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Guideline for Pulse Approved Methods 脉搏核准方法指南
Q3 Agricultural and Biological Sciences Pub Date : 2020-01-01 DOI: 10.1094/cfw-65-2-0020
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引用次数: 0
Interview with Gi-Hyung Ryu 采访刘基亨
Q3 Agricultural and Biological Sciences Pub Date : 2020-01-01 DOI: 10.1094/cfw-65-4-0049
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引用次数: 0
Interview with Supriya Varma 采访Supriya Varma
Q3 Agricultural and Biological Sciences Pub Date : 2020-01-01 DOI: 10.1094/cfw-65-1-0010
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引用次数: 0
A Physician’s Perspective on Food: Interview with Christine Wallace, MD 内科医生对食物的看法:采访医学博士克里斯汀·华莱士
Q3 Agricultural and Biological Sciences Pub Date : 2020-01-01 DOI: 10.1094/cfw-65-3-0032
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引用次数: 0
Jiaozi (Chinese Dumplings) and Flour Quality Requirements—An Introduction 饺子和面粉质量要求简介
Q3 Agricultural and Biological Sciences Pub Date : 2020-01-01 DOI: 10.1094/cfw-65-5-0059
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引用次数: 0
Regenerative Agriculture: A Farmer-Led Initiative to Build Resiliency in Food Systems 再生农业:以农民为主导的建立粮食系统弹性的倡议
Q3 Agricultural and Biological Sciences Pub Date : 2020-01-01 DOI: 10.1094/cfw-65-6-0065
James O. Eckberg, Steven T. Rosenzweig
The resiliency of cereal grain food systems is threatened by the agricultural degradation of natural resources. Addressing this global challenge will require us to rethink the ways in which grains are produced. An emerging farmer-led movement known as regenerative agriculture may provide a pathway to reverse the degradation of agroecosystems, with the potential to enhance food system resilience. Regenerative agriculture reimagines conventional agriculture around a holistic set of nature-based principles to restore soil health, biodiversity, and farm economics. Although a multitude of complex barriers exist for farmers to transition to regenerative systems, companies in the food and agricultural sector are beginning to develop initiatives that can support the regenerative agricultural movement. By redefining their own approaches to sustainability, these companies are charting new paths to accelerate farmer adoption of regenerative agriculture that improves socioeconomic and environmental resiliency throughout food systems. Food systems are increasingly vulnerable to disruption, which affects the price, quality, and availability of food for people worldwide. Stressors such as climate change bring both sudden shocks (e.g., catastrophic weather events) and gradually mounting pressures (e.g., shifting temperature and precipitation patterns), threatening the stable, affordable supply of staple foods like cereals and pulses (16,25,26). The current trajectory of global warming is expected to cause water scarcity and production shocks to 