CHAR Announces Approval of Funding Grant For CleanFyre Biocoal

CHAR Technologies Ltd. (the “Corporation”) (TSXV:YES) recently announced that it has been approved for a grant totalling $1,062,385 provided by the Government of Ontario through the Low Carbon Innovation Fund (“LCIF”).  The grant is in support of CHAR’s CleanFyre biocoal project, with participation from ArcelorMittal Dofasco (“Dofasco”), Canada’s largest flat roll steel producer and a lead user of CleanFyre within the project, Walker Environmental (“Walker”) as a feedstock supplier and BioLine Corporation (“Bioline”) as a feedstock pre-processor.

“This grant will allow CHAR to work with innovative and progressive companies, including Dofasco, Walker and Bioline, to further develop CleanFyre, a carbon neutral, sustainable, solid biofuel, that meets the strict requirements of the steelmaking industry,” said Andrew White, CEO of CHAR.  “The project will culminate with a 20-tonne trial in an operational blast furnace at Dofasco to prove CleanFyre’s applicability within the steel industry.”

CleanFyre is a carbon neutral solid biofuel, and through its implementation will allow users to significantly reduce their GHG emissions.  Project funding will be disbursed 50% in April, followed by four additional payments on successful milestone completion.

About CHAR

CHAR Technologies Ltd is a cleantech development and services company, specializing in biocarbon development (activated charcoal ‘SulfaCHAR’ and solid biofuel ‘CleanFyre’) and custom equipment for industrial air and water treatment, and providing services in environmental management, site investigation & remediation, engineering, and resource efficiency.

About Low Carbon Innovation Fund

The Low Carbon Innovation Fund is a fund to help researchers, entrepreneurs and companies create and commercialize new, globally competitive, low-carbon technologies that will help Ontario meet its GHG emissions reductions targets.  The Low Carbon Innovation Fund is part of Ontario’s Climate Change Action Plan and is funded by proceeds from the province’s carbon market.

Forward-Looking Statements

Statements contained in this press release contain “forward-looking information” within the meaning of Canadian securities laws.  When considering these forward-looking statements, you should keep in mind the risk factors and other cautionary statements in CHAR’s MD&A dated February 26th, 2018 and available under CHAR’s profile on www.sedar.com. Neither the TSX Venture Exchange nor its Regulation Services Provider (as that term is defined in the policies of the TSX Venture Exchange) accepts responsibility for the adequacy or accuracy of this release.

For further information please contact:

Andrew White
Chief Executive Officer
CHAR Technologies Ltd.
e-mail: andrew.white@chartechnologies.com
tel: 647-968-5347

Marie Verdun
Manager, Corporate Affairs
ArcelorMittal Dofasco
e-mail: marie.verdun@arcelormittal.com
tel: 905-548-7200 x2066

ArcelorMittal Dofasco, Hamilton, Ontario

Applied research is reclaiming contaminated urban industrial sites

As reported by Cody McKay in the Vancouver Sun, there is outstanding discovery research occurring at universities across Canada. Unfortunately, a significant proportion of this research doesn’t translate into commercial application.  Consecutive Canadian governments have attempted to tackle this challenge, focusing research dollars on particular aspects of the research-innovation ecosystem.  This has left those not in the funding limelight to cry protest, plead neglect or worse, be under-valued.  Yet the reality is that we need to support all types of research.

Canada needs researchers devoted to fundamental science, but also those who can take existing research knowledge and apply it to solve an identified challenge for society or for industry.

Enter collaborations with applied research.  And a Canadian-made solution.

There are tens of thousands of brownfield sites scattered across Canada — many of them in urban locations. “Brownfields” are those abandoned industrial sites, such as old gas stations, that can’t be redeveloped because of the presence of hazardous substances, pollutants or contaminants in the soil. As a result, they remain empty, barren eyesores for communities, financial drains for their landowners who can’t repurpose the land and environmental liabilities for future generations.

Over the past decade, a collaboration between Federated Co-operatives Limited, a Western Canada energy solutions company which owns a number of brownfield sites, and the University of Saskatchewan (U of S) developed a variety of methods to stimulate the bacteria in the soil to consume the petroleum-based contaminants more rapidly.

This U of S remediation method is faster than the natural attenuation process, which can take decades.  The U of S method has the potential to remediate a contaminated site in a northern climate in only a few months.  It is also less invasive and potentially more cost-effective than the “dig-and-dump” approach that is popular in some regions of Canada.  “Dig-and-dump” refers to excavating all the contaminated soil at site, transporting it to a landfill for disposal, and filling in the excavation with clean fill.  The research team provided an estimated cost savings on remediation of up to 50 percent, depending on the extent of contamination and the cost of dig-and-dump.  With an estimated 30,000 contaminated gas station sites in Canada, halving remediation costs represents a total potential savings of approximately $7.5 billion.

