#FactCheck-RBI's Alleged Guidelines on Ink Colour for Cheque Writing
Executive Summary:
A viral message is circulating claiming the Reserve Bank of India (RBI) has banned the use of black ink for writing cheques. This information is incorrect. The RBI has not issued any such directive, and cheques written in black ink remain valid and acceptable.
Claim:
The Reserve Bank of India (RBI) has issued new guidelines prohibiting using black ink for writing cheques. As per the claimed directive, cheques must now be written exclusively in blue or green ink.
Fact Check:
Upon thorough verification, it has been confirmed that the claim regarding the Reserve Bank of India (RBI) issuing a directive banning the use of black ink for writing cheques is entirely false. No such notification, guideline, or instruction has been released by the RBI in this regard. Cheques written in black ink remain valid, and the public is advised to disregard such unverified messages and rely only on official communications for accurate information.
As stated by the Press Information Bureau (PIB), this claim is false The Reserve Bank of India has not prescribed specific ink colors to be used for writing cheques. There is a mention of the color of ink to be used in point number 8, which discusses the care customers should take while writing cheques.
Conclusion:
The claim that the Reserve Bank of India has banned the use of black ink for writing cheques is completely false. No such directive, rule, or guideline has been issued by the RBI. Cheques written in black ink are valid and acceptable. The RBI has not prescribed any specific ink color for writing cheques, and the public is advised to disregard unverified messages. While general precautions for filling out cheques are mentioned in RBI advisories, there is no restriction on the color of the ink. Always refer to official sources for accurate information.
- Claim: The new RBI ink guidelines are mandatory from a specified date.
- Claimed On: Social Media
- Fact Check: False and Misleading
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Introduction
Misinformation poses a significant challenge to public health policymaking since it undermines efforts to promote effective health interventions and protect public well-being. The spread of inaccurate information, particularly through online channels such as social media and internet platforms, further complicates the decision-making process for policymakers since it perpetuates public confusion and distrust. This misinformation can lead to resistance against health initiatives, such as vaccination programs, and fuels scepticism towards scientifically-backed health guidelines.
Before the COVID-19 pandemic, misinformation surrounding healthcare largely encompassed the effects of alcohol and tobacco consumption, marijuana use, eating habits, physical exercise etc. However, there has been a marked shift in the years since. One such example is the outcry against palm oil in 2024: it is an ingredient prevalent in numerous food and cosmetic products, and came under the scanner after a number of claims that palmitic acid, which is present in palm oil, is detrimental to our health. However, scientific research by reputable institutions globally established that there is no cause for concern regarding the health risks posed by palmitic acid. Such trends and commentaries tend to create a parallel unscientific discourse that has the potential to not only impact individual choices but also public opinion and as a result, market developments and policy conversations.
A prevailing narrative during the worst of the Covid-19 pandemic was that the virus had been engineered to control society and boost hospital profits. The extensive misinformation surrounding COVID-19 and its management and care increased vaccine hesitancy amongst people worldwide. It is worth noting that vaccine hesitancy has been a consistent trend historically; the World Health Organisation flagged vaccine hesitancy as one of the main threats to global health, and there have been other instances where a majority of the population refused to get vaccinated anticipating unverified, long-lasting side effects. For example, research from 2016 observed a significant level of public skepticism regarding the development and approval process of the Zika vaccine in Africa. Further studies emphasised the urgent need to disseminate accurate information about the Zika virus on online platforms to help curb the spread of the pandemic.
In India during the COVID-19 pandemic, despite multiple official advisories, notifications and guidelines issued by the government and ICMR, people continued to remain opposed to vaccination, which resulted in inflated mortality rates within the country. Vaccination hesitancy was also compounded by anti-vaccination celebrities who claimed that vaccines were dangerous and contributed in large part to the conspiracy theories doing the rounds. Similar hesitation was noted in misinformation surrounding the MMR vaccines and their likely role in causing autism was examined. At the time of the crisis, the Indian government also had to tackle disinformation-induced fraud surrounding the supply of oxygens in hospitals. Many critically-ill patients relied on fake news and unverified sources that falsely portrayed the availability of beds, oxygen cylinders and even home set-ups, only to be cheated out of money.
