Renewable Chemical Platforms Building the Biobased Economy SAVE the DATE
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“Accelerating Innovation and Market Uptake of Biobased Products” Biobased for Growth a PUBLIC-PRIVATE PARTNERSHIP on BIOBASED INDUSTRIES Table of Content
“Accelerating innovation and market uptake of biobased products” Biobased for Growth A PUBLIC-PRIVATE PARTNERSHIP ON BIOBASED INDUSTRIES Table of content 1 Introduction 6 1.1 PPP initiative backed by a committed consortium 6 1.2 Strategic objectives 7 2 Answering Europe’s biobased challenges 9 3 Strong added value of acting at EU level 10 4 Economic analysis – current state of play and analysis of economic impact 11 5 Broader socio-economic impact analysis 13 6 Priority research & innovation areas 15 6.1 Fostering a sustainable biomass supply 16 6.2 Biorefi neries: Optimising effi cient processing 18 6.3 Developing markets, products and policies 21 7 An organisation is built that fi ts the challenges 23 7.1 Introduction 23 7.2 The biobased PPP Institute 24 7.3 Position in the fi eld 27 Annex 1 An Overview of founding partners companies 29 Annex 2 Research and technological challenges 31 Annex 3 Biomass supply – overview of today’s practice 36 Annex 4 Lead Market Initiative - priority recommendations 39 Annex 5 Policy Feedback mechanism 41 DRAFT Executive summary Our vision is that of a competitive, innovative and sustainable Europe: leading the transi- tion towards a post-petroleum society while decoupling economic growth from resource depletion and environmental impact. We envisage a biobased economy founded on locally sourced and produced plant and waste-derived materials, chemicals, fuels, food and feed. At the heart of this vision are biorefi neries which will gradually replace oil refi neries by using renewable resources in place of fossil fuels. In doing so, biorefi neries will play an important part in spurring growth and drive the effort to reindustrialise Europe. -
Research for a Biobased Economy Success Stories and Challenges Facing the German Bioeconomy
Research for a biobased economy Success stories and challenges facing the German bioeconomy 1 Contents Preface 2 Bioeconomy – Foundation for a sustainable economy 4 How can the economy and ecology be reconciled? ...................................................................................................... 4 The bioeconomy as a driver of innovation ...................................................................................................................... 5 The policy and research context of the bioeconomy 8 Clear visions for a cross-departmental strategy ............................................................................................................ 8 Further development of the research agenda in the bioeconomy ...........................................................................10 Innovations for a biobased economy 12 Field of action: Securing global nutrition ......................................................................................................................15 Field of action: Ensuring sustainable agricultural production ..................................................................................18 Field of action: Producing healthy and safe foods ......................................................................................................21 Field of action: Using renewable resources for industry ............................................................................................23 Field of action: Developing biomass-based energy carriers ......................................................................................27 -
Assessment of the Properties of Poly (Lactic Acid) Sheets with Different Amounts of Post-Consumer Recycled Poly (Lactic Acid)
ASSESSMENT OF THE PROPERTIES OF POLY (LACTIC ACID) SHEETS WITH DIFFERENT AMOUNTS OF POST-CONSUMER RECYCLED POLY (LACTIC ACID) By Chaiyatas Chariyachotilert A THESIS Submitted to Michigan State University in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE Packaging 2011 ABSTRACT ASSESSMENT OF THE PROPERTIES OF POLY (LACTIC ACID) SHEETS WITH DIFFERENT AMOUNTS OF POST-CONSUMER RECYCLED POLY (LACTIC ACID) By Chaiyatas Chariyachotilert The main objective of this research was to evaluate the properties of sheet containing mechanically recycled post-consumer polylactic acid (PLA) bottle flakes blended with virgin PLA resin. PLA bottles were flaked, cleaned, blended with virgin resin and then extruded and thermoformed into trays. The molecular weight, physical, optical, thermal and mechanical properties of sheet containing 0, 20, 40, 60, 80 and 100 wt.-% recycled content were evaluated. Cleaning conditions were evaluated using response surface methodology, and conditions of 15 min, 85 °C, 1 wt.-% NaOH, and 0.3 wt.-% surfactant were adopted for cleaning the PLA flake. Virgin PLA sheet possessed superior properties to recycled sheet with statistically significant differences at α=0.05. PLA sheets were darker and absorbed more UV light in the 260 to 285 nm range when 20% or more recycled content was added. At 40% recycled content, the sheet had increased blue and red tones and the mechanical properties in the cross-machine direction decreased. At 60% recycled content or above, reduction of weight average molecular weight (Mw), tensile strength and tensile strength at yield in the machine direction (MD) were found. At 80% recycled content, the melting temperature and modulus of elasticity in the MD decreased. -
Why Biobased?
