Technology
Irrigation Marvel
Published
6 years agoon
By
admin
The largest barrage in the Kaleshwaram Lift irrigation project, the 1.6-km-wide iconic Medigadda Barrage has been constructed by L&T in a record 24 months.
River Godavari is Peninsular India’s largest and a lifeline for crores of people in Telangana. However, much of the river’s torrential flow goes untapped, hence unutilised to its fullest potential – until now!
In 2008, the Telangana Government conceived the Kaleshwaram Lift Irrigation Scheme (KLIS), one of the world’s largest irrigation projects, now operational, that aims to irrigate 18.25 lakh acre in 13 districts and stabilise another 18.75 lakh acre in seven more districts of Telangana. The plan is to harness water at the confluence of three rivers by the barrage at Medigadda, which will pump the water back into the Godavari through a maze of reservoirs, tunnels, pipelines and canals. Almost 2,000 million cu ft (tmc) of water per day will be moved upriver through gravity canals from the Medigadda barrage to the Annaram barrage, from where further back to the Sundilla barrage, then diverted to the Yellampalli reservoir to be distributed to the neighbouring districts.
In this article, we feature the first, and largest barrage of KLIS, the Medigadda Barrage, constructed by construction major Larsen & Toubro (L&T).
The highlights
Says SV Desai, Senior Vice President & Head-Heavy Civil Infrastructure IC, L&T Construction, "Apart from the pride of associating with such an iconic project, L&T is equally proud to have completed this colossal project – which was inaugurated on June 21, 2019, by Telangana Chief Minister K Chandrashekar Rao – in a record timeline of just 24 months."
During its execution, L&T set several records in terms of the amount of materials used such as concrete and steel, in an extremely challenging operating environment. Some highlights:
- 16,722 cu m concrete poured in 24 hours
- 25,584 concrete poured in 72 hours
- 1.94 lakh cu m concrete poured in a month
- 9,200 mt of rebar in a single month
- 10 m height formwork, first-of-its-kind in India, for the piers
- 25,000 mt of steel gates fabricated in 12 months
- 85 gates erected in four months
Structural features
The barrage is 1,625 m in length with 84 giant piers, each 110 m long, 4 m or 6 m wide and 25 m high. Two abutments situated on either bank of the river accommodate an open fish ladder to maintain uninterrupted movement of fish during the lean season."The raft downstream has energy-dissipating haunches to give a hydraulic jump to the water before flowing over 100 m of stone pitching," says Desai. "Both banks are protected with retaining walls beyond which are guide/flood bunds (11.71 km on the left bank and 6.32 km on the right bank) to protect the adjoining cultivable lands."
The barrage bridges the States of Telangana and Maharashtra by a road with a 7.5-m-wide carriageway constructed above the structure that reduces the distance by 60 km, saving millions of traffic hours and fuel cost.
Materials: High on quality
The 110-m-wide and 3.7-m-thick raft was of M2540MSA grade RCC, concreted in three successive lifts with pour heights of 1.5 m, 1.5 m and 0.7 m respectively.
Each pier is 110 m long and 4 m wide with RCC of M2520MSA grade.
All batching plants were integrated with ice or chiller plants to control adiabatic temperature rise or heat produced owing to hydration of cement in mass concrete.
The concrete was produced at a reduced temperature of 20 degree Celsius by adding ice flakes and chilled water without affecting the water-cement ratio as per mix design. The temperature and slump of concrete were continuously monitored until placement.
Desai shares the major daily average material consumption during peak time:
Cement: 1,700 mt (34,000 bags): 50 bulkers
1.1 lakh mt steel rebar was a huge task, properly streamlined to ensure uninterrupted supplies
Aggregates: 5,500 mt: 150 truck loads
Reinforcement: 250 mt: 10 trailers
L&T system formwork: Was used for its low heat conductivity that prevented loss of heat that reduced stripping and cycle time and for its smooth finish and elegant appearance as well.