Collaborating with the University of Saskatchewan and Federated Co-op, and building on their earlier research, Dr. Paolo Mussone, an applied research chair in bio-industrial and chemical process engineering, and his colleagues at the Northern Alberta Institute of Technology (NAIT) Centre for Sensors and System Integration built sensors to monitor the bacteria and track how quickly the pollutants in the soil were degrading.  The team experimented with the technique and the sensors at an old fuel storage site owned by Federated Co-op in Saskatoon that had been leaking for 20 years.  They were able to use the technology to monitor the bacteria’s consumption and adjust the stimuli that increased this consumption in real time.

This applied research significantly shortened the time it took to clean the site, and only a few years later, the land is now home to a commercial retail space.

Dr. Mussone’s work is focused on building prototypes that use emerging nano- and biotechnologies.  The goal of this applied research is to help the energy sector improve operational efficiencies, reduce emissions and accelerate environmental remediation.  So where some would see the scars of industrial activity on the landscape, Dr. Mussone sees an opportunity to put his research into action.

Eventually, Dr. Mussone hopes to see the technology applied across Western Canada, where similar sites continue to hinder community-building efforts.

The science research undertaken by the University of Saskatchewan and Federated Co-op, and the collaborative applied research undertaken by NAIT, has led to a sustainable, commercial solution. Polytechnic institutions excel at this type of research translation.

Sometimes it is far too easy the federal government to forget about the impact of research, only focusing instead on the supply for new science dollars.  Across the country, universities, polytechnics and community colleges are each undertaking research that could have immediate impact, or future benefit.

Rather than pitting these fundamentally different models of research against one another, Canadians should celebrate the diversity of strengths that exist in our country.

Canada has excellent applied research opportunities that can be harnessed for economic impact.  Recognizing and supporting all types of research, and more significantly, fostering research collaboration amongst institutions with different research mandates and missions, is the surest and most positive way to build a sustainable science and innovation ecosystem for Canada.

Reclaiming contaminated land is NAIT Applied Research Chair Dr. Paolo Mussone’s mission

 

 

 

 

 

Nominations Open from Canadian Brownfields Awards

2018 HUB Awards Nominations are Open!  Nominate a Distinguished Brownfielder Today

Do you know someone who is making an important contribution to brownfields?  Nominate them for the 2018 HUB Awards!

The CBN HUB (Heroes Underpinning Brownfields) Awards recognize members of the brownfield community who make the exceptional projects we see every day a possibility.

The HUB Awards are given in three categories, relating to the three stages of brownfielders’ careers:

  • Foundation: Presented to a contributor to the Brownfield industry in Canada who has had a profound impact on how things are done today. Their work has provided a Foundation upon which the current practices and policies have been based. This is a “career achievement” award
  • Pillar: Presented to a recipient who has proven to be a Pillar of Strength in a significant aspect of the Brownfield industry in Canada. They continue to provide valuable expertise and influence into the policies and practices that we are employing. The Pillar award is a mid-career award
  • Vision: Presented to someone who is at an early stage in their career in the Brownfield Industry in Canada and who is already providing valuable insight into programs, policies or practices that will be improving how Brownfield redevelopment in Canada is completed

What makes a HUB Award winner? Take a look at the 2017 winners to see.

To submit a nomination, please complete our interactive nomination form.

U.S. System Assessment and Validation for Emergency Responders Program

The U.S. Department of Homeland Security (DHS) established the System Assessment and Validation for Emergency Responders (SAVER) Program to assist emergency responders making procurement decisions. Located within the DHS Science and Technology Directorate (S&T), the SAVER Program conducts objective assessments and validations on commercial equipment and systems, and provides those results along with other relevant equipment information to the emergency responder community. For more information, read the SAVER Program Fact Sheet.

The SAVER Program mission includes:

  • Conducting impartial, practitioner‑relevant, operationally oriented assessments and validations of emergency response equipment; and,
  • Providing information, in the form of knowledge products, that enables decision‑makers and responders to better select, procure, use, and maintain emergency response equipment.

