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Are you still using Solar ? Understanding ORC vs. Solar Thermal: Choosing the Right Technology for Energy Efficiency

Understanding ORC vs. Solar Thermal, Choosing the Right Technology for Energy Efficiency , As industries around the world strive for sustainable operations, energy efficiency technologies are at the forefront of transformation. Two powerful solutions : Organic Rankine Cycle (ORC) systems and solar thermal technology , stand out in the race toward cleaner energy. While both play a role in reducing carbon footprints, they serve different purposes and are suited for specific applications. In this blog, we’ll dive into the key differences between ORC and solar thermal, helping you understand which technology may best serve your energy needs. What is the Organic Rankine Cycle (ORC)? The Organic Rankine Cycle (ORC) system is an innovative solution for converting low- to medium-temperature heat into electricity. Unlike traditional power generation that uses water as a working fluid, ORC uses organic fluids with lower boiling points, making it possible to harness heat that would otherwise be too low to use efficiently. Key Applications of ORC Advantages of ORC What is Solar Thermal Technology? Solar thermal technology, on the other hand, harnesses the sun’s energy to generate heat, which can be used directly in industrial processes or to produce steam for electricity generation. This technology often uses solar collectors that absorb sunlight and transfer the heat to fluids, which can then be used for various applications. Key Applications of Solar Thermal Advantages of Solar Thermal Comparing ORC and Solar Thermal: Key Differences While both ORC and solar thermal contribute to sustainability, they work in different ways and are suited for distinct scenarios. Feature ORC Systems Solar Thermal Systems Energy Source Waste heat, biomass, geothermal Sunlight Dependability Operates independently of sunlight Sunlight-dependent; storage needed for off-hours Temperature Range Effective starting from 150°C Works well with concentrated sunlight for high temperatures Primary Use Case Power generation from ORC Industrial/commercial heating or pre-heating Environmental Impact Reduces waste by utilizing excess heat Directly harnesses renewable solar energy Choosing Between ORC and Solar Thermal: Which is Right for You? When to Consider ORC Choose ORC if your operations produce waste heat that could be repurposed into electricity. ORC systems can help you tap into this resource, providing a continuous, weather-independent energy source. It’s especially beneficial for industries where heat is generated as a by-product, as it turns waste into value and significantly improves energy efficiency. When to Consider Solar Thermal If your facility is in a location with abundant sunlight, and your energy needs are mainly for heat (not electricity), then solar thermal technology may be the better choice. Solar thermal systems are particularly effective in sunny regions and for industries that can use heat directly during the day, such as food and beverage production, textiles, and drying processes. ORC and Solar Thermal: A Complementary Strategy In some cases, ORC and solar thermal can work together for greater efficiency. For example, solar thermal systems could handle peak heating needs during sunny hours, while ORC systems capture and repurpose any waste heat produced by other processes to generate additional power. This combination can create a more resilient, low-carbon energy system, especially useful for industries with variable energy needs. Are We Still Using Solar? Yes, solar thermal technology continues to be a highly relevant part of the energy mix, particularly for applications that benefit directly from renewable heat. While ORC offers advantages in waste heat recovery, solar is unmatched as a low-cost, carbon-free source for heating. Together, these technologies represent complementary tools in the broader move towards cleaner, more sustainable energy systems. Why ORC Could Be the Best Choice for Your Industry When it comes to energy efficiency and sustainability, both ORC and solar thermal systems offer distinct advantages. However, for industries aiming for high energy recovery from waste heat and consistent year-round performance, ORC systems stand out as an exceptional choice. While solar thermal systems are valuable in certain conditions, ORC technology provides unique benefits that make it a highly versatile solution. Key Benefits of ORC Systems Choosing ORC: A Step Toward Sustainable Energy Leadership In a world increasingly focused on sustainability, choosing ORC technology isn’t just about improving efficiency it’s a statement of environmental responsibility and innovation. By investing in ORC, companies position themselves as leaders in energy efficiency and resource optimization, setting a strong example in their industries. While solar thermal technology remains a valuable tool in the renewable energy toolkit, ORC offers unmatched benefits for industries looking to harness waste heat and achieve energy independence. By making ORC part of your energy strategy, you’re not only driving cost savings and environmental benefits but also future-proofing your operations in an energy-conscious world.

