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The Importance of scientific lubrication management

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Good machine lubrication can lead to energy savings and an improved mechanical maintenance, thus helping in corporate profitability.

Energy conservation is very important to the cement industry, as important as conserving natural resources, reducing emissions and improving profitability; and the proper selection and use of high-performance lubricants plays a vital role here. It is possible to make dramatic gains in energy efficiency by reducing friction, and the best way to do to that is to employ good lubrication practices, use high performance lubricants and adopts lubrication reliability best practices. Speaking about New Age lubricants and emerging trends in the market KB Mathur, Director, Global Technical Services, says, "Lubricating oils are improving with technology. There have been a lot of R&D activities undertaken by oil and additive companies. For the modern day lubricant, there is the need to meet environmental requirements; Euro IV and Euro V are not too far away." Mathur then adds, "Keeping in view the price increase in mineral oil base stocks and also the need for high performance long drain oils, synthetic lubricants are emerging as a great future substitute for mineral oils. Though the price of synthetic oil is three to five times more than that of mineral oil, in view of the increase in the prices of mineral oils and the long life of synthetic oils, it is expected that in the next few years, the market will embrace synthetic oil, and mineral oil will be substituted by synthetic oil in a very big way. At present, mineral oils constitute almost 80 per cent of the market. By 2025, mineral oils will only be 40 per cent or 50 per cent of the market, and the balance will be synthetic oils."

Akhil Jha, Vice-president – Technical, Shell India Markets, is on the same page as KB Mathur. According to Akhil Jha, the cement industry has slowly started accepting synthetic lubricants given the high performance requirements in severe and highly loaded applications like VRM rollers, kiln support roller bearings, compressor oils, apart from benefits of reduced energy consumption. Akhil says, "Synthetic lubricants offer a longer oil life which can reduce the number of oil changes and hence, increase productive time. The cement industry is now using only specialty lubricants instead of bituminous compound for open gear and wire rope lubricants, and these are not as environment friendly as synthetic lubricants."

In the following pages, we give an insight into the importance of proper lubrication.

Parameters for total lubrication management implementation

  • Select correct grade and viscosity of lubricants for the specific application and ensure this grade has OEM acceptance.
  • Store oil in a clean environment to keep ituncontaminated in storage. Greases should be stored indoors to avoid day/night temperature fluctuations. This can lead to soap-oil separation, making grease unfit for usage. Good housekeeping at lubricants storage is the most important and is the fulcrum of the entire activity.
  • Adopt colour coding to eliminate any possibility of mix-up in oils leading to contamination.
  • Use good and clean lubrication equipment to ensure feeding uncontaminated lubricants to machines.
  • Keep oil clean by providing breathers on machines oil sump and inspect oil filters on machines oil systems regularly.
  • Test oils regularly for oil condition and machine condition, i.e, conta¡mination, additive depletion, wear debris and elemental analysis, etc.
  • Regular training to be given lubrication staff for correct lubrication techniques. All lubrication staff should be skilled.
  • Enforce housekeeping at oil storage, handling and dispensing area.
  • Keep oil points on the machine clean to ensure that no dust or dirt particles go in the machine sump along with the oil.
  • Adopt a target based oil management system. Ensure that at least 95 per cent of the oil is drained out from the sump before feeding new oil into the sump, failing which; new oil may be added to the muck in the oil sump or machine system.

