Case-Cum-Research Paper: Sarla Thakral — From India’s First Generation of Women Aviators to a 24-Point Roadmap for Strengthening Indian Aviation

 

Case-Cum-Research Paper: Sarla Thakral — From India’s First Generation of Women Aviators to a 24-Point Roadmap for Strengthening Indian Aviation

Abstract

This case-cum-research paper examines the pioneering journey of Sarla Thakral (1914–2008), one of the earliest Indian women aviators, whose solo flight in a de Havilland Gipsy Moth in 1936 became a landmark in Indian aviation history. At the age of 21, she obtained her “A” pilot licence in a period when aviation was predominantly male-dominated and opportunities for women in technical professions were limited. Her aspirations to become a commercial pilot were disrupted by personal tragedy and the Second World War. Nevertheless, she rebuilt her life after Partition through painting, clothing design, jewellery design and entrepreneurship, demonstrating resilience, adaptability and professional reinvention.

Using a historical case-study approach and secondary information on India's aviation sector, this paper explores the relevance of her experience to contemporary aviation development. It presents 24 strategic recommendations across six areas: pilot training and human capital, women's participation, infrastructure and regional connectivity, aviation safety and technology, industrial development and entrepreneurship, and governance and sustainability. The study also proposes measurable performance indicators and a 2027–2030 implementation roadmap to evaluate progress in training accessibility, workforce participation, regional connectivity, safety and domestic technological capability. The paper argues that India's aviation growth must extend beyond infrastructure expansion to include inclusive opportunities, skilled human resources, sustainable operations and evidence-based policymaking. Sarla Thakral's legacy offers a valuable foundation for connecting individual determination with institutional reforms and a more inclusive, competitive and resilient Indian aviation ecosystem.

Keywords: Sarla Thakral, Indian aviation history, women aviators, women empowerment, pilot training, aviation education, regional air connectivity, UDAN scheme, aviation safety, aerospace industry, human capital development, aviation entrepreneurship, sustainable aviation, aviation policy, career resilience.

 

1. Introduction

Sarla Thakral (also spelled Sarla Thukral; 8 August 1914 – 15 March 2008) occupies an important place in the history of Indian aviation. In 1936, at the age of 21, she earned her “A” pilot licence and flew a de Havilland Gipsy Moth solo, becoming widely celebrated as a pioneering Indian woman aviator.

Her achievement was significant not merely because she flew an aircraft, but because she challenged the social and professional boundaries of her time. Aviation required technical knowledge, physical discipline, confidence, access to expensive training and acceptance within a predominantly male profession.

Her life also demonstrates that professional identity can extend beyond a single career. Following the death of her husband, a pilot, and the disruption caused by the Second World War and Partition, she rebuilt her life through painting, fashion, jewellery design and entrepreneurship.

This case study uses her journey as a starting point for examining how India can strengthen aviation through talent development, gender inclusion, technical education, regional connectivity, entrepreneurship and institutional resilience.

2. Case objectives

Examine the historical significance of Sarla Thakral’s aviation achievement.

Understand the personal, social and institutional barriers faced by early women pilots.

Connect her experience with the current development needs of Indian civil aviation.

Develop 24 practical recommendations for strengthening India’s aviation ecosystem.

Establish a research framework for evaluating the impact of these recommendations.

3. Sarla Thakral’s life and key milestones

 

1914 — Birth and early life

Born on 8 August 1914, Sarla grew up in a period when aviation was still developing and women had limited access to many technical professions. Her subsequent training at the Lahore Flying Club placed her within an emerging aviation community.

 

1936 — A historic solo flight

At 21, she earned her “A” pilot licence and flew a Gipsy Moth solo. Historical accounts associate her accomplishment with more than 1,000 hours of flying. The milestone made her an enduring symbol of women’s participation in aviation.

 

1939 onwards — Career disruption

Her husband, P. D. Sharma, an airmail pilot, died in an air crash in 1939. Her ambition to become a commercial pilot was subsequently affected by personal circumstances and the disruption of aviation training during the Second World War.

 

After Partition — Reinvention and enterprise

After moving to Delhi with her daughters, she developed a new professional life in painting, clothing and jewellery design, and business. She married R. P. Thakral in 1948 and continued to build a life beyond her interrupted aviation ambitions.

 

2008 — A lasting legacy

She died on 15 March 2008, aged 93. Her story remains relevant to discussions of women’s empowerment, career transitions and the importance of creating institutions that allow talent to survive personal and historical setbacks.

4. Early life, family and the making of a pilot

Sarla’s journey was supported by her exposure to a family environment connected with aviation. She married P. D. Sharma at a young age; historical accounts describe him as an airmail pilot and note that his family included several pilots. This environment helped make flying a practical aspiration rather than an unimaginable dream.

 

Her story also challenges the assumption that professional achievement requires a person to fit a single social identity. She was a woman, a mother and an aspiring aviator at a time when these roles were often viewed as incompatible with technical careers.

How did she become a pilot in 1936?

Her achievement involved access to flight training, accumulated flying experience, technical discipline and the successful completion of licensing requirements. Her solo flight in a Gipsy Moth became a defining milestone.

A historical qualification is important for a research paper: Sarla is widely celebrated as the first Indian woman to fly solo and earn a pilot licence, but some historical accounts identify earlier women who held flying licences in British India. Therefore, the most academically defensible description is “a pioneering Indian woman aviator who achieved a landmark solo flight in 1936,” while acknowledging that claims about the absolute first depend on nationality, location and licensing criteria.

 

5. What happened after her aviation career?

Sarla’s intended path toward commercial aviation was disrupted by the death of her husband in 1939 and the suspension of civil flying training during the Second World War. She subsequently pursued art and design, including training in fine arts, and developed a successful business career. Following Partition, she rebuilt her life in Delhi with her daughters.

