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The Framework of Sustainable Mining

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Reducing the environmental impact of mining is a key driver for the Indian cement fraternity today, with a holistic approach and well-planned strategies to ensure lesser carbon emissions.

Mining, the process of extracting from the bed of the earth, is a key process in the making of cement. The raw materials for making cement such as limestone, clay, bauxite and other minerals are sourced from the bed of the earth through the process of mining. The source of energy for cement plants, coal, is also drawn from its mines.
India’s limestone deposits can be found throughout the country. In India, total limestone reserves or resources of all types and grades are estimated to be 203,224 million tonnes. Karnataka has the most limestone reserves, with about 28 per cent, followed by Andhra Pradesh and Rajasthan, each with about 11 per cent limestone reserves. Gujarat, Meghalaya, and Telangana have 10 per cent, 9 per cent, and 8 per cent of the population, respectively. In terms of annual extraction volume, limestone ranks first among non-fuel solid mineral deposits in India.
The mining industry in India contributes significantly to the economy, amounting to around 10 to 11 per cent to the industrial sector. This industry took a modern turn post the economic reforms of 1991, and the 1993 Mining Policy further helped its growth. India has a rich reserve of mineral and non-mineral ores distributed in five mineral belts across the length and breadth of the country. The geographical distribution of mineral belts are the North Eastern Peninsular Belt, Central Belt, Southern Belt, South Western Belt and North Western Belt. The index of mineral production of the mining and quarrying sector for November 2021 stood at 111.9, which was 5 per cent higher than the level in November 2020.
Mining in India falls under the legal and constitutional framework. Governed by the Indian Bureau of Mines, its primary mission is to promote systematic and scientific development of mineral resources of the country (both onshore and offshore), through regulatory inspections of the mines, approval of mining plans and environment management plans to ensure minimal adverse impact on the environment.
Mining operations are regulated under the Mines and Minerals (Development and Regulation) [MMDR] Act of 1957. The State Governments, as owners of minerals, grant mineral concessions and collect royalty, dead rent and fees as per the provisions of MMDR Act. These revenues are held in the Consolidated Fund of State Government until the state legislature approves their use through budgetary processes. The MMDR Act was enacted to provide for the regulation of mines and development of minerals under the control of the Union. The Act has been amended in 1972, 1986, 1994 and 1999 in keeping with changes in the policy on mineral development. In 2015, the act was amended with the intention of removing discretion and introducing more transparency in the grant of mineral concessions. The amendments now made to the MMDR Act, 1957 provide that mineral concessions will be granted only on the basis of bidding at an auction, for the prospecting stage or mining stage on a case to case basis.
According to Make in India – Mining Achievements, the grade conformity of coal has jumped to 69 per cent in 2022-23 (till Nov’ 22) as against 51 per cent in 2017-18. The National Mineral Exploration Trust (NMET) has approved 187 exploration projects with a total cost of Rs 895.72 crore up to 31st December 2019. Among this total 69 projects have already been completed and 118 projects are ongoing. The Government of India has handed over 52 Geological Survey of India (GSI) approved mine blocks to 15 State Governments. An E-portal of an accreditation scheme for Mineral exploration has been launched to increase transparency and ease of doing business.

The impact of mining activities include harm not
only to water and land flora and fauna but also to the
ecosystem in and around the mining area.

