According to the DOE, commercial and residential buildings account for roughly 40 pct of the nation's total energy demand at a cost in excess of $380 billion per year.
While an ideal project would address a combination of issues across areas such as heating, cooling, the building envelope, water heating and ventilation, funding applications should focus on one of three topics:
Funding is issued through the DOE's Building Technology Office (BTO) which aims to find new, energy-efficient technologies while improving the efficiency of current technologies to help the department realize its goal for reducing the energy use of U.S. buildings by 30 pct by 2030.
BETO programs currently include: HVAC; water heating and appliances; solid-state lighting; building energy modeling; sensors and controls; and buildings-to-grid integration.
(Source: US DOE BETO, 14 May, 2019) Contact: US DOE BETO, www.energy.gov/eere/buildings/building-technologies-office
More Low-Carbon Energy News Energy Efficiency, DOE BETO,
Goleta, California-based Spero Renewables LLC, a Green chemistry company, is reporting a $1.6 million cooperative agreement with the US DOE Office of Energy Efficiency and Renewable Energy to develop and scale-up production of the company's patented SPERLU technology that produces polymers from wood pulp and similar plant-based sources.
The grant is part of a recently announced $80 million DOE Bioenergy Technologies Office (BETO) initiative supporting 36 bioenergy R&D projects. In addition to biobased products, projects include renewable hydrocarbon fuels and power from non-food Biomass and waste feedstocks.
Spero's SPERLU™ technology converts biomass lignin, a waste byproduct of cellulosic ethanol production that is expensive to remediate, into valuable, environmentally friendly polymers and plastics. The resulting polymers are renewable, free of off-gassing emissions, and formaldehyde-free as opposed to current polymers that come from petrochemicals and are manufactured with formaldehyde, according to the company's website.
According to the company website, "Spero Energy is a technology developer for the production of high value renewable and natural molecules from biomass. The company's novel extractive technology for the manufacture of natural ferulic acid is a game changer for the production of natural vanilla. Spero's one-step lignin conversion (SPERLU™) is key to realizing a fully integrated biorefinery." (Source: Spero Renewables LLC, Spero Website, 19 April, 2019)
Contact: Spero Renewables LLC, Mahdi Abu-Omar, Ph.D. Chemistry, Pres.,
Joe Ramelli, VP Business Dev., (805) 696-2199 x 2001, firstname.lastname@example.org, US DOE BETO, energy.gov/eere/bioenergy/bioenergy-technologies-office
More Low-Carbon Energy News DOE BETO, Spero Renewables,
Forest Concepts, a manufacturer of precision woody and herbaceous feedstocks for bioenergy and bioproduct applications, leveraged NREL's capabilities in biomass conversion modeling to help quantify the impact of their feedstock characteristics based on various particle shapes and sizes. The NREL team is part of the Consortium for Computational Physics and Chemistry (CCPC), which uses high-performance computing to support the U.S. Department of Energy Bioenergy Technologies Office (BETO).
Prior to the development of the NREL models, Forest Concepts provided feedstock pricing based on volume and size of the biomass particle. Using the NREL models, Forest Concepts can now provide information to their customers such as standardized performance, required conversion conditions, and expected yields based on the size and shape of feedstock particles.
BETO recognized early on the value of developing detailed biomass feedstock particle models to understand how the properties of each particle impact the yield and composition products from the conversion process. Moving forward, these capabilities will be leveraged by the newly established Feedstock-Conversion Interface Consortium (FCIC) whose mission is to quantify, understand, and manage variability in biomass from field through downstream conversion and to understand how biomass composition, structure, and behavior impact system performance.
