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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

Transparent Solar Panels: a Powerful Alternative to Glass

Transparent Solar Panels: a Powerful Alternative to Glass

In the foreseeable future, transparent solar panels hold the potential to take the place of conventional windows, although several challenges must first be overcome. Transparent solar panels are crafted from materials that permit visible light to pass through while capturing the sun’s energy to generate electricity. This unique feature grants them an aesthetically pleasing advantage over traditional, bulky, and opaque solar panels.

However, the best technologies still have lower efficiency than their traditional counterparts, resulting in lower electricity generation per square meter. Moreover, the cost exceeds that of traditional ones, making them less economically viable for the majority of consumers.

Transparent solar panels are made of a transparent material, such as titanium dioxide or amorphous silicon. These materials allow visible light to pass through while still absorbing some of the energy to generate electricity. This makes transparent solar panels more aesthetically pleasing than traditional solar panels, which can be bulky and opaque.

They are still in the early stages of development, but they have the potential to revolutionize the way we generate electricity. They could be used to power buildings, cars, and other devices without taking up any extra space. For example, transparent solar panels could be used to create solar-powered windows that would allow natural light to enter a building while also generating electricity. They could also be used to create solar-powered car roofs or windows that charge the car’s battery whenever it is exposed to sunlight.

 

They will make economic sense in larger applications despite their lower power-generating capacity. For example, a large high-rise building with good solar exposure could have all the windows facing the sun made with solar panels instead of glass. On a large surface area, this would provide a significant amount of power to run the systems in the building. When combined with high-efficiency LED lighting, regeneration from elevators, and energy storage, the building could become energy neutral or even a net producer.

 

Numerous companies are vigorously working on enhancing the efficiency and affordability of glass solar panel windows. Successful advancements in this direction could potentially position transparent solar panels as a practical alternative to traditional windows in the future.

Here are some companies actively involved in developing transparent solar panels:

  1. SolarWindow Technologies: Pioneering the field, SolarWindow Technologies has created a transparent solar panel utilizing a thin film of titanium dioxide. This material absorbs sunlight and converts it into electricity. The company claims its transparent solar panel boasts 90% transparency and has the capacity to generate up to 10 watts of electricity per square meter.
  2. PolySolar is a company that specializes in the development and manufacturing of transparent solar panels. PolySolar’s transparent solar panels are made of a thin film of cadmium telluride (CdTe), which is a semiconductor material. CdTe is a very efficient material for absorbing sunlight and converting it into electricity. PolySolar’s transparent solar panels are also very transparent, allowing up to 80% of visible light to pass through.
  3. Onyx Solar is a company that specializes in the development and manufacturing of transparent solar panels. Onyx Solar’s transparent solar panels are made of a thin film of amorphous silicon (a-Si), which is a semiconductor material. a-Si is a very transparent material, allowing up to 80% of visible light to pass through.

These companies represent just a glimpse of the ongoing efforts to develop solar panel windows. With continued research and development, it remains promising that glass solar panels will eventually emerge as a compelling option for replacing windows in the future.

 

 


 

 

Source  Happy Eco News

Space-Based Solar Power Works!

Space-Based Solar Power Works!

The concept of space-based solar power (SBSP) has been around for over five decades, but it’s only now that scientists have achieved a major milestone in its development. In June 2023, scientists at the California Institute of Technology successfully transmitted solar power to Earth from space using a prototype spacecraft called Maple. This breakthrough could pave the way for energy to be sent to remote regions and areas affected by war or natural disasters where access to electricity is limited.

The idea of space-based solar power involves capturing the energy produced by the sun in space and transmitting it wirelessly to Earth using microwaves. The technology required to achieve this is complex, but the potential benefits are enormous. Since the sun shines 24 hours a day in space, space-based solar power would provide a constant source of renewable energy that’s not affected by weather conditions or time of day. It could also be used to power space missions and settlements.

The first engineering design for a solar power satellite was produced by Czech-born NASA engineer Peter Glaser in 1968 and published that year in the journal Science. Since then, there have been several attempts to develop the technology required for SBSP, but progress has been slow due to the high costs involved and technical challenges. However, recent advances in space technology and wireless power transmission have renewed interest in space-based solar power as a viable source of clean energy.

The Maple spacecraft launched into orbit in January 2023 was designed to test the technology required for SBSP. It consisted of two parts: a solar panel that captured sunlight and converted it into electricity, and a microwave transmitter that beamed the energy to a receiving station on Earth. The power was transmitted wirelessly over a distance of 1.2 miles, which may not seem like much, but it’s a significant achievement given the technical challenges involved.