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Pathway to Net-Zero, Strategies for a Sustainable Future

Introduction: What is Net-Zero? Achieving net-zero emissions means finding a balance between the greenhouse gases (GHG) we emit into the atmosphere and the amount we can remove. In essence, it results in zero net emissions. For businesses and industries, reaching this goal is vital in the fight against climate change. But how do we get there? The answer lies in energy efficiency and clean technologies. The Urgency of Achieving Net-Zero Today, achieving net-zero isn’t just a nice-to-have; it’s a necessity. Our planet is grappling with escalating environmental challenges, and global industries are major contributors to carbon emissions. Without immediate action, we risk missing the 1.5°C warming limit set by the Paris Agreement. To reach net-zero, we need comprehensive changes across all sectors, and at Aspiration Cleantech Ventures, we’re leading the charge. How Energy Efficiency Drives Net-Zero One of the most powerful tools in our arsenal for reducing emissions is energy efficiency. By optimizing processes and technologies, industries can significantly lower their energy consumption and reduce their reliance on fossil fuels. Key Strategies for Achieving Net-Zero The Economic Benefits of Energy Efficiency Investing in energy-efficient technologies isn’t just an environmental win; it brings significant economic advantages, too. By lowering energy consumption, businesses can cut operating costs, enhance competitiveness, and shield themselves from rising energy prices and stricter regulations. At Aspiration Cleantech Ventures, we’ve partnered with companies across various sectors from manufacturing to food processing to help them reduce energy bills and improve their environmental footprint. Our innovative Energy allows industries to transition to cleaner energy solutions without hefty upfront investments, making it easier to achieve net-zero goals. Industries We Serve and Application Our solutions cater to a diverse range of industries, including: The Role of Technology in Driving Change Technology plays a pivotal role in the journey to net-zero. Innovations in energy storage, grid management, and smart systems are transforming how industries consume energy. For example, advanced energy management systems can analyze data in real time, helping companies optimize energy usage and identify inefficiencies. By adopting these technologies, businesses can make informed decisions that not only reduce emissions but also lower costs. Collaboration Across Sectors Achieving net-zero requires a united front. Collaboration between industries, governments, and non-profits is essential to share best practices and drive innovation. By working together, stakeholders can create comprehensive solutions that address specific sector challenges while leveraging shared resources. Initiatives such as industry partnerships or cross-sector forums can facilitate knowledge exchange, making the journey to net-zero more achievable for all. Emphasizing a Circular Economy Transitioning to a circular economy is integral to achieving net-zero. This approach minimizes waste and promotes the continual use of resources, creating a sustainable cycle. Industries can adopt practices such as recycling, refurbishing, and repurposing materials, thereby reducing their carbon footprint. By embracing circular economy principles, businesses can not only lower emissions but also enhance their resilience against supply chain disruptions. Consumer Awareness and Engagement Today’s consumers are increasingly aware of the environmental impact of their choices. They are actively seeking brands that prioritize sustainability and demonstrate a commitment to reducing their carbon footprint. By engaging with consumers on sustainability initiatives, companies can strengthen their brand loyalty and differentiate themselves in the market. Transparency in sustainability practices and open communication about net-zero goals can foster trust and encourage customers to support businesses that are making a positive impact. The Global Perspective The pursuit of net-zero is not limited to one region or country; it’s a global movement. Many nations are committing to ambitious climate targets, and businesses must align their strategies with these international efforts. By participating in global initiatives and adhering to internationally recognized standards, companies can enhance their credibility and contribute to the collective goal of a sustainable future. Conclusion: A Collaborative Path to Net-Zero Achieving net-zero is a monumental challenge, but it’s one we can tackle together. It will require collaboration across sectors, governments, and businesses. At Aspiration Cleantech Ventures, we’re dedicated to leading the way by providing innovative energy-efficient technologies like heat pumps and waste heat recovery systems. By helping industries lower their energy consumption and carbon emissions, we’re playing a crucial role in the global net-zero journey. Together, we can forge a more sustainable future one that prioritizes energy efficiency, innovation, and responsible resource management.