FCIC is an integrated and collaborative network of eight national laboratories dedicated to addressing technical risks and understanding how biomass properties influence collection, storage, handling, preprocessing and conversion technologies with the goal of improving the overall operational reliability of integrated pioneer biorefineries. (Source: NREL, PR, 10 Dec., 2018)
Contact: NREL, Peter Ciesielski, Scientist, www.nrel.gov;
US DOE BETO, energy.gov/eere/bioenergy/bioenergy-technologies-office; Forest Concepts, James H. Dooley, CTO, (253) 333-9663, www.forestconcepts.com;
Feedstock-Conversion Interface Consortium, https://fcic.inl.gov
More Low-Carbon Energy News NREL, Forest Concepts, Bioenergy, Biofuel, Biomass, BETO ,
The project is being funded by the U.S. DOE Office of Energy Efficiency & Renewable Energy in a collaborative effort to improve the cost-competitiveness and environmental sustainability of microalgae-based fuels and products. (Source: CSU, NREL, Various Media, Oct., 2018) Contact: Colorado State University, Prof. Ken Reardon, email@example.com, www.colostate.edu; US DOE BETO, energy.gov/eere/bioenergy/bioenergy-technologies-office
More Low-Carbon Energy News Colorado State University, NREL, Algae, CO2, Biofuel,
According to Texas A&M AgriLife Research scientist and project leader Dr. Joshua Yuan, "The conversion of lignocellulosic biomass has been around for many years, but many of the waste products can not be commercialized due to the configuration of these biorefineries. What we are trying to accomplish is developing a streamlined process where the biomass waste at these refineries can be fractionated to produce lipids for biodiesel, asphalt binder modifier and quality carbon fiber. All of these bioproducts can add great value to the economy and enhance their market value."
Yuan noted that lignocellulose bioconversion refineries burn off 60 pct of the lignin produced. Utilizing this lignin offers incentives such as improving the efficiencies of a biorefinery, reducing costs and lowering emissions.
The work will include developing an integrated biorefinery program or "a blueprint for future biorefinery development," Yuan added. (Source: Texas A&M AgriLife Research, PR, Oct., 2018) Contact:
Dr. Joshua Yuan, Texas A&M AgriLife Research, Dr. Joshua Yuan, Dir. Synthetic and Systems Biology Hub, people.tamu.edu/~syuan, www.tamu.edu; US DOE Bioenergy Technologies Office, www.energy.gov/eere/bioenergy
More Low-Carbon Energy News Texas A&M, US DOE BETO, lignocellulosic , biofuel,
The project is being funded by Funded by the DOE Department of Energy Bioenergy Technologies Office (BETO) within the Office of Energy Efficiency and Renewable Energy (EERE). BETO works with industry, academia and national laboratory partners on a balanced portfolio of research in algal biofuels technologies. (Source: US DOE, LLNL. Feb., 2018) Contact: LLNL, Xavier Mayali, (925) 423-3892, firstname.lastname@example.org; Ty Samo, (925) 423-5837, email@example.com, www.llnl.gov; BETO, www.energy.gov/eere/bioenergy/bioenergy-technologies-office; US DOE EERE, http://energy.gov/eere; General Automation Lab Technologies, (917) 332-7230, www.galt-inc.com
More Low-Carbon Energy News DOE EERE, DOE BETO, General Automation Lab Technologies, Lawrence Livermore National Laboratory, Algae, Algae Biofuel, Biofuel ,
Strategies to be used by the team to meet this goal include increasing algal cultivation productivity, optimizing biomass composition, and extracting and separating different types of algal lipids to reduce the cost of upgrading them to renewable diesel.The study will be led by scientists at the National Renewable Energy Laboratory (NREL) in Golden, Colorado.
The researchers will use an algae species called Desmodesmus armatus, and will focus on fundamental processes of efficiently channeling carbon dioxide into useful fuel intermediates. The project will work to ferment carbohydrates in the algal cells into chemicals of interest, including ethanol, as well as a fuel precursor called 2,3 butanediol.
Other partners on the project will work on the algae-to-bioproduct life cycle, including modification of growing pond conditions, and separating algal solids from water to remove lipids.
