This document discusses the design and implementation of a universal DC microgrid. It proposes using an aggregated model of renewable wind and solar power generation to support day-ahead and real-time scheduling. It also develops a droop control for power electronic converters connected to battery storage that adapts droop curves as a function of storage state-of-charge to maintain supply-demand equilibrium in real-time. The microgrid vertically integrates previously untapped wind and solar resources on a high-rise building to support electric vehicles.

1. UNIVERSAL DC MICROGRID
Guided By :–
Er. Rishabh Upadhyay
Er. Shivam Srivastav
Team member’s name
Abhishek Yadav 19EED26
Dilip Kumar 19EED66
Pankaj Yadav 19EED50
Sachin Kumar 19 EE22
Sumit Sahu 19EED61

2. INDEX
• INTRODUCTION
• BLOCK DIAGRAM
• METHODOLOGY
• CONCLUSION

3. INTRODUCTION
Operational controls are designed to support the integration of wind and solar
power within microgrids. An aggregated model of renewable wind and solar power
generation forecast is proposed to support the quantification of the operational
reserve for day-ahead and real-time scheduling. Then, a droop control for power
electronic converters connected to battery storage is developed and tested.
Compared with the existing droop controls, it is distinguished in that the droop
curves are set as a function of the storage state-of-charge (SOC) and can become
asymmetric. The adaptation of the slopes ensures that the power output supports
the terminal voltage while at the same keeping the SOC within a target range of
desired operational reserve. This is shown to maintain the equilibrium of the
microgrid’s real-time supply and demand. The controls are implemented for the
special case of a dc microgrid that is vertically integrated within a high-rise host
building of an urban area. Previously untapped wind and solar power are harvested
on the roof and sides of a tower, thereby supporting delivery to electric vehicles on
the ground. The microgrid vertically integrates with the host building without
creating a large footprint.

4. BLOCK DIAGRAM

6. METHODOLOGY
The methodology for designing and implementing a DC universal microgrid involves
several steps:
Assessment: Evaluating the energy demand, the availability of renewable energy
resources, and the cost of energy from the grid.
System Design: Determining the size and configuration of the microgrid, including
the types and capacities of renewable energy sources, energy storage systems, and
backup generators.
Equipment Selection: Choosing the appropriate equipment for the microgrid, taking
into account factors like reliability, efficiency, and cost.
Implementation: Installing and commissioning the microgrid, including connecting
it to the main grid, if required.
Monitoring and Control: Setting up a system for monitoring and controlling the
microgrid, including remote monitoring and control capabilities.
Maintenance: Establishing a maintenance plan to ensure the microgrid continues to
operate effectively and efficiently over time.
Throughout this process, it is important to consider factors such as safety,
environmental impact, and regulatory compliance.

7. CONCLUSION
The costs of solar photovoltaic generation, wind energy and battery storage are
rapidly dropping, to the point that they are closing in on cost parity with
traditional electricity sources. As a result, broad adoption of these technologies
may soon accelerate to the point that energy presumption, where end users
import and export electricity, is the norm rather than the exception. Before
millions of distributed energy resources are connected to the electrical grid, it
behooves society to plan ahead and to understand what architecture will best
integrate these and other distributed energy technologies. Microgrids are
poised to manage this transition by balancing supply and demand locally while
ensuring reliability and resilience against what appear to be escalating natural
and man-made disturbances.