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Concrete

Energy costs and supply are volatile

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Vikas Garg, Energy Manager, Udaipur Cement Works Ltd (UCWL), discusses sustainability, cost reduction and meeting regulatory requirements while maintaining high production standards.
Provide an overview of your company’s current initiatives and strategies to enhance energy efficiency in cement production.
Enhancing energy efficiency in cement production is crucial for reducing costs, minimising environmental impact, and meeting regulatory requirements. Our company is adopting various initiatives and strategies to improve energy efficiency like:
  • Substitution of fossil fuels and raw material with alternative fuels like waste derived fuels and industrial by-products.
  • Implementation of ML/AI based process optimisation systems to optimise the kiln and grinding operations.
  • Implementing EMS for identifying areas for improvement, and ensuring energy efficiency goals are met with.
  • Improvement in kiln efficiency by upgrading or retrofitting kilns with more efficient preheaters and pre-calciners to reduce the amount of fuel required, leading to energy savings.
  • Energy efficient grinding technologies by replacing traditional ball mills with vertical roller mills and using high-efficiency separators in grinding circuits.
  • Focus on increasing blended cement.
What are the key challenges your company faces in implementing energy-efficient practices in the cement manufacturing process?
Implementing energy efficient practices in the cement manufacturing process presents several challenges. Here are some of the key challenges our companies often face:
  • The upfront costs for adopting energy-efficient technologies can be substantial. For companies with tight budgets or operating in low-margin markets, capital investment can be prohibitive.
  • Retrofitting existing equipment to accommodate new technologies may require extensive modifications, leading to downtime and additional costs
  • The regulatory landscape for energy use and emissions is constantly changing.
  • Energy costs and supply are volatile, making it difficult to predict the return on investment for energy-efficient initiatives.
  • Measuring the actual energy savings and verifying the effectiveness of new technologies are sometimes complex.
  • Maintaining energy efficiency measures without compromising production in high demand periods is challenging.
How do advancements in technology contribute to improving energy efficiency in your cement plants? Can you provide some examples?
Advancements in technology play a crucial role in improving energy efficiency in cement plants. Here are some ways in which these
technologies contributed:
  • Implementation of ML/AI based process optimisation system helped in optimising kiln and grinding operations
  • Waste Heat Recovery (WHR) systems help in reducing energy cost and dependency on grid, replacing old ball mills with a VRM reduced energy consumption in the grinding process by up to 30 per cent.
  • IoT-enabled sensors monitor energy use across different processes and automatically adjust operations to minimise energy waste, such as reducing power to idle equipment or optimising lighting and HVAC systems.
  • The use of multi-channel burners, which optimise the mix of primary and secondary air, improved combustion efficiency in the kiln, reducing energy use and emissions.
  • EMS provided an integrated platform for monitoring, analysing, and optimising energy use across the entire plant. It helped in identifying energy-saving opportunities and track the performance of implemented measures.
  • Floating solar technology improved overall renewable energy integration.
What role does renewable energy play in your overall strategy for energy efficiency, and how is it integrated into your cement manufacturing operations?
Renewable energy plays a significant role in enhancing energy efficiency and reducing the carbon footprint in cement manufacturing. Integrating renewable energy into cement operations aligns with broader sustainability goals and helps in mitigating the environmental impact of the industry. We have reduced our needs of electricity from the grid up to 50 per cent by utilising renewable energy.
Can you discuss any specific projects or upgrades your company has undertaken to reduce energy consumption and increase efficiency in your cement production facilities?
Cement companies have undertaken various projects and upgrades to reduce energy consumption and increase efficiency in their production facilities. Here are some specific examples of such initiatives:
  • Alternative Fuels and Raw Materials (AFR)
  • Installation of Vertical Roller Mills (VRM)
  • Modifications in Preheater and Kiln Burners.
  • Energy Management Systems (EMS)
  • Clinker Substitution Projects
  • ML / AI based Digitalisation and Automation Projects
  • Solar Power Integration
  • Modifications in Waste Heat Recovery (WHR) Systems to increase generation.
How do you measure and monitor energy efficiency in your cement manufacturing processes, and what metrics are most critical for your company?
Measuring and monitoring energy efficiency in cement manufacturing is essential for optimising operations, reducing energy consumption, and minimising environmental impact:
  • Energy Management Systems (EMS): EMS track energy consumption at different stages of cement production, identify inefficiencies, and suggest corrective actions.
  • Key Performance Indicators (KPIs)
  • Critical KPIs:- Specific Energy Consumption (SEC):
  • kWh/tonne of cement, kcal/kg of clinker
  • – CO2 emissions per tonne of cement
  • Fuel mix ratio
  • Clinker factor
  • Energy audits and benchmarking audit results are compared with industry benchmarks to evaluate performance and set improvement targets.
  • Data analytics and reporting: Data collected from various monitoring systems is analysed to generate detailed reports on energy performance.
  • Energy performance certificates and certifications such as ISO 50001.
  • Energy forecasting and planning.
What partnerships or collaborations has your company engaged in to promote and enhance energy efficiency within the cement industry?
UCWL is engaged in partnerships and collaborations to promote and enhance energy efficiency within the industry.
  • Collaborations with technology providers of ML/AI based process optimisation systems.
  • Global cement and concrete association (GCCA).
  • National cement associations: collaborating with national cement associations allows companies to contribute to and benefit from industry-wide efforts to improve energy efficiency through shared knowledge, resources and advocacy.
  • Supply chain collaborations like green procurement practices and efficient transportation networks.
  • Collaborating with academic institutions for educational programs, workshops, and research can help develop the next generation of energy-efficient technologies and practices in the cement industry.
  • Carbon trading and offset programmes.
How does your company balance the need for energy efficiency with maintaining high production levels and meeting market demands?
Balancing energy efficiency with maintaining high production levels and meeting market demands is a critical challenge for cement companies. Achieving this balance involves strategic planning, process optimisation, and continuous improvement.
  • Optimising production processes by using sensors and automation systems to monitor and adjust real time operation.
  • Flexible energy management by participating in demand response programs which can help manage energy use during peak periods and using energy storage systems to manage fluctuations in energy supply.
  • Balancing production and efficiency targets by setting key performance indicators (KPIs) for both production output and energy efficiency ensuring that both goals are tracked and managed effectively.
  • Employee training and engagement.
  • Implementing best practices and industry standards.
  • Strategic production planning using forecasting tools to predict market demand and adjust production schedules accordingly.
Looking ahead, what are your company’s strategic priorities for further improving energy efficiency, and how do you plan to address future energy challenges in the cement industry?
UCWL is likely to focus on several strategic priorities to further improve energy efficiency and address future energy challenges. These priorities typically align with broader sustainability goals and emerging trends in technology and regulation such as:
  • Expanding renewable energy integration because increasing the use of renewable energy sources helps reduce reliance on fossil fuels and lower carbon emissions.
  • Accelerating technology adoption by integrating digital tools, automation and energy-efficient equipment
  • Enhancing waste heat recovery and improving waste heat recovery systems can significantly reduce energy consumption.
  • Researching and producing low-carbon cements that require less energy to produce and reduce overall emissions.
  • Improving energy efficiency in existing operations by energy audits and energy management systems.
  • Adopting circular economy principles by implementing practices to recycle and reuse materials within the production process, such as
  • using industrial by-products as supplementary cementitious materials.
  • Strengthening regulatory and industry collaborations working with industry peers and organisations to share best practices, collaborate on research, and develop common standards for energy efficiency.
  • Addressing future energy market dynamics by developing flexible energy procurement strategies to manage cost fluctuations and ensure stable energy supply.
– Kanika Mathur

