
- •Foreword
- •Table of contents
- •1. Executive summary
- •India is making great strides towards affordable, secure and cleaner energy
- •Major energy reforms lead to greater efficiency
- •India is making energy security a priority
- •Significant progress in sustainable development
- •Energy technology and innovation enables “Make in India”
- •Key recommendations
- •2. General energy policy
- •Country overview
- •Major energy supply and demand trends
- •Energy consumption
- •Primary energy supply
- •Energy production and self-sufficiency
- •Political system and energy sector governance
- •Electricity sector
- •Coal sector
- •Oil and natural gas sectors
- •Climate and environment
- •Other ministries
- •Governance of public companies in the energy sector
- •Economy and the energy sector
- •Financial health of the power sector
- •Energy and climate policy
- •Energy taxation and subsidies
- •Goods and Services Tax
- •Subsidies
- •Electricity access
- •Clean cooking
- •The way towards a national energy policy
- •Energy data and statistics in India
- •Assessment
- •A co-ordinated national energy policy
- •Access to electricity and clean cooking
- •Economic efficiency
- •Energy security
- •Sustainability
- •Energy data and statistics
- •Recommendations
- •3. Energy and sustainable development
- •Overview
- •Energy, environment and sustainable development: An integrated policy response in the context of SDGs
- •Ensuring sustainable energy for all: SDG 7
- •Access to electricity and clean cooking: SDG 7.1 progress and outlook
- •Electricity access
- •Clean cooking
- •Renewables: SDG 7.2 progress and outlook
- •Energy efficiency: SDG 7.3
- •Energy and air quality: SDG 3
- •Current status of air pollutants
- •Air quality policy framework
- •Transport sector
- •Power sector
- •Industrial sector
- •The outlook for air quality
- •Energy-related CO2 emissions and carbon intensity: SDG 13
- •Sectoral GHG status and stated policy outlook
- •Energy sector role in GHG mitigation policy
- •Pricing of energy sector externalities
- •Energy sector climate change adaption and resilience
- •Assessment
- •Energy access
- •Energy sector and air quality
- •Energy and climate adaptation and resilience
- •Energy sector cost-effective response to climate change
- •Recommendations
- •4. Energy efficiency
- •Overview
- •Supply and demand trends
- •Energy consumption by sector
- •Industry
- •Residential
- •Services and agriculture
- •Transport
- •Policy framework and institutions
- •Policies and programmes
- •Industry
- •Buildings
- •Appliances and equipment
- •Municipalities
- •Agriculture
- •Transport
- •Assessment
- •Co-ordination, institutional capacity and data
- •Leveraging private-sector investments
- •Industry
- •Buildings
- •Appliances and equipment
- •Municipalities
- •Agriculture
- •Transport
- •Recommendations
- •5. Renewable energy
- •Overview
- •Supply and demand trends
- •Renewable energy in TPES
- •Electricity from renewable energy
- •Institutions
- •Policy and regulation
- •Electricity
- •Utility-scale renewables
- •Rooftop solar PV
- •Offshore wind
- •Off-grid solar PV
- •Bioenergy and waste
- •Barriers to investment in renewable energy projects
- •Transport
- •Industry
- •Assessment
- •Electricity
- •Transport
- •Industry
- •Recommendations
- •6. Energy technology innovation
- •Overview
- •Energy technology RD&D and innovation policies
- •Energy technology RD&D landscape
- •Public-sector RD&D actors
- •Public-sector RD&D priorities and co-ordination
- •Public-sector funding for energy RD&D
- •Private-sector energy RD&D landscape
- •International collaboration
- •Assessment framework
- •Non-financial support and policies
- •Direct and indirect financial support
- •Assessment
- •Strategic planning of energy RD&D activities
- •Inter-ministerial RD&D programme co-ordination
- •MI RD&D goals
- •Private-sector engagement to spur energy RD&D investment
- •Leadership in energy RD&D international collaboration
- •Recommendations
- •7. Electricity
- •Overview
- •Supply and demand trends
- •Electricity generation
- •Imports and exports
- •Consumption
- •Electricity access
- •Institutions
- •Market structure
- •Transmission
- •Captive producers
- •System operation
- •Power market reforms
- •Assessment framework
- •A. India’s power system transformation
- •Policies for decarbonisation
- •The role of nuclear power
- •B. Electricity markets to maximise investments and consumer outcomes
- •The wholesale market
- •Wholesale market reforms
- •Investment in the power sector
- •Power assets under financial stress
- •The retail markets in India
- •Retail market rules and regulations
- •Metering and smart meters
- •The financial health of the DISCOMs
- •Tariff reforms
- •Electricity retail pricing
- •C. Ensure power system security
- •Reliability
- •Generation adequacy
- •Network adequacy
- •Quality of supply
- •Flexibility of the power system
- •Assessment
- •Recommendations
- •8. System integration of variable renewable energy
- •Overview
- •Supply and demand trends
- •Penetration of VRE at the state level
- •India’s system integration challenges
- •General considerations for system integration
- •Different timescales of system flexibility requirements
- •System operation and electricity markets
- •System operation – generation dispatch
- •System operation – forecasting of wind and solar output
- •Power market design to support system integration of renewables
