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Extrusion Processing of Waxy Wheat and Whole Grain Quinoa Flours 蜡质小麦和全麦藜麦粉的挤压加工
Q3 Agricultural and Biological Sciences Pub Date : 2019-01-01 DOI: 10.1094/cfw-64-6-0067
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引用次数: 1
Using Digital Agriculture Technologies to Improve Nitrogen Management and Wheat Yield 利用数字农业技术改善氮素管理和小麦产量
Q3 Agricultural and Biological Sciences Pub Date : 2019-01-01 DOI: 10.1094/cfw-64-6-0068
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引用次数: 2
Industrial Biotechnology Shaping Corn Biorefineries of the Future 工业生物技术塑造未来的玉米生物精炼厂
Q3 Agricultural and Biological Sciences Pub Date : 2019-01-01 DOI: 10.1094/cfw-64-4-0062
Vijay Singh, Joel Stone, J. P. Robert, S. Vani
Bio-based markets, enabled by synthetic biology and increased emphasis on sustainability, are growing in the United States and around the world. Over the last five years, an exponential increase in investments in synthetic biology has been observed. Large amounts of renewable carbon in the form of fermentable sugars will be required to enable the production of next-generation biopolymer, biochemical, biofuel, and food products. In North America, sugars from corn (maize) will be the most abundant carbon source available to drive the industrial biotechnology engine. The demand for renewable carbon will improve stability in agricultural economies and support regional agricultural job creation. Traditional corn processing facilities are responding to this need by retrofitting their processing facilities to produce low-cost sugars or redirecting sugars from shrinking high-fructose corn syrup and dextrose markets to high-growth industrial biotechnology markets. However, there are still challenges that must be overcome to convert this opportunity into commercial reality. To succeed, new product and process development initiatives must meet economic, regulatory, quality, and other requirements within budget and time constraints. Translational research facilities that are specifically intended to accelerate commercialization and reduce the risk of utilizing new technologies will play a crucial role in realizing the opportunities offered by industrial biotechnology. Growth in Industrial Biotechnology Industrial biotechnology is growing at a fast pace in the United States and around the world, shaping the biorefineries of the future and the development of biomaterials, renewable chemicals, bio-based ingredients, foods, and agricultural products. Recent estimates by the Biotechnology Innovation Organization put the global economic value of industrial biotechnology at US$355 billion (2). There are many reasons for this tremendous growth in industrial biotechnology (13). For example, • Sustainability has become a megatrend in consumer products • Advancements in synthetic biology and metabolic engineering • Availability of abundant, low-cost