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Decarbonization Challenges and Solutions: How Heat Pumps Can Make a Difference

With climate change becoming a more pressing issue, decarbonization or reducing carbon emissions has become a global priority. Moving away from fossil fuels and toward greener alternatives is critical if we want to hit net-zero targets and create a sustainable future. But as with any big change, decarbonization comes with its share of challenges. Fortunately, heat pump technology offers a powerful solution. The Challenges We Face Technology Gaps Heat Pumps: A Smart Solution Conclusion Decarbonizing our economy isn’t going to be easy, but with the right tools and strategies in place, we can overcome the challenges. Heat pumps are one of the most efficient solutions available today, offering a powerful way to reduce emissions without compromising on energy needs. By investing in this technology, pushing for supportive policies, and getting communities involved, we can create a cleaner, more sustainable future for everyone. At Aspiration Cleantech Ventures, we’re committed to driving that change. Want to know how our heat pumps can help your business meet its sustainability goals?

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Insights from the Energy Efficiency Summit 2024: Uncovering Heat Recovery Potentials and New Technologies

We are excited to share our experience from the Energy Efficiency Summit 2024, where we had the opportunity to showcase our innovative solutions at our stall. This three-day event brought together industry leaders, innovators, and practitioners to explore the latest advancements in energy efficiency. Our participation was a fantastic platform to engage with attendees, share knowledge, and highlight our commitment to sustainability. Day 1: Discovering Heat Recovery Potentials The summit kicked off with a focus on identifying heat recovery potentials across various sectors. At our stall, we engaged with industry professionals interested in how heat recovery can transform operations, particularly in the cement and power plant industries. Key insights included: Current Trends in Heat Recovery Client Case Studies Day 2: Energy Conservation Initiatives and Knowledge Sharing The second day revolved around energy conservation initiatives and sharing best practices among various firms across India. Our stall served as a hub for valuable interactions, where we discussed: Panel Discussions  Industry experts shared insights into their energy efficiency (EE) projects, discussing successful strategies and challenges encountered. Workshops  Interactive sessions emphasized practical steps to enhance energy efficiency, including technology integration and employee engagement. Visitors at our stall were eager to explore how they could implement these strategies in their own organizations. The positive feedback we received on our case studies reinforced the relevance of our solutions in driving energy efficiency. Day 3: Exploring Emerging Technologies in the EE Sector The final day was dedicated to unveiling emerging technologies in the energy efficiency space. We were proud to showcase our enhanced offerings at our stall, generating considerable interest: Hydrogen Generators Waste to Power Solutions Methanol and Syngas Production Organic Rankine Cycle (ORC) Systems Throughout the summit, our stall attracted significant interest, and we were thrilled to share our case studies, showcasing successful applications of our technologies that left attendees eager to explore how they could implement similar solutions. What We Learned Participating in the Energy Efficiency Summit 2024 allowed us to gather valuable insights into the challenges and opportunities faced by industries today. We identified areas where our technologies can make the most impact and strengthened our commitment to supporting India’s energy efficiency goals. Through engaging discussions with industry leaders, we realized the growing importance of energy conservation and resource management. Our continued focus will be on delivering tailor-made solutions that meet the evolving needs of industries looking to optimize energy use and reduce emissions. A Bright Future Ahead The summit reinforced the relevance of our core technologies, such as: These are key drivers in achieving a more sustainable future, and we are excited to be at the forefront of innovation in this space. Conclusion The Energy Efficiency Summit 2024 was not only a platform for networking and learning but also an opportunity to showcase our commitment to innovation in energy efficiency. Our stall provided a unique space for engaging conversations, allowing us to demonstrate our leading-edge solutions and gather valuable insights from industry leaders. We are excited to continue our journey in transforming the future of energy efficiency and look forward to sharing more updates as we lead the way in providing sustainable energy solutions! Search Social LinkedIn Instagram

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The Environmental Benefits of Heat Pumps: A Sustainable Heating Solution