Her work in clothing, textile and jewellery design illustrates three important lessons:

Transferable skills: Creativity, discipline and planning can support a transition between professions.

Resilience: A disrupted career does not erase a person's capacity to contribute.

Entrepreneurship: Technical ambition and commercial creativity can coexist, even when circumstances force a change of direction.

Her legacy should therefore be understood not only through the aircraft she flew, but also through the life she rebuilt.

6. Research problem: How can India strengthen its aviation ecosystem?

India's aviation industry has expanded considerably, but its future depends on more than the number of airports or passengers. The country needs a sustainable supply of skilled professionals, affordable training, strong safety systems, efficient regional connectivity, competitive aviation manufacturing and meaningful opportunities for women.

Recent official information provides useful context:

164

Airports reported for 2025

74

Airports reported for 2014

The Ministry of Civil Aviation's 2025 annual report records an increase from 74 airports in 2014 to 164 in 2025.

 

95

UDAN airports, including heliports and water aerodromes

677

UDAN routes reported through 30 June 2026

Source: Ministry of Civil Aviation's UDAN programme dashboard.

 

These figures demonstrate growth in infrastructure and regional connectivity. They do not, by themselves, establish that every airport or route is commercially sustainable, affordable to passengers or adequately connected to local employment.

Evidence of progress in women's aviation

The Government of India reported that 294 commercial pilot licences were issued to women in 2023, representing 18% of the 1,622 CPLs issued that year. It also reported that women constituted approximately 14% of pilots employed by Indian scheduled and non-scheduled operators at that time.

 

This is an important baseline, but it is historical rather than a current 2026 workforce estimate. A robust study should separately track licences issued, pilots employed, retention, promotions and representation in senior technical and management positions.

7. Research methodology

This paper uses a historical case study combined with a secondary-data-based strategic analysis.

Research component	Approach
Historical case	Sarla Thakral's aviation achievement, career interruption and reinvention
Industry evidence	Ministry of Civil Aviation, DGCA and official programme reports
Analytical method	Descriptive comparison, gap analysis and strategic recommendations
Proposed study period	Historical context through 2026, using the latest available data for each indicator
Research limitation	No original survey or causal statistical test has been conducted for this draft

The 24 recommendations below are strategic proposals, not findings from a completed survey. Their impact should be tested using measurable indicators and verified operational data.

Research questions

What lessons does Sarla Thakral's life offer for developing aviation talent in India?

Which financial, educational, institutional and social barriers limit entry into aviation careers?

How can India improve women's participation, aviation safety, regional connectivity and domestic manufacturing?

Which performance indicators should policymakers use to evaluate aviation-sector reforms?

8. Twenty-four strategic recommendations to strengthen Indian aviation

The recommendations are organised into six strategic pillars, with four action points under each pillar.

 

Pillar I — Pilot training and human capital

1. Establish a Sarla Thakral Aviation Scholarship. Provide merit-based financial support for pilot training, especially for economically disadvantaged students and women.

2. Expand regional flying training organisations. Develop properly equipped, DGCA-compliant training facilities with reliable access to aircraft, instructors and suitable flying conditions.

3. Introduce aviation career pathways in schools. Offer introductory modules in aerodynamics, navigation, meteorology, aviation mathematics and airport operations.

4. Create structured industry apprenticeships. Connect aviation colleges with airlines, maintenance organisations, airports and aircraft manufacturers through supervised placements.

 

Pillar II — Women’s participation and inclusion

5. Build a women-in-aviation mentoring network. Pair aspiring pilots and aviation students with experienced pilots, engineers, air traffic professionals and aviation managers.

6. Improve access to training finance. Develop transparent loan, scholarship and financial-guarantee programmes for eligible trainees, with clear repayment conditions.

7. Strengthen workplace inclusion. Establish fair recruitment, anti-harassment procedures, safe reporting systems and transparent promotion criteria.

8. Support career continuity. Encourage family-friendly rosters where operationally feasible, return-to-work programmes, recurrent training and clear pathways back after career breaks.

 

Pillar III — Infrastructure and connectivity

9. Improve regional airport utilisation. Assess passenger demand, route viability, surface access and local economic activity before expanding or subsidising services.

10. Strengthen UDAN route sustainability. Monitor passenger load factors, operating costs, service reliability and connectivity after financial support ends.

11. Develop multimodal airport links. Integrate airports with buses, railways, metro systems and reliable last-mile transport.

12. Upgrade smaller-airport facilities. Prioritise navigation aids, weather information, runway maintenance, emergency response, accessibility and passenger amenities according to risk and demand.

 

Pillar IV — Safety, technology and technical capability

13. Strengthen safety reporting and learning. Encourage confidential hazard reporting, timely investigations, safety audits and systematic corrective action.

14. Expand aircraft maintenance education. Increase high-quality training opportunities in aircraft maintenance, avionics, engines and approved maintenance procedures.

15. Modernise air traffic management. Invest in appropriate digital systems, communication, navigation, surveillance and controller training while maintaining rigorous safety oversight.

16. Build domestic aviation technology capacity. Support research and development in aircraft components, simulators, maintenance software, navigation technologies and certified aerospace systems.

 

Pillar V — Industry, finance and entrepreneurship

17. Strengthen domestic supply chains. Help qualified Indian firms develop globally competitive components, tooling, repair capabilities and aerospace materials.

18. Improve aviation financing and leasing. Develop predictable regulation, transparent financing arrangements and risk-management capabilities for airlines, lessors and maintenance businesses.

19. Promote aviation start-ups. Support viable solutions in flight simulation, drone applications, airport logistics, passenger accessibility and predictive maintenance, subject to applicable approvals.

20. Develop aviation management education. Connect management institutions with airlines and airports through case studies in route economics, operations, human resources, marketing, sustainability and service quality.

 

Pillar VI — Governance, research and sustainability

21. Publish an annual aviation skills dashboard. Track training enrolments, licences, employment, gender representation, workforce shortages and graduate placement.