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Concrete

Regulatory and compliance challenges play a significant role

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Piyush Joshi, Associate Vice President – Systems and Technical Cell, Wonder Cement, shares their strategies and initiatives aimed at enhancing energy efficiency in cement production, showcasing their commitment to sustainability through innovation and advanced technology.

Can you provide an overview of your company’s current initiatives and strategies to enhance energy efficiency in cement production?
At Wonder Cement, our commitment to energy efficiency is integral to our operational philosophy, encompassing every facet of our production process. One of our cornerstone initiatives is the deployment of Vertical Roller Mills (VRMs), which are recognised for their superior energy efficiency compared to traditional ball mills. These VRMs are equipped with high-efficiency separators, significantly reducing the energy required for cement grinding while maximising output.
We have also invested substantially in Waste Heat Recovery Systems (WHRS) across our facilities. These systems effectively capture waste heat from our kilns, converting it into usable electricity. This approach not only diminishes our dependency on external energy sources but also supports our sustainability objectives by curbing greenhouse gas emissions. Additionally, we have optimised our operational processes through the implementation of energy-efficient lighting, the utilisation of variable frequency drives (VFDs) on motors, and the execution of regular energy audits to identify and mitigate inefficiencies. Our unwavering dedication to innovation and the adoption of cutting-edge technology ensures that Wonder Cement remains a leader in energy efficiency within the cement industry.