The multidisciplinary team includes CSU's Ken Reardon, professor of chemical and biological engineering; Graham Peers, associate professor of biology; and Jason Quinn, assistant professor of mechanical engineering; along with partners at National Renewable Energy Laboratory, Colorado School of Mines, Arizona State University, Utah State University, and representatives from industry. San Diego-based Sapphire Energy is a project partner and has pioneered the use of D. armatus for biofuels. (Source: Colorado State University, PR, 2 Oct., 2017) Contact: Colorado State University, Prof. Ken Reardon, firstname.lastname@example.org, www.colostate.edu; US DOE BETO, energy.gov/eere/bioenergy/bioenergy-technologies-office
More Low-Carbon Energy News Colorado State University, Sapphire Energy, Algae, Algal Biofuel, BETO,
The projects will focus on: continuous handling of solid materials and feeding systems to reactors under various operating conditions; high-value products from waste in an integrated biorefinery; industrial separations within an integrated biorefinery; and analytical modeling of solid materials and reactor feeding systems.
Thermochemical Recovery International Inc, Texas A&M Agrilife Research, White Dog Labs, the National Renewable Energy Laboratory (NREL), the South Dakota School of Mines, Forest Concepts, Clemson University and Purdue University are among the funding recipients.
(Source: US DOE, BETO, Renewables Now, Others, 21 Sept., 2017) Contact: US DOE BETO, energy.gov/eere/bioenergy/bioenergy-technologies-office; USDA National Institute of Food and Agriculture, https://nifa.usda.gov
More Low-Carbon Energy News Biorefinery, DOE Bioenergy Technologies Office, BETO,
The organizations selected include:
To that end, DOE has partnered with the National Renewable Energy Laboratory (NREL) to develop a feasibility study on zero energy schools and provide specific energy usage targets to cost-effectively achieve zero energy and focused on strategies to balance energy consumption and energy supply. The pathways for managing energy consumption include optimal design of the building walls, roof, and windows, lighting systems, heating ventilation and air conditioning systems, controls, and service water heating.
(Source: US DOE, NREL, ProudGreenBuilding, Aug. 31, 2017)Contact: NREL, Dr. Martin Keller, Director, www.nrel.gov; US DOE BETO, www.energy.gov/eere/bioenergy/bioenergy-technologies-office
More Low-Carbon Energy News Net Zero Energy, NREL, US DOE, Energy Efficiency,
According to Vertimass, BETO's verification paves the way for a demonstration scale of the technology for converting sustainable ethanol into fungible gasoline, diesel, and jet fuel blend stocks and the chemical building blocks benzene, toluene, and xylene (BTX). This new Vertimass pathway can enhance use of biomass-derived renewable fuels that lower greenhouse gas emissions and allow ethanol producers to expand their product portfolio. The Vertimass systems can be added to existing ethanol producers' facilities at fractions of the cost of a new facility, according to the company. (Source: Vertimass LLC, 21 Aug., 2017) Contact: Vertimass, Charles Wyman, CEO, John Hannon, COO, (949) 417-4307, www.vertimass.com; US DOE BETO, energy.gov/eere/bioenergy/bioenergy-technologies-office
More Low-Carbon Energy News Vertimass, Biofuel, DOE BETO,
Michigan State University was selected to manage the fourth project, which will work in partnership with the University of Wisconsin-Madison and MBI International to optimize a two-stage process for deconstruction of biomass into two clean intermediate streams: sugars for the production of hydrocarbon fuels and lignins for the production of multiple value-added chemicals and as a feedstock for renewable bichemicals.
All four projects are supporting the development of biomass-to-hydrocarbon biofuels conversion pathways that can produce variable amounts of fuels and/or products based on external factors, such as market demand. Producing high-value bioproducts alongside cost-competitive biofuels has the potential to support a positive return on investment for a biorefinery through converting biomass to where it is most impactful. Producing value-added coproducts is an approach to achieving DOE's strategic goal of producing hydrocarbon fuels at $3 per gasoline gallon equivalent.