Introduction In the pursuit of sustainable living, energy-efficient technologies are pivotal. Among these, heat pumps emerge as a promising solution for lowering carbon footprints and energy expenditures. This blog delves into the environmental advantages of heat pumps, underscoring their contribution to sustainability and efforts to combat climate change. What are Heat Pumps? Heat pumps are devices that transfer heat from one place to another using a refrigerant and a compressor. Unlike conventional heating systems that generate heat through combustion, heat pumps extract heat from the air, ground, or water, making them highly energy efficient and environmentally friendly. Environmental Benefits 1. Reduced Carbon Emissions Heat pumps contribute to substantial reductions in carbon emissions when compared to traditional heating systems. By harnessing renewable energy sources like ambient air or geothermal heat, heat pumps reduce dependence on fossil fuels. This transition not only decreases greenhouse gas emissions but also aids in the fight against climate change. 2. Energy Efficiency Heat pumps operate on the principle of moving heat rather than generating it, which can result in efficiency ratings (COP – Coefficient of Performance) well above 1. This means they can deliver more energy for heating or cooling than they consume, leading to substantial energy savings over time. 3. Promoting Renewable Energy Heat pumps are compatible with renewable energy sources like solar and wind power. By integrating these sources into the grid and coupling them with heat pump technology, communities can further reduce their reliance on non-renewable energy and promote a cleaner energy mix. Advantages beyond Environmental Impact 1. Cost Savings Although initial installation costs may be higher than traditional systems, heat pumps offer long-term savings on energy bills due to their high efficiency and reduced operational costs. This makes them a wise investment for both homeowners and businesses seeking to lower their utility expenses. 2. Improved Indoor Air Quality Unlike combustion-based heating systems, heat pumps do not produce indoor air pollutants such as carbon monoxide or nitrogen oxides. This contributes to better indoor air quality and creates healthier living and working environments. Challenges and Considerations 1. Upfront Costs The initial cost of purchasing and installing a heat pump system can be higher than traditional heating systems. However, potential savings on energy bills and environmental benefits often justify this initial investment over the system’s lifespan. A real-time illustration of the heat pumps operational savings and environmental benefits can be exhibited through one of our key client’s case study arrived: Client: One of India’s largest 3 wheeler manufacturer. Industry: Automotive Application: Pre-treatment Temperature Required: 70 – 75°C BEFORE HEAT PUMP Heat source LPG fired hot water generator Fuel Consumption 650 Kg/day Cold water source Chiller Chiller’s power consumption 600 – 800 kW/day Annual operational cost for both heating and cooling 1.56 Crores AFTER HEAT PUMP Project size 260 kW Heat Pump’s power consumption 1800 kW/day Heat pump’s operational cost 50.5 Lakhs PROJECT’S BENEFITS Annual operational cost savings 1.06 Crores Annual Environmental Benefit attained 362 Tons of CO2 emissions reduction 2. Climate Suitability While heat pumps work efficiently in various climates, factors such as temperature extremes or inadequate insulation can affect their performance. Proper sizing and installation are crucial to maximizing their effectiveness in different environments.

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7 Reasons why Solar Dryers are Better Than Open Sun Drying

Solar energy is most broadly utilized for the drying of agricultural products. Solar dryers use this solar energy and create sweltering air used for drying in a considerably more efficient way. Food products like chilies, pickles, amlas, fish, fruits, and spices will have a longer life once they are dried. Drying removes the moisture present in these edible items and also forestalls microorganisms like bacteria and fungi. Drying will also reduce the weight and volume of the product making it easy to store and use. This will eventually decrease the expense of storing, packaging and Transportation. Naturally, Sunlight is most broadly utilized for drying agricultural products. Yet, Solar dryers utilize sunlight-based energy and make sweltering air used for drying in a considerably more efficient way. It is of two types Direct and Indirect. Direct Solar dryers expose the product to direct sunlight and dry up whereas in Indirect dryer’s air is heated and this hot air is passed over the substance to dry the products.   Reasons why Solar Dryers are better than Open Sun Drying Heat intensity is double than open sun’s heat – A solar dryer can get inside temperature like 72°C while the outdoor temperature is still 32°C. This makes the dryers take away moisture from food products and dry it rapidly which is 5 times faster than sunlight heating. This will increase operational productivity with a reduced drying period. Can be used even on rainy days – A Rainy climate is not suitable for the drying process. But using solar dryers can retain heat up to a maximum of 46°C compared to a mere outside temperature of 26°C. Reducing the reliance on labor to keep and store products in case of rain and strong winds can be avoided. Normal drying methods not only attract flies, dust, and other microbes, it also hassles during the rainy season. As Solar dryers have enclosed space this is no longer a problem. Farmers will get a higher and better-quality yield. This will ultimately increase farmer\’s income. Reducing the operational cost. As Solar dryers are a one-time investment you won’t get any other operational cost unlike other dryers using electrical energy. Maintenance costs also very much negligible. It occupies less area. Unlike conventional solar heating where you need a lot of space to spread the food products for drying, in solar dryers, you can stack products in trays and place one above another occupying very little space. You can stack how much you need and it is easily movable. Solar dryers last longer and it is estimated that the average like is around 15-20 years. ROI is very much quicker than conventional heating systems. No Color degradation due to UV rays. Since a layer is present between the food product and the sunlight source, the color and value of the food products are preserved.   Aspiration energy is Designing more effective solar dryers which offer a way to more efficiently preserve your fresh products and better address the global issue of food waste. Click here to know more about our product offerings.

