Energy Storage & Electrification

Enabling a Reliable and Affordable Energy Future

Australia’s energy system must nearly triple by 2050 to meet the dual challenge of replacing aging coal generation assets and supporting rising electrification across transport, industry, and homes.

This transition is not merely about integrating renewable energy sources...

It requires a full-scale overhaul of how we generate, store, and distribute electricity. As coal-fired generators retire, the system must adapt to a new paradigm where renewable energy, firmed by storage solutions, delivers reliability and affordability.*

So, what does this shift mean?

A system under pressure on both sides of the meter...

Electricity demand rising fast

Grid electricity use in Australia is forecast to increase from 174 TWh (2020) to 275 TWh by 2050. New Zealand’s demand is also expected to rise by around 80% over the same period. Both trends are driven by electrification across all sectors, including BTM and FTM applications.^

Storage must scale rapidly

To meet this rising demand, grid-scale battery storage in Australia is pushing toward 22 GW by 2050, with rapid growth expected over the next five years. New Zealand is on a similar path, with over 400 MW of large-scale BESS projects already in the connection queue.^

^AEMO 2024 ISP; MBIE 2024 EDGS

The BIG Picture

Why Electrification and Energy Storage Matters

Electrification is more than a carbon-reduction lever. It is central to achieving economic, energy, and environmental goals.

Its wide-reaching benefits include:

Storage as the backbone of renewables

Firming capacity is crucial in an energy system dominated by variable renewables.

AEMO’s modelling shows that storage, particularly 4–12-hour duration is vital for managing evening demand peaks when solar fades and wind output is uncertain.

Battery Energy Storage Storage (BESS)

Fast-response firming

Pumped Hydro Energy Storage (PHES)

Medium-duration grid stability

Hydrogen and Flow Batteries

Emerging long-duration options

Storage allows energy captured during times of surplus (e.g., midday solar peaks) to be used during periods of high demand or low generation, playing a central role in system reliability and affordability.

Key Challenges

The transition to electrification and energy storage includes three core challenges:

CHALLENGE #1

Infrastructure

& Investment

Upgrading infrastructure to handle increased electricity demand, reliability issues, and significant investment requirements for expanding transmission and distribution networks.

Source: 2024 Electricity and Gas Networks Performance Report, AER.

CHALLENGE #2

Market

& Pricing Dynamics

Navigating regulatory complexities, developing smarter, market-responsive tariff structures, and managing energy pricing when renewable sources cannot consistently meet demand.

Sources: Consultation Paper – Stage 2 of the Reliability and Supply Adequacy Framework, AEMO.

CHALLENGE #3

Technology

& Sustainability

Managing renewable intermittency, asset lifespan concerns, recycling challenges, and the reliance on electric vehicle uptake and household battery storage for grid stability.

Sources: 2026 ISP Timetable, AEMO.

Verbrec Insights

Our Thinking

Future of Electrification – Preparing Australia’s Grid for Increased Demand

Australia’s electricity grid is at the centre of one of the most significant transitions in its history. As fossil fuel plants retire and demand for electricity rises, the grid must evolve rapidly—not just to replace old infrastructure, but to support...

As Australia accelerates its shift to renewable energy, Battery Energy Storage Systems (BESS) are emerging as a critical enabler of grid reliability, flexibility, and responsiveness. From stabilising frequency to shifting solar output into the evening peak, batteries are fast becoming...

Hydrogen has emerged as a promising long-duration energy storage solution and a versatile clean fuel. While it is not yet the dominant player in Australia’s grid, it could become a crucial component of a net-zero energy system if technological, economic,...

As Australia transitions toward a low-carbon electricity system, the role of long-duration energy storage becomes increasingly vital. While batteries attract attention for their speed and modularity, Pumped Hydro Energy Storage (PHES) remains the country’s most proven and scalable large-scale storage...

FAQs

Better understand the electrification and energy storage landscape:

1. What is electrification?

Electrification is replacing fossil-fuel-driven technologies with electric-powered alternatives, a shift supported by industry reports highlighting Australia’s accelerating adoption of electric technologies in transportation, mining, manufacturing, and household sectors to significantly cut emissions and improve energy efficiency.

By transitioning from fossil fuels to renewable electricity, electrification significantly reduces greenhouse gas emissions and pollution, as supported by projections showing substantial emissions reductions due to increased electrification across multiple sectors including residential, commercial, and industrial applications.

Battery storage, pumped hydro storage, thermal storage, hydrogen storage, and flow batteries are common storage solutions.

Energy storage helps balance the intermittency of renewable energy sources, ensuring consistent and reliable power supply.

Australia is seeing rapid growth in electricity use at the consumer level—driven by residential EV charging, rooftop solar, battery storage, and all-electric appliances. While BTM demand contributes to decarbonisation, it’s often invisible to the grid in real-time, making energy forecasting and infrastructure planning more complex.

At the same time, utility-scale electricity demand is increasing sharply, driven by new industrial loads, electrified mining operations, and housing developments. This surge in demand is placing added strain on ageing infrastructure, requiring expanded transmission networks, new generation capacity, and grid-scale storage to ensure reliability.

Our Experience

Featured Case Studies

With deep expertise in energy, infrastructure, and industrial sectors, Verbrec supports clients in delivering scalable, future-ready electrification and storage projects.

Ready to lead the energy transition?

At Verbrec, we deliver end-to-end services across the full asset lifecycle; from feasibility studies and engineering design to system integration, commissioning, and ongoing operations. We also offer industry training and competency assurance to support a seamless and successful transition to electrification and energy storage.

Our multidisciplinary teams operate at the forefront of energy innovation, helping ensure your projects are efficient, sustainable, and future-ready.