What are the key challenges your company faces in implementing energy-efficient practices in the cement manufacturing process?
While our energy efficiency efforts have yielded significant results, the implementation of such practices within the cement manufacturing process presents several challenges. Chief among these is the substantial capital investment required to upgrade existing infrastructure to more energy-efficient alternatives. Integrating new energy efficient systems with existing infrastructure can be technically challenging and may cause temporary disruptions in production processes. Although the long-term benefits of these upgrades are evident, the initial financial outlay can be substantial, particularly when applied across multiple production sites.
Another persistent challenge is the variability in raw material quality, which can directly impact the efficiency of our kilns and mills. Fluctuations in the chemical composition of raw materials necessitate frequent adjustments in our processes, potentially leading to suboptimal energy consumption. Furthermore, the inherently energy-intensive nature of cement production, especially during the clinkerisation process, means that achieving significant reductions in energy use often requires comprehensive overhauls of traditional methods rather than incremental improvements.
Regulatory and compliance challenges play a significant role. Ensuring that our energy efficiency measures align with both local and international environmental standards is a complex process, particularly in regions with stringent regulations. Despite these challenges, Wonder Cement is steadfast in its commitment to overcoming obstacles through continuous innovation, strategic collaboration, and a focus on sustainable practices.

How do advancements in technology contribute to improving energy efficiency in your cement plants? Can you provide some examples?
Technological advancements are pivotal in enhancing energy efficiency within Wonder Cement plants. One of the key innovations we have embraced is the integration of automation and digitalisation throughout our production processes. By implementing advanced process control (APC) systems, we can monitor and optimise our operations in real-time, ensuring the most efficient use of energy at all times. These systems leverage data analytics and machine learning algorithms to predict and address energy inefficiencies proactively, resulting in substantial energy savings.
Another significant technological advancement is the incorporation of alternative fuels within our kilns. By utilising waste-derived fuels, such as refuse-derived fuel (RDF) and biomass, we reduce our reliance on traditional fossil fuels. This not only lowers our carbon footprint but also enhances the energy efficiency of our kilns by maintaining a consistent energy input with minimal fluctuations. The adoption of smart sensors and Internet of Things (IoT) devices has further augmented our energy management capabilities. These technologies provide real-time insights into energy consumption across various stages of production, enabling rapid identification and resolution of inefficiencies. For example, our predictive maintenance programs, powered by IoT, allow us to foresee equipment failures and schedule maintenance proactively, thereby reducing downtime and ensuring continuous, efficient operations.

What role does renewable energy play in your overall strategy for energy efficiency, and how is it integrated into your cement manufacturing operations?
Renewable energy is a fundamental component of Wonder Cement’s broader energy efficiency strategy. We have integrated renewable energy sources, such as solar and wind power, into our manufacturing operations to reduce our reliance on non-renewable energy. Our solar power plants, strategically positioned across our manufacturing sites, contribute significantly to our overall energy needs. By generating clean energy on-site, we not only reduce our electricity costs but also achieve substantial reductions in carbon emissions, underscoring our commitment to sustainability.
In addition to on-site renewable energy generation, we have entered into power purchase agreements (PPAs) with renewable energy providers. These agreements guarantee a consistent supply of green energy to our plants, further diminishing our reliance on grid power derived from fossil fuels. Moreover, our participation in carbon credit markets, facilitated by the integration of renewable energy, has opened up additional revenue streams while reinforcing our role as a responsible corporate citizen.
Our approach to renewable energy extends beyond electricity generation. We are actively exploring the potential of renewable fuels for our kiln operations. Through partnerships with research institutions and technology providers, we are investigating the viability of hydrogen and other renewable energy sources to further reduce our carbon footprint and enhance energy efficiency.