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At What Temperature Does Your Heat Pump Stops Being Effective?

Heat pumps are used for heating as well as cooling. In climatic conditions in India, Heat pump offers energy efficiently throughout the year. You can notice the heat pumps struggling when the temperature drops too low. This can be noticed in cold climates like Hilly areas and areas in North India. An Air source heat pump works by pulling heat from the air outside and transferring this heat into your place. The outdoor unit must have ample heat to provide sufficient heating to the inside. Winters are mild in India. In some cases, the outdoor temperature will be too cold to have an optimal operation. It has been seen that Heat Pumps do not operate efficiently when the outside temperature lies in the range of 25 to 40 degrees Fahrenheit. Heat pumps work best when the temperature is above 40 degrees Fahrenheit. That doesn’t mean that the heat pump does not work under 40 degrees Fahrenheit, it just loses its efficiency. At 25-degree Fahrenheit your heat pump still runs, but it will take more energy to transfer the heat since the outdoor contains less heat energy. The amount of energy spent to produce 1 unit of heat will cost more than one unit of electricity. Your outdoor condensing unit can also be iced up, airflow will be severely restricted which results may end up causing severe damage. If the ice remains for a significant period, it’s a problem you want to address quickly. The most common solution for the frozen heat pump is running a defrost cycle. It normally turns on automatically at timed intervals or when the unit detects frost in the system. The defrost cycle reverses the heat pump into air conditioning mode so that it can pump heat to the outdoor unit until it unfreezes. The defrost cycle only runs for around 10-15 minutes and not more than that. Then what is the alternate effective option? You must have a backup heating system, which works when the temperature falls below 40 degrees Fahrenheit. This backup heating system can be any other type of heating system operated only at the time when the heat pump does not offer optimal energy efficiency. If you don’t need a high electric bill, investing in a backup system is the most efficient one. Few backup systems like a gas furnace will be more efficient and reliable and it does not cost much. Running the backup heating system when temperatures become warmer will also increase your heating costs. Heat pumps must be configured automatically to turn on your backup heating system when it reaches a certain temperature. It should also switch back to heat pumps once the temperature climbs above. It is possible to manually switch between these systems. If you have no easy access to fuel sources such as natural gas, the next best thing you can do is to install electric heat strips alongside your heat pump to make it efficient. These strips are heated when electric charge passes through them when the temperature is low, and therefore, can provide a supplementary source of heat. Installation of electric supplementary heating sources will cost much less than a fuel-powered furnace; therefore, it is most likely not a good idea to install a furnace just as the backup heating system.   Reliable Heating, No Matter What! Aspiration energy, we do install energy-efficient heat pumps in commercial and industrial sectors. Contact us to learn more about the installation of heating pumps and other options to provide you with reliable heating, no matter how cold it is outside!

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Refrigerant used in Heat Pumps and How To Choose it wisely

