بایگانی‌های clean hydrogen - dawnbreeze

Food waste accounts for 10% of all greenhouse gas emissions


 Farms are wasting twice as much food as we thought

Around 2.5 billion metric tons of food is wasted on farms each year—that’s nearly twice as much as in previous estimates. When added together with all the other food that is never eaten—from excess produce on supermarket shelves to the strawberries rotting in the back of your fridge—around 40% of all the food that is grown globally is ultimately tossed out.

That’s a major problem for the climate: “Driven to Waste,” the report from World Wildlife Fund and the U.K. supermarket chain Tesco that published these numbers, suggests that food waste alone is responsible for 10% of greenhouse gas emissions. (The entire airline industry, by contrast, represents around 1.9% of emissions.) Some of the emissions happen in landfills or fields, where rotting food releases methane, a potent greenhouse gas.

But most of the environmental impact comes from growing the food. Fertilizer takes large amounts of energy to produce, and releases emissions on fields. Forests are chopped down to plant crops and raise animals, and the land can’t be reforested if it’s being farmed. The amount of water used to grow wasted food could fill more than 300 million Olympic-size swimming pools.

So far, only 11 of the 192 climate plans that countries have submitted under the Paris climate agreement mention food waste. But it’s a solvable problem at each stage of the journey, from farms to kitchens. Restaurants, for example, can shrink food waste just by serving smaller portions so diners are less likely to leave food on their plates, or partner with food delivery apps to get extra food to food banks. Grocery stores can use new technology that automatically changes the prices on food so it sells before it has to be thrown out.

And since food waste on farms has been underestimated in the past, it’s another place where intervention is important. A variety of solutions can help on farms, including increasing demand for so-called ugly produce that supermarkets used to reject. Project Drawdown, a list of the best ways to tackle climate change, includes reducing food waste as one of the most impactful solutions. The new report suggests that governments should aim to cut food waste in half by 2030.


 

Farms are wasting 1 billion tons of food. That’s a disaster for the climate

 

About 2.5 billion metric tons of food is wasted around the world each year, roughly half of which is lost on farms including in Europe and the United States. That’s having a huge impact on the climate.

A report published Wednesday by the World Wildlife Fund and UK grocery retailer Tesco (TSCDF) reveals that the amount of food lost is nearly double previous estimates by the UN Food and Agriculture Organization, which last conducted an analysis of total waste from farm to fork in 2011.

Food lost on farms amounts to 1.2 billion metric tons, with a further 931 million metric tons wasted by retailers and consumers. The remainder is lost during transport, storage, manufacturing and processing.

The updated figures indicate that 40% of all food produced goes uneaten, according to the study, which attempts to quantify the amount of food wasted on farms for the first time in a decade.

“We have known for years that food loss and waste is a huge problem that can be minimized, which in turn could reduce the impact of food systems on nature and climate,” Pete Pearson, global food loss and waste initiative lead at WWF said in a statement.

“This report shows us the problem is likely bigger than we had thought,” he added. Bottom of Form

According to the study, food waste accounts for 10% of all greenhouse gas emissions, higher than a previous estimate of 8%.

That’s the equivalent of nearly twice the annual emissions produced by all the cars driven in the United States and Europe, where in recent days raging wildfires and catastrophic floods have served as a painful reminder of the grave threats posed by the climate crisis.

“Producing food uses a huge amount of land, water and energy, so wasted food significantly impacts climate change,” the report said.

Despite its outsized effect on the environment, just 11 of the national carbon plans submitted by 192 signatories to the Paris climate agreement include measures to address food loss and waste.

Most of the plans that do come from African nations tackling post-harvest losses, even though farming in more industrialized nations, with higher levels of mechanization, is a bigger contributor to food waste than previously thought.

Richer countries in Europe, North America and Asia contribute 58% of wasted harvests globally despite having only 37% of the global population, according to the report. Yet efforts to reduce food waste in wealthier countries tend to focus on retail and consumption.

Some 2.5 billion tonnes of food is lost on farms or wasted by retailers and consumers each year.

“Farm-stage food loss is a significant but overlooked food waste hotspot,” the report said. The reasons for the waste include a disconnect between markets and farmers, which can lead to mismatches in the volume of production, the types of crops planted and the timing of harvest.

Unfair trading practices and the higher priority given to exported crops by farmers and governments over those for domestic consumption are also factors.