22. Link training to actual industry demand. Update course capacity and curricula using credible forecasts of pilot, maintenance, air traffic, airport and aerospace-manufacturing requirements.

23. Improve environmental performance. Encourage fuel efficiency, operational optimisation, sustainable aviation fuel research and airport energy improvements, based on measurable lifecycle benefits.

24. Establish a national aviation heritage and research programme. Document pioneering aviators, preserve historical records, commission university research and create educational resources that connect aviation history with contemporary policy.

9. Analytical framework for evaluating the 24 recommendations

The following framework converts the recommendations into a practical evaluation system. Numerical targets should be established after a baseline assessment rather than assumed in advance.

Performance area	Proposed indicator	Evaluation method
Training access	Cost of training; scholarships awarded	Annual comparison by region and income group
Pilot development	Training completion and licence attainment	Cohort tracking
Women's participation	Share of licences issued to women	Year-on-year percentage change
Employment	Placement rate and time to first aviation job	Graduate employment survey
Career retention	Workforce retention and return after career breaks	Longitudinal workforce data
Regional connectivity	Active routes, passenger numbers and service reliability	Route-level analysis
Safety	Reported hazards, audit findings and corrective-action closure	DGCA and operator safety records
Domestic industry	Qualified suppliers, component output and research investment	Industry and government data
Sustainability	Fuel use and emissions per passenger-kilometre	Comparable operational measurements
Governance	Publication timeliness and data completeness	Annual transparency review

Suggested statistical analysis for a future empirical study

A full research project could collect data from flying schools, airlines, aviation colleges, maintenance organisations and airport operators.

Descriptive statistics: Compare training costs, licence outcomes, employment and gender representation.

Chi-square test: Examine associations between gender and training completion, where the required categorical data are available.

Regression analysis: Investigate how training cost, location, scholarships and prior education relate to training completion or employment.

ANOVA: Compare average training costs or employment outcomes across different types of institutions, subject to suitable assumptions.

Cost-benefit analysis: Evaluate whether scholarship programmes, route subsidies or regional airport investments deliver measurable economic and social benefits.

These are proposed analyses, not completed statistical results. Actual sample sizes, variable definitions, missing-data treatment and statistical outputs must be reported before drawing empirical conclusions.

10. Implementation roadmap: 2027–2030

2027

Baseline

Phase 1 — Establish the evidence base

Audit training costs, regional aviation demand, workforce shortages and women's participation. Select pilot scholarship programmes and publish measurable baselines.

2028

Pilot

Phase 2 — Test and improve

Launch selected training partnerships, mentorship networks, apprenticeships and regional route evaluations. Compare outcomes against baseline data.

2029

Scale

Phase 3 — Expand successful programmes

Extend initiatives that demonstrate improvements in training access, employment, safety or regional connectivity. Correct programmes that underperform.

2030

Review

Phase 4 — Measure long-term results

Publish an independent assessment of workforce outcomes, route sustainability, training effectiveness, domestic capability and environmental performance.

The proposed roadmap is a policy framework, not an announced government programme. Implementation would require participation from the Ministry of Civil Aviation, DGCA, Airports Authority of India, airlines, educational institutions, industry bodies and state governments.

11. Case discussion questions

For aviation institutions and policymakers

How can India reduce the financial barriers to pilot training without compromising safety standards or training quality?

Which indicators should determine whether a regional aviation route deserves continued public financial support?

For aviation students

Which lessons from Sarla Thakral's determination and career reinvention can help you overcome barriers in your chosen profession?

Which aviation career would you choose—pilot, aircraft maintenance engineer, air traffic controller, airport manager or aerospace entrepreneur—and what skills would you need to develop?

12. Conclusion: From one pioneering flight to a stronger aviation nation

Sarla Thakral's life represents courage, ambition and the ability to rebuild after adversity. Her solo flight in 1936 challenged the boundaries of what Indian women were expected to achieve. Her later work in art, design and business further demonstrated that professional contribution need not end when an original career plan is interrupted.

India's aviation story has since expanded through airports, airlines, training institutions, regional connectivity and technical development. The next stage should focus on making that expansion more inclusive, safe, financially sustainable and technologically capable.

The 24 recommendations presented in this paper offer a framework for action. Their success should ultimately be measured not by the number of announcements or schemes, but by whether more people can access quality aviation education, whether trained professionals find sustainable employment, whether regional routes remain useful to communities, and whether the aviation system becomes safer and more competitive.

The central message of this case study is simple: Sarla Thakral demonstrated that barriers can be challenged by individual determination. A stronger Indian aviation sector must ensure that institutions, finance and opportunity allow many more people to follow that path.

13. References and further reading

1. Ministry of Civil Aviation, Government of India. Annual Report 2024–25. Official report (PDF).

2. Ministry of Civil Aviation, Government of India. Annual Report 2025. Official aviation-sector report.

3. Ministry of Civil Aviation, Government of India. UDAN (Regional Connectivity Scheme). Official programme dashboard.

4. Press Information Bureau, Government of India. (2024, February 5). In 2023, 294 commercial pilot licences issued to women constituting 18 percent of total CPLs issued. Official release.

5. The Aeronautical Society of India. Sarla Thakral and the legacy of pioneering Indian women aviators. Professional aviation society post.

6. National Digital Library of India. Historical account of Sarla Thakral. Further reading.

Research note: Before academic or commercial publication, verify historical claims against original archival and contemporary newspaper records, reconcile variations in the spelling of her name, and use the latest available official statistics for any claims about aviation in 2026. The recommendations and analytical framework are the author's proposed contribution; they should not be presented as empirically validated findings without further research.

Final quotation

“The sky is not the limit when determination, opportunity and knowledge come together.”

Inspired by the pioneering spirit of Sarla Thakral.

