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Artificial intelligence in soil science: Where do we go now? 土壤科学中的人工智能:我们该何去何从?
IF 2.3 4区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Pub Date : 2024-08-01 DOI: 10.1002/ael2.20134
Jose Pablo Castro, Caley K. Gasch, Paulo Flores

Recognizing the fast advancement of artificial intelligence (AI) in soil science, the main objective of this commentary paper is to discuss how this technology is being incorporated into the discipline, focusing on the most common algorithms and their applications. Employing a discursive and reflective methodology, the article draws insights from the authors' expertise and opinions. The paper explores some ethical considerations and the potential impact of AI on the job market and calls for a balanced approach that maximizes the benefits of this technology while vigilantly mitigating its negative implications to ensure the integrity and inclusivity of the profession.

Core Ideas

  • Artificial intelligence (AI) is changing soil science with advanced analytic and predictive modeling tools.
  • Ethical AI in soil science should focus on data integrity, privacy, and transparent research.
  • AI is reshaping the soil science job market, emphasizing the need for adaptability, and continuous learning.
  • Collaboration between technology and soil experts can lead to groundbreaking research and academic solutions.
  • AI, as a complementary tool, can enhance soil scientists' expertise, creativity, and problem-solving abilities.
认识到人工智能(AI)在土壤科学领域的快速发展,本评论文章的主要目的是讨论如何将这一技术融入该学科,重点关注最常见的算法及其应用。文章采用辨证和反思的方法,从作者的专业知识和观点中汲取见解。本文探讨了人工智能对就业市场的一些伦理考虑和潜在影响,并呼吁采取一种平衡的方法,在最大限度地发挥这项技术的益处的同时,警惕地减少其负面影响,以确保该行业的完整性和包容性。 核心观点 人工智能(AI)正在通过先进的分析和预测建模工具改变土壤科学。 土壤科学中的道德人工智能应关注数据完整性、隐私和透明研究。 人工智能正在重塑土壤科学就业市场,强调适应性和持续学习的必要性。 技术和土壤专家之间的合作可以带来突破性的研究和学术解决方案。 人工智能作为一种补充工具,可以提高土壤科学家的专业知识、创造力和解决问题的能力。
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引用次数: 0
Communicating the use of artificial intelligence in agricultural and environmental research 宣传人工智能在农业和环境研究中的应用
IF 2.3 4区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Pub Date : 2024-07-31 DOI: 10.1002/ael2.20144
Aaron Lee M. Daigh, Samira H. Daroub, Peter M. Kyveryga, Mark E. Sorrells, Nithya Rajan, James A. Ippolito, Endy Kailer, Christine S. Booth, Umesh Acharya, Deepak Ghimire, Saurav Das, Bijesh Maharjan, Yufeng Ge

Transformative technologies such as artificial intelligence (AI) make difficult tasks more accessible and convenient. Since 2018, the use of AI in research has increased drastically, with annual publication rates of 3–5 times higher than pre-2017. Currently, >100,000 manuscripts using AI are published annually within science and engineering, and >20,000 of these belong to the agricultural and environmental fields. Given the magnitude of use, clear communication on how AI is used and how it helps advance scientific knowledge is essential. Clear communication is perhaps more necessary with AI than previous technologies due to its broad and flexible spectrum of uses, the “black-box” nature of deep-learning algorithms, and ongoing debates regarding AI's predictive power versus knowledge of first-principles mechanistic and process-based theories and models. In this commentary, we provide guidelines and discussion points to the scientific community to ensure transparent and effective communication of AI research in agricultural and environmental research publications.