Addressing Technologies

SAVER contains more than 1,000 assessments of equipment that falls within 21 different categories on the DHS Authorized Equipment List (AEL). Categories include:

  • Search and Rescue
  • Information Technology
  • CBRNE Detection
  • Personal Protective Equipment
  • Decontamination
  • Surveillance
  • Explosive Countermeasures

This information is shared nationally with the responder community, providing a cost-saving resource to DHS and other federal, state, and local agencies. Additionally, more than 20 different programs offer grants to purchase equipment on the AEL List.

Objective Assessments and Validations

SAVER is supported by a network of qualified technical agents who play a critical role in providing impartial evaluations and by helping to ensure these evaluations address real-world operational requirements. Participating organizations include the Space and Naval Warfare Systems Center Atlantic, DHS S&T’s National Urban Security Technology Laboratory, as well as emergency response practitioners, law enforcement officers, firefighters, paramedics, and emergency managers, all of whom help to ensure these activities address real-world operational requirements.

Based on their assessments, technical agents produce documents, including product lists, reports, plans, rating charts, handbooks, and guides that describe the equipment, their capabilities, features, and potential applications. This provides first responders with a well-rounded picture to help inform procurement decisions.

SAVER Documents and Outreach

Partnerships

Biodetection Resources for First Responders

National Institute of Standards and Technology

Lesson Learned Information Sharing – Knowledge Base

Inter Agency Board – Standardized Equipment List

JUSTNet: The Website of the National Law Enforcement and Corrections Technology Center

Canadian Brownfields Survey

The Canadian Brownfields Network (CBN), in conjunction with Ryerson University is conducting a survey on the perceptions of progress on recommendations that the National Roundtable on the Environment & Economy (NRTEE) released in 2003.

The CBN is most interested in knowing if persons involved in brownfield redevelopment feel if progress has been made on the NRTEE’s recommendations.

CBN and Ryerson have developed a survey for NRTEE +15 – have your say: https://survey.ryerson.ca:443/s?s=6603survey.ryerson.ca/s?s=6603 . Survey results will form the basis of discussion at our 2018 Conference June 13. Please participate!

Possible benefits of participating in this study include that we aim to identify methods for increasing brownfields redevelopment activity in Canada, and encourage more involvement in brownfield redevelopment through comprehensive understanding of existing plans and policies.

Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market Outlook

Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market: Global Industry Trends, Market Size, Competitive Analysis and Forecast – 2018 – 2026”, this study is recently published by Research Corridor covering global market size for Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment market for the key segments and further cross-regional segmentation of these segments for the period 2018 to 2026.

According to Research Corridor this study will provide in-depth analysis of segments on the basis of current trends, market dynamics and country level analysis of Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment industry. This report provides market estimates and forecast for the period 2016-2026, along with respective CAGRs for each segment and regional distribution for the period 2018-2026. In depth analysis of competitive landscape, porter’s five forces model, value chain analysis, and pricing strategies are also covered in the report scope.

Report Synopsis: Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market

This report provides an exhaustive market analysis of the Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment industry presented through sections such as

  1. Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment: Market Summary
  2. Key Developments in the Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Industry
  3. Market Trends and Dynamics of Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Industry
  4. Attractive Investment Proposition for Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market
  5. Competitive Landscape of Key Market Players in Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Industry
  6. Current Market Scenario and Future Prospects of the Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market
  7. Mergers and Acquisitions in Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market
  8. Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market Revenue and Forecast, by Segment A Type, 2016 to 2026
  9. Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market Revenue and Forecast, by Segment B Type, 2016 to 2026
  10. Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market Revenue and Forecast, by Segment C Type, 2016 to 2026
  11. Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market Revenue and Forecast, by Segment D, 2016 to 2026
  12. Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment Market Revenue and Forecast, by Geography, 2016 to 2026

Browse for The Full Report: http://www.researchcorridor.com/chemical-biological-radiological-nuclear-explosives-cbrne-detection-equipment-market/

Key Takeaways:

  1. Market size and forecast of the Chemical Biological Radiological Nuclear and Explosives (CBRNE) Detection Equipment market for the period from 2016 to 2026
  2. Compounded annual growth rate (CAGR%) for each segment in several regional markets by year 2026
  3. Market share analysis combined with competitive landscape of key players
  4. Profiles of key market players covering overall business operations, geographic presence, product portfolio, financial status and news coverage

Forecast for the Global Market for Hazmat Packaging through to 2027

Hazmat packaging, also referred to as Hazardous Material packaging as emerged as an effective solution in the protective packaging segment. Hazmat packaging is meant for the storage of hazardous substances and material which needs to be transported across borders. Shipping of hazardous materials is not only considered dangerous but it also requires a lot of regulations and guidelines to be transported. To minimize the spilling and snapping cases of the packaged product, the global hazmat packaging market is gaining enormous traction in the global market during the forecast period.