 

 

 

 

 

 

 

 

Product Transformation at TVS Motor Company: A Case-Cum-Research Study of 52 Product Improvement Priorities, Financial Performance, SWOT Analysis and Strategic Competitiveness

Product management · Financial analysis · Customer satisfaction · EV strategy · Strategic recommendations

Abstract

TVS Motor Company operates in a highly competitive two-wheeler and three-wheeler industry in which product quality, affordability, fuel efficiency, rider safety, comfort, digital connectivity and electric mobility increasingly influence customer choice. Although the company has established a presence across commuter motorcycles, scooters, premium motorcycles and electric vehicles, sustained competitiveness requires continuous product improvement supported by customer insights, engineering innovation and disciplined financial investment.

This case-cum-research paper develops a structured 52-point product improvement agenda for TVS Motor Company, with particular attention to the Apache motorcycle range, Jupiter scooter range and iQube electric scooter range. It integrates product auditing, customer-oriented analysis, financial performance assessment, SWOT analysis, strategic prioritisation and an implementation roadmap.

The study organises the 52 recommendations into eight improvement domains: design and styling; engine and performance; safety; comfort and ergonomics; electric mobility and digital technology; durability and quality; after-sales affordability; and sustainability and strategic competitiveness. Financial analysis is used to examine how product development expenditure, manufacturing costs, warranty claims, spare-parts pricing, EV investment and premium-product positioning may affect profitability and long-term shareholder value.

The paper distinguishes between reported company financial information, qualitative customer expectations and proposed management targets. Since a verified, representative customer survey is not supplied, the improvement priorities are treated as research-based proposals rather than statistically proven findings about all TVS customers.

Keywords: TVS Motor Company, product improvement, Apache, Jupiter, iQube, financial analysis, SWOT analysis, customer satisfaction, electric vehicles, product innovation, total cost of ownership, strategic management.

1. Introduction

Product improvement is a continuous management process involving the identification of customer problems, evaluation of technical alternatives, cost-benefit assessment, prototype development, quality testing and post-launch performance monitoring. In the automobile industry, these activities are particularly important because customers evaluate a vehicle over its entire ownership period rather than solely on its purchase price.

TVS Motor Company serves multiple customer groups, from price-sensitive commuters and family scooter users to performance-oriented motorcycle buyers and consumers transitioning to electric mobility. Each group has different requirements.

 

Apache motorcycle range

Priority: braking confidence, handling, engine refinement, rider ergonomics, performance and premium technology.

 

Jupiter scooter range

Priority: real-world fuel economy, comfort, storage, family usability, low maintenance and dependable servicing.

 

iQube electric scooter range

Priority: dependable real-world range, battery safety, charging convenience, software reliability and transparent ownership costs.

The central managerial challenge is to improve these products without making them unnecessarily expensive. Every proposed change should therefore be evaluated against customer benefit, engineering feasibility, regulatory requirements, manufacturing cost, serviceability and expected commercial returns.

2. Research problem and objectives

Research problem: How can TVS Motor Company prioritise product-level improvements that increase customer satisfaction, safety, reliability and competitiveness while protecting operating margins and generating sustainable financial returns?

The study has six objectives:

Identify 52 product improvement opportunities across relevant vehicle categories.

Examine customer needs relating to performance, safety, comfort, maintenance and ownership costs.

Assess how product changes may influence revenue, operating costs, margins and investment requirements.

evaluate TVS's internal strengths and weaknesses alongside external opportunities and threats.

Develop a phased implementation framework with measurable performance indicators.

Establish a practical decision-making model for allocating product development resources.

3. Scope, research design and methodology

3.1 Research design

The paper follows a descriptive, diagnostic and strategic case-study design. It uses publicly reported financial information and company disclosures, supported by product-management concepts and an analytical framework for evaluating improvement priorities.

Research component	Analytical method	Purpose
Product audit	52-point checklist	Identify areas for engineering and design improvement
Customer perspective	Customer-need mapping	Relate product features to practical usage
Financial performance	Year-on-year analysis and margin calculation	Assess financial capacity and cost pressures
Strategic position	SWOT analysis	Evaluate internal and external factors
Investment decisions	Cost-benefit and scenario analysis	Rank possible improvement projects
Implementation	Priority matrix and KPIs	Monitor execution and outcomes

3.2 Research questions

RQ1: Which product changes could improve everyday customer satisfaction?

RQ2: Which safety, quality and maintenance improvements deserve immediate attention?

RQ3: How can EV and digital innovation create differentiation without weakening affordability?

RQ4: How can financial analysis guide the allocation of product development expenditure?

RQ5: What strategic risks and opportunities should influence TVS's product roadmap?

3.3 Limitations

The study does not claim that all 52 issues have been observed in every TVS model. Some proposals depend on vehicle variant, price category, engineering feasibility and applicable regulations. A representative customer survey, warranty dataset, competitor-level cost database and internal model-wise profit figures would be required to test the recommendations statistically and determine their exact commercial impact.

4. Company and product portfolio analysis

TVS's product strategy needs to accommodate different purchase motivations rather than apply a uniform design or technology package to all models.

 

Apache — performance and aspiration

Engineering emphasis: braking, tyres, handling, engine refinement, vibration control, rider fit and differentiated premium features.

Commercial objective: justify premium pricing through tangible performance and ownership benefits.

 

Jupiter — practical daily mobility

Engineering emphasis: fuel efficiency, easy handling, seating, suspension, storage, serviceability and component durability.

Commercial objective: strengthen family confidence and long-term ownership value.

 

iQube — electric mobility

Engineering emphasis: usable battery range, thermal protection, charging, software, diagnostics, water resistance and battery lifecycle.

Commercial objective: reduce ownership uncertainty and improve the customer experience throughout the battery's life.

These are proposed product priorities, not claims that any particular model currently fails to meet its published specifications.