Refrigerants are key components, responsible for the efficient working of heat pumps. The choice of selection and usage plays an important role in this. Hence it is important to understand clearly about refrigerants. What are refrigerants? The working liquids which are used in the process of the refrigeration cycle are called refrigerants. They are commonly used in air conditioning systems and heat pumps. Since refrigerants are toxic, flammable and cause ozone layer depletion they are highly regulated by concerned authorities. You may have a question! If refrigerants are toxic, then how can I choose them? An ideal and user-friendly refrigerant should be non-corrosive, non-toxic, non-flammable, with no ozone depletion. Let us have a look at how refrigerants work in the heat pump. How refrigerants work in heat pumps? As we saw above refrigerants are most importantly used in the refrigeration cycle. Apart from different types of heating and cooling system, all refrigerants work in a similar manner. Refrigerants will pass between the main components of the compressor, condenser, expansion device and the evaporator and remove unwanted heat from one location to another. The common types of refrigerants will have a low boiling point compared to water. This will make them evaporate in a short time and with minimum use of thermal energy. Importance of refrigerant used in heat pumps Toxicity level is low. Non-flammability property. It has zero ozone depletion potential. Very low global warming potential. Excellent thermodynamic properties and low energy requirements. Criteria for selection of refrigerants for heat pumps Before looking into the selection criteria of refrigerants for heat pumps, let us see the characteristics of an ideal refrigerant. It has a normal boiling point below 0 degree Celsius. Ideal refrigerants are non-toxic and non-flammable. It will be easily detectable in case of leakage. Affordable and recyclable. Stable usage under operating conditions. Eco-friendly and low gas flow rate. Here comes the major criteria for selection criteria for refrigerants in heat pumps: Pressure Condensation pressure will vary for different refrigerants at a given temperature. Certain refrigerants will have very high temperature and the pressure will become too high. In that case, those refrigerants cannot be used for heat pumps. On the other hand, low pressure also has a risk side. Low pressure needs high volume thus needs a higher investment. Critical temperature In a refrigerant, the critical temperature is the temperature above which a refrigerant gas (vapour) cannot be liquefied, irrespective of pressure. The refrigerant will reach a supercritical area (the area where pressure and temperature are above critical point) after a certain temperature. Then the fluid and gaseous phase of the refrigerant cannot be no longer distinguished in the supercritical area. Energy Efficiency The energy efficiency varies according to the choice of refrigerants used. Synthetic vs natural refrigerants The contribution of synthetic refrigerants to greenhouse gas incase of leakage will be high. The effect will be 3000 times higher as compared to CO2. How are refrigerants denoted? There are specific codes used to denote refrigerants. The code will begin with letter “R” denoting refrigerant following numbers. The codes will also depict the properties of a particular refrigerant. The general code of refrigerants is Rxyz. Where R(number of C atoms-1)(number of H atoms -1)(number of F atoms). Let us look into the codes of few refrigerants.  R400-series: Zoetrope mixtures which do not have an evaporation point but rather an evaporation range. The Evaporation will not take place on a fixed temperature but will take place during the increase of temperature to a few degrees. R500-series: Azeotrope mixtures that has a fixed evaporation point. R600-series: Organic refrigerants. R700-series: Inorganic refrigerants. Common types of refrigerants used in heat pumps R134a R134a type refrigerant can be used for medium-sized and large heat pump systems. It has higher efficiency when compared to refrigerants R407c and R410a but has lower efficiency compared to NH3 refrigerant. Since it has low-pressure investment cost will be high. R407c and R410a  These are commonly used in small and medium-sized heat pumps. Both the refrigerants are widely used for dual purpose installations. R410a will reach a supercritical state above a 71 °C temperature. Efficiency is higher and investment is low compared to R13a. R600 (butane) and R600a (isobutane)  These refrigerants are usually deployed for temperatures higher than 80 °C. In case of refrigerants R600 and R600a the increase of pressure with temperature is much lower. Since these are fire explosive, installations should be safely done. R717 (Ammonia)  When it comes to industrial usage R717 is the most suitable refrigerant for heat pump. The efficiency of Ammonia is high can be easily applied below 80 °C temperature. The most impressive feature of Ammonia is that it is a natural refrigerant and does not contribute to the greenhouse effect. It is inflammable and toxic. On the other hand, due to its odour, the leakage can be easily sensed. It should be installed according to PGS-13. I hope the above blog has given you a reasonable knowledge about refrigerants. Thinking of installing a suitable heat pump along with a suitable refrigerant for your business? Aspiration Energy provides hyper-efficient heat pumps for heating process in industries. For industries that stick to green energy initiatives, we offer heating solutions that provide long term predictable low-energy costs on a unique monthly performance-based energy payment. We avoid expensive and dirty fossil fuels by adopting proven technologies to both unutilized space and complex applications. Click here @ Aspiration Energy ad connect to us with 0% hesitation for our service.  

