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Iceland Renewable Energy Lansdcape

Iceland: A Geothermal and Hydropower Wonderland – Landscape of Renewable Energy


Iceland, the Land of Fire and Ice, might surprise you with its dedication to clean energy. Nestled amongst glaciers and volcanoes, this Nordic island nation boasts a remarkable renewable energy landscape, fueled by two primary titans: geothermal power and hydropower. 

Let’s embark on a journey to explore this unique ecosystem, delve into the statistics, and understand its global significance.


Geothermal Energy: Harnessing the Earth’s Fury


Iceland sits astride the Mid-Atlantic Ridge, a volcanic hotspot responsible for its dramatic landscapes. This geological bounty isn’t just for scenery; it’s a treasure trove of geothermal energy. Harnessing underground steam and hot water, Iceland generates a staggering 99.7% of its space and water heating needs and 25% of its electricity from geothermal power plants.


Key Statistics:



  • Installed capacity: 2850 MW (as of 2023)

  • Electricity generation: 7.3 TWh in 2022

  • Largest geothermal power plant: Hellisheidi Power Station (690 MW)

  • Future potential: Estimated potential of 6000 MW


Iceland’s geothermal story doesn’t end there. It’s exploring innovative uses, like geothermal greenhouses for year-round agriculture and direct heating systems for entire towns.


Hydropower: Taming the Mighty Waterfalls


Iceland’s glacier-capped mountains feed countless rivers and waterfalls, making hydropower another renewable energy mainstay. With 75% of its electricity generated from hydropower, the country ranks second in the world per capita for this clean energy source.


Key Statistics:



  • Installed capacity: 2900 MW (as of 2023)

  • Electricity generation: 17.2 TWh in 2022

  • Largest hydroelectric power plant: Karahnjukar Hydropower Station (690 MW)

  • Future potential: Limited further development due to environmental concerns


Beyond generating electricity, hydropower plays a crucial role in supplying desalinated water for drinking and industrial use.


The Synergy of Renewables: A Model for the World


Iceland’s remarkable achievement lies not just in the high share of renewables, but in their interconnectedness. Geothermal and hydropower complement each other seamlessly. Geothermal baseload power provides stability, while hydropower offers flexibility to respond to peak demand. This synergy keeps the lights on and industries humming, all while minimizing carbon emissions.


Statistics Speak Volumes:



  • Total renewable energy share: 86.87% of electricity production (2021)

  • Carbon dioxide emissions: Iceland is one of the few countries with negative CO2 emissions due to carbon sequestration through natural processes.

  • Global ranking: Iceland consistently ranks among the top countries in various renewable energy indices.


Challenges and Future Horizons


Despite its success, Iceland faces challenges. Expanding geothermal capacity requires careful consideration of environmental impact. Balancing hydropower development with ecological concerns is an ongoing conversation. The island nation also aims to increase energy independence by reducing reliance on fossil fuels for transportation.


The future holds opportunities for wind power and hydrogen integration, further diversifying the energy mix. Additionally, Iceland is exporting its expertise, collaborating with other countries to share its renewable energy knowledge and technology.


Iceland’s renewable energy landscape serves as a beacon of hope, demonstrating the potential for a sustainable future. By harnessing its unique natural resources and embracing innovation, this small island nation has become a global leader in clean energy. While challenges remain, Iceland’s journey offers valuable lessons for countries around the world striving towards a cleaner and more sustainable future.

Iceland Renewable Energy Lansdcape


Iceland’s Renewable Energy Growth


Iceland boasts a remarkable journey in renewable energy growth, transitioning from fossil fuel dependence to a world leader in sustainable energy practices. Let’s explore some key statistics and future projections:


Growth Statistics:



  • Renewable energy share: 84% of total final energy consumption (2020), compared to just 25% in 1990.

  • Hydropower: Responsible for 73% of electricity generation, with capacity increasing by 134% since 1990.

  • Geothermal: Contributes 27% of electricity and 90% of heating needs, with capacity growing by 112% since 1990.

  • Wind power: Still in its early stages, but capacity has increased by 350% since 2019.

  • Electricity production from oil sources: Negligible, demonstrating a significant shift away from fossil fuels.


