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Waste Gasification Headed for Antarctica

http://www.waste-management-world.com/index/display/article-display/9902930057/articles/waste-management-world/waste-to-energy/2012/01/Waste_Gasification_Headed_for_Antarctica.html

CES Lockheed Martin Waste Gasification Headed for Antarctica

A view to the north from McMurdo Station, Ross Island, Antarctica. McMurdo Station is one of three year-round research stations that are supported by the U.S. Antarctic Program.   Credit: Jeff Scanniello

04 January 2012

Larkspur, Colorado based waste to energy firm, Creative Energy Systems (CES), has been awarded a subcontract by Lockheed Martin to supply its technology to the United States Antarctic Program, according to a report in Mason City’s Globe Gazette.

According to Lockheed Martin it has been selected by the National Science Foundation (NSF) to operate and maintain the support infrastructure for the United States Antarctic Program (USAP) in a contract worth up to $2 billion.

Under the new contract, Lockheed Matin said that it will work with the NSF to implement a cost-effective, streamlined infrastructure for managing work stations and medical facilities, research vessels, construction projects and remote sites in and around Antarctica.

The corporation will also modernise technologies to transport scientists, staff and supplies to and from the Antarctic region.

The Globe Gazette’s report claimed that under its subcontract with Bethesda, Maryland based defence and technology systems giant, CES will deploy the same technology in Antarctica that it is planning to utilise its proposed waste to energy facility in Mason City, Iowa as well as its molecular separation technology.

According to the report the proposed $35 million gasification facility that would divert waste from landfill in north Iowa has sparked controversy, while the Mason City Zoning Board of Adjustment has granted CES a permit to operate so long as it meets 30 conditions.

The project must also be approved by the Landfill of North Iowa Board, the Iowa Department of Natural Resources, Alliant Energy and the Mason City Council, said the report.

The NSF said that over 3000 Americans participate each year in the program’s research and logistical activities, involving scientists as well as support personnel from the private sector and other Federal agencies that include the Department of Defense, NASA, the U.S. Geological Survey and the Department of Energy.

Lockheed Martin will provide logistical support for research at McMurdo Station, Amundsen-Scott South Pole Station, and Palmer Station, as well as for field research on the continent and oceanographic research in the Southern Ocean.

The foundation added that the overarching USAP goal is to advance the scientific forefront when research conducted in Antarctica offers a special way forward.

Read More

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Mobile Waste Gasification Units for Military Applications
Dynamis Energy has launched its WasteStation – a mobile waste gasification unit with military, healthcare and hospitality applications.

Video: 50 Gallon Waste Gasifier Tested by U.S. Marines
U.S. Marines based at Camp Smith, Hawaii are testing a small scale waste gasification system developed by Terragon Environmental Technologies.

World Changing Ideas: 20 Ways to Build a Cleaner, Healthier, Smarter World

From solar power to powering our planet with garbage, Scientific American explores ideas that would improve our planet

By Christopher Mims, Amanda Schupak, Michael Moyer, Sarah Simpson, John Pavlus, Gregory Mone,Melinda Wenner and Katherine Harmon | November 23, 2009

http://www.scientificamerican.com/article.cfm?id=world-changing-ideas&page=5

The Power of Garbage
Trapped lightning could help zap trash and generate electricity
By John Pavlus

Trash is loaded with the energy trapped in its chemical bonds. Plasma gasification, a technology that has been in development for decades, could finally be ready to extract it.

In theory, the process is simple. Torches pass an electric current through a gas (often ordinary air) in a chamber to create a superheated plasma—an ionized gas with a temperature upward of 7,000 degrees Celsius, hotter than the surface of the sun. When this occurs naturally we call it lightning, and plasma gasification is literally lightning in a bottle: the plasma’s tremendous heat dissociates the molecular bonds of any garbage placed inside the chamber, converting organic compounds into syngas (a combination of carbon monoxide and hydrogen) and trapping everything else in an inert vitreous solid called slag. The syngas can be used as fuel in a turbine to generate electricity. It can also be used to create ethanol, methanol and biodiesel. The slag can be processed into materials suitable for use in construction.