According to a market report from Future Market Insights, the growth of the hazmat packaging market is expected to be mainly driven by the need for a safe and secure packaging for materials that need special handling. Moreover, since the non-compliance with the shipping regulations of hazardous materials is quite costly, all the end users prefer hazmat packaging in order to perfectly comply with the regulations.

Manufacturing activity and industrial output remains important to both the developed and the developing economies. In developing economies, increase in the consumption of end products due to change in living standard and growing income has created new market opportunities to evolve. However, in developed regions, the demand is considered to be fragmented as customers ask for variations and different types of products. Protective packaging service providers need to evaluate and fulfill the requirements of protection. Therefore, the hazmat packaging market, a part of protective packaging is widely dependent on the manufacturing industry.

Interactive packaging is a key trend prevailing in the global hazmat packaging market wherein track and trace labels are being used to track the shipment. Giving the end user a chance to directly interact with the packaging itself, is expected to ring in new opportunities of growth for the global hazmat packaging market.

Packaging type which is less in weight has led to the introduction of packaging types which is specific to the product being packaged, thus, customization according to the needs of the end users is expected to lead to new market avenues of growth for the global hazmat packaging market.

The global hazmat packaging market is segmented on the basis of product type, material type, application, and geography. On the basis of product type, the global hazmat packaging market is segmented into:Cans,Boxes,Cartons,Drums and Pails,Bottles.On the basis of material type, the global hazmat packaging market is segmented into:Plastics,Metal,Corrugated Paper. On the basis of application, the global hazmat packaging market is segmented into:Paints & Dyes,Industrial Chemicals,Lubricants & Oils.

On the basis of geography, the global hazmat packaging market is segmented into North America, Latin America, Middle East & Africa, Europe, and Asia Pacific. North America hazmat packaging market is expected to continue its dominance throughout the forecast period mainly attributed to well-established end user segments in the region.

On the other hand, the Asia Pacific hazmat packaging market is expected to expand at the highest CAGR due to rapid industrialization in key economies such as India and China. Middle East & Africa along with Latin America are together expected to witness growth at a sluggish pace due to slow paced development of end user industries in the key economies. Some of the key players operating in the global hazmat packaging market are The Cary Company, Uline Company, Hazmatpac, Inc., Bee Packaging, Air Sea Containers, Inc., BASCO, Inc., and LPS Industries, LLC.

Request Report Sample@ https://www.futuremarketinsights.com/reports/sample/rep-gb-6312

CHAR Technologies Acquires The ALTECH Group

The ALTECH Group of companies (“Altech”) and CHAR Technologies Ltd. (“CHAR”) are now working together!  CHAR Technologies Ltd. (TSXV:YES) has acquired The ALTECH Group in an effort to expand the offering of cleantech environmental technologies, including SulfaCHAR and CleanFyre.  The ALTECH Group provides environmental engineering solutions to industry in North America in the areas of air pollution control, industrial energy efficiency, and process water recycling.  The new combined entity provides cleantech solutions to industrial environmental engineering challenges.

CHAR currently produces SulfaCHAR®, a bio organic product, similar to activated carbon, competing on cost and performance with other air pollution control solutions.  SulfaCHAR is specially designed to remove hydrogen sulfide from renewable natural gas (ie. biogas from anaerobic digesters and landfill gas, as well as other contaminants from industrial air emissions).  CleanFyre® is an exciting new bio-coal product that is a cost effective substitute with similar energy potential to coal as a fossil fuel.  The major advantage of bio-coal is that it is Greenhouse Gas (GHG) neutral.  Companies replacing coal with CleanFyre will be eligible to earn GHG Credits in the fight for Climate Change.  This is an important product advancement in the fight to significantly reduce Greenhouse Gases.

 

The merged entity has over 30 years of experience throughout North America in delivering full-service engineering and turnkey technology installations to corporations interested in sustainable and cost effective solutions.  As the holder of a number of patents, ALTECH and CHAR have unique, cost effective solutions for effluent air and water problems.  The combined entity has the ability to design, fabricate, and install leading edge cleantech solutions, solving complex environmental problems in very cost effective ways.  As a group that is constantly innovating, this partnership of cleantech firms continues to develop and apply world class solutions that make sense from a cost savings point-of-view.