The above examples highlight the difficulty health officials face in administering adequate healthcare. The special case of the COVID-19 pandemic also highlighted how current legal frameworks failed to address misinformation and disinformation, which impedes effective policymaking. It also highlights how taking corrective measures against health-related misinformation becomes difficult since such corrective action creates an uncomfortable gap in an individual’s mind, and it is seen that people ignore accurate information that may help bridge the gap. Misinformation, coupled with the infodemic trend, also leads to false memory syndrome, whereby people fail to differentiate between authentic information and fake narratives. Simple efforts to correct misperceptions usually backfire and even strengthen initial beliefs, especially in the context of complex issues like healthcare. Policymakers thus struggle with balancing policy making and making people receptive to said policies in the backdrop of their tendencies to reject/suspect authoritative action. Examples of the same can be observed on both the domestic front and internationally. In the US, for example, the traditional healthcare system rations access to healthcare through a combination of insurance costs and options versus out-of-pocket essential expenses. While this has been a subject of debate for a long time, it hadn’t created a large scale public healthcare crisis because the incentives offered to the medical professionals and public trust in the delivery of essential services helped balance the conversation. In recent times, however, there has been a narrative shift that sensationalises the system as an issue of deliberate “denial of care,” which has led to concerns about harms to patients.
Policy Recommendations
The hindrances posed by misinformation in policymaking are further exacerbated against the backdrop of policymakers relying on social media as a method to measure public sentiment, consensus and opinions. If misinformation about an outbreak is not effectively addressed, it could hinder individuals from adopting necessary protective measures and potentially worsen the spread of the epidemic. To improve healthcare policymaking amidst the challenges posed by health misinformation, policymakers must take a multifaceted approach. This includes convening a broad coalition of central, state, local, territorial, tribal, private, nonprofit, and research partners to assess the impact of misinformation and develop effective preventive measures. Intergovernmental collaborations such as the Ministry of Health and the Ministry of Electronics and Information Technology should be encouraged whereby doctors debunk online medical misinformation, in the backdrop of the increased reliance on online forums for medical advice. Furthermore, increasing investment in research dedicated to understanding misinformation, along with the ongoing modernization of public health communications, is essential. Enhancing the resources and technical support available to state and local public health agencies will also enable them to better address public queries and concerns, as well as counteract misinformation. Additionally, expanding efforts to build long-term resilience against misinformation through comprehensive educational programs is crucial for fostering a well-informed public capable of critically evaluating health information.
From an individual perspective, since almost half a billion people use WhatsApp it has become a platform where false health claims can spread rapidly. This has led to a rise in the use of fake health news. Viral WhatsApp messages containing fake health warnings can be dangerous, hence it is always recommended to check such messages with vigilance. This highlights the growing concern about the potential dangers of misinformation and the need for more accurate information on medical matters.
Conclusion
The proliferation of misinformation in healthcare poses significant challenges to effective policymaking and public health management. The COVID-19 pandemic has underscored the role of misinformation in vaccine hesitancy, fraud, and increased mortality rates. There is an urgent need for robust strategies to counteract false information and build public trust in health interventions; this includes policymakers engaging in comprehensive efforts, including intergovernmental collaboration, enhanced research, and public health communication modernization, to combat misinformation. By fostering a well-informed public through education and vigilance, we can mitigate the impact of misinformation and promote healthier communities.
References
- van der Meer, T. G. L. A., & Jin, Y. (2019), “Seeking Formula for Misinformation Treatment in Public Health Crises: The Effects of Corrective Information Type and Source” Health Communication, 35(5), 560–575. https://doi.org/10.1080/10410236.2019.1573295
- “Health Misinformation”, U.S. Department of Health and Human Services. https://www.hhs.gov/surgeongeneral/priorities/health-misinformation/index.html
- Mechanic, David, “The Managed Care Backlash: Perceptions and Rhetoric in Health Care Policy and the Potential for Health Care Reform”, Rutgers University. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC2751184/pdf/milq_195.pdf
- “Bad actors are weaponising health misinformation in India”, Financial Express, April 2024.
- “Role of doctors in eradicating misinformation in the medical sector.”, Times of India, 1 July 2024. https://timesofindia.indiatimes.com/life-style/health-fitness/health-news/national-doctors-day-role-of-doctors-in-eradicating-misinformation-in-the-healthcare-sector/articleshow/111399098.cms
In an era defined by perpetual technological advancement, the hitherto uncharted territories of the human experience are progressively being illuminated by the luminous glow of innovation. The construct of privacy, once a straightforward concept involving personal secrets and solitude, has evolved into a complex web of data protection, consent, and digital rights. This notion of privacy, which often feels as though it elusively ebbs and flows like the ghost of a bygone epoch, is now confronted with a novel intruder – neurotechnology – which promises to redefine the very essence of individual sanctity.
Why Neuro Rights
At the forefront of this existential conversation lie ventures like Elon Musk's Neuralink. This company, which finds itself at the confluence of fantastical dreams and tangible reality, teases a future where the contents of our thoughts could be rendered as accessible as the words we speak. An existence where machines not only decipher our mental whispers but hold the potential to echo back, reshaping our cognitive landscapes. This startling innovation sets the stage for the emergence of 'neurorights' – a paradigm aimed at erecting a metaphorical firewall around the synapses and neurons that compose our innermost selves.
