Category: Cyber Security

  • Decoding Quantum Computing: Understanding the Basics

    Decoding Quantum Computing: Understanding the Basics

     

    Quantum computing has the potential to revolutionise the field of computing and has far-reaching implications for the future of technology. It is a complex and rapidly evolving field that requires a deep understanding of quantum mechanics and computer science.

    Quantum Computing and Moore’s Law

    Quantum computing is set to revolutionise the field of computation by leveraging the principles of quantum mechanics. While classical computing, which follows Moore’s Law, is approaching its physical limits, quantum computing offers a way to surpass these boundaries. Moore’s Law states that the number of transistors on a microchip doubles approximately every two years, leading to exponential growth in computing power. However, this trend cannot continue indefinitely due to the physical limitations of classical hardware.

    Nature Simulation with Quantum Processors

    Unlike classical bits, quantum bits (qubits) can exist in multiple states simultaneously, thanks to a property known as superposition. This means that a quantum computer can process a vast number of possibilities all at once. For example, in a maze, a classical computer would explore each path one by one, while a quantum computer could explore all paths simultaneously. This is illustrated in the following diagram:

    Quantum computing exploits entanglement and superposition to perform calculations at unprecedented speeds. This capability makes it particularly suited for simulating natural processes at the atomic and molecular levels, tasks that classical computers struggle with.

    Challenges in Quantum Computing

    Quantum computing, despite its promising potential, encounters notable obstacles primarily stemming from the delicate nature of qubits. Qubits, the fundamental units of quantum information, exhibit high sensitivity to external factors, rendering them susceptible to coherence loss caused by thermal noise. This susceptibility results in increased error rates during computation. Preserving qubit coherence presents a significant challenge, as even minimal disturbances can induce decoherence, disrupting quantum operations.

    In addition to superconducting qubits, other quantum computing methods also face significant challenges. For instance, trapped ion qubits are highly susceptible to environmental noise and require extremely precise laser control to maintain coherence, which is technically demanding and resource-intensive. Topological qubits, while theoretically more robust against local perturbations, are still in nascent stages of experimental realisation, and creating and manipulating these qubits remains a formidable challenge. Photonic qubits rely on maintaining precise control over individual photons, which is difficult due to losses and the need for high-fidelity detectors and sources. Quantum dot qubits face issues with variability in dot size and composition, affecting their uniformity and coherence times. Each of these methods requires sophisticated error correction techniques and significant advancements in material science and engineering to overcome their respective challenges.

    Remarkably, natural quantum processes (Quantum Biology) operate seamlessly at room temperature, a phenomenon that remains elusive in terms of being replicated effectively in artificial quantum systems.

    If these significant technical challenges can be overcome, quantum computing promises unprecedented computational power and transformative applications across various fields.

    Ultimate Applications of Quantum Computing

    Quantum computing holds the promise of facilitating groundbreaking advancements across various disciplines. Research literature underscores its potential in drug discovery, where quantum computers exhibit superior efficacy in modelling intricate molecular structures compared to classical counterparts. Similarly, in financial modelling, quantum algorithms demonstrate the capacity to optimise portfolios with unparalleled precision.

    Military Advancements

    Quantum sensing and communication technologies have the potential to significantly revolutionise military capabilities. Quantum radar systems, for instance, possess the capability to detect stealth aircraft, overcoming the limitations of conventional radar systems. Additionally, secure Quantum communication could provide robust defences against cyber threats, ensuring the integrity and confidentiality of sensitive information.

    Elevating Humanity

    The applications of quantum computing have the potential to propel humanity towards a Type II civilization on the Kardashev Scale, endowed with the capability to harness and manage energy on a planetary scale. By manipulating quantum processes, we stand poised to address pressing global challenges such as climate change and energy scarcity.