Sheet pile for seepage arrest in cofferdam: Sheet piles of 10 m depth were driven along the periphery of the cofferdam to reduce the seepage from the flowing river during monsoon and non-monsoon periods. The project consumed 2,500 mt of sheet pile to minimise the seepage.
Technology equipped
Equipment used for construction included wheel-loaders, ice and chilling plants, hydraulic, pick-and-carry and tower cranes, bull-dozers, excavators, dumpers, and automated pull-through welding and automated CNC cutting machines.
Construction of the raft foundation required ground improvement. Desai elaborates, "The geotechnical investigation revealed certain weak areas in the ground strata that required strengthening. While methods like vibro compaction, dynamic compaction or rapid impact compaction are available, they are also time-consuming and costly. After a thorough analysis, we adopted the cement stabilisation dry-and-wet method."
Record time
When asked what factors helped in the completion of the project in a record 24 months, Desai responds: "Process improvements!" and elaborates:
Multiple projects within a project: The project was split into two mini projects – one on the either bank, each with its own setup of men, material and equipment.
Reduction of cycle time for pier execution: A conventional 2.4-m height of concrete pouring method would have required 11 times more concrete to execute a single pier. Hence, an optimised formwork height of 5 m was adopted to increase speed of execution. Later, the formwork height was raised to 7.5 m, to eliminate one major lift and further speedup execution. The formwork height raised yet again to 10 m to achieve 4,045 cu m of concrete pour.
Automated fabrication: All sequential activities of cutting, bending, rolling, welding and painting to fabricate the HM radial gates involving 26,000 mt of structural steel were fully automated.
Digital intervention: "Concrete management technology"monitored the entire concreting process in real time, right from production and transportation to placement of concrete. Several machines were IoT-tagged and project progress digitally monitored to improve productivity, reduce execution time and enhance overall operational efficiency. ‘Live’ feeds from RF (radio frequency) and GPS systems from the batching plants, transit mixers and boom placers provided accurate, real-time data to monitor project progress on an hourly basis and tracked on a central dashboard.
Overcoming challenges MV Ramakrishna Raju, Project Director, L&T, shares the major challenges involved in constructing this barrage and measures taken to overcome them:
18.5 lakh cu m concreting in a stringent timeline of 18 months: This project required 1,850,000 cu m of concrete in just 18 months, translating into an asking rate of 5,000 cu m per day during peak months. Eight batching plants and 100+ transit mixers making approximately 1,000 trips a day fed 13 boom placers in different locations spread across 3 sq km to build 13-15 different structures across the site.
Meeting a massive requirement of aggregates, 20 lakh mt in 18 months: With an average daily requirement of 5,500 mt of aggregates, of different sizes varying from 10 mm to 40 mm according to the pour plan and grade of concrete, procurement, transportation and just-in-time delivery were critical considerations to meet targets.
To meet the threat of rising water levels of the Godavari during the monsoons: Coffer dams, specially designed by experts, were constructed, reinforced with sheet piles to withstand a staggering discharge of 9 lakh cu m per second.
Mobilising a huge workforce: The manpower requirement of 5,500 was across various categories like fitters, carpenters, welders, gas-cutters, drivers, plumbers, operators, fabricators, supervisors, foremen, etc. Mobilising and retaining such large numbers of skilled workmen required a high level of functionality and strong administration. They were provided excellent accommodation, canteen and drinking water facilities with RO plant, refreshed with chilled buttermilk and oral dehydration salts during the summer when temperatures reached 45 degree Celsius. The waste management for the entire workforce was routed through waste treatment plants of various capacities.
Consider this: This landmark project achieved 13.9 million safe man-hours. Another reason to label this endeavour a true marvel!
– SERAPHINA D’SOUZA
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Economy & Market
Hindalco Buys US Speciality Alumina Firm for $125 Million
Published
2 months agoon
June 25, 2025By
admin
This strategic acquisition marks a significant investment in speciality alumina, a key step by Aditya Birla Group’s metals flagship towards becoming future-ready by scaling its high-value, technology-led materials portfolio.
