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Nestlé & Cargill use cocoa shell in new lowcarbon fertiliser

Nestlé & Cargill use cocoa shell in new lowcarbon fertiliser

Approximately 5% of global greenhouse gas (GHG) emissions are currently produced from the production and use of conventional fertiliser, and more than half of the carbon footprint of wheat grown in the UK is related to fertiliser use.

Nestlé UK & Ireland and Cargill have partnered to develop innovative solutions in regenerative agriculture. The initiative — a UK supply chain trial — aims to assess whether cocoa shells from a confectionery site in York could be used to create a low carbon fertiliser.

The trial to evaluate the fertiliser’s performance on crop production, soil health and GHG emissions reduction will last two years, and, if successful, could produce and offer up to 7,000 tonnes of low carbon fertiliser to farmers in Nestlé’s UK wheat supply chain. This amount of fertiliser equates to around 25% of Nestlé UK’s total fertiliser use for wheat.

“Farmers often find themselves to be among the first groups to be exposed to global issues, and these risks are then borne by the food system we all depend upon,” shares Matt Ryan, Regeneration Lead at Nestlé UK & Ireland.

“We have to find ways to build more resilience into the system and optimising our use of natural resources is a critical part of this.

“This project is a small, but very meaningful step towards a net zero future, where farmers, local enterprises, and nature all stand to benefit”

 

Reducing emissions across the supply chain

Cargill supplies the cocoa shells from its York facility where the shells are processed to become key ingredients in iconic products like KitKat and Aero.

Recycling valuable nutrients from waste streams within the food system provides a promising opportunity to create a lower emissions supply chain. Scaling up low carbon fertiliser production in the UK can provide farmers with a more sustainable product at a reliable price.

The trials, which were designed and are being overseen by York-based Fera Science Ltd, are currently taking place on arable farms in Suffolk and Northamptonshire. They are designed to investigate the performance of the fertiliser in terms of wheat yield and quality, as well as assess the impacts on soil biodiversity and GHG emissions in comparison to conventional products applied on the same farms.

“We have now finished harvesting and we’ve successfully grown a Winter wheat crop using this new fertiliser. We’ve compared two parts of the field, one which used the cocoa shell fertiliser, and one which used with the conventional fertiliser, and there is no significant difference in the yield so we can see that it works,” says Richard Ling, farm manager at Rookery Farm, Wortham in Norfolk, who supplies wheat to Nestlé Purina.

“We are really reassured with the results and are looking at running further trials. It’s a step change to be able to use a fertiliser made from a waste stream and see the same results as using a conventional product. It’s an exciting and promising time and we are pleased to be taking part in these trials to help reduce the carbon emissions from our farming.”

For all companies involved, the trial embodies their commitment to innovation, collaboration and sustainability throughout the supply chain. Alongside its pledge to net zero emissions by 2050, Nestlé has committed to sourcing 50% of its key ingredients from regenerative agricultural methods by 2030 and this project is an example of the innovative solutions supporting the company on that journey.

“Cargill and Nestlé have been working together for more than 60 years building resilient supply chains across communities where we both operate. We are excited to continue to build on this strong partnership through our innovative cocoa shell fertiliser trial,” says Sam Thompson, Global Engineering Lead at Cargill Cocoa & Chocolate.

“Together, we hope to contribute to a more sustainable future for the British farming industry.”

 

 


 

 

Source  Sustainability 

 

 

GAC and Toyota develop ammonia engine for 90% CO2 reduction

GAC and Toyota develop ammonia engine for 90% CO2 reduction

Chinese state-owned manufacturer GAC has revealed a prototype engine that burns liquid ammonia, which could be an alternative fuel to electricity and hydrogen.

Developed in partnership with Toyota, the new-age ICE takes its inspiration from the maritime and haulage industries, which are exploring ammonia as an alternative to diesel for container ships and trucks.

Although not the first engine to be developed to run on ammonia, this is the first to be proposed for possible use in a passenger car.

At an annual technology presentation, GAC said it had overcome several issues, such as excess nitrogen emissions and an increase in combustion pressure compared with petrol engines.

