<span>Nowadays tremendous increase in renewable energy technologies available in abounding nature energy extracted from sun, wind etc.  This Proposed topology gathered maximum power using multi input ky boost converters for hybrid energy. This hybrid topology operates mainly delivered the power from renewable energy sources solar/wind to dc bus. In the absence of any one source, wind or solar supplies power to the dc bus. Without any renewable energy sources battery deliver the power to dc bus.An inverter type module convert the power from dc bus to ac grid. In this paper effectiveness of hybrid renewable energy is simulated through MATLAB/SIMULINK</span>

Smart grid includes power generation, transmission, distribution, information integration, metering, management, and protection. All these domains are interconnected through smarter communication. Smarter communication is possible since it's a two-way flow of information by wireless and wired communication. Generation domain of smart grid consists of renewable variables (wind solar), renewable nonvariables (hydro biomass, geothermal, pump storage), and nonrenewable nonvariables (nuclear, coal, gas). Wind and solar energy, are thought to be the principle properties of sustainable power source for power generation and are developing at a quicker rate throughout a previous couple of decades. In numerous tasks, high voltage conversion converters have a basic influence in boosting the low output voltages of green power facilities to the high voltage is difficult due to voltage ripple and total harmonic distortion. This article comprises novel coordination of KY converter (KYC) with fuzzy logic for photovoltaic (PV) and wind power system. A many inputs KYC for grid-connected hybrid PV/wind power system by extracting as much renewable energy as possible to using the fuzzy logic controller (FLC) are introduced. The main goal of the process is to follow the greatest force from the sustainable power sources and to overhaul the precision of the absolute system by increasing power factor. With the motivation behind concentrate the greatest power, a FLC has been embraced, right now. Wind energy is rectified and then both PV and wind outputs are given to the FLC. The implementation is done using MATLAB/SIMULINK.

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Three different Modules areas considered for PV panels which is connected to grid, Electric appliances, Electric Vehicles and battery system in turn analyzed using PV sol simulation. The Main Objective of this paper is before implementing the PV panel in real time, examine the overview setup of the system i.e. Module areas of the PV panel with different tracking methods along with Climate data for the particular location. This is Further investigated with number of PV modules needed for the required output. The overall system identified with the total number of inverters and battery systems. This system also analyzes the energy forecasting over a period of year and utilized for battery charging, Electric Vehicle Charging, Grid feeding and consumption for appliances. The system not only focus the technical aspects but also the emission of CO2 avoided, Financial analysis like investment costs and return on assets.

This chapter mainly focuses on meeting the energy demand and methodologies of renewable energy. Nowadays, researchers are mainly focusing on renewable energy from the sun, wind, biomass, etc. due to energy crises and the lack of non-renewable energy. The potential for solar energy is high and this demand can best be met with hybrid systems, which can provide an uninterruptible power supply. This chapter looks at the performance metrics of hybrid energy as well as the methodologies and various control techniques connected with power management. The chapter also defines the photovoltaic (PV)-based, novel, dual KY boost converter. Dual PV sources act as input for the dual KY boost converter to generate as much energy as possible from the dual PV system, using the inverter module to produce single-phase alternating current output. A dual KY boost converter can provide higher maximum power, a faster response, and smaller voltage ripple. KY boost converters are designed to generate stable output values according to various conditions because of various control techniques and the maximum power point tracking control algorithm.