Somebody in last week’s AI4LIB Open Hour asked a question that stopped the room for a second. Not “should we use ChatGPT in the library,” which used to be the question every single week for the better part of a year. This time it was, “who in my library is actually responsible if the AI gets something wrong?” Nobody on the call had a ready answer. That silence, more than any survey or dataset, told me the profession has quietly crossed over from one debate into another.
For most of the past two years, the AI conversation in libraries was about adoption. Should we try it. Which tool. Is it allowed. That question is more or less settled now. AI already sits inside cataloguing, reference, discovery, and research support, whether a library formally approved it or not. The question worth asking today is not whether AI belongs in the library. It is how a library governs something that is already inside its walls.
Start with the job market, because numbers rarely lie the way opinions do. Going through more than 800 library and information science job advertisements across India, the pattern is hard to miss. MLIS, UGC-NET, SET, a Ph.D. where the post demands it, these still open the door. But almost every listing now expects working familiarity with Koha or DSpace, comfort with MARC21 and Dublin Core, exposure to research databases and plagiarism tools, and increasingly, some demonstrated ability to use AI responsibly. I won’t be wrong if I say the degree gets you shortlisted, the skillset gets you hired. For a student writing to me on WhatsApp asking what to learn next, that is the honest answer, not the diplomatic one.
Governance is where things get interesting, and where most libraries are furthest behind. Walk into any library today and you will find staff already using ChatGPT, Gemini, Copilot, NotebookLM, on their own initiative, often on their own devices, usually without telling anyone. Very few institutions have written down what is and is not acceptable. The University of Arizona Library’s AI strategy is worth a close read here, precisely because it does not obsess over which tool to bless. It builds around accountability, who decides, staff training, privacy, transparency, and risk. That is the correct instinct. We went through the same lesson with the internet, then with institutional repositories, then with open access. The tool is never the hard part. The framework around the tool is.
This is where I keep returning to a phrase I have used before on this page: the Fluency Trap. AI can produce an answer that reads beautifully, cites confidently, and is completely wrong. Fluency and accuracy are not the same thing, and a profession built on evaluating information for a living cannot afford to forget that distinction just because the output sounds polished. If anything, AI-generated fluency raises the stakes on the oldest skill in librarianship: teaching people to ask, how do you know this is true.
Naturally the question that keeps coming back, in every workshop and every Open Hour, is whether AI will replace librarians. My answer has not changed and I don’t expect it to. AI has already absorbed the routine end of the job, quick factual lookups, first-pass metadata, basic retrieval. It has not touched, and I doubt it will soon touch, the part of librarianship that was never really about retrieval in the first place. Helping a confused research scholar turn a vague worry into a searchable question. Knowing which gap in the literature actually matters. Reading a community and knowing what it needs before it asks. That is judgement, and judgement does not come out of a training corpus.
There is a quieter opportunity hiding inside all this anxiety, and it belongs to public libraries as much as academic ones. Communities need someone to teach them how AI works, how to spot AI-generated misinformation, how to make an informed choice instead of an easy one. Public libraries are already stepping into that role in a few places, and it fits the mission better than almost anything else on offer right now. Academic and research libraries have their own version of the same opening, in metadata work, in supporting open science, in shaping how AI gets used across a campus rather than reacting to it department by department.
None of this sits in settled law, and it will not for some time. Copyright questions around AI training data, authorship, and licensing are moving through courts across the world as I write this, with well over 150 cases already filed. For anyone using AI in research or teaching, that uncertainty is not a footnote, it is a reason to be deliberate about disclosing what the AI did and what the human did.
If this week’s discussions distilled into one line, it would be the same three instructions I keep repeating on this Open Hour, and I make no apology for repeating them again: verify the source, disclose the tool, validate the output. Simple enough to fit on a sticky note. Hard enough that most institutions still haven’t managed it. Libraries did not ask to become the profession that teaches the world how to think about AI responsibly. But look around, nobody else is doing it half as well, and somebody has to.
Tag Archives: AI
Why India Needs to Develop Its Own GPU to Lead in AI
Artificial Intelligence (AI) is transforming the world, reshaping industries, economies, and societies at an unprecedented pace. For India, a nation with a burgeoning tech ecosystem and ambitions to become a global AI powerhouse, the path to leadership in AI hinges on addressing a critical bottleneck: access to high-performance computing infrastructure, particularly Graphics Processing Units (GPUs). While India has made strides in AI research, software development, and talent cultivation, its reliance on foreign GPUs poses a significant challenge. Developing indigenous GPUs is not just a matter of technological self-reliance but a strategic necessity for India to unlock its AI potential and secure its place in the global tech race.
The Central Role of GPUs in AI
GPUs are the backbone of modern AI systems. Unlike traditional Central Processing Units (CPUs), GPUs are designed for parallel processing, making them exceptionally efficient for the computationally intensive tasks that underpin AI, such as training deep learning models, running simulations, and processing vast datasets. From natural language processing models like those powering chatbots to computer vision systems enabling autonomous vehicles, GPUs are indispensable.
However, the global GPU market is dominated by a handful of players, primarily NVIDIA, AMD, and Intel, all based in the United States. These companies control the supply chain, set pricing, and dictate the pace of innovation. For a country like India, which is heavily investing in AI to address challenges in healthcare, agriculture, education, and governance, dependence on imported GPUs creates vulnerabilities in terms of cost, accessibility, and strategic autonomy.
