Webinar Program Schedule

Program schedule for both days. Speaker bios below . . .

Speakers and times may change as we approach the event.

Speakers and times may change as we approach the event.

The ultimate mitigation potential of biochar depends on many factors but is limited primarily by the efficiency of biomass conversion and the availability of biomass. With current technologies and biomass availability, estimates range between 2 and 5 Gt of CO2eq drawdown by 2050. With maximum biomass conversion efficiency and sustainable biomass quantities, the upper limit could be on the order of 20 Gt CO2eq by 2050.
— James Amonette

Presentation Descriptions and Bios

TUESDAY OCTOBER 13th

7:45 to 8 AM — Attendees Join Webinar ALL TIMES PACIFIC STANDARD TIME

8 to 8:05 — Raymond Baltar, Opening Remarks

8:05 to 8:25 — Keynote: Josiah Hunt

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Josiah Hunt, CEO, Pacific Biochar

Dark Earth for a

Bright Future
The big picture view on biochar context, uses, and how it can play an important role in Regenerative Agriculture and Carbon Farming.

I’ll offer a brief overview of what biochar is and how it’s created, and some of the characteristics that make it so useful in a range of applications.  Some historical background of the origins and occurrence in natural and anthropological settings too, then I’ll bring it all together into a current context with specific focus on the great carbon imbalance primarily responsible for climate change and the travesty of land degradation juxtaposed with a growing population.  And not to leave the audience in despair, I will highlight some hopeful signs in this nascent industry worth noting, and worth supporting.

BIO:

Josiah graduated from UH Hilo in 2004 with a BS in Agroecology and Environmental Quality. From his rural home farm on the Big Island of Hawaii he has helped to pioneer methods for biochar production, processing, and application in farming systems using organic and biological approaches since 2008.

8:25 to 8:55 — Johannes Lehmann

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Johannes Lehmann, Professor of Soil Biogeochemistry & Soil Fertility Management, Cornell University

Biochar science and implementation — climate mitigation, soil health, and environmental quality.
Biochar is a systems approach of upcycling biomass residues to address key sustainability issues. This presentation focuses on the scientific foundations of biochar as a soil amendment to develop principles for designing sustainable biochar systems.

BIO: Johannes received his graduate degrees in Soil Science at the University of Bayreuth, Germany. During the past 20 years, he has focused on nano-scale investigations of soil organic matter, the biogeochemistry of pyrogenic carbon and sequestration in soil, and sustainable land management practices in tropical agriculture, focusing on innovative recycling of carbon and nutrients including biochar systems. Dr. Lehmann is a member of the steering group of the International Soil Carbon Network, has testified in the US congress, and briefed the President’s council of advisors, authored more than 250 journal publications and was named Highly-Cited Researcher by Thomson Reuter since 2014.


8:55 to 9:15 — Brett KenCairn

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Brett KenCairn: City of Boulder, Colorado’s Senior Policy Advisory for Climate and Resilience
Carbon Neutral Cities Alliance Bioenergy — Biochar Initiative Overview:


A multi-national working group of cities including Helsinki, Stockholm, Minneapolis and Boulder are developing a bioenergy-biochar opportunity assessment and development guide that will be used as part of the Carbon Neutral Cities Alliance climate action “game changer” strategies. Over 70 cities and counties from these two networks have signed on to participate in either working groups or direct pilot projects. We believe bioenergy-biochar will be a critical tool for these cities as both global climate mitigation and local climate change resilience and environmental regeneration strategies.

BIO: Brett serves as the city of Boulder’s senior policy advisory for climate and resilience.  His primary responsibility is coordination of the city’s climate action and climate resilience strategies.  In addition to overall program coordination, Brett is the city’s lead for development of its carbon drawdown focus area.  Prior to working for the city, Brett worked across the western US in community-based sustainable development, working in both rural, Native American and other communities in transition across the western US.  He is the founder or co-founder at the Rogue River Institute for Ecology and Economy, Indigenous Community Enterprises, Veterans Green Jobs, and Community Energy Systems.


9:15 to 9:35 — Andy Mercy

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Andy Mercy, Entrepreneur, Investor, Managing Director, Tam Brands LLC ,
Biochar Land Restoration Fund
For decades, biomass energy plants dumped biochar on fields to dispose of unwanted byproduct, inadvertently creating the terra preta soils of CA, OR and WA. Some of these fields desertified when the dumping began and are now fertile productive farms. This session examines the opportunity to start a biochar land fund seeking to acquire underutilized, undervalued, dry, sandy, unfarmable land, converting to highly productive land over 5 years by adding biochar, cover crops and other regenerative practices. Our goal is to convert over 1,000,000 acres in the next 10 years, adding over 50,000,000 tons of biochar thereby sequestering approximately 125,000,000 tons of CO2 while generating exciting returns for investors.

BIO: Andy Mercy is an entrepreneur and investor who uses his mountaineering and start-up success to bring innovation and inspiration to new markets. Extended mountaineering expeditions on ice and snow honed his leadership style and passion for the environment. He founded AngelPoints in 2000, an enterprise software company that pioneered the CSR movement by powering the philanthropy and sustainability programs of the world's biggest corporations. He then opened two restaurants in San Francisco focused on locally sourced food. Today Andy is 100% focused on climate change and believes that biochar is key to finding scalable, profitable solutions. He lives in Mill Valley, CA with his wife, 3 kids, 2 dogs, 2 cats and 40,000 bees.


