About Maxvolt Energy Industries Limited

Business Overview

MaxVolt Energy Industries, established in 2019, specializes in manufacturing lithium-ion batteries for electric vehicles (E-Scooters, E-Rickshaws, E-Cycles), energy storage, and electronic gadgets. Batteries are distributed through authorized dealers, distributors, and OEMs under the “MaxVolt Energy” brand. The company also supplies customized battery packs, graphene battery packs, and battery chargers.

As of September 30, 2024, service centers are operational in Uttar Pradesh, Delhi, Bihar, Madhya Pradesh, and Gujarat, ensuring efficient after-sales support. The current production capacity stands at 97.2 MWh, with plans for expansion through a new facility in Ghaziabad, Uttar Pradesh, including additional battery lines and recycling operations.

Operating in a market dominated by the unorganized sector, the company prioritizes quality, ensuring strict adherence to manufacturing standards, procurement controls, and regulatory compliance. As on September 30, 2024, the Company have employed 97 personnel (including workers) at our manufacturing facilities and registered office. The Banker to the Company is HDFC Bank Limited.

Industry Analysis

INDIAN MANUFACTURING INDUSTRY
Manufacturing is emerging as an integral pillar in the country’s economic growth, thanks to the performance of key sectors like automotive, engineering, chemicals, pharmaceuticals, and consumer durables. The Indian manufacturing industry generated 16-17% of India’s GDP pre-pandemic and is projected to be one of the fastest growing sectors.

The machine tool industry was literally the nuts and bolts of the manufacturing industry in India. Today, technology has stimulated innovation with digital transformation a key aspect in gaining an edge in this highly competitive market.

Technology has today encouraged creativity, with digital transformation being a critical element in gaining an advantage in this increasingly competitive industry. The Indian manufacturing sector is steadily moving toward more automated and process-driven manufacturing, which is projected to improve efficiency and enhance productivity.

India has the capacity to export goods worth US$ 1 trillion by 2030 and is on the road to becoming a major global manufacturing hub. With 17% of the nation’s GDP and over 27.3 million workers, the manufacturing sector plays a significant role in the Indian economy. Through the implementation of different programmes and policies, the Indian government hopes to have 25% of the economy’s output come from manufacturing by 2025.

India now has the physical and digital infrastructure to raise the share of the manufacturing sector in the economy and make a realistic bid to be an important player in global supply chains.

A globally competitive manufacturing sector is India's greatest potential to drive economic growth and job creation this decade. Due to factors like power growth, long-term employment prospects, and skill routes for millions of people, India has a significant potential to engage in international markets. Several factors contribute to their potential. First off, these value chains are well positioned to benefit from India's advantages in terms of raw materials, industrial expertise, and entrepreneurship.

Second, they can take advantage of four market opportunities: expanding exports, localising imports, internal demand, and contract manufacturing. With digital transformation being a crucial component in achieving an advantage in this fiercely competitive industry, technology has today sparked creativity. Manufacturing sector in India is gradually shifting to a more automated and process driven manufacturing which is expected to increase the efficiency and boost production of the manufacturing industry.

India is gradually progressing on the road to Industry 4.0 through the Government of India’s initiatives like the National Manufacturing Policy which aims to increase the share of manufacturing in GDP to 25 percent by 2025 and the PLI scheme for manufacturing which was launched in 2022 to develop the core manufacturing sector at par with global manufacturing standards.

India is planning to offer incentives of up to Rs. 18,000 crore (US$ 2.2 billion) to spur local manufacturing in six new sectors including chemicals, shipping containers, and inputs for vaccines. Manufacturing has emerged as one of the high growth sectors in India. Prime Minister of India, Mr Narendra Modi, launched the ‘Make in India’ program to place India on the world map as a manufacturing hub and give global recognition to the Indian economy. Government aimed to create 100 million new jobs in the sector by 2022.

Manufacturing exports have registered highest ever annual exports of US$ 447.46 billion with 6.03% growth during FY23 surpassing the previous year (FY22) record exports of US$ 422 billion. By 2030, Indian middle class is expected to have the second-largest share in global consumption at 17%.

India’s gross value added (GVA) at current prices was estimated at US$ 626.5 billion as per the quarterly estimates of the first quarter of FY22.

India has potential to become a global manufacturing hub and by 2030, it can add more than US$ 500 billion annually to the global economy. As per the economic survey reports, estimated employment in manufacturing sector in India was 5.7 crore in 2017-18, 6.12 crore in 2018-19 which was further increased to 6.24 crore in 2019-20. India's display panel market is estimated to grow from ~US$ 7 billion in 2021 to US$ 15 billion in 2025. As per the survey conducted by the Federation of Indian Chambers of Commerce and Industry (FICCI), capacity utilisation in India’s manufacturing sector stood at 72.0% in the second quarter of FY22, indicating significant recovery in the sector.

