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New York State’s Largest Rooftop Solar Installation Ever

New York State’s Largest Rooftop Solar Installation Ever

New York State has taken a big renewable step forward with its largest rooftop solar installation yet. Recently, the state unveiled its largest rooftop solar project stationed atop the Medline Industries distribution center. This landmark achievement not only fortifies New York’s commitment to green energy but also serves as a beacon for other states to follow.

Tucked away at the expansive Medline Industries distribution center, this massive project is a testament to clean energy’s tangible benefits. With the capability to power an impressive 1,600 homes annually, the project is undeniably significant; it is the largest rooftop solar installation in New York state. This initiative boasts a production capacity of 7.2 megawatts to break down the numbers derived from its 17,000 solar panels.

Furthermore, the environmental implications of this largest rooftop solar installation project are profound. New York State expects to reduce its annual carbon footprint by 6,000 metric tons by harnessing the sun’s energy. To contextualize this, it’s akin to removing several thousand cars from the roads each year, paving the way for cleaner air and a healthier environment.

While individual projects like the one at Medline Industries are pivotal, they form part of a much grander scheme in New York’s green energy blueprint. Under the New York Climate Act Goal, the state has set its sights on an ambitious target: generating 6 gigawatts of solar energy by 2025. The largest rooftop solar installation in NY goes beyond just energy production—it’s about redefining the state’s relationship with power consumption and making clean energy an accessible commodity for all.

No significant venture comes to fruition without solid financial backing, especially the state’s largest rooftop solar installation. With its $8 million price tag, the Medline project required considerable investment. PowerFlex, a renowned entity in the clean energy domain, took the lead with a hefty $5 million investment. Their faith in the project’s potential was echoed by the New York State Energy Research and Development Authority, which further infused $3 million through its NY-Sun initiative. Such investments underscore the belief that sustainable projects are ecologically beneficial and economically viable.

Solar energy, while beneficial, remains elusive to many due to the upfront costs associated with panel installation and maintenance. This is where community solar projects step in as game-changers. These initiatives eliminate the need for individual households to install their own panels. Instead, they allow consumers to benefit from solar power by tapping into a shared grid, which receives energy from community-based solar installations.

By integrating solar power into the local grid, residents, irrespective of their housing situations or financial standings, can access clean energy. This communal approach democratizes solar energy access and fosters a sense of community collaboration towards a sustainable future.

New York’s endeavors in solar energy have solidified its reputation as a frontrunner in the U.S. community solar market. The statistics are telling: since 2012, the state has witnessed an astonishing 3,000% surge in solar access. Beyond the environmental accolades, this growth trajectory has ushered in economic prosperity. Over 13,400 individuals now find employment in the solar sector in New York. Additionally, as technologies and methodologies have improved, there’s been a notable 72% decrease in costs associated with solar energy, making it even more accessible.

The unveiling of Medline Industries’ largest rooftop solar installation is not merely a testament to New York State’s green ambitions; it’s a clarion call for other regions to intensify their renewable energy pursuits. As New York strengthens its renewable energy portfolio, its strategies and successes offer valuable insights for broader national and global adoption.

For stakeholders, investors, and the general public, there’s never been a more opportune time to delve deeper into the realm of solar energy. By understanding its intricacies and potential, one can contribute to and immensely benefit from the burgeoning solar sector.

 

 


 

 

Source   Happy Eco News

Masdar: Using technology to power a sustainable future

Masdar: Using technology to power a sustainable future
Renewable energy company Masdar has been making strides towards its sustainability goals by utilising the latest technology

As a global leader in renewable energy and green hydrogen, Masdar has pioneered commercially viable solutions in clean energy, sustainable real estate and clean technology in the UAE and around the world for over a decade.

Headquartered in Abu Dhabi, UAE, the business is currently developing large-scale renewable energy initiatives, in a bid to drive the progression of clean technologies and further grow technology in the renewable energy sector. In doing so, Masdar is focused on creating new long-term revenue streams for the UAE.

How is Masdar utilizing technology to boost sustainable energy?

Committed to advancing clean-tech innovation, Masdar utilises technology to enhance the renewable energy sector.