5. Product audit: 52-point improvement agenda

The following agenda is structured as an engineering and management audit, with each point specifying the improvement action and the intended benefit. The first 26 priorities cover styling, performance and safety; the remaining 26 cover comfort, EV technology, durability, after-sales service and sustainability.

Domain A — Design, styling and usability

Audit points 1–8 | Applies primarily to product design and customer-facing usability.

01

Improve paint finish and surface durability

Introduce stronger scratch resistance, better UV stability and durable coatings on high-contact body panels.

Measure: paint-defect rate and customer complaints per 1,000 vehicles.

02

Expand colour choices

Evaluate metallic, matte, dual-tone and understated colours by customer segment, subject to production economics.

Measure: colour-wise sales mix and inventory turnover.

03

Develop a distinctive lighting signature

Improve LED headlamp and tail-lamp design, beam distribution and brand recognition while maintaining glare control.

Measure: lighting-test compliance and customer visibility ratings.

04

Tighten panel fit and finish

Reduce inconsistent gaps, loose trim, rattles and visible fastener defects through better manufacturing controls.

Measure: assembly defects per vehicle and early-life warranty claims.

05

Differentiate model identities

Create clearer design differences between commuter, family, sporty, touring and premium products.

Measure: customer recognition and model-level consideration.

06

Optimise storage space

Improve under-seat compartments, front storage and accessible hooks without compromising structural safety or ergonomics.

Measure: usable storage volume and customer usability scores.

07

Improve wheel design and functional accessories

Evaluate lighter alloy-wheel designs and factory-approved touring racks, phone mounts, visors and protective accessories.

Measure: weight, durability, accessory attachment rate and contribution margin.

08

Create customer-specific editions

Test youth, touring, family, rural-use and fleet-oriented variants where demand is sufficient.

Measure: incremental demand, development cost and variant profitability.

Domain B — Engine efficiency and performance

Audit points 9–16 | Focus: fuel economy, refinement, usable power and operating efficiency.

No.	Improvement required	Proposed action and performance indicator
09	Better fuel economy	Optimise combustion, transmission and vehicle weight; measure real-world km/l under a consistent test protocol.
10	Improved fuel-injection calibration	Refine cold starts, low-speed response and stop-start traffic behaviour; measure starting reliability and drivability.
11	Reduced engine vibration	Improve balancing, mounts and powertrain tuning; measure vibration across operating speeds.
12	Better heat management	Assess heat around riders' legs and feet during prolonged traffic operation; measure thermal comfort.
13	Refined engine options	Improve the balance of power, economy and refinement across commuter and performance categories.
14	Selectable riding modes	Assess Eco, City and Power modes where technically appropriate; measure efficiency and throttle response.
15	Smoother clutch and transmission	Reduce clutch effort, shift harshness and false neutrals; measure shift quality and component durability.
16	Lower powertrain noise	Improve intake, exhaust and mechanical-noise control while preserving legal compliance and intended character.

Case interpretation: TVS should not treat peak power or advertised mileage as the only performance measures. A more useful product scorecard combines real-world efficiency, acceleration, noise, vibration, thermal comfort, reliability and cost per kilometre.

Domain C — Braking, visibility and active safety

Audit points 17–26 | Focus: accident-risk reduction and rider confidence.

No.	Improvement required	Proposed action and performance indicator
17	Wider ABS availability	Evaluate ABS expansion across eligible models and variants; prioritise braking performance and applicable regulations.
18	Improved braking hardware	Assess disc-brake availability and braking balance according to vehicle class and use case.
19	Wet-road tyre performance	Validate tyre grip and braking on wet surfaces, including durability and wear.
20	Tubeless tyre availability	Expand tubeless fitment where feasible and appropriate; measure puncture-related downtime and serviceability.
21	Better night visibility	Optimise headlamp illumination and beam alignment without causing excessive glare.
22	Improved mirrors	Increase useful rearward visibility and reduce vibration-related blurring.
23	Hazard-warning capability	Assess suitable warning-light features and controls, subject to applicable regulations and homologation.
24	Side-stand safety interlock	Improve consistency of engine-cut-off or related safeguards where fitted and appropriate.
25	Traction and wheel-slip management	Evaluate traction control for suitable premium models using validation data and cost-benefit analysis.
26	Crash protection and control layout	Improve structural integrity, footrest placement and control accessibility through crash, durability and ergonomics testing.

Safety qualification: ABS, combined braking systems and traction control are not interchangeable. Equipment must be selected according to vehicle type, applicable Indian regulations and tested safety performance. More features do not automatically mean better safety if integration, calibration or usability is poor.

Domain D — Comfort and ergonomics

Audit points 27–34 | Focus: daily convenience, rider fit and long-term comfort.

 

27. Improve seat cushioning and thermal comfort

Test different foam densities, seat contours and cover materials for commuting and longer journeys. Measure pressure distribution and comfort ratings.

 

28. Introduce adjustable controls where suitable

Assess adjustable brake and clutch levers on premium motorcycles to accommodate different hand sizes and riding preferences.

 

29. Reduce wrist and shoulder strain

Optimise handlebar reach, grip angle, footpeg placement and riding posture through ergonomic trials.

 

30. Improve pillion comfort

Evaluate seat width, grab-rail access, footrest positioning and stability during two-person riding.

 

31. Tune suspension for uneven roads

Test ride comfort and bottoming resistance on representative potholes, speed breakers and rough surfaces without compromising handling.

 

32. Reduce handlebar vibration

Evaluate grip materials, bar-end weights and powertrain tuning, particularly at sustained cruising speeds.

 

33. Improve weather protection

Test optional visors, front-apron geometry and water deflection, while maintaining visibility and stability.

 

34. Improve accessibility for different rider heights

Evaluate seat height, seat width at the front, vehicle balance and low-speed manoeuvrability for shorter and less experienced riders.

Domain E — Electric mobility and digital technology

Audit points 35–43 | Focus: EV ownership confidence, battery lifecycle and connected services.