    Green Revolution and Sustainability

    Among the most auspicious applications of quantum computing is its potential to revolutionise artificial photosynthesis, thereby paving the way for sustainable energy solutions. Quantum computers are poised to streamline nitrogen capture processes, indispensable for enhancing agricultural productivity and potentially instigating a second green revolution. Such advancements hold the promise of ameliorating food security concerns and accommodating the burgeoning global population, echoing the transformative impact of the initial green revolution.

    How the Race Started

    The Inception and Influence of Peter Shor’s Algorithm

     The quest for quantum supremacy gained significant momentum with the groundbreaking work of Peter Shor, a mathematician and theoretical computer scientist. In 1994, Shor developed an algorithm that fundamentally challenged the security of classical cryptographic systems. Shor’s algorithm, designed to run on a quantum computer, efficiently factors large integers—a task that is exponentially time-consuming for classical computers. This capability poses a direct threat to widely used cryptographic schemes, such as RSA, which rely on the difficulty of factoring large numbers for security.

    Shor’s discovery was a pivotal moment that captured the attention of both the academic community and government agencies, particularly those concerned with national security, such as the National Security Agency (NSA). Recognizing the profound implications for encryption and data security, the NSA and other entities significantly increased their investments in quantum computing research and development.

    This breakthrough ignited international competition, with major world powers like the United States, China, and the European Union vying for dominance in the field. Each nation adopted different technological approaches in their pursuit of quantum supremacy. For example, Google and IBM focus on superconducting qubits, IonQ employs trapped ion technology, and Microsoft explores the potential of topological qubits.

    These diverse methodologies reflect the broad and multifaceted efforts to harness the unprecedented computational power promised by quantum computing.

    Race of the 21st Century

    The quest for quantum supremacy is the new frontier in technological competition, reminiscent of past races like the nuclear arms race (peaking in the 1950s) and the space race1 (culminating in the 1969 moon landing). However, the stakes in the quantum race are arguably higher. Estimates suggest the global quantum computing market could reach $50 billion by 2030. Achieving quantum supremacy, the ability of a quantum computer to outperform a classical computer for a specific task, is not just a scientific milestone but a potential economic and strategic game-changer.

    The country that first achieves and leverages quantum supremacy is poised to become a global leader in innovation, economic growth, and, potentially, military dominance. This potential has spurred fierce international competition, with nations like China, the United States, and the European Union investing heavily in quantum research and development.

    References

    Kaku, Michio. Quantum Supremacy: The Quest to Build the World’s Most Powerful Computer. New York: Doubleday, 2023

    – (2017) “Feeding the World with Die Rolls: Potential Applications of Quantum Computing,” Dartmouth Undergraduate Journal of Science: Vol. 20: No. 1, Article 9.

    Shor algorithm

     Quantum computational chemistry

    Quantum computing research trends report

     

  • Social automation and APT attributions in National Cybersecurity

    Social automation and APT attributions in National Cybersecurity

    Advanced Persistent Threats (APTs) are a prime concern in the formulation and implementation of national cybersecurity policies. These threats often also involve complex social engineering tactics which are undergoing a quantitative and qualitative revolution with burgeoning AI capabilities. However, the attribution of these APT activities can be mired with technical and political considerations. We analysed 142 APT groups’ attributions along with their use of social interaction vectors to ascertain the nature of the risk environment and the operational threat landscape of AI and social automation. We discover that close to 80% of APT activities could be chalked up to merely 20% of key nation-state threat actors competing with each other. We further discuss the implications of this political threat distribution for national cybersecurity environments.

    Keywords: cybersecurity, AI Policy, advanced persistent threats, automation, social engineering


    Read full paper here

  • Why India risks a quantum tech brain drain

    Why India risks a quantum tech brain drain

    Clear career progression would help India’s quantum workforce and avoid a brain drain overseas

    India could lose its best quantum tech talent if the industry doesn’t get its act together.

    Quantum technology has the potential to revolutionise our lives through speeds which once seemed like science fiction.

