MPM4005 Minor Corporate Study - Initiation of a Project

ASSESSMENT 1

Leh-Ladakh Battery Energy Storage System (BESS)

Lecturer: Rehena Sulthana Mohammed Iqbal

Student: Constanza Pedruzzi (239774) Riddhiben Nirmalkumar Panchal (239980) Sahil Shaileshkumar Patel (23860)

Date of submission: 21/05/2026

Semester 1, Block 3 2026

Team Responsibility Table

2. Table of Contents

Auto-generated in Word.

Should include:

• Headings
• Subheadings
• Page numbers

1. Introduction

The Leh-Ladakh Battery Energy Storage System (BESS) is a key clean energy infrastructure developed by the Solar Energy Corporation of India (SECI), that belongs to the Ministry of New and Renewable Energy (MNRE). The project is located in Leh, in the Ladakh region. This region in the north of India has high mountains and extreme weather, especially in winter, when the temperatures can reach -20 degrees. Due to the complexity of this geography, the electric network is not connected with the Indian National network, 'Ladakh's unique geographical and climatic conditions pose challenges to its energy infrastructure and environmental sustainability' (Rahim & Sharma 2024). The project is urgent for the development of the region for several reasons, 'recent studies indicate warming environment, shift in precipitation patterns, decreasing glacial run‐off, increase in extreme events, and irreversible negative impacts with devastating environmental, ecological, hydrological, and societal consequences in the region' (Bhutiyani et al., 2010; Chevuturi et al., 2018; Masson & Nair, 2012 cited in Datey 2021). The main concern is the need for heating systems during the extreme winters, because those are based in diesel, that is highly contaminant and extremely expensive due to the logistic complexity of transporting it. As India's renewable energy plan demands to add 500 GW of clean energy by 2030, this project analyses the importance of the Battery Energy Storage System (BESS), 'since solar and wind power supply fluctuates, energy storage systems (ESS) play a crucial role in smoothening out this intermittency and enabling a continuous supply of energy when needed' (Gulia, Sharma, Garg & Konda 2023). This case explains the project to create a microgrid that will provide clean and stable power, with the objective of providing 'clean energy that could build climate resilience among these communities and improve livelihood opportunities in a sustainable manner' (Adhikari, 2025).

4. Business Case

Figure 1: Leh urban region and its geographical setting Source: Datey, Bali, Bhatia, Khamrang & Kim 2021

4.1 Project Problem

The Leh-Ladakh Battery Energy Storage System (BESS) project is urgent for the development of the region due to several logistic, financial and environmental issues that affect the wellbeing of the Leh-Ladakh communities.

• Logistic complexity and financial cost of diesel: Leh-Ladakh is disconnected from the national power grid because of the geographic conditions and low population density, that 'underscores the logistical challenges associated with energy infrastructure development and service delivery' (Rahim & Sharma 2024). 'It is not financially viable to invest in transmission lines that need to cross rugged mountain passes when population numbers in mountainous communities are relatively small. Communities rely on fossil fuel, including diesel-based generator sets for lighting needs.' (Adhikari 2025). The community needs to buy millions of liters of diesel per year; that must travel big distances in dangerous mountain roads that are at risk of collapse. This creates a huge operative expenditure due to the high costs of fuel, storage risks, and transport costs.

Table 1: Ladakh Essential Data and Numerical Details — Source: (Rahim & Sharma 2024) Table 2: Numerical data for Kargil and Leh — Source: (Rahim & Sharma 2024)