“We’ve overcome the pain point of ammonia being difficult to burn quickly and put the fuel to use in the passenger car industry,” said Qi Hongzhong, an engineer at the GAC R&D centre in Guangzhou, China.

“Its value to society and for commercial uses are worth anticipating.”

Ammonia is a highly toxic substance used primarily as a fertiliser, but its combustible nature has brought it under the spotlight for future transport needs.

It possesses around half of the energy density of petrol, at 3.6kWh per litre, but emits no carbon, hydrocarbon or CO2 when combusted.

The traditional production method for ammonia is considered energy-intensive, but recent developments have led to small-scale production of ‘green’ ammonia, which uses renewable energy sources for carbon-free output.

More than two-thirds of the world’s annual production of ammonia is used in agriculture as fertiliser. It’s also used as a refrigerant gas and in the manufacturing of plastics, textiles, explosives and pesticides.

 

 


 

 

Source  Autocar

 

Apple touts its first carbon-neutral products

Apple touts its first carbon-neutral products

The Apple product launch event is a highlight in the calendar for anyone working in digital technology. At its headquarters in California on Tuesday (12 September), Apple launched its new iPhone 15 series and ninth Apple Watch series, plus its second iteration of Apple Watch Ultra.

Apple has stated that the new Apple Watch lineup consists solely of carbon-neutral products. It has delivered a 75% reduction in the life-cycle emissions of its watches since 2015 due to investments in clean energy procurement, energy efficiency and reducing transport emissions.

Product re-design and supply chain engagement have also driven reductions in emissions. Each of the watches includes at least 30% recycled or renewable material by weight, for example, including a 100% recycled aluminium casing and 100% recycled cobalt in the battery.

It bears noting that Apple’s carbon accounting for the carbon-neutral claim also covers consumer use of products.

In a statement, the firm said: “Electricity for manufacturing and charging devices represents the largest source of Apple’s emissions across all product lines. To address the latter, Apple has committed to invest in large-scale solar and wind projects around the world. For the carbon-neutral Apple Watch models, the company will match 100% of customers’ expected electricity use for charging.”

To address the 25% residual emissions associated with the watches, Apple will invest in carbon credits “primarily from nature-based projects”.

It has stated an intention to ensure that carbon credits are “high-quality” by assessing whether they represent additional, measurable, quantified and permanent carbon removal. Another key requirement is that the credits are not double-counted.

A surprise move?

Science reporter Justine Calma has argued that Apple’s announcement distracts from the company’s overall impact on climate and the environment. She said a far more important measure of the firm’s work on climate will be whether it delivers its 2030 and 2050 goals.

Apple achieved carbon neutrality for its global corporate operations in 2020 and subsequently pledged to deliver a carbon-neutral value chain by 2030.

It is seeking to reduce emissions upstream and downstream by at least 75% on 2015 levels, only relying on offsetting for a maximum of 25% of residual emissions.

Apple has described this ambition as “aggressive”. Meeting this goal will require increased investments in decarbonising national electricity grids; low-carbon transport innovations and transport efficiencies; product re-design and material innovation.

On the latter, Apple is working to switch to 100% recycled cobalt in batteries, plus 100% recycled tin soldering and gold plating in circuit boards, by 2025. It is also ending the use of leather across all product lines with immediate effect, switching to a new ‘FineWoven’ textile made from 68% post-consumer recycled fibres.

Apple continues to use the language of carbon neutrality despite a forthcoming crackdown on this kind of claim in the EU. Lawmakers voted in May to support a new directive that will prevent companies from badging consumer goods as ‘carbon-neutral’ or ‘carbon-negative’ if they use offsetting.  Only time will tell how Apple will choose to communicate its climate efforts to customers in the EU once this directive comes into force.

Charging port changes  

Another sustainability-related facet of Apple’s latest product launch is the switch from the Apple-exclusive ‘lightning’ charging port to a USB-C port for the iPhone 15.

The change is being made because the EU is mandating that all electronic devices sold within the bloc from 2024 use USB-C charging, in a bid to reduce the e-waste generated by the need for each home to have an array of different chargers.

In the long-term, the result is likely to be waste reduction. But, in the coming months, there are concerns that there will be a spike in the discarding of Apple ‘lightning’ cables. It is estimated that one-quarter of European residents own an iPhone.