    India is one of a few nations with national quantum initiatives and it stands on the threshold of potentially enormous technological and social benefits.

    The National Quantum Mission, approved by the national cabinet in April, is a timely government initiative that has the potential to catapult India to a global leader leading in quantum research and technologies if leveraged correctly.

    Its main areas of research are quantum computing, secure quantum communications, quantum sensing and metrology and quantum materials.

    The challenge for India is how it ensures it gets the best out of the mission.

    The benefits of the technology can benefit many aspects of society through processing power, accuracy and speed and can positively impact health, drug research, finance and economics.

    Similarly, quantum security can revolutionise security in strategic communication sectors including defence, banking, health records and personal data.

    Quantum sensors can enable better GPS services through atomic clocks and high-precision imaging while quantum materials research can act as an enabler for more quantum technologies.

    But the Indian quantum ecosystem is still academia-centric.

    India’s Department of Science and Technology had set up a pilot programme on Quantum Enabled Science and Technologies — a precursor to the National Quantum Mission.

    As a result, India has a large number of young and energetic researchers, working at places such as RRI Bangalore, TIFR and IIT Delhi who have put an infrastructure in place for the next generation quantum experiments with capabilities in different quantum technology platforms. These include quantum security through free space, fibres as well-integrated photonics, quantum sensing and metrology.

    The prospects and impact of quantum technologies will be hugely strategic. Predictions suggest quantum computing will have a profound impact on financial services, logistics, transportation, aerospace and automotive, materials science, energy, agriculture, pharmaceuticals and healthcare, and cybersecurity. All of these areas are strategic on macroeconomic and national security scales.

    Even as it has taken significant policy initiative to kickstart research into quantum technologies, India will need to craft a national strategy with a long-term perspective and nurture and develop its research work force.

    Clear career progression would help India’s quantum workforce. The risk of brain drain, where local talent moves overseas for better opportunities, could be a real possibility if different industries which can benefit from the technology fail to recognise its transformative capabilities and how it can help create jobs and opportunities.

    While there are multiple labs working in different quantum sectors, the career path of students and post-doctoral researchers remains unclear as there are not enough positions in the academic sector.

    One problem is industry and academia are competing with each other for quantum research funding which is why equal emphasis on quantum technology development in the industrial sector could help.

    While India does have some quantum start-ups, more lab-to-market innovations which would make the technology practically useful could give the field momentum. Currently, the big industrial firms in India are not yet committed to quantum technology.

    The lack of homegrown technologies like optical, optomechanical and electronic components for precision research is another impediment. Most of these are imported, resulting in financial drain and long delays in research.

    The National Quantum Mission could help fix a number of these problems.

    Hurdles could be turned into opportunities if more start-ups and established industries were to manufacture high-end quantum technology enabling products in India.

    Another major deterrent is the lack of coordination. Multiple efforts to develop and research the technology, across government and start-ups, do not seem to have coherence and still lack maturity. People involved in quantum research are hopeful the mission will help address this.

    Like most other countries, India has witnessed plenty of hype about quantum research. While this may help provide a short-term boost to the field, excessive hype can lead to unrealistic expectations.

    Continuing to build a skilled workforce and a clear career progression plan for those involved in research and development of quantum technologies can help secure India’s future in this space.

    There is a distinction between magic and miracles and while believing in one, one should not start expecting the latter as that can only lead to disappointment in the long run.

     

    This article was originally published under Creative Commons by 360info™.