9:35 to 9:55 — Kelpie Wilson

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Kelpie Wilson, founding board member, USBI, Teacher and Author
A Carbon Conservation Corps to Restore Forests with Biochar.
As forests go up in smoke, we are experiencing the loss of one of our most important natural carbon sinks. This is a tragic development that we must attempt to reverse by massively increasing fuels treatment programs. However, one of the biggest challenges in utilizing forest biomass is its widely distributed nature. Gathering, handling and transporting woody debris is labor and resource intensive. Often the best solution is to treat it in place, especially if it can be converted to biochar and applied to forest soils to promote forest health and improve the carbon sequestration capacity of forests. In this presentation, Wilson will report on results from the field using technologies at different scales. She will provide economic, social and climate impact analysis of various biochar production opportunities using forestry and tree waste that she has analyzed for many clients including state and federal agencies, watershed councils, environmental groups and private companies. And she will describe the concept of a Carbon Conservation Corps (CCC) that can take on this work while providing jobs and economic development opportunities to rural areas.

BIO:

Kelpie Wilson is a writer and a mechanical engineer with a passion for wild nature and renewable energy. Throughout the 1990s, Kelpie was a forest protection advocate with the Siskiyou Regional Education Project. From 2008 to 2012 she worked for the International Biochar Initiative as a project developer and managed the multi-stakeholder process to create the first set of standards and testing guidelines for biochar. Since 2012, she has worked as an independent consultant on biochar production technologies and biochar markets for biochar companies, NGOs and government agencies. She is a founding board member of the USBI. She lives in rural Oregon, where she makes biochar compost and grows a large organic garden.


9:55 to 10:15 — Charles Hegberg

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Charles Hegberg, Vice president of Business Development for Ecotone, Inc.
Catch Rain Where It Falls – Rebuilding the Soil/Carbon Sponge to Rewater and Cool Our Communities

Based on actual work and projects, implementing a broadscale urban soil restoration program would significantly change watershed hydrodynamics by improving infiltration, water retention, pollutant removal, air/soil thermal management and carbon sequestration. This talk presents the science, processes and economics of implementing such an effort in our cities and suburban communities.

BIO: Since the inception of the Chesapeake Bay Restoration Program in 1987, Chuck has worked on numerous ecological restoration and water resources related projects spanning their life cycle from planning thru construction and monitoring. Focused on non-point source pollution targeting nutrients and runoff reduction in the Bay’s urbanized areas, Chuck began working with biochar and its potential in green infrastructure and urban soil repair. Partnered with several academic institutions, he’s worked on stormwater R&D projects using biochar as an enhanced media and/or soil amendment to improve efficiencies of existing Best Practices and urban soil restoration. Chuck is VP of Biz Dev at Ecotone Inc., an ecological restoration design/build B-Corp, and owner of Infinite Solutions, L3C and Terra Aeration, LLC.


10:15 to 10:30 — Break


10:30 to 10:50 — Dominic Woolf

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Dominic Woolf, Senior Research Associate, Cornell University
The Global Potential for Biochar to Reduce Atmospheric Greenhouse Gases.

How much is society willing to pay for carbon drawdown (the carbon price)? Are there other more cost-effective ways of reducing GHGs? How valuable is biochar’s end use in terms of offsetting production cost? And how should available biomass best be allocated between competing GHG abatement methods such as soil organic carbon, biochar, bioenergy and bioenergy, with carbon capture and storage? A range of other constraints could play out in the real world, such as political and social preferences. In this webinar, we’ll look at each of these factors to build a picture of how large biochar’s potential could be, and how the various constraints will affect decisions about where, when and how much biochar we can or should produce.

BIO: Dominic’s research aims at how best to remove atmospheric carbon dioxide., and applying analyses to inform policy decisions about the impacts and most appropriate technology choices, land use and land management, taking into account economic and environmental trade-offs and synergies, particularly between food security and climate-change mitigation. His approach to these systems includes soil carbon modeling; improved cost-effective and rigorous greenhouse gas inventories of national scale programs; techno-economic analysis of biomass conversion technologies; geospatial modeling and analysis of food-security interventions; and integrated assessment of biochar-bioenergy systems.



10:50 to 11:20 Albert Bates

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Albert Bates, Author, Teacher, Ecovillage Designer
Biochar as a Climate Change Strategy
This talk examines “negative emissions technologies,” why we need them, what stage of progress they’re at, and how and why they will soon become the global economy’s central organizing principle. Enhanced photosynthesis in combination with biochar and bio-oils emerge as the best value proposition because they can mobilize philanthropy and government incentives in the early stages and then be driven by the market because of a unique and significant advantage: biochar does not require a high peg for dollar per carbon ton. Anything that comes its way from selling carbon credits is gravy. It will be profitable because it confers advantages over competing products. This is a disruptive technology that will favor those first in with these applications.