Masdar hosts a range of wind farms in its offshore project portfolio, including sites in London Array and the Dudgeon Offshore Wind Farm in the United Kingdom. The business has also partnered with Hywind Scotland, the world’s first floating offshore wind farm.

Additionally, Masdar deploys solar photovoltaic (PV) technology in utility-scale and off-grid solar power plants and rooftop systems, including monocrystalline silicon panels, polycrystalline silicon panels, and thin-film panels.

Depending on the solar potential, geographical location, and financial requirements of a specific solar PV project, a suitable PV system is implemented to meet the project’s needs.

Likewise, concentrated solar power (CSP) systems – which use mirrors to focus a large area of sunlight onto much smaller areas – are used to convert concentrated light into heat, to drive a heat engine connected to an electrical power generator. CSP systems have become known as a promising solar power technology for large-scale power generation.

When CSP and thermal energy storage (TES) are used together, it is capable of producing constant power for up to 24 hours a day.

Masdar’s sustainability commitments

With the aim of investing and actively supporting the development of young people, Masdar strives to help support the sustainability leaders of tomorrow through its Youth 4 Sustainability (Y4S).

His Highness Sheikh Khaled bin Mohamed bin Zayed Al Nahyan, Crown Prince of Abu Dhabi invested in the initiative, ensuring it aligned with the United Nations Sustainable Development Goals to bolster the nation’s sustainability efforts.

By 2030, Y4S aims to reach up to one million youth, creating awareness of the skills needed for future jobs in sustainability.

 

 


 

 

Source Sustainability

Green energy – Learn more about green energy sources

Green energy – Learn more about green energy sources

Green energy: What it is and how it works

Green energy is electricity with substantially less carbon dioxide output than fossil fuels. Sources that cause little-to-no impact on the world’s carbon footprint are considered green.

Green electricity sources include:

  • Geothermal energy
  • Solar energy
  • Wind energy
  • Hydro energy
  • Biomass energy

More Americans are looking favorably at green energy companies and green energy plans to help the environment. Plus, with President Biden’s current initiatives of “achieving a carbon pollution-free electricity sector by 2035,” the push toward reducing carbon dioxide, also called greenhouse gas emissions, is at an all-time high.

Most scientists today agree that the world is getting warmer due to carbon dioxide production. The good news is that the U.S. was the second leading country “in installed renewable energy capacity worldwide in 2020,” following China in the top spot, according to Statista.

Within the U.S., Texas, California, and Washington are typically among the top five green-energy producing states. These states have a strong command of renewable energy, excelling at wind and solar generation.

 

Green energy vs. renewable energy vs. conventional power

Green energy and renewable energy often are used interchangeably, but the terms aren’t the same. All green electricity sources of power are renewable, but certain renewable energy sources are not green. For example, burning wood to produce electricity generates carbon dioxide. So, while wood is renewable, many scientists debate whether it is truly green.

Similar arguments can be made about other green energy sources. Solar and wind energy are often considered the best renewable energy; however, both aren’t necessarily green. Solar panel materials and manufacturing produce waste. Wind turbine blades can stay in landfills long after they’ve been used. Hydro energy can damage the environment by destroying habitats.

However, all renewable energy sources, including biomass, can reduce our dependence on the conventional power supply of fossil fuels such as coal, oil, and natural gas. Here are a few examples of renewable or green energy sources available right now.

 

Geothermal energy

Geothermal energy uses hot water and steam that comes from underground reservoirs. It can reach as far as the magma layer of the earth. Green electricity providers and power plants using this type of energy convert the heat and steam and use it to drive a turbine, which produces electricity.

The U.S. is the world’s largest producer of alternative electricity from geothermal energy. California, Nevada and Utah are some of the top states producing geothermal energy. Texas is also considered an untapped resource when it comes to geothermal. The Energy Information Administration says billions of barrels of water as hot as 200 degrees are produced annually as part of crude oil and natural gas production and could be used in geothermal generation.

Solar energy

Solar energy is a small but growing part of the nation’s energy puzzle, producing 3.3% of the electricity generated in December 2021, the most recent month available from the EIA. Most people have seen solar panels on rooftops or in large solar farms, mostly in rural settings, but few know how they work.