The report calls on governments and the food industry to set food waste reduction targets, measure and report waste and devise strategies to address it within operations and supply chains.

Tesco CEO Ken Murphy said that several of the retailer’s suppliers will report on their own farm food loss and waste for the first time this year, “helping us to tackle waste in the earliest parts of our supply chain.” The company has been working with 71 of its largest global suppliers to reduce food waste, reporting a reduction of more than 40% when compared to a 2016-2017 baseline, Murphy added.


More Than 1 Billion Tons Of Food Was Wasted In 2019, UN Report Finds

About 1.02 billion tons of food was wasted globally in 2019 and roughly %17 of food produced for human consumption goes to waste each year, far more than prior research has indicated, according to a United Nations report published Thursday.

Individual households were responsible for most of the food waste, accounting for %61 of the total, the UN Environment Programme report found.

Foodservice accounted for 26%, while 13% was attributable to retail waste.

Given limited data availability and variable measurement approaches, the UN researchers said their estimate likely falls short of the actual amount of global waste.

Food waste has become a more pressing issue due to the environmental toll of food production: If food waste were a country, it would be the third-biggest source of greenhouse gas emissions, behind only China and the United States, said Inger Andersen, the UN Environment Programme’s executive director.

Source: FastCompany و WorldWildlifeFund

 

South America: gas companies on alert as oxygen demand increases due to Covid-19

 

The new Covid-19 wave is putting more pressure on medical oxygen demand supplies in South America, as new virus variants are more infectious and the vaccination efforts progress slowly due to a lack of vaccines in most countries of the region.

The industrial gas industry is coming under severe pressure and public scrutiny and is making public appeals to governments and citizens to limit contagions.

The industry has worked with the public and private health sectors to increase oxygen availability for the additional intensive care units which were added, as well as facilities for serious cases for patients who also require oxygenation – installing new or additional cryogenic tanks, providing more cylinders and oxygen concentrators. This, in turn, demands the upgrade of distribution equipment and personnel.

 

Colombia could become critical

The Colombian Chamber of Industrial and Medical Gases issued an alert on 26th April (2021), describing the tremendous pressure that industrial gas companies are facing due to the increase of oxygen demand.

Gas companies are now producing at 105% of their oxygen installed capacity. While in February 2020 the total consumption of oxygen (industrial and medical) was 330 tonnes per day (tpd), the same demand in April 2021 reached 575 tpd – a 74% increase.

Ms. Ingrid Reyes, speaker of the Chamber, said that although the industry was able to supply enough oxygen during previous waves, now its priority is to supply the larger demand of medical oxygen in the Atlantic and Antioquia regions, two of the most populated in the country, where the Covid-19 virus is making a rapid advance. Reyes alerted that if contagions increase at a similar pace in the populous cities of Bogota and Cali, the situation could become critical.

The oxygen producers are working with the Colombian authorities in solutions contemplating the possible importation of oxygen, starting up several oxygen PSA (pressure swing adsorption) plants, establishing protocols for the rational use of oxygen, as well as insisting in the return of empty cylinders and oxygen concentrators as soon as they are no longer required by the patients. Finally, Reyes insists that self-care should be the main strategy to prevent contagions in order to avoid a critical situation.

Argentina on alert

In Argentina, where a second wave of the Covid-19 infection is underway, reaching higher contagions than during the first wave yet mainly concentrated in the city Buenos Aires and the metropolitan area, on 28th April a joint resolution of the Ministry of Health and the Ministry of Productive Development established that industrial gas companies should supply medical oxygen demand with priority over industrial uses.

Projections of demand indicate that if contagions continue at the present level, oxygen demand could reach between 1,030 tpd and 1,506 tpd, surpassing the total oxygen production capacity estimated to be at 860 tpd.

Additionally, in order to prevent abuses like those which have been seen in other countries, a 90-day price freeze was established for the medical oxygen product and related services.

A few days earlier, a large steel mill located near Rosario, 300km from Buenos Aires, stopped production after its supplier (Linde-Praxair) communicated that there will be no liquid oxygen available for them during May 2021. Air Liquide Argentina issued a press release on 30th April describing its efforts to supply a ’fluctuating demand which is 200% higher’ and reaffirming its commitment to supply medical oxygen demand across the country.

In news that appeared in the local national newspaper Clarin, Linde-Praxair said it was also seeing a 200% increase in oxygen demand. Together with Air Liquide, the combined company Linde-Praxair supplies near 90% of the Argentinean oxygen market, followed distantly by Indura Air Products and several local regional producers.