Future Projections:



  • Iceland aims to be carbon neutral by 2040: Ambitious plan requiring continued growth in renewables and energy efficiency.

  • National Energy Policy target: Achieve 99.9% renewable energy share in electricity generation by 2030.

  • Investment focus: Expanding existing capacities in hydropower and geothermal, while further developing wind and other emerging technologies like hydrogen.

  • Research and development: Continuous push for innovative solutions, like enhanced geothermal systems (EGS) and advanced grid management technologies.


Additional Data:



  • World’s largest electricity producer per capita: Iceland generates over 50,000 kWh per person annually, highlighting its impressive renewables utilization.

  • Export potential: Investigating options to export surplus renewable energy to neighboring countries, further contributing to regional sustainability goals.

Iceland’s Renewable Energy Growth: Data Summary



Category Current Status (2020) Growth Since 1990 Future Targets (2030)
Renewable Energy Share 84% of total final energy consumption Increased from 25% 99.9% of electricity generation
Hydropower 73% of electricity generation Capacity increased by 134% N/A
Geothermal 27% of electricity, 90% of heating needs Capacity increased by 112% N/A
Wind Power 0.1% of electricity generation Capacity increased by 350% since 2019 Expansion planned
Carbon Neutrality N/A N/A Achievement by 2040
Electricity from Oil Negligible Reduced significantly from previous dependence N/A



Additional Data:



  • Electricity Production per Capita: Over 50,000 kWh annually (world’s largest) | N/A | N/A |

  • Renewable Energy Export Potential: Under investigation | N/A | N/A |


Sources:



Notes:



  • N/A indicates data not readily available for specific targets or comparisons.

  • This table provides a snapshot of key data points. Specific future targets and projections may vary depending on sources and timelines.


Iceland’s impressive growth and ambitious future targets solidify its position as a leader in the renewable energy transition. Their journey serves as an inspiration for other countries seeking to achieve sustainability goals and create a cleaner future.


Iceland Renewable Energy Lansdcape

Iceland: A Tapestry of Renewables Woven by Geothermal and Hydropower


Iceland, the land of fire and ice, paints a remarkable picture when it comes to renewable energy. Nestled amidst glaciers and volcanoes, this Nordic island nation boasts a unique energy landscape dominated by two primary forces: geothermal power and hydropower. Let’s embark on a journey to explore this intricate tapestry, delve into the statistics that reveal its strength, and understand its global significance.


Geothermal Energy: Channeling the Earth’s Inner Fire


Iceland’s position astride the Mid-Atlantic Ridge, a volcanic hotspot, isn’t just about dramatic landscapes; it’s a treasure trove of geothermal energy. This inherent advantage allows Iceland to generate a staggering 99.7% of its space and water heating needs and a significant 25% of its electricity from geothermal power plants.


Key Statistics:



  • Installed capacity: 2850 MW (as of 2023)

  • Electricity generation: 7.3 TWh in 2022

  • Largest geothermal power plant: Hellisheidi Power Station (690 MW)

  • Future potential: Estimated potential of 6000 MW


But Iceland’s geothermal story goes beyond mere numbers. It’s about innovation and pushing boundaries. Think geothermal greenhouses flourishing despite the harsh climate, providing fresh produce year-round. Imagine entire towns warmed by direct heating systems powered by the Earth’s internal heat. This is the ingenuity that defines Iceland’s geothermal approach.


Hydropower: Taming the Mighty Waterfalls


Iceland’s glacier-capped mountains feed countless rivers and waterfalls, making hydropower another cornerstone of its renewable energy story. With an impressive 75% of its electricity generated from hydropower, the country ranks second in the world per capita for this clean energy source.


Key Statistics:



  • Installed capacity: 2900 MW (as of 2023)

  • Electricity generation: 17.2 TWh in 2022

  • Largest hydroelectric power plant: Karahnjukar Hydropower Station (690 MW)

  • Future potential: Limited further development due to environmental concerns


Beyond electricity generation, hydropower plays a crucial role in supplying desalinated water for drinking and industrial use. This dual benefit highlights the resourcefulness embedded in Iceland’s renewable energy strategy.


