PFI: Next Generation Bioplastic Nanocomposites
PFI: Next Generation Bioplastic Nanocomposites
批准号:
1414557
负责人:
Richard Gross
金额:
$17.97万
依托单位国家:
美国
项目类别:
Standard Grant
财政年份:
2013
资助国家:
美国
项目状态:
已结题
起止时间:
2013-08-31 至 2014-07-31
中文摘要
这项来自纽约大学理工学院(NYU-POLY)的创新合作项目解决了开发生物塑料的需求,除了生物基和提供理想的环境足迹之外,还将为未来的客户提供比现有材料更好的性能特征。这样做是至关重要的,以激励消费者放弃目前的石油衍生材料,为新的世界生物塑料,如本文提出的那些。项目团队所追求的策略是利用具有正确组合性能的生物塑料,同时专注于设计这些组件之间的界面或边界,以优化材料性能。具体来说,选择的材料成分包括纤维素纳米晶须(cnw)、聚omega-羟基脂肪酸(P (omega-OHFAs))和聚乳酸(PLA)。P (omega - ohfas)具有良好的水解稳定性和物理韧性,PLA-CNW纳米复合材料具有高模量和改善的使用温度。该项目的知识增强合作伙伴(KEP)小企业PolyNew Inc.(工程cnw)和SyntheZyme LLC (P(omega- ohfa)及其与PLA的混合物)汇集了所需的技术,利用材料的明智组合产生的协同效应,提供卓越性能的100%生物基生物塑料。omega- ohfa的生产将使用SyntheZyme新设计的酵母菌株进行,该菌株提供了第一个将脂肪酸转化为omega- hofa的有效生物技术途径。P(ω - hofas)具有类似于中密度聚乙烯(PE)的特性。然而,与PE不同的是,P(omega-HOFAs)含有由13至17个亚甲基(CH2)单位分隔的酯基。因此,P(omega-HOFAs)提供了重要的pe样性能,如耐水性和优异的延展性,同时保留了化学反应性,因此它们可以与PLA反应共混,并通过cnw增强。PolyNew Inc.和SyntheZyme LLC将共同开发cnw功能化的技术,以设计混合P(ω - hofa)和pla的相互作用。cnw令人印象深刻的性能源于其宽高比,使其能够在相对较低的负载下达到其渗透阈值(例如,在材料内部实现远程连接),从而导致令人印象深刻的模量增加。初步研究表明,P (omega-OHFAs)/PLA共混物具有良好的性能,通过加入特异性功能化CNWs将大大受益。这项研究对整个社会的广泛影响是多方面的。该项目符合支持更多使用生物基产品的联邦政策,包括2008年《食品、保护和能源法案》,该法案旨在确保建立一个足够大的新型、非食品、非饲料生物质作物基地,以满足对可再生能源和生物产品的需求。从社会角度看,在经济的塑料、林业和农业部门就业具有优势——该项目大力支持创造绿色就业机会。减少对石油的依赖(即使是相对适度的)也被认为是有益的。将促进教学和培训,并将进行大量的外联活动。以往在将代表性不足的群体(妇女、西班牙裔和非裔美国人)纳入研究活动方面的成功将继续下去。项目初期的合作伙伴是知识增强伙伴关系(KEP)单位,由纽约大学- poly(布鲁克林,纽约州)和两家小型企业合作伙伴公司组成:SyntheZyme LLC(布鲁克林,纽约州),一家拥有私人股东的小型企业;PolyNew Inc. (Golden, CO),一家女性拥有的私人小企业。其他合作伙伴是学术机构组织:科罗拉多大学、安舒茨医学院(CO)、科罗拉多矿业学院(CO)、纽约大学朗格尼医学中心(NY)、纽约大学牙科学院(NY)、纪念斯隆凯特琳研究所(NY)和丹佛科学与技术学院(DSST) (CO);私营机构:Fish &; Richardson;Smith, Gambrell & Russell, LLP;贝伦鲍姆&温斯海恩克;密封空气;飞镖包装;DSM;ADM;NatureWorks;路博润公司;巴斯夫和百事可乐;和公共部门组织:奥罗拉经济发展委员会(AEDC)、纽约州能源研究与发展局(NYSERDA)、科罗拉多州生物科学协会(CBSA)、科罗拉多州药物、设备和诊断发展研究所(CID4)、科罗拉多州经济发展和国际贸易办公室(OEDIT)、科罗拉多州小企业发展中心(SBDC)和菲茨西蒙斯生物商业合作伙伴(FBBp)和菲茨西蒙斯重建局(FRA)(奥罗拉,CO)。
英文摘要
This Partnership for Innovation Project from the Polytechnic Institute of New York University (NYU-POLY) addresses the need to develop bioplastics that, in addition to being biobased and offering a desirable environmental footprint, will also provide future customers with improved performance characteristics over existing materials. To do so is critical in order to motivate consumers to renounce current petro-derived materials for new-to-the-world bioplastics such as those proposed herein. The strategy pursued by the project team is to utilize bioplastics with the right combination of properties while focusing on engineering the interface or boundaries between these components to optimize material performance. Specifically, selected material components include cellulose nanowhiskers (CNWs), poly (omega-hydroxyfatty acids (P (omega-OHFAs)), and poly (lactic acid) (PLA). While P (omeg-OHFAs) provides good hydrolytic stability and physical toughness, the PLA-CNW nanocomposites provide high modulus and improved use temperatures. The knowledge-enhance partner (KEP) small businesses in this project, PolyNew Inc. (engineered CNWs) and SyntheZyme LLC (P(omega-OHFAs) and their blends with PLA), bring together the required technologies to exploit synergies that will result by the judicious combination of materials to provide superior performance 100% biobased bioplastics. The production of omega-OHFAs will be performed by