carbon required for fermentation • Bridging of the gap between innovations and commercialization for biorefineries Sustainability as a Megatrend Industrial biotechnology is enabling a circular economy with increased use of renewables, production of new materials that reduce waste and have superior functionality, products with better life cycles and improved compostability, and use of materials that have better reuse and upcycling applications at end-of-life (15). Major consumer goods companies are using higher amounts of biopolymers and highlighting the sustainability of their products to market them. Consumers also are demanding greener products, which is creating a market demand for bioproducts. nova-Institute’s new market and trend report estimates that the total production volume of bio-based polymers was 8.0 million to
在合成生物学和对可持续性的日益重视的推动下,以生物为基础的市场正在美国和世界各地不断增长。在过去的五年中,在合成生物学方面的投资呈指数级增长。为了生产下一代生物聚合物、生物化学、生物燃料和食品,将需要大量以可发酵糖形式存在的可再生碳。在北美,来自玉米(玉米)的糖将是驱动工业生物技术引擎的最丰富的碳源。对可再生碳的需求将提高农业经济的稳定性,并支持区域农业就业创造。传统的玉米加工设施正在通过改造其加工设施以生产低成本糖或将糖从萎缩的高果糖玉米糖浆和葡萄糖市场转向高增长的工业生物技术市场来应对这一需求。然而,要将这一机会转化为商业现实,还必须克服一些挑战。为了成功,新产品和过程开发计划必须在预算和时间限制内满足经济、法规、质量和其他需求。专门用于加速商业化和减少利用新技术风险的转化研究设施将在实现工业生物技术提供的机会方面发挥关键作用。工业生物技术的发展工业生物技术在美国和世界各地都在快速发展,塑造了未来的生物炼制和生物材料、可再生化学品、生物基成分、食品和农产品的发展。生物技术创新组织最近估计,工业生物技术的全球经济价值为3550亿美元。工业生物技术的巨大增长有许多原因。例如,•可持续性已成为消费产品的大趋势•合成生物学和代谢工程的进步•发酵所需的丰富、低成本碳的可用性•弥合生物精炼厂创新与商业化之间的差距可持续性作为大趋势工业生物技术正在实现循环经济,增加可再生能源的使用,生产减少浪费和具有卓越功能的新材料,具有更好的生命周期和改进的可堆肥性的产品,以及使用在生命结束时具有更好的再利用和升级利用的材料(15)。主要消费品公司正在使用更多的生物聚合物,并强调其产品的可持续性,以推销它们。消费者也在要求更环保的产品,这创造了对生物产品的市场需求。nova-Institute的新市场和趋势报告估计,2018年生物基聚合物的总产量为800万吨,预计到2023年将达到960万吨(5)。随着人口增长超过食品供应(尤其是肉类产品),食品生产系统的可持续性变得越来越重要。最近的趋势是植物性产品(如无肉汉堡、鸡肉、鸡蛋、虾)在美国越来越受欢迎,并经历了爆炸式的增长。除了美国,欧洲和亚洲的无肉市场也有望增长。随着全球肉类消费量的增加,到2050年,世界某些地区的可持续肉类生产将变得具有挑战性。2017年,为了将中国肉类消费量减少50%,中国宣布了一项价值数百万美元的协议,将从以色列公司进口实验室种植的肉类(4)。与生产动物肉类产品相比,与生产植物性肉类产品相关的水、化石能源、劳动力、土地和饲料使用,以及排放和氮径流要低一个数量级(11)。合成生物学和代谢工程的进展降低了开发具有复杂和新颖生物合成途径的新生物产品的成本。表达新酶和构建新途径的能力使得生产各种各样的生物制品成为可能,这些生物制品以前是不可能生产的,或者生产起来非常昂贵。在过去的10年里,有几个关键的发展。然而,关键的游戏规则改变者是由CRISPER-Cas9技术导致的合成生物学的发展。那么,什么是CRISPER-Cas9技术呢?“CRISPR”是“有规则间隔的短回文重复序列簇”的缩写(6,10)。为了简化讨论,CRISPRCas9是一种基因组编辑工具。各种生物体的基因组在它们的DNA序列中编码一系列的信息和指令。基因组编辑包括改变这些序列,从而改变信息。 在合成生物学和对可持续性的日益重视的推动下,以生物为基础的市场正在美国和世界各地不断增长。在过去的五年中,在合成生物学方面的投资呈指数级增长。为了生产下一代生物聚合物、生物化学、生物燃料和食品,将需要大量以可发酵糖形式存在的可再生碳。在北美,来自玉米(玉米)的糖将是驱动工业生物技术引擎的最丰富的碳源。对可再生碳的需求将提高农业经济的稳定性,并支持区域农业就业创造。传统的玉米加工设施正在通过改造其加工设施以生产低成本糖或将糖从萎缩的高果糖玉米糖浆和葡萄糖市场转向高增长的工业生物技术市场来应对这一需求。然而,要将这一机会转化为商业现实,还必须克服一些挑战。为了成功,新产品和过程开发计划必须在预算和时间限制内满足经济、法规、质量和其他需求。专门用于加速商业化和减少利用新技术风险的转化研究设施将在实现工业生物技术提供的机会方面发挥关键作用。工业生物技术的发展工业生物技术在美国和世界各地都在快速发展,塑造了未来的生物炼制和生物材料、可再生化学品、生物基成分、食品和农产品的发展。生物技术创新组织最近估计,工业生物技术的全球经济价值为3550亿美元。工业生物技术的巨大增长有许多原因。例如,•可持续性已成为消费产品的大趋势•合成生物学和代谢工程的进步•发酵所需的丰富、低成本碳的可用性•弥合生物精炼厂创新与商业化之间的差距可持续性作为大趋势工业生物技术正在实现循环经济,增加可再生能源的使用,生产减少浪费和具有卓越功能的新材料,具有更好的生命周期和改进的可堆肥性的产品,以及使用在生命结束时具有更好的再利用和升级利用的材料(15)。主要消费品公司正在使用更多的生物聚合物,并强调其产品的可持续性,以推销它们。