The transition to electric vehicles (EVs) in India is central to sustainable mobility, carbon emission mitigation, and energy security achievement. In spite of large-scale government initiatives and policies such as the Faster Adoption and Manufacturing of Hybrid and Electric Vehicles (FAME) scheme, the Indian EV market is still in its nascent stage, plagued by infrastructure shortages, technological issues, high capital investment, and low consumer awareness. Scholarly literature has under-emphasized systematic examination of sustainable supply chain management practices, socio-economic impacts, and end-to-end environmental lifecycle evaluation, which remains a vital knowledge gap. In this review, articles from 2013 to 2025 are systematically compiled, on the basis of peer-reviewed articles from databases Scopus and aligned case studies, categorized into thematic domains. The review critically explores gaps in infrastructure, technological advancements, financial management, and sustainability initiatives, as well as the critical identification of key challenges and opportunities in the Indian EV supply chain. Findings indicate glaring gaps in infrastructure and technology in battery manufacturing, charging infrastructure availability, and raw material procurement. In spite of promising technological advances in solar-powered charging infrastructure and improved battery technology, scalability is still a significant concern. Strategic adoption of green supply chain management practices, recycling and waste management, and recycling upgradation are proposed as imperative. Policy suggestions are aimed at strengthening charging infrastructure through the integration of renewable energy, increasing financial incentives, transparency of regulatory norms, and participative public-private partnerships.
FaisalF.An analysis of electric vehicle trends in developed nations: a sustainable solution for India. J Undergrad Res2017; 9(1–5): 1–8.
2.
SinghVSinghVVaibhavS.Analysis of electric vehicle trends, development and policies in India. Case Stud Transp Policy2021; 9(3): 1180–1197.
3.
PreethaPPoornachandranP.Electric vehicle scenario in India: roadmap, challenges and opportunities. In: Proceedings of the 2019 IEEE international conference on electrical, computer and communication technologies (ICECCT), Coimbatore, India, 20–22 February 2019, pp.1–7. New York: IEEE.
4.
BhattLPandeyD.Review on dengue fever. Int J Multidiscip Educ Res2023; 12(7): 74–86.
5.
GhatikarGAhujaAPillaiRK.Battery electric vehicle global adoption practices and distribution grid impacts: a preliminary case study for Delhi, India. Technol Econ Smart Grids Sustain Energy2017; 2: 1–10.
6.
TareiPKChandPGuptaH.Barriers to the adoption of electric vehicles: evidence from India. J Clean Prod2021; 291: 125847.
7.
PatyalVSKumarRKushwahS.Modeling barriers to the adoption of electric vehicles: an Indian perspective. Energy2021; 237: 121554.
8.
PalaniswamySSubburajSDRSaravananM, et al. Social, economic and environmental impact of electric vehicles in India. J Environ Sci Manag2022; 25(1): 64–68.
9.
SarkarEMSarkarTBharadwajMD.Lithium-ion battery supply chain: enabling national electric vehicle and renewables targets. Curr Sci2018; 114: 2453–2458.
10.
HawkinsTRSinghBMajeau-BettezG, et al. Comparative environmental life cycle assessment of conventional and electric vehicles. J Ind Ecol2013; 17(1): 53–64.
11.
SerohiA.Impact of 3-D printing technology in manufacturing supply lines to improve resilience during black swan events. Int J Suppl Chain Manag2021; 10: 88.
12.
SachanSPathakNChandraS. Scenario of solar power based electric vehicle charging station in India. In: Proceedings of the 2023 IEEE 2nd international conference on industrial electronics: developments & applications (ICIDeA), Imphal, India, 29–30 September 2023, pp.76–81. New York: IEEE.
13.
KumarDRahmanZ.Buyer supplier relationship and supply chain sustainability: empirical study of Indian automobile industry. J Clean Prod2016; 131: 836–848.
14.
VidhiRShrivastavaP.A review of electric vehicle lifecycle emissions and policy recommendations to increase EV penetration in India. Energies2018; 11(3): 483.
15.