Can you discuss any specific projects or upgrades your company has undertaken to reduce energy consumption and increase efficiency in your cement production facilities?
Wonder Cement has embarked on several key projects aimed at reducing energy consumption and enhancing efficiency across our production facilities. A prominent example is the installation of high-efficiency clinker coolers, designed to maximise heat recovery from the clinker. This recovered heat is then utilised to preheat raw materials, significantly reducing the energy required for subsequent grinding processes. Another critical upgrade involves the widespread implementation of variable frequency drives (VFDs) across our production lines. VFDs allow us to adjust motor speeds based on real-time load requirements, ensuring that we use only the necessary amount of energy for each operation. This has led to considerable energy savings, particularly in our grinding and milling processes.
We have also modernised our lighting systems by transitioning to LED technology, which is notably more energy-efficient and durable compared to traditional lighting solutions. This transition not only reduces our energy consumption but also lowers maintenance costs. Our commitment to continuous improvement is further demonstrated through regular energy audits and the implementation of advanced energy management systems (EMS) that meticulously track and optimise energy usage across all our facilities.

How do you measure and monitor energy efficiency in your cement manufacturing processes, and what metrics are most critical for your company?
Precise measurement and monitoring of energy efficiency are paramount to achieving our sustainability objectives. We have established a robust energy management system (EMS) that delivers real-time data on energy consumption across every stage of our production process. This system is equipped with advanced metering and monitoring tools that track energy usage at granular levels, enabling us to swiftly identify inefficiencies and implement corrective measures.
Among the critical metrics we monitor are specific energy consumption (SEC), which quantifies the energy required to produce a unit of cement, and thermal energy consumption (TEC), which tracks the energy utilised during the clinkerisation process. By closely monitoring these metrics, we can assess the effectiveness of our energy efficiency initiatives and make informed decisions to further optimise our operations. In addition to continuous monitoring, we conduct regular energy audits to evaluate our performance against industry benchmarks and identify opportunities for improvement. These audits, conducted by both internal teams and external experts, ensure that our energy management practices remain objective, accurate, and aligned with industry best practices. The insights gained from these audits are instrumental in refining our energy management strategies and setting ambitious targets for energy reduction.
To promote energy efficiency through innovations, we are having groups of employees at every
production centre for identification, evaluation and execution of new ideas related to energy efficiency for continual improvement.

What partnerships or collaborations has your company engaged in to promote and enhance energy efficiency within the cement industry?
Collaboration is a cornerstone of Wonder Cement’s approach to enhancing energy efficiency within the cement industry. We actively engage with various stakeholders, including technology providers, industry associations, and research institutions, to promote and advance our energy efficiency initiatives.
Our partnerships with technology providers are instrumental in integrating state-of-the-art solutions into our operations, ensuring that we remain at the forefront of energy efficiency advancements. Additionally, our participation in industry associations and knowledge-sharing platforms enables us to exchange best practices with our peers and stay informed about emerging trends and technologies.
We also collaborate with research institutions to explore innovative materials and processes that can further reduce our energy consumption. These collaborations have led to pilot projects where novel solutions are tested and validated before being implemented on a larger scale across our production facilities. Through these partnerships, we are not only advancing our energy efficiency goals but also contributing to the broader sustainability of the cement industry.

How does your company balance the need for energy efficiency with maintaining high production levels and meeting market demands?
We recognise the importance of balancing energy efficiency with maintaining high production levels and meeting market demands. Achieving this balance requires a strategic approach that integrates energy efficiency into every aspect of our production process without compromising on output quality or quantity.
One of the key strategies we employ is the use of advanced process control (APC) systems that optimise our operations in real-time. These systems enable us to maintain consistent production levels while minimising energy consumption by adjusting process parameters based on real-time data. This ensures that we achieve maximum efficiency without disrupting our production schedules. We also emphasise continuous improvement through the application of lean manufacturing principles, which focus on the elimination of waste and the efficient use of resources. By streamlining our processes and reducing inefficiencies, we can maintain high production levels while minimising energy usage. Additionally, our investment in employee training ensures that our workforce is equipped with the necessary knowledge and skills to operate our facilities efficiently, contributing to both productivity and energy efficiency.