One of the main challenges of space-based solar power is the need to transmit energy wirelessly over long distances without losing too much power. This is achieved using microwaves, which are similar to the waves used in microwave ovens but at a much higher frequency. Microwaves can travel through the atmosphere and are not affected by weather conditions, making them ideal for transmitting energy from space. However, they can also be dangerous if not properly contained, so safety measures need to be put in place.

Another challenge of Space-Based Solar Power is the cost involved in launching the necessary equipment into space. Solar panels and microwave transmitters are bulky and heavy, which makes launching them into space expensive. However, recent advances in space technology have made it possible to launch smaller and more efficient satellites at a lower cost. This could make SBSP more economically viable in the future.

The potential benefits of SBSP are numerous. Since it provides a constant source of renewable energy, it could help reduce our dependence on fossil fuels and reduce greenhouse gas emissions. It could also be used to power remote regions and areas affected by war or natural disasters where access to electricity is limited. In addition, it could be used to power space missions and settlements, making long-term space exploration more feasible.

However, there are also concerns about the potential drawbacks of SBSP. One concern is the environmental impact of launching large numbers of satellites into space. Space debris is already a major problem, and adding more satellites could exacerbate the problem. Another concern is the potential health risks of wireless energy transmission. Although microwaves are generally safe, there’s still some uncertainty about their long-term effects on human health.

Despite these concerns, the successful transmission of solar power from space to Earth using Maple is a major achievement that could pave the way for more research into SBSP and its development into a viable large-scale energy source. The next step is to scale up the technology and test it over longer distances.

While there are still challenges to overcome, the potential benefits of SBSP are enormous and could play a critical role in our transition to a low-carbon future.

 

 


 

 

Source  Happy Eco News

Use Technology to Create a More Sustainable Future

Use Technology to Create a More Sustainable Future

Renewable energy

There are four major sources of renewable energy in the UK – wind, solar, hydroelectric and bioenergy. The technology used in these solutions includes photovoltaics basics, which are commonly found in solar panels.

Wind turbines convert kinetic energy into rotational energy. Technologies being used to enhance to capabilities of wind turbines include smart blades, 3D printing and improved blade design.

Materials

Packaging has been at the forefront of environmental issues for a number of years. Businesses have switched to biodegradable materials instead of plastics in the hope of reducing the landfill problem and have sought to limit the amount of packaging used on products.

But new and emerging technologies have opened the door to even more creative solutions. One example is using CAD design software to create sustainable products from materials that are recycled and from renewable sources.

Using this type of technology to design and manufacture products such as packaging and clothing also results in less waste due to the accuracy of computer-generated cuts.

IoT technology

The Internet of Things is being increasingly adopted by a wide range of industries, making their processes more efficient, connected and sustainable.

As well as helping to track ESG goals, IoT technology allows data sharing, and improved productivity and can monitor logistics in real-time. Creating a more efficient factory, office or site can also help reduce energy consumption and waste and support the optimisation of the workspace.

AI

Artificial Intelligence has the potential to transform industries and, when used creatively, could harness a variety of sustainable solutions. For example, the agricultural industry has seen huge developments which have paved the way for automated tractors and other machinery as well as robotics for crop optimisation.

AI has also enabled farmers to create optimal conditions for improved nutrients and harvesting which the natural environment might struggle to achieve.

Electric vehicles

Powered by electricity rather than fossil fuels, electric cars produce less greenhouse gases than petrol or diesel vehicles. However, to optimise sustainability, the manufacturing and running of electric vehicles should eventually be facilitated via renewable energy.

As the government invests in introducing new charging points and electric vehicles become cheaper and more efficient, an increasing number of businesses and individuals are likely to switch from conventional cars.

As newer and more advanced technologies continue to emerge, there’s no doubt that sustainable solutions will become more creative, adaptable and profitable.

 

 


 

 

Source  Happy Eco News

Solar-Powered Honey: How Agrivoltaics Can Help Restore Pollinators

Solar-Powered Honey: How Agrivoltaics Can Help Restore Pollinators

The plight of pollinators.

Climate change and human development have greatly impacted large varieties of plants and animals. From big to small, no species has been entirely safe from the consequences of our actions.

