Why in the News
Indian startups are rebuilding their products on Chinese open weight foundation models, with Qwen, DeepSeek and Kimi delivering large cost savings and lagging the American frontier by about six months. Reporting from July 2026 records Indian companies increasingly switching to Chinese large language models (LLMs) to contain Artificial Intelligence (AI) costs, with startups cutting costs by an order of magnitude. This open weight release is neither charity nor a workaround for chip export controls, and rests on five reinforcing logics that make the strategy durable. The tension is that durable is not permanent, and the assessment set out here is that China will begin graduating access to its frontier open weight models around late 2028.
What is an open weight model?
- What is released: The trained parameters of the model are published, so anyone can download the model and run it on their own hardware.
- How it differs from an interface: A proprietary model is reached through an interface the provider controls, and the provider can price it, restrict it or withdraw it. A downloaded model keeps working whatever the provider later decides.
- What it enables: The holder can fine tune the model on its own data and modify its behaviour, which a provider controlled interface does not permit.
- Why the distinction is strategic: The choice between the two forms decides whether capability sits with the user or with the supplier.
How far have Indian firms moved onto Chinese models?
- Products rebuilt on Chinese foundations: Indian startups are constructing their products on Qwen, DeepSeek and Kimi rather than on American frontier models.
- Performance is close enough: These models run almost as well as the American frontier and trail it by roughly six months, which is within tolerance for most commercial applications.
- The cost difference is not marginal: One venture investor cited startups cutting costs by an order of magnitude, which changes what is affordable rather than trimming a bill.
- The switch is deliberate: The stated reason for the move is cost containment rather than any assessment of capability.
What are the five logics behind China’s open weight strategy?
- Cost: DeepSeek trained its R1 model for $294,000, a fraction of what American frontier laboratories incur, with distillation from American models and architectural efficiency breakthroughs compressing research spending.
- Prestige: DeepSeek’s January 2025 release wiped roughly a trillion dollars off American technology stocks, and open weighting has since been converted into diplomacy through the 29 country World Artificial Intelligence Cooperation Organization (WAICO) bloc and 5,000 training slots offered to developing countries.
- Commoditisation: American laboratories monetise proprietary weights, so free models good enough for most commercial work attack their pricing power. Chinese firms need not beat the competing product, only destroy the ability to charge for it.
- Capital: Financial repression traps household savings in state banks that lend cheaply to strategic sectors, producing the same subsidisation and overcapacity that flattened the global solar and electric vehicle markets. In AI it produced 820 LLMs registered with China’s cyberspace authority by early 2026.
- Infrastructure: Free models drive adoption, which drives demand for the complementary products China dominates in energy, cloud and physical infrastructure. Alibaba’s cloud revenue grew 34 percent year on year while it gave Qwen away.
What conditions would make Beijing close the gates?
- The consultation is already under way: Chinese regulators led by the Ministry of Commerce have been consulting Alibaba, Bytedance and Zhipu on limiting the transfer of training data abroad and on whether foreign users should continue to freely download model weights.
- Consolidation: Beijing can coordinate five firms and cannot coordinate 800, and the state news agency has announced the shift from the “Hundred Model War” to the “Top Five Basic Models”. American export controls, by raising costs for Chinese laboratories, are accelerating the very consolidation that makes restriction feasible.
- Lock in: Restricting access before global developers are deeply embedded in the Chinese cloud stack would send them elsewhere and break the flywheel. That threshold is currently far from being reached.
- Saturation: Once the pricing power of frontier American laboratories is sufficiently commoditised, and open weight releases from Meta, Mistral, Nvidia and others sustain the pressure independently, further Chinese releases buy nothing. The gap here is narrowing and still exists.
What would graduated restriction actually look like?
- Not a switch: The likely outcome is a set of graduated pathways rather than a single closure, appearing from around late 2028.
- Embargoed weights: Frontier models served through an interface first, with the weights released only after a six month embargo.
- Licensing above a capability threshold: Commercial licensing required beyond a stated capability level, with smaller distilled models left free as the entry route.