Problems persist in Peru

Linde´s medical oxygen demand before the start of the pandemic in March 2020 was 48 tpd, and has now reached 250 tpd, which Linde supplies both by starting up idle plants and imports, plus another 20 tpd produced by the copper company, Southern, with Linde´s collaboration.

Linde alerted the Peruvian government early in February 2021 about the critical situation, as described in a previous press release, and now insists that medical oxygen consumption continues to grow. Peru has been receiving, in recent months, around 40 tonnes of liquid oxygen per week from Chile for hospitals in Lima, and also some oxygen from neighboring Ecuador to cover additional demand in the Northern region.

Estimates from the Ministry of Health consider that demand could be around 510 tpd of oxygen, while capacity is approx. 400 tpd, including some PSA plants installed at several hospitals.

Brazilian crisis continues

 White Martins – the leading gas company in the country with more than 50% market share – indicated in a 26th March(2021) press release that it alone supplied 1.1 million m3 of medical (liquid) oxygen on 22nd March, equivalent to about 1,570 tpd – a daily volume 93% higher than in December 2020 and 119% higher than the average daily volume during 2020.

More recently, White Martins announced that as part of its efforts to cope with the high medical oxygen demand, it had imported 14 cryogenic trailers from its sister company in Canada, including one called the ’cryo-queen’ which is capable of storing 80,000m3 of liquid oxygen.

Wider concerns

Problems with the supply of medical oxygen due to the Covid-19 crisis had also been reported in smaller countries like Paraguay and Bolivia. Chile, in spite of the good progress of its vaccination campaign, has also seen a spike in Covd-19 cases and declared a temporary lockdown, with the oxygen demand growing in some regions, but no major oxygen problems have been reported so far.

Uruguay, which last year was barely affected by the virus, is now suffering higher contagions and also declared a partial lockdown as the health system was under pressure

Source: gasworld.com

Rimba Raya’s natural solutions to save orangutan lives and absorb carbon dioxide

You can watch the video via Aparat


Rimba Raya’s natural solutions to save orangutan lives and absorb carbon dioxide

Biodiversity and Community

Indonesia is losing forests at the rate of half a million hectares a year, which is one of the highest rates in the world. The Rimba Raya Biodiversity Reserve, the largest REDD+ project in the world, works to preserve these forests and stop development.

Reduced:

CO2

Carbon Dioxide

What it does

Reducing deforestation is one of the biggest opportunities for the cost-efficient and immediate reduction of carbon emissions. This project is preserving 64,500 hectares of tropical peatland forest on the southern coast of Borneo, a rich ecosphere supporting flora, fauna and species including the endangered Bornean orangutan. The local government had previously approved this land for conversion to palm oil plantations, but the project helped local communities find a different solution. Local residents have adopted sustainable alternatives to slash-and-burn farming and now with better economic opportunities these forests are being guarded and carbon sequestered.

How it works

To be effective, forest conservation must be balanced with the economic well-being of local communities. This project achieves that balance by demonstrating that conservation can be environmentally and economically advantageous.

It engages communities and supports the local economy by creating jobs, offering alternative income streams, providing new co-ops, and micro-finance programs. The project also provides access to clean water, health services and education. Local communities have become motivated partners in forest preservation. This project is avoiding 4.5 million tonnes of carbon equivalent emissions every year, and is the largest REDD+ forestry project in the world in terms of emissions reduced. It is also Indonesia’s first officially sanctioned REDD+ project.

Benefits:

Total CO2 emissions reduction for this project will exceed 130 million tonnes.

The project addresses all 17 of the UN Sustainable Development Goals.

Preserves shelter for 300 species of birds, 122 species of mammals, and 180 species of trees and plants.

The project created a women’s co-op for greater opportunity and community participation.

Challenges

There is a continual commercial demand for agricultural land.

It needs a significant amount of local support to survive.

Enforcement of forest protection requires constant vigilance.

Rural poverty can still push farmers to illegal logging and slash-and-burn farming.

Who it helps:

Planet Earth, by sequestering 4.5 million tonnes of carbon emissions every year. The endangered Borneo orangutan, by preserving an irreplaceable bio-habitat. The people of Rimba Raya, by creating jobs and new small businesses. And people everywhere, by demonstrating that forest conservation can be done effectively and lastingly.