• Power instability: The limited power grid suffers blackout, voltage drops and generators failure, especially in high-demand periods as winter. This situation affects the wellbeing of the community due to the lack of key services and infrastructure. It also impacts the economic growth of the region because there is a lack of trust in the power grid, that endangers the sustainability of small businesses that have the potential to grow due to the increment of tourism in the region (Datey 2021). As is explained by Marqusee, Becker & Ericson (2021), a 'hybrid microgrid (which utilizes a combination of solar power, battery energy storage, and networked emergency diesel generators) can offer a more cost-effective and resilient solution than diesel-only microgrids that rely only on a network of emergency diesel generators.'
• Social and climatic vulnerability: The constant usage of diesel 'emit greenhouse gases (GHGs), harmful fumes of carbon monoxide, particulate matter and sulphur dioxide, contributing to changes in climate and threatening people's health' (Adhikari 2025) impacting a fragile ecosystem that is vulnerable to global warming. According to Rahim & Sharma (2024) 'initiatives aimed at mitigating climate change impacts, such as afforestation, watershed management, and glacier monitoring, are essential for preserving Ladakh's fragile ecosystems and ensuring long-term sustainability'. These environmental issues and the lack of affordable power sources impact the local community, especially to the most vulnerable sectors, as women. A big percentage of them work independently in informal sectors, and 'climate change further threatens their already endangered livelihoods based around vending and home‐based work' (Datey 2021). This author explains the difficulty of developing their activities during the extreme winter season and the impact on their health. Moreover, Datey (2021) remarks on the potential of incorporating automatized machinery to impulse the local economy, but it would be impossible without an energy plan for the region.

4.2 Proposed Solution

The project proposes a solution creating a hybrid microgrid that uses local energy sources to provide clean and stable energy during the whole day, a Round-the-clock (RTC) system (Gulia, Sharma, Garg & Konda 2023). The key components of this infrastructure are:

• Utility-scale Solar Photovoltaic Panels: It captures solar energy and transforms it in electricity in a clean process.
• Battery Energy Storage System (BESS): System to storage advanced Lithium-ion batteries that contain the energy produced until it is necessary to use it.

During the day, solar panels seize the strong solar radiance of the Ladakh region to produce clean electric energy. This power is conducted to the BESS, where the energy produced during the day is stored and released continuously when it is demanded by the users. The consumption of this energy will focus during night hours, when temperature is lower, and lighting and heating systems are necessary. The system is managed by an automatic grid controller, a smart high-fidelity system that balances the stability and quality of the power supply throughout the whole day. (Synergy 2026)

Image 2: Battery Energy Storage System (BESS) — Source: Synergy 2026

4.3 Business Justification

The construction of BESS is part of India's national plan to incorporate renewable energy, to reduce dependence on imported fuel, reduce logistic operations to transport it and protect the environment. 'According to the Central Electricity Authority (CEA) optimal generation mix report, India will need at least 41.7GW/208.3 gigawatt-hour (GWh) of BESS and 18.9GW of PHS in the fiscal year (FY) 2029-30.' (Gulia, Sharma, Garg & Konda 2023).

Image 3: Indian ESS Market Snapshot — Source: Gulia, Sharma, Garg & Konda 2023

As part of this initiative, the Solar Energy Corporation of India has developed several projects, including 'a 10 MW solar PV plant in Rajasthan's harsh desert environment and a 1.7 MW solar project integrated with Battery Energy Storage Systems (BESS) across the remote islands of Lakshadweep—an important step toward decentralized, clean energy access' (SECI 2024). This technology is the best alternative for Leh-Ladakh considering the remote location and extreme winter. As explained by Santra (2016) 'Supplying power to isolated remote areas specifically during winter season is a formidable challenge, and it is virtually impossible to do so by the use of transmission lines from a centralised grid, which is neither a technically feasible nor an economically viable option'. BESS 'can withstand heavy snowfall and can be restored quickly after an extreme weather event because they require low maintenance and minimal technical know-how' (Adhikari 2025).

Image 4: Average hourly variation of temperature in a year at Leh — Source: Santra 2016

It is also important to consider that Leh-Ladakh presents ideal conditions to seize solar energy, because 'the cold arid region of the country located at Leh and Ladakh receives the highest amount of radiation, which is about 7-7.5 kWh m/day' (Santra 2016).

Image 5: India solar resource — Source: Santra 2016 Image 6: Availability of solar radiation in Leh — Source: Santra 2016

4.4 Expected Benefits

(Section to be completed)

4.5 Risk Overview

In alignment with the practices suggested in the PMBOK (PMI 2007) the following risks have been early identified:

(Table to be completed)

4.6 Conclusion

The Leh-Ladakh Battery Energy Storage System (BESS) is a necessary project for the development of the region. The dependence on an instable power grid based in diesel affects the community wellbeing, the economic growth of the region and impacts the fragile environment. Implementing a clean and reliable power infrastructure to deliver economic, social, and environmental value. Moreover, it is aligned with the national policies about renewable energy, and the criteria of the project government sponsors for the sustainable development of the Ladakh region.