BIO: author of Dark Side of the Ocean (2020), Making Waves (2020), Taming Plastic (2020), Burn: Igniting a New Drawdown Economy to Reverse Climate Change (2019, with Kathleen Draper), The Paris Agreement (2015), The Biochar Solution (2009), he holds degrees in political science, law and permaculture, and patents in food technology and renewable energy systems. When not tinkering with fireproof green roofs or pyrolizing cookstoves, he teaches permaculture and ecovillage design. Learn more at: http://AlbertBates.Cool.


11:20 to 11:40 Kathleen Draper

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Kathleen Draper, Board Chair, lnt’l Biochar Initiative/US Director, Ithaka Instit. for Carbon Intelligence. 

Opportunities for Drawdown: How biochar can help the construction industry pivot from emitting carbon to banking it.


Biochar has traditionally been viewed through an agricultural lens, but urban environments also generate significant biomass and can provide carbon sink opportunities too. Beyond carbon drawdown, biochar production and use can amongst other things, help cities adapt to climate change, improve organics management, provide renewable energy and improve the longevity and resiliency of urban trees. Few other negative emissions technologies that are safe, scalable and shovel-ready can provide similar long-lasting sequestration with so many additional co-benefits. A growing number of pyrolysis pilot plants have been tested around the globe, each generating different quantities and qualities of biochar. This presentation will highlight some of the current and near-term opportunities for cities to more efficiently manage organic waste streams through carbonization and how the resulting biochar and other co-products are being or could be utilized to reduce emissions and plan for a more resilient urban future.

BIO: Kathleen Draper is the owner of Finger Lakes Biochar which is focused on biochar activities in NY State and is US Director of the Ithaka Institute for Carbon Intelligence which has a global focus for biochar research, education and consulting. Kathleen is the Board Chair of the International Biochar Initiative and is Vice Chair of the U.S. Biochar Initiative.  She is a co-author of “BURN: Using Fire to Cool the Earth” as well as “Terra Preta: How the World’s Most Fertile Soil Can Help Reverse Climate Change and Reduce World Hunger”.  Most recently Kathleen and 4 co-founders launched CINTEREST, a start-up commercializing biochar based composites.


11:40 to 12:00 — John Novitsky

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John Novitsky, AQUAPRAWNICS
AquaPrawnics, Leveraging Silicon Valley Techies to Bend the Curve of Climate Change
Shrimp are the world’s most popular seafood, and the USA is the largest market for shrimp in the world. 92% are imported. Nearly all are contaminated and unsustainable, both farmed and wild caught, for different reasons. AquaPrawnics farms shrimp indoors at a yield rate over 30x more shrimp/acre/year than about 70% of the world’s outdoor shrimp farms. Better still, our shrimp are contaminant free, fresh (not frozen), and sustainable, and buyers pay a premium. Why are we presenting at a bio-char conference? We can put those indoor shrimp farms anyplace in the world where we can acquire or make inexpensive energy. Our first indoor shrimp farm is in production now in rural Montana; there we pay $0.057/kW-hr for renewable hydroelectricity. First harvest and revenue will be this year. We will then “copy exact” the equipment and process to three different types of sites:

  • We can build them standalone in an urban city, selling fresh shrimp year-round locally. Several such sites are planned for 2021.

  • We can “bolt” the shrimp farm onto the side of a pyrolysis system. Most biochar producers waste the heat through a chimney/cooling tower. We’ll capture the heat in the form of warm water, run it through a heat exchanger, and use it to heat our shrimp tanks. Better still, we combine the solid wastes from the shrimp farm with some biochar, mix in several other ingredients and produce a great organic soil amendment. 1 such site is already in planning for 2021.

  • We can co-locate our indoor shrimp farm at a farm which produces Ag waste that has no commercial value. We install a pyrolysis system there, consume their Ag waste to produce our own energy (heat and electricity), and the bio-char. The bio-char is used both as a cattle feed supplement, and as an ingredient with the shrimp wastes in an organic soil amendment - which is sold back to the farm. 4 such sites are currently being planned, starting in 2021.

This “circular economy” at a farm eliminates air pollution, dramatically reduces water pollution, reduces crop irrigation water by some 20%, has significant benefits to the dairyman/cattle rancher, including significantly reduced costs- so the farmer makes more money without the need for gov’t subsidy. The environmental benefits happen “for free”. We invite interested investors or partners to contact us at www.aquaprawnics.com



12:00 to 12:20 — James Archuleta

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Jim Archuleta, Regional Biomass and Wood Innovation Coordinator (OR & WA), USFS (Co-Authors: Debbie Page Dumroese, and Carlos Rodriguez-Franco)
Toward Sustainable Forest, Farm and Urban Management: Biochar’s place within Landscape reallocation of Organic Matter
Environmental conditions in U.S. western states have significantly increased the risk of catastrophic wildfire, putting property and lives in danger and prompting an urgent need for forest restoration treatments, including fuel reduction and salvage logging of dead trees across these affected areas. One solution, in addition to use small diameter trees for Cross Laminated Timber, could be using biomass residues from thinning application for biochar. Biochar production on site with portable pyrolysis equipment can lower transportation costs of moving un-merchantable woody material to a pyrolysis unit.