Why we chose this project

This uninhabited lowland peat swamp forest preservation and regeneration project offers strong biodiversity and community benefits that are unequaled by most forest projects we review. It is located in a part of the world that is under high stress from unregulated agricultural practices and is eminently threatened by rising temperatures.

Source: cooleffect.org

Deep Branch: CO2 and Hydrogen Could Help Fuel a Greener Meat Industry

You can watch the video via Aparat


Deep Branch: CO2 and Hydrogen Could Help Fuel a Greener Meat Industry

Feeding an increasing population with a growing appetite for meat is a major challenge for our future. One biotech firm hopes a new animal feed can make the process greener.

Much animal feed is soy-based products grown and imported from South America.

The meat industry is certainly global in scale. Not only are meat products imported and exported between countries, but even locally grown and sold products may have a footprint that stretches across continents. A large part of this dynamic concerns the production and transportation of animal feed, a growing market that is worth up to 92 billion USD a year.

Animal feed production and transportation can greatly contribute to the carbon output of the meat industry – which is already intensive in terms of land, water and other resources. A UK based biotech firm is now looking at ways to change, improve and reduce the carbon footprint of this system. In fact, they have developed a way to essentially grow animal feed from thin air.

The firm, Deep Branch, is researching methods in which single-cell proteins (SCP) can be used as a basis for animal feed. SCPs are produced through a fermentation process using yeast, bacteria or algae. The microbes are fed a supply of carbon dioxide and water, with hydrogen being additionally added via an electrolyser. The resulting waste material, which Deep Branch have dubbed ‘Proton’, can then be used as a high-protein animal feed.

The advantage of this system is that production plants could be built anywhere that has access to an available feedstock for the microorganisms, such as methane, ethanol, sugar, biogas or wood. Using this process, Deep Branch estimates carbon emissions from animal feed production could be reduced by as much as 90 percent.

The Environmental Impact of Animal Feed

Currently, much animal feed is soy based, especially in the case of chicken feed. Large scale soy production usually takes place in South America and necessitates forest clearing, large scale use of machinery and fertilisers. The final product is then shipped to farms around the world. Similarly, fishmeal for salmon production often also comes from the Pacific coast of Peru and Chile, before being processed and globally distributed. According to the UN Food and Agriculture Organization, feed production can account for up to 45 percent of the carbon footprint of livestock products globally, while the industry in general is responsible for around 14.5 percent of all greenhouse gas emissions, especially methane.

Furthermore, although meat consumption is starting to decline in some of the most meat-hungry nations, such as Germany, UK and France, globally it is on the rise. Increasing urbanisation and higher wages in Global South countries means meat consumption is increasing at a rate faster than population growth, creating more issues for sustainability in the future.

ech firms such as Deep Branch hope SCPs will provide an answer to some of these concerns. However, the industry is not without its drawbacks. Establishing a SCP plant is still prohibitively expensive, with a single one costing in the region of 100 million USD. Furthermore, producing the SCP feed to scale is a key challenge, as is gaining convenient access to the gases needed for the protein production.

Currently, Deep Branch uses industrial emissions for its CO2 feedstock with its UK pilot plant, as well as its “scale-up centre” in the Netherlands. Ultimately, it is hoped CO2 and hydrogen can become important parts of the utility infrastructure of states, providing the gases to SCP plants in a similar way that natural gas is provided to homes.

If SCP production can become scalable and economically viable, it is possible it could also play a more direct role in food production. SCPs could provide additional support to alternative farming techniques such as vertical farming and aquaculture, and could potentially become a human food source itself. Deep Branch described the Proton as relatively flavourless and neutral in terms of colour, meaning it could be used as the basis for a variety of products.

Deep Branch’s research has received grants from the European Union’s Horizon 2020 EIC Accelerator, as well as support from the Sainbury’s supermarket chain.

Source: en.reset.org

What is chlorine?

  • Chlorine is a non-flammable and can be find in light greenish-yellow gas
  • Chlorine has a nasty odor and is 2.5 times heavier than air, and it is very irritating if the gas is inhaled.
  • Liquid chlorine Has amber color , one and a half times heavier than water.
    Chlorine is non-flammable in both gaseous and liquid forms. However, chlorine, like oxygen, can help burn matter. Many organic matter React chemically with chlorine.
  • Chlorine dissolves in very small amounts in water, when it reacts with pure water, it forms compounds of hydrochloric acid and hypochlorous acid (ingredients of bleaches, disinfectants, deodorants, isoxide oxides).

