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Premier League Clubs Agree To Minimum Standard Of Environmental Action

Premier League Clubs Agree To Minimum Standard Of Environmental Action

‘Underpin long-term environmental ambitions’

The Commitment outlines four operational measures, which will build on existing actions and provide a foundation to underpin long-term environmental ambitions. They are:

1. Develop a robust environmental sustainability policy, by the end of the 2024/25 season

2. Designate a senior employee to lead the club’s environmental sustainability activities

3. Develop a greenhouse gas (GHG) emissions dataset (scope 1, 2 and 3) by the end of the 2025/26 season and work towards a standardised football-wide approach to measuring emissions

4. Support the development of a common framework for action via the Premier League Sustainability Working Group (PLSWG)

The statement confirms that ‘the measures have been developed following extensive consultation with clubs and the Premier League Sustainability Working Group, which was established last year to help shape and inform environmental practices across the League.’

 

What impact will this have?

According to Sport Positive Leagues dataset (the latest update of which is in progress, out in March), the majority of Premier League clubs have an environmental policy or strategy in place. They range from a statement on the club’s website, to a large-scale breakdown of their activities, environmental footprint, reporting and ambition. Having a date in place for all clubs to have something robust in place is a strong step forward.

Designating a senior employee to lead the environmental sustainability activities is crucial, to ensure this stays on the agenda and is pushed forward. In Premier League clubs currently this ranges from head of sustainability and sustainability manager roles, to communications, facilities and operations.

Six Premier League clubs currently publicly share some or all of their carbon footprint – Manchester City, Liverpool, Tottenham Hotspur, Wolverhampton Wanderers, Nottingham Forest and Crystal Palace. Some clubs know their emissions footprint but don’t currently publicly report on scope 1, 2 and 3, beyond SECR regulations. Other clubs are earlier on in the journey of capturing data, but the majority are on the way to understanding their baseline. Having a standardised football-wide approach will enable a level playing field.

The development of a common framework for action via PLSWG is an important commitment, as the power of collective and unified action in football is key to ambition, action and success at scale.

 

 


 

 

Source   Forbes

 

Sustainable Cooling: Electrocaloric Cooling Breakthrough

Sustainable Cooling: Electrocaloric Cooling Breakthrough

As heatwaves intensify across the globe, the demand for air conditioning and refrigeration skyrockets. The ballooning demand for cooling strains energy infrastructure and escalates emissions from vapor compression systems. These conventional refrigerators and AC units rely on greenhouse gases and inefficient mechanical compressors that have reached their efficiency limits. With little room for improvement, vapor compression technology cannot sustainably shoulder doubling cooling demands. Scientists urgently search for climate-friendly innovations before the warming world overheats.

In a breakthrough discovery, researchers at the Luxembourg Institute of Science and Technology (LIST) pioneer a radically different cooling approach harnessing the electrocaloric cooling effect. This phenomenon describes particular ceramic materials that heat up or cool down when electric fields flip on and off. By cleverly leveraging this conductivity toggle, the LIST team designed an assembly that can pump heat without noisy, energy-draining compressors.

Electrocaloric cooling is a fascinating phenomenon where certain materials experience a reversible temperature change when an electric field is applied. In simpler terms, you can directly use electricity to manipulate their temperature, creating a cooling effect. This opens up exciting possibilities for energy-efficient and environmentally friendly cooling technologies.

The regenerative system developed by LIST alternates layers of electrocaloric capacitors with liquid coolant. Switching an electric field pulls heat from the fluid into the capacitors, cooling the system. Cutting voltage then dissipates the heat, so the cycle repeats. The smooth back-and-forth between hot and cold replaces high-maintenance mechanical parts with solid-state reliability. Scientists calculate that electrocaloric cooling efficiency leapfrogs vapor compression refrigeration by directly shuffling heat instead of wasting effort compressing refrigerants.

Since fluids naturally stratify by temperature, no added energy input is required to cycle hot and cold. The passive electrocaloric cooling generator minimizes electricity demands by exploiting thermodynamics rather than fighting against them. With game-changing energy savings over traditional refrigerator designs, this electrocaloric cooling technology paves the way for truly sustainable cooling.