No.	Proposed improvement	Business or customer outcome
35	Optimise legroom and footboard space	Better comfort for varied rider heights and everyday clothing.
36	Reduce unnecessary vehicle weight	Improved efficiency and manoeuvrability, provided strength and durability are maintained.
37	Improve real-world EV range	Validate range across traffic, load, speed and temperature conditions; publish understandable range guidance.
38	Strengthen battery thermal management	Maintain battery performance and safety during hot weather, charging and sustained use.
39	Improve charging speed and compatibility	Evaluate charging options and interoperability where technically and commercially feasible.
40	Assess removable or swappable batteries	Test fleet and urban-use cases against safety, standardisation, theft protection and infrastructure costs.
41	Improve software and mobile-app reliability	Reduce failed connections, inaccurate status reporting, crashes and update-related problems.
42	Develop intelligent range prediction	Incorporate riding style, terrain, load, temperature and battery condition into remaining-range estimates.
43	Improve regenerative braking and connected protection	Refine deceleration feel; provide dependable geofencing, theft alerts and diagnostics where appropriate.

Strategic interpretation: EV competitiveness depends on more than battery capacity. The complete ownership system includes range predictability, charging access, software reliability, battery protection, repair turnaround and resale confidence. Battery-swapping proposals should be evaluated as a specific business model, not assumed to be suitable for every consumer scooter.

Domain F — Durability, after-sales affordability and sustainability

Audit points 44–52 | Focus: lifecycle cost, service quality, manufacturing consistency and environmental performance.

44

Improve dust and water resistance

Validate seals, connectors, battery enclosures and electrical harnesses against appropriate environmental testing.

45

Reduce corrosion

Improve protective coatings on fasteners, exhaust components and exposed metal parts, with special attention to humid and coastal conditions.

46

Make genuine spare parts more affordable

Review high-frequency replacement parts, simplify unnecessary component variation and monitor price-to-income affordability.

47

Improve spare-parts availability

Strengthen demand forecasting, regional inventory and parts distribution in semi-urban and rural markets.

48

Extend service intervals when validated

Optimise maintenance schedules only when supported by engineering tests, lubricant specifications and warranty requirements.

49

Reduce early-life failures and inconsistent quality

Use supplier-level defect tracking, failure analysis and corrective-action reviews to reduce repeat faults.

50

Improve service transparency

Provide clear estimates, digital service records, repair updates and explanations of replaced components.

51

Strengthen sustainability and end-of-life recovery

Improve material efficiency, recyclability, battery recovery and supplier environmental monitoring.

52

Create a unified product-quality feedback system

Combine warranty claims, dealer repair records, customer complaints, field failures and supplier data to guide continuous improvement across manufacturing locations.

6. Financial analysis of TVS Motor Company

6.1 Reported financial performance

TVS Motor Company reported record annual revenue in FY 2025–26. Its official results show significant growth in revenue and operating EBITDA, alongside higher operating profitability.

 

Table 1. Selected reported financial indicators. Figures are rounded and in ₹ crore unless otherwise specified.

Financial indicator	FY 2024–25	FY 2025–26
Revenue from operations	36,251	47,270
Operating EBITDA	4,450	6,079
Operating EBITDA margin	12.3%	12.9%
Operating profit before tax, as reported in company release	3,563	4,975
Total two- and three-wheeler sales	47.44 lakh	58.89 lakh
Electric vehicle sales	2.79 lakh	3.71 lakh

Source: TVS Motor Company's FY 2025–26 results announcement dated 13 May 2026. The company's operating PBT measure is presented as reported and should not be confused with every statutory PBT subtotal.

 

Revenue growth

30.4%

Approximate year-on-year increase, FY 2025–26 versus FY 2024–25.

Revenue from operations

Reported annual revenue in ₹ crore.

₹0₹15K₹30K₹45K₹60KFY24–25FY25–26

Operating EBITDA margin

12.3% → 12.9%

An improvement of 0.6 percentage points, or 60 basis points.

Operating EBITDA margin

Reported operating EBITDA as a percentage of revenue.

0%4%8%12%16%FY24–25FY25–26

6.2 Interpretation of financial performance

Finding 1 — Growth creates investment capacity. Revenue increased from approximately ₹36,251 crore to ₹47,270 crore. This scale provides a stronger base from which management can consider engineering upgrades, product development, testing and EV technology investments. It does not, by itself, prove that any individual improvement project will be profitable.

 

Finding 2 — Margin discipline remains important. Operating EBITDA grew, and the margin improved by 60 basis points. However, safety improvements, additional features and battery technology may increase material and development costs. TVS should therefore assess incremental contribution margin for each major product change.

Finding 3 — EV growth strengthens the case for lifecycle innovation. The company's reported EV sales increased from 2.79 lakh to 3.71 lakh units, an increase of approximately 33%. This supports further investigation of battery performance, charging convenience and software reliability, although sales growth alone does not reveal EV-specific profitability.

Finding 4 — Model-level financial data is essential. Company-wide revenue and EBITDA cannot establish the profitability of Apache, Jupiter or iQube individually. Product-level sales, warranty costs, material costs, marketing expenditure, battery costs and contribution margins would be needed for a more precise assessment.

6.3 Illustrative financial evaluation of product improvements

The following is a hypothetical decision scenario, not a statement of TVS's actual budget or expected savings.

Suppose TVS evaluates a combined product-quality and serviceability programme.

Illustrative assumption	Amount
Annual vehicles covered	500,000
Average manufacturing or warranty-related saving per vehicle	₹200
Annual gross savings	₹10 crore
Initial development and implementation investment	₹15 crore
Annual recurring programme expense	₹2 crore
Annual net operating benefit after recurring expense	₹8 crore
Simple payback period	1.875 years

Calculations:

Annual gross savings = 500,000 × ₹200 = ₹10 crore.

Annual net operating benefit = ₹10 crore − ₹2 crore = ₹8 crore.