5. Project Charter

5.1 Project Title: Leh-Ladakh Battery Energy Storage System (BESS)

5.2 Project Purpose

Sunlight powers most of this effort now instead of fuel trucks climbing mountain roads. Electricity flows steady through batteries charged by solar panels near Leh. Heavy reliance on noisy generators fades as quiet technology takes hold across Ladakh. Stored energy waits ready when clouds cover the high desert sky. Panels stretch wide in open fields where winds howl at night. Fuel shipments shrink once charging cycles sync with daylight hours. Power runs buildings without fumes filling cold air. Remote villages feel less cut off each season. Renewables work even under snow if designed right.

Stability in power supply shows up first in village clinics, then classrooms. Electricity arrives quietly, changing how homes function each evening after dark. Remote areas begin using cleaner methods because outdated systems fade out slowly. Lives shift when medical centres keep medicines cool without interruption. Tourist spots light up without relying on old fuel generators anymore.

Schools run devices steadily, helping lessons move faster than before. Businesses stay open later once reliable current flows into shops. Emissions drop as solar setups replace dirtier options across rugged terrain. Health improves while nights grow safer under steady bulbs. Clean energy takes root where it was hardest to reach just years ago.

5.3 Objectives

The main objectives of the project are:

• To provide reliable and continuous electricity supply in Leh Ladakh
• To reduce diesel fuel dependency by integrating renewable energy systems.
• To decrease carbon emissions and environmental pollution.
• To improve energy accessibility for local communities.
• India aims to grow its clean power efforts, so new projects help meet that target while cutting pollution at the same time.
• To achieve efficient energy storage and distribution through Battery Energy Storage Systems.
• Finishing the work without going over the planned time or money.

Measurable Objectives

• Most fuel generators ran less after twelve months – down by seventy percent. A single year cut diesel reliance sharply through smarter energy choices.
• Achieve 95% system uptime after implementation.
• Reach 100% electricity coverage for targeted communities.
• Maintain project completion within approved budget limits.

5.4 Scope

In Scope:

• Design and installation of Solar PV systems.
• Setting up battery storage units begins with buying the needed parts.
• Development of renewable energy microgrid infrastructure.
• Site preparation and construction activities.
• System testing and commissioning.
• Environmental compliance and monitoring.
• Training for operations and maintenance teams.
• Sharing updates with those involved.
• Community awareness programs regarding renewable energy systems.

Out of Scope:

• Expansion of national electricity grid infrastructure outside Leh-Ladakh.
• Residential electrical wiring inside private properties.
• Future renewable energy projects unrelated to the SECI microgrid project.
• Commercial energy trading activities.
• Long-term infrastructure development unrelated to renewable energy systems.

5.5 Deliverables

The major project deliverables include:

• Solar photovoltaic power generation system
• Battery energy storage system
• Operational electricity distribution system.
• Technical testing and commissioning reports.
• Environmental compliance reports.
• Risk management documentation.
• Stakeholder communication reports.
• Workforce training and maintenance manuals.
• Final project completion report.

5.6 Stakeholders

5.7 Budget Overview

• Solar PV system procurement.
• Battery Energy Storage System installation.
• Transportation and logistics.
• Construction and infrastructure development.
• Technical workforce costs.
• Environmental management and compliance.
• Maintenance training programs.
• Risk contingency reserves.

Funding Assumptions:

• Solar Energy Corporation of India
• Government renewable energy initiatives
• Funded projects emerge through government-led green initiatives and private clean energy capital streams.

5.8 Timeline / Milestones

Major Milestones:

• Project approval completed.
• Funding confirmed.
• Equipment procurement completed.
• Solar PV and BESS installation completed.
• Testing of the system finished without issues.
• Handover complete.

5.9 Assumptions

• Timely delivery of government clearances is expected.
• Renewable energy policies will remain supportive.
• Funding will be available at every stage of the work.
• Weather conditions will allow construction activities.
• Timely delivery of equipment.
• Community support for the project.
• Skilled technical workforce will be available.