Seeking real-world integration, LIST researchers collaborate with manufacturing partners to develop prototypes. The original discovery featured a single electrocaloric part, which limited heat transfer speed. The current regenerator assembly overcame this by interleaving many capacitors with parallel coolant channels. This boosts heat pumping capacity for powerful, real-world performance. Ongoing enhancements also aim to lower costs and extend operating lifetimes to enable widespread commercialization.

While the immediate goal focuses on eco-friendly refrigeration, the applications likely won’t stop there. Any process generating unwanted heat could benefit from electrocaloric cooling technology. Air conditioners, electronics cooling, industrial processes and even solar energy storage represent prospective opportunities. Because electrocaloric cooling systems thrive when miniaturized, microchip-level cooling also offers possibilities for computing breakthroughs.

For example, electrocaloric cooling films could provide on-chip cooling for high-performance computer processors, enabling faster computing speeds. Electrocaloric cooling systems can also be used to condense water vapor in air conditioning and dehumidification applications. This could allow environmentally-friendly refrigerants like water instead of HFCs to be used in vapor compression HVAC.

Additionally, the flexibility of electric-powered cooling lends well to renewable energy integration and smart grid load balancing. Electrocaloric heat pumps powered by wind or solar electricity during times of excess generation could store thermal energy for later dispatch while synchronizing supply and demand on the grid. With materials and system configuration innovations, electrocaloric cooling technologies show promise for revolutionizing thermal management across many sectors.

Despite enormous promise, unanswered questions remain regarding large-scale manufacturing and durability. However, early indications suggest the regenerator’s simple solid-state design will prove reliable over long stretches. By dodging complex mechanical components, the approach naturally steers towards sustainability. Cooling demand will only climb higher as climate change continues, but creative solutions like the LIST electrocaloric cooling regenerator offer hope we can innovate our way to a cooler future.

 

 


 

 

Source  Happy Eco News 

Mush-Rooms: How Mycelium Concrete Could Revolutionize Building Construction

Mush-Rooms: How Mycelium Concrete Could Revolutionize Building Construction

Mush-Rooms: Mycelium concrete (Myocrete) could revolutionize low-carbon building construction and provide another tool for building green.

A new paper published by the University of Newcastle has outlined a new method of creating a mycelium concrete construction material, with potentially far-reaching changes as a result.

The Need for Low-Carbon Building Materials

Concrete, by far, is the world’s most used building material. It is cheap, incredibly strong, and easy to manufacture. However, it carries costs elsewhere in our world.

The environmental impact of concrete manufacture, use, and transportation is incredibly high. Concrete production is responsible for 8% of all greenhouse gases worldwide, making it the second largest source of greenhouse gas emissions. Natural materials like mycelium concrete (myocrete) might be part of the answer.

Burning fossil fuels creates most of these greenhouse gases to heat the enormous kilns used to create concrete. As well as that, there are the negative effects of mining the sand and gravel required to create concrete, which disturbs the environment and destroys natural ecosystems.

There is also the fact that concrete production requires massive amounts of water, which puts a strain on communities and areas already in need.

There have been some developments to make concrete less environmentally damaging, such as improving the efficiency of kilns so they don’t require as much heat; however, by and large, concrete production and use have been disastrous for our world.

Nevertheless, new developments have been underway to replace this widely used building material, such as mass timber. However, a unique and potentially revolutionary new material could be just around the corner, and it’s something that you’re probably more used to seeing on your plate than in your buildings.

Mushrooms in Our Walls

Mycelium-based construction material research, including mycelium concrete, has been underway for several years, as the effects of concrete production have been well-documented for decades. However, so far, the ability to scale and use mycelium in construction has been limited by the available technology and methods.

Currently, the method used in creating mycelium-derived construction materials is by filling a rigid mold with a mixture of mycelium and a food source such as grain for the mycelium. This method can produce rigid shapes, such as bricks, which can be used in construction.

However, there are limitations to the usability of these materials. For one, the strength required to compete with concrete isn’t there, and the rigid mold limits the variety of shapes and structures.

A new method created at the University of Newcastle, dubbed mycocrete (mycelium concrete), could completely change this and how construction has been done. The way mycocrete works is similar to past methods, with some distinctions.

