January 2024. A Smart Grid is an electrical grid that utilizes advanced communication monitoring and control technologies to optimize energy efficiency, reliability, and environmental sustainability. Smart grid technologies enables the effective management and distribution of renewable energy sources. By leveraging the Internet of Things (IoT), a smart grid connects a variety of energy sources to the electricity grid.
Demand for electricity is expected to rise as a result of the clean energy transition, urban expansion, and population growth. Smart grid technologies can meet the increased demand by making the grids more efficient, reliable, and resilient. A smart meter is an electronic device that provides detailed consumption data including smart grid status. Smart meter use encourages better energy habits, reduces electricity bills, and improves Quality of Service (QoS).
Compared to conventional grids, smart grids offer many benefits such as emissions and pollution reduction, health and wellbeing improvement, new job creation, and saving on energy, resources, and waste management costs.
However, smart grid adoption faces some challenges, such as privacy issues concerning consumer's usage data and personal information. In addition, smart grids are vulnerable to cyberattacks because they are always connected to the network.
Smart grid technologies include Advanced Metering Infrastructure (AMI), Demand Response (DR), Wide-Area Situational Awareness (WASA), Distributed Energy Resources (DER), and Distribution Management System (DMS). The smart grid value chain includes generation, transmission, distribution, and consumption.
Policy wise, in 2015, the Global Energy Interconnection (GEI) initiative was launched to develop interconnected grids for the transmission and consumption of clean, renewable energy worldwide. GEI is coordinated by the United Nations Department of Economic and Social Affairs (UNDESA) and the Global Energy Interconnection Development and Cooperation Organization (GEIDCO). GEI directly supports Sustainable Development Goals (SDGs) 7 and 9.
In this slideshow, you will learn about the definition, benefits, challenges, technologies, value chain, UN policy, and global statistics of smart grid utilization. For more slideshows on environmental sustainability, please visit s2adesign.com
5. Smart grid
An Electrical Grid that Utilizes Advanced
Communication Monitoring and Control
Technologies to Optimize Energy Efficiency
Reliability and Environmental Sustainability.
6. Re integration
Smart Grid Technologies Enable the Effective
Management and Distribution of Renewable
Energy Sources. By Leveraging the Internet of
Things (IoT) the Smart Grid Connects a Variety
of Energy Sources to the Electricity Grid.
7. Sg importance
Demand for Electricity is Expected to Rise
as a Result of the Clean Energy Transition
Urban Expansion, and Population Growth.
Smart Grid Technologies Can Meet the
Increased Demand by Making the Grids
More Efficient, Reliable, and Resilient.
8. Smart meter
An Electronic Device that Provides Detailed
Consumption Data Including Smart Grid
Status. Smart Meter Use Encourages Better
Energy Habits, Reduces Electricity Bills, and
Improves Quality of Service (QoS).
9. They Reflect Actual Consumption Instead of an Estimation.
accurate bills
Remote Management Allows for Faster Diagnosis and Response
to Incidents Improving Customer Service.
Better service
They Offer Integration of Renewable Energy Sources Enabling
Them to Supply Electricity and Respond to Demand Spikes.
RE utilization
By Optimizing Capacity, Smart Grids are in a Strong Position to
Meet Increasing Demand and Reduce Blackouts.
MEETING DEMAND
Time-Based Pricing Optimizes Electrical Network Usage by
Shifting Consumption Peaks to Lower Demand Times.
PEAK REDUCTION
CARBONTRACK.COM.AU
BENEFITS
Smart grids
10. Renewable Energy Integration is Complex as it is Intermittent and
Unpredictable.
Re Issues
Due to their Communication Networks and Big Data Handling,
Smart Grids are More Susceptible to Cyberattacks.
CYBERATTACKS
Significantly Degrades Network Reliability Leading to Service
Slowdown and Connectivity Loss.
PACKET LOSS
They Require Robust Connectivity and Wide Coverage. Poor
Connectivity and Network Performance is a Barrier to Adoption.
Connectivity
The High Cost of ICTs, Network Infrastructure, and Digital Talent
Requires a Significant Investment.
High initial cost
EVCHARGINGSUMMIT.COM
Challenges
Smart grids
11. Advanced Metering Infrastructure: An Integrated System of Equipment
and Software that Enables Utilities Collect Customer Data Remotely.
AMI
Demand Response: An Action Taken by the Consumer to Reduce
Electricity Usage During Peak Periods in Response to Time-Based Pricing.
DR
Wide-Area Situational Awareness: Use of Technologies Designed to
Improve Monitoring of the Electrical System Across Large Areas.
WASA
Distributed Energy Resources: Small Energy Generation Units Belonging
to the Consumer such as Solar Panels and Wind Turbines.
DER
Distribution Management System: A Comprehensive Grid Management
Solution that Enables Utilities Increase Efficiency and Prevents Failure.
DSM
HIVEPOWER.TECH
technologies
Smart grids
12. GENERATION
Distributed Power
Generation with
Renewable Energy.
TRANSMISSION
Multi Directional Power
Flow. Load Adapted to
Production.
DISTRIBUTION
High-Reliability Power
Distribution Using ICTs.
CONSUMPTION
Supply Based on Actual
Data. Consumers are Also
Producers.
INNOENERGY.COM
Value chain
Smart grids
13.
14. Initiative
In 2015, Global Energy Interconnection
(GEI) Initiative was Launched to Develop
Connected Grids for the Transmission
and Consumption of Clean, Renewable
Energy Worldwide. GEI is Coordinated
by UNDESA and GEIDCO and Directly
Supports SDGs 7 and 9.
UN.ORG/EN/DESA
UN Dept. of Economic & Social Affairs
Clean Smart Grids
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