Pollinators, in particular, have seen a large decline over the past twenty years. As habitat loss has accelerated, climate change has affected historical ranges, and pesticides have become more common.

While most pollinators are quite small, they greatly impact all of us as they help disperse pollen, allowing plants to reproduce.

As land use has contributed to habitat loss for these pollinators, there has been considerable opposition to introducing solar panels and arrays to areas with considerable numbers of these small creatures.

This brings agriculture proponents into an uneasy alliance with ecological activists, as agriculture proponents also don’t want their profits to decline as land is used for a different purpose.

However, a solution to both of these issues can be found in agrivoltaics, which is a promising alternative to single-use solar arrays.

Minnesota is showing an alternative.

Pollinators living alongside solar systems have found significant promise in Minnesota, USA. A 2016 law set up the Habitat Friendly Solar program, which incentives property developers and solar companies to build arrays with benefits for songbirds and pollinators.

This is in stark contrast to solar development in the 2000s. As a result of the high price at the time of solar panels, solar companies sought to cut costs anywhere they could. As a result, in their solar installations, they put in gravel instead of flowers or field grass due to the price being lower.

However, due to new research, solar developers have found that vegetation creates a cooling microclimate that benefits energy efficiency. They have since been putting in clover and other field grasses under and alongside their panels, but even now, they are putting in higher-rising flowers.

Connexus is a solar cooperative that has been operating in Minnesota, and have said that “It started with our headquarters solar array — initially designed to utilize class 5 gravel under and around the panels, we worked with Connexus member Prairie Restorations to design a low-growing, flowering meadow under and around the panels.”

These changes also have other ecological benefits, as some environmental advocates are promoting the planting of the native northern tallgrass prairie, which has declined to represent 1% of the land in the US since European settlement.

This could change the solar industry as a whole.

These changes to how solar arrays are installed represent a significant alliance between solar developers, natural conservation groups, and agriculture advocates.

These changes are a branch of agrivoltaics that advocates combining solar arrays and agriculture. These developments show that agriculture, pollinator habitat restoration, and solar energy are not mutually exclusive.

It is possible to have the best of these worlds combined, and it is, in fact, beneficial to all parties involved. The solar panels provide shade for specific species of plants and animals that are better suited to being out of the sun for part of the time, and the plants enhance solar panel efficiency.

In the transition to solar energy, it’s incredibly important that the development isn’t harmful to existing food production and ecology goals.

 

 


 

 

Source  Happy Eco News

Aquifer Thermal Energy Storage for Renewables

Aquifer Thermal Energy Storage for Renewables

It’s Not All About Energy Generation

When the topic of decarbonization comes up, oftentimes, we think of transportation or energy generation. These issues are important, as vehicle emissions are a major problem, as well as emissions from fossil fuel power generation. However, while important, these issues only partially show the roadblocks to moving towards a green future.

Another component that needs to be addressed in the conversation is energy storage and efficiency in renewable energy.

Wind and solar energy are important and rapidly developing technologies but are dependent on weather conditions that vary from month to month and from year to year. In colder months, when houses need to heat, that is when significantly less sunlight is present, thus driving down the available energy to heat them.

This is why energy storage is crucial to the conversation regarding renewable energy, but other solutions might mitigate this problem if properly implemented. This is how aquifer thermal energy storage (ATES) could help assist in cooling and heating buildings, reducing the reliance on other renewable energy sources.

How About Aquifer Thermal Energy Storage?

Energy storage is a difficult topic to address, as the technologies required to implement large-scale grid energy storage require, ironically, a lot of energy. This isn’t helped by the fact that hydrogen energy storage systems right now lose a significant amount of the energy stored.

This is why reducing the grid energy demand is important to implement renewable energy systems successfully. Aquifer thermal energy storage is an interesting form of renewable energy specific to the heating and cooling of buildings because it ties in directly with the seasons that affect solar energy so much.

It works by utilizing two wells connected to the same groundwater reservoir. Cold groundwater is pumped up to cool the building during the summer, then stored. The same process happens in winter but in reverse. Warm groundwater is pumped up into the building, then stored.

Aquifer thermal energy storage systems can also store excess heat from industrial operations, similar to the geothermal systems being deployed in decommissioned oil wells. This process can help bridge the gap between the seasonal availability of renewable energy while at the same time decarbonizing the heating and cooling sector.

This system is also useful because it can make energy infrastructure more resilient by reducing the demand currently placed upon it by heating and cooling. According to a study in Science Direct, Aquifer thermal energy storage systems could reduce reliance on fossil fuels for energy by up to 40%.

