What is it about?

The article "Energy Efficiency in India's Iron and Steel Industry: A Firm-level Data Envelopment Analysis" by Ramphul Ohlan, published in Strategic Planning for Energy and the Environment (December 2018, Taylor & Francis), examines energy efficiency in India's iron and steel sector using firm-level data and Data Envelopment Analysis (DEA). Key Aspects of the Study: Objective: Evaluates the energy efficiency of Indian iron and steel firms to identify inefficiencies and potential improvements. Assesses how different firm characteristics (size, technology, ownership) influence energy performance. Methodology: Uses DEA, a non-parametric method, to measure technical efficiency and energy efficiency. Analyzes firm-level data from the Indian iron and steel industry, likely sourced from government or industry reports. Findings: Identifies significant variations in energy efficiency across firms. Larger firms or those with advanced technology tend to be more energy-efficient. Suggests policy measures to improve energy efficiency, such as technology upgrades and better energy management practices. Policy Implications: Recommends targeted interventions for less efficient firms. Highlights the role of government incentives in promoting energy-saving technologies. DOI & Access: DOI: 10.1080/10485236.2019.12043346 Available via Taylor & Francis Online (may require institutional access). This study contributes to understanding industrial energy efficiency in emerging economies, particularly in a critical sector like steel, which is energy-intensive and a major CO₂ emitter. Would you like help finding the full text or a summary of related studies? New chat

Featured Image

Why is it important?

The study on "Energy Efficiency in India's Iron and Steel Industry: A Firm-level Data Envelopment Analysis" by Ramphul Ohlan is important for several key reasons, particularly in the context of India's industrial growth, energy sustainability, and climate commitments. Here’s why: 1. Energy-Intensive Nature of the Iron and Steel Sector The iron and steel industry is one of the most energy-intensive sectors, accounting for ~20-25% of India’s industrial energy consumption (and ~7-10% of total CO₂ emissions). Improving energy efficiency directly reduces operational costs, fossil fuel dependency, and greenhouse gas emissions. 2. Economic Competitiveness & Cost Savings Inefficient energy use increases production costs, making Indian steel less competitive globally. The study identifies best-performing firms (via DEA) and benchmarks inefficiencies, helping lagging firms adopt better practices. Potential savings: Even a 10-15% efficiency gain could save millions of dollars annually. 3. Climate Change & India’s Emission Reduction Goals India has pledged to reduce emissions intensity of GDP by 45% by 2030 (vs. 2005 levels) under the Paris Agreement. Since steel is a major CO₂ emitter, improving energy efficiency is critical for meeting climate targets. 4. Policy Relevance & Regulatory Compliance India’s Perform, Achieve, and Trade (PAT) scheme (under the National Mission for Enhanced Energy Efficiency) mandates energy efficiency improvements in large industries, including steel. This study provides firm-level insights to refine policies, incentivize technology upgrades, and enforce compliance. 5. Technological & Operational Improvements The DEA analysis reveals gaps between firms, highlighting: Outdated vs. modern technologies (e.g., blast furnace vs. electric arc furnace). Scale advantages (larger firms tend to be more efficient). Ownership differences (private vs. public sector performance). Helps firms adopt best practices (e.g., waste heat recovery, process optimization). 6. Resource Security & Reduced Import Dependency India imports ~85% of its coking coal (a key steelmaking input). Energy efficiency reduces fuel consumption per ton of steel, lowering reliance on costly imports. 7. Academic & Industrial Contribution First firm-level DEA study on India’s steel sector, filling a research gap. Provides a quantitative framework for future studies on industrial efficiency. Conclusion The study is crucial for policymakers, steel manufacturers, and energy experts to drive sustainable industrial growth. By identifying inefficiencies and recommending corrective measures, it supports: Cost reduction for firms, Regulatory compliance, National energy security, and Global climate commitments.