5.10 Constraints

• Harsh climatic conditions in Leh-Ladakh.
• Remote location making logistics and goods transport challenging.
• Limited local infrastructure support.
• Budget and funding constraints.
• Environmental compliance requirements.
• Technical integration challenges for renewable energy systems.
• Possible delays in government approvals.

5.11 High-Level Risks

5.12 Success Criteria

• Reliable electricity supply is provided to targeted communities.
• Renewable energy systems maintain high operational uptime.
• Significant reduction in fossil fuel dependency.
• Finished on time and within the budget set at start.
• Environmental compliance requirements are achieved.
• Community and stakeholder satisfaction rating above 85%.
• Sustainable environmental balance targets are met.

5.13 Approval Section

6. Stakeholder Register

6.1 Introduction

Stakeholder management is an important aspect of project management as it affects the planning, implementation, decision making, and the success of the project. A stakeholder is an individual, organisation or group who can impact, or be impacted by, the project products. By effectively managing stakeholders the following project management issues are addressed: Stakeholder expectations are identified, communicated, risks are minimised, and collaboration is enhanced throughout the project life cycle (Project Management Institute 2021).

However, managing these stakeholders is extremely critical for the SECI Leh-Ladakh Battery Energy Storage System (BESS) Microgrid Project because of its scale of renewable energy infrastructure, remote geographical location, environmental sensitivity and its involvement of multiple government and community groups. The project impacts local communities, government agencies, contractors/suppliers, environmental authorities, technical teams, and investors. Thus, stakeholder identification and engagement are crucial for the successful implementation of a project and sustainable operations (Kerzner 2022).

The aim of this stakeholder register is to identify the key stakeholders who are involved in the project, analyse how much they are interested and influenced, what they expect from the project, and determine the risk associated with stakeholders and effective ways to communicate and engage with them.

6.2 Stakeholder Identification

The SECI Leh-Ladakh BESS Microgrid Project includes both internal and external stakeholders that participate at various stages of the project planning, implementation, monitoring and operation.

Table X: Stakeholder Identification Table

6.3 Stakeholder Analysis

6.3.1 Solar Energy Corporation of India (SECI)

SECI is the main project sponsor and also contributes significantly to the funding, monitoring and supporting the renewable energy project.

Expectations: On time and on budget project completion; Meeting renewable energy goals; A decrease in fossil fuel consumption; Positive environmental outcomes.

Risks: Budget overruns; Problems of project implementation; Technical performance issues.

Management Strategy: Monthly progress reporting; Financial performance reviews; Regular stakeholder meetings; Ongoing tracking of key project dates.

6.3.2 Government of India

The project is supported by several renewable energy policies, regulatory approvals and financial support from the Government of India (Ministry of New and Renewable Energy 2023).

Expectations: A decrease in Greenhouse Gases; Sustainable regional development; Increased generation of renewable energy; Compliance with national energy policies.

Risks: Policy changes; Delays in approvals; Funding allocation issues.

Management Strategy: Regulatory compliance reporting; Government consultation meetings; Clear documentation and explanation.

6.3.3 Local Communities

The project benefits the local communities directly as they will have access to better electricity supply and reliability (World Bank 2022).

Expectations: Secure, affordable power service; Enhanced well-being; Minimal environmental disruption; Employment opportunities.

Risks: Community opposition; Land use impacts; Lack of knowledge of renewable energy systems.

Management Strategy: Community consultation programs; Public awareness campaigns; Effective feedback and grievance system; Regular communication meetings.

6.3.4 Engineering and Technical Team

Expectations: Availability of technical resources; Clear technical specifications; Safe working conditions; Effective project coordination.

Risks: Technical failures; Harsh weather affecting installation; Equipment integration challenges.

Management Strategy: Weekly technical meetings; Quality assurance procedures; Safety management systems; Continuous technical monitoring.