The solar panels act as semiconductors, with positive and negative layers. A conductor attached to both layers creates an electric circuit and turns electrons from sunlight into electricity. Finally, a solar inverter converts direct current into alternating current for residential use.

California, Texas, and Florida generated the most solar electricity in December 2021, at 29.1%, 12.6%, and 8.5%, respectively.

Wind energy

Across the U.S., total wind generation increased almost 25% year over year. Texas, Iowa and Oklahoma lead the nation in wind energy production. However, Texas is responsible for more than 28% of the nation’s electricity generation, which is over three times as much as any other state.

Wind energy, in general, accounts for about 11% of the nation’s energy. Here’s how it happens: Wind causes the huge turbine blades to spin, causing a rotor inside to turn as well. The rotor, in turn, is hooked up to a generator, which turns the motion of the rotor into electricity.

Hydro energy

Electricity generated by hydroelectric projectsaccounts for about 7% of the country’s electricity.Washington, Oregon, and New York are three of the top-producing hydro energy states. However, hydropower fell by as much as 14% in 2021 due to droughts across California and the Pacific Northwest, according to the EIA.

Dams are the key component for this form of green energy. The dams allow hydroelectric plants to channel water through turbines, again feeding generators that turn the kinetic energy into electricity.

Biomass energy

Biomass is organic material from plants and animals. The material can be burned as is or converted to liquid or gas biofuels. Examples of biomass include wood, other plants, and wastes. Wood and ethanol make up the largest energy sources of biomass, which produces about 5% of the country’s energy, with California, Georgia, and Florida as three of the top-producing states.

 

How to get a green energy plan

Renewable energy is part of every Texas energy plan. The percentage of renewable energy can be found on a plan’s Electricity Facts Label. Most retail electric providers in Texas also offer plans with higher percentages of green electricity, including plans that are 100% green.

Some providers are green energy companies that only sell 100% green energy, such as Gexa Energy, Green Mountain Energy, and Chariot Energy.

Green energy plans and programs

Here’s how green energy providers in Texas operate to give their customers access to renewable energy.

Green energy companies like Gexa Energy purchase renewable energy credits (RECs)from alternative energy generators in the amount to offset your energy usage. These renewable energy sources are a combination of wind, solar, hydro, geothermal, and biomass outputs.
The energy you use at your home isn’t from these sources directly, because the power grid is a blend of electricity from all sources (renewable and conventional power sources). However, your green energy provider is purchasing the equivalent amount of energy you use from renewable sources.
If you want to use renewable energy directly at your home, having a solar panel system at your residence is a popular choice. Otherwise, your electricity will be a blend of sources.

Get a green energy plan

Uncertain of how to proceed? That’s understandable, given that there are different term lengths and options to purchase no-deposit or prepaid plans. Our buying guide offers useful tips on how to decide on a plan. Check out our green electricity rates page for more information on purchasing a green energy plan.

 

 


 

 

Source SaveOnEnergy.com

 

Apple aims for 100% recycled cobalt in batteries by 2025

Apple aims for 100% recycled cobalt in batteries by 2025

Apple has unveiled plans to increase the use of recycled materials in its products, with a new target of using 100% recycled cobalt in all Apple-designed batteries by 2025.

The tech giant will also aim to use entirely recycled rare earth elements in magnets for its devices and 100% recycled tin soldering and gold plating in all Apple-designed printed circuit boards by the same year.

“Every day, Apple is innovating to make technology that enriches people’s lives, while protecting the planet we all share,” said Tim Cook, Apple’s CEO. “From the recycled materials in our products, to the clean energy that powers our operations, our environmental work is integral to everything we make and to who we are. So we’ll keep pressing forward in the belief that great technology should be great for our users, and for the environment.”

 

Reducing Apple’s carbon footprint

The announcement is part of Apple’s broader efforts to reduce its carbon footprint and become more environmentally friendly.

In 2022, the company significantly expanded its use of recycled metals, with over two-thirds of all aluminium, nearly three-quarters of all rare earth materials, and more than 95% of all tungsten in Apple products sourced from 100% recycled material.