WHY BIOBASED? Opportunities in the Emerging Bioeconomy Jay S. Golden and Robert B. Handfield July 25, 2014 Submitted to: U. S. Department of Agriculture, Office of Procurement and Property Management BioPreferred Program® 361 Reporter’s Building 300 7th St. SW Washington, DC 20024 EXECUTIVE SUMMARY This report explores the opportunities associated with the biobased economy (excluding fuel, food and feed). Much of the work relies upon prior literature. Some of the key findings include: Government policies and industry Business While there is wealth of data and to Business sustainability programs are information regarding the economic driving the biobased economy. impact of the bioeconomy in Europe and various nations, there is a lack of Across the globe, nations are investing in understanding and quantification of the Public/Private Partnerships to expand economic benefits of the bioeconomy and their biobased economy for domestic and specifically the non-fuel bioeconomy in the international consumers. U.S. In the U.S., the United States Department There are challenges facing the continued of Agriculture (USDA) BioPreferred expansion of the bioeconomy. These program and Federally-supported research include reliable availability of raw materials continue to drive investment in research with increased climate and severe weather and development (R&D) and make impacts, water availability, and stability of available broader sets of biobased the markets. consumer products. The biobased economy is, in fact, growing, and it offers great potential for increased job creation in numerous sectors across the U.S. Continued investments are needed to An economic impact model is required to establish a biobased infrastructure while study the potential impacts of the ensuring that the economics of biobased bioeconomy and policies that can feedstocks are competitive with existing, encourage investment. -
Trade Names and Manufacturers
Appendix I Trade names and manufacturers In this appendix, some trade names of various polymeric materials are listed. The list is intended to cover the better known names but it is by no means exhaustive. It should be noted that the names given may or may not be registered. Trade name Polymer Manufacturer Abson ABS polymers B.F. Goodrich Chemical Co. Acrilan Polyacrylonitrile Chemstrand Corp. Acrylite Poly(methyl methacrylate) American Cyanamid Co. Adiprene Polyurethanes E.I. du Pont de Nemours & Co. Afcoryl ABS polymers Pechiney-Saint-Gobain Alathon Polyethylene E.I. du Pont de Nemours & Co. Alkathene Polyethylene Imperial Chemical Industries Ltd. Alloprene Chlorinated natural rubber Imperial Chemical Industries Ltd. Ameripol cis-1 ,4-Polyisoprene B.F. Goodrich Chemical Co. Araldite Epoxy resins Ciba (A.R.L.) Ltd. Arnel Cellulose triacetate Celanese Corp. Arnite Poly(ethylene terephthalate) Algemene Kunstzijde Unie N.Y. Baypren Polychloroprene Farbenfabriken Bayer AG Beetle Urea-formaldehyde resins British Industrial Plastics Ltd. Ben vic Poly(vinyl chloride) Solvay & Cie S.A. Bexphane Polypropylene Bakelite Xylonite Ltd. Butacite Poly( vinyl butyral) E.I. du Pont de Nemours & Co. Butakon Butadiene copolymers Imperial Chemical Industries Ltd. Butaprene Styrene-butadiene copolymers Firestone Tire and Rubber Co. Butvar Poly(vinyl butyral) Shawinigan Resins Corp. Cap ran Nylon 6 Allied Chemical Corp. Carbowax Poly(ethylene oxide) Union Carbide Corp. Cariflex I cis-1 ,4-Polyisoprene Shell Chemical Co. Ltd. Carina Poly(vinyl chloride) Shell Chemical Co. Ltd. TRADE NAMES AND MANUFACTURERS 457 Trade name Polymer Manufacturer Carin ex Polystyrene Shell Chemical Co. Ltd. Celcon Formaldehyde copolymer Celanese Plastics Co. Cellosize Hydroxyethylcellulose Union Carbide Corp. -
Polythf Elastomers from BASF