- •Flexibility resources in India
- •Power plants
- •Thermal plants
- •VRE sources
- •Electricity networks and grid infrastructure
- •Case study – Green Energy Corridors
- •Distributed resources
- •Demand response and retail pricing
- •Storage
- •Battery storage
- •Future sector coupling, hydrogen (ammonia)
- •IEA flexibility analysis – A scenario outlook to 2040
- •Assessment
- •Advanced system operation
- •Improving electricity market design
- •Flexibility resources
- •Recommendations
- •9. Coal
- •Overview
- •Supply and demand
- •Resoures and reserves
- •Domestic production
- •Imports
- •Coal consumption
- •Institutional framework
- •The public sector
- •The private sector
- •Government policies
- •Royalties and levies
- •Commercial mining
- •Coal and railways
- •Coal supply allocation and pricing
- •Coal washing
- •Local air quality policies
- •India’s climate commitments and the role of coal
- •Carbon capture and storage
- •Assessment
- •Recommendations
- •Overview
- •Supply and demand
- •Oil supply
- •Oil demand
- •Oil trade: imports and exports
- •Crude oil imports
- •Oil products imports and exports
- •Institutions
- •Retail market and prices
- •Market structure
- •Pricing
- •Upstream: Exploration and production policies
- •Infrastructure
- •Refineries
- •Ports and pipelines
- •Storage
- •Security of supply
- •Emergency response policy and strategic stocks
- •Demand restraint
- •Assessment
- •Recommendations
- •11. Natural gas
- •Overview
- •Supply and demand
- •Gas production and reserves
- •Institutions
- •Gas infrastructure
- •Gas policy
- •Markets and regulation
- •Upstream
- •Midstream
- •Downstream
- •Security of gas supply
- •Domestic gas production
- •Diversity of the LNG import portfolio
- •Pipeline import options
- •Availability of additional LNG volumes
- •Availability of seasonal storage
- •Assessment
- •Recommendations
- •ANNEX A: Organisations visited
- •ANNEX B: Energy balances and key statistical data
- •ANNEX C: Acronyms, abbreviations and units of measure

6. ENERGY TECHNOLOGY INNOVATION
(about INR 1 226 crores, or about USD 180 million).2 PSUs also finance energy RD&D, including fossil fuel technologies such as the Advanced Ultra Super Critical Programme in coal power, jointly led by BHEL (MoHI), the Indira Gandhi Centre of Atomic Research (DAE) and the National Thermal Power Corporation (MoP), for an estimated cost of INR 1 554 crores (or about USD 230 million).
More detailed budgets and RD&D expenditure data, and further information about specific research programmes and areas in all relevant ministries, public research institutes and centres, and PSUs, would help innovation stakeholders better understand India’s publicsector innovation framework, as well as its recent progress in an international context.
By global comparison, India’s total expenditure is rather small (Figure 6.1), notably compared to China, the United States or Europe, corresponding to 0.23 per thousand GDP units, which is just under the IEA median of 0.33 per thousand GDP units.
Figure 6.1 Evolution of global energy RD&D public spending by region or country
USD (2018) billion
30
25
China
IEA Americas
20 |
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IEA Europe + EU |
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15 |
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IEA Asia Oceania |
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10 |
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India |
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Brazil |
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5 |
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0 |
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IEA 2019. |
2014 |
2015 |
2016 |
2017 |
2018 |
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All rights reserved. |
Source: IEA (2019d), World Energy Investment, www.iea.org/wei2019/.
Private-sector energy RD&D landscape
While the public sector remains the main actor in India’s energy RD&D landscape in terms of funding and leadership, the private sector is expected to play an increasingly important role.
India offers certain advantageous market fundamentals to the private sector, whether domestic or foreign, in the field of energy RD&D. For example, India’s domestic market is of considerable size and boasts unique growth prospects, as projections point to India overtaking China as the world’s most populous country by 2027. Over the years India has also trained a substantial pool of English-speaking engineers and scientists seeking technology development and entrepreneurial roles, and has built large-scale technology manufacturing (e.g. in semi-conductors) and digital capabilities. Make in India incentives
2 To estimate fossil fuel energy RD&D activities, 2018 values from the MoC (INR 8 crores) and the MoPNG (INR 1 252 crores) are combined, excluding INR 34.2 crores already published under clean energy RD&D. Extra fossil fuel RD&D budgets from other ministries (e.g. the MoP) may increase these preliminary estimates (see Table 11.1).
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IEA. All rights reserved.

6. ENERGY TECHNOLOGY INNOVATION
are likely to strengthen these capabilities. In addition, relative to some emerging and developing economies, India’s legal framework, including for intellectual property, is well established.