(Source: US DOE, 2 Aug., 2017) Contact: BETO, www.energy.gov/eere/bioenergy/bioenergy-technologies-office; US DOE EERE, http://energy.gov/eere
More Low-Carbon Energy News Biochemical, BETO, DOE EERE, Biochemical, Biofuel,
This years Building Energy Efficiency Frontiers & Innovation Technologies (BENEFIT) awards include novel materials exploration that will lead to more efficient insulation and windows, more accurate sensors, exploration and validation of both electric- and fuel-driven hybrid vapor compression technologies for more efficient heating, ventilation, air conditioning, and refrigeration (HVAC&R), as well as advanced control algorithms, modeling, and analytics for reducing power consumption of miscellaneous electric loads.
The HVAC&R recipients include:
Stone Mountain Technologies Inc.; University of Maryland; Arkema Inc.; Xergy; United Technologies Research Center; Oak Ridge National Laboratory (ORNL);
National Renewable Energy Laboratory (NREL); University of California, Berkeley;
Fraunhofer CSE (Boston); Stanford University, and others. (Source: DOE BETO, 3 Aug., 2017) Contact: US DOE BETO, www.energy.gov/eere/bioenergy/bioenergy-technologies-office
More Low-Carbon Energy News DOE Building Technologies Office, BETO, ,
ANL has demonstrated success using biochar from gasification of both corn stover and woody sources. Anaerobic digestion usually creates biogas that is mainly a combination of CO2 and methane, and extra steps are required to upgrade the biogas to renewable natural gas by removing the CO2 and other contaminants. Adding biochar directly to the anaerobic digester sequesters the CO2 and creates a biogas stream that is more than 90 pct methane and less than 5 ppb hydrogen sulfide, thus reducing the need for upgrading steps.
ANL is preparing to scale up the technology with Roeslein Alternative Energy, a company experienced at operating large-scale digester facilities to produce renewable natural gas ecologically and economically. The company plans to perform field demonstrations during 2017 and drive the commercialization of the technology.
The project received $1.5 million funding from the U.S. DOE Bioenergy Technologies Office (BETO) which supports the development of sustainable, cost-competitive biofuels and bioproducts from cellulosic biomass. (Source: Argonne National Laboratory, U.S. Office of Energy Efficiency & Renewable Energy, March 01, 2017)
Contact: US DOE BETO, www.energy.gov/eere/bioenergy/bioenergy-technologies-office; Roeslein Alternative Energy, Rudi Roeslein, Pres., Chris Roach, Proj. Dev., (314) 729-0055, email@example.com, www.roesleinalternativeenergy.com; Argonne National Laboratory, (630) 252-2000, www.anl.gov
More Low-Carbon Energy News Argonne National Laboratory, Roeslein Alternative Energy, Renewable Natural Gas, Methane, anaerobic digestion,
The report is the first comprehensive assessment of the resource potential and technology opportunities provided by feedstocks, including wastewater treatment-derived sludge and biosolids, animal manure, food waste, inedible fats and greases, biogas, and carbon dioxide streams. These feedstocks can be converted into renewable natural gas, diesel, and aviation fuels, or into valuable bioproducts.
Complementary to the 2016 Billion-Ton Report, this new resource assessment, conducted by NREL and PNNL, concludes that wet and gaseous organic waste streams represent a substantial and underutilized set of feedstocks for biofuels and biopower. The analysis found that the United States has the potential to use 77 million dry tons of wet waste per year, which would generate about 1,300 trillion Btu of energy. Also, gaseous feedstocks, which cannot be "dried" and therefore cannot be reported in dry tons, and other feedstocks assessed in the report could produce an additional 1,300 trillion Btu of energy -- bringing the total to nearly 2.6 quadrillion Btu annually. For perspective, in 2015, the U.S. total primary energy consumption was about 97.7 quadrillion Btu.