using SyntheZyme's newly engineered yeast strain that provides the first efficient biotechnological route to convert fatty acids to omega-HOFAs. P(omega-HOFAs) have properties similar to medium density polyethylene (PE). However, unlike PE, P(omega-HOFAs) contain ester groups separated by 13 to 17 methylene (CH2) units. Thus, P(omega-HOFAs) provide important PE-like properties such as water resistance and excellent ductility while retaining chemical reactivity so they can be reactive blended with PLA and strengthened by CNWs. PolyNew Inc. and SyntheZyme LLC will work together to develop technologies by which CNWs are functionalized to engineer interactions with blended P(omega-HOFAs) and PLAs. The impressive performance of CNWs derives from their aspect ratio that enables them to reach their percolation threshold (e.g., where long-range connectivity is achieved within the material) at relatively low loadings, resulting in impressive modulus increases. Preliminary work has shown that P (omega-OHFAs)/PLA blends show promising properties that would greatly benefit by incorporation of specifically functionalized CNWs. The broader impacts of this research to society at large are many. The project is consistent with Federal policies supporting greater use of biobased products including the Food, Conservation, and Energy Act of 2008, which is designed to ensure that a sufficiently large base of new, non-food, non-feed biomass crops is established to meet demands for renewable energy and bioproducts. Socially, there are advantages associated with employment in the plastics, forestry and agriculture sectors of the economy--the project strongly supports Green Jobs creation. Reductions in petroleum dependence (even relatively modest ones) are also considered beneficial. Teaching and training will be promoted and considerable outreach activities will be pursued. Previous success in incorporating underrepresented groups (women, Hispanics, and African Americans) in research activities will be continued.Partners at the inception of the project are the Knowledge-Enhancement Partnership (KEP) unit, consisting of NYU-POLY (Brooklyn, NY) and two small businesses partner companies: SyntheZyme LLC (Brooklyn, NY), a small business with private stock holders; and PolyNew Inc. (Golden, CO), a privately held woman-owned small business. Other partners are academic institutional organizations: University of Colorado, Anschutz Medical Campus (CO), Colorado School of Mines (CO), NYU Langone Medical Center (NY), NYU College of Dentistry (NY),Memorial Sloan Kettering Institute (NY), and the Denver School for Science and Technology (DSST) (CO); private sector organizations: Fish & Richardson; Smith, Gambrell & Russell, LLP; Berenbaum & Weinsheienk; Sealed Air; Dart Packaging; DSM; ADM; NatureWorks; Lubrizol; BASF and Pepsico; and public sector organizations: Aurora Economic Development Council (AEDC), New York State Energy Research and Development Authority (NYSERDA), Colorado Bioscience Association (CBSA), Colorado Institute for Drug, Device and Diagnostic Development (CID4), Colorado Office for Economic Development and International Trade (OEDIT), Colorado Small Business Development Centers (SBDC), and Fitzsimons BioBusiness Partners (FBBp) & Fitzsimons Redevelopment Authority (FRA) (Aurora, CO).
