehensive policy-oriented report and the subsequent marketing of this final report, the Global Commission on Internet Governance will present its findings to key stakeholders at major Internet governance events.‍

‍The Internet: exploring the world wide web and the deep web

The Internet can be thought of as a vast networking infrastructure, or network of networks. By linking millions of computers worldwide, it creates a network that allows any two computers, provided they are both online, to speak with one another.

The Hypertext Transfer Protocol is the only language spoken over the Internet and is used by the Web to transfer data. Email, which depends on File Transfer Protocol, Usenet newsgroups, Simple Mail Transfer Protocol, and instant messaging, is also used on the Internet—not the Web. Thus, even though it's a sizable chunk, the Web is only a part of the Internet [1]. In summary, the deep Web is the portion of the Internet that is not visible to the naked eye. It is stuff from the World Wide Web that isn't available on the main Web. Standard search engines cannot reach it. More than 500 times larger than the visible Web is this enormous subset of the Internet [1-2].

The Global Commission on Internet Governance will concentrate on four principal themes:

• Improving the legitimacy of government, including standards and methods for regulation;

• Promoting economic innovation and expansion, including the development of infrastructure, competition laws, and vital Internet resources; 

• Safeguarding online human rights, including establishing the idea of technological neutrality for rights to privacy, human rights, and freedom of expression;

• Preventing systemic risk includes setting standards for state behaviour, cooperating with law enforcement to combat cybercrime, preventing its spread, fostering confidence, and addressing disarmament-related issues.

Dark Web 

The part of the deep Web that has been purposefully concealed and is unreachable using conventional Web browsers is known as the "dark Web." Dark Web sites are a platform for Internet users who value their anonymity since they shield users from prying eyes and typically utilize encryption to thwart monitoring. The Tor network is a well-known source for content that may be discovered on the dark web. Only a unique Web browser known as the Tor browser is required to access the anonymous Tor network (Tor 2014). It was a technique for anonymous online communication that the US Naval Research Laboratory first introduced as The Onion Routing (Tor) project in 2002. Many of the functionality offered by Tor are also available on I2P, another network. On the other hand, I2P was intended to function as a network inside the Internet, with traffic contained within its boundaries. Better anonymous access to the open Internet is offered by Tor, while a more dependable and stable "network within the network" is provided by I2P [3].

Cybersecurity in the dark web

Cyber crime is not any different than crime in the real world — it is just executed in a new medium: “Virtual criminality’ is basically the same as the terrestrial crime with which we are familiar. To be sure, some of the manifestations are new. But a great deal of crime committed with or against computers differs only in terms of the medium. While the technology of implementation, and particularly its efficiency, may be without precedent, the crime is fundamentally familiar. It is less a question of something completely different than a recognizable crime committed in a completely different way [4].”

Dark web monitoring

The dark Web, in general, and the Tor network, in particular, offer a secure platform for cybercriminals to support a vast amount of illegal activities — from anonymous marketplaces to secure means of communication, to an untraceable and difficult to shut down infrastructure for deploying malware and botnets.

As such, it has become increasingly important for security agencies to track and monitor the activities in the dark Web, focusing today on Tor networks, but possibly extending to other technologies in the near future. Due to its intricate webbing and design, monitoring the dark Web will continue to pose significant challenges. Efforts to address it should be focused on the areas discussed below [5].

Hidden service directory of dark web

A domain database used by both Tor and I2P is based on a distributed system called a "distributed hash table," or DHT. In order for a DHT to function, its nodes must cooperate to store and manage a portion of the database, which takes the shape of a key-value store. Owing to the distributed character of the domain resolution process for hidden services, nodes inside the DHT can be positioned to track requests originating from a certain domain [6].

Conclusion

The deep Web, and especially dark Web networks like Tor (2004), offer bad actors a practical means of transacting in products anonymously and lawfully.

The absence of discernible activity in non-traditional dark web networks is not evidence of their nonexistence. As per the guiding philosophy of the dark web, the actions are actually harder to identify and monitor. Critical mass is one of the market's driving forces. It seems unlikely that operators on the black Web will require a great degree of stealth until the repercussions are severe enough, should they be caught. It is possible that certain websites might go down, have a short trading window, and then reappear, which would make it harder to look into them.

References

1. Ciancaglini, Vincenzo, Marco Balduzzi, Max Goncharov and Robert McArdle. 2013. “Deepweb and Cybercrime: It’s Not All About TOR.” Trend Micro Research Paper. October. 
2. Coughlin, Con. 2014. “How Social Media Is Helping Islamic State to Spread Its Poison.” The Telegraph, November 5. 
3. Dahl, Julia. 2014. “Identity Theft Ensnares Millions while the Law Plays Catch Up.” CBS News, July 14. 
4. Dean, Matt. 2014. “Digital Currencies Fueling Crime on the Dark Side of the Internet.” Fox Business, December 18.
5. Falconer, Joel. 2012. “A Journey into the Dark Corners of the Deep Web.” The Next Web, October 8. 
6. Gehl, Robert W. 2014. “Power/Freedom on the Dark Web: A Digital Ethnography of the Dark Web Social Network.” New Media & Society, October 15. http://nms.sagepub.com/content/early/2014/ 10/16/1461444814554900.full#ref-38.

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Introduction

Quantum mechanics is not a new field. It finds its roots in the works of physicists such as Niels Bohr in the 1920s, and has informed the development of technologies like nuclear power in the past. But with developments in science and engineering, we are at the cusp of harnessing quantum mechanics for a new wave of real-world uses in sensing and metrology, computing, networking, security, and more. While at different stages of development, quantum technologies have the potential to revolutionise global security, economic systems, and digital infrastructure. The science is dazzling, but it is equally urgent to start preparing for its broader impact on society, especially regarding privacy and digital security. This article explores quantum computing, its threat to information integrity, and global interdependencies as they exist today, and discusses policy areas that should be addressed.