60% of the world’s wheat-growing area by the end of the century (27). At the same time, global demand for cereal grains is rising by nearly 1% annually (2). Although agriculture continues to increase yields, gains in cereal grain production may not be able to keep pace with growing global demand (13). Furthermore, numerous vulnerabilities that exist within the food system exacerbate the risk to global production, one of which is the continued degradation of natural resources essential to food production. Worsening trends in soil degradation (11,17), biodiversity loss (8,23), and reductions in water quality and quantity (13,19) are weakening the ability of agricultural systems to maintain or increase food production, particularly in the face of climate change (9). Restoring farm ecosystems and reversing trends in degradation of natural resources is critical to bolstering resilience in agricultural and food systems to meet the nutritional needs of a growing global population. A History of Agricultural Revolutions The problems facing agriculture did not develop overnight; they reflect a complex history punctuated by revolutions in biology and technology. The Green Revolution emerged in industrialized nations post-World War II with the promise to feed the world. It laid the foundation for the predominant industrial production model of agriculture by boosting yields through advanced varieties of wheat and rice and greater use
谷物粮食系统的复原力受到自然资源农业退化的威胁。应对这一全球性挑战需要我们重新思考粮食的生产方式。一种新兴的由农民主导的运动,即可再生农业,可能为扭转农业生态系统退化提供一条途径,并有可能增强粮食系统的抵御能力。再生农业围绕一套以自然为基础的整体原则重新构想传统农业,以恢复土壤健康、生物多样性和农业经济。尽管农民向可再生系统过渡存在许多复杂的障碍,但食品和农业部门的公司正开始制定能够支持可再生农业运动的举措。通过重新定义自己的可持续发展方法,这些公司正在绘制新的路径,以加速农民采用可再生农业,从而提高整个粮食系统的社会经济和环境弹性。粮食系统越来越容易受到破坏,这影响到世界各地人民的粮食价格、质量和可得性。气候变化等压力源既带来突然的冲击(如灾难性天气事件),也带来逐渐增加的压力(如温度和降水模式的变化),威胁到谷物和豆类等主食的稳定、可负担的供应(16,25,26)。按照目前全球变暖的趋势,预计到本世纪末,全球60%的小麦种植区将面临水资源短缺和生产冲击(27)。与此同时,全球谷物需求正以每年近1%的速度增长(2)。尽管农业继续提高产量,但谷物产量的增长可能无法跟上全球需求的增长(13)。此外,粮食系统中存在的众多脆弱性加剧了全球生产面临的风险,其中之一是粮食生产所必需的自然资源的持续退化。土壤退化(11,17)、生物多样性丧失(8,23)以及水质和水量减少(13,19)的恶化趋势正在削弱农业系统维持或增加粮食生产的能力,特别是在气候变化的情况下(9)。恢复农业生态系统和扭转自然资源退化趋势对于增强农业和粮食系统的抵御力,以满足不断增长的全球人口的营养需求至关重要。农业面临的问题不是一夜之间形成的;它们反映了一段被生物学和技术革命打断的复杂历史。第二次世界大战后,工业化国家兴起了绿色革命,承诺为世界提供粮食。通过培育小麦和水稻的先进品种,增加肥料和其他投入物的使用,提高了产量,为以农业为主导的工业化生产模式奠定了基础。事实上,它的创始人之一诺曼·博洛格(Norman Borlaug)因拯救了超过10亿人的生命而受到赞誉,并于1970年获得了诺贝尔和平奖。然而,支持作物产量大幅增长所需的大量投入(例如农药和合成肥料)也导致了有害的、意想不到的环境影响。后来,20世纪90年代的生物技术革命改变了作物基因组,插入了一些性状,简化了对害虫和杂草的管理。虽然这些农业革命被誉为当时的重大成功,但它们过去和现在都是基于一种工业生产模式,这种模式以土壤、水和空气质量以及生物多样性减少的风险来促进高产。工业化农业继续以同样的模式进行迭代,最近更加注重精密技术,以提高生产系统中农用化学品使用的效率。虽然已经取得了重要的效率提高,但它们不太可能足够,甚至可能对维持稳定、有弹性的粮食系统的目标产生反作用(3)。从单一关注工业解决方案到将生态原则作为农业创新来源的范式转变,可以帮助恢复自然资源,并在农场生态系统中建立经济和生态系统的弹性(3,25)。再生农业:生态方法生态方法作为支持农业和粮食系统恢复力的关键策略已被广泛推广(25)。这些方法侧重于恢复农场的自然生态系统过程(例如,水和养分循环),而不是过多地依赖化学投入。农业生态方法一直是全球范围内一系列农民主导运动的基础,但直到最近,它们才在农民主导的一场名为“再生农业”的运动中在大型农场中站稳脚跟。 谷物粮食系统的复原力受到自然资源农业退化的威胁。应对这一全球性挑战需要我们重新思考粮食的生产方式。