     

  • Ghosts in the Machine: The Past, Present, and Future of India’s Cyber Security

    Ghosts in the Machine: The Past, Present, and Future of India’s Cyber Security

    [powerkit_button size=”lg” style=”info” block=”false” url=”https://admin.thepeninsula.org.in/wp-content/uploads/2022/10/Research-Paper-TPF-1.pdf” target=”_blank” nofollow=”false”]
    Download
    [/powerkit_button]

    Introduction

    When the National Cybersecurity Policy was released in 2013, the response from experts was rather underwhelming [1], [2]. A reaction to a string of unpalatable incidents, from Snowden’s revelations [3] and massive compromise of India’s civilian and military infrastructure [4] to the growing international pressure on Indian IT companies to fix their frequent data breaches [5], the 2013 policy was a macro example of weak structures finding refuge in a haphazard post-incident response. The next iteration of the policy is in formulation under the National Cybersecurity Coordinator. However, before we embark upon solving our cyber-physical domain’s future threat environment, it is perhaps wise to look back upon the perilous path that has brought us here.  

    Early History of Electronic Communications in India

    The institutional “cybersecurity thinking” of post-independence Indian government structures can be traced to 1839 when the East India Company’s then Governor-General of India, Lord Dalhousie, had asked a telegraph system to be built in Kolkata, the then capital of the British Raj. By 1851, the British had deployed the first trans-India telegraph line, and by 1854, the first Telegraph Act had been passed. Similar to the 2008 amendment to the IT Act which allowed the government to intercept, monitor and decrypt any information on any computer, the 1860 amendment to the Telegraph Act too granted the British to take over any leased telegraph lines to access any of the telegraphs transmitted. After all, the new wired communication technology of the day had become an unforeseen flashpoint during the 1857 rebellion.

    Post-independence, under the socialist fervour of Nehruvian politics, the government further nationalised all foreign telecommunications companies and continued the British policy of total control over telecommunications under its own civil service structure, which too came pre-packaged from the British.

    Historians note that the telegraph operators working for the British quickly became targets of intrigues and lethal violence during the mutiny [6], somewhat akin to today’s Sysadmins being a top social engineering priority for cyber threat actors [7]. One of the sepoy mutineers of 1857, while on his way to the hangman’s halter, famously cried out at a telegraph line calling it the cursed string that had strangled the Indians [8]. On the other side of affairs, after having successfully suppressed the mutiny, Robert Montgomery famously remarked that the telegraph had just saved India [9]. Within the telegraph system, the problems of information security popped up fairly quickly after its introduction in India. Scholars note that commercial intelligence was frequently peddled in underground Indian markets by government telegraph clerks [10], in what can perhaps be described as one of the first “data breaches” that bureaucrats in India had to deal with. 

    British had formulated different rules for telecommunications in India and England. While they did not have the total monopoly and access rights over all transmissions in Britain, for the purpose of maintaining political control, in India they did [11]. Post-independence, under the socialist fervour of Nehruvian politics, the government further nationalised all foreign telecommunications companies and continued the British policy of total control over telecommunications under its own civil service structure, which too came pre-packaged from the British.

    The Computer and “The System”

    Major reforms are often preceded by major failures. The government imported its first computer in 1955 but did not show any interest in any policy regarding these new machines. That only changed in 1963, when the government under the pressure to reform after a shameful military defeat and the loss of significant territory to China, instituted a Committee on Electronics under Homi Jehangir Bhabha to assess the strategic utilities that computers might provide to the military [12].  

    In 1965, as punitive sanctions for the war with Pakistan, the US cut off India’s supply of all electronics, including computers. This forced the government to set up the Electronics Committee of India which worked alongside the Electronics Corporation of India (ECIL), mandated to build indigenous design and electronic manufacturing capabilities. But their approach was considered highly restrictive and discretionary, which instead of facilitating, further constrained the development of computers, related electronics, and correspondingly useful policies in India [13]. Moreover, no one was even writing commercial software in India, while at the same the demand for export-quality software was rising. The situation was such that ECIL had to publish full-page advertisements for the development of export-quality software [12]. Consequently, in the early 1970s, Mumbai-based Tata Consultancy Services managed to become the first company to export software from India. As the 1970s progressed and India moved into the 1980s, it gradually became clearer to more and more people in the government that their socialist policies were not working [14]. 