One of them is in the mold that the paste is put into; where previous methods used rigid molds, mycocrete uses a permeable knitted mold that facilitates the growth of the mycelium by the amount of oxygen available. This flexible mold also allows the mycelium to grow in shapes that otherwise would be impossible with a rigid mold.

The process works by filling the knitted mold with a mixture of mycelium, paper powder, paper fiber clumps, water, glycerin, and xanthan gum. This is then hung up in a dark, warm, humid environment to facilitate the mycelium’s growth.

The result is a mycelium-based material significantly stronger than conventional mycelium bricks, notably much stronger than the material created with rigid molds. This is due to the amount of oxygen the mycelium has access to, given the mold’s permeability.

Myocrete is Still in the Early Stages, Though

However, despite the team’s promising results at Newcastle, myocrete mycelium concrete based buildings are still quite far off.

While continuing to develop the mycelium compound is still of major importance, the main obstacle is the fact that the factories and industries that work with the construction industry will need to be re-tooled for mycelium concrete along with new installation equipment being implemented.

Nonetheless, they have created some interesting prototypes, including the “BioKnit” project. This project was created to demonstrate the use of alternative materials in solving conventional construction design problems.

The team created BioKnit as one piece to limit weak spots inherent in joinery. Dr. Jane Scott, the author of the corresponding paper, said, “Our ambition is to transform the look, feel, and well-being of architectural spaces using mycelium concrete in combination with biobased materials such as wool, sawdust, and cellulose.”

With the priority being placed on reducing the environmental impact of construction, this new method could completely change the way we live and the spaces we live inside.

 

 


 

 

Source Happy Eco News

Toyota’s smart, sustainable concept city of the future

Toyota’s smart, sustainable concept city of the future

The seeds of the Woven City were sown in 2011, after the Great East Japan Earthquake decimated the area of a manufacturing centre and the Higashi-Fuji Plant was moved to the Tohoku area. Before the move, the plant had produced over 7m vehicles and was a “a driving force in the motorization of Japan.”

Toyota has been present in Japan for over 50 years, with manufacturing centers and corporate bases in the country creating employment and investing in community – The Toyota School programme, established in 1977 has educated over 40,000 young minds.

The plant relocation inspired the creation of Woven City, a hub of sustainability, community and mobility designed by Danish architect Bjarjk Ingels and inline with Toyota’s global sustainability promises.

Electricity for the Woven City is primarily generated by hydrogen powered fuel cells, like Toyota’s Mirai vehicle, in an effort to reduce emissions.

“Building a complete city from the ground up, even on a small scale like this, is a unique opportunity to develop future technologies, including a digital operating system for the city’s infrastructure,” says Akio Toyoda, president, Toyota Motor Corporation. “With people, buildings and vehicles all connected and communicating with each other through data and sensors, we will be able to test connected AI technology… in both the virtual and the physical realms… maximizing its potential.”

The Woven City, named for Toyota’s belief that sustainability and technology needs to be woven into the fabric of our future, has begun as home to around 300 residents but will swell to thousands.

The development of the city, despite looking firmly to the future, featured many traditional Japanese woodworking techniques and recycled wood and other materials.

Sustainable tourism for Thailand

Toyota has just partnered with Pattaya City to develop the city as an electric tourism hub, utilizing the development of sustainable energy to enhance service efficiency, reduce costs, and minimize the ecological impact of the city’s operations.

Sustainable transport lies at the center of the city’s developments, including electric buses as the city trials electric baht-busses.

The undertaking falls under criteria from the decarbonized Sustainable City Development Project, created in 2020 to promote sustainable urbanization

Following in the footsteps of the Woven City’s fuel generation, Toyota and Pattaya City aim to establish Thailand’s first hydrogen refueling station for fuel cell electric vehicles, establishing infrastructure for longevity for the development. As electric vehicles grow in popularity, the consistent question is how the infrastructure of charging stations can keep up with the demand.

The partnership aims to pave the way for sustainable tourism developing globally, encouraging profitability without costing the planet.

