Short Communication
Rajesh karki
Abstract
Energy is essential in our daily lives as a means of improving human development leading to economic growth and productivity. Recurrence will help reduce climate change is a good option but it needs to be sustainable to ensure future generations and bequeath for future generations to meet their energy needs. Fossil fuels are currently a major source of electricity generation and are believed to have a significant impact on air purification. A greenhouse gas (sometimes abbreviated to GHG) is a gas that absorbs and releases light energy within a warm range of heat. Thermal gases cause the effect of heat retention. Therefore, much effort is put into building and using green energy sources. Green energy comes from natural sources such as sunlight, wind, rain, waves, vegetation, algae burning and global warming. Human activities since the beginning of the Industrial Revolution (c. 1750) have produced a 45% increase in atmospheric carbon dioxide emissions, from 280 ppm in 1750 to 415 ppm. These energy resources are renewable, which means they are naturally replenished. On the contrary, fossil fuels are a last resort that takes millions of years to develop and will continue to decline in consumption. Wind is a promising, powerful source of energy for future energy programs. There is a lot of money being made in this sector, which has led to great strides in wind energy technology. It is expected that wind power installations will increase significantly to produce clean energy in power systems. Air intake, defined as the measurement of the volume of air included in the total volume contained of energy is currently about 5% in the Saskatchewan province of Canada. It is expected to increase by more than 20% over the next ten years. This trend is reflected in many forces around the world. The wind turbine characteristics are very different from those of other conventional plants that produce the need for wind models and appropriate strategies to respond to these factors. A growing number of wind farms located on different sites with different parts of the world are connected to the power structures as the inflow of wind energy continues to grow. Variations in wind speed at different sites can have a significant impact on the evolution of the entire system. This in turn affects system performance and reliability. Air production models are required for system reliability testing and therefore should represent variability in air generation profiles. This is especially true at high levels of expected entry in the near future. Time-adapted data from all wind farms are often required to incorporate this integration into the analysis and as a result to better model the integrated air components. This paper uses an analytical approach to create wind turbine models for various wind farms and establishes the reliability of the energy system in terms of wind turbine debt and the increase in the maximum carrying capacity of the wind turbine system.