OnatNCAboushaqrahNNKucukvarM, et al. From sustainability assessment to sustainability management for policy development: the case for electric vehicles. Energy Convers Manag2020; 216: 112937.
16.
JenaR.An empirical case study on Indian consumers’ sentiment towards electric vehicles: a big data analytics approach. Ind Mark Manag2020; 90: 605–616.
17.
SharmaKTiwariSKumarA, et al. Critical review of the electric vehicle ecosystem in India. Water Energy Int2023; 66(8): 42–48.
18.
RamananASekharMMehraS. Solar PV and second life batteries powered EV charging station: case study for India. In: Proceedings of the 7th E-Mobility power system integration symposium (EMOB 2023), Copenhagen, Denmark, 25 September 2023, pp.153–163. London: IET.
19.
ShrivastavaNASinghR.Sizing and feasibility analysis of a self-governing hybrid electric vehicle charging system. In: AleemSHBalciMERawaMJ (eds) Energy efficiency of modern power and energy systems. Elsevier, 2024, pp.267–299.
20.
DhairiyasamyRGabirielDBunphengW, et al. A comprehensive analysis of India’s electric vehicle battery supply chain: barriers and solutions. Discov Sustain2024; 5(1): 361.
21.
DhairiyasamyRGabirielD.Sustainable mobility in India: advancing domestic production in the electric vehicle sector. Discov Sustain2025; 6(1): 52.
22.
KumarPSinghRKPaulJ, et al. Analyzing challenges for sustainable supply chain of electric vehicle batteries using a hybrid approach of Delphi and Best-Worst Method. Resour Conserv Recycl2021; 175: 105879.
23.
GonalVSBagiSKoluragiVV, et al. Electric vehicles in India: unlocking opportunities, overcoming challenges and strategic recommendations. In: Proceedings of the 2024 international conference on innovation and novelty in engineering and technology (INNOVA), Vijayapura, India, 20–21 December 2024, pp.1–6. New York: IEEE.
24.
LuthraSGovindanKKannanD, et al. An integrated framework for sustainable supplier selection and evaluation in supply chains. J Clean Prod2017; 140: 1686–1698.
25.
DasS.Emerging trends in Electric Vehicle in Indian market. In: Proceedings of the 2019 3rd international conference on recent developments in control, automation & power engineering (RDCAPE), Noida, India, 10–11 October 2019, pp.514–518. New York: IEEE.
26.
DharSPathakMShuklaPR.Electric vehicles and India’s low carbon passenger transport: a long-term co-benefits assessment. J Clean Prod2017; 146: 139–148.
27.
Nushreen AhmedBMamidiS. Role of power utility in the future of E Mobility in India. In: PillaiRKDixitADhapreS (eds) ISUW 2019: proceedings of the 5th international conference and exhibition on smart grids and smart cities. Springer, 2022, pp.155–165.
28.
GopalPThakkarJ.Sustainable supply chain practices: an empirical investigation on Indian automobile industry. Prod Plan Control2016; 27(1): 49–64.
29.
FirozFBiswalJNSatapathyS.Supplier selection criteria for sustainable supply chain management in thermal power plant. IOP Conf Ser Mater Sci Eng2018; 310(1): 012016.
30.
ThakkarJKandaADeshmukhS.Supply chain issues in SMEs: select insights from cases of Indian origin. Prod Plan Control2013; 24(1): 47–71.
31.
GaustadGKrystofikMBustamanteM, et al. Circular economy strategies for mitigating critical material supply issues. Resour Conserv Recycl2018; 135: 24–33.
32.
DashA.Adapting to electric vehicles value chain in India: the MSME perspective. Case Stud Transp Policy2023; 12: 100996.
33.
RohitKVermaADhairiyasamyR, et al. A continuous supply chain management approach using SPJS-Fuzzy DEMATEL and LPWBN for automotive electric vehicles in India. Sustain Futures2025; 9: 100518.
34.