Available grades:

%99.999-% 99.99 – %99.9


Tanks and maintenance:

  • The Maximum allowable capacity to fill chlorine tanks %125 by weight of water at a temperature of 15.6 C0.
  • Chlorine is stored and transported in cylinders with a storage volume of less than 68 kg and also tanks with a capacity of 1000-900 kg called tank tons.

Compatible and incompatible materials:

  • At normal temperatures, chlorine doesn’t corrode steel without moisture (whether liquid or gas), and if there is moisture, there will be a lot of corrosion due to the formation of hydrochloric acid and hypochlorous acid.
  • Therefore, It should be care to keep chlorine away from moisture.
  • Containers, pipes and valves should be closed so that moisture in the atmosphere stays out of the system and does not mix with chlorine.

 

Molecular Weight 28.01
steam pressure 100 K. Pa @ -196.15 0C
Gas density 1.153 Kg/m3 @ 21.1 0C and 1 atm
The latent heat of evaporation at the boiling point  199.1 KJ/Kg
Special heat capacity CP=1.04 KJ/Kg.0C

CV=741 KJ/Kg.0C

CP/CV=1.307

Critical temperature -146.90C
Critical pressure 3399 KPa(a)
Solubility in water 0.019 vol.(gas)/Vol.(Water) at 200C and 1 atm
Explosion / ignition range in air  Flammable Gas

Material Compatibility of Nitrogen

METALS PLASTICS ELASTOMERS

Brass

CARBON STEEL

StainLess Steel

Alumium

Zinc

CoPPER

Monel

Kel-F

Teflon

Tefzel

Kynar

PVC

Polycarbonate

Viton® Buna-N Neoprene Polyurethane

Updating

Kalrez

GAS Updating Updating Updating Updating Updating Updating Updating Updating Updating Updating Updating Updating Updating Updating Updating Updating Updating

S – Satisfactory for use with the intended gas
C – Conditional. May be incompatible under some circumstances or conditions Contact your Praxair representative for additional information
U – Unsatisfactory for use with the intended gas
I – Insufficient data available to determine compatibility with the intended gas
O – All nonmetalic, even those considered compatible, may be ignitable in oxygen enriched environments or in other oxidizing gases. Successful
use depends upon oxygen purity, pressure, temperature, cleanliness and elimination of ignition mechanisms. Please contact your Praxair
Representative for additional information

Classification of dangerous Products:

Dangerous Products Transport Information:

IATA IMDG DOT
UN 1066
UN 1066 UN 1066 UN NUMBER
Nitrogen, compressed Nitrogen, compressed Nitrogen, compressed UN SHIPPING NAME
2.2 2.2 2.2 TRANSPORT HAZARD CLASS
NO NO NO ENVIRONMENTAL HAZARD

What is Helium?

  • Helium is a monoatomic molecule. Helium is the lightest element after hydrogen and has the smallest molecular cross section among gases.
  • It is one of the rare gases in the atmosphere. It is completely neutral in chemical reactions. The thermal conductivity of helium over other rare gases makes helium superior to other rare gases.
  • Helium is non-flammable and only slightly soluble in water

Available grades:

%99.9999 -%99.9995 -%99.999 -%99.998


Tanks and maintenance:

  • Helium gas can be transported and stored in cylinders – tanks and trailer tubes in accordance with the DOT standard and TC rules.
  • Liquid helium transported as cryogenic fluid in insulated (cryogenic) cylinders and cryogenic tanks

Compatible and incompatible materials:

  • Helium gas is a neutral and non-corrosive , Also its compatible with all common metals.
  • In the presence of liquid helium, carbon steels and many alloys lose their conductivity.
  • Liquid metals compatible with helium include :
    stainless steel 8-18, austenitized nickel-chromium alloys, copper, Monel, brass and aluminum.
Molecular Weight 4.00
steam pressure 100 K. Pa @ -268.94 0C
Gas density 0.0165 Kg/m3 @ 21.1 0C and 1 atm
Latent heat of vaporization at the boiling point 20.28 KJ/Kg
Special heat capacity CP=5.19 KJ/Kg.0C

CV=3.121 KJ/Kg.0C

CP/CV=1.66

Critical Temperature -268.90C
Critical Pressure 227 KPa(a)
Ability to dissolve in water 0.0094 vol.(gas)/Vol.(Water) at 00C and 1 atm
Explosion / ignition range in air  Non-Flammable Gas