The manufacturing GVA at current prices was estimated at US$ 110.48 billion in the first quarter of FY24.

India is an attractive hub for foreign investments in the manufacturing sector. Several mobile phone, luxury and automobile brands, among others, have set up or are looking to establish their manufacturing bases in the country. The manufacturing sector of India has the potential to reach US$ 1 trillion by 2025. The implementation of the Goods and Services Tax (GST) will make India a common market with a GDP of US$ 3.4 trillion along with a population of 1.48 billion people, which will be a big draw for investors. The Indian Cellular and Electronics Association (ICEA) predicts that India has the potential to scale up its cumulative laptop and tablet manufacturing capacity to US$ 100 billion by 2025 through policy interventions.

One of the initiatives by the Government of India's Ministry for Heavy Industries & Public Enterprises is SAMARTH Udyog Bharat 4.0, or SAMARTH Advanced Manufacturing and Rapid Transformation Hubs. This is expected to increase competitiveness of the manufacturing sector in the capital goods market. With impetus on developing industrial corridors and smart cities, the Government aims to ensure holistic development of the nation. The corridors would further assist in integrating, monitoring and developing a conducive environment for the industrial development and will promote advance practices in manufacturing.

INDIAN ELECTRIC VEHICLE BATTERIES INDUSTRY
The global automotive industry is experiencing a major transformation. Vehicles fully powered by electric batteries comprise an increasing share of new vehicle purchases. Compared to internal combustion engine vehicles, battery electric vehicles run fully on electricity, not gasoline or diesel. Therefore, battery electric vehicles do not directly emit carbon dioxide, and if the batteries’ electricity source has low or no carbon dioxide emissions, increased electric vehicle adoption can lower carbon dioxide emissions in the transportation sector, helping countries meet climate-related goals. For example, in India, the carbon dioxide emissions of electric vehicles are 8 percent to 24 percent lower than internal combustion engine vehicles over their lifetimes. Transitioning to electric vehicles can also strengthen countries’ energy security by reducing import dependence on oil, and it can increase countries’ economic prosperity by creating new market opportunities. Thus, many countries, including India, are incentivizing electric vehicle adoption. However, the global manufacturing supply chain for the core part of electric vehicles — their batteries — is dominated by the People’s Republic of China. Given concerns of overdependence on China, many countries are seeking to shift their battery supply chains to other countries, including India. Across all segments of the battery supply chain, India’s production is presently negligible, but Indian companies have existing mineral production, processing expertise, battery cell investments, battery pack assembly capacity, and recycling experience. Specifically, India has the greatest production potential in certain raw materials, precursor materials, lithium-iron-phosphate (LFP) battery cells, battery packs for two-wheeled (scooters, motorbikes) and three-wheeled vehicles (rickshaws), and black mass (shredded end-of-life batteries). Consequently, India could help advance the global electric vehicle transition by producing certain goods in segments of the global battery supply chain. This analysis seeks to contextualize India’s present and potential role in the global supply chain for electric vehicle batteries. Considering India’s production potential in the battery supply chain, the paper concludes by recommending that India and the international community collaborate on trade, investment and financing, and research in the battery supply chain. Such efforts would further incorporate India into the global supply chain for electric vehicle batteries and thus support the global transition to electric vehicles.

Across the battery supply chain, India lacks notable production capacity, but it has existing production and significant growth potential in certain goods. For raw materials, India does not produce lithium, nickel, and cobalt, yet it produces other raw materials necessary in the battery supply chain like copper, graphite, and manganese. For precursor materials, India lacks processing capacity for several precursor materials such as lithium carbonate, but it has expertise producing other precursor materials such as aluminium, refined copper, and phosphoric acid. India also currently lacks production capacity in most cell components, yet Indian companies are building production capacity in cell components like anode material. Similarly, India does not have sizable production capacity for battery cells (i.e., less than 1 percent of global capacity), but Indian companies are building battery cell production facilities, with LFP chemistries estimated to represent 70 percent of India’s future battery production. Furthermore, India already assembles battery packs for different types of electric vehicles, and with high downstream demand for two-wheeled and three-wheeled electric vehicles and government subsidies for purchasing such vehicles, India has considerable production potential for battery packs in twowheeled and three-wheeled electric vehicles because downstream domestic demand incentivizes upstream domestic production. Lastly, like most countries, India lacks significant dedicated recycling capacity for electric vehicle batteries, but it does have a robust electronic waste recycling segment. In short, while India’s present role across the global battery supply chain is negligible, India could become a notable producer of certain goods in the global battery supply chain.