New Tech can Help but not Solve Inherent Limits

The importance of renewable energy in the transition to a greener world cannot be understated. However, it is also important to recognize that there are limitations to the technology currently available.

Going forward, there are certainly ways that renewable energy, specifically solar, can become more efficient; the issue of seasonal availability will always be there. This is why alternative methods of addressing needs like heating and cooling are as important.

The issue of energy storage is also important because bridging the gap between availability and need is necessary for making renewable energy a viable alternative to our current fossil fuel energy generation system.

 

 

 


 

 

 

Source Happy Eco News

 

Solar panel efficiency to increase 50% with “miracle” cells

Solar panel efficiency to increase 50% with “miracle” cells

A South Korean company has made a groundbreaking achievement as they unveiled the world’s first production line dedicated to perovskite-silicon tandem solar cells. These innovative solar cells have the potential to boost efficiency by 50-75% compared to standard solar panels.

The commercialization of perovskite-based solar cells marks a significant milestone after years of advancements with the mineral. It has widely been regarded as a “miracle” material capable of revolutionizing various industries, including renewable energy.

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The next-generation solar cell technology

Qcells, based in Seoul, has committed a substantial investment of US$100mn to bring this next-generation solar cell technology from the realm of lab tests and academic research to practical application.

A pilot production line to be operational by late next year will be funded by the investment at a factory in Jincheon.

“This investment in Jincheon will mark an important step in securing technological leadership,” said Justin Lee, CEO of Qcells.“With a global R&D network spanning from Korea, Germany and the US, Qcells will ramp up its efforts to produce high-efficiency advanced tandem cells.”

 

Improving sufficiency

Tandem solar cells offer a significant enhancement to the efficiency of conventional solar panels, by dividing the light spectrum and optimizing energy extraction from each segment to generate electricity.

In fact, the world record for solar cell efficiency stands at 32.5%, achieved with a perovskite-silicon tandem cell. In contrast, traditional silicon-based solar cells typically reach only around 22% efficiency.

This signifies that nearly one-third of solar radiation can be efficiently converted into electrical energy.

The development of tandem solar cells represents a promising leap forward in harnessing solar energy more effectively and surpassing the limitations of conventional silicon-based technologies.

 

 


 

 

Source Sustainability

 

New superyacht is virtually INVISIBLE with mirrored glass to reflect sky and clouds

New superyacht is virtually INVISIBLE with mirrored glass to reflect sky and clouds

A jaw-dropping new superyacht has been designed to be virtually invisible – with mirrored glass to reflect the sky, clouds and surrounding environment.

The Pegasus aims to be the world’s first 3D-printed vessel, its designer Jozeph Forakis said.

The 88m yacht’s design means it is “invisible both in design and in her environmental impact”, Mr Forakis added.

He explained that reflecting “Solar Wings” would provide solar-electric power in tandem with a hydrogen hybrid source.

The glass of the superstructure incorporates transparent solar panels to power electrolysers extracting hydrogen from seawater.

Fuel cells then convert hydrogen to electricity stored in Li-ion batteries for powering azimuth pods, a type of engine, and all operating and hotel systems.

The theme of zero emissions is also reflected in a multi-level “Tree of Life” hydroponic garden, providing fresh food and air purification.

The interior of the yacht features four levels connected by a sculptural spiral staircase.

There is a spacious guest lounge showcasing minimalist design and living nature, both inside – with living greenery – as well outside with uninterrupted views in all directions.

 

 

The top level is exclusive to the owner, with forward facing master suite featuring a large private terrace.

The forward pool club has an aquarium-style lap pool and expansive horizontal windows that transform into open balconies on both port and starboard. When closed, the pool cover functions as the helipad.

At the aft of the ship, the open beach club with an oversized jacuzzi and fold-down balconies transforms into an enclosed solarium with sliding glass panels across the ceiling and down the transom bulkhead.

The superyacht’s construction would use robotic 3D printing to create a mesh framework integrating both hull and superstructure.

The result would be an extraordinarily strong and lightweight structure that can be produced using less energy, material, waste, space, and time compared to conventional construction.

The futuristic yacht was conceived on a beach in Koufonisia, Greece.

Mr Forakis explains: “I was inspired to create a yacht as close to the sea and nature as possible, made of clouds floating above the waterline.

“I wanted to honour nature by blending into it, becoming virtually invisible.”