Hindalco Industries, the world’s largest aluminium company by revenue and the metals flagship of the $28 billion Aditya Birla Group, has announced the acquisition of a 100 per cent equity stake in US-based AluChem Companies—a prominent manufacturer of speciality alumina—for an enterprise value of $125 million. The transaction will be executed through Aditya Holdings, a wholly owned subsidiary.
This acquisition represents a pivotal investment in speciality alumina and advances Hindalco’s strategy to expand its high-value, technology-led materials portfolio.
Hindalco’s speciality alumina business, a key pillar of its value-added strategy, has delivered consistent double-digit growth in recent years. It has emerged as a high-growth, high-margin vertical within the company’s portfolio. As speciality alumina finds expanding applications across electric mobility, semiconductors, and precision ceramics, the deal positions Hindalco further up the innovation curve, enabling next-generation alumina solutions and value-accretive growth.
Kumar Mangalam Birla, Chairman of Aditya Birla Group, called the acquisition an important step in their global strategy to build a leadership position in value-added, high-tech materials.
“Our strategic foray into the speciality alumina space will not only accelerate the development of future-ready, sustainable solutions but also open new pathways to pursue high-impact growth opportunities. By integrating advanced technologies into our value chain, we are reinforcing our commitment to self-reliance, import substitution, and building scale in innovation-led businesses.”
Ronald P Zapletal, Founder, AluChem Companies, said the partnership with Hindalco would provide AluChem the ability and capital to scale up faster and build scale in North America.
“AluChem will benefit from their world-class sustainability and safety standards and practices, access to integrated operations and a consistent, reliable raw material supply chain. Their ability to leverage R&D capabilities and a talented workforce adds tremendous value to our innovation pipeline, helping drive market expansion beyond North America.”
An Eye on the Future
The global speciality alumina market is projected to grow significantly, with rising demand for tailored solutions in sectors such as ceramics, electronics, aerospace, and medical applications. Hindalco currently operates 500,000 tonnes of speciality alumina capacity and aims to scale this up to 1 million tonnes by FY2030.
Commenting on the development, Satish Pai, Managing Director, Hindalco Industries, said the deal reinforced their commitment to innovation and global expansion.
“As alumina gains increasing relevance in critical and clean-tech sectors, AluChem’s advanced chemistry capabilities will significantly enhance our ability to serve these fast-evolving markets. Importantly, it deepens our high-value-added portfolio with differentiated products that drive profitability and strengthen our global competitiveness.”
AluChem adds a strong North American presence to Hindalco’s portfolio, with an annual capacity of 60,000 tonnes across three advanced manufacturing facilities in Ohio and Arkansas. The company is a long-standing supplier of ultra-low soda calcined and tabular alumina, materials prized for their thermal and mechanical stability and widely used in precision engineering and high-performance refractories.
Saurabh Khedekar, CEO of the Alumina Business at Hindalco Industries, said the acquisition unlocked immediate synergies, including market access and portfolio diversification.
“Hindalco plans to work with AluChem’s high performance technology solutions and scale up production of ultra-low soda alumina products to drive a larger global market share.”
The transaction is expected to close in the upcoming quarter, subject to customary closing conditions and regulatory approvals.

As India’s cement industry heads for unprecedented growth, the importance of smart, sustainable and strategic lubrication is gaining ground. From reducing downtime and enhancing energy efficiency to enabling predictive maintenance, lubricants are transforming plant performance. ICR explores how advanced lubrication solutions are becoming critical enablers of reliability, resilience and environmental stewardship in the cement sector.
The Indian cement industry, a cornerstone of the nation’s infrastructure development, is experiencing significant growth. In 2023, India’s cement production reached 374.55 million tonnes, marking a 6.83 per cent year-on-year growth. Projections indicate that the market size will expand from 3.96 billion tonnes in 2023 to 5.99 billion tonnes by 2032, reflecting a compound annual growth rate (CAGR) of 4.7 per cent during 2024-32. This expansion underscores the increasing demand for efficient and sustainable operations within the sector.