Perspectives

Perspectives on Energy Efficiency in India’s Iron and Steel Industry Ramphul Ohlan’s study on energy efficiency in India’s iron and steel sector can be analyzed from multiple perspectives, each offering unique insights into its implications for industry, policy, and sustainability. Below are key perspectives: 1. Economic Perspective Key Focus: Cost savings, competitiveness, and industrial growth. Firm-Level Profitability: Energy-efficient firms have lower production costs, improving profit margins in a price-sensitive market. Global Competitiveness: Indian steel must compete with China, Japan, and South Korea—efficiency improvements can reduce costs and boost exports. Investment in Modernization: Highlights the need for capital-intensive upgrades (e.g., shifting from blast furnaces to electric arc furnaces). Challenges: High upfront costs for small and medium firms; access to financing remains a barrier. 2. Environmental & Climate Perspective Key Focus: Emissions reduction, sustainability, and regulatory compliance. CO₂ Mitigation: Steel contributes ~7-10% of India’s CO₂ emissions; efficiency cuts carbon footprint. Circular Economy Potential: Waste heat recovery, scrap-based steelmaking, and renewable energy integration. Regulatory Pressures: PAT (Perform, Achieve, Trade) scheme mandates efficiency; firms lagging behind face penalties. Challenges: Transitioning from coal-dependent processes (like BF-BOF) to greener alternatives (hydrogen-based DRI, renewables) is slow and costly. 3. Policy & Governance Perspective Key Focus: Government interventions, incentives, and industrial regulations. Policy Recommendations from the Study: Subsidies for Tech Upgrades: Support for energy-efficient furnaces, automation, and smart monitoring. Stricter Compliance: Strengthening PAT scheme enforcement with penalties/rewards. R&D Funding: Promoting indigenous innovation in clean steel technologies. State vs. Central Coordination: Some states (Odisha, Chhattisgarh) dominate steel production; tailored regional policies may be needed. Challenges: Bureaucratic delays, lobbying by inefficient firms, and lack of uniform standards. 4. Technological & Innovation Perspective Key Focus: Emerging technologies, digitalization, and efficiency gains. Best Practices Identified: Waste Heat Recovery (using exhaust gases for power generation). Industry 4.0 Integration (AI-based energy monitoring, predictive maintenance). Alternative Ironmaking: Hydrogen-based direct reduction (still nascent in India). Role of Startups & Collaborations: Partnerships with tech firms for IoT-driven energy management. Challenges: High R&D costs, skill gaps in workforce, and resistance to change in traditional firms. 5. Social & Labor Perspective Key Focus: Employment, skill development, and just transition. Job Implications: Automation may reduce low-skilled jobs but create high-skilled roles in energy management. Training Needs: Upskilling workers for advanced processes (e.g., electric arc furnace operations). Equity Concerns: MSMEs (Micro, Small, and Medium Enterprises) may struggle to adapt, risking closures and job losses. Challenges: Labor unions resisting automation; need for social safety nets during transition. 6. Global & Trade Perspective Key Focus: International standards, export pressures, and carbon tariffs. CBAM (EU’s Carbon Border Adjustment Mechanism): Inefficient Indian steel could face tariffs, hurting exports. Green Steel Demand: Global markets (Europe, USA) prefer low-carbon steel; Indian firms must adapt to stay competitive. Foreign Collaboration: Joint ventures with tech leaders (e.g., Japan’s ENERGY STAR partnerships). Challenges: High compliance costs for small exporters; need for bilateral green steel agreements. 7. Academic & Research Perspective Key Focus: Methodological contributions and future research directions. DEA as a Tool: Demonstrates how firm-level efficiency benchmarking can guide policy. Data Limitations: Reliance on self-reported data may understate inefficiencies. Future Research Areas: Longitudinal studies tracking efficiency trends post-PAT scheme. Comparative analysis with other emerging economies (China, Brazil). Synthesis of Perspectives Perspective Key Insight Policy/Industry Action Needed Economic Efficiency = Cost Savings Subsidies for MSME modernization Environmental Steel = Major CO₂ Source Stricter PAT enforcement + green hydrogen push Technological Digitalization = Efficiency Gains R&D grants for clean steel tech Social Automation = Job Shifts Reskilling programs for workers Global Trade CBAM = Export Risk Fast-tracking green steel certifications Conclusion: Why Multiple Perspectives Matter Ohlan’s study is not just about energy efficiency metrics—it intersects with economics, climate policy, labor dynamics, and global trade. A holistic approach is needed where: Policymakers balance regulation with incentives. Industries invest in long-term efficiency gains. Researchers explore socio-technical transitions.

Prof. Ramphul Ohlan
Maharshi Dayanand University

Read the Original

This page is a summary of: Energy Efficiency in India's Iron and Steel Industry: A Firm-level Data Envelopment Analysis, Strategic Planning for Energy and the Environment, December 2018, Taylor & Francis,
DOI: 10.1080/10485236.2019.12043346.
You can read the full text:

Read

Contributors

The following have contributed to this page