Solar Renewable Energy System

Solar energy is clean, eco-friendly and also sustainable. Due to the fact that the energy produced from the

This is an excellent opportunity for us to harness this solar energy within two main areas of the Brewery. These opportunities include passive design modifications to our buildings and equipment along with customized solar panels that convert solar radiation into heat power. Passive solar design involves designing the building in order to consistently capture the energy of the sun while reducing the need for artificial heating and light. This would begin reducing our “carbon footprint” by minimizing required energy inputs and eliminating energy waste. I would recommend first eliminating a good portion of the Brewery’s interior lighting during day production by installing updated insulation, numerous windows, and sky lighting. This will not only capture a much greater amount of energy from the sun, but is also going to enormously reduce our warehouse’s monthly electrical and gas costs.

Solar energy can be turned into electricity through solar cells 15%=cheap, 40% efficiency=expensive. Caloric theory of heat=caloric fluid flows from hot object to cold. Heat engine=

With the help of new technologies and studies, these old energy sources are becoming more popular as time goes on. The growth of sustainable energy, which includes Solar, Wind, Biomass, Biogas, and Geothermal, has become a major factor in the business of supplying

The design project was about a desalination process making use of superheated steam from the solar system as electricity and using waste heat in the heat exchangers to produce pure water which can be used for domestic activities. Basic data was provided and some assumptions were made to aid the mass and energy balance.

If less than one-tenth of one percent of this stored solar energy could be converted into electric power, it would supply more than 20 times the total amount of electricity consumed in the United States on any given day ("Ocean Thermal Energy Conversion"). Imagine just a fraction of the oceans energy found just in temperature can be used to power the world. Some already have and such technologies have been created to suit the need to obtain this elusive power. However, huge turbines are needed to take and create the power from the temperature. These huge turbines can be used in different methods to

The Stirling engine, noted for its high efficiency, converts heat energy to mechanical work. A typical Stirling cycle consists of four phases - compressing cool gas, heating the gas, expanding the hot gas, and finally cooling the gas before repeating the cycle. The engines can run on heat from solar, geothermal, biological, nuclear sources or waste heat from industrial processes, can be built to run quietly and don’t produce any emissions. In contrast to other solutions used in solar thermal technology, Stirling engines don’t have an inherent mechanism for storing heat. Stirling engine based combined heat and power plant (CHP) fuelled with biomass represents a technological breakthrough within onsite renewable energy generation. A system working on biofuel is a step towards utilisation of clean energy source. In biomass type wood chips and waste wood pallets are used which is environment friendly.

As fast increase in energy depletion is nearly related to an increase in a population, people face several environmental problems such as decreasing energy resources, global climate change and greenhouse emission. The integrated systems for combined generation of useful outputs are spreading around the world fast, since they offer diverse advantages, such as higher efficiency, low operating cost. Energy application choices are restricted by thermodynamic principles. Comprehension of exergy application methods can help identifying. An integrated system energy manufacture process refers to a system more than three different purposes, including electricity, cooling, heating, hot water, fresh water, hydrogen, oxygen and air,

Energy conversion has been essential in every human activity since the prehistoric age. A basic extent of the evolution of society is directly associated with the changes in the fundamental sources of energy and its uses. Through the last 250 years, people have learned how to harvest and deal with energy in different forms to make work easier and live more comfortable. Nevertheless, this human activity is overloading the atmosphere with greenhouse gases emission, which make the temperature higher, trap heat and generates serious and harmful impacts on the environment and on climate. Therefore, the governments all around the world are making an effort to promote and develop renewable energy as the new main energy source.

The worldwide demand of energy has been increasing considerably. Up to 2030, it is supposed to be 60% higher than today (B. SCHMITZ, 2013). Currently, non-renewable energy sources, like coal and oil, are more commonly used, since they are cheaper than renewable energies. In the European Union, 80% of the energy consumption demands are covered by fossil sources (B. SCHMITZ, 2013). But, non-renewable energy sources are running out and they are also very harmful for the environment, since they generate greenhouse gases. So, it is very important to discover more renewable ways to generate energy.

Hot water tank is a commonly used environmental-friendly approach as a thermal energy storage (TES) system. There are three means to storage available heat energy: sensible heat storage, latent heat storage, and thermochemical storage. While in all the exiting research areas of renewable energy one of the oldest problems is the technology used for system design is not yet sufficiently economically efficient and thus prevent the replacement of fossil fuels. As a consequence, although some high heat transfer rate PCMs already been designed to used in a system which already been proven to be high efficiency, the cost of processed in industrial is still seemed not affordable compared to those present ways of burning fossil fuels.

Solar energy is used to produce electricity and heat water. The advantages of this energy are noiseless, lack of air emissions, and renewability of source. The disadvantages of solar energy include a dependence on solar power from the daily, seasonal position of the Sun, weather conditions, and the need for large areas for the construction of solar power plants. Also, a serious environmental problem is the use of toxic substances in the manufacture of solar cells that cause a problem of their disposal.

The reduction or reuse of waste heat provides an excellent opportunity for cost saving within Industrial, Commercial and Institutional facilities in India. Development of innovative thermodynamic cycles is important for the efficient utilization of low-temperature heat sources such as solar, geothermal, and waste heat sources. Binary mixtures exhibit variable boiling temperatures during the boiling process, which leads to a good thermal match between the heating fluid and working fluid for efficient heat source utilization. This study presents a theoretical and an experimental analysis of a combined power/cooling cycle, which combines the Rankine and absorption refrigeration cycles, uses ammonia-water mixture as the working

Biomass pellets are used for residential heating and for industrial scale combined heat and power production. The market for pellets is still relatively young but rapidly growing in terms of usage and capacity building. For Energy saving& cost reduction. We will use solar energy for functional working of machine.

The ongoing demand and patterns of industrial energy production and consumption are highly unsustainable which may lead to face multiple challenges like global warming, greenhouse gas emissions, geopolitical conflicts, consecutive fuel price rises and at last fossil fuel reserves depletion. Worldwide all the developing countries are working to make a vibrant industrial sector where entrepreneurs will make investments and thus opportunities will be created for new jobs. To achieve sustainable development and alleviating poverty, most of the developing countries followed the energy strategy to be focused on combating energy poverty by improving integration systems to the reliable and renewable energy services, enhancing energy efficiencies and promoting renewable energy to meet rising energy demand in industrial areas. Moreover, in reference to UNIDO (2007b), potential of renewable and clean energy resources to protecting the environment is yet to be realized. The G8 Summit Declaration of 7 June 2007 states: “Improving energy efficiency worldwide is the fastest, the most sustainable and the cheapest way to reduce greenhouse gas emissions and enhance energy security.” [3,5-8, 52] However, in places without sufficient solar energy supply, it’s not possible to create solar energy system integration in industries or other promising sectors. Now-a-days these industrial processes are using electricity or liquid or gaseous petroleum fuels to meet the demand of industrial process