Intermediates Expand your success on elastomers: PolyTHF BASF – We create chemistry BASF is the world’s leading chemical company. Its portfolio ranges from chemicals, plastics, performance products and crop protection products to oil and gas. We combine economic success, social responsibility and environmental protection. Through science and innovation we enable our customers in almost all industries to meet the current and future needs of society. Our products and system solutions contribute to conserving resources, ensuring healthy food and nutrition and helping to improve the quality of life. We have summed up this contribution in our corporate purpose: We create chemistry for a sustainable future. Top intermediates supplier The BASF Group’s Intermediates division develops, produces and markets a comprehensive portfolio of more than 600 intermediates around the world. The most important of the division’s product groups include amines, diols, polyalcohols, acids and specialties. Among other applications, intermedi- ates are used as starting materials for coatings, plastics, pharmaceuticals, textile fibers, detergents and crop protectants. Innovative intermediates from BASF help to improve the properties of final products and the efficiency of production processes. The ISO 9001:2000-certified Intermediates division operates plants at production sites in Europe, Asia and the Americas. 2 BASF’s PolyTHF BASF’s PolyTHF® is an important intermediate in manufacturing thermo- plastic polyurethane elastomers. These products are used for the manufacturing of highly abrasion-resistant and flexible hoses, films and cable sheatings. Other applications include thermoplastic polyetheresters, polyetheramide and cast polyurethane elastomers, proven for example in their use for skateboard and inline skates wheels. BASF’s PolyTHF laboratory in Shanghai is the first of its kind in the Asia Pacific region. -
Synthetic Biology 2020€“2030: Six Commercially-Available Products
COMMENT https://doi.org/10.1038/s41467-020-20122-2 OPEN Synthetic biology 2020–2030: six commercially-available products that are changing our world ✉ Christopher A. Voigt 1 Synthetic biology will transform how we grow food, what we eat, and where we source materials and medicines. Here I have selected six products that are now 1234567890():,; on the market, highlighting the underlying technologies and projecting forward to the future that can be expected over the next ten years. “The time has come for synthetic biologists to develop more real-world applications […] the field has had its hype phase, now it needs to deliver.” So concluded an infamous article in 20101. Early research struggled to design cells and physically build DNA with pre-2010 projects often failing due to uncertainty and variability. Since then, rapid technological advances occurred that are well-reviewed in this series of commentaries2. Products from synthetic biology are rapidly permeating society and by 2030, it is highly likely that you will have eaten, worn, used or been treated with one. While there are many biotechnology, pharmaceutical and agriculture companies, I selected those products that best highlight the application of synthetic biology tools developed 2000–2020 and are available now or by early 20212–4. The first three represent chemicals produced by engineered cells or enzymes (leghemoglobin, sitgaliptin, diamines) that are isolated and purified (Fig. 1). For the second three, the products are the engineered cells themselves (engineered bacteria, CAR-Ts, genome edited soy). The development of these was enabled by advances in metabolic engineering, directed evolution (awarded the 2018 Nobel Prize), automated strain engineering, metagenomic discovery, gene circuit design, and genome editing (awarded the 2020 Nobel Prize)5,6. -
Ring Opening Polymerization of Tetrahydrofuran Catalysed by Maghnite-H+