    In 1984, the same year when the word ‘Cyberspace’ appeared in a sci-fi novel called Neuromancer, a policy shift towards computing and communications technologies was seen in the newly formed government under Rajiv Gandhi [12]. The new computer policy, shaped largely by N. Sheshagiri who was the Director General of the National Informatics Centre, significantly simplified procedures for private actors and was released within twenty days of the prime minister taking the oath. Owing to this liberalisation, the software industry in India took off and in 1988, 38 leading software companies in India came together to establish the National Association of Software and Service Companies (NASSCOM) with the intent to shape the government’s cyber policy agendas. As we are mostly concerned about cybersecurity, it should be noted that in 1990, it was NASSCOM that carried out probably the first IT security-related public awareness campaign in India which called for reducing software piracy and increasing the lawful use of IT [5].   

    Unfortunately, India’s 1990s were mired by coalition governments and a lack of coherent policy focus. In 1998, when Atal Bihari Vajpayee became the Prime Minister, the cyber policy took the most defining turn with the development of the National IT Policy. The IT Act, thus released in 2000 and amended further in 2008, became the first document explicitly dealing with cybercrime. Interestingly, the spokesman and a key member of the task force behind the national IT policy was Dewang Mehta, the then president of NASSCOM. Nevertheless, while computer network operations had become regular in international affairs [15], there was still no cyber policy framework or doctrine to deal with the risks from sophisticated (and state-backed) APT actors that were residing outside the jurisdiction of Indian authorities. There still is not.  

    In 2008, NASSCOM established the Data Security Council of India (DSCI), which along with its parent body took it upon itself to run cybersecurity awareness campaigns for law enforcement and other public sector organisations in India. However, the “awareness campaign” centric model of cybersecurity strategy does not really work against APT actors, as became apparent soon when researchers at the University of Toronto discovered the most massive infiltration of India’s civilian and military computers by APT actors [4]. In 2013, the Snowden revelations about unrestrained US spying on India also ruffled domestic feathers for lack of any defensive measures or policies [3]. Coupled with these surprise(?) and unpalatable revelations, there was also the increasing and recurring international pressure on Indian IT to put an end to the rising cases of data theft where sensitive data of their overseas customers was regularly found in online underground markets [16].  

    Therefore, with the government facing growing domestic and international pressure to revamp its approach towards cybersecurity, MeitY released India’s first National Cybersecurity Policy in 2013 [17]. Ministry of Home Affairs (MHA) also released detailed guidelines “in the wake of persistent threats” [18]. However, the government admitted to not having the required expertise in the matter, and thus the preparation of the MHA document was outsourced to DSCI. Notwithstanding that, MHA’s document was largely an extension of the Manual on Departmental Security Instructions released in 1994 which had addressed the security of paper-based information. Consequently, the MHA document produced less of a national policy and more of a set of instructions to departments about sanitising their computer networks and resources, including a section on instructions to personnel over social media usage. 

    The 2013 National Cybersecurity Policy proposed certain goals and “5-year objectives” toward building national resilience in cyberspace. At the end of a long list of aims, the 2013 policy suggested adopting a “prioritised approach” for implementation which will be operationalised in the future by a detailed guide and plan of action at national, sectoral, state, ministry, department, and enterprise levels. However, as of this writing the promised implementation details, or any teeth, are still missing from the National Cybersecurity Policy. As continued APT activities [19] show, the measures towards creating situation awareness have also not permeated beyond the technical/collection layer.

    In 2014, the National Cyber Coordination Centre (NCCC) was established, with the primary aim of building situational awareness of cyber threats in India. Given the underwhelming response to the 2013 policy [1], [2], the National Cybersecurity Policy was surmised to be updated in 2020, but as of this writing, the update is still being formulated by the National Cybersecurity Coordinator who heads the NCCC. The present policy gap makes it an opportune subject to discuss certain fundamental issues with cyber situation awareness and the future of cyber defences in the context of the trends in APT activities. 