Simple payback = ₹15 crore ÷ ₹8 crore = 1.875 years, or approximately 22.5 months.

This scenario demonstrates how even a modest per-vehicle reduction in avoidable costs may become financially material at scale. The assumptions must be replaced with verified internal data before a management decision is made.

6.4 Financial appraisal framework for each improvement

TVS could use the following measures before approving a project:

Incremental contribution: Additional revenue less variable production, distribution and support costs.

Warranty savings: Reduction in expected warranty claims and repair expenditure.

Development cost: Engineering, tooling, software, testing, homologation and launch expenditure.

Payback period: Initial investment divided by annual incremental net cash benefit.

Net present value (NPV): Present value of incremental cash flows less initial investment.

Return on investment (ROI): Net project benefit divided by project investment, using a clearly specified period and definition.

Projects that improve regulatory compliance and essential safety may need to proceed even where direct financial payback is difficult to quantify. For discretionary styling or connected features, commercial returns and willingness to pay should carry greater weight.

7. SWOT analysis of TVS Motor Company

The SWOT analysis below is a strategic interpretation of the company's product portfolio, financial position and industry environment. It is not a substitute for an independently verified competitor or customer survey.

S — Strengths

Established manufacturing capabilities: Scale and manufacturing experience can support quality improvement and cost optimisation.

Diverse product portfolio: Motorcycles, scooters, EVs and three-wheelers serve multiple customer segments.

Strong financial momentum: FY 2025–26 revenue reached ₹47,270 crore, with operating EBITDA of ₹6,079 crore.

Performance and brand differentiation: Apache supports a sport-oriented brand identity, while Jupiter and iQube address other mobility needs.

International presence: Export markets offer opportunities to adapt products to different customer requirements.

W — Weaknesses to investigate

Product complexity: Numerous variants and optional features can increase parts, inventory and servicing complexity.

Affordability trade-offs: Adding premium features may make price-sensitive vehicles less accessible.

EV ownership uncertainty: Range, charging access, battery replacement cost and software performance need continuous validation.

Service consistency: Differences in repair turnaround, parts availability and communication can affect the ownership experience.

Limited public model-level profitability: External researchers cannot confidently determine the individual profitability of Apache, Jupiter and iQube from consolidated company revenue alone.

O — Opportunities

EV innovation: Improve real-world range, battery lifecycle, charging and digital ownership services.

Premiumisation: Develop higher-value products and accessories that provide demonstrable customer benefits.

Data-led engineering: Use warranty and connected-vehicle data to identify recurring product issues.

Rural and semi-urban markets: Strengthen durability, repairability and genuine spare-parts access.

Export adaptation: Design products around local regulations, climate, roads and usage patterns.

Sustainable manufacturing: Improve material efficiency, component reuse and battery recovery.

T — Threats

Intense competition: Hero, Honda, Bajaj, Yamaha and electric-mobility specialists compete across overlapping segments.

Input-cost volatility: Battery materials, electronics, metals and imported components can pressure margins.

Regulatory changes: Safety, emissions and battery requirements may necessitate additional engineering investment.

Rapid technology shifts: New battery systems, software platforms and customer expectations can shorten product lifecycles.

Reputation risks: Product recalls, safety incidents, inconsistent service or EV reliability problems may damage customer confidence.

Economic uncertainty: Financing costs and changes in household purchasing power can affect vehicle demand.

7.1 TOWS: Converting SWOT into action

Strategy	Recommended managerial response
Strengths + Opportunities (SO)	Use engineering scale and financial resources to accelerate EV development and premium-product innovation.
Strengths + Threats (ST)	Apply quality systems, supplier development and product validation to defend against competition and regulatory risk.
Weaknesses + Opportunities (WO)	Simplify variants, improve service analytics and use digital diagnostics to reduce lifecycle cost.
Weaknesses + Threats (WT)	Prioritise safety-critical defects, control feature-related cost escalation and strengthen supplier contingency plans.

Strategic conclusion from SWOT: TVS should not pursue technology for its own sake. It should combine engineering capability with customer value, financial discipline and dependable after-sales support.

8. Product improvement prioritisation model

All 52 proposals cannot be implemented simultaneously. Management should first distinguish safety-critical and reliability-related changes from discretionary features.

The following is a proposed prioritisation framework, not an assessment of actual defects in TVS products.

Table 2. Proposed implementation sequence

Priority	Improvement areas	Indicative timeline	Key success measure
P1 — Immediate	Safety validation, early-life quality, corrosion, spare-parts availability, software defects	0–6 months	Fewer repeat defects, faster repairs and improved compliance
P2 — Near term	Mileage, vibration, seat comfort, suspension, fit-and-finish	6–12 months	Better customer ratings and reduced cost per kilometre
P3 — Medium term	Connected features, ergonomic redesign, accessory packages, advanced range prediction	12–24 months	Adoption, usability and incremental contribution
P4 — Long term	New EV architectures, battery solutions, premium platforms and sustainability systems	24–36 months	Lifecycle profitability, reliability and market differentiation

Timelines are planning assumptions. Safety-related changes must follow the appropriate engineering, validation and regulatory process, even when that process extends beyond the indicative period.

8.1 Interactive priority selector

Use this proposed planning tool to explore which type of improvement should receive the greatest managerial attention.

Primary improvement objective

Customer satisfaction

Cost reduction

EV competitiveness

Premium differentiation

Priority domain

Safety and reliability

Comfort and usability

Affordability and service

EV and digital technology

Design and premium features

Planning horizon

0–6 months

6–12 months

12–24 months

24–36 months

Suggested management focus

Engineering validation and defect prevention

Begin with applicable safety requirements, field-failure analysis, component durability and corrective action. The 0–6 months horizon is a planning window, not permission to defer urgent safety issues.

Selected objective: Customer satisfaction. Suggested horizon: 0–6 months.