 

 

 


 

 

Source Sustainability

Carbon Dioxide Livestock Feed

Carbon Dioxide Livestock Feed

Researchers may have discovered a protein substitute for livestock feed that is significantly less environmentally damaging than corn and soybean production. The researchers have explored the concept of synthetic nutrition, which means essential nutrients can be produced artificially, efficiently and with a small footprint. They have turned greenhouse gas emissions into an ingredient that could be used for carbon dioxide livestock feed.

The researchers captured carbon dioxide and combined it with renewable hydrogen to make methanol powered by wind and solar energy. With the material created, they applied a series of enzymes into an eight-step process which, after several combinations, created an amino acid called L-alanine. This amino acid makes protein and is an energy source for muscles and the central nervous system. It also strengthens the immune system and helps the body use sugars.

This isn’t the first time researchers have been able to transform carbon dioxide into food products. Researchers have found a way to convert carbon dioxide into starch that typically comes from corn which requires a lot of land, water and fertilizer to grow. The process they used was 8.5 times more efficient than photosynthesis, which the corn plant uses to convert CO2 and sunlight into carbs. Moreover, their process took only four hours compared to the 120 days required for corn to grow and generate starch.

These new processes of using carbon dioxide to minimize the use of corn and starch will bypass the problem of repurposing a climate-damaging waste stream. Although there are other ways to synthesize L-alanine protein, they require emission-intensive processes that require petroleum products. Using existing carbon dioxide will reduce the need for emissions and harmful products. It also decouples production from the land because less land will be needed to produce the same amount of L-alanine. It will also use significantly less energy as the energy required will be taken from renewable sources.

The demand for animal protein continues, so the need for carbon dioxide livestock feed will also rise. Researchers are developing solutions that utilize harmful and excess emissions that can be transformed into food for these animals. These new solutions will allow us to move away from excess land and water use and monocultures and help us create more biologically diverse environments.

 

 


 

 

Source Happy Eco News

Carbon capture: UK’s first plant could remove 1.5 million tonnes of CO2 from the air a year

Carbon capture: UK’s first plant could remove 1.5 million tonnes of CO2 from the air a year

A huge carbon capture power station has won planning permission for the first time in the UK.

The Keadby 3 plant in north Lincolnshire is the first carbon capture and storage (CCS) project to be greenlit by the government.

The news came the same day as Levelling Up Secretary Michael Gove approved a new coal mine in England – the first in 30 years, which will release an estimated 400,000 tonnes of greenhouse gas emissions (equivalent to 200,000 extra cars on the roads).

Carbon capture technology was part of the justification for allowing a new coal mine – which Gove claimed would be “net zero compliant”. But commentators were quick to point out the as-yet unproven technology is not in commercial use in the UK.

The new CCS project seeks to change that as soon as 2027. It is backed by Britain’s SSE Thermal, part of SSE, and Norwegian energy company Equinor – better known as an oil and gas major.

Grete Tveit, senior vice president for low carbon solutions at Equinor, describes it as “a significant milestone for our joint ambition to deliver clean, flexible and efficient power to support intermittent renewable generation and maintain security of supply.”

Business and Energy Secretary Grant Shapps signed off the proposed plant following extensive consultation, SSE said in a statement on its website on Thursday.

Keadby 3 would have a generating capacity of up to 910 megawatt (MW) and capture up to 1.5 million tonnes of CO2 a year, according to SSE. It says this represents at least 5 per cent of the UK government’s 2030 target.

It will be situated next to Keadby 1 and 2; two gas fired power stations in northern England’s Humber region.

The plan is for carbon pulled from the air to be sent through CO2 pipelines being built to transport emissions from industrial plants across the Humber to storage under the North Sea.

This is subject to final approval and investment; though the plant got a development consent order, the project is still in the due diligence stage of the government’s ‘cluster sequencing process’ for CCS.

Advocates of the technology say it has a key role to play in decarbonising the grid. But using CCS alongside gas fired power stations remains controversial among green groups.

“It is perverse that the world’s biggest polluters are in fact using CCS to extract more fossil fuels, creating more emissions,” Ken Penton, climate campaigner at Global Witness previously told Euronews Green.

“The time has now come for governments to stop chasing the CCS unicorn and instead build vibrant renewable energy sectors and massively increase energy efficiency of homes and businesses. The best and most proven way to stop climate change is to keep fossil fuels in the ground.”