What Is Quantum Computing?

Classical computers use binary bits (0 or 1) to represent and process information. This binary system forms the base of modern computing. But quantum computers use qubits (quantum bits) as a basic unit, which can exist in multiple states ( 0, 1, both, or with other qubits) simultaneously due to quantum principles like superposition and entanglement. This creates an infinite range of possibilities in information processing and allows quantum machines to perform complex computations at speeds impossible for traditional computers. While still in their early stages, large-scale quantum computers could eventually:

1. Break modern encryption systems
2. Model complex molecules for drug discovery
3. Optimise global logistics and financial systems
4. Accelerate AI and machine learning

While this could eventually present significant opportunities in fields such as health innovation, material sciences, climate modelling, and cybersecurity, challenges will continue to arise even before the technology is ready for commercial application. Policymakers must start anticipating their impact.

Threats

Policy solutions surrounding quantum technologies will depend on the pace of development of the elements of the quantum ecosystem. However, the most urgent concerns regarding quantum computing applications are the risk to encryption and the impact on market competition.

1. Cybersecurity Threat: Digital infrastructure today (e.g., cloud services, networks, servers, etc.) across sectors such as government, banking and finance, healthcare, energy, etc., depends on encryption for secure data handling and communications. Threat actors can utilise quantum computers to break this encryption. Widely used asymmetric encryption keys, such as RSA or ECC, are particularly susceptible to being broken. Threat actors could "harvest now, decrypt later”- steal encrypted data now and decrypt it later when quantum capabilities mature. Although AES-256, a symmetric encryption standard, is currently considered resistant to quantum decryption, it only protects data after a secure connection is established through a process that today relies on RSA or ECC. This is why governments and companies are racing to adopt Post- Quantum Cryptography (PQC) and quantum key distribution (QKD) to protect security and privacy in digital infrastructure.

2. Market Monopoly: Quantum computing demands significant investments in infrastructure, talent, and research, which only a handful of countries and companies currently possess. As a result, firms that develop early quantum advantage may gain unprecedented competitive leverage through offerings such as quantum-as-a-service, disrupting encryption-dependent industries, or accelerating innovation in pharmaceuticals, finance, and logistics. This could reinforce the existing power asymmetries in the global digital economy. Given these challenges, proactive and forward-looking policy frameworks are critical.

What Should Quantum Computing Policy Cover?

Commercial quantum computing will transform many industries. Policy will have to be flexible and be developed in iterations to account for fast-paced developments in the field. It will also require enduring international collaboration to effectively address a broad range of concerns, including ethics, security, privacy, competition, and workforce implications.

1. Cybersecurity and Encryption: Quantum policy should prioritise the development and standardisation of quantum-resistant encryption methods. This includes ongoing research into Post-Quantum Cryptography (PQC) algorithms and their integration into digital infrastructure. Global policy will need to align national efforts with international standards to create unified quantum-safe encryption protocols.

2. Market Competition and Access: Given the high barriers to entry, regulatory frameworks should promote fair competition, enabling smaller players like startups and developing economies to participate meaningfully in the quantum economy. Frameworks to ensure equitable access, interoperability, and fair competition will become imperative as the quantum ecosystem matures so that society can reap its benefits as a whole.

4. Ethical Considerations: Policymakers will have to consider the impact on privacy and security, and push for the responsible use of quantum capabilities. This includes ensuring that quantum advances do not contribute to cybercrime, disproportionate surveillance, or human rights violations.

5. International Standard-Setting: Setting benchmarks, shared terminologies, and measurement standards will ensure interoperability and security across diverse stakeholders and facilitate global collaboration in quantum research and infrastructure.

6. Military and Defence Implications: Militarisation of quantum technologies is a growing concern, and national security affairs related to quantum espionage are being urgently explored. Nations will have to develop regulations to protect sensitive data and intellectual property from quantum-enabled attacks.

7. Workforce Development and Education: Policies should encourage quantum computing education at various levels to ensure a steady pipeline of talent and foster cross-disciplinary programs that blend quantum computing with fields like machine learning, AI, and engineering.

8. Environmental and Societal Impact: Quantum computing hardware requires specialised conditions such as extreme cooling. Policy will have to address the environmental footprint of the infrastructure and energy consumption of large-scale quantum systems. Broader societal impacts of quantum computing, including potential job displacement, accessibility issues, and the equitable distribution of quantum computing benefits, will have to be explored.

Conclusion

Like nuclear power and AI, the new wave of quantum technologies is expected to be an exciting paradigm shift for society. While they can bring numerous benefits to commercial operations and address societal challenges, they also pose significant risks to global information security. Quantum policy will require regulatory, strategic, and ethical frameworks to govern the rise of these technologies, especially as they intersect with national security, global competition, and privacy. Policymakers must act in collaboration to mitigate unethical use of these technologies and the entrenchment of digital divides across countries. The OECD’s Anticipatory Governance of Emerging Technologies provides a framework of essential values like respect for human rights, privacy, and sustainable development, which can be used to set a baseline, so that quantum computing and related technologies benefit society as a whole.

References

• https://www.weforum.org/stories/2024/07/explainer-what-is-quantum-technology/
• https://www.paconsulting.com/insights/what-is-quantum-technology
• https://delinea.com/blog/quantum-safe-encryption#:~:text=This%20can%20result%20in%20AES,%2D128%20to%20AES%2D256.
• https://www.oecd.org/en/publications/a-quantum-technologies-policy-primer_fd1153c3-en.html

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