In practice, the gasification idea has been unable to compete economically with traditional municipal waste processing. But the maturing technology has been coming down in cost, while energy prices have been on the rise. Now “the curves are finally crossing—it’s becoming cheaper to take the trash to a plasma plant than it is to dump it in a landfill,” says Louis Circeo, director of Plasma Research at the Georgia Tech Research Institute. Earlier this summer garbage-disposal giant Waste Management partnered with InEnTec, an Oregon-based start-up, to begin commercializing the latter’s plasma-gasification processes. And major pilot plants capable of processing 1,000 daily tons of trash or more are under development in Florida, Louisiana and California.

Plasma isn’t perfect. The toxic heavy metals sequestered in slag pass the Environmental Protection Agency’s leachability standards (and have been used in construction for years in Japan and France) but still give pause to communities considering building the plants. And although syngas-generated electricity has an undeniably smaller carbon footprint than coal—“For every ton of trash you process with plasma, you reduce the amount of CO2 going into the atmosphere by about two tons,” Circeo says—it is still a net contributor of greenhouse gases.

“It is too good to be true,” Circeo admits, “but the EPA has estimated that if all the municipal solid waste in the U.S. were processed with plasma to make electricity, we could produce between 5 and 8 percent of our total electrical needs—equivalent to about 25 nuclear power plants or all of our current hydropower output.” With the U.S. expected to generate a million tons of garbage every day by 2020, using plasma to reclaim some of that energy could be too important to pass up.

Rapid growth of CFB WTE technology in China

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£10m cost of turning off wind farms

Wind farm operators are on course to earn up to £10 million this year for turning off their turbines.

http://www.telegraph.co.uk/earth/greenpolitics/8978458/10m-cost-of-turning-off-wind-farms.html

£10m cost of turning off wind farms

he rules meant that some renewable energy companies were paid more to switch off their turbines than they would have received from ordinary operations Photo: ALAMY

Official figures disclosed that 17 operators were paid almost £7 million for shutting down their farms on almost 40 ­occasions between January and mid-September. Continuing to make payments at that rate would lead to householders paying out £9.9 million in 2011 for operators to disconnect their turbines from the National Grid.

The scale of the payments triggered a review of the rules on so-called constraint payments. The payments are made when too much electricity floods the grid, with the network unable to absorb any excess power generated. The money is ultimately added on to household bills and paid for by consumers.

Last year, only £176,788 of such payments were made, but changes in the way the National Grid, which supplies energy to retail companies, “balances” the electricity network have meant a huge expansion in their use.

The rules meant that some renewable energy companies were paid more to switch off their turbines than they would have received from ordinary operations.

In September, it was disclosed that £1.2 million would go to a Norwegian company that owned 60 turbines in the Scottish Borders, thanks to a period of unusually high wind during the spring. Because of the rising cost, the National Grid “balancing” system could now be overhauled to reduce the use of constraint payments

Europe: The Waste Management Challenge

http://www.waste-management-world.com/index/display/article-display/0985370589/articles/waste-management-world/opinion/2011/12/Europe__The_Waste_Management_Challenge.html