 

 


 

 

Source euronews.green

Jaguar Land Rover: Tackling sustainability in supply chain

Jaguar Land Rover: Tackling sustainability in supply chain

Jaguar Land Rover has invited its suppliers to align to its sustainability commitments, of reducing greenhouse gas emissions across its operations
Achieving net zero across the entire value chain is becoming more important to global organisations as they are all trying to help in the fight against climate change.

Jaguar Land Rover has explained how its commitments can only be achieved by working closely with suppliers who share the same vision for change. Therefore the company has invited its global Tier 1 supplier network – products, services and logistics – to align with its 2030 goals, while maintaining the same quality.

“Fulfilling our SBTi commitments and achieving carbon net zero emissions across our entire supply chain by 2039 are the driving forces in Jaguar Land Rover’s industrial strategy. We can only meet these ambitious targets together, which is why we’re inviting suppliers to join us on this challenging but exciting journey, strengthening existing relationships to enable all parties to achieve significant, quantifiable goals,” said Barbara Bergmeier, Executive Director of Industrial Operations, Jaguar Land Rover.

 

 

Reducing the global impact of the automotive industry

Earlier this year, Jaguar Land Rover committed to reducing greenhouse gas emissions across its operations by 46% by 2030. In addition, the company will cut average vehicle emissions across its value chains by 54%, including a 60% reduction throughout the use phase of its vehicles.

The goals, which are approved by the Science Based Targets initiative (SBTi), confirm the company’s pathway to a 1.5°C emissions reduction in line with the Paris Agreement.

As explained in the new announcement, the company will ask Tier 1 suppliers to set their decarbonisation pathway, report transparently and demonstrate progress towards their targets. This would involve disclosing their carbon reporting and collaborating with their own supply chain to deliver the same reductions. This requirement has been shared with Jaguar Land Rover’s supply network, totalling more than 5,000 companies around the globe.

Wilhelm Steger, CEO of the ZKW Group, which supplies premium lighting systems to Jaguar Land Rover, said: “Our vision is pioneering, premium lighting and electronic systems for all mobility concepts in the global automotive industry. Together with Jaguar Land Rover, ZKW is taking the journey towards a more sustainable future. We are committed to protecting the environment and reducing environmental impact. As a consequence, we are taking responsibility, we are developing towards the Science Based Target Initiative (SBTi) within our business and converting our production sites to CO2-neutral by the end of 2025.”

 


 

Source Sustainability

 

Reduce food waste with processing and packaging solutions

Reduce food waste with processing and packaging solutions

It’s not hard to make the case for why tackling food loss and food waste is important to sustainability. About one-third of food produced globally never gets consumed. And food waste accounts for about 8 percent of global greenhouse gas emissions.

The food and beverage industry has a role to play by reducing food waste in companies’ operations, and by giving consumers products that are less likely to lead to waste. There is good reason (beyond sustainability) for the industry to pay attention — whether you’re a retailer, a manufacturer or a food brand — because consumers care about this issue. According to the Tetra Pak Index 2020, 77 percent of consumers say food waste is a concern, putting it on par with climate change.

Before we get to the role of industry, it’s important to understand the difference between food loss and food waste. Food loss is caused by inefficient growing, processing or preservation — in other words, food that fails to make its way to retail. A number of considerations in food manufacturing can reduce food loss. Increasing efficiencies can reduce product loss before food even leaves the factory, in addition to a number of other sustainability benefits.

Food waste occurs at the stages of distribution, retail and consumption by consumers. Because it’s driven by the short shelf life of food, we can ensure food is packaged to optimize shelf life. A variety of factors can protect and extend the life of the product.

Let’s take a closer look at these solutions.

 

Implementing a methodology like Total Productive Maintenance (TPM) will help improve the overall productivity of a plant, including mapping the sources of food loss and waste. Image courtesy of Tetra Pak.

 

Understanding where food loss happens in manufacturing

Once raw ingredients arrive at a plant for processing, there are many reasons those ingredients don’t make it out of the factory. The first step in tackling food loss at the factory is understanding where it is happening.