Looking ahead, what are your company’s strategic priorities for further improving energy efficiency, and how do you plan to address future energy challenges in the cement industry?
Looking ahead, Wonder Cement is committed to further advancing our energy efficiency through a combination of technological innovation, process optimisation, and strategic investments. Our primary focus will be on expanding our use of renewable energy sources, particularly solar and wind power, to meet a larger portion of our energy needs. We are also exploring the potential of emerging technologies, such as carbon capture and utilisation (CCU) and hydrogen-based fuels, to further reduce our carbon footprint and enhance energy efficiency.
In addition to technological advancements, we plan to continue our efforts in process optimisation through the implementation of advanced data analytics and artificial intelligence (AI) in our energy management systems. These tools will enable us to identify and address inefficiencies in real-time, ensuring that we maintain optimal energy usage at all times.
We are also committed to expanding our collaborations with industry stakeholders, research institutions, and technology providers to drive innovation and share best practices in energy efficiency. By staying at the forefront of industry trends and continuously challenging ourselves to improve, we are confident that we can meet the future energy challenges of the cement industry while maintaining our position as a leader in sustainability.

– Kanika Mathur

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Concrete

Installing a solar system is just the first step

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Raman Bhatia, Founder and Managing Director, Servotech Power Systems, talks about innovative approaches to advancing energy efficiency in the solar sector, from embracing the ‘Make in India’ initiative to pioneering new technologies.

Can you provide an overview of Servotech Power Systems’ contributions to energy efficiency in the solar sector?
Throughout its journey with a strong motto of providing high-quality solar solutions, Servotech made noteworthy contributions towards energy efficiency in the solar sector, through innovative technologies and solutions. By developing high-efficiency solar solutions that are both sustainable and reliable, Servotech has played its part in making solar energy a household name. The company has expanded its reach across various sectors. Servotech’s residential solar solutions empower homeowners to reduce their carbon footprint and electricity bills. The company provides solar solutions for industries, helping them reduce energy costs, improve their environmental quotient and comply with sustainability regulations. Servotech caters to the commercial sector by offering rooftop and ground-mounted solar power plants helping them reduce electricity costs and enhance their brand image, Lastly, the company has been actively involved in executing solar projects for government institutions, aiding in the country’s renewable energy goals and by providing efficient and reliable solar solutions, we contribute to the government’s efforts in promoting clean energy adoption.

What role does the ‘Make in India’ initiative play in your strategy to promote energy efficiency and sustainable solutions?
Make in India, a wonderful initiative by our government, has definitely pushed manufacturers across all sectors, especially our sector, which is the renewable energy sector towards indigenous manufacturing. By manufacturing solar components locally, we significantly reduce the carbon footprint associated with transportation and logistics. Local production often leads to cost reductions in solar products which makes solar energy more affordable for consumers, encouraging wider adoption and contributing to energy efficiency. The Make in India initiative also helps create employment opportunities in the solar sector, leading to skill development and a larger workforce dedicated to renewable energy. Domestic manufacturing reduces reliance on imports and strengthens the supply chain, ensuring uninterrupted production and reducing vulnerabilities to global disruptions.

How has Servotech adapted its solar solutions to meet the evolving energy efficiency standards?
Well, it has been more than two decades now. During this long journey, we have constantly worked on ourselves, renovated, and innovated ourselves to keep up with the evolving energy efficiency standards in terms of product development, innovation and R&D. We have consistently incorporated the latest advancements in solar technology that includes the use of higher efficiency solar cells, advanced inverters, and optimised system components. We introduced innovative solar products and solutions that meet the evolving energy efficiency standards. This involves continuous research and development to create more efficient and sustainable products. We prioritise product performance and rigorous testing and quality control measures ensure that our products meet or exceed industry benchmarks and this relentless pursuit of excellence has positioned us as a leader and has helped us in delivering efficient and sustainable
solar solutions.