人工智能(AI)等变革性技术使艰巨的任务变得更加容易和便捷。2018年以来,人工智能在科研领域的应用急剧增加,年发表率是2017年前的3-5倍。目前,>每年在科学和工程领域发表的使用人工智能的稿件达10万篇,>其中2万篇属于农业和环境领域。鉴于人工智能的使用规模之大,就如何使用人工智能以及人工智能如何帮助推动科学知识的发展进行清晰的交流至关重要。与以往的技术相比,人工智能可能更需要清晰的沟通,这是因为人工智能的用途广泛而灵活,深度学习算法具有 "黑箱 "性质,而且关于人工智能的预测能力与第一原理机械论和基于过程的理论和模型知识之间的争论仍在继续。在这篇评论中,我们为科学界提供了指导原则和讨论要点,以确保在农业和环境研究出版物中对人工智能研究进行透明、有效的交流。
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引用次数: 0
Crop advisors in the intermountain west and the challenges of soil health 西部中山区的作物顾问和土壤健康面临的挑战
IF 2.3 4区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Pub Date : 2024-07-25 DOI: 10.1002/ael2.20142
Peggy Petrzelka, Jessica D. Ulrich-Schad, Matt Yost, Matthew J. Barnett

Both agricultural lands and the role of crop advisors remain comparatively understudied in the Intermountain West (IMW) when it comes to the topic of soil health. Data from a survey of crop advisors in Utah is used to understand current and future soil health work in the region. Not all crop advisors engage in soil health work, but more are discussing it with clients than in the past. Respondents noted that information and costs are key barriers for farmers to managing soil health. Advisors also do not always feel they have the information and answers about soil health practices that farmers need. While crop advisors are one option for promoting producer understanding about soil health in the IMW, work is needed to better prepare them, and farmers will need other options and support to be successful in managing soil health.

就土壤健康这一主题而言,美国西部中山区 (IMW) 的农业用地和作物顾问的作用仍然相对研究不足。我们通过对犹他州农作物顾问的调查数据来了解该地区当前和未来的土壤健康工作。并非所有作物顾问都从事土壤健康工作,但与过去相比,现在有更多的作物顾问与客户讨论土壤健康问题。受访者指出,信息和成本是农民管理土壤健康的主要障碍。顾问们也并不总是认为自己掌握了农民所需的土壤健康实践方面的信息和答案。在 IMW,作物顾问是促进生产者了解土壤健康的一种选择,但还需要努力使他们做好更充分的准备,而且农民还需要其他选择和支持才能成功管理土壤健康。
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引用次数: 0
Effect of wind speed and net radiation on the oasis effect in temperate rice paddy fields 风速和净辐射对温带稻田绿洲效应的影响
IF 2.3 4区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Pub Date : 2024-07-18 DOI: 10.1002/ael2.20141
Hyunki Kim, Bo-Kyeong Kim, Hyun-Dong Moon, Seo-Ho Shin, Hyeong Ju Lee, Jong-Sung Ha, Seungtaek Jeong, Jong-Min Yeom, Yoon Hyung Kim, Jaeil Cho

The oasis effect, characterized by atmospheric cooling due to excessive evapotranspiration (ET) and the inflow of warm air from the surroundings, has been well documented in vegetated oases. Despite its significant ET rates, the atmospheric cooling phenomenon in rice paddies has not received extensive exploration. This study investigates the oasis effect during July and August, the peak months for ET in rice fields in temperate climate. Over 3 years (2020–2022), energy flux observations using the eddy covariance method were conducted to analyze atmospheric cooling in paddy fields. The findings revealed a pronounced atmospheric cooling effect associated with negative sensible heat in paddy fields. Moreover, this cooling phenomenon exhibited heightened activity during periods of increased wind speeds (>3.5 m/s) and subdued net radiation (<400 W/m2). These results highlight rice paddies' potential to cool the atmosphere, acting as a countermeasure against global warming and the urban heat island effect.