Despite its production potential in several segments of the battery supply chain, India faces three main challenges in increasing its production in these supply chain segments. First, India lacks reserves of nickel, cobalt, and lithium, which are high-cost raw materials in electric vehicle batteries. All battery chemistries require lithium, and NCM batteries require nickel and cobalt. Given the high cost of these raw materials, companies producing NCM batteries sometimes seek to vertically integrate into upstream mineral production to better control costs, such as by acquiring ownership stakes in raw materials projects. However, India’s lack of domestic reserves for these raw materials restricts vertical integration. Extensive exploration, which could take years, may be required before India’s resources can be qualified as reserves; even then, more years and capital will be required to convert the reserves into mined ore.

A major bottleneck in the battery supply chain is sourcing sufficient raw materials. So far, India’s lack of production in some minerals has not adversely impacted its battery supply chain given limited battery production and sufficient access to overseas raw materials. Yet, India’s access to sufficient raw materials may become a challenge as Indian battery production increases, other companies, especially Chinese companies, secure overseas mineral production, and geopolitical tensions intensify. If India is unable to secure sufficient raw materials domestically or overseas, the lack of these raw materials — especially lithium — may undermine production in downstream segments of the battery supply chain, such as cathode manufacturing.

Second, production facilities across the battery supply chain from mines to giga factories are capital-intensive, requiring hundreds of millions to billions of dollars in upfront capital investment. To illustrate the cost of raw material production facilities, China’s Zhejiang Huayou Cobalt bought a hard rock lithium mine in Zimbabwe for $422 million and built an accompanying $300 million concentrating facility that can process 4.5 million metric tons of lithium ore into lithium concentrate annually. Similarly, for precursor materials, Chilean company Sociedad Química y Minera (SQM) invested $140 million to build a lithium processing plant in China that can produce 30,000 metric tons of lithium hydroxide annually. Production facilities for cathode material and anode material are also costly. The Chinese electric vehicle company BYD announced its plan to build a $290 million cathode facility in Chile that can produce 50,000 metric tons of LFP cathode annually, and the Indian company Epsilon Advanced Materials intends to build a $650 million anode facility in the United States that can produce over 45,000 metric tons of anode material annually. Battery cell plants are generally the most expensive: Panasonic’s battery cell plant in Kansas will cost an estimated $4 billion and produce an estimated 30 GWh of battery cells annually. Battery pack assembly lines vary in cost depending on their capacity, ranging, for example, from $1.3 million to $160 million.

Adding to the capital challenges, upstream production facilities, like mines and processing facilities, can take several years to become revenue-producing assets. The global average timeline from deposit discovery to commercial mine production is 16 years. Mineral production then takes months or even years to ramp up to nameplate capacity. For instance, Western companies seeking to use an advanced processing method for nickel and cobalt took at least five years on average to ramp up to capacity. Many companies lack the capital to wait such a long time for their assets to generate revenue. Therefore, many companies prefer to buy battery cells and packs from overseas suppliers, instead of producing batteries themselves. Third, every supply chain step in the EV battery chain, from extraction to battery pack production, requires specialized expertise. Foreign companies and governments, namely China, have been investing in and developing production capabilities in the battery supply chain for decades. For instance, the Chinese company BYD, currently the world’s largest electric vehicle producer and second largest producer of electric vehicle batteries, was founded in 1995, and the Chinese government began prioritizing research and development in electric vehicle technology in its Five-Year Plan in 2001. In 2009, the Chinese government then started significantly subsidizing the industry, providing an estimated $29 billion in subsidies from 2009 to 2022. Therefore, developing expertise along the battery supply chain takes substantial capital and time. India’s companies and government will face challenges in quickly developing indigenous production in the battery supply chain. For example, Tata Motors sources its electric vehicle batteries from Tata Auto Comp Systems, which is a Tata joint venture with the Chinese company Guoxuan High-Tech. Major American automakers similarly rely on non-American companies for batteries and battery manufacturing technology. Also, demand is soaring for skilled labour in India’s electric vehicle industry, but India lacks sufficient labour with the necessary technical expertise. Skilled labour shortages can cause commissioning and ramp-up delays, and it is affecting battery manufacturers globally, even incumbent battery companies.

Business Strengths

1. Quality Assurance
Rigorous quality control processes ensure excellence at every stage of production. Lithium-ion battery integration is optimized for performance and durability, with proprietary techniques minimizing energy loss and enhancing thermal management. Accredited with ISO 9001:2015, the company maintains strict adherence to industry standards through in-house testing, raw material inspections, and final product checks, ensuring reliability and customer satisfaction.