In cement manufacturing, equipment such as kilns, crushers, vertical mills, ball mills, conveyors and fans operate under extreme temperatures, heavy loads and high dust exposure. These demanding conditions make proper lubrication not just essential, but mission-critical. Selecting the right type of lubricant and maintaining an effective lubrication regime can drastically improve machine uptime, reduce maintenance costs, and enhance plant safety. In many cases, lubricant-related failures account for a significant proportion of unplanned downtime, underscoring the value of a well-structured lubrication strategy.
The Indian cement sector is also undergoing a technological transformation, with increasing emphasis on automation, predictive maintenance and energy efficiency. In this evolving landscape, lubricants are no longer just consumables—they are enablers of performance, longevity and sustainability. With the growing availability of advanced lubricants and condition-monitoring technologies, Indian cement plants have the opportunity to optimise their lubrication practices in line with global standards. Additionally, tightening environmental regulations and sustainability goals are driving the shift toward eco-friendly lubricants and responsible usage practices, making lubrication management a key factor in both operational and environmental performance.
As the industry moves forward, there is a growing realisation that lubrication excellence can be a competitive differentiator. This article explores the critical role of lubricants in cement manufacturing, the latest technological advancements, the environmental considerations shaping lubricant use, and the challenges and opportunities for cement producers in India aiming to maximise equipment reliability and operational efficiency.
The role of lubricants in cement manufacturing
Cement manufacturing involves heavy-duty machinery operating under extreme conditions—high temperatures, heavy loads and continuous operations. Lubricants are essential in minimising friction, reducing wear and tear, and preventing equipment failures. Proper lubrication ensures that components such as kilns, crushers and grinding mills function optimally, thereby reducing downtime and maintenance costs.
Moreover, the integration of advanced lubrication technologies has enabled predictive maintenance strategies. By monitoring lubricant conditions, operators can anticipate equipment issues before they escalate, allowing for timely interventions and uninterrupted production cycles.
“Lubricants play a crucial role in enhancing the efficiency and reliability of cement plant operations. High-performance lubricants reduce friction and wear in critical machinery such as crushers, kilns, mills, and conveyors, ensuring smoother operation and extending equipment life. By minimising mechanical breakdowns and unplanned downtime, they contribute to consistent production and lower maintenance costs. Additionally, specialised lubricants designed to withstand high temperatures, heavy loads, and dusty environments help maintain optimal performance under demanding conditions. Proper lubrication also improves energy efficiency by reducing power loss due to friction. In essence, the right lubrication strategy not only enhances equipment reliability and operational uptime but also supports overall cost-effectiveness and productivity in cement manufacturing,” says Hiten Ved, Sales Head, Royal Petro Specialities.
In addition to enhancing equipment longevity, lubricants are pivotal in ensuring uninterrupted production cycles. Cement manufacturing is a 24/7 operation, and any unexpected downtime due to mechanical failure can lead to significant financial losses. Lubricants with high thermal stability and oxidation resistance prevent the breakdown of oil films under intense heat, especially in applications like rotary kilns, vertical roller mills and clinker coolers. By reducing the likelihood of equipment seizures or breakdowns, these lubricants act as silent enablers of plant reliability and uptime.
Gaurav Mathur, Director and Chief Executive Officer, Global Technical Services, says, “Wall paintings in tombs show workers using water to move statues, indicating early recognition of lubrication. By 1400 BC, animal fat was used to lubricate chariot axles, ever since then mankind has been relentlessly working to improvise the efficiency of lubricants. Tribological advancements have propelled industrialisation in the world. Machines working in demanding environment need better performance, however merely just better lubricant that is made from highly refined base oils is not good enough. Mineral and synthetic base oils and advanced additives chemistry have given birth to advanced lubricants. These lubricants have better performance characteristics and longer service life.”
“However, the way lubrication is done is more critical and if lubrication is not performed in a proper way, highest performing lubricants would also under perform compared to the lowest specification product. Total Lubrication Management has to be implemented for better machine reliability, equipment availability and lower down time. Implementation of TLM has paid rich dividends in the industry. Pillars of TLM being, contamination free lubrication, regular testing of lubricants to access the lubricant and machine condition and regeneration of lubricants,” he adds.