绿洲效应的特点是由于过量的蒸散(ET)和周围暖空气的流入而导致大气降温,在植被丰富的绿洲中,这种效应已经得到了很好的记录。尽管水稻田的蒸散发率很高,但其大气降温现象尚未得到广泛探讨。本研究调查了温带气候水稻田 7 月和 8 月蒸散发高峰期的绿洲效应。在 3 年(2020-2022 年)的时间里,利用涡度协方差法进行了能量通量观测,以分析稻田中的大气降温现象。研究结果表明,与水稻田负显热相关的大气降温效应明显。此外,这种降温现象在风速增加(3.5 米/秒)和净辐射减弱(400 瓦/平方米)期间表现得更为活跃。这些结果凸显了水稻田冷却大气的潜力,可作为应对全球变暖和城市热岛效应的一种措施。
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引用次数: 0
Creating a bio-based circular economy from Louisiana sugarcane byproducts 利用路易斯安那州甘蔗副产品创建以生物为基础的循环经济
IF 2.3 4区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Pub Date : 2024-07-16 DOI: 10.1002/ael2.20140
G. Aita, D. Bhatnagar, G. O. Bruni, M. Deliberto, G. Eggleston, A. Finger, K. Gravois, M. Isied, W. Judice, K. T. Klasson, I. M. Lima, J. L. Purswell, M. Souliman, E. Terrell, B. S. Tubaña, H. L. Waguespack Jr., J. J. Wang, P. M. White Jr.

Sugarcane (Saccharum officinarum) is Louisiana's number one row crop. Growing and processing sugarcane produces significant amounts of byproducts, including bagasse, crop residue, molasses, filter-press mud, and boiler fly ash. These products represent an important opportunity to generate value-added and specialty products and enhance sugarcane's sustainability by facilitating a circular economy, where agricultural by-products are reused instead of disposing them (linear economy), in order to reduce resource use and energy demand. Examples of value-added products range from biochar, construction materials, animal feed, biofuels, nanoparticles, and fertilizer. Paramount to the success of the bio-based circular economy is creating useful products that are sustainable, economically, and environmentally acceptable. Some potential roadblocks to creating a successful bio-based circular economy from Louisiana's sugarcane by-products are highlighted.

Core Ideas

  • The Louisiana sugar industry produces large amounts of biomass-derived byproducts each year.
  • Byproducts could be reused, recycled, or reformed instead of being discarded.
  • Creating industries around these products boosts the circular economy.
甘蔗(Saccharum officinarum)是路易斯安那州的第一大农作物。甘蔗的种植和加工会产生大量的副产品,包括甘蔗渣、作物残渣、糖蜜、压滤机泥浆和锅炉粉煤灰。这些产品是生产增值产品和特色产品的重要机会,也是通过促进循环经济(即农业副产品的再利用而非处置(线性经济))来减少资源使用和能源需求,从而提高甘蔗可持续发展能力的重要机会。增值产品包括生物炭、建筑材料、动物饲料、生物燃料、纳米颗粒和肥料等。以生物为基础的循环经济要取得成功,最重要的是创造出在可持续发展、经济和环境方面均可接受的有用产品。本文重点介绍了利用路易斯安那州甘蔗副产品成功创建生物基循环经济的一些潜在障碍。 核心观点 路易斯安那州制糖业每年生产大量生物质副产品。 副产品可以重新利用、回收或改造,而不是丢弃。 围绕这些产品创建产业可促进循环经济。
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引用次数: 0
High rhizospheric ammonium levels in Sorghum halepense (johnsongrass) suggests nitrification inhibition potential 高粱(约翰逊草)根瘤层氨含量高,表明具有硝化抑制潜力
IF 2.3 4区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Pub Date : 2024-07-15 DOI: 10.1002/ael2.20137
Eeshita Ghosh, Nithya Rajan, Dinesh Phuyal, Nithya Subramanian, Muthukumar Bagavathiannan

Plants, such as sorghum (Sorghum bicolor), have been shown to secrete root exudates involved in biological nitrification inhibition (BNI), an ability to suppress the conversion of ammonium to nitrate and thereby minimize its loss. Johnsongrass (Sorghum halepense), a weedy relative of cultivated sorghum, may also possess BNI potential, but little is known in this regard. Here, we conducted a field survey at seven different sites in Southeast Texas to determine this evolutionary trait of johnsongrass in different soil environments. It was found that johnsongrass rhizosphere retains high levels (>60%) of ammonium within the total available N (ammonium + nitrate). Furthermore, the degree of ammonium retention by johnsongrass rhizosphere was significantly greater (up to 40%) in the roadside habitat compared to cultivated fields. The high ammonium retention potential by johnsongrass may explain, in part, their persistence and dominance, especially in marginal environments.