    Much to Catch Up

    Recently, the Government of India’s Kavach (an employee authentication app for anyone using a ‘gov.in’ or ‘nic.in’ emails-id) was besieged by APT36 [20]. APT36 is a Pak-affiliated actor and what one might call a tier-3 APT i.e., what they lack in technical sophistication, they try to make up for that with passion and perseverance. What makes it interesting is that the malicious activity went on for over a year, before a third-party threat observer flagged it. Post-pandemic, APT activities have not just increased but also shown an inclination towards integrating online disinformation into the malware capabilities [21]. APT actors (and bots), who have increasingly gotten better at hiding in plain sight over social networks, have now a variety of AI techniques to integrate into their command and control – we’ve seen the use of GANs to mimic traffic of popular social media sites for hiding command and control traffic [22], an IoT botnet that had a machine-learning component which the attacker could switch on/off depending upon people’s responses in online social networks [21], as well as malware that can “autonomously” locate its command and control node over public communication platforms without having any hard-coded information about the attacker [23]. 

    Post-pandemic, APT activities have not just increased but also shown an inclination towards integrating online disinformation into the malware capabilities.

    This is an offence-persistent environment. In this “space”, there always exists an information asymmetry where the defender generally knows less about the attacker than the opposite being true. Wargaming results have shown that unlike conventional conflicts, where an attack induces the fear of death and destruction, a cyber-attack generally induces anxiety [24], and consequently, people dealing with cyber attacks act to offset those anxieties and not their primal fears. Thus, in response to cyber-attacks, their policies reflect risk aversion, not courage, physical or moral. It need not be the case if policymakers recognise this and integrate it into their decision-making heuristics. Unfortunately, the National Cybersecurity Policy released in 2013 stands out to be a fairly risk-averse and a placeholder document. Among many other, key issues are: 

    • The policy makes zero references to automation and AI capabilities. This would have been understandable in other domains, like poultry perhaps, but is not even comprehensible in present-day cybersecurity.   
    • The policy makes zero references to hardware attacks. Consequently, developing any capability for assessing insecurity at hardware/firmware levels, which is a difficult job, is also overlooked at the national level itself. 
    • There are several organisations within the state, civilian and military, that have stakes and roles of varying degrees in a robust National Cybersecurity Policy. However, the policy makes zero attempts at recognising and addressing these specific roles and responsibilities, or any areas of overlap therein.
    • The policy does not approach cyber activity as an overarching operational construct that permeates all domains, but rather as activity in a specific domain called “cyberspace”. Consequently, it lacks the doctrinal thinking that would integrate cyber capabilities with the use of force. A good example of this is outer space, where cyber capabilities are emerging as a potent destabiliser [25] and cybersecurity constitutes the operational foundation of space security, again completely missing from the National Cybersecurity Policy.   
    • The policy is also light on subjects critical to cybersecurity implementation, such as the approach towards internet governance, platform regulation, national encryption regime, and the governance of underlying technologies. 

    A Note on the Human Dimension of Cybersecurity

    There exist two very broad types of malicious behaviour online, one that is rapid and superficial, and another that are deep and persistent. The present approaches to building situation awareness in cyberspace are geared towards the former, leading to spatiotemporally “localised and prioritised” assessments [26], matters pertaining to the immediate law and order situations and not stealthy year-long campaigns. Thus, while situation awareness itself is a psychological construct dealing with decision-making, in cybersecurity operations it overwhelmingly has turned into software-based visualisation of the incoming situational data. This is a growing gap that must also be addressed by the National Cybersecurity Policy. 

    The use of computational tools and techniques to automate and optimise the social interactions of a software agent presents itself as a significant force multiplier for cyber threat actors.

