Global electric vehicle sales
exceeded million units 2023, 35% from the
previous year, causing rapidly increasing demand
for additional grid capacity and innovative load
management techniques manage the impacts
of charging the grid [7]. Regional interconnections
are likely require infrastructure upgrades and
harmonized interconnection standards efficiently
and securely manage cross-border energy flows.3 Massive increase energy
demand
The shift electrification transportation, heating,
and industrial processes will drive significant growth
in electricity demand. For
instance, the number weather-related outages
in the United States has tripled since the early
2000s [9].
2.
2. Enhancements such as
infrastructure upgrades, vehicle-to-grid (V2G)
technologies, and smart charging systems are
needed support this new energy demand and
optimize grid performance. These changes
pose important challenges network operation
and reliability and can reduce the average utilization
of electricity infrastructure assets [8]. Electrification is
dramatically increasing grid loads and changing
consumption patterns.4 Changing load profiles
The net energy demand many power systems
is changing significantly: now common see
net demand approach zero during the middle the
day (when solar generators are operating their
maximum output) but then increase very high
demand the early evening solar generation
decreases zero.2. 2023,
over million microgrids were operational globally,
helping enhance local resilience while creating
operational complexities such reverse power
flows and voltage fluctuations [6].6 Cross-border energy integration
The number interconnections between countries
and regions expanding enhance energy
security, enable more efficient energy trading and
optimize renewable energy use and penetration.2 Proliferation distributed
energy resources
The rise relatively small, highly distributed
electricity generators such distributed solar
PV, community microgrids, and behind-the-meter
batteries decentralizing power systems.18
Transformation the world’s power systems
Managing the intermittency power system
generators will require advanced forecasting
techniques, grid-forming inverters, and real-time
energy management systems maintain system
stability. Energy storage systems will also vital
for managing renewable variability, optimizing
grid investments, and balancing generation and
demand amid growing uncertainty. The widespread
adoption distributed energy resources (DERs)
requires upgraded distribution networks (and their
management systems) that can handle bidirectional
power flows, ensure voltage stability, and integrate
localized generation effectively.
.
Projects like the European North Sea Wind Power
Hub [10] and ASEAN Power Grid [11] exemplify this
trend.2. Net demand also becoming
“peakier”, where the difference between the
maximum demand and minimum demand day
is much greater than the past. The global
energy storage market projected grow from
50 2023 over 500 2030 [5].2. enabling efficient energy trading and greater
renewable penetration.2.
2. Climate-induced extreme weather events
require power systems more resilient allow
for faster recovery from outages through advanced
protection systems, underground cabling, and
modular designs.5 Increased demand for flexibility
and resilience
As climate change increases the frequency and
severity extreme weather events, power systems
must become more resilient disruptions.
2.
2.2