BelalMMRoySBalasubramanianS, et al. Sustainability challenges of lithium-ion battery supply chain: evidence from the Indian electric vehicle sector. J Inform Technol Manag2025; 17(1): 178–197.
35.
ManePBDigalwarAKAdhithyanC. Modeling the supply chain risk and barriers to electric vehicle technology adoption in India. In: SharmaSKDwivediYKMetriB, et al. (eds) Transfer, diffusion and adoption of next-generation digital technologies IFIP WG 8.6 international working conference on transfer and diffusion of IT. Springer, 2023, pp.202–214.
36.
BhattacharyyaDPradhanS.Barriers in replacement of conventional vehicles by electric vehicles in India: a decision-making approach. Int J Decis Support Syst Technol2023; 15(1): 1–20.
37.
MishraNMancheriN.Critical rare metal and collaboration of India and Japan. In: ShawRChoudhurySR (eds) India, Japan and beyond: human security, environment, development, innovation and resilience. Springer, 2024, pp.65–87.
38.
SinghSRDigalwarAKRoutroyS.Towards sustainable transportation: factors influencing electric vehicle charging stations development. Sustain Energy Technol Assess2025; 77: 104339.
39.
WiggerL.Oregon trail: labor and housing as essential links in the critical materials supply chain. J Econ Issues2025; 59(2): 534–541.
40.
Kilinc-AtaNFikruMG.A framework for evaluating EV battery mineral sourcing challenges. Sustain Futur2025; 9: 100720.
41.
SumanDRajakS.Analysis of barriers to the implementation of circular economy in an Indian electric vehicle batteries manufacturer. Environ Dev Sustain. Epub ahead of print 29May2024. DOI: 10.1007/s10668-024-05055-w.
42.
KalmaganbetovSAIsametovaMTrohaS, et al. Selection of optimal planetary transmission for light electric vehicle main gearbox. J Appl Comput Mech2024; 10(4): 742–753.
43.
ValeraHAgarwalAK. Future automotive powertrains for India: methanol versus electric vehicles. In: SinghASharmaYMustafiN, et al. (eds) Alternative fuels and their utilization strategies in internal combustion engines. Springer, 2019, pp.89–123.
44.
SankaranGVenkatesanS.Standardization of electric vehicle battery pack geometry form factors for passenger car segments in India. J Power Sources2021; 502: 230008.
45.
ShrivastavaARangaJNarayanaV, et al. Green energy powered charging infrastructure for hybrid EVs. In: Proceedings of the 2021 9th international conference on cyber and IT service management (CITSM), Bengkulu, Indonesia, 22–23 September 2021, pp.1–7. New York: IEEE.
46.
PesaranAA.Lithium-ion battery technologies for electric vehicles: progress and challenges. IEEE Electrif Mag2023; 11(2): 35–43.
47.
MoTLiYLauK-t, et al. Trends and emerging technologies for the development of electric vehicles. Energies2022; 15(17): 6271.
48.
FischerSSzürkeSK.Detection process of energy loss in electric railway vehicles. Facta Univ Ser Mech Eng2023; 21(1): 081–099.
49.
StevićŽBaydaşMKavacıkM, et al. Selection of data conversion technique via sensitivity-performance matching: ranking of small e-vans with PROBID method. Facta Univ Ser Mech Eng2024; 22: 643–671.
50.
TaakAKumarR.Supply chain issues and challenges for cement industries of India: a case study. In: ShankerKShankarRSindhwaniR (eds) Advances in industrial and production engineering: select proceedings of FLAME 2018. Springer, 2019, pp.297–302.
51.
KoreHHKoulS.Electric vehicle charging infrastructure: positioning in India. Manag Environ Qual2022; 33(3): 776–799.
52.
WongDWChoyKLLinC, et al. An intelligent battery information management system to support information sharing and vehicle routing planning for battery distribution in Hong Kong. Int J Innov Sustain Dev2015; 9(1): 1–27.
53.
SudanTTaggarR.Recovering supply chain disruptions in post-COVID-19 pandemic through transport intelligence and logistics systems: India’s experiences and policy options. Front Future Transp2021; 2: 660116.