Rolf Stein CEO Advanced Plasma Power

Waste management is a critical European issue. Each year, Europe produces around 3 billion tonnes of waste – equivalent to 6 tonnes per person. Currently, 67% is either sent to landfill or incinerated. Neither of these is a popular means of dealing with waste.
Europe’s waste management challenges are moving to a critical stage with a pressing need for alternative advanced technologies and the required framework to drive their adoption and encourage commercial support. Much of the emphasis to date has been on producing less waste – recycling more and consuming less. These are laudable aims, and must be strongly supported – but recycling is not the complete answer especially as Europe’s population rises.
There are UK and EU regulatory frameworks to encourage more sustainable waste management. Costly disincentives to waste – among them the EU Landfill Directive – make disposing of waste an increasingly expensive process.
There is increasing recognition amongst policy makers that innovative advanced conversion technologies (ACTs) can help meet renewable energy targets and improve energy security whilst also contributing to Europe’s vision for a zero waste economy. The potential for waste to be treated as a resource is an opportunity that needs to be realised, and the requirement for sustainable waste to energy solutions has never been greater.
Advanced Plasma Power’s Gasplasma technology is internationally patented and combines two long standing and well proven technologies (gasification and plasma treatment) to convert waste into a very clean, hydrogen-rich synthesis gas (syngas) and a vitrified recyclate product called Plasmarok.
The two products from the process, the energy-rich syngas and the Plasmarok have a variety of end uses making the technology very flexible. The syngas can be used to generate electricity directly and efficiently in gas engines or gas turbines. As fuel cell technology advances rapidly, the syngas will be capable of being used commercially in fuel cells, probably within the next five years, thereby further improving the electrical generation efficiency.
Alternatively, the syngas can be processed into synthetic natural gas (SNG) for distribution in existing gas grids or into hydrogen or liquid fuels. The Plasmarok is a very strong and stable product and has a variety of end uses in the construction industry. It can be cast into tiles, slabs or blocks or can be granulated or spun into insulation material.
A standard Gasplasma facility is sized to process around 150,000 tonnes per year of residual municipal or commercial waste, removing valuable recyclates and creating 90,000 tonnes per year of Refused Derived Fuel (RDF). The removal of recyclates at the front end and the production of a product, (Plasmarok) clearly helps to boost recycling rates significantly.
The facility fits into a relatively standard industrial warehouse unit of only some 15 metres in height with a very low exhaust. This enables the facility to be located close to towns thereby offering a community-based solution for sustainable waste management and the generation of clean, renewable, power and heat for local homes and businesses.
As Europe’s waste management challenge is tackled over the coming years, it is anticipated that governments and businesses will look increasingly for efficient technologies which can treat waste in an environmentally benign way.
New EU countries, who are behind their Western neighbours in terms of renewable energy infrastructure, are likely to start investing more heavily in sustainable waste management solutions in order to comply with tough regulations – creating a clear opportunity for clean technology companies.
Moreover, tighter regulation of waste and recycling is likely – building on the UK Government’s Waste Review and the European Commission’s Waste Hierarchy.
Currently, the UK alone sends around 40 million tonnes of waste sent tolandfill
every year and a further two billion tonnes of waste already sitting in landfill which could be mined for resources and fuel. This situation is not sustainable in the UK or across Europe, for social, cost and environmental reasons.
Ultimately, the solution will be the widespread adoption of a variety of advanced technologies and techniques. To deliver this, a transparent, supportive, consistent and above all joined-up legislativeframework is required.
It stands to reason that those advanced conversion technologies which deliver at the interface or convergence of all of the diverse regulatory objectives in respect of recycling, landfill diversion, efficient energy generation, heat recovery and local acceptability and which in addition offer a flexible platform for future applications should be preferred.
Rolf Stein is CEO of Advanced Plasma Power
www.advancedplasmapower.com