Core Ideas

  • Nitrogen is a limiting nutrient for plant growth, and nitrification causes loss of nitrogen.
  • Ammonium retention was higher in roadside johnsongrass biotypes compared to that of cropland biotypes.
  • The high rhizoshpheric ammonium retention by johnsongrass may explain, at least in part, its invasiveness.
  • This trait could be further investigated and integrated into modern sorghum cultivars.
研究表明,高粱(Sorghum bicolor)等植物的根部渗出物参与了生物硝化抑制(BNI),这种能力可抑制铵向硝酸盐的转化,从而最大限度地减少铵的流失。作为栽培高粱的一种杂草亲缘植物,约翰逊草(Sorghum halepense)也可能具有生物硝化抑制(BNI)潜能,但人们对此知之甚少。在此,我们在得克萨斯州东南部的七个不同地点进行了实地调查,以确定约翰逊草在不同土壤环境中的这一进化特性。结果发现,在可利用的氮(铵+硝酸盐)总量中,约翰逊草根瘤层保留了高浓度(60%)的铵。此外,与耕地相比,路边生境中的鹅掌楸根瘤层对铵的保留程度明显更高(高达 40%)。约翰逊草的高铵盐截留潜能在一定程度上解释了其持久性和优势,尤其是在边缘环境中。 核心观点 氮是植物生长的限制性养分,硝化作用会导致氮的流失。 与耕地生物型相比,路边约翰逊草生物型的铵保留率更高。 约翰逊草的根瘤铵保留率高,至少可以部分解释其入侵性。 可以进一步研究这一特性,并将其融入现代高粱栽培品种中。
{"title":"High rhizospheric ammonium levels in Sorghum halepense (johnsongrass) suggests nitrification inhibition potential","authors":"Eeshita Ghosh,&nbsp;Nithya Rajan,&nbsp;Dinesh Phuyal,&nbsp;Nithya Subramanian,&nbsp;Muthukumar Bagavathiannan","doi":"10.1002/ael2.20137","DOIUrl":"https://doi.org/10.1002/ael2.20137","url":null,"abstract":"<div>\u0000 \u0000 <section>\u0000 \u0000 \u0000 <p>Plants, such as sorghum (<i>Sorghum bicolor</i>), have been shown to secrete root exudates involved in biological nitrification inhibition (BNI), an ability to suppress the conversion of ammonium to nitrate and thereby minimize its loss. Johnsongrass (<i>Sorghum halepense</i>), a weedy relative of cultivated sorghum, may also possess BNI potential, but little is known in this regard. Here, we conducted a field survey at seven different sites in Southeast Texas to determine this evolutionary trait of johnsongrass in different soil environments. It was found that johnsongrass rhizosphere retains high levels (&gt;60%) of ammonium within the total available N (ammonium + nitrate). Furthermore, the degree of ammonium retention by johnsongrass rhizosphere was significantly greater (up to 40%) in the roadside habitat compared to cultivated fields. The high ammonium retention potential by johnsongrass may explain, in part, their persistence and dominance, especially in marginal environments.</p>\u0000 </section>\u0000 \u0000 <section>\u0000 \u0000 <h3> Core Ideas</h3>\u0000 \u0000 <div>\u0000 <ul>\u0000 \u0000 <li>Nitrogen is a limiting nutrient for plant growth, and nitrification causes loss of nitrogen.</li>\u0000 \u0000 <li>Ammonium retention was higher in roadside johnsongrass biotypes compared to that of cropland biotypes.</li>\u0000 \u0000 <li>The high rhizoshpheric ammonium retention by johnsongrass may explain, at least in part, its invasiveness.</li>\u0000 \u0000 <li>This trait could be further investigated and integrated into modern sorghum cultivars.</li>\u0000 </ul>\u0000 </div>\u0000 </section>\u0000 </div>","PeriodicalId":48502,"journal":{"name":"Agricultural & Environmental Letters","volume":"9 2","pages":""},"PeriodicalIF":2.3,"publicationDate":"2024-07-15","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://onlinelibrary.wiley.com/doi/epdf/10.1002/ael2.20137","citationCount":null,"resultStr":null,"platform":"Semanticscholar","paperid":"141631177","PeriodicalName":null,"FirstCategoryId":null,"ListUrlMain":null,"RegionNum":4,"RegionCategory":"农林科学","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":"OA","EPubDate":null,"PubModel":null,"JCR":null,"JCRName":null,"Score":null,"Total":0}
引用次数: 0
Forty-two years of no-tillage and cover cropping improved soil oxygen availability and resilience 42 年的免耕和覆盖种植改善了土壤的氧气供应和韧性
IF 2.3 4区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Pub Date : 2024-06-19 DOI: 10.1002/ael2.20135
Facundo Lussich, Jashanjeet Kaur Dhaliwal, Wesley Wright, Debasish Saha