54.
SharmaYKPatilPPTufchiN, et al. Innovative procurement practices increase productivity. In: ManglaSKLuthraS (eds) Sustainability, innovation and procurement. CRC Press, 2019, pp.79–92.
55.
AnsabKKumarSP.Influence of government financial incentives on electric car adoption: empirical evidence from India. South Asian J Bus Stud2022; 13(2): 226–243.
56.
ShahRV.Financial incentives for promotion of electric vehicles in India-an analysis using the environmental policy framework. Nat Environ Pollut Technol2022; 21(3): 1227–1234.
57.
WesselingJHNiestenEMFaberJ, et al. Business strategies of incumbents in the market for electric vehicles: opportunities and incentives for sustainable innovation. Bus Strategy Environ2015; 24(6): 518–531.
58.
JaiswalDKaushalVKantR, et al. Consumer adoption intention for electric vehicles: insights and evidence from Indian sustainable transportation. Technol Forecast Soc Change2021; 173: 121089.
59.
HudnurkarMRathodU.Collaborative practices with suppliers in Indian manufacturing multinationals. J Glob Oper Strateg Sourc2017; 10(2): 206–231.
60.
PatilMMajumdarBB.An investigation on the key determinants influencing electric two-wheeler usage in urban Indian context. Res Transp Bus Manag2022; 43: 100693.
61.
BhattacharyaLChatterjeeAChatterjeeD.Critical enablers that mitigate supply chain disruption: a perspective from Indian MSMEs. Manag Labour Stud2023; 48(1): 42–63.
62.
DasPSamantaraySKayalP.Evaluation of distinct EV scheduling at residential charging points in an unbalanced power distribution system. IETE J Res2024; 70(3): 3100–3112.
63.
YuvarajTDevabalajiKThanikantiSB, et al. Integration of electric vehicle charging stations and DSTATCOM in practical Indian distribution systems using bald eagle search algorithm. IEEE Access2023; 11: 55149–55168.
64.
RajDBMuraliV. A novel hybrid algorithm for charging station planning problem. In: Proceedings of the 2024 23rd national power systems conference (NPSC), Indore, India, 14–16 December 2024, pp.1–6. New York: IEEE.
65.
GeorgeJMathewsAPBabuNA, et al. Electric vehicles in India—growth and future prospects. In: HamdanABraendleU (eds) Harnessing AI, machine learning, and IoT for intelligent business: volume 1. Springer, 2024, pp.363–372.
66.
ThoratJSKumarDSandhuJS.Powering sustainable mobility: electric and hybrid vehicles leading the way. SAE technical paper 0148-7191, 2024.
67.
BhattacharyaSMukhopadhyayDGiriS.Framework for study of supplier relationships in Indian automotive supply chains. J Supply Chain Manag Syst2015; 4(3): 47–63.
68.
KumarSChattopadhyayaSSharmaV.Sustainable supply chain management: a case study from Indian automotive industry. Adv Mater Res2012; 472: 3359–3370.
69.
SahaSKRashmiSPujariSK.Application of green logistics in supply chain of auto parts: a south Indian scenario. In: Ordóñez de PablosPAlmunawarMNAnshariM (eds) Developing skills and competencies for digital and green transitions. IGI Global, 2023, pp.281–300.
70.
ShrivastavaNSrivastavaMK. Achieving sustainability in supply chain during disruption times: role of industry 4.0. In: DasSSahaSCoello CoelloCA, et al. (eds) Proceedings of the international conference on advances in data-driven computing and intelligent systems. Springer, 2023, pp.239–250.
71.
GiriPPaulSDebnathBK.A hybrid graph-theoretic solution of Delphi and graph theory matrix approach (GTMA) to the challenges of sustainable lithium-ion battery (LIB) supply chains in electric vehicles in India. J Energy Storage2024; 97: 112702.
72.
UpadhyayAKSheetalKhanMI.Comparing sustainable procurement in green supply chain practices across Indian manufacturing and service sectors. Bus Perspect Res2025; 13(1): 111–131.