- Scaffolding withheld: Model weights released openly while tool use and agentic scaffolding, which is what turns a model into a working system, are held back.
- Preferential access: Members of the WAICO bloc receiving access on better terms than non members, which converts model access into a membership benefit.
What should India do with the open window?
- Price in the switching costs: The open ecosystem should be used on the assumption that access terms will change, so the cost of moving between stacks is budgeted now rather than discovered later.
- Model agnostic architecture in the public sector: Government departments and regulated sectors should be built on abstraction layers and harnesses that work across stacks, so a change of supplier becomes a configuration change.
- A routing layer instead of hardware subsidies: The Ministry of Electronics and Information Technology (MeitY) should consider running a public sector routing service across models, in place of offering compute subsidies on slices of graphics processing units.
- Atmashakti rather than self sufficiency: Effort should concentrate where India can actually win, in applications, industrial and language data, edge inference silicon design and domain specific fine tuning. This is self strength built in a few selected segments, in place of full self sufficiency that India cannot afford and does not need.
- Use the window diplomatically: India should shape open weight norms in multilateral forums while the commons is still open and Beijing still needs legitimacy for it.
Challenges to India’s reliance on open weight models
- Dependence is being built into production systems: Cost driven adoption embeds a foreign model in products that cannot be rewritten quickly when terms change. Eg. Startups rebuilding their core products on a single model family carry the switching cost inside their architecture.
The Fix: Require an abstraction layer in any publicly funded AI deployment, so the model can be swapped without rebuilding the application. - Diffusion is mistaken for capability: Rapid adoption of adequate models raises productivity and builds no domestic ability to produce the next model. Eg. Most Indian AI activity sits in applications rather than at the frontier.
The Fix: Tie public procurement preference to firms that contribute datasets, evaluations or fine tuned models back into a shared national repository. - Language and data coverage is thin: A model trained elsewhere performs worse on Indian languages and on Indian administrative data, which is where public sector value lies. Eg. Low resource Indian languages remain weakly represented in the training corpora of major open models.
The Fix: Treat curated Indian language and sectoral datasets as the national asset to fund, since a data advantage survives a change of model supplier. - Compute access is governed elsewhere: The hardware needed to fine tune or serve a large model at scale is subject to export controls set by other governments. Eg. Advanced processor supply to India and to China is determined by controls neither country sets.
The Fix: Prioritise edge inference silicon design, where India can build a position that does not depend on access to frontier training hardware. - Security review of downloaded models is weak: An openly released model can carry behaviour that surfaces only under specific conditions, and there is no standing capability to test for it. Eg. Backdoor behaviour triggered by particular inputs has been demonstrated in publicly released models.
The Fix: Mandate evaluation of any model used in a regulated sector against a published test suite before deployment.
Conclusion
The open models now cutting Indian costs are being given away because a strategic competition is currently being fought that way, and that is the fact to plan against rather than the saving to celebrate. India can take the cost advantage and still owe itself an architecture that survives the moment the giving stops. The marker to watch is the Chinese consultation on foreign downloads of model weights, since a decision there arrives well before any formal restriction does.
Government Initiatives for Artificial Intelligence in India
- IndiaAI Mission: Approved in 2024 with an outlay of Rs 10,371 crore and implemented by IndiaAI under MeitY, it builds compute, datasets, skills and startup financing as a single ecosystem programme.
- IndiaAI Compute: A national AI compute grid of over 38,000 graphics processing units, offering eligible users up to 40 percent lower compute costs.
- AIKosh: A national repository of non personal datasets and models, carrying thousands of datasets across sectors including agriculture, health, climate and governance.
- IndiaAI Safety Institute: The national trust framework within the mission, covering bias mitigation, privacy, explainability and AI governance.
- India AI Impact Summit 2026: Hosted by India under the mission, it repositions the global discussion from AI safety towards AI for development and convenes Global South participation.
Matching Previous Year Question
[2023] “Introduce the concept of Artificial Intelligence (AI). How does AI help clinical diagnosis? Do you perceive any threat to privacy of the individual in the use of AI in healthcare?”