Healthy soil air–water balance is critical for crop growth. Conservation agricultural practices improve soil physical properties to influence soil oxygen availability. We evaluated the impact of 42 years of hairy vetch (HV) cover cropping (CC), and no-tillage (NT) on soil oxygen dynamics during a cotton growing season experiencing multiple intensive rain events in silt loam soil. The HV and NT treatments exhibited higher growing season soil oxygen availability (< 0.05) and experienced three to four times fewer hours of oxygen limitation (i.e., oxygen concentration <10%) as compared to no cover crop (NC) and conventional tillage (CT) treatments. After a heavy rainfall, NT–HV treatment exhibited the highest soil oxygen availability, followed by NT–NC, CT–HV, and CT–NC treatments (< 0.05). While CC and/or NT treatments quickly regained soil oxygen status within 24 h after saturating rain events, CT–NC suffered from sub-optimal soil aeration until the third day after rainfall cessation. The combination of CC with NT practices enhanced soil oxygen availability and resilience to extreme precipitation events.

Core Ideas

  • Long-term cover cropping and no-tillage practices enhanced soil oxygen availability following extreme precipitation events.
  • Cover cropping and no-tillage practices reduced the duration of anoxia experienced by cotton crops during the growing season by three- to four-fold.
  • Combined cover cropping and no-tillage implementation exhibited the most significant impact in mitigating immediate soil oxygen stress after heavy rainfall events.
健康的土壤气水平衡对作物生长至关重要。保护性农业措施可以改善土壤的物理特性,从而影响土壤氧气的供应。我们评估了在淤泥质壤土中棉花生长季经历多次强降雨事件期间,42 年的毛绒草(HV)覆盖种植(CC)和免耕(NT)对土壤氧气动态的影响。与无覆盖作物(NC)和传统耕作(CT)处理相比,HV 和 NT 处理的生长季土壤供氧量更高(p < 0.05),氧气受限时间(即氧气浓度 <10%)减少了三到四倍。暴雨过后,NT-HV 处理的土壤供氧量最高,其次是 NT-NC、CT-HV 和 CT-NC 处理(p <0.05)。CC和/或NT处理在饱和降雨后24小时内迅速恢复了土壤氧气状况,而CT-NC直到降雨停止后第三天土壤通气状况仍未达到最佳。CC与NT相结合的做法提高了土壤氧气的可用性和对极端降水事件的适应能力。 核心观点 长期覆盖种植和免耕措施提高了极端降水事件后土壤的氧气供应。 覆盖种植和免耕措施将棉花作物在生长季节的缺氧期缩短了三至四倍。 覆盖种植和免耕相结合的做法在减轻暴雨事件后的直接土壤氧气压力方面具有最显著的影响。
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引用次数: 0
Assessment of Segal method for identifying crystallinity evolution in developing cotton fibers 评估用于识别棉纤维发育过程中结晶度演变的 Segal 方法
IF 2.6 4区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Pub Date : 2024-06-16 DOI: 10.1002/ael2.20138
Sunghyun Nam, Yongliang Liu, Zhongqi He, Doug J. Hinchliffe, David Fang