The Symphony of Renewables: A Global Inspiration


Iceland’s remarkable achievement lies not just in the high share of renewables, but in their interconnectedness. Geothermal and hydropower work in perfect harmony. Geothermal provides stable baseload power, while hydropower offers the flexibility to respond to peak demand. This synergy keeps the lights on and industries humming, all while minimizing carbon emissions.


Statistics that Sing:



  • Total renewable energy share: 86.87% of electricity production (2021)

  • Carbon dioxide emissions: Iceland is one of the few countries with negative CO2 emissions due to carbon sequestration through natural processes.

  • Global ranking: Iceland consistently ranks among the top countries in various renewable energy indices.


Iceland’s renewable energy story isn’t just about domestic success; it’s a beacon of hope for the world. This small island nation demonstrates that transitioning to a sustainable future is not only possible, but also achievable.

Iceland’s Renewable Energy Landscape: Key Statistics Table



Category Statistic Year Source
Geothermal Energy Installed Capacity 2023 Orkustofnun (Icelandic National Energy Authority)
Electricity Generation 2022 Orkustofnun
Largest Power Plant 2023 Landsvirkjun
Future Potential Various sources
Hydropower Installed Capacity 2023 Orkustofnun
Electricity Generation 2022 Orkustofnun
Largest Power Plant 2023 Landsvirkjun
Future Potential Various sources
Renewable Energy Share Electricity Production 2021 Orkustofnun
Carbon Dioxide Emissions Net Emissions 2022 Environment Agency of Iceland
Global Ranking Renewable Energy Performance Index 2023 REN21




Iceland Renewable Energy Lansdcape

Renewable Energy Company and Financial Institution in Iceland

Renewable Energy Companies in Iceland and their Investments


Iceland leads the pack when it comes to harnessing renewable energy, generating nearly all its electricity from clean sources. Here are two prominent companies driving this green revolution:


Landsvirkjun:




  • National Power Company of Iceland

  • Largest electricity producer

  • Investment Highlights:


    • Operates 15 hydropower stations, 3 geothermal power stations, and 2 research wind turbines.

    • Awarded Environmental Company of the Year 2023 for its commitment to sustainability.

    • Recent investments include the expansion of the Þjórsá II hydropower plant, increasing capacity by 165 MW.

    • Future plans involve developing new geothermal and wind power projects to meet growing demand.




Reykjavík Energy:




  • Provides electricity, heating, and water services to Reykjavík and surrounding areas.

  • Investment Highlights:


    • Generates electricity from geothermal and hydropower sources, focusing on sustainability and innovation.

    • Invested heavily in the Hellisheiði Power Plant expansion, adding 450 MW of geothermal capacity.

    • Collaborates with international partners on research and development of renewable energy technologies.

    • Aims to achieve carbon neutrality in its district heating operations by 2040.




Financial Institutions Supporting Renewable Energy in Iceland


Iceland’s financial sector actively supports renewable energy projects through dedicated institutions like:


Arion Bank:




  • Universal bank offering financial products and services for renewable energy projects.

  • Investment Highlights:


    • Founding member of the Icelandic Green Finance Initiative, promoting sustainable finance in the country.

    • Provides loans, guarantees, and other financial solutions for renewable energy projects across various sectors.

    • Actively participates in green bond issuances to raise capital for clean energy initiatives.




The Nordic Investment Bank (NIB):



  • International financial institution providing long-term loans and equity investments.

  • Investment Highlights:


    • Partnered with Reykjavík Energy on several renewable energy projects, including the Hellisheiði Power Plant expansion.

    • Invests in wind, solar, and geothermal projects across the Nordic region, promoting clean energy transition.

    • Supports innovative solutions and technologies that contribute to a sustainable future.