73.
VijayvargyLSahooS.Assessment of green supply chain practices for sustainable organizational performance for the automotive sector. IOP Conf Ser Earth Envir Sci2021; 795(1): 012017.
74.
KumarMRaoTJ.Use of TISM and MICMAC methods to assess the influence of behavioral factors on the employment of GSCM in the Indian leather industry. MethodsX2023; 10: 102164.
75.
Al-DooriJA.The impact of supply chain collaboration on performance in automotive industry: empirical evidence. J Ind Eng Manag2019; 2(2): 241–253.
76.
VermaSPaulARHaqueN, et al. End-of-life recycling of lithium-ion batteries in India. In: LazouAMeskersCOlivettiE (eds) TMS annual meeting & exhibition. Springer, 2025, pp.65–77.
77.
MehraGAroraRPrakashR, et al. Approaches to improving the circular economy paradigm in E-waste management in India through informal–formal sector integration. In: DebnathBDasAChowdaryPA, et al. (eds) Development in E-waste management. CRC Press, 2023, pp.209–222.
78.
JainA.E-waste in Indian cities, menace, resource, and strategies for sustainable management. In: Mahendra DevSYedlaS (eds) Cities and sustainability: issues and strategic pathways. Springer, 2015, pp.211–223.
79.
JaiswalSKMuktiSK.Prioritizing factors affecting e-waste recycling in India: a framework for achieving a circular economy. Circ Econ Sustain2025; 5(1): 461–481.
80.
JaiswalSKMuktiSK.Barriers affecting formal recycling of E-waste in Indian context. In: BhardwajAPandeyPMMisraA (eds) Proceedings of the international conference on production and industrial engineering. Springer, 2023, pp.283–291.
81.
JaiswalSKMuktiSKAgrawalA.Circular economy of e-waste: a critical analysis in Indian context. AIP Conf Proc2023; 3006(1): 040002.
82.
ShirodkarNTerkarR.Stepped recycling: the solution for E-waste management and sustainable manufacturing in India. Mater Today Proc2017; 4(8): 8911–8917.
83.
AsokanVATeahHYKawazuE, et al. Ambitious EV policy expedites the e-waste and socio-environmental impacts in India. Resour Conserv Recycl2023; 190: 106829.
84.
RajakSVimalKEKArumugamS, et al. Multi-objective mixed-integer linear optimization model for sustainable closed-loop supply chain network: a case study on remanufacturing steering column. Environ Dev Sustain2022; 24(5): 6481–6507.
85.
SherifSUSasikumarPAsokanP, et al. An eco-friendly closed loop supply chain network with multi-facility allocated centralized depots for bidirectional flow in a battery manufacturing industry. J Adv Manag Res2020; 17(1): 131–159.
86.
ZhangWZhuLLiuX, et al. Optimal strategies in electric vehicle battery closed-loop supply chain considering government subsidies and echelon utilization. J Energy Storage2024; 99: 113341.
87.
ParkJLimHSGoI, et al. A study on perceived policy effectiveness and legislative improvement requirements from the Korea electric vehicle battery industry by supply chain stages. J Korea Soc Waste Manag2025; 42(2): 68–81.
88.
ZhangCTianY-XHanM-H.Recycling mode selection and carbon emission reduction decisions for a multi-channel closed-loop supply chain of electric vehicle power battery under cap-and-trade policy. J Clean Prod2022; 375: 134060.
89.
NarangPDePKLimCP, et al. Optimal recycling model selection in a closed-loop supply chain for electric vehicle batteries under carbon cap-trade and reward-penalty policies using the Stackelberg game. Comput Ind Eng2024; 196: 110512.
90.
BonuSRPanigrahiDS. Recollection and recycling of automotive Lithium Ion batteries in India. In: Proceedings of the 2019 IEEE transportation electrification conference (ITEC-India), Bengaluru, India, 17–19 December 2019, pp.1–5. New York: IEEE.
91.