Modern automation systems, such as Tetra Pak PlantMaster, enable food and beverage manufacturers to track all product movements within their facilities. This data allows them to build a baseline to understand where and why food loss is happening, and where investments can be made for improvements.

Another way to understand and reduce food loss at the plant is by implementing a methodology such as Total Productive Maintenance (TPM). TPM is a holistic approach to working and equipment maintenance that aims to reduce stops and breakdowns. This method will not only help improve the overall productivity of a plant, but also help in mapping all the sources of waste and loss. For example, plant operators may find they are having a lot of starts and stops in the packaging process, which leads to liquid food loss. By implementing TPM, one food and beverage manufacturer was able to reduce its food loss by 3.6 million pounds.

Another pain point in processing with a significant amount of liquid food loss is the mix phase when the processing system switches from water to product and vice versa. This mix phase transition occurs between every batch, typically with numerous batches per day, per processing system. Recently at one of my customers’ sites, we implemented a solution that lessens the duration of the mix phase without compromising on product quality. This resulted in a 20.5-gallon reduction in product loss per transition, saving the company more than 24,500 gallons of product per system, per year. These savings can add up quickly.

Quality loss is another area to look at, and which would a focused improvement project under the TPM methodology would address. When manufacturers conduct internal quality sampling, they are de facto creating food loss. And some manufacturers are sampling up to 2 percent of their finished product. Once a sampling plan can be standardized, the sampling rate is reduced from 1 percent to 1.2 percent without compromising on quality or food safety.

 

Minimize food waste with packaging

Once food has escaped being lost during the production process, ample other opportunities can prevent it from becoming food waste. While food and beverage manufacturers don’t have much control over what logistics operators, retailers or consumers do, they can determine the packaging. The right packaging can extend shelf life and increase the odds of being consumed.

At the most basic level, good packaging must keep food safe to eat and free from bacteria or other contamination. A package is a physical barrier that keeps oxygen, water vapor and other particles out. Some packages protect from light, and others are used with processing techniques that extend shelf life.

A package should also protect the quality, integrity and taste of the product to ensure consumers don’t throw it out. Especially if your products contain functional, value-added ingredients, such as omega-3 fatty acids or vitamins, you need a package that will not compromise their effectiveness, bringing benefits to the consumer.

One final packaging consideration: Does it need to be chilled throughout the supply chain? Packages that require refrigeration are susceptible to spoiling if something goes awry during chilled transportation and storage to retail, or if consumers fail to get them into their fridge at home. However, a package that is shelf-stable will be perfectly fine unopened even if the power goes out. As an added bonus, a package that doesn’t require chilled transportation will cut down on transportation-related energy needs, while still maintaining the quality of the product and preventing food waste.

Having sound, thoughtful approaches to food processing and packaging is the entry point on the road to preventing food loss and waste. By optimizing processing, you’re ensuring more food makes it out the door and on its way to consumers. And by making smart packaging choices, you can ensure that products have a higher success rate of making it through the supply chain and being enjoyed by consumers.

 


 

Source  GreenBiz 

Food rescue feeds the hungry and cuts greenhouse gas emissions

Food rescue feeds the hungry and cuts greenhouse gas emissions

Feeding people in need was the main aim of Northland Food Rescue/Whakaora Kai Taitokerau when the organisation was first seeded in Whangārei in 2016.

But the benefits to the environment – by removing methane-producing food from landfills – quickly became obvious, community development worker Carol Peters​ said.

The organisation now receives food, which would normally go to landfill, from 35 suppliers, including supermarkets, cafes, growers and packhouses across most of Tai Tokerau.

 

Northland Food Rescue manager Peter Nicholas says Northland Food Rescue/Whakaora Kai Taitokerau is successful because it both feeds the hungry and reduces greenhouse gas emissions by saving food from landfill. DAVID WHITE / STUFF

 

The food is all weighed, so reductions in greenhouse gas emissions can be calculated.

It is then sorted and listed on a secure online “shop” so distributors – including churches, schools and food banks – can select which kai their clients need.

The scale of the operation means in the last year alone it saved 108 tonnes of food from going to waste, creating 305,000 meals and reducing 121 tonnes of greenhouse gas emissions.