Lubricants contribute directly to energy efficiency. Friction losses within rotating equipment can account for up to 30 per cent of the total energy consumption in certain plant areas. Advanced synthetic lubricants, with low traction coefficients and superior film strength, reduce this internal resistance, thus improving mechanical efficiency and lowering the plant’s overall energy footprint. As Indian cement plants pursue energy benchmarking and ISO 50001 certifications, the use of high-performance lubricants becomes an integral strategy in achieving energy conservation goals.
“The cement industry has many lubrication points that require NLGI Grade 2 grease that can be used in high temperature applications. These may include bearings on vibrating screens and roller mills; rotating joints on grinding units; and various shafts, pivots, and metal to metal contact points found throughout the plant. CorrLube™ VpCI® Lithium EP Grease has a dropping point of 360 °F (182 °C), allowing it to be used in a broad range of temperatures. For areas that need a slightly harder grease of NLGI Grade 3, EcoLine® Biobased Grease offers a
similar dropping point of 365 °F (185 °C), explain Julie Holmquist, Marketing Content Writer,
Cortec Corporation.
Market dynamics: growth and trends
The Indian industrial lubricants market was valued at $13.05 billion in 2024 and is projected to reach $ 20.72 billion by 2033, growing at a CAGR of 4.12 per cent. This growth is driven by the expanding industrial sector, increased mechanisation, and the adoption of advanced machinery requiring specialised lubricants.
In the cement sector specifically, the demand for high-performance lubricants is rising. The lubricants for cement market are estimated to be $ 2.5 billion in 2024 and is expected to reach $ 3.9 billion by 2033, at a CAGR of 5.3 per cent from 2026 to 2033. This surge is attributed to the need for lubricants that can withstand harsh operating conditions and enhance equipment reliability.
Advancements in lubrication technology
Recent years have witnessed significant advancements in lubrication technology tailored for the cement industry. Synthetic lubricants, known for their superior thermal stability and longer service life, are increasingly being adopted. These lubricants perform effectively under extreme temperatures and heavy loads, common in cement manufacturing processes.
Additionally, the development of bio-based lubricants offers environmentally friendly alternatives without compromising performance. These lubricants, derived from renewable sources, reduce the environmental footprint and align with global sustainability goals. Their biodegradability and low toxicity make them suitable for applications where environmental considerations are paramount.
Smart lubrication systems are another breakthrough in the cement industry. These systems use IoT-enabled sensors and controllers to monitor lubricant condition in real time—tracking parameters such as viscosity, temperature, contamination levels and usage. This data is integrated into plant maintenance software to automate lubricant replenishment and alert operators to potential failures. Predictive lubrication ensures that each component receives the right amount of lubricant at the right time, minimising waste, reducing manual intervention, and extending machinery life.
“Many VpCI® products can be applied to surfaces with minimal pre-cleaning, and the protective VpCI® layer typically does not need to be removed before equipment is put back into service. VpCI® ‘s save significant labor, time, and associated costs compared to methods that require extensive surface preparation (e.g., sandblasting) and post-application cleaning or degreasing. This allows for faster startup after maintenance,” elaborates Ana Juraga, Content Writer, Cortec Corporation.
Furthermore, Original Equipment Manufacturers (OEMs) and lubricant suppliers are collaborating to develop application-specific lubricants tailored to the unique operating conditions of cement manufacturing units. For example, gear oils designed for high-load kilns or open gear systems now come with superior Extreme Pressure (EP) additives and anti-wear properties to cope with shock loading and variable speed operations. These co-developed solutions not only enhance mechanical reliability but also ensure compatibility with diverse materials used in modern cement equipment, ensuring peak performance in both greenfield and brownfield plants.
Sustainability and environmental considerations
The cement industry is under increasing pressure to reduce its environmental impact. Lubricants contribute to this goal by enhancing energy efficiency and reducing emissions. High-quality lubricants decrease friction, leading to lower energy consumption and, consequently, reduced greenhouse gas emissions.