DwivediAChowdhuryPAgrawalD, et al. Antecedents of digital supply chains for a circular economy: a sustainability perspective. Ind Manag Data Syst2023; 123(6): 1690–1716.
92.
BhuyanATripathyAPadhyR, et al. Evaluating the lithium-ion battery recycling industry in an emerging economy: a multi-stakeholder and multi-criteria decision-making approach. J Clean Prod2022; 331: 130007.
93.
TripathyABhuyanAPadhyR, et al. Technological, organizational, and environmental factors affecting the adoption of electric vehicle battery recycling. IEEE Trans Eng Manag2022; 71: 12992–13005.
94.
ShahapureSBKulkarniVAShindeSM.A technology review of energy storage systems, battery charging methods and market analysis of EV based on electric drives. Development2022; 6(8): 23–35.
95.
Kumar PradhanSRoutroyS. Analyzing the supply chain risk issues for an Indian manufacturing company. J Adv Manag Res2014; 11(2): 144–162.
96.
RoyJPamučarDKarS.Evaluation and selection of third party logistics provider under sustainability perspectives: an interval valued fuzzy-rough approach. Ann Oper Res2020; 293: 669–714.
97.
MathivathananDMathiyazhaganKNoorul HaqA, et al. Comparative study on adoption of sustainable supply chain management practices in Indian manufacturing industries. J Model Manag2019; 14(4): 1006–1022.
98.
ManiVAgrawalRSharmaV.Impediments to social sustainability adoption in the supply chain: an ISM and MICMAC analysis in Indian manufacturing industries. Glob J Flex Syst Manag2016; 17: 135–156.
99.
MaliVPunnenRJ.Beginning of March towards greener future through EV charging network. In: NeuRQianXYuP (eds) The synergy of sustainable entrepreneurship. IGI Global Scientific Publishing, 2025, pp.31–52.
100.
HosamathRVNagarkatteM.Implementation of quality system basics-case study at Divgi-Warner Private Limited. SAE technical paper 0148-7191, 2014.
101.
RajendranSPrakashCShakirM, et al. Enhancing competitiveness in India’s electric vehicle industry: impact of advanced manufacturing technologies and workforce development. Sci Rep2025; 15(1): 15647.
102.
SinghDKBohreAK.Planning and monitoring of EV fast-charging stations including DG in distribution system using particle swarm optimization. In: MalikHFatemaNAlzubiJA (eds) AI and machine learning paradigms for health monitoring system: intelligent data analytics. Springer, 2021, pp.269–302.
103.
PrakashPARadhaR. Transforming electric vehicle navigation strategies: an AI-enhanced framework for achieving superior route efficiency in varied conditions. In: Proceedings of the 2024 international conference on advancement in renewable energy and intelligent systems (AREIS), Thrissur, India, 5–6 December 2024, pp.1–6. New York: IEEE.
104.
MerinaRDRamRSMichealLCP. FPGA implementation of intelligent battery management unit (i-BMU) based on dynamic power distribution technique for electric vehicles. Analog Integr Circuits Signal Process2025; 123(3): 42.
105.
Kumar MohantyPHemant Kumar ReddyKPanigrahySK, et al. Leveraging generative and explainable AI for electric vehicle energy toward sustainable, consumer-centric transportation. IEEE Access2024; 12: 143721–143732.
106.
DasRMishraSNSarkarS, et al. Performance modelling of pure electric three-wheelers on Indian roads for the development of range extension strategy. In: DeSRoyPC (eds) Proceedings of the international conference on mechanical engineering. Springer, 2024, pp.225–240.
107.
VishwarethaKVenkateshSMSequeiraWC, et al. Numerical design and modelling of a vertical axis wind turbine to extract wind energy from highways to power electric vehicle charging stations. AIP Conf Proc2020; 2311(1): 050019.
108.
JayapalanCHariharanTSGaneshL.Power supply to electric vehicle charging stations in India: justification of a framework for a dynamic and adaptive electricity tariff policy. Electr J2022; 35(10): 107219.
109.