Waste management is a critical European issue. Each year, Europe produces around 3 billion tonnes of waste – equivalent to 6 tonnes per person. Currently, 67% is either sent to landfill or incinerated. Neither of these is a popular means of dealing with waste.
Europe’s waste management challenges are moving to a critical stage with a pressing need for alternative advanced technologies and the required framework to drive their adoption and encourage commercial support. Much of the emphasis to date has been on producing less waste – recycling more and consuming less. These are laudable aims, and must be strongly supported – but recycling is not the complete answer especially as Europe’s population rises.
There are UK and EU regulatory frameworks to encourage more sustainable waste management. Costly disincentives to waste – among them the EU Landfill Directive – make disposing of waste an increasingly expensive process.
There is increasing recognition amongst policy makers that innovative advanced conversion technologies (ACTs) can help meet renewable energy targets and improve energy security whilst also contributing to Europe’s vision for a zero waste economy. The potential for waste to be treated as a resource is an opportunity that needs to be realised, and the requirement for sustainable waste to energy solutions has never been greater.
Advanced Plasma Power’s Gasplasma technology is internationally patented and combines two long standing and well proven technologies (gasification and plasma treatment) to convert waste into a very clean, hydrogen-rich synthesis gas (syngas) and a vitrified recyclate product called Plasmarok.
The two products from the process, the energy-rich syngas and the Plasmarok have a variety of end uses making the technology very flexible. The syngas can be used to generate electricity directly and efficiently in gas engines or gas turbines. As fuel cell technology advances rapidly, the syngas will be capable of being used commercially in fuel cells, probably within the next five years, thereby further improving the electrical generation efficiency.
Alternatively, the syngas can be processed into synthetic natural gas (SNG) for distribution in existing gas grids or into hydrogen or liquid fuels. The Plasmarok is a very strong and stable product and has a variety of end uses in the construction industry. It can be cast into tiles, slabs or blocks or can be granulated or spun into insulation material.
A standard Gasplasma facility is sized to process around 150,000 tonnes per year of residual municipal or commercial waste, removing valuable recyclates and creating 90,000 tonnes per year of Refused Derived Fuel (RDF). The removal of recyclates at the front end and the production of a product, (Plasmarok) clearly helps to boost recycling rates significantly.
The facility fits into a relatively standard industrial warehouse unit of only some 15 metres in height with a very low exhaust. This enables the facility to be located close to towns thereby offering a community-based solution for sustainable waste management and the generation of clean, renewable, power and heat for local homes and businesses.
As Europe’s waste management challenge is tackled over the coming years, it is anticipated that governments and businesses will look increasingly for efficient technologies which can treat waste in an environmentally benign way.
New EU countries, who are behind their Western neighbours in terms of renewable energy infrastructure, are likely to start investing more heavily in sustainable waste management solutions in order to comply with tough regulations – creating a clear opportunity for clean technology companies.
Moreover, tighter regulation of waste and recycling is likely – building on the UK Government’s Waste Review and the European Commission’s Waste Hierarchy.
Currently, the UK alone sends around 40 million tonnes of waste sent tolandfillevery year and a further two billion tonnes of waste already sitting in landfill which could be mined for resources and fuel. This situation is not sustainable in the UK or across Europe, for social, cost and environmental reasons.
Ultimately, the solution will be the widespread adoption of a variety of advanced technologies and techniques. To deliver this, a transparent, supportive, consistent and above all joined-up legislativeframework is required.
It stands to reason that those advanced conversion technologies which deliver at the interface or convergence of all of the diverse regulatory objectives in respect of recycling, landfill diversion, efficient energy generation, heat recovery and local acceptability and which in addition offer a flexible platform for future applications should be preferred.
Rolf Stein is CEO of Advanced Plasma Power
www.advancedplasmapower.com