Access Biofuels and Bioproducts from Wet and Gaseous Waste Streams: Challenges and Opportunities HERE. Download the
2016 Billion-Ton Report HERE. (Source: US DOE Bioenergy Technologies Office, Jan., 2017)Contact: US DOE BETO, www.energy.gov/eere/bioenergy/bioenergy-technologies-office
More Low-Carbon Energy News BETO, Biorefinery, Biofuel, DOE EERE,
With $1.5 million over three years funding from the U.S. DOE Bioenergy Technologies Office (BETO) ANL has developed and "de-risked" the technology, which is now ready for scale-up.
Biochar, charcoal derived from plant material, is created in processes such as gasification and pyrolysis, which also produce energy in the form of syngas or liquid fuels. ANL has demonstrated success using biochar from gasification of both corn stover and woody sources. Anaerobic digestion usually creates biogas that is mainly a combination of carbon dioxide (CO2) and methane, and extra steps are required to upgrade the biogas to renewable natural gas by removing the CO2 and other contaminants. Adding biochar directly to the anaerobic digester sequesters the CO2 and creates a biogas stream that is more than 90 pct methane and less than 5 ppb hydrogen sulfide, thus reducing the need for upgrading steps. The biochar also improves many of the operating conditions for anaerobic digestion, and can serve as a high-quality fertilizer.
ANL and Roeslein Alternative Energy preparing to scale up the technology to produce renewable natural gas ecologically and economically. The technology could dramatically improve the economics of anaerobic digestion projects. The reduction of upgrading steps alone could make many smaller biogas projects become profitable. The technology further reduces capital and operating expenses by improving digester conditions and producing fertilizer, which would provide even greater economic benefit.
(Source: U.S. DOE Office of Energy Efficiency & Renewable Energy, 12 Jan., 2017) Contact: US DOE BETO, www.energy.gov/eere/bioenergy/bioenergy-technologies-office;
Roeslein Alternative Energy, Rudi Roeslein, Pres., Chris Roach, Proj. Dev., (314) 729-0055, firstname.lastname@example.org, www.roesleinalternativeenergy.com; Argonne National Laboratory, (630) 252-2000, www.anl.gov
More Low-Carbon Energy News Argonne National Laboratory, Roeslein Alternative Energy, BETO, anaerobic digestion , Energy, Biogas,
The consortium includes WE&RF representing many of the 16,000 wastewater systems in the USA, Genifuel Corporation with technology from DOE's Pacific Northwest National Laboratory, Merrick & Company, Southern California Gas Company, Tesoro Corporation, Metro Vancouver, MicroBio Engineering, Brown and Caldwell, and over a dozen utility partners. (Source: US DOE, WERF, Various Media, 6 Jan., 2017) Contact: WERF, (571) 384-2100, email@example.com, www.werf.org; US DOE BETO, www.energy.gov/eere/bioenergy/bioenergy-technologies-office
More Low-Carbon Energy News DOE Bioenergy Technologies Office, Biosolids, Biofuel,
The report sets the foundation for the development of BETO's multi-year program plans, annual operating plans, and technology program areas as well as identifying opportunities to adapt and align BETO activities and project portfolios with those in both the public and private sectors.
The Strategic Plan centers around four key opportunities: enhancing the bioenergy value proposition; mobilizing the nation's biomass resources; cultivating end-use markets and customers; and expanding stakeholder engagement and collaboration. The Strategic Plan outlines goals for each of these key opportunities, which will be implemented through a range of sub-strategies and measured by specified success indicators.
Strategic Plan for a Thriving and Sustainable Bioeconomy details are HERE. (Source: US DOE, BETO, PR, 29 Dec., 2016)
Contact: US DOE BETO, www.energy.gov/eere/bioenergy
More Low-Carbon Energy News Bioenergy Technologies Office ,