期刊论文(0)
专著(0)
科研奖励(0)
会议论文
NSF Convergence Accelerator Track M: Nature Inspired Bio-manufactured Terminal Hydroxylated Fatty Acid Copolyesters
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批准号:2344366
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项目类别:Standard Grant
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资助金额:$65.0万
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财政年份:2024
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负责人:Richard Gross
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Collaborative Research: Linking microplastic decomposition rates in soils to their microbe-mineral associations using carbon stable isotopes and microspectroscopy
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PFI-TT: Naturally Derived Safe Adjuvant-Active Pesticide Formulations to Protect Crops from Fungal Diseases
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财政年份:2022
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SusChEM: Collaborative proposal: Engineering increased activity of cutinase toward poly(ethyleneterephthalate) for recycling of plastic
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批准号:1930594
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财政年份:2019
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依托单位:
Functional Glycopolymer Tissue Engineering Scaffolds from a Natural Glycolipid with Chondrogenic and Anti-inflammatory Properties
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批准号:1508422
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项目类别:Continuing Grant
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资助金额:$39.0万
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财政年份:2015
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负责人:Richard Gross
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依托单位:
I-Corps: Commercialization of immobilized enzymes, processes and services
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批准号:1445740
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项目类别:Standard Grant
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资助金额:$5.0万
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财政年份:2014
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负责人:Richard Gross
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依托单位:
Engineering of Aspergillus oryzae cutinase to improve its stability and activity on synthetic polyester substrates
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批准号:1414309
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项目类别:Standard Grant
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资助金额:$6.58万
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财政年份:2013
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负责人:Richard Gross
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依托单位:
Engineering of Aspergillus oryzae cutinase to improve its stability and activity on synthetic polyester substrates
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批准号:1067415
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项目类别:Standard Grant
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资助金额:$24.94万
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财政年份:2011
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负责人:Richard Gross
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依托单位:
PFI: Next Generation Bioplastic Nanocomposites
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批准号:1114990
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项目类别:Standard Grant
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资助金额:$59.96万
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财政年份:2011
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负责人:Richard Gross
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依托单位:
Synthesis of Biosurfactants and Evaluation of Their Interfacial Properties
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批准号:0729418
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项目类别:Standard Grant
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资助金额:$5.0万
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财政年份:2007
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负责人:Richard Gross
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依托单位:
TIE Project POLY and UC: Biocatalytic Surfaces for Silicone Biosynthesis
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批准号:0631409
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项目类别:Standard Grant
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资助金额:$5.0万
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财政年份:2006
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负责人:Richard Gross
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依托单位:
NSF I/UCRC for Biocatalysis and Bioprocessing of Macromolecules
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批准号:0540713
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项目类别:Continuing Grant
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资助金额:$0.0万
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财政年份:2005
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负责人:Richard Gross
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依托单位:
Novel Surface Active Polymers Using Biocatalysis: NSF I/UCRC POLYTECHNIC/COLUMBIA UNIVERSITY NY Tie Project
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批准号:0124092
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项目类别:Standard Grant
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资助金额:$7.5万
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财政年份:2001
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负责人:Richard Gross
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依托单位:
NSF Center for Biocatalysis and Bioprocessing of Macromolecules - Operational Grant
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批准号:0001879
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项目类别:Continuing Grant
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资助金额:$35.0万
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财政年份:2000
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负责人:Richard Gross
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依托单位:
I/UCRC Planning Grant: Center for Biocatalysis and Bioprocessing of Macromolecules
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批准号:9909039
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项目类别:Standard Grant
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资助金额:$1.0万
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财政年份:1999
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负责人:Richard Gross
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依托单位:
Bioengineering of Biosurfactants for Cleaning and Degreasing Applications
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批准号:9525091
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项目类别:Standard Grant
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资助金额:$18.92万
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财政年份:1996
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负责人:Richard Gross
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依托单位:
Presidential Young Investigator Award
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批准号:9057233
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项目类别:Continuing Grant
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资助金额:$17.0万
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财政年份:1990
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负责人:Richard Gross
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依托单位:
Pre-College Teacher Development in Science
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批准号:8101264
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项目类别:Standard Grant
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资助金额:$3.82万
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财政年份:1981
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负责人:Richard Gross
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依托单位:
Pre-College Teacher Development in Science
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批准号:7902071
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项目类别:Standard Grant
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资助金额:$2.68万
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财政年份:1979
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负责人:Richard Gross
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依托单位:
国内基金
海外基金
Next Generation Majorana Nanowire Hybrids
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批准号:--
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项目类别:--
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资助金额:20万元
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批准年份:2020
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负责人:Panagiotis Kotetes
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依托单位: