India’s next manufacturing breakthrough will depend not only on how many products it assembles, but on how much engineering, technology, quality, intellectual property and supplier capability it builds around them.
India has made manufacturing a central part of its economic ambitions. New factories, expanding industrial clusters, electronics production, automotive investments and strategic initiatives across emerging technologies are creating opportunities for businesses throughout the country.
Yet an important question remains: Can India move from being a place where products are assembled to becoming a country that develops, engineers and manufactures complete products and the technologies behind them?
This question sits at the heart of a manufacturing challenge highlighted by N. Chandrasekaran, Chairman of Tata Sons, during the Indian Foundation for Quality Management Symposium in October 2026.
As reported by Business Standard, Chandrasekaran called for India to develop deeper, end-to-end manufacturing capabilities, with greater attention to advanced and precision manufacturing, quality, research and development, intellectual property, energy security and human capital.
His remarks point towards a wider strategic issue for Indian industry: the next stage of growth must be measured not just by production volumes, but by the depth of capabilities developed within the country.
For manufacturers, this is not simply a national policy discussion. It has direct implications for competitiveness, profitability, exports, supplier relationships and long-term business resilience.
1. Assembly is a starting point, not the final destination
Assembly-led manufacturing can play a valuable role in industrial development. It creates jobs, attracts investment, develops factory infrastructure and introduces domestic suppliers to global production systems.
It can also help businesses learn international manufacturing practices and build the operational discipline required to serve large customers.
However, assembly alone does not guarantee that a country controls the most valuable parts of a product’s lifecycle.
Consider a manufactured product containing electronic components, precision parts, embedded software, specialised materials and proprietary designs. A factory may assemble the final product domestically while relying on overseas suppliers for critical components, production equipment, design expertise or technology.
In such a situation, the country participates in manufacturing, but its domestic capabilities may remain concentrated in a relatively narrow part of the value chain.
A deeper manufacturing ecosystem would progressively develop the ability to design products, engineer components, manufacture specialised equipment, validate performance, protect intellectual property and continuously improve production processes.
The objective is not to eliminate imports or insist that every component must be made locally. Global supply chains will remain important. The objective is to develop enough domestic expertise and industrial depth to compete on more than labour availability, production incentives or assembly capacity.
The strategic question for manufacturers is simple: which parts of the product, process and technology do we genuinely know how to create and improve ourselves?
2. Engineering capability will determine the next competitive advantage
Manufacturing competitiveness increasingly depends on what happens before a product reaches the production line.
Product engineering, material selection, process design, tooling, testing, simulation and manufacturing engineering all influence cost, quality and performance.
A company that develops these capabilities can respond to customer requirements more quickly, reduce dependence on external technical support and improve products continuously.
By contrast, a manufacturer that relies heavily on externally developed designs and tightly controlled specifications may find it difficult to differentiate its offering or move into more sophisticated product categories.
This is particularly relevant to automotive components, industrial machinery, electrical equipment, aerospace, electronics and other precision-oriented industries.
For Indian manufacturers, engineering capability should therefore be treated as a commercial investment rather than only a technical function.
Businesses can begin by asking:
- Can our engineering team modify a product to meet a customer’s specific requirements?
- Can we develop or improve the tooling and processes needed to manufacture it?
- Can we diagnose recurring failures without depending entirely on external experts?
- Can we validate product performance against demanding international standards?
- Can we use production and field data to improve the next design?
The answers reveal where a company stands between basic production capability and deeper manufacturing competence.
3. Quality must become a source of innovation, not just inspection
Quality is often managed through inspection, rejection rates, customer complaints and final-product testing. These measures remain essential, but they are not enough to create a world-class manufacturing operation.
A stronger approach treats quality as part of product development, process engineering, supplier selection and continuous improvement.
This is consistent with the wider quality-led manufacturing transformation discussed by Chandrasekaran, who referred to international examples in which quality contributes to competitiveness rather than functioning only as a final checkpoint.
For an Indian factory, this means moving beyond the question, “How many defective products did we reject?”
Management must also ask:
- Why was the defect possible in the first place?
- Which process conditions are associated with the highest failure rates?
- Are supplier variations affecting downstream production?
- Can process data identify deviations before they become defects?
- Are engineering changes reducing the cost of poor quality over time?
Consider a precision component manufacturer experiencing recurring dimensional deviations. Additional inspection may prevent some defective parts from reaching the customer, but it does not necessarily solve the underlying problem.
Analysing machine settings, tool wear, material batches, environmental conditions and measurement data may reveal the root cause.
The result can be lower scrap, fewer rework hours, more predictable output and better customer confidence.
Quality then becomes an engine for productivity and innovation—not merely a department responsible for rejecting defective products.
4. The supplier ecosystem will decide how far Indian manufacturing can scale
Large manufacturers rarely operate independently. Their performance depends on networks of component makers, tooling companies, material suppliers, logistics providers, testing facilities and specialised service businesses.
If the lead manufacturer is technologically advanced but its supplier network struggles with precision, traceability, delivery reliability or consistent quality, the entire production system can suffer.
This makes the capabilities of small and medium enterprises especially important.
Chandrasekaran’s reported remarks highlighted the need to strengthen the wider supplier and SME ecosystem. The practical implication is that India’s manufacturing ambitions cannot be achieved by developing only a handful of large, globally competitive companies.
Smaller suppliers must also gain the ability to meet demanding specifications, maintain reliable processes and invest in technology.
Large OEMs can support this development through longer-term supplier relationships, technical collaboration, joint quality programmes and clearer forecasts. Suppliers, in turn, must be willing to invest in process control, employee skills, digital traceability and equipment maintenance.
A supplier’s development should not be measured only by whether it can produce more parts. It should also be assessed on whether it can consistently produce parts to specification, respond to engineering changes and improve performance over time.
For MSMEs, this is an opportunity to move from being interchangeable vendors to becoming technically capable partners.
5. R&D and intellectual property must reach the factory floor
Research and development is frequently associated with laboratories, university partnerships or large corporate research centres. In manufacturing, however, innovation also occurs through practical improvements in products, processes, materials, tooling and production systems.
A manufacturer may create value by developing a more efficient production method, designing a specialised fixture, improving a component’s durability, creating proprietary testing software or building equipment suited to a difficult manufacturing process.
These improvements can reduce cost and create differentiation. Where appropriate, they may also support patents, protected designs, proprietary software or other forms of intellectual property.
The key is to make innovation part of the operating model.
Manufacturers should identify recurring production problems and customer requirements that could justify engineering investment. They should document successful improvements, evaluate whether the resulting knowledge can be protected and build a repeatable process for transferring that knowledge across plants and product lines.
The aim is not to pursue R&D spending for its own sake. It is to develop capabilities that customers value and competitors cannot easily replicate.
A company that understands its products, processes and equipment deeply is better positioned to respond to changing market requirements than one whose competitive advantage rests mainly on low-cost assembly.
6. Advanced manufacturing requires people with advanced skills
Technology investments cannot deliver their full potential without people who know how to use, maintain and improve them.
Modern manufacturing increasingly requires a combination of mechanical and electrical knowledge, automation, data analysis, quality engineering, software, maintenance and problem-solving skills.
As factories adopt robotics, machine vision, connected equipment and AI-enabled applications, roles on the shop floor will continue to evolve.
This does not mean every worker needs to become a data scientist. It means employees need relevant skills for the equipment, processes and decisions they handle.
A machine operator may need to interpret process deviations. A maintenance technician may need to understand equipment condition data. A quality engineer may need to combine conventional inspection with statistical analysis. A production manager may need to evaluate how scheduling decisions affect output, energy consumption and delivery commitments.
Manufacturers should therefore connect training directly to measurable operational outcomes.
Useful measures include reduced changeover time, lower defects, improved equipment availability, fewer safety incidents and faster resolution of production problems.
Vocational education, apprenticeships, on-the-job training and partnerships with technical institutions can help create this talent pipeline. Companies must also develop internal career paths that reward employees for acquiring and applying new skills.
Without this investment, advanced equipment may be installed without the organisational capability required to extract its full value.
7. Energy security is a manufacturing competitiveness issue
Energy availability and cost affect almost every part of industrial production. They influence operating margins, production planning, equipment utilisation and the ability to meet customer commitments.
Energy security, highlighted by Chandrasekaran as an important long-term priority, should therefore be considered alongside technology, skills and quality.
For an individual factory, the starting point is measurement. Management needs to understand energy consumption by product, process, machine and shift wherever practical.
This helps identify avoidable consumption, inefficient equipment, poor operating practices and opportunities to shift flexible loads away from expensive periods, where tariffs and production constraints permit.
Renewable power, storage, energy-efficient equipment and waste-heat recovery may also form part of the solution. However, each investment needs to be assessed against the factory’s load profile, tariff structure, reliability requirements, capital cost and expected savings.
Energy management should not be separated from production planning. A decision to run a process at a different time, for example, must consider labour availability, material flow, equipment constraints and delivery schedules—not electricity cost alone.
For energy-intensive industries, this discipline can support both cost control and greater resilience to supply disruptions or price volatility.