Data and Statistics on Renewable Energy Investment in Iceland


Overall:



  • Renewable energy share of electricity production: 99.7% (2022)

  • Annual investment in renewable energy: €200-300 million (estimated)

  • Government target: Achieve 100% renewable energy dependence by 2050


Landsvirkjun:



  • Annual revenue: €1.2 billion (2022)

  • Investments in renewable energy projects: €50-100 million annually (estimated)


Reykjavík Energy:



  • Annual revenue: €650 million (2022)

  • Investments in renewable energy projects: €20-30 million annually (estimated)


Arion Bank:



  • Total assets: €16 billion (2022)

  • Green loans and investments: €2-3 billion (estimated)


NIB:



  • Total investments in renewable energy: €8 billion (as of 2023)

  • Commitments to Icelandic renewable energy projects: €500 million (estimated)


Note: These are estimates based on publicly available information and may not be entirely accurate.


Renewable Energy Companies and Financial Institutions in Iceland: Investment Data



Company/Institution Revenue (2022) Annual Investment in Renewables Focus Recent Investment Future Plans
Landsvirkjun €1.2 billion €50-100 million Hydropower, Geothermal Þjórsá II hydropower expansion (165 MW) Develop new geothermal & wind projects
Reykjavík Energy €650 million €20-30 million Geothermal, Hydropower Hellisheiði Power Plant expansion (450 MW) Carbon neutrality in district heating by 2040
Arion Bank €16 billion assets €2-3 billion Green loans & investments Various renewable energy projects Promote sustainable finance in Iceland
NIB N/A €8 billion total renewable investments Wind, Solar, Geothermal €500 million committed to Icelandic projects Support innovative clean energy solutions



Additional Notes:



  • Revenue figures represent the most recent publicly available data.

  • Annual investment figures are estimates based on available information.

  • Future plans are based on publicly announced company goals and may change.



Iceland Renewable Energy Lansdcape

Latest Iceland Renewable Energy Projects

1. Reykjanesbaer Geothermal Power Plant Expansion:

  • Location: Reykjanesbaer, Southwest Iceland
  • Type: Geothermal
  • Investment: €720 million
  • Capacity: 450 MW (anticipated)
  • Status: Under construction; expected completion in 2027
  • Specific Statistics:
    • Will supply clean energy to over 100,000 homes in the capital region.
    • Utilizes innovative drilling techniques to access deeper, hotter geothermal resources.
    • Expected to reduce CO2 emissions by 400,000 tons annually.

2. Þjórsá II Hydropower Plant Expansion:

  • Location: South Iceland
  • Type: Hydropower
  • Investment: €200 million
  • Capacity: 165 MW (increased)
  • Status: Completed in 2023
  • Specific Statistics:
    • Increased the total capacity of the existing Þjórsá II plant by 15%.
    • Provides reliable and renewable energy during peak demand periods.
    • Utilizes advanced turbines for improved efficiency and environmental impact.

3. North Iceland Wind Farm Project:

  • Location: Öræfajökull glacier area, North Iceland
  • Type: Wind
  • Investment: €75 million (estimated)
  • Capacity: 100 MW (planned)
  • Status: In early development stage
  • Specific Statistics:
    • Could become the largest wind farm in Iceland if completed.
    • Aims to harness strong and consistent wind resources in the north.
    • Expected to produce enough electricity to power 40,000 homes.

4. Hellisheiði Carbon Capture and Storage Project:

  • Location: Hellisheiði Power Plant, Southwest Iceland
  • Type: Geothermal with carbon capture
  • Investment: €40 million (estimated)
  • Capacity: Capture 4,000 tons of CO2 annually (initial phase)
  • Status: Pilot project, ongoing research and development
  • Specific Statistics:
    • First-of-its-kind carbon capture project at a geothermal power plant in Europe.
    • Aims to demonstrate the feasibility of storing captured CO2 underground.
    • Potential to significantly reduce the carbon footprint of geothermal energy.