LuthraSGargDHaleemA.Empirical analysis of green supply chain management practices in Indian automobile industry. J Inst Eng India Ser C2014; 95: 119–126.
110.
ChaiJQianZWangF, et al. Process innovation for green product in a closed loop supply chain with remanufacturing. Ann Oper Res2024; 333(2): 533–557.
111.
WangJLiuXChuH-J, et al. Centromere protein I (CENP-I) is upregulated in gastric cancer, predicts poor prognosis, and promotes tumor cell proliferation and migration. Technol Cancer Res Treat2021; 20: 15330338211045510.
112.
DodiaBParghiV.India’s electric vehicle transition: the role of finance. Towards Excellence2022; 14(2): 2109–2120.
113.
GuruprasaadhTSivaranjaniSRamyaK, et al. A statistical approach on opportunities and challenges in the EV-mobility for India. In: Proceedings of the 2021 Asian conference on innovation in technology (ASIANCON), Pune, India, 27–29 August 2021, pp.1–5. New York: IEEE.
114.
KalaSMishraA.Battery recycling opportunity and challenges in India. Mater Today Proc2021; 46: 1543–1556.
115.
WadhwaSKandaABhoonK.Impact of supply chain collaboration on customer service level and working capital. Glob J Flex Syst Manag2006; 7(1and2): 27–35.
116.
JaganiSMarsillacEHongP.The electric vehicle supply chain ecosystem: changing roles of automotive suppliers. Sustainability2024; 16(4): 1570.
117.
BhutaniSPrabakaranDGuptaN.Electrification of light commercial vehicles in urban areas. Transp Res Proc2025; 82: 2425–2443.
118.
SmithBAndrewsM. A cross supply chain collaborative approach to addressing the technical challenges of today’s electronics manufacturing industry. In: Proceedings of the 18th European microelectronics & packaging conference, Brighton, UK, 12–15 September 2011, pp.1–6. New York: IEEE.
119.
SultanFARoutroySThakurM.Evaluating sustainability of the surimi supply chain in India: a life cycle assessment approach. Int J Life Cycle Assess2021; 26(7): 1319–1337.
120.
RajeshRRaviVVenkata RaoR.Selection of risk mitigation strategy in electronic supply chains using grey theory and digraph-matrix approaches. Int J Prod Res2015; 53(1): 238–257.
121.
KamalahmadiMParastMM.An assessment of supply chain disruption mitigation strategies. Int J Prod Econ2017; 184: 210–230.
122.
NixonJDeyPGhoshS.Energy recovery from waste in India: an evidence-based analysis. Sustain Energy Technol Assess2017; 21: 23–32.
123.
HonnaliPKumarARaniD, et al. An exploratory study: assessing customer perceptions of electric vehicles in emerging markets. In: El KhouryR (ed.) Anticipating future business trends: navigating artificial intelligence innovations: volume 1. Springer, 2024, pp.345–355.
124.
VyasAMKushwahGS. Accelerating the shift to electric: a review of government purchasing incentives for E-vehicles. In: Proceedings of the 2023 IEEE renewable energy and sustainable E-mobility conference (RESEM), Bhopal, India, 17–18 May 2023, pp.1–6. New York: IEEE.
125.
MadhavediSHooWCPungNC, et al. Risk and return analysis of selected stocks in the Indian automobile industry on the national stock exchange. Edelweiss Appl Sci Technol2024; 8(6): 7063–7138.
126.
VermaARamanayyaTTrivediH, et al. Cost-effective analysis for electric vehicle (EV) bus procurement. In: MauryaAKMaitraBRastogiR, et al. (eds) Proceedings of the fifth international conference of transportation research group of India: 5th CTRG volume 2. Springer, 2022, pp.99–112.
127.
MaPMengYGongY, et al. Optimal models for sustainable supply chain finance: evidence from electric vehicle industry. Int J Prod Res2023; 61(15): 5075–5093.
128.
HossainRIslamMTShankerR, et al. Plastic waste management in India: challenges, opportunities, and roadmap for circular economy. Sustainability2022; 14(8): 4425.