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Heat pumps and their areas of application

What are heat pumps? Heat pumps are a well-known technology and are been widely used not only for heating but also for cooling. They are mechanical devices that transfer heat by extracting low-grade heat from any source and then upgrades the heat to deliver it at a high temperature. Heat pumps are usually more/less similar to refrigeration cycles. Though much of the technology is based on refrigerators, the primary aim of heat pumps is to provide heating, although reverse cycle heat pumps can provide both heating and cooling. Since they are used in recovering waste heat and to raise its temperature to more useful levels they have significant potential for saving energy. The applications of heat pumps can be classified under two categories Residential applications Industrial applications   Residential applications Residential have found to be a successful location to implement the popular application of heat pumps where a large variety of systems exist, depending in part on 1) Whether they are intended for both heating and cooling or only heating. 2) The nature of the low/medium temperature heat source for distributing heat (cold) to the building (air, water, etc.)   Based on their operational functions, Heat pumps are classified into four main categories. 1) Heating-only heat pumps – Space heating/ water heating applications 2) Heating and cooling heat pumps – both space heating and cooling applications 3) Integrated heat pump systems – space heating and cooling, water heating, and sometimes exhaust air heat recovery 4) Heat pump water heaters – water heating There are hundreds of thousands of heat pumps sold each year. The vast majority of these are air and water-source pumps fitted to individual homes. It is said that in single-family and terraced houses using high-performance insulation instead of minimum insulation, reduced electricity power need by 31…36% for AWHP and by 23…30% for GSHP. Comparing apartment buildings with minimum insulation level and high-performance insulation level, the total power need decreased by -25% with AWHP and -21% with GSHP.   Industrial applications Deploying heat pumps is no more a choice if you belong to any one of the following industries: Paper industry At production, paper making emits CO2 and results in high carbon emission. Heat pumps could help in minimum carbon emission and thus in achieving sustainability.  So, if you are into pulp/paper/lumber manufacturing, then heat pumps can help you in the concentration of black liquor, water heating, flash-steam recovery, and product drying. Food and beverages Heat pumps in the food industry can save your costs spent on gas. To your food and beverage industry, heat pumps help in the process of beer brewing and to concentrate waste beer. Not only to concentrate waste beer but also to concentrate liquid products in the dairy industry. Heat pumps in the food and beverage industry are not only a source of cost-saving but are also an environment-friendly resource. Chemical industry The use of heat pumps in the chemical industry has become a hot topic in the past few years due to the limitation of fossil fuels and the need to contribute towards a sustainable future. In the manufacturing of chemical salts, heat pumps are your savior in the process of concentrating salt solutions and in the treatment of the effluent process. Rotation heat pumps find a very advantageous and efficient application when the production process in the chemical industry requires hot water with cool water being used as a source, conventional heat pumps can\’t help industries in achieving this. Instead of generating heat and cold separately, a rotation heat pump is used. Automotive and mechanical industry Heat pumps also help in the Drying and molding process in the automotive industry. Drying processes used in many industries use the ambient air with the help of the rotation heat pump to raise the air temperature for industrial drying and simultaneously cool ambient air for another process thus allowing the waste heat from other processes to be used just as well. Textile industry Heat pumps are useful in textile industry for the purposes of wash water heating space heating concentration of dilute dope stream. Metal industry Heat pumps are very efficient in the Metal industry for Chromating degreasing drying electroplating pickling phosphating purging. Wood Industry Your Wood industry can find heat pumps to be beneficial in the process of cooking, drying, glueing, pickling, pressing, staining, and steaming. Other than these, heat pumps also find to be useful in pharma industry, drinking water processing, steam stripping, electroplating industries, district heating, and solvent recovery.   Hope you are just one step behind  to install heat pumps Here\’s the checklist to finalize your decision Identification– Identify your heat consuming process – medium/temperature/power Direct heat exchange–  Direct heat exchange is possible for waste heat flows with higher temperatures than their potential users. So, you don\’t need a heat pump. Using a heat pump – If waste heat flows temperature is less than the recommended heat temperature, consumers do not offer a possibility for direct heat exchange.  At this point, It may then be an interesting option to upgrade the temperature level using heat pumps.