Chinese Journal of Polymer Science Vol. 30, No. 1, (2012), 5662 Chinese Journal of Polymer Science © Chinese Chemical Society Institute of Chemistry, CAS Springer-Verlag Berlin Heidelberg 2012 RING OPENING POLYMERIZATION OF TETRAHYDROFURAN CATALYSED BY MAGHNITE-H+ Khadidja Benkenfoud, Amine Harrane* and Mohammed Belbachir Laboratoire de Chimie des Polymères, Département de Chimie, Faculté des Sciences, Université d'Oran Es-Senia, BP No 1524 El M'Naouar, 31000 Oran, Algeria Abstract The cationic ring-opening polymerization of tetrahydrofuran using maghnite-H+ is reported. Maghnite-H+, is a non-toxic solid catalyst issued from proton exchanged montmorillonite clay. Polytetrahydrofuran, also called “poly(butandiol) ether”, with acetate and hydroxyl end groups was successfully synthesized. Effects of reaction temperature, weight ratio of initiator/monomer and reaction time on the conversion of monomer and on the molecular weight are investigated. A cationic mechanism of the reaction was proposed. This chemistry can be considered as a suitable route for preparing poly(THF) as a soft segment for thermoplastic elastomers. Keywords: Montmorillonite; Maghnite; Ring opening polymerization; THF. INTRODUCTION Significant advances have been made to prepare block and graft copolymers with known structures. This is often achieved by preparing a telechelic polymer with a functional end group capable of acting as an initiator or monomer and thus producing active sites for second block[1]. Polytetrahydrofuran (poly(THF)), with hydroxyl end groups, well known as poly(tetramethylene glycol), is a very important soft segment for producing thermoplastic elastomers such as polyester (Hytrel®) and polyurethane (Spandex®)[2]. THF reacts with cationic initiators to give poly(THF). Such reaction has been the subject of a number of papers[25] since Meerwein reported trialkyloxonium salt as initiator[6]. -
From Petro to Agro: Seeds of a New Economy by Robert E
Defense Number 20 A publication of the Center for Technology and National HorizonsSecurity Policy OCTOBER 2002 National Defense University From Petro to Agro: Seeds of a New Economy by Robert E. Armstrong Overview twice that of our consumption of either coal or natural gas and four times greater than use of nuclear or renewable energy sources.1 Winston Churchill is said to have stopped predicting future events The bulk of our petroleum use goes to meet energy demands, because the future was just “one damned thing after another.” with approximately 90 percent of a barrel of crude oil going to gaso- Nonetheless, we need to keep an eye on the future and speculate line, diesel, and other fuels. Since 1949, however, the industrial con- as to what the next damned thing might be. One candidate is the sumption of petroleum for nonfuel use has increased nearly seven- changing raw material base for the economy. fold.2 The chemical industry, for example, relies on petroleum for Today, the hydrocarbon molecule is the basic unit of com- more than 90 percent of its raw materials to manufacture its myriad merce. In a biobased economy, genes will replace petroleum. So, of products, ranging from plastics, refrigerants, and fertilizers to just as we currently demand assured access to sources of hydro- detergents, explosives, and medicines. Virtually everything requires carbon molecules (oil), in the near future we will demand petroleum or petroleum derivatives for its manufacture. assured access to a broad-based, diverse supply of genes (plants We are beginning to see a shift from petroleum, however. -
Preparing for Future Products of Biotechnology
THE NATIONAL ACADEMIES PRESS This PDF is available at http://nap.edu/24605 SHARE Preparing for Future Products of Biotechnology DETAILS 230 pages | 7 x 10 | PAPERBACK ISBN 978-0-309-45205-2 | DOI 10.17226/24605 CONTRIBUTORS GET THIS BOOK Committee on Future Biotechnology Products and Opportunities to Enhance Capabilities of the Biotechnology Regulatory System; Board on Life Sciences; Board on Agriculture and Natural Resources; Board on Chemical Sciences and FIND RELATED TITLES Technology; Division on Earth and Life Studies; National Academies of Sciences, Engineering, and Medicine Visit the National Academies Press at NAP.edu and login or register to get: – Access to free PDF downloads of thousands of scientific reports – 10% off the price of print titles – Email or social media notifications of new titles related to your interests – Special offers and discounts