消费者也在要求更环保的产品,这创造了对生物产品的市场需求。nova-Institute的新市场和趋势报告估计,2018年生物基聚合物的总产量为800万吨,预计到2023年将达到960万吨(5)。随着人口增长超过食品供应(尤其是肉类产品),食品生产系统的可持续性变得越来越重要。最近的趋势是植物性产品(如无肉汉堡、鸡肉、鸡蛋、虾)在美国越来越受欢迎,并经历了爆炸式的增长。除了美国,欧洲和亚洲的无肉市场也有望增长。随着全球肉类消费量的增加,到2050年,世界某些地区的可持续肉类生产将变得具有挑战性。2017年,为了将中国肉类消费量减少50%,中国宣布了一项价值数百万美元的协议,将从以色列公司进口实验室种植的肉类(4)。与生产动物肉类产品相比,与生产植物性肉类产品相关的水、化石能源、劳动力、土地和饲料使用,以及排放和氮径流要低一个数量级(11)。合成生物学和代谢工程的进展降低了开发具有复杂和新颖生物合成途径的新生物产品的成本。表达新酶和构建新途径的能力使得生产各种各样的生物制品成为可能,这些生物制品以前是不可能生产的,或者生产起来非常昂贵。在过去的10年里,有几个关键的发展。然而,关键的游戏规则改变者是由CRISPER-Cas9技术导致的合成生物学的发展。那么,什么是CRISPER-Cas9技术呢?“CRISPR”是“有规则间隔的短回文重复序列簇”的缩写(6,10)。为了简化讨论,CRISPRCas9是一种基因组编辑工具。各种生物体的基因组在它们的DNA序列中编码一系列的信息和指令。基因组编辑包括改变这些序列,从而改变信息。 这可以通过在DNA中插入一个切口或断裂来实现,并“欺骗”细胞的自然DNA修复机制,以引入所需的变化。CRISPR-Cas9提供了一种方法。这种编辑工具的强大功能与大数据管理相结合,使我们能够预测生物体产生的化学物质、蛋白质或材料的变化。CRISPR-Cas9使工业生物技术公司能够加速专门发酵生物的开发,从使用传统突变开发的数年和数百万美元的投资,到使用靶向基因组编辑的数月和数万美元的投资。这是农业原料转型的一个决定性时刻,它服务于一个不断增长的行业,也预示着生物炼制的新世界可能会发生什么。工业微生物
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引用次数: 2
A New Correction Function for Falling Number at Non-Sea Level Conditions 非海平面条件下下降数的一种新的校正函数
Q3 Agricultural and Biological Sciences Pub Date : 2019-01-01 DOI: 10.1094/cfw-64-2-0020
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引用次数: 0
Understanding and Assessing Cultural Differences in Sensory Preferences 理解和评估感官偏好的文化差异
Q3 Agricultural and Biological Sciences Pub Date : 2019-01-01 DOI: 10.1094/cfw-64-1-0005
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引用次数: 3
Using Predictive Tools to Plan for Future Weather Conditions 使用预测工具计划未来天气状况
Q3 Agricultural and Biological Sciences Pub Date : 2019-01-01 DOI: 10.1094/cfw-64-2-0017
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引用次数: 0
Collaborative Study Report: Automated Measurement of Wheat Flour Solvent Retention Capacity with the CHOPIN-SRC Instrument (AACCI Approved Method 56-15.01) 合作研究报告:用CHOPIN-SRC仪器自动测量小麦粉溶剂保留量(AACCI批准方法56-15.01)
Q3 Agricultural and Biological Sciences Pub Date : 2019-01-01 DOI: 10.1094/cfw-64-3-0033
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引用次数: 0
Knowledge without Borders: Reflecting on a Decade of Intellectual Philanthropy 知识无国界:反思十年来的知识慈善事业
Q3 Agricultural and Biological Sciences Pub Date : 2019-01-01 DOI: 10.1094/cfw-64-6-0064
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引用次数: 0
Spotlight on the Food Safety Preventive Controls Alliance 聚焦食物安全预防控制联盟
Q3 Agricultural and Biological Sciences Pub Date : 2019-01-01 DOI: 10.1094/cfw-64-2-0021
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引用次数: 0
Molecular Approaches to Understanding Microbial Populations in Traditional Fermented Grain Products 了解传统发酵谷物制品中微生物种群的分子方法
Q3 Agricultural and Biological Sciences Pub Date : 2019-01-01 DOI: 10.1094/cfw-64-1-0003
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引用次数: 1
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Cereal Foods World
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