6.4 Stakeholder Communication Plan

Table X: Communication Plan Table

6.5 Power-Interest Matrix

High Power – High Interest (Closely monitor):

• Solar Energy Corporation of India (SECI)
• Government of India
• Project Manager

High Power – Low Interest (Keep satisfied):

• Environmental Agencies
• Investors and Funding Agencies

Low Power – High Interest (Keep informed):

• Local Communities
• Tourism and Business Sector

Low Power – Low Interest (Monitor):

• General public
• External observers

Figure X: Power Interest Matrix

6.6 Stakeholder Engagement Strategies

• Consultation Strategy: Regular meetings with local communities and government before making key decisions.
• Collaboration Strategy: Regular engineering team and supplier meetings via project management systems.
• Communication Strategy: Regular sharing of project updates, financial, technical, and environmental compliance reports.
• Conflict Management Strategy: Negotiation, stakeholder meetings, and formal grievance procedures.

6.7 Stakeholder-Related Risks

Table X: Stakeholder Related Risks

6.8 Conclusion

Stakeholder Register created for the SECI Leh-Ladakh Battery Energy Storage System (BESS) Microgrid Project documents the key stakeholders and their impact, expectations, communication needs and associated threats. By employing the right strategies in communication planning, stakeholder engagement, and risk management, the project team can enhance collaboration, minimize conflicts, and ensure the successful implementation of the renewable energy microgrid project.

7. Balanced Scorecard (~1000 words) — 25%

7.1 Introduction

A Balanced Score Card (BSC) is a framework of strategic performance management for the assessment of project performance from various perspectives. The Balanced Scorecard approach uses four perspectives: financial, customer/stakeholder, internal business processes, and learning and growth (Kaplan & Norton 1996).

The four perspectives for this project:

• Financial Perspective
• Customer and Community Perspective
• Internal Process Perspective
• Learning and Growth Perspective

7.2 Financial Perspective

Financial Objectives:

• Reduce long-term electricity generation costs
• Minimise diesel fuel transportation expenses
• Improve operational efficiency
• Maintain project budget control
• Improve long-term return on investment

(Financial Perspective Table – to be added)

7.3 Customer & Community Perspective

Customer and Community Objectives:

• Improve electricity reliability
• Increase community satisfaction
• Improve energy accessibility
• Support local business development
• Increase awareness of renewable energy systems

Table x: Customer and Community Perspective Table

7.4 Internal Process Perspective

Internal Process Objectives:

• Improve system reliability and performance
• Maintain quality operational standards
• Improve maintenance efficiency
• Ensure safety compliance
• Maintain environmental compliance

Table x: Internal Process Perspective Table

7.5 Learning and Growth Perspective

Learning and Growth Objectives:

• Improve workforce technical skills
• Increase employee competency
• Promote renewable energy innovation
• Encourage continuous improvement
• Improve employee satisfaction

Table x: Learning and Growth Perspective Table

7.6 Overall Balanced Scorecard Evaluation

The Balanced Scorecard offers an overarching approach to assess the SECI Leh-Ladakh BESS Microgrid Project's performance. The project team can effectively monitor the progress of the project and pinpoint opportunities for improvement by analysing financial performance, community satisfaction, operational efficiency, and workforce development.

7.7 Conclusion

The Balanced Scorecard (BSC) for the SECI Leh-Ladakh Battery Energy Storage System (BESS) Microgrid Project offers a systematic and strategic framework to measure project performance. By conducting regular performance assessments and enhancements, the project has the potential to successfully meet its goals of reliable renewable energy, community development, environmental impact, and India's renewable energy goals.

8. Conclusion (200–300 words)

Final summary of:

• Project importance
• Renewable energy impact
• Stakeholder importance
• Strategic value
• Sustainability contribution

9. References

Adhikari, A 2025, Empowering Himalayan communities: Solar micro-grids for enhanced resilience in Ladakh, India, April.

Bourne, L 2016, Stakeholder relationship management: A maturity model for organisational implementation, 2nd edn, Gower Publishing, Surrey.

Datey, A, Bali, B, Bhatia, N, Khamrang, L & Kim, SM 2021, 'A gendered lens for building climate resilience: Narratives from women in informal work in Leh, Ladakh', Gender, Work & Organization, vol. 30, Wiley, no. 1, pp. 158–176.

Gulia, J, Sharma, P, Garg, V & Konda, C 2023, Energy Storage: Connecting India to Clean Power on Demand 2, December.

Kaplan, RS & Norton, DP 1996, The balanced scorecard: Translating strategy into action, Harvard Business School Press, Boston.