BIO: Starting with the USFS in 1995, he got a degree in Crop & Soil Science (1997). Working first in the moist western Oregon forests, then on to the dry eastern Oregon forests, Archuleta’s experiences varied from project planning, forest restoration projects, wildfire suppression and fire restoration projects. This collective work helped Archuleta win the Forest Service 2011 Field Soil Scientist Award. Since 2018, he has been the Regional Biomass and Wood Innovation Coordinator (OR & WA). Currently managing reimbursable grants within Oregon and Washington. Grant project areas are Mass Timber (Cross Laminated Timber materials in construction), Wood Energy and Biochar.


12:20 to 12:40 — Debbie Dumroese/Carlos Rodriguez-Franco, USFS

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Debbie Page Dumroese, USFS Research Soil Scientist 

(Co-Authors: Carlos Rodriguez-Franco, and Jim Archuleta).

Using Biochar for Abandoned Mine Lands


For the Forest Service the use of biochar for AML restoration is an opportunity to work with the industry to produce biochar, bioenergy, and wood chips from slash piles of small-diameter trees, branches, shrubs, and twigs created when forests are thinned to reduce excess fuel and lower fire danger.

 

Biochar application on AML’s has been studied as a tool for reclamation and soil and water remediation for more than 20 years in the U.S. Biochar application to mine-land materials has also been shown to increase ecological and hydrological function, vegetative yield and cover, and reduced the bioavailability of heavy metals, produced by a positive change in soil conditions and improved plant growth. Biochar has an important role in absorbing, sequestering, precipitating, and ultimately reducing bioavailable metals in contaminated solutions, soils, and mine-lands. This presentation will address the Forest Service experiences on this topic.

BIO:

Debbie has worked with National Forest System for the past 30 years working on the North American Long-Term Soil Productivity study.  This study is one of the most successful and extensive collaborative science efforts undertaken by the Forest Service.  She also developed a soil monitoring protocol which has been adopted across the U.S.  She specializes in understanding how management activities alter soil physical, chemical, and biological properties to support the development of best management practices that maintain long-term soil quality and forest and range health.  Current projects include use non-merchantable wood to create biochar for use in carbon sequestration and to improve soil health.

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CO-PRESENTER Carlos Rodríguez- Franco, PhD, Forest Sciences, Yale University


BIO
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Carlos worked for the National Institute of Forestry, Agriculture and Animal Husbandry Research (INIFAP) for 25 years. He was the former Forestry Research General Director at INIFAP from 1996 to 2000. Currently, he works with the US Forest Service, where he is a Senior Forester. He is the former Deputy Chief for Research and Development (2016 – 2018). 

He has covered several positions as the Associate Deputy Chief for FS R&D. Previously he was the Director for Forest Management Sciences staff from 2007 to 2013. 

He has written 90 scientific articles on subjects related to forest inventories, silviculture, forest management, plant production techniques, forest plantations, and agroforestry systems published in Mexico and the USA. Carlos authored a book in Spanish titled “Sampling designs applied to forest inventories”. Some of his contributions were his participation in the “Forestry Compendium” published by CAB International in the United Kingdom; the book “Pines of silvicultural importance” published by CAB International in 2002, and a chapter in the book “Urban air pollution and Forests: Resources at risk in the Mexico City Air Basin” published by Springer Verlag.


12:40 to 12:45 — Raymond Baltar Closing Remarks


12:45 to 1 — Short Lunch Break


1:00 to 2:00 PM —One Breakout Session

Breakout Session: Biochar From the Grower’s Perspective: Dr. Amit Dhingra, WSU Dept. of Horticulture; Dr. Doug Beck, Soil Scientist with Monterey Pacific Vineyard Management; Cuauhtemoc Villa, Cannabis Farmer and Teacher, Specialist in the integrations of indigenous and modern farming techniques.

WEDNESDAY OCTOBER 14th

7:45 to 8 AM — Attendees Join Webinar

8 to 8:05 — Raymond Baltar, Opening Remarks

8:05 to 8:35 — Keynote: Jim Amonette

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James E. Amonette, Soil Scientist, Pacific Northwest National Laboratory and Washington State University, Richland, WA.

Major Funding Priorities Identified by the Biomass to Biochar: Maximizing the Carbon Value Workshop


In April 2020, the Biomass to Biochar: Maximizing the Carbon Value virtual workshop brought together three dozen practitioners, engineers, and scientists from the biomass and biochar industries in the western U.S. to assess the current state of the industry, identify barriers to its growth as a sustainable carbon-drawdown technology, and recommend breakthrough-level funding strategies to address those barriers.  We organized the discussions into five working groups, each of which focused on a particular sector of the industry [i.e., biochar production from woody feedstocks at 1) small, 2) moderate, and 3) large scales; 4) production from woody feedstocks isolated from municipal solid waste and use of the biochar in municipal composting operations; and 5) production from agricultural feedstocks and amendment to agronomic soils].  The top funding priorities from each of these sectors will be presented in a separate panel discussion immediately following this presentation.  We expect to release a full report of the workshop on the publications website of Washington State University’s Center for Sustaining Agriculture and Natural Resources (http://csanr.wsu.edu/publications-library/ ) by the end of December 2020.