 

 


Source edie

Algae-Based Ice Cream, A Sustainable Frozen Treat

Algae-Based Ice Cream, A Sustainable Frozen Treat

With the worry about climate change and the shift towards more sustainable diets, Algae-based ice cream, we’ve seen a lot of changes within the food industry over the past few years, from beyond meat to a rise in non-dairy milk such as oat, almond, soy, and more. The newest trend that will be hitting the grocery store shelves near you is algae based ice cream.

That’s right, Sophie’s BioNutrients, a food tech company developing 100% plant-based and sustainable alternative protein for the industry, is now developing a vegan ice cream made from chlorella protein. Chlorella protein is a pure protein flour that is made from microalgae. The company partnered with the Danish Technological Institute to make this algae-based ice cream.

Making the chlorella protein involves naturally cultivating chlorella vulgaris (a species of green microalga). The microalgae are grown using bioreactors, limited amounts of water, and local food waste (including spent grains or okara, waste from tofu makers). The chlorella is harvested within three days in a protected environment. The algae-based ice cream is developed by mixing the chlorella protein with sugar, coconut oil and other ingredients. Not only does this algae-based ice cream mimic the natural texture, but it also holds a complete nutrition profile. This algae-based ice cream is high in B12 and iron. Who knew that ice cream could be good for you? Furthermore, it can also be made into various different flavours of vegan ice cream.

Unlike lactose ice cream, whereby dairy cows need at leave 0.7m of feed space, cultivating microalgae uses about 0.02 hectares of space. The microalgae grown by Sophie’s BioNutrients also don’t require fertilizers, herbicides, antibiotics or other products to make the protein.  Sophie’s BioNutirent is also committed to enabling a circular economy by finding a purpose for spent grains (waste from breweries) and molasses (waste from sugar refineries)

Sophie’s Bio Nutrients has also recently teamed up with NewFish, a biotech and commercialization venture that ferments New Zealand microalgae to create new sustainable foods. The two companies are working to advance microalgae protein research and product development. Together, they are working to overcome the challenges of obtaining sufficient microalgae strains and scaling production capacities. The companies hope to bring enough global supply to increase the availability of stainable foods made from microalgae.

Besides the nutrient benefits that microalgae provide, many food companies are looking to utilize algae because of its abundance worldwide. It can be found in various environments worldwide, including salt, brackish waters, and snow. Marine algae also don’t require soil, irrigation or fertilizer; their cultivation doesn’t compete with agriculture for arable land and freshwater. Furthermore, cultivating algae doesn’t lead to fertilizer runoff. It also grows ten times faster than conventional crops. Experts say that using microalgae could potentially increase global food production by over 50%. It not only provides omega-3 fatty acids that can be found in fish, but it also has minerals and amino acids that are often missing in vegetarian diets.

Another significant benefit of using algae to produce food is that microalgae are known as the most efficient biological sequesters of carbon dioxide. It is said that when used in bioreactors, algae is 400 times more efficient at removing CO2 from the atmosphere than a tree. The algae require carbon dioxide to grow, which provides a win-win solution for everyone.

Thinking about algae-based ice cream may not be the most appetizing thing we can think of, but what does it matter when it’s crushed into a powder and mixed in with other ingredients? If this is the way to sustainable foods, then I think we are on the right track. I look forward to seeing the algae-based ice cream on the grocery store shelves soon.

 

 


 

 

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

TreeTote: The Tote Bag That Saves +1100 Liters of Water

TreeTote: The Tote Bag That Saves +1100 Liters of Water

Did you know that a cotton tote bag consumes +1141 liters of water to be produced?

Cotton tote bags have flooded the market. Originally manufactured to combat single-use bags, this bag has become a trendy accessory. Brands have turned it into a true cult accessory. Yet, cotton tote bags are an ecological disaster. Cotton production involves astronomical amounts of water and pesticides, leading to soil drought and the development of dead marine zones.

In recent years, the “ fiber gap” phenomenon has appeared. Demand for cotton continues to rise while supply decreases. The consequence is skyrocketing prices. Natural fibers like cotton are increasingly being replaced by fibers derived from fossil resources. Cotton is predominantly produced in Asia and requires intercontinental transportation. Off-centre cotton supply chains release large amounts of CO2.