Kerzner, H 2022, Project management: A systems approach to planning, scheduling, and controlling, 13th edn, Wiley, Hoboken.

Marqusee, J, Becker, W & Ericson, S 2021, 'Resilience and economics of microgrids with PV, battery storage, and networked diesel generators', Advances in Applied Energy, vol. 3, Elsevier BV.

Ministry of New and Renewable Energy 2023, National renewable energy policies and initiatives, Government of India, viewed 16 May 2026, https://mnre.gov.in/.

Project Management Institute 2021, A guide to the project management body of knowledge (PMBOK® Guide), 7th edn, Project Management Institute, Pennsylvania.

Rahim, A & Sharma, N 2024, 'Energy dynamics and sustainability in Ladakh: A comprehensive analysis of renewable resources, consumption patterns, and future strategies', International Journal of Advances in Electrical Engineering, vol. 5, AkiNik Publications, no. 1, pp. 104–109.

Santra, P 2016, 'Scope of Solar Energy in Cold Arid Region of India at Leh Ladakh', Annals of Arid Zone, vol. 54, no. 3-4.

Solar Energy Corporation of India (SECI) 2020, Own Projects, Seci.co.in, viewed 14 May 2026, https://www.seci.co.in/own-projects

Solar Energy Corporation of India (SECI) 2024, Solar Energy Corporation of India projects and renewable energy initiatives, viewed 16 May 2026, https://www.seci.co.in/.

Synergy 2026, What is a BESS?, synergy.net.au, viewed 14 May 2026, https://www.synergy.net.au/Blog/2025/09/What-is-a-BESS

World Bank 2022, Renewable energy development in remote communities, World Bank Group, Washington DC, viewed 16 May 2026, https://www.worldbank.org/.
Note: This report is provided as a sample for reference purposes only. For further guidance, detailed solutions, or personalized assignment support, please contact us directly.

Sample Solution

MPM4005 Minor Corporate Study – Initiation of a Project

Leh-Ladakh Battery Energy Storage System (BESS)

Executive Summary

The Leh-Ladakh Battery Energy Storage System (BESS) project is a strategic renewable energy initiative developed by the Solar Energy Corporation of India under the Ministry of New and Renewable Energy (MNRE). The project aims to address the region’s severe energy challenges caused by geographical isolation, harsh climatic conditions, and dependence on diesel-based electricity generation.

Leh-Ladakh remains disconnected from India’s national electricity grid due to difficult mountainous terrain and extreme winter temperatures. As a result, local communities rely heavily on diesel generators that are expensive, environmentally damaging, and unreliable during heavy snowfall and transport disruptions. The implementation of a Solar Photovoltaic (PV) and Battery Energy Storage System (BESS) microgrid offers a sustainable and reliable alternative energy solution for the region.

The proposed system combines utility-scale solar panels with lithium-ion battery storage technology to ensure round-the-clock electricity supply. Solar energy generated during daytime will be stored in battery systems and distributed during peak demand hours, especially during cold winter nights. The project supports India’s renewable energy transition goals while reducing greenhouse gas emissions and operational fuel costs.

The study evaluates the project through business case analysis, project charter development, stakeholder management, and Balanced Scorecard performance measurement. Key stakeholders include government agencies, local communities, engineers, contractors, environmental authorities, and investors. Effective communication and stakeholder engagement strategies are essential for project success.

The project is expected to generate long-term environmental, social, and economic benefits including improved energy reliability, reduced diesel dependency, lower carbon emissions, better healthcare and educational services, and stronger local economic development. Overall, the Leh-Ladakh BESS project represents a transformative clean energy initiative that enhances sustainability, climate resilience, and regional development in one of India’s most environmentally sensitive areas.

1. Introduction

The Leh-Ladakh Battery Energy Storage System (BESS) project is a clean energy infrastructure initiative designed to improve electricity reliability and sustainability in the remote Himalayan region of Ladakh, India. The project is sponsored by the Solar Energy Corporation of India and aligns with India’s national renewable energy mission to achieve cleaner and more sustainable power generation.

Ladakh experiences severe geographical and climatic challenges due to its mountainous terrain, isolated settlements, and temperatures that fall below -20°C during winter. Because the region is disconnected from the national electricity grid, local communities rely heavily on diesel-powered generators for electricity supply. However, diesel transportation through dangerous mountain roads increases operational costs and environmental pollution while also creating risks of supply disruptions.