In this presentation, I will summarize the major funding priorities identified by the workshop participants and focus specifically on two of them.  First, a long-term coordinated program of research is needed to help resolve the remaining scientific and engineering knowledge gaps with respect to biochar production, use, and climate impact.  Transfer of this knowledge to practice, however, will require equally important efforts to 2) conduct near-term, market-focused research on issues related to regional implementation and expansion of biochar markets, 3) strengthen the infrastructure to support business by providing financial tools and incentives, a trained workforce, and an engaged customer base, and 4) collaboratively develop environmental regulations and ecosystem-service-pricing policies aligned with biochar technology.  Success in all four of these priority areas will require engagement with the public, both to educate them with respect to the many benefits of biochar technology and to listen to their suggestions and concerns. 

The two funding priorities I will explore in detail are 1) the long-term coordinated program of research, and 2) the formation of an Endowment for Biochar-Based Community Development to facilitate market-focused research and foster growth of local business enterprises.

BIO:

Jim Amonette holds a joint appointment with the US Department of Energy’s Pacific Northwest National Laboratory and Washington State University’s Center for Sustaining Agriculture and Natural Resources.  Dr. Amonette has more than forty years’ experience in research related to soil chemistry, and more than twenty years’ experience focusing on carbon sequestration by soil systems.  The last 15 years he has devoted a major part of his work to biochar, and in particular, to assessing the potential impact that biochar can have in drawing down carbon from the atmosphere.  He led the team that developed and published a highly cited global-scale study on the topic in Nature Communications (Woolf et al., 2010) and more recently has modified that algorithm to make similar calculations at smaller scales, down to the county level.  He also co-led the team that developed and hosted the Biomass to Biochar: Maximizing the Carbon Value virtual workshop in April 2020.  In addition to co-editing the report for that workshop, he currently is finishing up a three-year project estimating the impact that adoption of biochar and bioenergy over the course of a century can have on carbon drawdown by each county in the state of Washington.


8:35 to 8:45 — Gloria Flora

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Gloria Flora, Director, Sustainable Obtainable Solutions


Environmentally Friendly, Ecosystem-Informed Biochar Kiln Design for Sustainable Practices
A funding proposal to support the design, testing and refinement of a variety of biochar kilns and their emissions for different landscapes - forests (by habitat types and topography) and agriculture settings, feedstocks and conditions to minimize environmental impacts. Ensuring fast, efficient, user-friendly kilns featuring high production with low-emissions, sustainable outcomes and compatibility with the landscape in which it’s being used.

ALSO

10:20-10:40

Building a Sustainable Biochar Industry


This presentation offers insight into the cradle-to-cradle guiding principles and baseline practices of biochar production and use to ensure sustainability. This talk will give a 360-degree view of the gamut of considerations to ensure sustainability: politically, socio-economically and ecologically.

BIO:

Gloria directs Sustainable Obtainable Solutions (SOS), a non-profit ensuring the sustainability of public lands which she founded after 23 years in the US Forest Service leadership. She’s an expert consultant and speaker on environmental issues, large landscape conservation strategies, climate change action, collaboration, biochar, and permaculture.  Gloria founded and directed the U.S. Biochar Initiative (USBI) (2009-2016). Gloria and her husband are growing TerraFlora Sylvanculture Learning Center focused on permaculture in forested environments. Flora’s won many awards for environmental leadership and action, including having a new species of a Tanzanian toad named after her.


8:45 to 8:55 — Jim Dooley

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Jim Dooley,

co-founder and CTO, Forest Concepts, LLC
Maximizing the Net Carbon Content of Biochar at Distributed and Community-Scale Production Sites
Moderate scale biochar production at distributed locations necessarily involves equipment from multiple firms that are rarely co-located or integrated as a system. Biochar production across all scales has not be optimized to maximize stable carbon yield nor to minimize carbon footprint. As a result, cost are much higher than desired and the opportunity to price carbon benefits is low. This proposal takes a systems engineering approach to define how equipment may be integrated across manufactures and share inputs and outputs such as water, heat, liquid condensables and gases. When completed, it may be possible to produce biochar from woody biomass with zero fossil fuels, zero imported water, and a high stable carbon content.

BIO: C

o-founder and CTO of Forest Concepts, LLC in Auburn WA, Jim built his 45-year career in industry by combining a deep understanding of plant biology with disciplined engineering design and social sciences to create innovative products, processes and equipment.  Jim holds agricultural engineering degrees from Cal Poly, SLO and UC Davis, and a PhD is in forest resources and forest engineering from the University of WA. He is a Fellow of three scientific and technical societies – American Society of Agricultural Engineers (ASABE), the Institute of Biological Engineering (IBE), and the American Institute for Medical and Biological Engineering (AIMBE). He was President of IBE in 2000 and ASABE in 2008. Commercial products resulting from his development programs have won recognition from ASABE, the International Erosion Control Association, USDA-NIFA, the USFS and the Renewing the Countryside Foundation. 