Organic growing systems are better for the soil as they maintain a higher soil quality, which reduces the runoff into local rivers. The soil is also much more resilient and can withstand extreme weather. Healthy soil acts like a sponge – it can absorb and retain water for longer periods, including droughts. This leads to a much lower consumption of organic cotton though it remains 90% higher than our lyocell wood fibre.

The Tree Tote

The TreeTote, a 100% wood fiber tote bag, was developed to address these challenges. Our totes are made from 100% European production. We keep our supply chain as close as possible to reduce CO2 emissions related to transport while producing a socially responsible and affordable bag. Our supply chain is exclusively European and includes three streams: Made in Europe, Made in the Alps and Guaranteed French Origin. The entire supply chain is traceable via the Respect Code on all our bags. By scanning the QR codes on our bags, you will see the entire journey from research to development, raw materials, production, distribution and use.

The prime material for our bags is timber, and they are made from 100% wood fibre from sustainable sources. Of the tree species used in the sourcing of wood for the TreeTote, the main contender is Beech. Beechwood availability is increasing as forests are being returned to a more natural species mix. Rising temperatures are also increasing its growth rate. This beech wood comes purely from PEFC/FSC-certified sources.

The material is generated by thinning or damaged wood left over from other operations. Almost all of the wood used to produce the TreeTote comes from Austria, where the fibre is produced. The rest comes from neighbouring countries, minimising transport and therefore the carbon emissions that come with it. Transport is highly optimised to keep our carbon footprint to a minimum. Shared transport is used whenever possible and, for longer distances, low-emission transport such as trains is prioritised.

Over 99% of the solvent used is recovered and recycled, and water consumption is reduced drastically. Even sustainable bags use plastic thread and tags, which are cheaper and widely available. We stray from plastic and only use TENCEL accessories to make our TreeTote 100% wood fiber. We also don’t add any extra mechanical or chemical steps to the line after weaving, which is rare in textile production, to save energy and water.

Regarding the water used to produce our tote bag, we achieved a 90% reduction in water consumption. If we compare our tote bag to a conventional cotton bag, which uses about 1200L of water, we reduce consumption by 99%. In the case of organically grown cotton, the reduction reaches 90%. Over 39,158,595 liters of water have been saved by TreeTote so far as a replacement for cotton bags.

Because dyeing, and the processes that come with it, have an enormous impact, especially due to water use for the dying itself and the washing steps that follow. We, therefore, choose to work with the fabric in its natural white colour.

OEKO-TEX® STANDARD 100 is one of the world’s best-known labels for textiles tested for harmful substances. It stands for customer confidence and high product safety. TreeTote has been awarded Class I certification, complying with the label’s strictest requirements.

After using the tote bag as many times as possible, we recommend recycling it with textiles as this is the highest value disposal. The Tree Tote is also 100% compostable.

 

 


 

 

Source   Happy Eco News

Canada’s Sustainable Jobs Plan Will Become a Law Next Year

Canada’s Sustainable Jobs Plan Will Become a Law Next Year

Canada’s Sustainable Jobs Plan is intended to train workers for new roles in preparation for the future of a green economy. The government has presented a sustainable jobs bill that will provide the workforce needed for what is called a “just transition” to a new green economy. The country aims for a 40-45% reduction in emissions by 2030 and net zero by 2050.

Prime Minister Justin Trudeau hopes the Sustainable Jobs Plan will help attract billions of dollars in investment by creating a skilled clean energy workforce. The bill, which will become law early in 2024, will publish an action plan every five years to put in place measures to invest in the net-zero emissions economy and skills of the future. From 2025, the government plans to release a new sustainable jobs plan every five years.