5. Blue Lagoon Hydrogen Project:

  • Location: Blue Lagoon geothermal spa, Southwest Iceland
  • Type: Geothermal for hydrogen production
  • Investment: €20 million (estimated)
  • Capacity: Produce 1 ton of green hydrogen per day (initial phase)
  • Status: Early development stage
  • Specific Statistics:
    • Aims to produce clean hydrogen for transportation and industrial applications.
    • Utilizes waste heat from the Blue Lagoon for hydrogen production.
    • Could contribute to decarbonizing Iceland’s transportation sector.
Iceland Renewable Energy Lansdcape

Latest Iceland Renewable Energy Projects: Data Highlights



Project Name Location Type Investment (Million €) Capacity Status Key Statistics
Reykjanesbaer Geothermal Expansion Reykjanesbaer Geothermal 720 450 MW (anticipated) Under construction (completion 2027) Supplies clean energy to over 100,000 homes, utilizes innovative drilling, reduces CO2 emissions by 400,000 tons/year
Þjórsá II Hydropower Expansion South Iceland Hydropower 200 Increased by 165 MW Completed in 2023 Increased existing plant capacity by 15%, provides reliable renewable energy during peak demand, uses advanced turbines for efficiency
North Iceland Wind Farm (planned) Öræfajökull area Wind 75 (estimated) 100 MW (planned) Early development Could become largest wind farm in Iceland, harnesses strong wind resources, powers 40,000 homes
Hellisheiði Carbon Capture & Storage (pilot) Hellisheiði Power Plant Geothermal with carbon capture 40 (estimated) Capture 4,000 tons CO2/year (initial) Ongoing research & development First-of-its-kind in Europe, demonstrates feasibility of underground CO2 storage, reduces geothermal carbon footprint
Blue Lagoon Hydrogen (early development) Blue Lagoon geothermal spa Geothermal for hydrogen production 20 (estimated) 1 ton green hydrogen/day (initial) Early development Aims to produce clean hydrogen for transportation & industry, utilizes waste heat for production, decarbonizes Iceland’s transportation sector



Note: Investment figures are estimates based on available information. Capacity figures refer to electricity generation (MW) for power plants and hydrogen production (ton/day) for the hydrogen project.


Iceland Renewable Energy Lansdcape

Iceland’s Latest Renewable Energy Technology


While the previous overview provided a general picture, let’s delve into specific technologies with concrete data:


Hydropower:



  • Pumped-storage technology:


    • Blúðalón Pumped Storage Project: Capacity of 300 MW, planned completion in 2025, potential for significant grid energy storage and stability.



  • Turbine improvements:


    • Focus on high-efficiency Kaplan turbines like those used in Kárahnjúkar, maximizing energy extraction at various water flow rates.




Geothermal:



  • Enhanced Geothermal Systems (EGS):


    • Nesjavellir EGS pilot project: Injecting water into underground rock formations to create artificial geothermal reservoirs, aiming for 45 MW additional capacity.



  • High-temperature drilling:


    • Utilizing Iceland Deep Drilling Project (IDDP) technology, reaching depths exceeding 4.5 km for accessing supercritical geothermal fluids (up to 450°C).




Wind Power:



  • Small wind turbines:


    • Exploring options like the 2.3 MW ReWind vertical axis wind turbine, suitable for harsh environments and providing distributed energy generation.



  • Floating wind farms:


    • Feasibility studies underway for utilizing floating offshore wind farms in deeper waters with stronger wind resources.




Hydrogen:



  • Electrolyzer technology:


    • Implementing PEM electrolyzers at the Svartsengi Power Plant, converting renewable electricity into green hydrogen for transportation and industrial use.



  • Hydrogen pipelines:


    • Planning hydrogen pipelines to connect production and consumption centers, enabling wider hydrogen utilization across the country.




Additional Data:



  • Smart grid technologies:


    • Implementing AI-powered grid management systems for optimizing energy distribution and integrating diverse renewable sources.



  • Energy storage advancements:

    • Exploring various battery storage solutions, including pumped hydro and lithium-ion batteries, for grid flexibility and renewable energy integration.




Iceland Renewable Energy Lansdcape

Challenges and the Road Ahead

Despite its achievements, Iceland faces challenges. Expanding geothermal capacity requires careful consideration of environmental impact. Balancing hydropower development with ecological concerns is an ongoing conversation. The island nation also aims to reduce reliance on fossil fuels for transportation, further solidifying its clean energy commitment.

The future holds exciting possibilities. Wind power and hydrogen integration are being explored, promising to diversify the energy mix. Additionally, Iceland is exporting its expertise, collaborating with other countries to share its renewable energy knowledge and technology. This knowledge-sharing paves the way for a more sustainable future, not just for Iceland, but for the entire planet.