    In technology-mediated environments, people have to share the actual situation awareness with the technology artifacts [27]. Complete dependence on technology for cyber situation awareness has proven to be problematic, for example in the case of Stuxnet, where the operators at the targeted plant saw on their computer screens that the centrifuges were running normally, and simply believed that to be true. The 2016 US election interference only became clearer at the institutional level after several months of active social messaging and doxing operations had already been underway [28], and the story of Telebots’ attack on Ukrainian electricity grids is even more telling – a powerplant employee whose computer was being remotely manipulated, sat making a video of this activity, asking his colleague if it could be their own organisation’s IT staff “doing their thing” [29].

    This lack of emphasis on human factors has been a key gap in cybersecurity, which APTs never fail to exploit. Further, such actors rely upon considerable social engineering in initial access phases, a process which is also getting automated faster than policymakers can play catchup to [30]. The use of computational tools and techniques to automate and optimise the social interactions of a software agent presents itself as a significant force multiplier for cyber threat actors. Therefore, it is also paramount to develop precise policy guidelines that implement the specific institutional structures, processes, and technological affordances required to mitigate the risks of malicious social automation on the unsuspecting population, as well as on government institutions.  

    Concluding Remarks

    There is a running joke that India’s strategic planning is overseen by accountants and reading through the document of National Cybersecurity Policy 2013, that does not seem surprising. We have had a troubling policy history when it comes to electronics and communications and are still in the process of shedding our colonial burden. A poorly framed National Cybersecurity Policy will only take us away from self-reliance in cyberspace and towards an alliance with principal offenders themselves. Notwithstanding, an information-abundant organisation like NCCC has undoubtedly to make some choices about where and what to concentrate its attentional resources upon, however, the present National Cybersecurity Policy appears neither to be a component of any broader national security strategy nor effective or comprehensive enough for practical implementation in responding to the emerging threat environment. 

    References

    [1] N. Alawadhi, “Cyber security policy must be practical: Experts,” The Economic Times, Oct. 22, 2014. Accessed: Sep. 14, 2022. [Online]. Available: https://economictimes.indiatimes.com/tech/internet/cyber-security-policy-must-be-practical-experts/articleshow/44904596.cms

    [2] A. Saksena, “India Scrambles on Cyber Security,” The Diplomat, Jun. 18, 2014. https://thediplomat.com/2014/06/india-scrambles-on-cyber-security/ (accessed Sep. 18, 2022).

    [3] C. R. Mohan, “Snowden Effect,” Carnegie India, 2013. https://carnegieindia.org/2013/06/19/snowden-effect-pub-52148 (accessed Sep. 18, 2022).

    [4] R. Dharmakumar and S. Prasad, “Hackers’ Haven,” Forbes India, Sep. 19, 2011. https://www.forbesindia.com/printcontent/28462 (accessed Sep. 18, 2022).

    [5] D. Karthik and R. S. Upadhyayula, “NASSCOM: Is it time to retrospect and reinvent,” Indian Inst. Manag. Ahmedabad, 2014.

    [6] H. C. Fanshawe, Delhi past and present. J. Murray, 1902.

    [7] C. Simms, “Is Social Engineering the Easy Way in?,” Itnow, vol. 58, no. 2, pp. 24–25, 2016.

    [8] J. Lienhard, “No. 1380: Indian telegraph,” Engines Our Ingen., 1998.

    [9] A. Vatsa, “When telegraph saved the empire – Indian Express,” Nov. 18, 2012. http://archive.indianexpress.com/news/when-telegraph-saved-the-empire/1032618/0 (accessed Sep. 17, 2022).

    [10] L. Hoskins, BRITISH ROUTES TO INDIA. ROUTLEDGE, 2020.

    [11] D. R. Headrick, The invisible weapon: Telecommunications and international politics, 1851-1945. Oxford University Press on Demand, 1991.

    [12] B. Parthasarathy, “Globalizing information technology: The domestic policy context for India’s software production and exports,” Iterations Interdiscip. J. Softw. Hist., vol. 3, pp. 1–38, 2004.

    [13] I. J. Ahluwalia, “Industrial Growth in India: Stagnation Since the Mid-Sixties,” J. Asian Stud., vol. 48, pp. 413–414, 1989.