The Case for Indigenous GPU Development
- Reducing Dependency on Foreign Technology
India’s AI ambitions are constrained by its reliance on foreign GPUs. Supply chain disruptions, geopolitical tensions, or export restrictions could limit access to these critical components, hampering AI development. For instance, recent global chip shortages exposed the fragility of depending on foreign semiconductor supply chains. By developing its own GPUs, India can achieve technological sovereignty, ensuring that its AI ecosystem is not at the mercy of external forces. - Cost Efficiency for Scalability
GPUs are expensive, and their costs can be prohibitive for startups, research institutions, and small enterprises in India. Importing high-end GPUs involves significant expenses, including taxes and logistics, which drive up the cost of AI development. Indigenous GPUs, tailored to India’s needs and produced locally, could be more cost-effective, enabling broader access to high-performance computing for academia, startups, and government initiatives. This democratization of access would foster innovation and accelerate AI adoption across sectors. - Customization for India-Specific Use Cases
India’s AI challenges are unique. From multilingual natural language processing for its diverse linguistic landscape to AI-driven solutions for agriculture in resource-constrained environments, India’s needs differ from those of Western markets. Foreign GPUs are designed for generalized, high-end applications, often with a one-size-fits-all approach. Developing homegrown GPUs allows India to create hardware optimized for its specific AI use cases, such as low-power chips for edge computing in rural areas or specialized architectures for processing Indian language datasets. - Boosting the Semiconductor Ecosystem
Building GPUs would catalyze the growth of India’s semiconductor industry, which is still in its nascent stages. It would require investment in chip design, fabrication, and testing, creating a ripple effect across the tech ecosystem. This would not only create high-skill jobs but also position India as a player in the global semiconductor market. Programs like the India Semiconductor Mission (ISM) and partnerships with global foundries could be leveraged to support GPU development, fostering innovation and reducing reliance on foreign manufacturing. - National Security and Strategic Autonomy
AI is increasingly a matter of national security, with applications in defense, cybersecurity, and intelligence. Relying on foreign hardware raises concerns about potential vulnerabilities, such as backdoors or supply chain manipulations. Indigenous GPUs would give India greater control over its AI infrastructure, ensuring that sensitive applications are built on trusted hardware. This is particularly critical as India expands its use of AI in defense systems, smart cities, and critical infrastructure.
Challenges in Developing Indigenous GPUs
While the case for India developing its own GPUs is compelling, the path is fraught with challenges. Designing and manufacturing GPUs requires significant investment in research and development (R&D), access to advanced fabrication facilities, and a skilled workforce. The global semiconductor industry is highly competitive, with established players benefiting from decades of expertise and economies of scale.
India also faces a talent gap in chip design and fabrication. While the country produces millions of engineering graduates annually, specialized skills in semiconductor design are limited. Bridging this gap will require targeted education and training programs, as well as collaboration with global leaders in the field.
Moreover, building a GPU is not just about hardware. It requires an ecosystem of software, including drivers, frameworks, and developer tools, to make the hardware usable for AI applications. NVIDIA’s dominance, for example, stems not only from its hardware but also from its CUDA platform, which has become a de facto standard for AI development. India would need to invest in a robust software ecosystem to complement its GPUs, ensuring seamless integration with popular AI frameworks like TensorFlow and PyTorch.
Steps Toward Indigenous GPU Development
- Government Support and Investment
The government should prioritize GPU development under initiatives like the India Semiconductor Mission. Subsidies, grants, and tax incentives for R&D in chip design and manufacturing can attract private investment and foster innovation. Public-private partnerships, like those with companies such as Tata and Reliance, could accelerate progress. - Collaboration with Global Players
While the goal is self-reliance, India can benefit from partnerships with global semiconductor leaders. Technology transfer agreements, joint ventures, and collaborations with companies like TSMC or Intel could provide access to cutting-edge fabrication processes and expertise. - Building a Skilled Workforce
India must invest in education and training programs focused on semiconductor design, AI hardware, and related fields. Partnerships with institutions like IITs and IISc, as well as international universities, can help develop a pipeline of talent. Initiatives like the Chips to Startup (C2S) program can be expanded to include GPU-specific training. - Fostering an Ecosystem for Innovation
India should create a supportive environment for GPU development by building a robust software ecosystem, encouraging open-source contributions, and supporting startups working on AI hardware. Hackathons, innovation challenges, and incubators focused on semiconductor design can spur grassroots innovation. - Leveraging Existing Strengths
India’s strength in software development and IT services can be a foundation for building GPU-compatible software stacks. Companies like Wipro, Infosys, and startups in the AI space can contribute to developing frameworks and tools that make indigenous GPUs viable for AI applications.
The Road Ahead
Developing indigenous GPUs is a bold but necessary step for India to achieve its AI ambitions. It aligns with the broader vision of “Atmanirbhar Bharat” (Self-Reliant India) and positions the country as a global leader in technology. While the journey will be challenging, the rewards are immense: reduced dependency, cost efficiency, customized solutions, and enhanced national security.
India has already shown its ability to leapfrog in technology, from UPI in digital payments to Aadhaar in biometric identification. By investing in GPU development, India can take a similar leap in AI, creating a future where its technological innovations are not just powered by India but also made in India. The time to act is now—India’s AI revolution depends on it.