At institutions such as the University of California, Berkeley, researchers, under the aegis of cognitive scientists like Jack Gallant, are already drawing the map of once-inaccessible territories within the mind. Gallant's landmark study, which involved decoding the brain activity of volunteers as they absorbed visual stimuli, opened Pandora's box regarding the implications of mind-reading. The paper published a decade ago, was an inchoate step toward understanding the narrative woven within the cerebral cortex. Although his work yielded only a rough sketch of the observed video content, it heralded an era where thought could be translated into observable media.
The Growth
This rapid acceleration of neuro-technological prowess has not gone unnoticed on the sociopolitical stage. In a pioneering spirit reminiscent of the robust legislative eagerness of early democracies, Chile boldly stepped into the global spotlight in 2021 by legislating neurorights. The Chilean senate's decision to constitutionalize these rights sent ripples the world over, signalling an acknowledgement that the evolution of brain-computer interfaces was advancing at a daunting pace. The initiative was spearheaded by visionaries like Guido Girardi, a former senator whose legislative foresight drew clear parallels between the disruptive advent of social media and the potential upheaval posed by emergent neurotechnology.
Pursuit of Regulation
Yet the pursuit of regulation in such an embryonic field is riddled with intellectual quandaries and ethical mazes. Advocates like Allan McCay articulate the delicate tightrope that policy-makers must traverse. The perils of premature regulation are as formidable as the risks of a delayed response – the former potentially stifling innovation, the latter risking a landscape where technological advances could outpace societal control, engendering a future fraught with unforeseen backlashes.
Such is the dichotomy embodied in the story of Ian Burkhart, whose life was irrevocably altered by the intervention of neurotechnology. Burkhart's experience, transitioning from quadriplegia to digital dexterity through sheer force of thought, epitomizes the utopic potential of neuronal interfaces. Yet, McCay issues a solemn reminder that with great power comes great potential for misuse, highlighting contentious ethical issues such as the potential for the criminal justice system to over extend its reach into the neural recesses of the human psyche.
Firmly ensconced within this brave new world, the quest for prudence is of paramount importance. McCay advocates for a dyadic approach, where privacy is vehemently protected and the workings of technology proffered with crystal-clear transparency. The clandestine machinations of AI and the danger of algorithmic bias necessitate a vigorous, ethical architecture to govern this new frontier.
As legal frameworks around the globe wrestle with the implications of neurotechnology, countries like India, with their burgeoning jurisprudence regarding privacy, offer a vantage point into the potential shape of forthcoming legislation. Jurists and technology lawyers, including Jaideep Reddy, acknowledge ongoing protections yet underscore the imperativeness of continued discourse to gauge the adequacy of current laws in this nascent arena.
Conclusion
The dialogue surrounding neurorights emerges, not merely as another thread in our social fabric, but as a tapestry unto itself – intricately woven with the threads of autonomy, liberty, and privacy. As we hover at the edge of tomorrow, these conversations crystallize into an imperative collective undertaking, promising to define the sanctity of cognitive liberty. The issue at hand is nothing less than a societal reckoning with the final frontier – the safeguarding of the privacy of our thoughts.
References:
Introduction
In recent years, India has seen tremendous growth in its space industry. The satellite infrastructure of India now provides key services to a variety of sectors, including communication, navigation, broadcasting, disaster management and national security operations. Satellite communications globally will connect remote communities, aid in the delivery of Digital Governance and support India's strategic military capabilities. Given the expanding space ecosystem in India with the involvement of the public sector, private sector and research institutions, the security of satellite communications is becoming increasingly important.
At the same time, as satellite communication technologies become more pervasive, the risk of cyber threats targeting space systems increases. Cyberattacks against satellites, ground terminals or communication networks may critically impact, disrupt, damage, and/or destroy essential services, and expose sensitive information. To mitigate these risks, CERT-In (Computer Emergency Response Team), in collaboration with the SatCom Industry Association of India released a Cyber Security Framework and Guidelines for Space Platforms/Systems, including Satellite Communication, in 2026. This framework aims to establish and enhance cybersecurity measures throughout India's space ecosystem, while guiding how to better prepare for and respond to the growing volume of cyber threat activity targeting Space Systems.
Overview of the CERT-In Space Cybersecurity Framework
CERT-In introduced a dedicated cybersecurity framework for space systems in February 2026. Developed in collaboration with industry stakeholders, the framework provides guidelines to strengthen the security of satellite communication infrastructure across India. Although the guidelines are advisory in nature, they are designed to promote best practices and encourage organisations to adopt robust cybersecurity measures.
The framework targets a wide range of stakeholders involved in satellite communication operations. These include government agencies, satellite operators, ground station operators, equipment manufacturers, technology vendors, and emerging space startups. By outlining cybersecurity principles, technical controls, and governance mechanisms, the framework aims to create a coordinated approach to protecting space assets.