Copy planning brief

9. Research-based performance measurement framework

To convert the 52-point agenda into an evidence-based management programme, TVS should monitor outcomes rather than count the number of features introduced.

KPI category	Proposed indicator	Measurement approach
Product quality	Early-life failure rate	Failures per 1,000 vehicles during a defined period
Safety	Braking and lighting compliance	Engineering test results and regulatory verification
Efficiency	Real-world mileage or energy consumption	Standardised route, load and operating conditions
Customer satisfaction	Satisfaction and recommendation scores	Representative, model-specific customer survey
Service	First-time fix rate	Percentage of repairs completed without repeat visits
Affordability	Annual maintenance expenditure	Cost of a defined service and parts basket
EV performance	Actual versus predicted range	Controlled field testing across conditions
Software	Application and connectivity reliability	Crash rate, failed connections and resolution time
Financial performance	Incremental contribution margin	Incremental revenue less attributable variable costs
Sustainability	Material recovery and lifecycle impacts	Verified material, waste and battery-recovery data

The company should collect baseline values before implementation and define target improvements after reviewing actual data. Without baseline measurements, a claimed improvement cannot be reliably attributed to a particular intervention.

10. Proposed customer survey and statistical validation

A future empirical study could test whether the improvement priorities reflect actual customer preferences.

10.1 Proposed research design

Population: Owners of TVS motorcycles, scooters and electric vehicles.

Sampling: Stratified sampling by vehicle category, ownership period, region and urban/rural usage.

Sample size: An initial planning target of 400–500 respondents, subject to a formal power or precision calculation.

Instrument: A structured questionnaire covering safety, mileage, comfort, reliability, styling, maintenance, digital features and purchase intention.

Scale: Five-point Likert scale, from 1 = strongly disagree to 5 = strongly agree.

Additional evidence: Dealer interviews, service records, warranty claims and model-level cost data, where access is authorised.

10.2 Proposed statistical tests

Research question	Suitable method
Which improvement domains receive the highest ratings?	Descriptive statistics and ranking
Are priorities different across vehicle categories?	ANOVA or a suitable non-parametric alternative
Is perceived reliability associated with repurchase intention?	Correlation and regression
Do satisfaction scores differ by ownership duration?	Group comparison
Are survey items internally consistent?	Cronbach's alpha, where appropriate
Which underlying dimensions explain satisfaction?	Exploratory factor analysis, if sample adequacy permits

No survey results, significance levels, regression coefficients or reliability statistics are claimed in this paper because primary respondent-level data have not been supplied. These analyses should be conducted only after data collection and appropriate validation.

11. Discussion: Linking product strategy with financial sustainability

The analysis indicates three managerial trade-offs.

First, safety and affordability must be balanced intelligently. TVS should prioritise effective safety systems and regulatory compliance while using common platforms, supplier engineering and efficient design to manage costs. Safety should not be compromised merely to achieve a lower selling price.

Second, premiumisation must deliver measurable customer value. Customers may be willing to pay more for better braking, comfort, performance and useful technology, but unnecessary features can raise costs without generating corresponding demand. Customer trials and willingness-to-pay analysis should precede large investments.

Third, EV innovation must consider the complete ownership cycle. Higher battery capacity is only one possible response to range concerns. Battery durability, charging access, software reliability, repairability and resale value also influence customer confidence and the economics of electric mobility.

The financial evidence establishes that TVS has experienced substantial growth. It does not establish that every proposed investment will improve profitability. Each initiative should therefore pass engineering, customer-validation and financial-appraisal gates.

12. Managerial recommendations

The following actions translate the research into a practical product-management programme.

Establish a cross-functional product improvement committee involving engineering, quality, finance, procurement, marketing, dealers and after-sales service.

Create a model-wise dashboard for Apache, Jupiter and iQube, with additional analysis for other relevant models.

Audit warranty claims, service complaints and parts availability to establish verified baselines.

Develop a costed business case for each major product change.

Pilot selected improvements with representative customers before full-scale launch.

Review safety, regulatory compliance and engineering feasibility before approving any design change.

Publish a quarterly internal scorecard linking customer outcomes, quality measures, investment and financial returns.

Retire or redesign features that create cost and complexity without meaningful customer value.

13. Conclusion

TVS Motor Company has a substantial product portfolio and demonstrated financial growth, but sustained competitiveness requires ongoing attention to customer value, quality, safety, comfort, digital reliability and lifecycle cost.

This case-cum-research study presents 52 improvement proposals spanning product styling, engine refinement, safety, ergonomics, EV technology, durability, after-sales service and sustainability. The SWOT analysis identifies strategic opportunities alongside cost, competition and technology risks. The financial analysis shows why management should combine growth ambitions with disciplined investment appraisal.

The principal recommendation is to adopt a customer-evidence-led, financially disciplined and safety-first product improvement system. Rather than introducing all proposed changes simultaneously, TVS should establish actual performance baselines, prioritise validated problems, test solutions and measure results.

If implemented through a phased and measurable process, this agenda could support stronger customer confidence, improved ownership economics, more differentiated products and sustainable long-term competitiveness. The proposed benefits remain hypotheses to be tested, not guaranteed outcomes.

References

1. TVS Motor Company. (2026, May 13). TVS Motor records 30% growth in revenue and 40% growth in operating PBT in FY 2025–26. Official company announcement. Read the FY 2025–26 financial announcement.

2. TVS Motor Company. (2026). Integrated Annual Report 2025–26. Read the annual report communiqué.

3. TVS Motor Company. (2026). Annual, audited and unaudited financial reports. Access official financial reports.

4. TVS Motor Company. (2025). TVS Motor records highest-ever sales, EBITDA margin and profit in FY 2024–25. View the company's financial and performance announcements. The official FY 2024–25 results announcement is available through the company's financial reports and media releases.

5. TVS Motor Company. (n.d.). Products and services. Official company website.