IMPACT OF MINING ON THE ENVIRONMENT
The Indian cement industry is one amongst the largest in the world, the production is high and so is the demand for raw material and energy. Regardless of the scale of mining, the extraction of rocks and minerals has an impact on the environment at various stages of mining, processing, and utilisation.
The severity of environmental issues is determined by the extent of mining and the mining site’s ecological sensitivity. Denudation of forests, water depletion, pollution of water, soil, and air, loss of natural flora and fauna, reduction in biodiversity, erosion of soil, instability of soil and rock masses, changes in the landscape and degradation of agricultural land are just a few of the obvious environmental consequences of limestone mining. Both terrestrial and aquatic ecosystems are impacted, with long-term consequences that may extend beyond the mining area’s boundaries.
Lowering of water tables, habitat destruction, waste encroachment into agricultural land, building destruction due to cracks, pollution of rivers, loss of biodiversity, destruction of crops, unclean rainwater harvested from roofs, and health issues such as inhalation of dust resulting in respiratory tract infections are just a few of the consequences.
Manish Toshniwal, Vice President and Mines Head, JK Cement, says, “The availability of natural resources is limited and mining leads to depletion of natural resources. It is quite important that on the one hand we meet the needs of the present, and on the other we conserve natural resources to meet future needs.”
“Mining can become more sustainable by developing and integrating practices that ensure cost effective mining, reduce the environmental impacts of mining operations, improve socio economic development of people, and comply with statutory obligations. Massive plantations have been taken up for conservation of flora and fauna in the mines. So far, the plantation drive in mines involves planting 4,07,294 saplings covering an area of 158.07 hectares. The development of bio diversity park, to create safe and secure habitat for local flora and fauna to improve the ecological footprint of the mine, spreads over an area of 50.0 hectares. The park will be developed in three phases with a total of 50,000 saplings and is targeted to be complete by FY 2024-25” he adds.
Mining and metals operations, local communities and others all depend on clean air, water, land and energy. Securing fair access to these shared resources increasingly depends on demonstrating responsible stewardship and recognising the needs of others. Failure to effectively manage the potential adverse impacts of mining on these shared resources can result in the deterioration of environmental resources and have adverse consequences for human health.

The correlation between cement production and coal consumption is disturbing and has deep impact on the environment