To overcome these challenges, the project proposes the development of a hybrid renewable energy microgrid that combines Solar Photovoltaic (PV) systems with Battery Energy Storage Systems (BESS). This renewable infrastructure will store excess solar energy generated during daytime and provide continuous electricity during nighttime and peak demand periods.

The project contributes significantly to India’s environmental sustainability objectives by reducing carbon emissions and fossil fuel dependency. In addition, the initiative aims to improve community well-being, healthcare services, tourism development, business opportunities, and long-term climate resilience across the Ladakh region.

2. Business Case

2.1 Project Problem

The existing electricity infrastructure in Leh-Ladakh suffers from major operational, financial, and environmental limitations.

Key Challenges

• Heavy dependence on diesel generators
• Unstable electricity supply during winter
• High fuel transportation costs
• Environmental pollution and greenhouse gas emissions
• Limited support for economic growth and tourism
• Frequent power outages and voltage fluctuations

The region’s harsh geography makes grid extension economically unfeasible. Diesel fuel must be transported through dangerous mountain roads, increasing logistics risks and operational expenses. Additionally, diesel generators contribute significantly to air pollution and environmental degradation in the fragile Himalayan ecosystem.

2.2 Proposed Solution

The project proposes a hybrid microgrid system that integrates:

• Utility-scale Solar PV panels
• Battery Energy Storage System (BESS)
• Smart grid control technology
• Renewable energy distribution infrastructure

During daytime, solar panels generate electricity using Ladakh’s high solar radiation levels. Excess energy is stored in lithium-ion batteries and later supplied during nighttime or periods of peak demand. Smart grid controllers ensure stable electricity distribution and efficient energy management.

2.3 Business Justification

The project supports India’s renewable energy strategy and contributes to national sustainability goals. The BESS project offers several advantages:

Environmental Benefits

• Reduction in greenhouse gas emissions
• Improved air quality
• Protection of fragile mountain ecosystems

Economic Benefits

• Lower fuel transportation costs
• Reduced operational expenditure
• Growth of tourism and local businesses

Social Benefits

• Reliable electricity for healthcare and education
• Improved quality of life
• Increased employment opportunities

The project is strategically important because Ladakh receives some of the highest solar radiation levels in India, making solar energy highly efficient in the region.

3. Expected Benefits

4. Risk Overview

5. Project Charter

Project Title

Leh-Ladakh Battery Energy Storage System (BESS)

Project Purpose

The project aims to provide clean, stable, and sustainable electricity to remote communities in Leh-Ladakh using renewable energy technologies.

Project Objectives

• Provide continuous electricity supply
• Reduce diesel dependency by 70%
• Achieve 95% system uptime
• Improve energy accessibility
• Reduce environmental pollution

Scope

In Scope

• Solar PV installation
• Battery storage deployment
• Site construction activities
• Technical testing and commissioning
• Workforce training

Out of Scope

• National grid expansion
• Residential wiring
• Unrelated renewable projects

6. Stakeholder Register

7. Balanced Scorecard

Financial Perspective

Customer & Community Perspective

Internal Process Perspective

Learning & Growth Perspective

8. Conclusion

The Leh-Ladakh Battery Energy Storage System (BESS) project is a transformative renewable energy initiative that addresses critical energy, environmental, and economic challenges in one of India’s most geographically isolated regions. By integrating solar energy with advanced battery storage technology, the project provides a sustainable solution to reduce dependence on diesel generators and improve electricity reliability.

The project delivers significant environmental benefits through reduced carbon emissions and protection of fragile Himalayan ecosystems. Economically, it supports tourism, local businesses, and regional development by ensuring stable energy infrastructure. Socially, reliable electricity improves healthcare services, education, safety, and overall quality of life for local communities.

Effective stakeholder management, strategic planning, and performance measurement through the Balanced Scorecard framework ensure that the project remains aligned with national renewable energy objectives and long-term sustainability goals.

Overall, the Leh-Ladakh BESS project demonstrates how clean energy innovation can support climate resilience, sustainable development, and community empowerment in remote and environmentally sensitive regions.