一种新兴的由农民主导的运动,即可再生农业,可能为扭转农业生态系统退化提供一条途径,并有可能增强粮食系统的抵御能力。再生农业围绕一套以自然为基础的整体原则重新构想传统农业,以恢复土壤健康、生物多样性和农业经济。尽管农民向可再生系统过渡存在许多复杂的障碍,但食品和农业部门的公司正开始制定能够支持可再生农业运动的举措。通过重新定义自己的可持续发展方法,这些公司正在绘制新的路径,以加速农民采用可再生农业,从而提高整个粮食系统的社会经济和环境弹性。粮食系统越来越容易受到破坏,这影响到世界各地人民的粮食价格、质量和可得性。气候变化等压力源既带来突然的冲击(如灾难性天气事件),也带来逐渐增加的压力(如温度和降水模式的变化),威胁到谷物和豆类等主食的稳定、可负担的供应(16,25,26)。按照目前全球变暖的趋势,预计到本世纪末,全球60%的小麦种植区将面临水资源短缺和生产冲击(27)。与此同时,全球谷物需求正以每年近1%的速度增长(2)。尽管农业继续提高产量,但谷物产量的增长可能无法跟上全球需求的增长(13)。此外,粮食系统中存在的众多脆弱性加剧了全球生产面临的风险,其中之一是粮食生产所必需的自然资源的持续退化。土壤退化(11,17)、生物多样性丧失(8,23)以及水质和水量减少(13,19)的恶化趋势正在削弱农业系统维持或增加粮食生产的能力,特别是在气候变化的情况下(9)。恢复农业生态系统和扭转自然资源退化趋势对于增强农业和粮食系统的抵御力,以满足不断增长的全球人口的营养需求至关重要。农业面临的问题不是一夜之间形成的;它们反映了一段被生物学和技术革命打断的复杂历史。第二次世界大战后,工业化国家兴起了绿色革命,承诺为世界提供粮食。通过培育小麦和水稻的先进品种,增加肥料和其他投入物的使用,提高了产量,为以农业为主导的工业化生产模式奠定了基础。事实上,它的创始人之一诺曼·博洛格(Norman Borlaug)因拯救了超过10亿人的生命而受到赞誉,并于1970年获得了诺贝尔和平奖。然而,支持作物产量大幅增长所需的大量投入(例如农药和合成肥料)也导致了有害的、意想不到的环境影响。后来,20世纪90年代的生物技术革命改变了作物基因组,插入了一些性状,简化了对害虫和杂草的管理。虽然这些农业革命被誉为当时的重大成功,但它们过去和现在都是基于一种工业生产模式,这种模式以土壤、水和空气质量以及生物多样性减少的风险来促进高产。工业化农业继续以同样的模式进行迭代,最近更加注重精密技术,以提高生产系统中农用化学品使用的效率。虽然已经取得了重要的效率提高,但它们不太可能足够,甚至可能对维持稳定、有弹性的粮食系统的目标产生反作用(3)。从单一关注工业解决方案到将生态原则作为农业创新来源的范式转变,可以帮助恢复自然资源,并在农场生态系统中建立经济和生态系统的弹性(3,25)。再生农业:生态方法生态方法作为支持农业和粮食系统恢复力的关键策略已被广泛推广(25)。这些方法侧重于恢复农场的自然生态系统过程(例如,水和养分循环),而不是过多地依赖化学投入。农业生态方法一直是全球范围内一系列农民主导运动的基础,但直到最近,它们才在农民主导的一场名为“再生农业”的运动中在大型农场中站稳脚跟。 再生农业是一种全面的农业或牧场方法,基于恢复农业生态系统的六项原则:了解农场或牧场的环境,最大限度地减少土壤和生态干扰(例如,耕作、农药、合成肥料),保持土壤覆盖,全年尽可能长时间地保持土壤中的活根,最大限度地提高多样性,以及整合牲畜。独立而言,这些原则对农民来说并不新鲜。几十年和几个世纪以来,农民根据不同的做法,使用了个别的做法和部分的再生农业。然而,在许多情况下,单一实施免耕等做法只带来了有限的好处,甚至带来了减产等损失(20)
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引用次数: 2
Emerging Crops with Enhanced Ecosystem Services: Progress in Breeding and Processing for Food Use 具有增强生态系统服务功能的新兴作物:用于食品的育种和加工进展
Q3 Agricultural and Biological Sciences Pub Date : 2020-01-01 DOI: 10.1094/cfw-65-2-0016
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引用次数: 4
Cereals & Grains Association Events and News 谷物和谷物协会活动和新闻
Q3 Agricultural and Biological Sciences Pub Date : 2020-01-01 DOI: 10.1094/cfw-65-3-0036
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引用次数: 0
Regulation and Labeling of Plant-Based Beverages and Simulated Meat, Poultry, and Egg Products in Canada and the United States 加拿大和美国植物性饮料和模拟肉、禽、蛋制品的法规和标签
Q3 Agricultural and Biological Sciences Pub Date : 2020-01-01 DOI: 10.1094/cfw-65-4-0044
K. Musa-Veloso, Justine Juana
Globally, there is a movement toward plant-based diets. At the root of this movement are many different motivators, including concern for animal welfare, concern for the environment and sustainability, and the perceived healthfulness of plant-based compared with animal-based diets. A dilemma in the introduction of innovative plant-based foods is their naming. The names of many common foods (e.g., milk, yogurt, meat) are defined in food standards, which outline the source and compositional requirements for a food to be labeled with the common