8:55 to 9:05 — Tom Miles

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Thomas R. Miles, Executive Director, United States Biochar Initiative


Networking, Education, and Demonstration Through Biochar Organizations

In 2019 “biochar” was the topic of more than 3200 scientific publications and 120 patents. Biochar production worldwide is made in smallholder farms and villages, at small, medium, and large scale  industrial facilities. There are an estimated 155 biochar producers and suppliers in North America. In 2019 more than 500,000 tons of biochar-based fertilizers were produced in 62 plants in China. Biochar research, development, demonstration, product and market development  is carried out by academia and industry in collaboration with several region, national, and  international organizations. This presentation will describe the main organizations, their purpose and functions, needs, and plans.

BIO:

Tom Miles is the president of T.R. Miles, Technical Consultants, Portland, Oregon, a biomass energy consulting firm, which designs, develops, installs, and commissions systems for processing wood, agricultural, and urban residues. His knowledge of ash transformations led to recycling nutrients using pyrolysis of residues to biochar. He has sponsored and hosted online discussions of biomass energy since 1994 and biochar since 2006. He is past chairman of the International Biochar Initiative and Executive Director of the US Biochar Initiative. 


9:05 to 9:15 — Mark Fuchs

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Mark Fuchs: WA Department of Ecology (retired)
Integrating the biochar and compost industries: Carbon drawdown for profit.


Biochar acts like activated carbon capturing odors and GHG’s emissions.  While we limit GHG emissions from biochar production, we can add biochar to compost stabilizing the carbon and capturing nutrients while sequestering carbon to soils.

BIO:  Mark is recently retired but was formerly employed for many years at the WA Dept. of Ecology.  While at Ecology he lead projects beginning in 2003 with Washington State University and the Center for Sustaining Agriculture and Natural Resources to make use of the massive amount of organic resources from municipal solid waste.  These can be put to beneficial use in anaerobic digestion and fermentation of the food and green wastes for creating fuels and power, and thermal processing of the wood and straw biomass to create power and biochar.  The outcomes of these processes can greatly benefit soil productivity and sequester carbon.


9:15 to 9:25 — Kristin Trippe, PhD

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Kristin Trippe, USBI Board Member
Developing a Nationwide Framework for Evaluating and Predicting Agronomic Responses to Biochar-Based Amendments.


In order for biochar-based practices to be widely adopted it is paramount that farmers have the ability to predict, with reasonable accuracy, the agronomic responses to biochar applications.  Althoughbiochar-based amendments have received widespread attention in both the academic and the popular press, significant knowledge gaps regarding the influence of biochar on soil function and crop yield, remain. As such, almost no generalizable recommendations regarding amendment rates, techniques, or expected agronomic outcomes have emerged.  The lack of recommendations coupled with significant agronomic unknown are significant barriers to widespread adoption of biochar-based practices in agriculture. The Biomass 2 Biochar working group has proposed a strategy to overcome these barriers to spur biochar markets and to sustainably intensify agricultural production. This strategy involves the development of a nationwide biochar research network that explores prescriptive biochar-based approaches to agronomic challenges and that uses data to develop robust biochar-cropping systems models that are capable of predicting agronomic outcomes of biochar applications. Collectively, these actions will provide the foundation to develop the generalized recommendations regarding the production and application of biochar amendments. 

 

BIO: As an undergraduate, Kristin Trippe became interested in microbes, molecules, and methods that remediate degraded soils and increase agricultural productivity. She pursued this interest in graduate school where she studied the role of fungi in remediating organic pollutants in the environment. After she received her PhD, Dr. Trippe joined the Agricultural Research Service, an agency within the US Department of Agriculture in Corvallis, Oregon. There, her laboratory studies focus on the effects of biochar on soil health and microbial community dynamics. Her laboratory developed the Pacific Northwest Biochar Atlas, an online decision support toolkit that connects producers and users of biochar-based amendments. Her laboratory has also examined the role of biochar in rangeland restoration, mine reclamation, forest-to-farm biochar systems, soil water dynamics, and increasing agricultural yields, as well as a broad spectrum of studies focused on natural products and microbial biochemistry. Dr. Trippe has served on the Board of Directors of USBI since 2018, She is also the Chair of the Soil Biology and Biochemistry Division of the Soil Science Society of America.


9:25 to 9:45 — Andre Van Zyl

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Andre van Zyl, CarbonCor

BioChar Rich Environmentally Friendly Pavements & Construction – Let’s go Carbon Negative Together

Hundreds of thousands of kilometers of roads are built or rebuilt around the planet every year. For the past six years, road building company CarbonCor, has been piloting the use of different types of biochar in roads built in India, southeast Asia, and most recently in Australia. They have developed road building materials that can sink up to 30 tons of biochar into 1 kilometer of road. At these rates, asphalt could potentially be a larger market for biochar than soils! At 10% addition of biochar to a 200mm thick stabilized road base and a 30mm thick wearing course, we can sink 300 tons into each 1 Km of road: 270 tons in the road base and 30 tons in the wearing course. Beyond safely storing carbon for the foreseeable future, roads built using biochar are stronger, cheaper and can be built faster. This presentation will outline the environmental and economic benefits of using biochar inn CarbonCor’s environmentally friendly cold asphalt premix. CarbonCor’s Andre van Zyl has been building roads for decades; he will discuss the use of biochar to stabilize soils for roads as well as in the asphalt itself.