This new legislation has been ongoing for over two years of consultations and conversations with provinces and territories, Indigenous Peoples, workers and unions, industry, environmental and civil society organizations and interested Canadians. Based on these conversations, the creation of the Sustainable Jobs Plan put forward ten concrete actions to advance the creation of sustainable jobs and support workers in every part of Canada. These actions include:

  1. Establish the sustainable jobs secretariat: This will ensure federal policies and program coordination among Government departments.
  1. Create a Sustainable Partnership Council: This council would advise the government on job creation and support workers.
  1. Develop economic strategies through the Regional Energy and Resource Tables: These tables will work with provincial and territorial governments, Indigenous groups and other partners to identify a set of concrete actions and develop economic strategies.
  1. Introduce a sustainable jobs stream under the Union Training and Innovation Program: This will provide workers with training, equipment and materials that meet industry standards and investments that support a low-carbon economy.
  1. Advanced funding for skills development for sustainable jobs: This will be achieved by working with universities, colleges, union training centres and employer groups to help workers succeed in a net-zero economy.
  1. Promote Indigenous-led solutions and a National Benefits-Sharing Framework: This will be achieved by continuously supporting Indigenous-owned clean energy projects across Canada.
  1. Improve labour market data collection, tracking and analysis: These improvements will help the council provide advice and identify new measures and actions that must be taken.
  1. Motivate investors and draw in industry leaders to support workers: The money will be used to support green infrastructure, clean technologies, climate action, and environmental protection.
  1. Collaborate and lead on the global stage: Canada is committed to ensuring that their best practices and lessons learned are shared globally.
  1. Establish legislation that ensures ongoing engagement and accountability: The overall goal is that all Canadians are involved in the decision-making process and that everyone adapts to new changes to help achieve our goals.

Canada’s Sustainable Jobs Plan will train people in jobs that are compatible with Canada’s path to a net-zero emissions and climate-resilient future. These include:

  • Clean energy: This includes jobs in solar, wind, hydro, and geothermal power generation, as well as energy efficiency and conservation.
  • Green infrastructure: This includes jobs in building and maintaining sustainable infrastructure, such as green roofs, rainwater harvesting systems, and electric vehicle charging stations.
  • Low-carbon transportation: This includes jobs in electric vehicle manufacturing, public transit, and active transportation (e.g., walking, biking, and rolling).
  • Sustainable agriculture: This includes jobs in organic farming, sustainable forestry, and aquaculture.
  • Recycling and waste management: This includes jobs in recycling, composting, and waste-to-energy.
  • Environmental monitoring and remediation: This includes jobs in monitoring air and water quality and cleaning up contaminated sites.

The Sustainable Jobs Plan will help to ensure Canada has the skilled workforce it needs to build a clean, healthy future for the country.

Think-tank Clean Energy Canada expects jobs in this sector will grow by 3.4% annually over the next decade, nearly four times faster than the Canadian average. With the commitment from the Canadian government to the Sustainable Jobs Plan, there is hope that the country can meet its environmental goals and that sustainable jobs will become the new normal across the country.

 

 


 

 

Source  Happy Eco News

Creating Biochar to Sequester Carbon and Fertilize Plants

Creating Biochar to Sequester Carbon and Fertilize Plants

The slash-and-burn agriculture technique grows food whereby forested land is clear-cut, and any vegetation is burned. The resulting layer of ash from the burnt vegetation provides a newly cleared land with a nutrient-rich layer that helps fertilize crops. Traditionally, the area was left fallow and reverted to a secondary forest of bush. Cultivation would then shift to a new plot.

Unfortunately, as we’ve shifted towards a fast-past world, these techniques are deemed harmful to the environment as modern slash-and-burn techniques are a significant source of carbon dioxide emissions, especially when used to initiate permanent deforestation. Moreover, many of these plots do not get replanted.

On a smaller scale, farmers are turning to create biochar to sequester carbon emissions and aid in growing their crops. Biochar is similar to slash-and-burn techniques, except it is created artificially through a process called pyrolysis. It is made when biomass, such as fallen tree branches and crop residue, is heated at 200-400°C with little or no oxygen.

Various types of biomass have been used on a commercial scale to produce biochar. This includes agricultural and forestry by-products (such as straw or tree bark), industrial by-products (such as paper sludge and pulp), animal wastes (such as chicken litter) and sewage sludge. Converting biomass to biochar offers an excellent method for reducing waste and using these by-products.