Could you elaborate on the significance of the engineering and design process in achieving energy efficiency in your solar EPC projects?
The engineering and design phase in solar EPC projects lays the foundation for optimal performance. It involves a careful analysis of site conditions, including solar radiation, shading and environmental factors. By carefully selecting high-performance components and designing the system for optimal orientation and tilt, engineers maximise energy capture. Additionally, this phase focuses on minimising energy losses through efficient wiring, component placement, and system integration. A well-engineered design ensures the solar system operates at peak performance, delivering substantial energy savings and a strong return on investment.

What measures does Servotech implement during the procurement and project execution phases to ensure optimal energy efficiency in its solar power projects?
Constructing a solar system involves a lot of phases with procurement and project execution being the most important ones. During the procurement phase, we prioritise the development of high-efficiency solar modules, inverters and other components. Rigorous quality assurance processes and performance testing are conducted to verify that all components meet or exceed industry standards and are compatible with project requirements. In the project execution phase, Servotech conducts detailed site assessments to determine the optimal system orientation, tilt angle and shading analysis. Strict adherence to installation guidelines and best practices ensures proper system integration and performance. Post-installation, the system undergoes comprehensive testing to verify energy efficiency and performance. Monitoring systems are often incorporated to track performance and identify areas for improvement.

How does your operation and maintenance service contribute to maintaining and enhancing the energy efficiency of
installed systems?
Installing a solar system is just the first step; operating and maintaining it properly is equally important to ensure the system runs efficiently over the long term and for that we conduct regular inspections to detect and address issues like module degradation and inverter malfunctions early, preventing energy losses. Our team ensures optimal performance through routine cleaning and maintenance, which maximises sunlight absorption and energy generation. Continuous performance monitoring using advanced data analytics allows us to optimise system settings, while preventive and corrective maintenance activities minimise downtime and equipment failures. By utilising techniques such as module-level monitoring and inverter tuning, Servotech ensures that solar systems operate at peak efficiency, delivering maximum energy output and long-term cost savings.

In your view, how important is radiation data analytics and project feasibility studies in the planning of energy-efficient solar projects?
Radiation data analytics and project feasibility studies are absolutely critical for the successful planning of energy-efficient solar projects. Accurate radiation data allows for precise predictions of energy generation, system sizing and financial returns. By analysing radiation patterns, engineers can optimise system design, including orientation and tilt angles, to maximise energy capture. Feasibility studies help identify potential risks, such as shading or grid constraints, enabling proactive solutions. These studies also assess financial viability, considering ROI, payback periods, and incentives, ensuring projects are economically sound enabling data-driven decision-making throughout the project lifecycle.

Looking ahead, what are the key trends and innovations in energy efficiency that Servotech Power Systems plans to focus
on in the near future?
Energy efficiency is a dynamic realm with constant emergence of trends and innovations. The company recognises the value these trends and innovations will add in the growth of energy efficiency in the solar sector. Our innovative product solar powered EV charging carport integrates solar power with EV charging, which is an innovative take on how we can charge our EVs and also save energy from renewable sources. Additionally, Servotech plans to invest in enhancing the quality of bifacial solar panels to increase energy generation. We are investing in research and development of major solar developments and understand the importance of energy storage in enhancing grid stability and optimising energy utilisation and grid optimisation. In fact, we are developing an energy storage system that will
accelerate the adoption of renewable energy in low electricity areas.
Exploring digitisation of energy efficiency, we are focused on developing advanced monitoring and control systems to optimise system performance, predict maintenance needs. Lastly, to meet the growing demand for clean energy, we are exploring the integration of solar power with other renewable energy sources like wind and hydro to create hybrid power systems.

– Kanika Mathur

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