BIO: Mr. Van Zyl graduated in 1986 as a Chemical Engineer from the “VAAL UNIVERSITY OF TECHNOLOGY” in South Africa. He has substantial experience in process plant design and commissioning for the steel, water treatment, mineral processing and mining industry in Africa, Asia and South America. For the past 15 years he has focused substantially and has acquired specialized knowledge and skills in pavement and construction technology, especially in the development, manufacturing and application of environmentally friendly emulsified bitumen cold premix materials for new urban and remote infrastructure development areas. During the last 4 years, he has been instrumental in the further development and re-design of carbon rich binder technologies to suite specific climatic, geotechnical and soil conditions as commercially viable and carbon neutral/negative construction products in the ASEAN region, utilizing large quantities of BioChar and other products obtained from torrefaction and pyrolysis processes.


9:45 to 10:05 — Steve McCorkle

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Steve McCorkle, CEO  Agricultural Waste Solutions, Inc. 

Scaling Production of Carbon Negative Biochar and Jet Fuel.

The Agricultural and Aviation sectors of the economy are the two most significant contributors to climate change without a viable technology solution to reach Net Zero goals without removing significant amounts of additional CO2 from the atmosphere. Agriculture contributes about 10% of global CO2 e emissions, and Aviation has the highest carbon footprint per passenger mile of any form of travel. Premium Biochar is the profitable enabler to achieve Net Zero CO2 e emissions for both sectors within 10 years. 

Carbon levels in agricultural soils was between 3-7% before the Industrial Revolution but  is currently <1%. Premium Biochar from manure and ag wastes is rich in both carbon and nutrients. If Premium Biochar is used to raise the carbon levels of our soils from 1% to 3%, the improved CO2 sequestration capacity of the soils and the resulting increase in arable land acreage could reverse all of the effects of manmade climate change since the industrial revolution within 10 years. Resulting improvements in nutrient value, water retention and soil organic matter produce higher crop yields with higher and healthier nutrient content, and healthier crops sorb more CO2 e.  

The AWS process converts manure and CO2 e waste feedstocks into Premium Biochar and Sustainable Aviation Fuel, the cleanest burning truly carbon negative jet fuel on the planet. The AWS bio-refineries operate directly at the source of the feedstock in a closed loop, Zero-Waste, emission-free process permitted to operate in the most stringent air districts.  A Profitable, Sustainable, High Impact Climate Solution.

BIO:

Steve McCorkle is founder and CEO of Ag Waste Solutions (AWS) and is the developer of AWS’ unique carbon regeneration solution and business model. Mr. McCorkle has over 35 years of successful international leadership experience, with a large part of that experience earned while managing energy and technology businesses for Schlumberger Limited - the world's leading supplier of technology, integrated project management, and information solutions to the oil and gas industry. Mr. McCorkle also served as Executive Vice President and COO of InterGlobal Waste Management, Inc., a firm serving the animal agricultural industry. He served as Board Chair of the Animal & Poultry Waste Management Center (APWMC) at North Carolina State University, where an agreement between North Carolina, Smithfield Foods and Premium Standard Farms funded development of environmentally superior waste management technologies for North Carolina animal farms. This is where he developed and patented the AWS technology and process solution. He decided to implement the AWS solution in Southern California first because the region is the most stringent regulatory environment in the world. 

Mr. McCorkle and his wife live in Thousand Oaks, California. He holds a Bachelor of Science in Electrical Engineering from North Carolina State University and an Executive Masters of Business Administration from the University of Houston. 


10:05 to 10:20 — BREAK

10:20 to 10:40 — Gloria Flora

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Gloria Flora, Director, Sustainable Obtainable Solutions
Environmentally Friendly, Ecosystem-Informed Biochar Kiln Design for Sustainable Practices
This presentation offers insight into the cradle-to-cradle guiding principles and baseline practices of biochar production and use to ensure sustainability. This talk will give a 360-degree view of the gamut of considerations to ensure sustainability: politically, socio-economically and ecologically.

BIO: See 8:35-8:45 Wed, above.



10:40 to 11:00 — Jonah Levine

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Jonah Levine, Owner Biochar Solutions LTD

Biochar filtration- A market Mechanism to Drive Carbon Down and Water Quality Up

This presentation will share two stories – Biochar water quality in Mexico & Biochar water quality in the Philippines

Biochar water quality in Mexico addresses – Arsenic and Fluoride related challenges

Biochar water quality in Philippines addresses – COD and BOD related challenges

In each case biochar is used to enhance economy and ecology in communities. 

Technical and economic data will be presented. The human upshot of the work will be shared.

 

Both cases have the opportunity for expansion with local organizations.

This work can expand beyond the communities currently engaged. 

BIO:

Jonah holds degrees in Applied Ecology (BS) and Utility Engineering (MS). He has worked for the last 12 years growing the biochar industry working on biochar equipment and materials applications. Jonah works inside the sustainable, diversified wood products business across North America and Biochar projects across the globe. 