This process decomposes the organic waste into a solid residue of carbon. Farmers can apply it to the field where around 50 percent of the carbon is stored in stable forms as a soil additive to improve drainage, aeration, plant health, crop yield, and water and nutrient retention. Biochar helps process things that settle on it, such as soil’s water and nutrients that the plants can access when needed. Biochar can also absorb heavy metals, reducing the plants’ risk of accessing them.

There are a number of ways that small farmers can use biochar to sequester carbon:

  • Incorporate it into their soil: Biochar to sequester carbon can be added as a soil amendment. This can be done by broadcasting it on the soil’s surface or by mixing it into the soil.
  • Use it as a fertilizer: Biochar can be used as a fertilizer by mixing it with compost or other organic materials. This can help to improve the nutrient content of the soil and increase crop yields.
  • Use it to produce energy: Biochar can be used to produce energy by burning it in a stove or furnace. This can provide farmers with a renewable source of energy.

This process reduces emissions from organic waste that is burned or left to decompose, producing greenhouse gases. Studies have shown that only about 10 to 20 percent of the residue carbon is recycled into the soil when crop residue is left to decompose on its own.

Biochar increases soil fertility more than simple plant matter and reduces nutrients from leaching from the crop root zone, meaning they would have to use less chemical fertilizers to grow their crops. Using biochar to sequester carbon will also benefit farmers who cannot afford to buy fertilizers or invest in organic cultivation techniques that take a long time to establish. It also helps establish independence among smaller farmers as they would not have to depend on chemical fertilizer companies.

Creating biochar to sequester carbon is a sustainable way to fertilize plants and actively remove carbon from the atmosphere. According to the IPCC, biochar is one of the safest, most durable ways to remove carbon from the atmosphere. It helps create nutrient levels in the soil that are more stable and resistant to environmental degradation. This allows farmers to save money and resources, reducing their environmental impact.

 

 


 

 

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

SAY Carbon is creating the coolest sustainable boat brand

SAY Carbon is creating the coolest sustainable boat brand

BizClik Media and Sustainability Magazine CEO Glen White had first-hand experience aboard a luxurious, environmentally-friendly yacht made by SAY Carbon Yachts.

The business, founded in Germany, produces cutting-edge, technologically advanced yachts, which are built using carbon fibre. Featuring three luxurious yachts – the SAY 29 (E), SAY 42 and SAY 52 – the business prioritises comfort, luxury and sustainability. While enjoying a trip to Ibiza, Spain, White got up close and personal with the SAY 42.

SAY 42: Ultra-low-emission engines combined with maximum comfort

Boasting low emissions and high performance, the SAY 42 demonstrates that stylish, luxurious and sustainable boating is possible – even for those who want to enjoy the seas with their family and friends

The SAY 42 is equipped with two certified ultra-low-emission V8 engines (860 hp) that consume up to 50% less fuel compared to conventional motor yachts, all while maintaining the same renowned performance.

The SAY 42 is ideal for those who appreciate extravagance. Each yacht is characterised by a modern design, featuring striking and unique lines and is equipped with state-of-the-art technology, including a digital cockpit, Seakeeper 2 stabilisers, pop-up showers, a retractable table and an owner’s cabin with a fully-equipped bathroom.

To ensure the yachts meet the highest possible sustainability standards while continuing to ooze luxury, CEO Karl Wagner, maintains control over every aspect of the manufacturing process. Every SAY Carbon Yacht is meticulously crafted to bring the customer’s vision to life, designed to be user-friendly while promoting maximum comfort.

 

SAY Yachts leading carbon fibre adoption

While working with his previous business, Carbo Tech, Wagner became a leading producer of carbon-fibre-reinforced components for the automotive industry. Its customer base included prominent names from Formula 1, including Aston Martin, McLaren and Porsche.

The numerous advantages of carbon fibre have led to its widespread popularity in various industries, including aviation, construction and motorsports. As pioneers in the pursuit of lightweight design, Wagner and his team demonstrate their expertise in manufacturing innovative motor yachts by utilising the properties of carbon fibre.

“Our expertise in lightweight constructions enables us to achieve a unique combination of acceleration, design and agility while lowering fuel consumption and extending range,” Wagner comments.

Consequently, SAY Yachts has emerged as an international, established manufacturer of luxury motor boats, offering only the highest quality available.

 

 


 

 

Source  Sustainability