Apple’s rapid progress in this area brings the company closer to its ultimate goal of making all products with only recycled and renewable materials and advances its aim to achieve carbon neutrality for every product by 2030.

“Our ambition to one day use 100% recycled and renewable materials in our products works hand in hand with Apple 2030: our goal to achieve carbon neutral products by 2030,” said Lisa Jackson, Apple’s vice president of Environment, Policy, and Social Initiatives. “We’re working toward both goals with urgency and advancing innovation across our entire industry in the process.”

If Apple is able to achieve this goal, it will show major steps towards achieving a more sustainable future for the company.

 

 


 

 

Source Sustainability

How automotive batteries are being turned into solar power storage

How automotive batteries are being turned into solar power storage

As concern over climate change and the need for clean energy sees an increasing number of people switch to electric cars, these vehicles are fast gaining a larger market share.

But some experts are asking how green the batteries that run them really are?

They’re raising questions about the environmental impact of lithium mining, respect for human rights and alleged child labour in cobalt mines, the high energy costs of production, and a recyclability rate of barely 10%.

Rita Tedesco, ECOS Head of energy transition says that the recycling of materials of batteries “at this moment is neither interesting for recyclers nor for manufacturers because it’s much cheaper to extract virgin materials than to recycle them.”

But a Spanish company is trying to give used car batteries a ‘second life’.

As part of the EU project, Stardust, its reconditioning them to store solar energy, adding at least 10 years to their life.

Critics say European Union legislation on sustainable practices in battery recycling is largely outdate.

But discussions are currently underway on proposed legislation which could regulate the production chain from extraction to the recycling and reuse processes.

Watch the video in the player above.

 

 


 

 

Source euronews

 

Clean energy developer Low Carbon to build 75MW of new solar projects

Clean energy developer Low Carbon to build 75MW of new solar projects

Solar plants planned for Buckinghamshire, Derbyshire, and Essex hailed as an ‘important addition’ to developer’s growing portfolio
Renewables developer Low Carbon has announced it is to build three large-scale solar farms in England using a multi-bank financing facility from NatWest, Lloyds Bank, and AIB.

The company said the plants, which have a combined capacity of more than 75MW are to be funded through the new financing facility, which was set up in September with the aim of supporting 1GW of new renewable energy capacity.

Work on the 23.4GW Fox Covert Solar Farm in Buckinghamshire is due to commence immediately, while work on the other two sites – the 28.8MW Inkersall Road Solar Farm in Derbyshire an the 23MW St Clere’s Solar Farm in Essex – will start next year, according to the update.

Roy Bedlow, CEO and founder of Low Carbon, said the rapid creation of renewable energy capacity would help protect homes and businesses from soaring energy prices. “Only by accelerating the rollout of clean, affordable energy can we fully decarbonise and achieve our shared climate goals,” he said. “Today’s announcement also marks an important step towards Low Carbon’s own strategic targets of net zero and 20GW of new renewable energy capacity by 2030.”

Low Carbon said the projects were “an important addition” to its growing project portfolio in the UK, Europe and North America and would help avoid approximately 16,000 tonnes of CO2e emissions annually.

Bouygues Energies & Services will deliver the design an build of all three projects, according to the update.

The announcement comes as the UK solar farm sector continues to face an uncertain policy environment, with Defra undertaking a review of planning rules that could restrict the development of new projects on agricultural land.

The industry has warned the proposals would seriously restrict new project development while having a negligible impact on food security. Trade group Solar Energy UK has said the mooted reforms could jeopardise billions of pounds of planned investment, drive up energy bills, and undermine energy security.

 

 


 

 

Source BusinessGreen

Rooftop wind energy invention is 16 times more efficient than solar panels

Rooftop wind energy invention is 16 times more efficient than solar panels

A new rooftop wind harvesting device is capable of generating 50 per cent more electricity than solar panels for the same cost, according to its inventors.

A much smaller footprint means a single unit can also provide the same amount of power as up to 16 solar panels.

The motionless design, created by Texas-based startup Aeromine Technologies, replaces the blades found in traditional wind turbines with an aerodynamic system that harvests energy from the airflow above a building.

This makes them virtually noiseless and safe for birds and other wildlife.