Another key objective of the guidelines is to foster collaboration between the public and private sectors. As India’s space industry expands and private participation increases, maintaining a secure and resilient ecosystem becomes essential. The framework, therefore, emphasises risk management, incident reporting, and continuous monitoring to strengthen the overall cybersecurity posture of the space sector.
Key Components of Satellite Communication Systems
Satellite communication systems are made up of multiple interconnected devices that can be used to deliver communication services. The cybersecurity framework groups these elements into three categories: the space segment, the ground segment, and the user segment.
The space segment is everything related to the satellite itself, including the satellite's onboard systems. This includes the satellite's communication payload, telemetry systems, antennas, power systems, and software that controls its operation. Because satellites operate in remote parts of space with very little opportunity for maintenance, securing these systems is critical in order to guard against unauthorized access to or control of these systems.
The ground segment comprises the terrestrial infrastructure responsible for controlling the satellite's operations. It consists of satellite mission control centres, ground stations, network gateways and data processing facilities. The ground stations send commands to the satellites and receive telemetry data from the satellites, which makes the ground station a very important physical interface point between the satellite asset located in outer space and a terrestrial network.
The user segment contains any device terminal being used by either an individual or an organisation that is accessing a satellite service. Examples of user devices are satellite phones, VSAT terminals, modems, and IoT devices connected to satellite networks. Since these devices connect directly to the communication networks, vulnerabilities in user equipment could also represent a significant threat to the cybersecurity of satellite communications.
Major Cyber Threats to Space Infrastructure
The space systems that support the delivery of satellite communications are being increasingly targeted with multiple types of cyber threats. A major category includes cyber-attacks on communication links between satellites and ground stations. Cyber criminals can attempt to jam the satellite’s communication link, intercept communication signals, or re-transmit previously sent communication signals in order to disrupt the operation of the affected satellites.
Attacks on the systems that control the satellite are serious threats to satellite operations. Cybercriminals and hostile actors can perform command injection attacks where commands are sent to a satellite, and the satellite responds through some undesired action. If cybercriminals are able to gain access to the telemetry or command channels, they can potentially disrupt the operation of the satellite or alter the telemetry data being received from the satellite.
The ground infrastructure that supports satellite communications is still a major target for cybercriminals. Mission control networks and data centres are susceptible to malware, ransomware, phishing, and insider threats. Attackers will frequently target ground stations because they provide a connection point to terrestrial networks and can exploit vulnerabilities from the ground station’s IT systems into the satellite control systems. The combination of these threats illustrates the need for an overall security strategy that encompasses all parts of the satellite communications ecosystem.
Key Security Principles and Measures
A comprehensive overview of multiple principles designed to increase the security of satellite communications is provided in the CERT-In Framework on Cybersecurity for Satellite Communications. The first of these principles, security by design, refers to ensuring that all cybersecurity controls associated with a system are implemented at the time of the system's initial design and development, not afterwards; therefore, security controls should be incorporated throughout the entire lifecycle of a satellite system.
The second principle, which is known as Defense-in-Depth, consists of implementing many different layers or tiers of security controls to protect a system against cyber threats or attacks. An example of the different categories of security controls includes physical security, network security, and access control, among others. By combining security controls across multiple categories, an organisation may be able to reduce the chance that one single vulnerability will result in the loss of the entire system.
The third principle in the Framework, Zero Trust Architecture (ZTA): Users and/or devices located within a network should not be able to rely on implicit trust. Therefore, every request for access to the network will be verified and continuously monitored for potential threats.
The previous two principles stated that secure satellite communications should be conducted using strong encryption and authentication methods, as well as secure communications methods, and that an enterprise monitoring system would be put into place to help detect anomalies or suspicious behaviour.
Conclusion
India is taking an important step toward protecting its expanding space ecosystem by creating a cybersecurity framework to safeguard cyberspace systems from cyber threats. The CERT-In guidelines offer a structured means of reducing the likelihood of cyber threats impacting satellite communication infrastructure through secure system design, continuous monitoring of systems and creating consistent partnerships among organisations. As well as providing evidence that both government and private sector organisations share a collective responsibility for the protection of space assets, both sectors participate in a collaborative effort.
India will need to implement rigorous cybersecurity measures as it expands its space infrastructure in order to ensure the continued availability of critical space infrastructure and ultimately develop its existing commercial satellite business operations with the highest level of safety and security.
References
- https://www.cert-in.org.in/s2cMainServlet?pageid=GUIDLNVIEW02&refcode=CISG-2026-01
- https://www.pib.gov.in/PressReleasePage.aspx?PRID=2233122®=3&lang=1