Material Compatibility of Helium

 

METALS PLASTICS ELASTOMERS

Brass

CARBON STEEL

StainLess Steel

Alumium

Zinc

CoPPER

Monel

Kel-F

Teflon

Tefzel

Kynar

PVC

Polycarbonate

Viton® Buna-N Neoprene Polyurethane

O

Kalrez

GAS

 

S – Satisfactory for use with the intended gas
C – Conditional. May be incompatible under some circumstances or conditions Contact your Praxair representative for additional information
U – Unsatisfactory for use with the intended gas
I – Insufficient data available to determine compatibility with the intended gas
O – All nonmetalic, even those considered compatible, may be ignitable in oxygen enriched environments or in other oxidizing gases. Successful
use depends upon oxygen purity, pressure, temperature, cleanliness and elimination of ignition mechanisms. Please contact your Praxair
Representative for additional information

Classification of dangerous Products:

Dangerous Products Transport Information:

 

IATA IMDG DOT
UN 1046
UN 1046 UN 1046 UN NUMBER
Helium, compressed Helium, compressed Helium, compressed UN SHIPPING NAME
2.2 2.2 2.2 TRANSPORT HAZARD CLASS
NO NO NO ENVIRONMENTAL HAZARD

What is hydrogen?

  • Hydrogen is a colorless, odorless, tasteless, non-toxic and flammable gas.

  • This element is present in the form of gas at ambient temperature and atmospheric pressure.

  • This gas is known as the lightest gas and with a density of approximately %0.07 of air with an invisible flame of hydrogen in the presence of air with a blue flame is very faint and in many cases burns with an invisible flame.


Available hydrogen grades:

%99.9999 -%99.999 – %99.99 – %99.5


Tanks and maintenance:

  • Hydrogen gas is portable in cylinders, trailer tubes and pressure vessels.

  • Liquid hydrogen can be stored and transported at room temperature in multi-crusted cryogenic tanks for liquid hydrogen.


Compatible and incompatible materials:

  • Non-corrosive hydrogen gas at pure temperature can be in contact with ordinary metals.

  • Ordinary carbon steels lose their conductivity at the temperature of liquid hydrogen and become very brittle.


Suitable for standing to liquid hydrogen:

  • Austenitized nickel chromium (stainless steel), copper, copper-silicon alloy, aluminum, monel, and some brass and bronze alloys are suitable for exposure to liquid hydrogen.

 

Molecular Weight 2.016
steam pressure 100 K. Pa @ -253.13 0C
Gas density 0.08342 Kg/m3 @ 21.1 0C and 1 atm
Latent heat of vaporization at the boiling point 446 KJ/Kg
Special heat capacity CP=14.34 KJ/Kg.0C

CV=10.12 KJ/Kg.0C

CP/CV=1.42

Special heat capacity -239.960C
Critical pressure 1316 KPa(a)
Solubility in water 0.019 vol.(gas)/Vol.(Water) at 15.60C and 1 atm
Explosion / ignition range in air  Flammable Gas

Material Compatibility of Hydrogen

 

METALS PLASTICS ELASTOMERS

Brass

CARBON STEEL

StainLess Steel

Alumium

Zinc

CoPPER

Monel

Kel-F

Teflon

Tefzel

Kynar

PVC

Polycarbonate

Viton® Buna-N Neoprene Polyurethane

O

Kalrez

GAS

 

S – Satisfactory for use with the intended gas
C – Conditional. May be incompatible under some circumstances or conditions Contact your Praxair representative for additional information
U – Unsatisfactory for use with the intended gas
I – Insufficient data available to determine compatibility with the intended gas
O – All nonmetalic, even those considered compatible, may be ignitable in oxygen enriched environments or in other oxidizing gases. Successful
use depends upon oxygen purity, pressure, temperature, cleanliness and elimination of ignition mechanisms. Please contact your Praxair
Representative for additional information

Classification of dangerous goods:

Dangerous Goods Transport Information:

 

IATA IMDG DOT
UN 1049 UN 1049 UN 1049 UN NUMBER
Hydrogen, compressed Hydrogen, compressed Hydrogen, compressed UN SHIPPING NAME
2.1 2.1 2.1 TRANSPORT HAZARD CLASS
NO NO NO ENVIRONMENTAL HAZARD

Linde and Hyosung Partner to Develop Hydrogen Infrastructure in South Korea


Linde company announced today that it has partnered with Hyosung Corporation (Hyosung), one of South Korea’s largest industrial conglomerates, to build, own and operate extensive new liquid hydrogen infrastructure in South Korea. This robust hydrogen network will support the country’s ambitious decarbonization agenda to achieve net zero emissions by 2050.