 

 

 

Contact:

 

Mr. Alex Keen:   akeen@altech-group.com

Mr. Andrew White:   andrew.white@chartechnologies.com

 

Pond Technologies announces project at Markham District Energy

Pond Technologies Holdings Inc.  (TSX.V: POND) recently announced the shipment of its proprietary Matrix System to Markham District Energy Inc. (MDE).  The shipment marks the commencement of the first phase of a $16.8 Million project to convert CO2 emissions to valuable algae-based nutraceutical products.  Pond’s Matrix System optimizes algae strain selection through the analysis of its customer’s emissions.

Pond also announced the signing of an exclusive marketing agreement with MDE who will market and develop customer projects using Pond’s solution for the District Energy market worldwide. District Energy systems are a highly efficient way to provide power, heating and cooling to buildings in communities and campuses from central plants. Bruce Ander, MDE’s President & CEO, is a past Chair of the International District Energy Association that represents over 2,200 members in 26 countries.

“We are pleased and ready to move this project forward with Pond Technologies.  The technology represents a significant opportunity for Markham District Energy to lower our environmental footprint while repurposing greenhouse gas emissions to manufacture a valuable product.  As we gain operational experience with the Pond process, we are keen to share our story with our District Energy colleagues here and abroad.” Bruce Ander, President & CEO of Markham District Energy Inc.

Steve Martin, President & CEO of Pond Technologies Inc. commented, “We are very excited to be working with Markham District Energy on this landmark project and grateful for their help in propagating our solution to other District Energy utilities located around the world.”

About Markham District Energy (MDE)
MDE, an energy company owned by the City of Markham, is committed to continuing as a leading developer of municipally owned district energy systems providing strategic foundations for Markham’s Greenprint Sustainability Plan and economic development objectives. MDE owns and operates award-winning community energy systems serving buildings in the developing urban centres of Markham Centre and Cornell Centre.

Markham District Energy is a thermal energy utility owned by the City of Markham

About Pond Technologies:
Located in Markham, Ontario, Pond Technologies Holdings Inc. (Pond) has developed a proprietary growth platform that can transform carbon dioxide (CO2) from virtually any source into valuable bio-products.  Pond works with the cement, steel, oil and gas and power generation industries to reduce greenhouse gas emissions and generate new revenue streams.

Pond’s platform technology also includes the growth of algae superfoods for the nutraceutical and food additive markets.  Pond’s system is capable of growing many species of algae, including strains that produce anti-oxidants, omega-3 fatty acids, and protein for human and animal consumption.

Algae Carbon Capture system

Successful Demonstration of Enhanced Soil Vapour Extraction

Researchers at Integrated Science & Technologies Inc. recently presented the findings from a field demonstration project that showed that enhanced soil vapour extraction significantly reduced the concentration of 1,4-Dioxane in soil.

1,4-Dioxane is often called simple dioxane because the other dioxane isomers (1,2- and 1,3-) are rarely encountered.  1,4-Dioxane is a synthetic industrial chemical that is completely miscible in water.  It is used as a solvent for a variety of applications.  1,4-Dioxane is a likely contaminant at many sites contaminated with certain chlorinated solvents (particularly 1,1,1-trichloroethane [TCA]) because of its widespread use as a stabilizer for chlorinated solvents

With respect to remediation, some 1,4-dioxane can be removed from pore water found in the vadose zone (unsaturated zone) in the subsurface by conventional soil vapor extraction (SVE), remediation is typically inefficient.  SVE extracts vapors from the soil above the water table by applying a vacuum to pull the vapors out.

SVE is inefficient at removing 1,4-dioxane from pore water in the subsurface vadose zone.  1,4-dioxane has a low Henry’s Law constant at ambient temperature.  This means that there is a low concentration of dissolved 1,4-dioxane gas proportional to its partial pressure in the gas phase.

To enhance the extraction for 1,4-dioxane in the subsurface, the researchers used heated air injection and more focused SVE extraction (XSVE).  The pilot teste was conducted at the former McClellan Air Force Base located in the North Highlands area of Sacramento County, 7 miles (11 km) northeast of Sacramento, California.

Soil Vapor Extraction unit at former McClellan Air Force Base, Calif. (U.S. Air Force Photo by Scott Johnston)

The pilot test consisted for four peripheral heated air injection wells of the XSVE system surrounded a 6.1 m x 6.1 m x 9.1 m deep treatment zone with a central vapor extraction well.

Soil temperature measurements were taken during the pilot test.  Soil temperatures reached as high as ~90°C near the injection wells after 14 months of operation and flushing of the treatment zone with ~20,000 pore volumes of injected air.  Results post treatment showed dioxane reductions of ~94% and ~45% decrease in soil moisture.  See additional information in slides at http://www.contaminantssummit.com/images/presentations/3_RobHinchee.pdf .