name. Food standards are regulations, and regulations are technically legally binding and have the force of law, although, of course, they are subject to interpretation. In the United States, food standards have resulted in tremendous contention, both at the state and federal levels. Equally problematic is the composition of plant-based foods, which is largely unregulated in the United States, resulting in a plethora of plantbased foods that differ from each other and from their animal-based counterparts in their nutritional compositions. In Canada, the situation is quite different. Indeed, most plant-based foods are regulated by standards of identity, which define not only the nutritional compositions of the foods, but also their naming. An understanding of the regulatory environment in each country, globally, is fundamental in the development and successful marketing of plant-based foods. Plant-based diets are diets comprised mainly of foods derived from plants, with little to no foods of animal origin, such as meat, eggs, and dairy products (12,15). In the last few years, the adoption of plant-based diets has gained increasing popularity in Western societies (4,13,14). With increased innovation in plantbased foods, an increasingly perplexing question has been what these foods should be called. Although many consumers do not realize it, there exist standards of identity that prescribe the compositional and nutritional attributes of a food that is marketed under a given and common name. For example, “milk” is associated with a standard of identity, both in the United States (in 21 CFR 133.3(a)) and in Canada (in Section B.08.003 of the Food and Drug Regulations) (6,22). In both countries, milk is defined as the lacteal secretion obtained from the mammary gland of the cow, genus Bos. Foods that do not meet the compositional requirements for milk technically should not be labeled as “milk.” Indeed, in Canada, plant-based dairy substitutes are referred to as “beverages” and not “milks” (8). In the United States, the controversy is very strong, with proponents arguing that the use of the term “milk” in the labeling of plant-based beverages is perfectly acceptable, so long as “milk” is prefaced by the source (e.g., “oat milk”). As innovation in plant-based foods increases in response to consumer demand, controversy with respect to the labeling and naming of these foods is expected to intensify, as many common foo
在全球范围内,有一种以植物为基础的饮食运动。这场运动的根源是许多不同的动机,包括对动物福利的关注,对环境和可持续性的关注,以及与动物饮食相比,人们认为植物性饮食更健康。引进创新植物性食品的一个难题是它们的命名。许多普通食品(如牛奶、酸奶、肉类)的名称在食品标准中有规定,这些标准概述了食品的来源和成分要求,以便用通用名称进行标签。食品标准是法规,法规在技术上具有法律约束力,具有法律效力,当然,它们也需要解释。在美国,食品标准在州和联邦层面都引起了巨大的争论。同样有问题的是植物性食品的成分,这在美国基本上是不受监管的,导致大量的植物性食品在营养成分上彼此不同,也与动物性食品不同。在加拿大,情况则大不相同。事实上,大多数植物性食品都受到身份标准的监管,这些标准不仅定义了食物的营养成分,还定义了它们的命名。了解全球每个国家的监管环境对于植物性食品的开发和成功营销至关重要。植物性饮食是指主要由植物性食物组成的饮食,很少或根本没有动物源性食物,如肉、蛋和乳制品(12,15)。在过去几年中,植物性饮食的采用在西方社会越来越受欢迎(4,13,14)。