MINING AND THE CEMENT INDUSTRY
Cement manufacturers mine and process raw materials and put them through a chemical reaction process to create cement. They need to understand the chemical composition of the raw materials so that the reaction in their process takes place correctly and they make good, high-quality cement that will eventually be used to make concrete by contractors and ‘ready-mix’ companies. Mining is an integral part of the cement making process. It is the first step in obtaining the key raw material – limestone – from quarries to make the final product. Limestone is obtained from the deposits or rock by blasting or mechanical excavation depending on the hardness of the rock. It is then crushed into smaller chunks. After crushing the stone is sorted into different fractions by screening, after which it is processed further. In the grinding process, the limestone is ground to a fine powder.
Limestone is one of the key minerals used in cement making. Limestone is a sedimentary rock composed mostly of the calcium carbonate (CaCO3) and comprises about 15 per cent of the Earth’s sedimentary crust. Surface mining is the general excavation method. There are a few underground limestone mines, but most are pits on the surface. Most of the limestone is obtained from open quarries. The extraction is carried out by open cast method on both small and large scales. The small-scale extraction of limestone is done manually by individuals using minimal machinery. The limestone beds are drilled for blast holes using drilling machines, after which the rocks undergo blasting. The limestone rocks undergo manual sizing, in order to obtain rock pieces of suitable sizes for easy transportation and processing.
For cement, limestone mining takes place on a large scale by the underground mining method. The basic operations in underground mining are drilling, blasting, loading and hauling, scaling and roof bolting. Drilling equipment includes horizontal drills and down hole track drills. This equipment results in much smaller blast holes and a lower volume of rock produced with each blast. Other equipment required in the underground mine includes powder loaders, which are used to blow ammonium nitrate–fuel oil mixtures into the blast holes. Scaling rigs, which are used to remove loose rocks from the ribs and roof of the mine, and roof-bolting equipment may also be required in an underground mine.
“Hydraulic excavators, wheel loaders, backhoe loaders, bulldozers, dump trucks, tippers, graders, rock breakers, vibratory compactors, cranes, fork lifts, dozers, off-highway dumpers (20T to 240T), drills, scrapers, motor graders, rope shovels, etc. are just a few examples of the machinery that falls under the category of mining equipment deployed for limestone mining. They carry out a range of tasks, including ground preparation, excavation, material haulage, dumping/laying in a specific way, material handling, haul road building, etc. Shovels, surface miners, dumpers and drills are the primary production tools used in opencast mining for hauling, drilling, and excavating,” says Pukhraj Sethiya, Chief Operating Office, ReVal Consulting.
“While a wide variety of mining equipment with various capacities is being used in India, the most popular fleet is made up of hydraulic excavators with 3 to 10 Cu.m bucket capacities and dumpers with 35 to 100 T capacities. Surface miners are also frequently used in the mining of soft and thin seams in softer strata like coal and limestone (in a few locations, such as western Gujarat), which eliminates the need for blasting in coal and ultimately contributes to lowering greenhouse gas emissions,” he adds.
Cement making is an energy intensive process and coal provides for 90 per cent of the energy consumed by cement plants around the world. India is one of the largest producers and consumers of coal, with the cement sector dominating its consumption. The Coal India Limited (CIL) is the state-owned miner for the country and accounts for over 80 per cent of domestic coal production. CIL coal production target for India is set to 1 billion tonnes by FY2020. However, the cement industry gets about 5 per cent of coal from within the country, and the rest of its coal demand is met through imports. The combustion process results in the emission of carbon dioxide, which is a prominent reason for air pollution.
There are four types of coal available in India, namely, peat, lignite, bituminous coal and anthracite coal. The most consumed amongst these are lignite and bituminous. The cement industry mainly uses non-coking bituminous coal and lignite in small quantities in plants in Tamil Nadu and Rajasthan. Specifically, the coal used by the cement companies is of grade G4, G5, G6, G7, G8 and G9.
The Ministry of Coal has the overall responsibility of determining policies and strategies in respect of exploration and development of coal and lignite reserves, sanctioning of important projects of high value and for deciding all related issues. Under the administrative control of the Ministry, these key functions are exercised through the Public Sector Undertakings, namely, Coal India Ltd. and its subsidiaries and Neyveli Lignite corporation India Limited (NLCIL). Other than Coal India Ltd and Neyveli Lignite Corporation India Ltd, the Ministry of Coal also has a joint venture with the Government of Telangana called Singareni Collieries Company Limited. The Government of Telangana holds 51 per cent equity and Government of India holds 49 per cent equity.
The industry is constantly looking for alternative solutions to replace coal and reduce the carbon emission by substituting it with other energy giving materials. This is a conscious effort taken by all large players in the cement industry.
“The demand for coal in the Asian markets has increased in the last two years. Due to this increase in demand, prices have increased dramatically and look on the upper side in the next two quarters. Indonesian miners are trying to cope with the demand but due to logistics constraints and harsh weather conditions, they are facing issues to manage the supply. The demand for Indonesian coal has increased in Europe as well,” says Vishal Uberoi, Director, KTP Exports, Indonesia.

The Indian Bureau of Mines estimates that over 170
million tonnes of solid wastes related to mining is
generated in India every year

TECHNOLOGY IN MINING
Technology has played a large role in making mining as a process more efficient, productive and sustainable. These technologies have heavily contributed to the growth and progression of the mining operations, leading to more significant mineral commodities and overall productivity.

Waste management and rehabilitation is the key to ensure
that mining moves into sustainability terrain real fast.


Artificial intelligence (AI) solutions in mining use smart data and machine learning to improve mining production, efficiency, and safety. These technologies allow companies to generate data in half the time than what has been previously seen in the field, enabling companies to improve decision-making with faster and more accurate data-driven insights. As a result, the AI technologies’ machine-learning capabilities are heavily influencing how mines make decisions for the future. By helping miners locate sites, precise position and in some cases self-driving vehicles or operating machines has made let to minimised costs, reduce environmental impact, and improved safety and reliability.
Automation in excavators and other machinery has also led to making mining a more cost effective and reduced waste process. Thus, making mining sustainable. Technologies like GPS, GIS systems, drones etc., are key to effective mining.