    [14] R. Subramanian, “Historical Consciousness of Cyber Security in India,” IEEE Ann. Hist. Comput., vol. 42, no. 4, pp. 71–93, 2020.

    [15] C. Wiener, “Penetrate, Exploit, Disrupt, Destroy: The Rise of Computer Network Operations as a Major Military Innovation,” PhD Thesis, 2016.

    [16] N. Kshetri, “Cybersecurity in India: Regulations, governance, institutional capacity and market mechanisms,” Asian Res. Policy, vol. 8, no. 1, pp. 64–76, 2017.

    [17] MeitY, “National Cybersecurity Policy.” Government of India, 2013.

    [18] MHA, “NATIONAL INFORMATION SECURITY POLICY AND GUIDELINES.” Government of India, 2014.

    [19] S. Patil, “Cyber Attacks, Pakistan emerges as China’s proxy against India,” Obs. Res. Found., 2022.

    [20] A. Malhotra, V. Svajcer, and J. Thattil, “Operation ‘Armor Piercer:’ Targeted attacks in the Indian subcontinent using commercial RATs,” Sep. 23, 2021. http://blog.talosintelligence.com/2021/09/operation-armor-piercer.html (accessed Sep. 02, 2022).

    [21] NISOS, “Fronton: A Botnet for Creation, Command, and Control of Coordinated Inauthentic Behavior.” May 2022.

    [22] M. Rigaki, “Arming Malware with GANs,” presented at the Stratosphere IPS, Apr. 2018. Accessed: Oct. 19, 2021. [Online]. Available: https://www.stratosphereips.org/publications/2018/5/5/arming-malware-with-gans

    [23] Z. Wang et al., “DeepC2: AI-Powered Covert Command and Control on OSNs,” in Information and Communications Security, vol. 13407, C. Alcaraz, L. Chen, S. Li, and P. Samarati, Eds. Cham: Springer International Publishing, 2022, pp. 394–414. doi: 10.1007/978-3-031-15777-6_22.

    [24] J. Schneider, “Cyber and crisis escalation: insights from wargaming,” 2017.

    [25] J. Pavur, “Securing new space: on satellite cyber-security,” PhD Thesis, University of Oxford, 2021.

    [26] U. Franke and J. Brynielsson, “Cyber situational awareness – A systematic review of the literature,” Comput. Secur., vol. 46, pp. 18–31, Oct. 2014, doi: 10.1016/j.cose.2014.06.008.

    [27] N. A. Stanton, P. M. Salmon, G. H. Walker, E. Salas, and P. A. Hancock, “State-of-science: situation awareness in individuals, teams and systems,” Ergonomics, vol. 60, no. 4, pp. 449–466, Apr. 2017, doi: 10.1080/00140139.2017.1278796.

    [28] “Open Hearing On The Intelligence Community’s Assessment on Russian Activities and Intentions in the 2016 U.S. Elections.” Jan. 10, 2017. Accessed: Dec. 22, 2021. [Online]. Available: https://www.intelligence.senate.gov/hearings/open-hearing-intelligence-communitys-assessment-russian-activities-and-intentions-2016-us#

    [29] R. Lipovsky, “Tactics, Techniques, and Procedures of the World’s Most Dangerous Attackers,” presented at the Microsoft BlueHat 2020, 2020. [Online]. Available: https://www.youtube.com/watch?v=9LAFV6XDctY

    [30] D. Ariu, E. Frumento, and G. Fumera, “Social engineering 2.0: A foundational work,” in Proceedings of the Computing Frontiers Conference, 2017, pp. 319–325.

    [powerkit_button size=”lg” style=”info” block=”true” url=”https://admin.thepeninsula.org.in/wp-content/uploads/2022/10/Research-Paper-TPF-1.pdf” target=”_blank” nofollow=”false”]
    Download
    [/powerkit_button]