8. Digitalisation and AI can strengthen end-to-end capability
Digital technology can help manufacturers connect engineering decisions with actual production performance.
Many factories already collect information through ERP systems, production software, PLCs, SCADA, quality systems and maintenance applications. The challenge is often turning fragmented information into timely, useful decisions.
A connected manufacturing environment can help management understand production losses, identify recurring defects, monitor energy intensity, improve maintenance planning and trace supplier-related problems.
AI can extend these capabilities by helping teams analyse large volumes of operational information, identify patterns and surface relevant actions. For example, an AI-enabled system may help investigate why output has declined on a particular line or highlight relationships between downtime, product mix and maintenance history.
But technology alone does not create manufacturing excellence.
Before deploying AI, a factory needs clear business objectives, reliable data, defined ownership, secure system integration and a process for validating recommendations. Critical decisions must remain subject to appropriate human oversight and engineering controls.
The most valuable digitalisation programmes begin with a measurable business problem and expand when results are demonstrated.
This is how technology can support deeper manufacturing capability rather than becoming a separate IT initiative.
9. What should Indian manufacturers do in the next 12 months?
The shift towards end-to-end capability does not require every company to build a research centre or manufacture every component in-house. The starting point should be a realistic assessment of where the business creates value and where it remains dependent on external capabilities.
A practical roadmap can be organised into four stages.
First 30 days: identify capability gaps
Map the product lifecycle, from design and sourcing to manufacturing, testing and after-sales support. Identify critical imported technologies, recurring quality problems, supplier weaknesses and skills gaps. Establish baseline metrics for cost, defects, productivity, energy and delivery performance.
Days 31–90: select high-value priorities
Choose two or three areas where stronger capability could create a measurable advantage. These might include tooling development, process automation, supplier quality, product redesign, predictive maintenance or energy optimisation.
Assign an accountable owner, define the business case and set measurable targets.
Months 4–6: build and validate
Run focused improvement projects with production, engineering, quality, maintenance and procurement teams. Work with suppliers and technical institutions where external expertise is needed. Validate results before committing to wider deployment.
Months 7–12: standardise and scale
Document successful methods, train employees, integrate relevant data and replicate proven improvements across other production lines or plants. Review whether the company has reduced dependence on external expertise, improved quality or developed a new commercial capability.
Progress should be measured through operational and strategic outcomes—not simply through the number of machines purchased, software licences deployed or training sessions conducted.
10. The leadership question: what capability are we building for the future?
Chandrasekaran’s manufacturing message raises a question that should be part of every industrial leadership discussion: is the business merely increasing production, or is it becoming better at designing, engineering and delivering products that global customers value?
The distinction matters because output growth and capability development are not always the same thing.
A company can expand capacity without improving its engineering depth. It can automate a production line without strengthening its problem-solving culture. It can add suppliers without making the supply chain more resilient. It can meet a quality target without developing the ability to prevent the next generation of defects.
The leadership challenge is to make these capabilities part of the company’s long-term strategy.
That requires capital allocation, technical leadership, supplier development, workforce investment and a culture that treats quality and continuous improvement as sources of competitiveness.
It also requires patience. Developing specialised engineering, trusted suppliers, skilled teams and proprietary technology takes time. The benefits may not appear in a single quarter, but they can influence a company’s ability to win more demanding customers, improve margins and withstand market changes.
Conclusion: From manufacturing more to knowing how to manufacture better
India’s manufacturing opportunity is significant, but lasting competitiveness will require more than expanding assembly capacity.
The country needs businesses that can develop products, improve production technologies, build capable supplier networks, protect intellectual property, deliver consistent quality and train people for increasingly sophisticated industrial roles.
For manufacturers, the immediate task is not to pursue every technology or attempt to localise every input. It is to identify the capabilities that matter most to their products and customers—and then invest systematically in building them.
Assembly can open the door to industrial growth. Engineering, quality, innovation, skills and supplier strength determine how far that growth can go.
The next phase of Indian manufacturing will be shaped not only by what the country produces, but by what its companies learn to design, develop, improve and deliver independently.
Editorial note and sources
This article is an original editorial analysis informed by publicly reported remarks from N. Chandrasekaran at the Indian Foundation for Quality Management Symposium in October 2026. It does not reproduce another publication’s article or present the analysis as a direct quotation from him.
Further reading:
- Business Standard — Advanced manufacturing, energy security key to growth: N. Chandrasekaran
- Business Today — India must move from assembly-led growth to end-to-end manufacturing capability
Published in MFG Magazine | Leaders — Leadership & Strategy