11:00 to 11:20 — Simon Manley

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Simon Manley, CEO

Unlocking Carbon Finance for Biochar Projects Around the World.

Adoption of biochar production systems by the global private sector is a key factor in enabling biochar to make a significant difference in the fight against climate change. 

 

The quickest way to achieve this is to establish biochar as a carbon asset with one or some of the internationally recognised and trusted accreditation standards - the Verified Carbon Standard and Gold Standard are the best places to start. 

 

Once in place, we'll see carbon finance flow into the biochar sector which will fund widespread project development, technology innovation, risk diversification and most crucially - scale. The tipping point for biochar.

 

Achieving this objective is tantalisingly close:

 - Climate science has demonstrated the need for carbon removal technologies

 - Biochar is now recognised as a negative emissions technology

 - Robust and credible methodologies have emerged 

 - Multiple, large scale corporates have embarked on Net Zero journeys that require viable and verifiable, nature-based carbon sinks

 

Biochar Works has secured the support of key corporate partners, the target standards, project and methodology developers. With the right financial support we could be just 12 months away from achieving our goal - an approved methodology for biochar project developers all round the world.

BIO:

Simon, former CEO of Carbon Gold, is a senior consultant in the biochar sector with over ten years experience working in all aspects of biochar production, products, projects and services. He has extensive international experience implementing biochar supply chain projects in West Africa, Latin America, Europe and the Middle East. Simon is a leading proponent of biochar as a negative emissions technology and working with international bodies to establish its role as a verifiable carbon asset.


11:20 to 11:40 — Brennan Pecha

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Brennan Pecha,  Staff Scientist, National Renewable Energy Laboratory’s Renewable Resources & Enabling Sciences Center.

High temperature conversion of wood and waste to fuels at the National Renewable Energy Laboratory

 

Thermochemical conversion has been a primary focus of research for scientists and engineers at the National Renewable Energy Laboratory (NREL) for nearly 40 years in Golden, CO. The same technology that produces highly consistent charcoal also makes a significant amount of oily vapor that can be collected and chemically upgraded. Fast pyrolysis has been demonstrated to produce renewable fuels from wood and agricultural waste. Recently, our team has established that it is feasible to produce gasoline equivalent fuel at $3.33/gal using PtTiO2 as a vapor phase catalyst at the end of the hot pyrolysis reactor. The technology complements the biochar industry by making good use of all the products of pyrolysis. NREL advances the science and engineering of energy efficiency, sustainable transportation, and renewable power technologies and provides the knowledge to integrate and optimize energy systems. We have a variety of unique programs and talented researchers and are always open to discussing partnerships with industry and investors to develop solutions for today’s and tomorrow’s problems.

BIO:

Dr. Brennan Pecha is a staff scientist at the National Renewable Energy Laboratory’s Renewable Resources and Enabling Sciences Center where he specializes in simulating conversion of woody feedstocks into fuels and chemicals through the pyrolysis technology and vapor phase catalysis. Before arriving at NREL in Golden, CO in 2017, he earned his PhD at Washington State University in Pullman, WA under the mentorship of Manuel Garcia-Perez where he made tiny pyrolysis reactors and lots of data. His primary research focus is on the development of technologies that enhance the circular lifespan of materials and chemicals.


11:40 to 12:00 — Josiah Hunt

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Josiah Hunt, CEO Pacific Biochar
1) Leveraging Existing Infrastructure in California to Sustainably Produce 250,000 Tons of Biochar Per Year Within 5 Years.

2) Biochar production with modified boilers - low hanging fruit and the expansion potential in western region.

Today in California, and most every day, another 200 tons of biochar will be burned for fuel instead harvested and applied to soil.  The math is simple: when, at appropriate scale, the biochar is worth more in the soil than it is in the furnace, change can happen quickly.  The modifications are relatively simple, applicable to dozens of facilities across the western region, with working models in production today.  The capital expenditure and time to market are minimal in comparison to “from-scratch” projects.  In helping to address catastrophic and canopy level forest fires in the western region, USFS and other forest management organizations are up their ears in woody biomass waste, and searching for immediate and large scale options for utilization.  There are opportunities for new capital and new expertise to help in dramatically scaling this model from its current level of a few thousand tons per year, to a few hundred thousand tons per year.  This low hanging fruit represents an important piece of the larger puzzle, a relatively quick way to get lots of biochar produced and applied by repurposing old machinery, a compliment to other efforts to deploy new machinery.  What is needed to make this happen?

BIO: See above, 8:05a Tues


12:00 to 12:20 — Tom Miles

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Tom Miles, Executive Director, United States Biochar Initiative

Building Capacity in Biochar Advocacy and Educational Organizations. IBI, USBI, CBA, SBI, FLB, Etc.

Biochar advocacy and educational organizations such as the International Biochar Initiative, the United States Biochar Initiative and the Sonoma Biochar Initiative have played an important role in advancing the biochar story at the local, national, and international level. Mr. Miles will offer a review of what these organizations have and are doing, with an appeal to support capacity building in these organizations that will allow them to expand existing programs and implement new, important initiatives.

BIO: See Wed 8:05 keynote above


12:20 to 12:30 — Raymond Baltar Final Remarks