Furthermore, the use of long-life lubricants minimises the frequency of oil changes, thereby reducing waste generation and disposal issues. The shift towards bio-based and recyclable lubricants also supports circular economy principles, promoting resource efficiency and environmental stewardship.
A report by Klüber Lubrication India suggests that sustainability continues to be a key focus for industries, the Securities and Exchange Board of India (SEBI) has mandated Business Responsibility and Sustainability Reporting (BRSR) for the top 1,000 listed companies. This framework requires organisations to disclose their environmental, social and governance (ESG) initiatives, including energy conservation, emission reductions and resource optimisation. Beyond compliance, BRSR reporting allows companies to showcase their sustainability leadership and build investor confidence. Organisations that proactively address sustainability challenges are better positioned to attract long-term investors, secure financing, and maintain a competitive advantage in an evolving regulatory landscape.
The report also states that their high-performance synthetic lubricants play a crucial role in helping cement manufacturers meet these regulatory requirements by enhancing energy efficiency and reducing CO2 emissions in critical machinery such as vertical roller mills (VRMs) and main gearboxes. By adopting our energy-efficient solutions, companies can strengthen their BRSR compliance while achieving tangible operational benefits.
An emerging trend in the lubricant industry is the formulation of biodegradable lubricants specifically tailored for heavy industries like cement manufacturing. These eco-friendly alternatives are made from renewable base stocks and are designed to degrade naturally without leaving behind harmful residues. In environmentally sensitive zones or operations with high spill risk, such as open gear applications or hydraulic systems exposed to the elements, biodegradable lubricants offer a sustainable solution that aligns with stricter environmental regulations and the growing emphasis on corporate social responsibility (CSR) in India’s industrial sector.
KB Mathur, Founder and Director, Global Technical Services, says, “In the world of industrial machinery, lubricating oils while essential; are often misunderstood in terms of their life cycle. When oils are used in machinery, they don’t simply ‘DIE’. Instead, they become contaminated with moisture (water) and solid contaminants like dust, dirt and wear debris. These contaminants degrade the oil’s effectiveness but do not render it completely unusable. Used lubricants can be regenerated via advanced filtration processes/systems and recharged with the use of performance enhancing additives hence restoring them. These oils are brought back to ‘As-New’ levels. This new fresher lubricating oil is formulated to carry out its specific job providing heightened lubrication and reliable performance of the assets with a view of improved machine condition. Hence, contributing to not just cost savings but leading to magnified productivity, and diminished environmental stress.”
Lubricant manufacturers are increasingly focusing on circular economy principles, offering oil analysis, filtration and recycling services that extend lubricant life and minimise waste. Used oil regeneration programs not only reduce disposal costs but also help cement plants meet regulatory norms under the Hazardous Waste Management Rules of India. This closed-loop approach not only lowers the environmental burden but also enhances economic efficiency—making sustainability a dual benefit for operational and ecological performance. As cement companies work towards science-based targets and carbon neutrality, lubricant selection and management play a more strategic role in meeting these broader sustainability commitments.
Challenges and opportunities
Despite the benefits, the adoption of advanced lubricants in the Indian cement industry faces challenges. These include the higher initial costs of synthetic and bio-based lubricants and a lack of awareness about their long-term benefits. Additionally, the integration of lubrication management systems requires investment in training and infrastructure.
However, these challenges present opportunities for innovation and collaboration. Manufacturers
can work closely with lubricant suppliers to develop customised solutions that meet specific operational needs. Moreover, government incentives and regulatory frameworks promoting sustainable practices can accelerate the adoption of advanced lubrication technologies.
Another key challenge is the limited awareness and technical training available at the plant level regarding proper lubrication practices. Many maintenance teams still rely on outdated methods such as manual greasing or fixed-interval lubrication schedules, which often lead to over-lubrication, under-lubrication or lubricant contamination. This results in premature equipment wear and higher operating costs. There is a growing need for skill development programmes and collaboration with lubricant suppliers to train technicians on best practices, condition-based monitoring, and the use of smart lubrication systems.