For these reasons, there are encouraging examples of international energy companies opening research institutes in the country, such as Shell’s centre in Bangalore, alongside its two other research centres in Amsterdam and Houston. In some instances, strategic policy making may also provide the appropriate incentives for private-sector involvement, such as the 2017 public procurement of 10 000 EVs to replace the government fleet of conventional fuel cars, which was awarded to Tata Motors and Mahindra Electric. Such “pull” factors stimulate the broader technology innovation ecosystem in the field of electric mobility: batteries, charging infrastructure, etc. Other initiatives, such as public-led StartUp India or public–private partnership Global Innovation Technology Alliance, illustrate the government’s commitment to stimulating domestic technology innovation.
Early-stage venture capital investments, as well as other corporate investments in RD&D activities, indicate the technology areas in which the private sector has decided to invest most when it comes to start-up companies. While activity remains limited in India, more early-stage venture capital activity (seed, series A, series B) was seen there in 2018 than since the 2012 “clean technology bust” (Figure 6.2). Most of this investment was in solar, and some in EVs, providing evidence that investors are bullish about the policy and market environment for these technologies in the near to medium term.
The IEA has identified USD 418 million of R&D spending reported publicly by Indian companies active in energy technologies in 2018. Further, Indian car makers spent around USD 900 million on R&D, a significant share of which was directed to more efficient and alternative fuel vehicle technologies.
Figure 6.2 Early-stage venture capital investment in energy technology
USD (2018) million
100 |
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Other energy |
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90 |
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Other clean energy |
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80 |
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Energy efficiency |
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70 |
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Other renewables |
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60 |
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Bioenergy |
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50 |
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Solar |
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40 |
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Transport |
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30 |
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20 |
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10 |
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0 |
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Avg. 2007- |
2012 |
2013 |
2014 |
2015 |
2016 |
2017 |
2018 |
2019 |
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IEA 2019. |
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11 |
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All rights reserved. |
Source: Cleantech Group (2018), i3 Database, https://www.cleantech.com/i3/.
In 2018, DBT and its PSU, BIRAC, partnered with Tata Trusts to establish the CEIIC near New Delhi. It offers lab-to-market incubation support for clean energy entrepreneurs from MI countries. With a total initial investment of about USD 5 million, the incubator will promote innovation in clean energy by providing facilities and infrastructure, training and mentorship, shared consultancy services, intellectual property-related services, live test beds, seed support, exchange programmes and collaborations, and market linkages to innovators across the MI countries to test their technologies in local markets. The centre may also support end-use deployment of successful innovations. To date, selected start-
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ENERGY SYSTEM TRANSFORMATION
IEA. All rights reserved.

6. ENERGY TECHNOLOGY INNOVATION
ups are working on EV charging equipment and charging stations, solar-powered efficient machines for agriculture, biomass conversion equipment, innovative battery technologies, smart meters and data analytics platforms, zero-emissions turbine-based energy storage and power generation engines (Tata Trusts and Social Alpha, 2019).
However, private actor uptake of RD&D activities remains low in India relative to most countries. The concept of “frugal innovation” – a term applied to ingenious inventions that meet core user requirements without the backing of major corporate RD&D budgets or high levels of consumer finance – has found application in the energy sector, including via the use of novel information and communications technologies.
Box 6.1 Case-study • Public–private innovation partnership in advanced biofuels
India is positioned as a global pioneer in bioenergy innovation. It is co-leader of MI’s challenge on sustainable biofuels, with a co-ordinating MI unit under DBT, and is also a member of the IEA Bioenergy TCP.
Developing sustainable biofuels aligns with India’s broader national policy goals. In 2018 the government updated its National Policy on Biofuels to reduce oil imports, foster rural development and bring environmental benefits. It reaffirmed the need for bioenergy research such as the development of advanced biofuels from non-food crop feedstock. DBT and the MoPNG co-ordinate RD&D initiatives such as the DBT-IOCL Advanced Bioenergy Research Centre, near New Delhi.
Indian Oil Corporation Limited (IOCL) is a vertically integrated petroleum PSU under the MoPNG, and is among the country’s largest and most profitable corporations. Since 2012 the DBT-IOC Centre has conducted research on lignocellulosic ethanol (a biofuel produced from non-food crop biomass, such as residues from cotton, wheat, rice or sugarcane), on issues related to pre-treatment, integration and scale-up. In 2013 a 250 kg/day cellulosic ethanol pilot plant was built with support from US National Renewable Energy Laboratory. The DBT-IOC Centre designed new enzyme production processes for biofuels development, achieving cost savings up to 50%. The centre also discovered the so-called simultaneous saccharification and co-fermentation (SSCF) technique, which reduces process time.
The DBT-IOC Centre recently began the construction of a 10 tonne/day biofuel production facility, co-located with IOCL’s Mathura Refinery. The INR 1.10 billion (USD 16 million) project is expected to start operations by the end of 2019, a final demonstration step before commercial-scale production. IOCL and other petroleum PSUs are also building 12 bio-refineries using agricultural residue and municipal solid waste, for INR 100 billion (USD 1.5 billion). In 2018 Bharat Petroleum launched the construction of a rice straw feedstock-based bio-refinery in Odisha, with operations to start by December 2020.
The DBT-IOC Centre is one of five DBT joint centres of excellence specialising in biorefining. The five centres mobilise a significant proportion of overall public investment
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IEA. All rights reserved.