“This is a game-changer adding new value to the fast-growing rooftop power generation market, helping corporations meet their resilience and sustainability goals with an untapped distributed renewable energy source,” said Aeromine CEO David Asarnow.

“Aeromine’s proprietary technology brings the performance of wind energy to the onsite generation market, mitigating legacy constraints posed by spinning wind turbines and less efficient solar panels.”

Aeromine’s units require 10 per cent of the space needed for solar panels, while also being capable of producing electricity 24 hours a day throughout the year.

The firm said the technology will reduce a building’s need for energy storage capacity and could potentially even make the building energy independent, depending on the building’s design and location.

“The technology is a major leap forward from legacy distributed wind turbines that are ill-suited for most rooftop applications,” the site states.

“Aeromine’s founders have created a much more effective way to harness even moderate wind to create energy for large, flat rooftop buildings such as warehouses, data centers, office, and apartment buildings.”

The device is currently being tested at a manufacturing facility in Michigan, while future applications could include large residential buildings and electric car charging stations.

 


 

Source The Independent

Solar Blanket: Sustainable, Self-Sufficient Renewable Energy

Solar Blanket: Sustainable, Self-Sufficient Renewable Energy

Access to sustainable living and greener choices is still fairly limited to those that can afford to do so, often raising questions around inclusivity and accessibility in relation to sustainable, self-sufficient living.

If the aim is to move towards a greener future, including the widespread adoption of sustainable energy choices at both the macro and micro scale, the opportunity for everyone to access the renewable energy solution is absolutely vital.

A recent graduate of the MA Material Futures at Central Saint Martin’s (CSM), London, Mirielle Steinhage has conceived of a solar-powered blanket that could grant access to renewable energy to those in need. The blanket is made from a conductive material that can be used to warm a person using solar power as the energy source.

People Power
Steinhage was inspired to develop the project – People Power – as a way of making sustainable energy more accessible and by exploring ways in which to introduce people to affordable renewable energy products.

This is because often, there is an imbalance in the emphasis placed on individuals to take personal responsibility versus being able to access the resources to do so. This is far from the ideal scenario in a world trying to combat climate change.

This is where Steinhage’s ‘People Power’ could prove to be crucial, as it offers those living close or beneath the breadline access to technology that would benefit them in a practical scenario.

 

Cost Savings and Circularity
The energy-saving ‘Solar Blanket’ directs heat toward the user and isolates the warmth in their immediate periphery, which avoids wasting energy on heating up an entire space. Furthermore, the blanket could retail for around 10 GBP (roughly 12 USD), and as it is solar-powered, it does not incur any extra costs for charging either via a power supply or buying replacement batteries.

The solar panel which charges the blanket remains functional in almost all weather conditions and has been designed for easy positioning in front of a window. Currently, Steinhage has three low voltage prototypes, between 5 and 12 volts. The 12-volt blanket has the capacity to heat to around 30 degrees Celsius, and the power bank remains functional for two hours on a single full charge.

The blanket’s portable power bank has the potential to be used with other compatible objects in the home. Additionally, portability means that the blanket can be used in a wide range of scenarios and environments as it is not restricted to a single room.

Steinhage’s design is made from polyester fabric combined with a conductive yarn that helps generate heat. A polyester ribbon is also part of the fabrication to prevent any damage when the yarn comes into contact with itself when folded or in use.

Steinhage specifically chose these materials for their cost-effectiveness, functionality, and durability. Moreover, they can be easily separated for recycling, making the blanket a circular product that could be later converted into other useful products.

In the future, Steinhage is focused on developing more sustainable, self-sufficient renewable energy products that are accessible to all. She hopes she can extend the People Power range to include household lighting solutions and fans that would be compatible with the same solar panel and power bank.


Source – AZoCleantech

Hornsea 2 offshore wind farm now fully operational, making it the world’s largest

Hornsea 2 offshore wind farm now fully operational, making it the world’s largest

Construction began at the 165-turbine project, 89km off the coast of Yorkshire, in 2018. Ørsted announced on Wednesday (31 August) that it is now fully operational.