Waste management is a critical European issue. Each year, Europe produces around 3 billion tonnes of waste – equivalent to 6 tonnes per person. Currently, 67% is either sent to landfill or incinerated. Neither of these is a popular means of dealing with waste.Europe’s waste management challenges are moving to a critical stage with a pressing need for alternative advanced technologies and the required framework to drive their adoption and encourage commercial support. Much of the emphasis to date has been on producing less waste – recycling more and consuming less. These are laudable aims, and must be strongly supported – but recycling is not the complete answer especially as Europe’s population rises.There are UK and EU regulatory frameworks to encourage more sustainable waste management. Costly disincentives to waste – among them the EU Landfill Directive – make disposing of waste an increasingly expensive process.There is increasing recognition amongst policy makers that innovative advanced conversion technologies (ACTs) can help meet renewable energy targets and improve energy security whilst also contributing to Europe’s vision for a zero waste economy. The potential for waste to be treated as a resource is an opportunity that needs to be realised, and the requirement for sustainable waste to energy solutions has never been greater.Advanced Plasma Power’s Gasplasma technology is internationally patented and combines two long standing and well proven technologies (gasification and plasma treatment) to convert waste into a very clean, hydrogen-rich synthesis gas (syngas) and a vitrified recyclate product called Plasmarok.The two products from the process, the energy-rich syngas and the Plasmarok have a variety of end uses making the technology very flexible. The syngas can be used to generate electricity directly and efficiently in gas engines or gas turbines. As fuel cell technology advances rapidly, the syngas will be capable of being used commercially in fuel cells, probably within the next five years, thereby further improving the electrical generation efficiency.Alternatively, the syngas can be processed into synthetic natural gas (SNG) for distribution in existing gas grids or into hydrogen or liquid fuels. The Plasmarok is a very strong and stable product and has a variety of end uses in the construction industry. It can be cast into tiles, slabs or blocks or can be granulated or spun into insulation material.A standard Gasplasma facility is sized to process around 150,000 tonnes per year of residual municipal or commercial waste, removing valuable recyclates and creating 90,000 tonnes per year of Refused Derived Fuel (RDF). The removal of recyclates at the front end and the production of a product, (Plasmarok) clearly helps to boost recycling rates significantly.The facility fits into a relatively standard industrial warehouse unit of only some 15 metres in height with a very low exhaust. This enables the facility to be located close to towns thereby offering a community-based solution for sustainable waste management and the generation of clean, renewable, power and heat for local homes and businesses.As Europe’s waste management challenge is tackled over the coming years, it is anticipated that governments and businesses will look increasingly for efficient technologies which can treat waste in an environmentally benign way.New EU countries, who are behind their Western neighbours in terms of renewable energy infrastructure, are likely to start investing more heavily in sustainable waste management solutions in order to comply with tough regulations – creating a clear opportunity for clean technology companies.Moreover, tighter regulation of waste and recycling is likely – building on the UK Government’s Waste Review and the European Commission’s Waste Hierarchy.Currently, the UK alone sends around 40 million tonnes of waste sent tolandfillevery year and a further two billion tonnes of waste already sitting in landfill which could be mined for resources and fuel. This situation is not sustainable in the UK or across Europe, for social, cost and environmental reasons.Ultimately, the solution will be the widespread adoption of a variety of advanced technologies and techniques. To deliver this, a transparent, supportive, consistent and above all joined-up legislativeframework is required.It stands to reason that those advanced conversion technologies which deliver at the interface or convergence of all of the diverse regulatory objectives in respect of recycling, landfill diversion, efficient energy generation, heat recovery and local acceptability and which in addition offer a flexible platform for future applications should be preferred.Rolf Stein is CEO of Advanced Plasma Powerwww.advancedplasmapower.com

Plasma Gasification Finds Favour with UK Environmentalists

http://www.waste-management-world.com/index/display/article-display.articles.waste-management-world.waste-to-energy.2011.08.Plasma_Gasification_Finds_Favour_with_UK_Environmentalists.QP129867.dcmp=rss.page=1.html

03 August 2011

Environmental campaigners in the Southwest of England say that plans to incinerate much of the nations rubbish in the future may be misguided, and have promoted alternative treatment technologies.

A recent report on BBC news has highlighted one such possibility. Advanced Plasma Power’s Gasplasma process has been demonstrated at a facility in Swindon.

Chris Chapman, chief technical officer explains that there has been a shift in the way waste is seen in the UK, with landfill becoming increasingly unacceptable.

The Gasplasma process uses a 6000 degree C plasma Arc to convert the waste material into a 1000 degree C gas, and solidifiedplasmarok.

At the same time, the process produces syngas that can be used to generate electricity.

Environmental campaigner, Peter Brooks is in favour of the new technology, but UK local authorities have been slow to adopt the technology, unlike the situation in Norway and Belgium.

http://www.youtube.com/watch?v=6QJscVTM9bY&feature=player_embedded

Waste Fuelled Plasma Gasification at Four UK Ports

http://www.waste-management-world.com/index/display/article-display/7881644033/articles/waste-management-world/waste-to-energy/2011/11/Waste_Fuelled_Plasma_Gasification_at_Four_UK_Ports.html

CHO’s demonstration facility in Morcenx, France is expected to be commissioned during 2012. In addition to its electrical output 18MW of hot water generated by the process will power a vegetable greenhouse and a wood fire drier

30 November 2011

CHO Power SAS and Sunrise Renewables are to collaborate on a project that will see four plasma gasification facilities built at UK docks to treat biowaste.