“Oil in the machine is like blood in the human body. There is no rotating machine that works without lubricants (liquid, semi liquid or solid). Based on the machine component, type of lubricant is used to minimise the mechanical changes in the machine. Lubricant being the product that separates two or more materials under movement. With modern machines being more and more sophisticated and tolerances being finer than before, cleanliness of Lubricants is critical, would the source of contamination be internal wear or external contamination. These contaminations rupture and compromises lubricant film, contamination particles when come in-between the fine tolerances, become cause of catastrophic failure,” expounds Gaurav Mathur.
At the same time, the industry is witnessing an opportunity to leverage digitalisation in lubrication management. Advanced lubrication tracking tools, coupled with ERP and maintenance software, can now offer real-time visibility into lubricant consumption, scheduling and health diagnostics. Integration of AI-powered analytics helps predict equipment failure based on lubricant data, enabling a shift from reactive to predictive maintenance. For Indian cement manufacturers aiming to digitise plant operations as part of Industry 4.0, lubrication is an ideal entry point that delivers immediate ROI and long-term gains in efficiency, asset life and sustainability.
Conclusion
As the Indian cement industry continues its trajectory of growth, the role of high-performance lubricants in ensuring operational reliability, energy efficiency and cost savings cannot be overstated. From kilns and crushers to ball mills and gearboxes, modern lubrication solutions are critical in
reducing downtime and maximising equipment lifespan. With rising demand and increased production pressures, cement plants must adopt a proactive approach to lubrication management—viewing it not as a routine maintenance task, but as a strategic pillar of plant performance.
Recent advancements in lubricant technology, such as synthetic formulations, nano-additives, and smart dispensers, have opened new avenues for boosting equipment efficiency and longevity. Digital tools and IoT-based systems now allow plant operators to monitor lubricant condition in real time, enabling predictive maintenance and minimising the risk of failure. As cement manufacturers increasingly pursue digital transformation and automation under Industry 4.0 frameworks, lubrication systems must be seamlessly integrated into broader asset management strategies.
At the same time, sustainability imperatives are reshaping lubrication choices. There is growing emphasis on biodegradable lubricants, optimised lubricant consumption, and environmentally responsible disposal practices. Overcoming challenges such as limited awareness, inconsistent maintenance practices, and cost sensitivity will require collaboration between lubricant manufacturers, OEMs and cement producers. The opportunities, however, are substantial—by aligning lubrication strategies with efficiency, digitalisation and sustainability goals, the Indian cement industry can significantly enhance its competitiveness and resilience in the years ahead.
– Kanika Mathur
Concrete
We consistently push the boundaries of technology
Published
4 months agoon
April 18, 2025By
admin
Swapnil Jadhav, Director, SIDSA Environmental, discusses transforming waste into valuable resources through cutting-edge technology and innovative process solutions.
SIDSA Environmental brings decades of experience and expertise to the important niche of waste treatment and process technologies. As a global leader that is at the forefront of sustainable waste management, the company excels in recycling, waste-to-energy solutions and alternative fuel production. In this conversation, Swapnil Jadhav, Director, SIDSA Environmental, shares insights into their advanced shredding technology, its role in RDF production for the cement industry and emerging trends in waste-to-energy solutions.
Can you give us an overview of SIDSA Environmental’s role in waste treatment and process technologies?
SIDSA is a leading innovator in the field of waste treatment and process technologies, dedicated to delivering sustainable solutions that address the growing challenges of waste management.
SIDSA is a more than 52-year-old organisation with worldwide presence and has successfully realised over 1100 projects.
Our expertise is in the engineering and development of cutting-edge systems that enable the conversion of waste materials into valuable resources. This includes recycling technologies, waste-to-energy (W2E) systems, and advanced methods for producing alternative fuels such as refuse derived fuel (RDF). The organisation prioritises environmental stewardship by integrating energy-efficient processes and technologies, supporting industrial sectors—including the cement industry—in reducing their carbon footprint. Through our comprehensive approach, we aim to promote a circular economy where waste is no longer a burden but a resource to be harnessed.