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Efficiency of Heat Pump and how long it Lasts

[et_pb_section][et_pb_row][et_pb_column type=\”4_4\”][et_pb_text] The life expectancy of heat pumps is important before you decide to invest in them. The lifespan of a heat pump will significantly affect the overall savings from an investment point of view in a heat pump installation. To those who are unaware of what a heat pump is Heat pump A heat pump is a device that maintains temperature i.e by heating or cooling. Its function is to transfer heat from one area to another. When it is warm, it diverts the heat from inside to outside. When it is cool, it does the opposite. Types The air-source heat pump (ASHP) is the most common. It functions by transferring temperature through the air from one place to another. A water-source heat pump (WSHP), dissipates heat by way of water instead of air. A dual-source pump that has the features of both air-source and a water-source heat pump has the longest heat pump life expectancy among all. Average life of heat pump The life expectancy of heat pumps is longer than most oil, gas, or electric heating systems you would expect. The surveys and studies conducted by the Air Conditioning, Heating & Refrigeration Institute (AHRI) and the National Association of Home Builders (NAHB) show that the average heat pump life expectancy is in-between 14 and 16 years if the heat pump is maintained regularly. If you are located in a coastal area like Pondicherry, life will be shortened due to corrosion caused by sea and sea animals. Expected usage is between seven to twelve years. The estimated lifetime expectancy of heat pumps is generally more than 10 years (99%), more than 15 years (98%) more than 20 years (95%) depending on good usage, proper maintenance, and suitable installation conditions.   Payback Period For most heat pump investments, the payback is from 2 years and maybe 4 years depending on the payment method you choose. Aspirations energy provides various financial modes that generally have a payback period of 2 years. If you are planning to buy a new heat pump do check here.   Main Factors affecting Heat pump’s life Level of Maintenance Heat pump’s lifespan by ensuring proper and regular service maintenance. This includes regularly cleaning the devices, changing the air filters periodically, and ensuring the defrost feature is functioning optimally. Climate It is an Uncontrollable factor but can be predicted. If you are having longer and colder winters, it means your heat pump will be running longer and harder than usual. This will significantly reduce its lifespan. In a hot climate, it’s the heat pump will get more wear and tear. One is the weather in your area. Heat pumps will work longer hours when you live in a place where the winters are longer and colder than normal. This contributes to the shortening of its lifespan. Location Heat pumps in coastal regions have a shorter lifespan. The salty atmosphere is the reason for this because it causes corrosion and slowly degrades your equipment in the long run. If you are located in coastal areas can expect more corrosion than heat pumps located inside. Installation Installation of heat pumps should be handled with great caution and by experts like aspiration energy who’ll ensure that it is done properly by following the correct procedures. Proper planning of capacity needed, method of usage, chemicals used are to be checked before installation. Usage Overuse or improper usage also reduces the life expectancy of your heat pumps. Running the system with doors and windows open reduces your heat pumps life.   How to extend the life of heat pump Maintenance How often to service a heat pump? At least once a year. According to experts, regularly servicing the heat pumps can add up an additional two to three years. Also, check Precautionary Steps to be taken Before the Restart of the Heat Pump After a Very Long Time Due to Pandemic Situation like COVID 19   Level of Routine Maintenance Split Heat Pump Package Heat Pump Ductless Heat Pump No Maintenance 10-15 years 12-15 Years 8-12 Years Low Maintenance (1-2 Items) 15-18 years 15-18 Years 12-15 Years Some Maintenance (2-3 Items) 18-20 years 18-22 Years 15-18 Years All Maintenance (4 items) 21-25 years 22-25 Years 18-20 Years   Among the factors that affect the lifespan of a heat pump, oversizing and poor maintenance are the most damaging. Wear and tear of many parts will be accelerated if there is a lack of maintenance. Oversizing leads to more often on and off cycling of the system, which can put more effort on the blower motor or compressor, causing the part to damage quickly. If you are located in a coastal area, the condenser unit is prone to corrosion. As the compressor puts in thousands of hours of mechanical operation during the heat pump’s life, it is expected that it will eventually wear out. Most components are serviceable but the compressor’s replacement cost is very high. In such a case, many buyers opt for a new system, particularly if their existing system is too older and less efficient.   How to measure Efficiency of Heat Pump The coefficient of Performance (CoP) is the ratio of heat output generated to the amount of energy input (electrical energy) for a heat pump. It is commonly used as it is important to understand the differences so that the heat pump will work successfully, and to be able to compare different models that might be using different measures. COP can be expressed as COP = Hh / Hw Where COP = Coefficient of Performance Hh = heat produced (Btu/h, J, kWh) Hw = equivalent electric energy input (Btu/h, J, kWh) = 3413 Pw PW = electrical input energy (W) If a heat pump delivers 3.5 units of heat for every unit of energy input – the COP is 3.5   Seasonal Coefficient of Performance (SCoP) used mainly with air source heat pumps to give a measure of heat pump performance over the year, considering varying air

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