随着植物性食品的不断创新,一个越来越令人困惑的问题是,这些食品应该被称为什么。尽管许多消费者没有意识到这一点,但存在着标识标准,规定了以给定和通用名称销售的食品的成分和营养属性。例如,在美国(21 CFR 133.3(a))和加拿大(《食品药品法规》第B.08.003节)(6,22),“牛奶”与身份标准相关。在这两个国家,牛奶被定义为从牛属奶牛的乳腺中获得的乳分泌物。从技术上讲,不符合牛奶成分要求的食品不应该被贴上“牛奶”的标签。事实上,在加拿大,植物性乳制品替代品被称为“饮料”而不是“牛奶”(8)。在美国,争议非常激烈,支持者认为,在植物性饮料的标签上使用“牛奶”一词是完全可以接受的,只要“牛奶”前面加上来源(例如,“燕麦牛奶”)。随着消费者需求对植物性食品的创新不断增加,关于这些食品的标签和命名的争议预计会加剧,因为许多常见的食品名称-“酸奶”,“奶酪”,“酸奶油”,“肉”,“香肠”,“炖肉”等-实际上是在法规中定义的,并与食品标准相关。这些以及其他标准化食品的名称已被用于植物性替代品的命名(例如,植物性“肉”),但这受到了肉类和乳制品行业的挑战,它们共同采取的立场是,只有当食品符合标准中规定的条件时,才应该使用标准化术语。在美国,争论如此激烈,以至于2019年3月,国会重新提出了《乳制品骄傲法案》(Dairy Pride Act),试图阻止在植物性产品的标签中使用“牛奶”、“酸奶”和“奶酪”等术语。同样,2019年12月,《真实营销可食用人工制品(MEAT)法案》被提交给美国参议院(21)。如果通过,它将要求所有植物性肉类产品在食品名称之前或之后都要有“仿制”一词,并明确表明该产品不是来自肉类或不含肉类。在每个州的层面上,还有其他正在进行的举措,以允许或限制在植物性产品的标签中使用标准化名称。在确定植物性食品的名称时,必须考虑消费者对食品来源及其营养特性的了解。在一项针对1000名美国成年人的调查中,由加拿大和美国的国际食品法规和植物性饮料和模拟肉类,家禽和蛋类产品的标签Kathy Musa-Veloso1,2和Justine Juana3 Intertek健康科学公司,密西沙加,加拿大1博士,食品和营养健康声称和临床试验组高级主任,Intertek健康科学公司,阿根廷路2233号,Ste 201,密西沙加,L5N 2X7,加拿大。2通讯作者。电子邮件:kathy.musa-veloso@intertek.com 3 B.H.Sc。 在全球范围内,有一种以植物为基础的饮食运动。这场运动的根源是许多不同的动机,包括对动物福利的关注,对环境和可持续性的关注,以及与动物饮食相比,人们认为植物性饮食更健康。引进创新植物性食品的一个难题是它们的命名。许多普通食品(如牛奶、酸奶、肉类)的名称在食品标准中有规定,这些标准概述了食品的来源和成分要求,以便用通用名称进行标签。食品标准是法规,法规在技术上具有法律约束力,具有法律效力,当然,它们也需要解释。在美国,食品标准在州和联邦层面都引起了巨大的争论。同样有问题的是植物性食品的成分,这在美国基本上是不受监管的,导致大量的植物性食品在营养成分上彼此不同,也与动物性食品不同。在加拿大,情况则大不相同。事实上,大多数植物性食品都受到身份标准的监管,这些标准不仅定义了食物的营养成分,还定义了它们的命名。了解全球每个国家的监管环境对于植物性食品的开发和成功营销至关重要。植物性饮食是指主要由植物性食物组成的饮食,很少或根本没有动物源性食物,如肉、蛋和乳制品(12,15)。在过去几年中,植物性饮食的采用在西方社会越来越受欢迎(4,13,14)。随着植物性食品的不断创新,一个越来越令人困惑的问题是,这些食品应该被称为什么。尽管许多消费者没有意识到这一点,但存在着标识标准,规定了以给定和通用名称销售的食品的成分和营养属性。例如,在美国(21 CFR 133.3(a))和加拿大(《食品药品法规》第B.08.003节)(6,22),“牛奶”与身份标准相关。在这两个国家,牛奶被定义为从牛属奶牛的乳腺中获得的乳分泌物。从技术上讲,不符合牛奶成分要求的食品不应该被贴上“牛奶”的标签。事实上,在加拿大,植物性乳制品替代品被称为“饮料”而不是“牛奶”(8)。在美国,争议非常激烈,支持者认为,在植物性饮料的标签上使用“牛奶”一词是完全可以接受的,只要“牛奶”前面加上来源(例如,“燕麦牛奶”)。随着消费者需求对植物性食品的创新不断增加,关于这些食品的标签和命名的争议预计会加剧,因为许多常见的食品名称-“酸奶”,“奶酪”,“酸奶油”,“肉”,“香肠”,“炖肉”等-实际上是在法规中定义的,并与食品标准相关。这些以及其他标准化食品的名称已被用于植物性替代品的命名(例如,植物性“肉”),但这受到了肉类和乳制品行业的挑战,它们共同采取的立场是,只有当食品符合标准中规定的条件时,才应该使用标准化术语。在美国,争论如此激烈,以至于2019年3月,国会重新提出了《乳制品骄傲法案》(Dairy Pride Act),试图阻止在植物性产品的标签中使用“牛奶”、“酸奶”和“奶酪”等术语。同样,2019年12月,《真实营销可食用人工制品(MEAT)法案》被提交给美国参议院(21)。如果通过,它将要求所有植物性肉类产品在食品名称之前或之后都要有“仿制”一词,并明确表明该产品不是来自肉类或不含肉类。在每个州的层面上,还有其他正在进行的举措,以允许或限制在植物性产品的标签中使用标准化名称。在确定植物性食品的名称时,必须考虑消费者对食品来源及其营养特性的了解。在一项针对1000名美国成年人的调查中,由加拿大和美国的国际食品法规和植物性饮料和模拟肉类,家禽和蛋类产品的标签Kathy Musa-Veloso1,2和Justine Juana3 Intertek健康科学公司,密西沙加,加拿大1博士,食品和营养健康声称和临床试验组高级主任,Intertek健康科学公司,阿根廷路2233号,Ste 201,密西沙加,L5N 2X7,加拿大。2通讯作者。电子邮件:kathy.musa-veloso
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引用次数: 4
Food as Medicine 食物如药
Q3 Agricultural and Biological Sciences Pub Date : 2020-01-01 DOI: 10.1094/cfw-65-3-0026
J. Brunetti, Sambuca Elderberries, Cherry Juice, W. Price
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引用次数: 0
期刊
Cereal Foods World
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