He adds: “Now is the time for courageous leaps toward our collective sustainable future.

“Pegasus is a bold but achievable vision for the near future of the superyacht industry, where man and machine live in harmony with nature rather than competing or compromising it.”

With no price formally announced yet, the Pegasus has been prepared to show to interested shipyards and could be in production by 2030.

 

 

 


 

 

Source  Mirror

‘No time to waste’: Tokyo makes solar panels mandatory for nearly all new homes

‘No time to waste’: Tokyo makes solar panels mandatory for nearly all new homes

Nearly all houses in Tokyo will have to install solar panels after April 2025.

The regulation – passed by the Japanese capital’s local assembly on Thursday – requires 50 major construction firms to equip homes of up to 2,000 square metres with renewable energy power sources.

The rule will help the city transition to green energy, city counsellors declared.

“In addition to the existing global climate crisis, we face an energy crisis with a prolonged Russia-Ukraine war,” said Risako Narikiyo, a member of the local assembly.

“There is no time to waste.”

 

Why is Tokyo making solar panels mandatory?

Tokyo is the world’s largest city, with a population of nearly 14 million people in its central metropolitan area. Per year, its residents emit an average of 8.6 tonnes of CO2 each.

The IPCC recommends that to meet our decarbonisation goals we should exceed no more than 2.3 tonnes of carbon each, per year.

Tokyo hopes to bring down its emissions footprint significantly in the coming decades. The city’s Metropolitan Government aims to halve greenhouse gas emissions by 2030 compared with 2000 levels, and to be emission-free by 2050.

But Tokyo lags in its uptake of renewable energy. Just four per cent of buildings with the capacity for solar panels currently have them.

The new rule will help change this.

Overall, the measure will save residents money, the metropolitan government says.

The 4 kilowatt panels will cost around 980,000 yen (€6,725) to install, but the government estimates that this will be covered by electricity sales revenue within 10 years. Subsidies will reduce this pay off time to around six years.

 

 


 

 

Source euronews.green

Major milestone for Greek energy as renewables power 100% of electricity demand

Major milestone for Greek energy as renewables power 100% of electricity demand

Renewable energy met all of Greece’s electricity needs for the first time ever last week, the country’s independent power transmission operator IPTO announced.

For at least five hours on Friday, renewables accounted for 100 per cent of Greece’s power generation, reaching a record high of 3,106 megawatt hours.

Solar, wind and hydro represented 46 per cent of the nation’s power mix in the eight months to August this year, up from 42 per cent in the same period in 2021, according to Greece-based environmental think-tank The Green Tank.

Green Tank called it, a “record of optimism for the country’s transition to clean energy, weaning off fossil fuels and ensuring our energy sufficiency.”

“European countries like Greece are rapidly accelerating away from fossil fuels and towards cheap renewable electricity. The milestone reached by Greece proves that a renewables-dominated electricity grid is within sight,” Elisabeth Cremona, an analyst at energy think tank Ember, told Euronews Green.

“This also clearly demonstrates that the electricity system can be powered by renewables without compromising reliability. But there remains more to do to ensure that renewables overtake fossil fuels in Greece’s power sector across the whole year.”

 

What’s the big picture for Greece’s energy transition?

It’s a significant milestone in the history of the country’s electricity system, and follows the bright news that renewables fully met the rise in global electricity demand in the first half of 2022.But Greece’s transition to clean energy hasn’t been entirely straightforward.

 

 

Solar panels soak up the sun’s rays at a new photovoltaic park near Kozani, Greece, pictured in August this year.

 

Like other European countries, Greece has cut its reliance on Russian gas following the war in Ukraine by increasing liquefied natural gas (LNG) imports to meet its needs. It has also boosted coal mining, pushing back its decarbonisation plan.

Using IPTO data, The Green Tank finds that renewables – excluding large hydro sources – surpassed all other energy sources, leaving fossil gas in second place as it decreased slightly for the first time since 2018.

Greece aims to more than double its green energy capacity to account for at least 70 per cent of its energy mix by 2030. To help hit that target, the government is seeking to attract around €30 billion in European funds and private investments to upgrade its electricity grid.

It plans to have 25 gigawatt of installed renewable energy capacity from about 10 gigawatt now but analysts say Athens might reach that target sooner.

IPTO has been investing in expanding the country’s power grid to boost power capacity and facilitate the penetration of solar, wind and hydro energy.

 


 

Source  euronews.green