How does SIDSA Environmental’s shredding technology contribute to the cement industry, especially in the production of RDF?
SIDSA’s shredding technology is pivotal in transforming diverse waste streams into high-quality RDF. Cement kilns require fuel with specific calorific values and uniform composition to ensure efficient combustion and operational stability, and this is where our shredding systems excel. In India, we are segment leaders with more than 30 projects including over 50 equipment of varied capacity successfully realised. Some of the solutions were supplied as complete turnkey plants for high capacity AFR processing. Our esteemed client list comprises reputed cement manufacturers and chemical industries. Our technology processes various types of waste—such as plastics, textiles and industrial residues—breaking them down into consistent particles suitable for energy recovery.
Key features include:
- High efficiency: Ensures optimal throughput for large volumes of waste.
- Adaptability: Handles mixed and heterogeneous waste streams, including contaminated or complex materials.
- Reliability: Reduces the likelihood of operational disruptions in RDF production. By standardising RDF properties, our shredding technology enables cement plants to achieve greater energy efficiency while adhering to environmental regulations.
What are the key benefits of using alternative fuels like RDF in cement kilns?
The adoption of RDF and other alternative fuels offers significant advantages across environmental, economic and social dimensions:
- Environmental benefits: Cement kilns using RDF emit fewer greenhouse gases compared to those reliant on fossil fuels like coal or petroleum coke. RDF also helps mitigate the issue of overflowing landfills by diverting waste toward energy recovery.
- Economic savings: Alternative fuels are often more cost-effective than traditional energy sources, allowing cement plants to reduce operational expenses.
- Sustainability and resource efficiency: RDF facilitates the circular economy by repurposing waste materials into energy, conserving finite natural resources.
- Operational flexibility: Cement kilns designed to use RDF can seamlessly switch between different fuel types, enhancing adaptability to market conditions.
What innovations have been introduced in waste-to-energy (W2E) and recycling solutions?
SIDSA’s machinery is meticulously engineered to handle the complex requirements of processing hazardous and bulky waste.
This includes:
- Robust construction: Our equipment is designed to manage heavy loads and challenging waste streams, such as industrial debris, tires and large furniture.
- Advanced safety features: Intelligent sensors and automated controls ensure safe operation when dealing with potentially harmful materials, such as chemical waste.
- Compliance with standards: Machinery is built to adhere to international environmental and safety regulations, guaranteeing reliability under stringent conditions.
- Modular design: Allows for customisation and scalability to meet the unique needs of various waste management facilities.
How does your organisation customised solutions help cement plants improve sustainability and efficiency?
We consistently push the boundaries of technology to enhance waste management outcomes.
General innovations and new product development focus on:
- Energy-efficient shredders: These machines consume less power while maintaining high throughput, contributing to lower operational costs.
- AI-powered sorting systems: Utilise advanced algorithms to automate waste classification, increasing material recovery rates and minimising errors.
- Advanced gasification technologies: Convert waste into syngas (a clean energy source) while minimising emissions and residue.
- Closed-loop recycling solutions: Enable the extraction and repurposing of materials from waste streams, maximising resource use while reducing environmental impact.
What future trends do you foresee in waste management and alternative fuel usage in the cement sector?
Looking ahead, several trends are likely to shape the future of waste management and alternative fuels in the cement industry:
- AI integration: AI-driven technologies will enhance waste sorting and optimise RDF production, enabling greater efficiency.
- Bio-based fuels: Increased use of biofuels derived from organic waste as a renewable and low-carbon energy source.
- Collaborative approaches: Strengthened partnerships between governments, private industries and technology providers will facilitate large-scale implementation of sustainable practices.
- Circular economy expansion: The cement sector will increasingly adopt closed-loop systems, reducing waste and maximising resource reuse.
- Regulatory evolution: More stringent environmental laws and incentives for using alternative fuels will accelerate the transition toward sustainable energy solutions.
(Communication by the management of the company)