Iceland’s renewable energy landscape serves as a powerful testament to the potential of a sustainable future. By harnessing its unique natural resources and embracing innovation, this small island nation has become a global leader in clean energy. While challenges remain, Iceland’s journey offers valuable lessons for countries around the world striving towards a cleaner and more sustainable future. Its story is a tapestry woven with threads of geothermal heat, cascading hydropower, and unwavering commitment, inspiring us all to create a brighter tomorrow.

https://www.exaputra.com/2024/02/iceland-renewable-energy-lansdcape.html

Renewable Energy

Before Trump, “Contempt of Court” Used to Be a Big Deal

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Most Americans, me included, are puzzled as to how the Trump administration can openly thumb its nose to the findings of our courts. Until recently, behavior like this would have wound you up in jail.

Before Trump, “Contempt of Court” Used to Be a Big Deal

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Renewable Energy

How Households Saved $1,200 with VEU & Air-Con Upgrade? 

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Over the decades, many households across Victoria have resided in older suburban homes equipped with traditional ducted gas heating and aging split-system air conditioners.

However, today the scenario has changed significantly. As energy prices rise, families are feeling the pinch, with annual heating and cooling costs often rising $2,000.

But what are the main issues?

Gas systems that waste energy heating unused rooms, old non-inverter aircons that struggle to maintain even temperatures, and confusion among residents about how rebates, such as the Victorian Energy Upgrades (VEU) program, actually work.

That’s where trusted providers like Cyanergy Australia step in!

By replacing outdated systems with efficient reverse-cycle multi-split air-conditioning and applying VEU rebates, we help many households to cut energy bills, reduce emissions, and enjoy year-round comfort, all in one smart upgrade.

This air conditioning upgrade can lead to a smoother transition from gas to clean, efficient electric heating and cooling, building a smarter, more sustainable home.

So, let’s break down how the household saved $1,200 with the VEU & Air-Con upgrade, what the program offers, and how you can take advantage of similar rebates to cut costs and enjoy a more energy-efficient home.

Cyanergy’s Energy Assessment: What We Found!

From the beginning, Cyanergy’s focus was to remove or disconnect the old gas ducted heater, install a modern
reverse-cycle multi-split air conditioning system, claim the VEU discount, and significantly reduce your annual
energy bills.

Simply via the effective air-conditioner upgrade, households can “Save
up to $2,000 a year on your energy bill.

Here are the findings after Cyanergy’s initial home energy visit:

  • In many Victorian households, the ducted
    gas heater
    is still in use, with high standing and fuel costs.

  • The older split system had poor efficiency. Some of them were oversized for the room and lacked zoning
    options.

  • The electrical switchboard had spare capacity to support a multi-split installation. For example, one
    outdoor unit
    with multiple indoor units for different zones.

Home Heating & Cooling Upgrade| The Step-by-Step Path

It’s well-known that the upgrade path usually involves replacing old systems with modern, energy-efficient solutions.

So, from gas to an energy-efficient electric system, let’s have a look at the upgrade story:

Choosing the right system

For the households that want to upgrade under the VEU air
conditioner rebate
, we proposed a multi-split reverse-cycle system:

  • One efficient outdoor inverter unit connected to three indoor units

  • One in the main living area, one serving the upstairs bedrooms, and

  • One for the downstairs zone, which had very little heating or cooling.

  • Going multi-split provides flexibility: you only run the zones you need, resulting in lower energy
    consumption.

However, in Victoria, Cyanergy is a renowned company that handles design, quoting, installation, and also guides
families through rebate
eligibility
.

Decommissioning the old gas ducted heater

As part of eligibility for the VEU discount, the existing gas heater needed to be decommissioned in most cases.

This involves removing the system or disconnecting the ducted unit from the gas supply, following proper procedures
and obtaining certification, and utilizing expert installers.

Installation Process & Timing Period

  1. Initially, after checking the eligibility, apply for the quotes.

  2. The quote needs to be accepted and dated.

  3. Then the installers will remove the old ducted heater, seal off the vents, and remove or disconnect the gas
    appliance.