SUSTAINABLE MINING
Mining has its own set of pros and cons.
The planet has bestowed us with minerals and rocks that have properties to make materials that are valuable to human kind. Limestone, other minerals and coal are the key materials that are mined for the cement industry.
Various technologies and methods have been adopted by cement manufacturers and miners to make mining a sustainable process that does not harm the environment. From planting trees to harvesting water, controlling dust and rehabilitating villagers close to the mines, many efforts have been taken to safeguard the environment. Carbon emission is also another factor that is taken care of by the miners.
Anurag Bagaria, Director – Sales & Mining Head, KK Bagaria Group and Anurag Bagaria Group, says, “We incorporate sustainability into our mining process by using renewable energy sources, such as solar and wind power, to power our operations. We also use water recycling systems to reduce water consumption and minimise our environmental impact. Additionally, we use advanced technologies to reduce our carbon footprint and minimise our waste output. Finally, we strive to ensure that our operations are conducted in a responsible manner that respects the local environment and communities. Sustainable mining is an essential element – not only in recovering from the latest mining slump but also for the industry’s long-term survival”.
According to the Indian Bureau of Mines, it is estimated that well over 170 million tonnes of solid wastes related to mining are generated in India every year. This is expected to rise substantially to 300 million tonnes with the increase in production of various minerals. Due to shortages of some minerals in the natural reserves and depletion of high-grade ores, leaner grade ores are being mined which generate a large amount of waste. Adding to this, the preferred method of mining for industries is the open cast method for its high productivity, economic viability and safety aspects, which leads to large volumes of waste generation.
This rock waste generated cannot be immediately back filled due to geological constraints and has to be planned and phased out. This results in stacking of this waste externally creating a mining waste dump.
While this waste is an unavoidable damage to the land, there are many ways of rehabilitating the area where the waste is dumped. The design of the waste should accommodate progressive rehabilitation to ensure a minimum area is disturbed at any given time. This waste can also be used in alternative jobs, like construction or landfills, to put it to good use and reduce the stacking and dumping of the same.
It must be ensured that a proper drainage channel is created from the waste dump in case heavy rainfall is expected in the area. This shall prevent the nearby land from getting contaminated with the waste residues. Proper rehabilitation of tailings must be planned in order to avoid contamination of water sources around the dump area.
Rehabilitation of the mining waste dump areas should aim to establish a vegetative cover and increase rainfall infiltration. Dumps with higher salt content must be screened with overburden of the lowest salt content.
The cement industry consumes mined materials for their varied processes, and its volume has the potential to change the game for the environment. Shifting practices towards sustainable means can lead to a greener country with cleaner air. With advanced technology and better planning, this is an achievable feat. Influential players in the cement industry are taking efforts to help heal the environment and create mining processes that do more good than harm.

-Kanika Mathur

Concrete

India’s Steel Imports Drop 34 Per Cent, Exports Rise 25 Per Cent In April–October

Consumption grows despite weak prices and subdued demand

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India’s finished steel imports fell 34.1 per cent year-on-year to 2.5 million tonnes in the first seven months of the financial year, according to government data. Despite the decline, the world’s second-largest crude steel producer remained a net importer of finished steel during the April–October period. The fall in imports came alongside a 7.4 per cent rise in domestic consumption, which reached 92.2 million tonnes.

South Korea emerged as India’s largest source of finished steel imports, supplying 1.4 million tonnes. It was followed by China, Japan and Russia. Although total imports declined sharply, the figures show a continued inflow of foreign steel into the Indian market.

Domestic production remained strong. Finished steel output stood at 91.6 million tonnes for April–October, while crude steel production reached 95.7 million tonnes, underscoring the scale and resilience of India’s steel industry despite external competition.

In contrast to the fall in imports, India’s finished steel exports jumped 25.3 per cent year-on-year to 3.5 million tonnes. Europe was a major destination, with Italy and Belgium leading as top importers of Indian steel, followed by Spain. This highlights the growing global competitiveness of Indian steel in select markets.