On behalf of the joint venture, Linde will build and operate Asia’s largest liquid hydrogen facility. With a capacity of over 30 tons per day, this facility will process enough hydrogen to fuel 100,000 cars and save up to 130,000 tons of carbon dioxide tailpipe emissions each year.

Based in Ulsan, the plants will use Linde’s proprietary hydrogen liquefaction technology which is currently used to produce approximately half of the world’s liquid hydrogen. The first phase of the project is expected to start operations in 2023.

Under the partnership, Linde will sell and distribute the liquid hydrogen produced at Ulsan to the growing mobility market in South Korea. To enable this, the joint venture will build, own and operate a nationwide network of hydrogen refueling stations.

“Hydrogen has emerged as a key enabler of the global energy transition to meet the decarbonization goals set out in the Paris Agreement,” said B.S. Sung, President of Linde Korea. “The South Korean government has set ambitious targets for hydrogen-powered fuel cell vehicles and the widespread, reliable availability of liquid hydrogen will be instrumental to achieving these targets. We are excited to partner with Hyosung to develop the hydrogen supply chain in South Korea.”

“Our partnership with Linde is a cornerstone of the development of South Korea’s national hydrogen economy and will advance the entire liquid hydrogen value chain across the country, from production and distribution to sales and services,” said Cho Hyun-Joon, Chairman of Hyosung Group. “We look forward to working with Linde to further reinforce and strengthen Hyosung as a leader in the global hydrogen energy transition.”

Linde is a global leader in the production, processing, storage and distribution of hydrogen. It has the largest liquid hydrogen capacity and distribution system in the world. The company also operates the world’s first high-purity hydrogen storage cavern, coupled with an unrivaled pipeline network of approximately 1,000 kilometers to reliably supply its customers. Linde is at the forefront in the transition to clean hydrogen and has installed close to 200 hydrogen fueling stations and 80 hydrogen electrolysis plants worldwide. The company offers the latest electrolysis technology through its joint venture ITM Linde Electrolysis GmbH.


About Linde

Linde is a leading global industrial gases and engineering company with 2019 sales of $28 billion (€25 billion). We live our mission of making our world more productive every day by providing high-quality solutions, technologies and services which are making our customers more successful and helping to sustain and protect our planet.

The company serves a variety of end markets including chemicals & refining, food & beverage, electronics, healthcare, manufacturing and primary metals. Linde’s industrial gases are used in countless applications, from life-saving oxygen for hospitals to high-purity & specialty gases for electronics manufacturing, hydrogen for clean fuels and much more. Linde also delivers state-of-the-art gas processing solutions to support customer expansion, efficiency improvements and emissions reductions.

 

Source: linde-engineering

Injection of hydrogen into blast furnace: thyssenkrupp Steel concludes first test phase successfully


thyssenkrupp Steel has successfully completed the first phase of hydrogen tests on “Blast Furnace 9“ in Duisburg. In recent months, several tests on one of the 28 tuyères of this blast furnace could be conducted, while complying with corona requirements, among them some long-term tests.

The company has gained important findings in these tests, enabling it to extend the tests to all tuyères in the next step and to transfer this technology to large-scale industrial use. The injection tests are part of the company’s climate strategy with which it intends to reduce its CO2 emissions by 30 percent by 2030.

Successful development: Tests confirm suitability for industrial use

On November 11, 2019, thyssenkrupp Steel was the first company globally to inject hydrogen into a blast furnace during operation. Hydrogen replaces coal dust as additional reducing agent. The goal is to reduce CO2 emissions – for unlike carbon, hydrogen does not react in the blast furnace to form CO2, but water.

The project is funded under the IN4climate.NRW initiative launched by the state government, is scientifically supported by the BFI research institute and supplied with hydrogen by Air Liquide.

A particular focus of the first test phase was on findings on plant technology with the use of hydrogen. To this end, injection of hydrogen was tested on one of the 28 tuyères of “Blast furnace 9” at the Duisburg site.