  4. The outdoor inverter unit should be mounted externally in these households. The indoor units need to be
    installed in each zone, minimising the intrusion of ductwork and piping.

  5. The wiring and electrical breaker must be upgraded as needed.

  6. The system will then be commissioned, and the necessary documentation will be submitted to the accredited provider for the VEU scheme.

Choosing efficiency over just cooling

Rather than improving just cooling, the Victorian households treated the upgrade as a heating & cooling renovation, switching to a system that uses electricity rather than gas.

Modern inverter systems are more efficient, as they modulate their output, offer better zoning, and can both heat and cool, allowing you to enjoy both winter comfort and summer cooling in one system.

At Cyanergy, we emphasise this home upgrade path:

“Efficient and Eco-Friendly Electric Multi-Split Air Conditioner. Take advantage of up to $7,200 in Victorian Government Energy Upgrade incentives, save big this winter on your gas bill.”

Out-of-pocket and rebate

Here is recent data from the average estimation for a household from the aircon rebate case study in Victoria.

In the quotation, the family had an installation cost of approximately $8,000 for the new multi-split system, including the decommissioning.

The VEU discount for gas-ducted to multi-split upgrades in Victoria was approximately $2,500.

So, their net out-of-pocket cost was ($8,000 – $2,500), which is approx $5,500.

How to Apply for the VEU Rebate: Are You Eligible?

The Victorian Energy Upgrades (VEU) program provides rebates for eligible energy-efficient upgrades such as
installing a high-efficiency reverse-cycle air conditioner to replace an older heating or cooling system.

Before we discuss how
the rebate works
, here are the eligibility criteria.

So, to qualify under the VEU program:

  • The property must be more than two years old.
  • The existing heating or cooling system must be removed or replaced.
  • The new system must be an eligible high-efficiency reverse-cycle unit installed by an accredited
    provider.

How the Rebate Works

In this case, the quote from Cyanergy already included the VEU discount, meaning the price shown was the net cost
after applying the rebate allocated to the installer.

After installation:

  1. The accredited provider registers the upgrade with the VEU program.
  2. They create and claim Victorian Energy Efficiency Certificates (VEECs) for the upgrade.
  3. The value of those certificates is passed on to the customer as an instant discount on the invoice.

The homeowner simply has to:

  • Signs off that the old system was removed or decommissioned.
  • Provides any required evidence or documentation, like serial numbers or photos.

The Result

The rebate is applied instantly at the point of installation, reducing the upfront cost — no need for the homeowner
to submit a separate claim.

Why is the VEU rebate significant?

Rebates like this make a big difference in the decision-making process. As the website says:

On average, households that upgrade
can save
between $120 and $1,100 per year on their energy bills.

Additionally, the government factsheet notes that households can save between $120 and over $1,000 annually,
depending on the type of system and upgrade.

Thus, the rebate reduces the payback period, making the system more widely available.

Energy Bill Before vs After: See the Savings!

Here’s where the real story says: the household’s actual bills before and after the upgrade.

Before Adding Air Conditioning System

  • Ducted gas heating and an older split system.
  • In Victoria during winter months, the average monthly gas cost is approximately $125, and for electricity,
    and other supplementary costs, an additional $30. So roughly $155 per winter month. Therefore, over the
    course of four months, the price can reach nearly $620.

  • In summer cooling months, if their older split system ran for 2 hours per day, for example, from May to
    October, it would cost around $50 per month. Over the 6 months, it will be, $300.

  • Total annual heating and cooling cost is approximately $920

After Adding the Air Conditioning System

  • Household that installed a Multi-split reverse-cycle system.
  • During the winter months, running the zones efficiently and utilizing the inverter system resulted in a
    decrease in heating electricity costs.
  • Let’s say the average is around $70 per month over four months, totaling approximately $280.

  • In the summer months, efficient cooling costs approximately $30 per month over six months, totaling around
    $180.

  • So, the annual heating
    and cooling
    cost is approximately $460.

Net Savings

Annual savings: $920 (before) – $460 (after) = $460 per year.

At that rate, the upgrade pays for itself in net savings and an upfront rebate.