Distribution, posting, or copying of this PDF is strictly prohibited without written permission of the National Academies Press. (Request Permission) Unless otherwise indicated, all materials in this PDF are copyrighted by the National Academy of Sciences. Copyright © National Academy of Sciences. All rights reserved. Preparing for Future Products of Biotechnology Preparing for Future Products of Biotechnology Committee on Future Biotechnology Products and Opportunities to Enhance Capabilities of the Biotechnology Regulatory System Board on Life Sciences Board on Agriculture and Natural Resources Board on Chemical Sciences and Technology Division on Earth and Life Studies A Report of Copyright National Academy of Sciences. All rights reserved. Preparing for Future Products of Biotechnology THE NATIONAL ACADEMIES PRESS 500 Fifth Street, NW Washington, DC 20001 This activity was supported by Contract No. -
A Supernumerary Designer Chromosome for Modular in Vivo Pathway Assembly in Saccharomyces Cerevisiae
bioRxiv preprint doi: https://doi.org/10.1101/2020.02.18.954131; this version posted February 19, 2020. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY-NC-ND 4.0 International license. A supernumerary designer chromosome for modular in vivo pathway assembly in Saccharomyces cerevisiae Eline D. Postma1, Sofia Dashko1, Lars van Breemen1, Shannara K. Taylor Parkins1, Marcel van den Broek1, Jean-Marc Daran1, Pascale Daran-Lapujade1* 1 Department of Biotechnology, Delft University of Technology, van der Maasweg 9, 2627HZ Delft, The Netherlands * Corresponding author: Tel: +31 15 278 9965 Email: [email protected] 1 bioRxiv preprint doi: https://doi.org/10.1101/2020.02.18.954131; this version posted February 19, 2020. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY-NC-ND 4.0 International license. ABSTRACT The construction of microbial cell factories for sustainable production of chemicals and pharmaceuticals requires extensive genome engineering. Using Saccharomyces cerevisiae, this study proposes Synthetic Chromosomes (SynChs) as orthogonal expression platforms for rewiring native cellular processes and implementing new functionalities. Capitalizing the powerful homologous recombination capability of S. cerevisiae, modular SynChs of 50 and 100 Kb were fully assembled de novo from up to 44 transcriptional- unit-sized fragments in a single transformation. -
United States Patent (19) 11 Patent Number: 6,111,147 Sigwart Et Al
USOO6111147A United States Patent (19) 11 Patent Number: 6,111,147 Sigwart et al. (45) Date of Patent: Aug. 29, 2000 54 PROCESS FOR PREPARING 4,485,005 11/1984 O’Hara. POLYTETRAHYDROFURAN AND 5,773,648 6/1998 Becker et al.. DERVATIVES THEREOF FOREIGN PATENT DOCUMENTS 75 Inventors: Christoph Sigwart, Schriesheim; Karsten Eller, Ludwigshafen; Rainer 4433 606 3/1996 Germany. Becker, Bad Duerkheim; Klaus-Dieter 19507399 9/1996 Germany. Plitzko, Limburgerhof, Rolf Fischer, 19527 532 1/1997 Germany. Heidelberg; Frank Stein, Bad WO 96/09335 3/1996 WIPO. Duerkheim; Ulrich Mueller, Neustadt; Michael Hesse, Worms, all of Germany Primary Examiner Johann Richter 73 Assignee: BASF Aktiengesellschaft, ASSistant Examiner Brian J. Davis Ludwigshafen, Germany Attorney, Agent, or Firm-Oblon, Spivak, McClelland, 21 Appl. No.: 09/269,210 Maier & Neustadt, P.C. 22 PCT Filed: Sep. 23, 1997 57 ABSTRACT 86 PCT No.: PCT/EP97/05204 Polytetrahydrofuran, copolymers of tetrahydrofuran and S371 Date: Apr. 1, 1999 2-butyne-1,4-diol, diesters of these polymers with C-Co monocarboxylic acids or monoesters of these polymers with S 102(e) Date: Apr. 1, 1999 C1-Co-monocarboxylic acids are prepared by polymeriza 87 PCT Pub. No.: WO98/15589 tion of tetrahydrofuran in the presence of one of the telogens water, 1,4-butanediol, 2-butyne-1,4-diol, polytetrahydrofu PCT Pub. Date: Apr. 16, 1998 ran having a molecular weight of from 200 to 700 Dalton, 30 Foreign Application Priority Data a C-Co-monocarboxylic acid or an anhydride of a C-Co monocarboxylic acid or a mixture of these telogens over a Oct.