The government noted that domestic steel prices have come under pressure due to weak demand and high supply. Trading activity also remained subdued during the festival season. This challenging environment has been particularly difficult for smaller steel producers, as previously reported.

Overall, the combination of declining imports, rising exports and increasing domestic consumption reflects the complex landscape of the Indian steel sector as it navigates muted internal demand and evolving international trade dynamics.

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JK Lakshmi Cement Plans Rs 18.16 Billion Expansion

Firm to boost clinker and grinding capacity in Chhattisgarh

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JK Lakshmi Cement announced on Tuesday that it will invest Rs 18.16 billion to expand its manufacturing operations in Chhattisgarh. The company intends to raise its clinker production capacity by 2.31 million tonnes per annum (MTPA) and its cement grinding capacity by 1.2 MTPA, supported by this proposed investment.

The Memorandum of Understanding for the expansion was signed during the Chhattisgarh Investor Connect event in New Delhi, in the presence of Chief Minister Vishnu Deo Sai. The added capacity will enhance the company’s ability to serve the rapidly growing markets of Eastern and Central India, where demand for building materials remains robust.

The move supports JK Lakshmi Cement’s broader goal of increasing its total capacity to around 30 MTPA in the coming years. Deputy Managing Director Shrivats Singhania said the expansion marks a significant step in the company’s next phase of growth, adding that Chhattisgarh has long been central to its manufacturing strategy.

Over the past decade, JK Lakshmi Cement has contributed to strengthening Chhattisgarh’s industrial landscape since establishing its integrated plant in Durg in 2015. The company has implemented multiple initiatives, including a manufacturing facility with 1.8 MTPA of clinker capacity and 2.7 MTPA of cement capacity, operational upgrades with energy-efficient technology and automation, and logistics improvements through enhanced rail connectivity.

Chhattisgarh continues to show strong economic momentum, making it one of the most promising markets for cement demand, said Arun Shukla, President and Director at JK Lakshmi Cement. The company’s shares closed 0.28 per cent higher at Rs 782.10 on the BSE.

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Balancing Rapid Economic Growth and Climate Action

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Dr Yogendra Kanitkar, VP R&D, and Dr Shirish Kumar Sharma, Assistant Manager R&D, Pi Green Innovations, look at India’s cement industry as it stands at the crossroads of infrastructure expansion and urgent decarbonisation.