Manager Peter Nicholas​ said 97 per cent of the donated food is perfectly edible, it just can’t be sold because of imperfections or expiry dates.

“It is a fault of our food supply system; it is usually perfectly edible food that can be distributed to people in need.

 

Northland Food Rescue has an online “shop” so distributors can select their food. David White / STUFF

 

“When there is food insecurity in this country, it makes no sense to be chucking food out.”

Food not fit for human consumption is fed to pigs or composted.

But most of the time, the food can be used with a bit of know-how, such as using fruit past its best in baking, Nicholas said.

Northland Food Rescue is run by 155 Whare Āwhina Community Houses, and its distributors include the organisation’s food bank and centre for homeless people, Open Arms.

 

Peter Nicholas says Northland Food Rescue has created 305,000 meals out of donated food in the past year, reducing 121 tonnes of greenhouse gas emissions. David White / STUFF

 

Another charity which benefits is Soul Food, which makes hot meals for the homeless and hungry once a week, as well as distributing food parcels.

Co-founder Chris Youens​ said Northland Food Rescue supplied quite a lot of Soul Food’s needs, especially the fresh produce important for a healthy diet.

“We get all sorts of produce through them which helps us make our meals on Monday nights,” he said.

Northland Food Rescue was about to move to a bigger warehouse in Whangārei and was trying to encourage more suppliers to donate unwanted food, Nicholas said.

“There is a lot more that could be rescued. Even after all these years of operating, it is still just the tip of the iceberg.”

Peters believed more produce could be rescued if people volunteered to help pick food or pick up tree fall.

It would help if New Zealand introduced a law to stop the likes of supermarkets from throwing waste food to landfill, as France did in 2016, she said.

But the organisation was also looking at a sweetener for suppliers: Investigating if carbon credits could be given to suppliers for their reduction in greenhouse gas emissions, Peters said.

 


 

Source STUFF

Waitrose and Lidl top list of eco-friendly supermarkets

Waitrose and Lidl top list of eco-friendly supermarkets

Waitrose and Lidl are the most sustainable supermarkets, according to a Which?’s eco-friendly grocer ranking.

Iceland finished last, according to the research, which tracked supermarket policies on: plastic waste and food waste, which shoppers have reported are the biggest issues for them; and greenhouse gas emissions, which most experts say poses the greatest environmental threat.

In its first such ranking, the consumer magazine pointed out that supermarkets respond to customer demand, so if shoppers make eco-friendly choices and demand sustainable options, this can influence shops to improve.

Harry Rose, editor of Which?, said: “We know that consumers increasingly want to shop sustainably and our in-depth analysis of three key areas shows that all the big supermarkets could be looking to make some improvements.

“The good news is shoppers can make a big difference themselves by adopting more sustainable habits, such as buying loose fruit and vegetables, buying seasonal local produce, eating less meat and dairy and limiting their own food waste.”

Lidl performed above its rivals on greenhouse gas emissions but fell short on food waste, though it said this is because it serves more fresh food in-store than many other comparable shops.

Waitrose has strong policies on plastic and food waste compared with other supermarkets, and scored reasonably for greenhouse gas emissions.

Iceland fell short because it was unable to report how much of its own-brand plastic is recyclable, so scored zero points. It also faces disadvantages as a frozen food specialist, as this made it the worst performer on operational greenhouse gas emissions due to its energy-draining in-store freezers. However, it does buy 100% renewable electricity for its UK sites.

Marks & Spencer was found to use a lot of plastic compared with other supermarkets. It was also the only one unable to provide its food waste data in a comparable format, so scored zero points for this, and was in the bottom half of Which?’s table for emissions.

For plastic use, the Co-op did best, while Ocado was the frontrunner in terms of food waste, as it redistributes almost all surplus food, leaving just 0.04% as waste.

 

Which?’s ranking of supermarkets’ green measures

1. Lidl – 74%
1. Waitrose – 74%
3. Asda – 71%
3. Sainsbury’s – 71%
5. Tesco – 69%
6. Morrisons – 68%
7. Aldi – 66%
8. Co-op – 65%
9. Ocado – 63%
10. Marks & Spencer – 48%
11. Iceland – 29%

 


 

Source Guardian