According to the companies the new facilities are to be built at ports in Hull, Barry, Sunderland and Barrow, and combined will deliver some 37.5 MW of electricity to the national grid.

CHO Power SAS is a wholly owned subsidiary of French plasma gasification technology developer, Europlasma, while SunriseRenewables is a UK based group of project developers.

Speaking to Waste Management World, Marc Lefour, head of CHO-Power development, explained that for its part in the partnership, CHO is providing the advanced gasification technology, while Sunrise Renewables is the local project developer.

As part of the role, Sunrise has secured the planning permissions for all the sites and electrical grid connections, and is currently working on finalising long term feedstock supply contracts for the sites.

According to Lefour, the waste wood feedstock that will fuel the facilities will allow them to qualify for double Renewable Obligation Certificates (ROC).

Technology

CHO said that its gasification process transforms waste into a very clean syngas using a plasma torch capable of reaching temperatures as hot as the surface of the sun. The Syngas is then cleaned and the tar removed

For the four UK port facilities this syngas will be used to power gas engine generators.

Lefour explained that because the feedstock at these facilities is to be purely biomass such as waste wood, the by product of the gasification process has the potential to be used as an agricultural fertiliser. However this will require approval from the Environment Agency.

“In a first step it can be used as aggregate for civil works, like the ashes from incineration. But here it’s from biomass, it’s pure waste wood, there should be no big issue to use these ashes.”

The company is also currently building a demonstration facility in Morcenx, France that will use its plasma gasification technology to treat 37,000 tonnes of ordinary industrial waste and 15,000 tonnes wood chips each year. The electricity generated is to be sold to EDF.

In addition, CHO’s technology is being deployed at the Enviroparks integrated waste management project in Hirwaun, Wales, which is currently at the RFQ phase.

According to Lefour the UK market holds huge potential for waste gasification technologies, and he expects more projects to follow.

Subject to the funding scheme, the first of these four facilities should be under construction by the second half of 2012

Video explains the process

http://www.youtube.com/watch?v=ekHsRR8Q_Eo&feature=player_embedded


Plasma Gasification : an Explanation of the technology – for members fo the Advisory Council on the Environment and Legco Panel on Evironmental Affairs

ENB’s appointed consultant for the proposed (old) moving gate mass burn technology SWC incinerator is AECOM

AECOM Quote:

Plasma Gasification is a Clean Energy Solution – Energy Recovery from Waste

‘Alter NRG’s 750 tonne-per-day waste-to-energy plasma gasification facility “will result in substantial renewable energy production from post consumer waste streams that would normally have to be land filled, while providing state-of-the-art emission control…’

“These emissions will be substantially lower than traditional mass burn or refuse derived fuel processes commonly used in the waste to energy industry. Diversion of MSW from solid waste landfills (where the potent greenhouse gas methane is formed) will result in substantial net decreases in greenhouse gas emissions as CO2 equivalent. Since the proposed organic feed stocks are post consumer waste streams,the project represents a renewable and sustainable clean energy resource.”

ENSR-AECOM

Milwaukee Gasification-WTE Project Unveiled

Mike Zebell of Aecom “The site AFE has chosen for this project is well suited for this facility”, said Mike Zebell of Aecom, a technical, environmental and management support services company advising AFE on permitting. “We believe that this technology is not only environmentally friendly but ready for large-scale commercialization.  ”

http://www.worldfuels.com/wfExtract/exports/Content/c159768d-785f-4a78-9ec5-e32a9c47084a.html

Mike Zebell of Aecom “We are excited to partner with an entrepreneurial firm like AFE, one of the industries leading developers focused on building environmentally responsible energy projects using plasma gasification technology.”

http://www.wisconsinbioindustry.com/category/bio-power/

Plasma Gasification Explanation PDF : Download Plasma GasificationExplanation

Air Products Proposed Renewable Energy Facility in Tees Valley

Download PDF : Teeside EFW Process Roger Dewing rev 1

CTA Letter : CTAAdvisoryPanelEnv (1)

Comments from Solena Fuels : EIA 201 2011 – Comments from Solena Fuels (Dec 15 2011)-1