The cement industry plays an indispensable role in India’s infrastructure development and economic growth. As the world’s second-largest cement producer after China, India accounts for more than 8 per cent of global cement production, with an output of around 418 million tonnes in 2023–24. It contributes roughly 11 per cent to the input costs of the construction sector, sustains over one million direct jobs, and generates an estimated 20,000 additional downstream jobs for every million tonnes produced. This scale makes cement a critical backbone of the nation’s development. Yet, this vitality comes with a steep environmental price, as cement production contributes nearly 7 per cent of India’s total carbon dioxide (CO2) emissions.
On a global scale, the sector accounts for 8 per cent of anthropogenic CO2 emissions, a figure that underscores the urgency of balancing rapid growth with climate responsibility. A unique challenge lies in the dual nature of cement-related emissions: about 60 per cent stem from calcination of limestone in kilns, while the remaining 40 per cent arise from the combustion of fossil fuels to generate the extreme heat of 1,450°C required for clinker production (TERI 2023; GCCA).
This dilemma is compounded by India’s relatively low per capita consumption of cement at about 300kg per year, compared to the global average of 540kg. The data reveals substantial growth potential as India continues to urbanise and industrialise, yet this projected rise in consumption will inevitably add to greenhouse gas emissions unless urgent measures are taken. The sector is also uniquely constrained by being a high-volume, low-margin business with high capital intensity, leaving limited room to absorb additional costs for decarbonisation technologies.
India has nonetheless made notable progress in improving the carbon efficiency of its cement industry. Between 1996 and 2010, the sector reduced its emissions intensity from 1.12 tonnes of CO2 per ton of cement to 0.719 tonnes—making it one of the most energy-efficient globally. Today, Indian cement plants reach thermal efficiency levels of around 725 kcal/kg of clinker and electrical consumption near 75 kWh per tonne of cement, broadly in line with best global practice (World Cement 2025). However, absolute emissions continue to rise with increasing demand, with the sector emitting around 177 MtCO2 in 2023, about 6 per cent of India’s total fossil fuel and industrial emissions. Without decisive interventions, projections suggest that cement manufacturing emissions in India could rise by 250–500 per cent by mid-century, depending on demand growth (Statista; CEEW).
Recognising this threat, the Government of India has brought the sector under compliance obligations of the Carbon Credit Trading Scheme (CCTS). Cement is one of the designated obligated entities, tasked with meeting aggressive reduction targets over the next two financial years, effectively binding companies to measurable progress toward decarbonisation and creating compliance-driven demand for carbon reduction and trading credits (NITI 2025).
The industry has responded by deploying incremental decarbonisation measures focused on energy efficiency, alternative fuels, and material substitutions. Process optimisation using AI-driven controls and waste heat recovery systems has made many plants among the most efficient worldwide, typically reducing fuel use by 3–8 per cent and cutting emissions by up to 9 per cent. Trials are exploring kiln firing with greener fuels such as hydrogen and natural gas. Limited blends of hydrogen up to 20 per cent are technically feasible, though economics remain unfavourable at present.
Efforts to electrify kilns are gaining international attention. For instance, proprietary technologies have demonstrated the potential of electrified kilns that can reach 1,700°C using renewable electricity, a transformative technology still at the pilot stage. Meanwhile, given that cement manufacturing is also a highly power-intensive industry, several firms are shifting electric grinding operations to renewable energy.
Material substitution represents another key decarbonisation pathway. Blended cements using industrial by-products like fly ash and ground granulated blast furnace slag (GGBS) can significantly reduce the clinker factor, which currently constitutes about 65 per cent in India. GGBS can replace up to 85 per cent of clinker in specific cement grades, though its future availability may fall as steel plants decarbonise and reduce slag generation. Fly ash from coal-fired power stations remains widely used as a low-carbon substitute, but its supply too will shrink as India expands renewable power. Alternative fuels—ranging from biomass to solid waste—further allow reductions in fossil energy dependency, abating up to 24 per cent of emissions according to pilot projects (TERI; CEEW).
Beyond these, Carbon Capture, Utilisation, and Storage (CCUS) technologies are emerging as a critical lever for achieving deep emission cuts, particularly since process emissions are chemically unavoidable. Post-combustion amine scrubbing using solvents like monoethanolamine (MEA) remains the most mature option, with capture efficiencies between 90–99 per cent demonstrated at pilot scale. However, drawbacks include energy penalties that require 15–30 per cent of plant output for solvent regeneration, as well as costs for retrofitting and long-term corrosion management (Heidelberg Materials 2025). Oxyfuel combustion has been tested internationally, producing concentrated CO2-laden flue gas, though the high cost of pure oxygen production impedes deployment in India.
Calcium looping offers another promising pathway, where calcium oxide sorbents absorb CO2 and can be regenerated, but challenges of sorbent degradation and high calcination energy requirements remain barriers (DNV 2024). Experimental approaches like membrane separation and mineral carbonation are advancing in India, with startups piloting systems to mineralise flue gas streams at captive power plants. Besides point-source capture, innovations such as CO2 curing of concrete blocks already show promise, enhancing strength and reducing lifecycle emissions.
Despite progress, several systemic obstacles hinder the mass deployment of CCUS in India’s cement industry. Technology readiness remains a fundamental issue: apart from MEA-based capture, most technologies are not commercially mature in high-volume cement plants. Furthermore, CCUS is costly. Studies by CEEW estimate that achieving net-zero cement in India would require around US$ 334 billion in capital investments and US$ 3 billion annually in operating costs by 2050, potentially raising cement prices between 19–107 per cent. This is particularly problematic for an industry where companies frequently operate at capacity utilisations of only 65–70 per cent and remain locked in fierce price competition (SOIC; CEEW).
Building out transport and storage infrastructure compounds the difficulty, since many cement plants lie far from suitable geological CO2 storage sites. Moreover, retrofitting capture plants onto operational cement production lines adds technical integration struggles, as capture systems must function reliably under the high-particulate and high-temperature environment of cement kilns.
Overcoming these hurdles requires a multi-pronged approach rooted in policy, finance, and global cooperation. Policy support is vital to bridge the cost gap through instruments like production-linked incentives, preferential green cement procurement, tax credits, and carbon pricing mechanisms. Strategic planning to develop shared CO2 transport and storage infrastructure, ideally in industrial clusters, would significantly lower costs and risks. International coordination can also accelerate adoption.
The Global Cement and Concrete Association’s net-zero roadmap provides a collaborative template, while North–South technology transfer offers developing countries access to proven technologies. Financing mechanisms such as blended finance, green bonds tailored for cement decarbonisation and multilateral risk guarantees will reduce capital barriers.
An integrated value-chain approach will be critical. Coordinated development of industrial clusters allows multiple emitters—cement, steel, and chemicals—to share common CO2 infrastructure, enabling economies of scale and lowering unit capture costs. Public–private partnerships can further pool resources to build this ecosystem. Ultimately, decarbonisation is neither optional nor niche for Indian cement. It is an imperative driven by India’s growth trajectory, environmental sustainability commitments, and changing global markets where carbon intensity will define trade competitiveness.
With compliance obligations already mandated under CCTS, the cement industry must accelerate decarbonisation rapidly over the next two years to meet binding reduction targets. The challenge is to balance industrial development with ambitious climate goals, securing both economic resilience and ecological sustainability. The pathway forward depends on decisive governmental support, cross-sectoral innovation, global solidarity, and forward-looking corporate action. The industry’s future lies in reframing decarbonisation not as a burden but as an investment in competitiveness, climate alignment and social responsibility.