The Dutch business now has 13 fully operational offshore wind farms in the UK that it either fully or partly owned, with a combined capacity of 6.2GW. Its other British projects include Hornsea 1, Walney and the Walney Extension, and Burbo Bank and the Burbo Bank Extension.

“The UK is truly a world leader in offshore wind and the completion of Hornsea 2 is a tremendous milestone for the offshore wind industry, not just in the UK but globally,” said Ørsted,’s head of region for the UK Duncan Clark.

 

 

 

“Current global events highlight more than ever the importance of landmark renewable energy projects like Hornsea 2, helping the UK increase the security and resilience of its energy supply and drive down costs for consumers by reducing dependence on expensive fossil fuels.”

To Clark’s point on cost, the Government is currently consulting on what it describes as the broadest plans for electricity market reform in a generation. Among the measures proposed in the Review of Electricity Market Agreements (REMA) are interventions to de-couple global gas prices from electricity prices. Prime Minister Boris Johnson spoke out in favour of change at last month’s G7 Summit in Germany.

In the UK, wholesale electricity prices are informed by gas prices, partly due to the historic and present extent of gas-fired generation in the energy mix. It has been pointed out that this is not fair on domestic and business customers who purchase 100% renewable energy. Under the latest CfD round, offshore wind operators will sell power for as little as £37.35 per MWh.

 

Offshore wind expansion

The UK is aiming to host 50GW of offshore wind by 2030 in contribution to its ambitions on net-zero emissions and energy security. This target was announced in April’s Energy Security Strategy, increasing the previous 40GW target set by Johnson through the Ten-Point Plan. The Strategy envisions 95% of the UK’s electricity mix being low-carbon by 2030, rising to 100% by 2035.

A further extension in the Hornsea zone is set to help deliver on the 50MW by 2030 goal. Last year, Ørsted received allocation through the Contracts for Difference (CfD) auction scheme for Hornsea 3, after the project received consent for development in December 2020. Up to 231 turbines will be installed for Hornsea 3 and Ørsted expects to commission the project in 2027. In total, the three Hornsea projects will have a combined capacity exceeding 5GW.

In the UK government’s latest CfD auction round in July, 11GW of renewable energy was commissioned in total. The lion’s share, as usual, went to offshore wind developers.

 


 

Source edie

Singapore introduces framework for sovereign green bonds ahead of inaugural issuance

Singapore introduces framework for sovereign green bonds ahead of inaugural issuance

Singapore on Thursday (Jun 9) published the governance framework for sovereign green bonds, ahead of the first such issuance expected in the next few months.

This comes as Singapore moves to develop the green finance market and make green finance a driving force for sustainability.

The Singapore Green Bond Framework sets out guidelines for public sector green bond issuances under the Significant Infrastructure Government Loan Act 2021 (SINGA), said the Ministry of Finance (MOF) and the Monetary Authority of Singapore (MAS) in a media release.

It covers the Government’s intended use of green bond proceeds, governance structure to evaluate and select eligible projects, operational approach to manage green bond proceeds, and commitment to post-issuance allocation and impact reporting.

In addition to providing the foundation for green bonds issued by the Government, the framework will also serve as a reference for statutory boards that issue their own green bonds.

The key principles considered in the development of the framework were alignment with internationally recognised market principles and standards; stringent governance and oversight of project selection and allocation of proceeds; and technical screening to evaluate and identify green projects, MOF and MAS said.

 

 

Eligible expenditures

At Budget 2022, Finance Minister Lawrence Wong announced that the Government would issue S$35 billion of green bonds by 2030 to fund public sector green infrastructure projects.

Proceeds from these bonds, which will be issued under the new framework, will be used to finance costs associated with the Singapore Green Plan 2030, MOF and MAS said.

In turn, the eligible green projects are expected to facilitate the transition to a low-carbon economy in Singapore and contribute to the climate-related and environmental goals set out by the Singapore Government.

The categories of “eligible green expenditures” are:

  • Renewable energy
  • Energy efficiency
  • Green building
  • Clean transportation
  • Sustainable water and wastewater management
  • Pollution prevention, control and circular economy
  • Climate change adaptation
  • Biodiversity conservation and sustainable management of natural resources and land use

 


 

Source CNA