2. Expansive Dealership Network
Products are distributed through a network of dealers, distributors, and OEMs. A structured business model fosters interdependent dealer relationships, ensuring efficient stock management and sales execution. An incentive-driven approach encourages dealer expansion, strengthening market presence.

3. Experienced Leadership
Led by promoters Bhuvneshwar Pal Singh, Vishal Gupta, and Sachin Gupta, the management team possesses extensive industry experience. Their strategic vision has driven operational growth and financial performance, ensuring adaptability to market trends, competition, and economic fluctuations.

4. Diverse Product Portfolio
A broad range of lithium-ion batteries is designed to meet the demands of multiple industries, including electric vehicles, energy storage, and electronic gadgets. Innovation and customer-centric development remain core to the product strategy.

5. State-of-the-Art Manufacturing Facility
The 18,000 sq. ft. manufacturing facility in Ghaziabad is equipped with advanced machinery, assembly units, and storage spaces. Holding an ISO 9001:2015 accreditation, the plant ensures efficient production, quality control, and customized product delivery. Located in a well-connected industrial hub, the facility benefits from skilled labor, seamless transportation, and access to essential infrastructure. With an installed capacity of 97.2 MWh as of September 30, 2024, operations are streamlined for large-scale production.

6. Resource Optimization
Continuous improvements in production processes, workforce training, and machinery modernization enhance efficiency. Data-driven policy evaluations help identify and resolve bottlenecks, ensuring optimal resource utilization.

7. Customized Product Development
Tailor-made battery solutions cater to specific industry requirements. A dedicated manufacturing team ensures precise customization through close customer collaboration, delivering specialized products for various applications

Business Strategies

1. Expansion of Manufacturing Capacities
Increasing production scale by enhancing manufacturing facilities and adopting advanced automation to improve efficiency, reduce fixed costs, and meet the growing demand in the EV sector.

2. Innovation and R&D Enhancement
Strengthening R&D capabilities to develop high-performance, energy-efficient, and eco-friendly battery models that align with evolving market demands.

3. Battery Recycling Initiative
Establishing a battery recycling facility to capitalize on the rising demand for re-usable EV batteries and contribute to sustainability.

4. Scalable Growth and Policy Support
Leveraging India's renewable energy policies to scale operations efficiently, access financial resources, and capitalize on emerging market opportunities.

5. Customer Base Expansion and Relationship Building
Strengthening long-term relationships with suppliers, customers, and employees while actively acquiring new customers through trade exhibitions and dealer meets.

6. Cost Reduction and Operational Efficiency
Enhancing cost-effectiveness by optimizing inventory, logistics, and distribution networks while utilizing existing infrastructure for business expansion.

7. Sales Volume Growth
Driving higher sales volumes and expanding the product portfolio to achieve targeted revenue growth and market penetration.

8. Debt-Equity Ratio Improvement
Reducing debt liabilities to enhance financial stability, secure future funding for expansion, and improve operational efficiency

Business Risk Factors and Concerns

1. Revenue Dependence on E-Scooter Batteries
A significant portion of revenue is derived from the sale of batteries used in e-scooters. Any negative market reception, changes in customer preferences, reduced subsidies, or increased competition may adversely impact business growth and profitability. The revenue composition may evolve with the addition of new customers, but sustained success depends on offering cost-effective and efficient solutions.

2. Geographical Concentration Risk
Operations are primarily concentrated in Delhi, Haryana, Madhya Pradesh, and Uttar Pradesh, making revenue vulnerable to economic, regulatory, and competitive challenges in these regions. Expansion into new markets may be hindered by differences in regulations, business practices, and competition from well-established local players, affecting overall business prospects and financial stability.

3. Safety Risks of Lithium-Ion Cells
Lithium-ion cells used in battery packs have inherent risks, including fire hazards and smoke venting, even under proper manufacturing and storage conditions. Past failures have not resulted in significant harm, but future incidents could lead to product recalls, litigation, or reputational damage. Additionally, safety issues at storage facilities or during transportation may disrupt operations. Negative public perception of lithium-ion batteries in EV applications could further impact brand credibility and financial performance.

4. Market Uncertainty in EV Adoption
The future growth of the business depends on the adoption rate of electric vehicles in India. Limited consumer awareness, concerns over resale value, advancements in alternative fuel technologies, high EV component costs, insurance premiums, charging infrastructure availability, and the fluctuation of government subsidies may slow EV adoption. Any delay or stagnation in market development could directly impact business expansion and financial outcomes.

Maxvolt Energy Industries faces key risks related to its revenue concentration in e-scooter batteries, limited geographical presence, safety concerns with lithium-ion cells, and uncertainty in EV market adoption. Dependence on a niche product, regional economic factors, potential safety incidents, and slow EV adoption could impact growth, profitability, and operational stability.