References

  • Infomerics, “Indian Cement Industry Outlook 2024,” Nov 2024.
  • TERI & GCCA India, “Decarbonisation Roadmap for the Indian Cement Industry,” 2023.
  • UN Press Release, GA/EF/3516, “Global Resource Efficiency and Cement.”
  • World Cement, “India in Focus: Energy Efficiency Gains,” 2025.
  • Statista, “CO2 Emissions from Cement Manufacturing 2023.”
  • Heidelberg Materials, Press Release, June 18, 2025.
  • CaptureMap, “Cement Carbon Capture Technologies,” 2024.
  • DNV, “Emerging Carbon Capture Techniques in Cement Plants,” 2024.
  • LEILAC Project, News Releases, 2024–25.
  • PMC (NCBI), “Membrane-Based CO2 Capture in Cement Plants,” 2024.
  • Nature, “Carbon Capture Utilization in Cement and Concrete,” 2024.
  • ACS Industrial Engineering & Chemistry Research, “CCUS Integration in Cement Plants,” 2024.
  • CEEW, “How Can India Decarbonise for a Net-Zero Cement Industry?” (2025).
  • SOIC, “India’s Cement Industry Growth Story,” 2025.
  • MDPI, “Processes: Challenges for CCUS Deployment in Cement,” 2024.
  • NITI Aayog, “CCUS in Indian Cement Sector: Policy Gaps & Way Forward,” 2025.

ABOUT THE AUTHOR:
Dr Yogendra Kanitkar, Vice President R&D, Pi Green Innovations, drives sustainable change through advanced CCUS technologies and its pioneering NetZero Machine, delivering real decarbonisation solutions for hard-to-abate sectors.

Dr Shirish Kumar Sharma, Assitant Manager R&D, Pi Green Innovations, specialises in carbon capture, clean energy, and sustainable technologies to advance impactful CO2 reduction solutions.

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