Based on continual data collection and analyses during the 24-hour tests, the team was able to gather extensive information, for instance, on the positioning of the hydrogen lance in the furnace, on flow and pressure conditions and on the interaction between elevated temperatures and plant technology. The collected data were used to optimize the hydrogen technology with each trial. It was also possible to reach the envisaged injection volume of about 1,000 m³ of hydrogen per hour in the tests.

Dr. Arnd Köfler, Chief Technology Officer of thyssenkrupp Steel: “The development of the hydrogen technology at blast furnace 9 is an important step in our transformation towards climate-neutral steel production. That way, we are able to reduce the CO2 emissions of the conventional coal-based blast furnace process significantly. We are very grateful to the state of North Rhine-Westphalia for funding this first trial phase, which has laid the foundations for the second phase now to come. This will then be followed by the next decisive step towards climate neutrality: The construction of direct reduction plants, which are purely hydrogen-based and can be operated completely without coal“.

Technical basis for extension to all tuyères completed

In the second test phase, the tests will be extended to all 28 tuyères of the blast furnace, thus paving the way for large-scale industrial use. The focus of research will then be on the impact of hydrogen technology on the metallurgical processes in the blast furnace. The second phase is scheduled to start in 2022, somewhat later than originally planned due to the corona pandemic. While the hydrogen for the first test phase was delivered by truck, a pipeline is required for the quantities of hydrogen needed for the second phase.

The Federal Government has held out the prospect of funding for the second phase as part of the real-world laboratory program.

A preparatory agreement on the supply of hydrogen to the blast furnace via Air Liquide’s long-distance pipelines has been concluded recently. Air Liquide was already a partner in the first project phase and intends – subject to funding approval – to invest in a new pipeline connection between the blast furnace and the existing hydrogen long-distance pipeline.

Gilles Le Van, Chairman of the Management Board of Air Liquide Germany: “thyssenkrupp, and Air Liquide are working together on a lighthouse project for the hydrogen society. Together we are pushing forward the decarbonization of steelmaking – with the aim of equally addressing climate protection and international competitiveness.

This is important for North Rhine-Westphalia, for Germany and Europe, and we are proud to make our contribution. Air Liquide brings more than 50 years of experience in the field of hydrogen to our joint project work with thyssenkrupp. We’ll build on that”.

Source: thyssenkrupp-steel

Nikkiso Cryogenic Industries Group Sells Turboexpander Business Line to Air Liquide


Nikkiso Cryogenic Industries’ Clean Energy and Industrial Gases Group (Group), a part of Nikkiso Co., Ltd (Japan), announces the sale of its Turboexpander Business Line to Air Liquide.

Located mainly in Santa Ana, California, the Turboexpander Business Line designs, manufactures and sells Turboexpanders within the industrial gas industry as well as the natural gas liquefaction industry.

Air Liquide is a world leader in gases, technologies and services for Industry and Health and has been the largest customer of the Nikkiso Group’s Turboexpander Business Line.

Nikkiso’s Cryogenic Service (NCS) unit will remain an authorized service company and will continue to provide Aftermarket Services, including repair and servicing of ACD designed and built Turboexpander machines while Air Liquide will provide service activities to its plants and its third party plants customers. This arrangement will guarantee all ACD service clients will continue to receive strong support going forward.

“We are confident the Turboexpander Business Line will continue to grow under Air Liquide’s management, and look forward to continuing to provide our services in favor of the entire ACD clientele with Air Liquide for a long time to come,” according to Peter Wagner, CEO of Cryogenic Industries and President of the Group.

The acquisition was effective January 1st, 2021.


ABOUT CRYOGENIC INDUSTRIES 

Cryogenic Industries, Inc. (now a member of Nikkiso Co., Ltd.) member companies manufacture engineered cryogenic gas processing equipment and small-scale process plants for the liquefied natural gas (LNG), well services and industrial gas industries. Founded over 50 years ago, Cryogenic Industries is the parent company of ACD, Cosmodyne and Cryoquip and a commonly controlled group of approximately 20 operating entities.

Source: nikkisoceig

کلیه ی حقوق این وبسایت متعلق به شرکت نسیم صبح فردا می باشد

×

Welcome to Nasim Sobh Farda

Thank you for choosing Nasim Sobh Farda Company

To order a product price inquiry or more information you can, by clicking on the Supporter and send a message to Him , they will respond to your message as soon as possible.

Thanks for your attention

× ? How can I help you