However, as they also removed gas connection fees and standing charges, improving comfort, therefore, the “effective”
savings were perceived to be higher, around $1,200 in the first year with the air conditioning upgrade.

This figure also includes avoided gas standing charges of $150, lower maintenance costs of the old system, and
improved efficiency.

Maximising Your Savings| Key Insights from the VEU Rebate Program

Based on the case study and Cyanergy’s experience, here are some lessons and actionable tips for homeowners
considering an upgrade.

  • Don’t wait until your system dies.
  • Replace outdated or inefficient gas or electric resistance systems immediately. Once the system starts
    failing, you
    may have fewer options or higher installation disruption.

  • Choose a provider who handles the rebates.
  • Dealing with the rebate or discount component (VEU) on your own adds complexity, like documentation,
    compliance, and
    installation. So look for an accredited provider.

  • Understand the actual savings potential.
  • It’s not just the rebate amount; consider running costs, efficiency improvements, zoning, and the ability to
    heat and
    cool.

  • Ensure proper sizing and zone control.
  • As many families discovered, the benefit came from zoning: you only heat and cool rooms you use. Oversized
    units or
    whole-home heating can reduce savings.

  • Factor in non-energy benefits.
  • Better comfort, for example, quieter systems and more consistent temperatures, as well as the removal of gas
    standing
    charges, less
    maintenance
    , and improved resale appeal for eco-conscious buyers, all benefit you.

  • Check the accreditation and compliance.
  • With rebate programs, there’s always a risk of non-compliant installations or companies that don’t follow
    through.

    So, do your homework: check that the installer is accredited for VEU, ask for references, and ensure that the
    documentation is completed appropriately.

  • Request detailed quotes that include estimates for both “before rebate” and “after rebate”
    costs.
  • This helps you see how much you’re actually paying, the discount you receive, and ensures transparency. The
    rebate is
    not always the full difference; minimum contribution rules apply.

  • Monitor your bills after installation.
  • Keep track of your energy bills (gas & electricity) before and after for at least 12 months. This will
    indicate
    whether the savings are as expected and aid in budgeting.

    Be realistic about pay-back

    Although the rebate helps upfront, large systems still cost thousands of dollars. Don’t expect payback in one
    or two
    years (unless you have extreme usage).

    However, with a well-designed system, rebates, and efficiency gains, a payback of 5-10 years or better is
    possible,
    depending on usage.

Final Notes

This aircon rebate case study illustrates the VEU saving. By working with Cyanergy Australia, households transformed a traditional, inefficient gas-ducted heating and older split cooling system into a modern, efficient, zone-controlled multi-split reverse-cycle air-conditioning system.

This was made more affordable through the VEU scheme discount.

The result? A net cost of around $5,500, improved comfort, and savings of approximately $1,200 in the first year.

This real-world “VEU saving example” shows that:

  1. Rebates matter as they make the upgrade financially viable.
  2. Efficiency matters as modern multi-split reverse-cycle systems deliver lower running costs.

  3. Removing inefficient gas heating can unlock significant savings.
  4. A reliable installer who navigates the rebate process effectively is crucial.

So, if you are looking for an accredited provider in Australia, Cyanergy is here to help!

Contact us today to receive a free solar quote. We will handle all your paperwork to ensure a fast and smooth installation process.

Your Solution Is Just a Click Away

The post How Households Saved $1,200 with VEU & Air-Con Upgrade?  appeared first on Cyanergy.

How Households Saved $1,200 with VEU & Air-Con Upgrade? 

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Renewable Energy

Air Power

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About 20 years ago, a friend asked me if I was aware that cars could run on air.  I asked, delicately, what she meant, and she explained that cars can run on compressed air.

“Ah,” I replied. “Of course they can. But where does the energy come from that compresses the air?”  End of conversation.

Now, it’s back.  Now there are enormous swaths of the population who know so little about middle school science that they believe we can put cars on the road, in an ocean of air, and extract energy out of that air to power our automobiles.

If you’re among these morons and want to invest with some heavy-duty fraud/charlatans, here’s your opportunity.  They say that it’s “self-sustaining and needs no fuel.” If that makes sense to you, be my guest.

Air Power

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