The crystallinity index (CI) is an important parameter in evaluating cotton fiber quality. Due to its ease and speed in measuring CIs from X-ray diffraction (XRD) patterns, the Segal method is popularly used. In this study, we assessed the Segal method for monitoring the crystallinity evolution in developing cotton (Gossypium L.) fibers between 20 and 60 days post anthesis (DPAs) by comparing Segal CIs with those obtained from a Fourier transform infrared spectroscopy-based method and other XRD-based methods. The Segal method estimated higher CIs than other methods, especially for shorter DPAs. The Segal method suggested a rapid evolution of crystallinity in the early developmental stage, whereas other methods suggested a gradual increase in crystallinity. The calculation of diffraction patterns for cellulose Iβ crystallites with different sizes showed very little effect of the crystallite size on the Segal CIs for developing cotton fibers studied.

结晶度指数(CI)是评估棉纤维质量的一个重要参数。由于从 X 射线衍射 (XRD) 图样中测量 CI 既简单又快速,Segal 方法被广泛使用。在本研究中,我们通过比较 Segal CI 与基于傅立叶变换红外光谱的方法和其他基于 XRD 的方法所获得的 CI,评估了 Segal 方法在花后 20 天至 60 天(DPAs)监测棉花(Gossypium L.)纤维结晶度演变的效果。与其他方法相比,西格尔方法估算出的 CI 值更高,尤其是对于较短的 DPA。Segal 方法表明结晶度在早期发育阶段演变迅速,而其他方法则表明结晶度逐渐增加。对不同尺寸的纤维素 Iβ 结晶体的衍射图样进行计算后发现,对于所研究的发育中棉纤维,结晶体尺寸对 Segal CIs 的影响很小。
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引用次数: 0
Searching for soil: Elucidating public interest in soil and soil conservation from 20 years of internet search trends 搜索土壤:从 20 年的互联网搜索趋势看公众对土壤和土壤保护的兴趣
IF 2.6 4区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Pub Date : 2024-06-12 DOI: 10.1002/ael2.20133
Samuel W. Booth

Over the last two decades, soil science research has undergone rapid expansion. Understanding public interest in soil science is vital for evaluating dissemination efforts and situating it in the broader environmental discourse. Analyzing Google Trends search data from 2004 to 2023, this study investigates spikes in search volume index (SVI) for soil-related searches and potential influences. Significant spikes in SVI between 2019–2020 and 2021–2022 were observed for a number of soil characteristics and soil conservation searches. Similar spikes were observed for possible influences such as the documentary “Kiss the ground,” and SVI related to climate change and carbon sequestration. Notably, SVI for “sustainable development goals” aligned with similar patterns in SVI for “soil health,” indicating a possible link between soil interest and the United Nations’ sustainability goals. This study underscores the seemingly rising interest in soil science, possibly linked with dissemination events, and broader environmental concerns and policies.

过去二十年来,土壤科学研究迅速发展。了解公众对土壤科学的兴趣对于评估传播工作和将土壤科学置于更广泛的环境讨论中至关重要。本研究分析了 2004 年至 2023 年的谷歌趋势搜索数据,研究了土壤相关搜索的搜索量指数(SVI)峰值及其潜在影响因素。在 2019-2020 年和 2021-2022 年期间,一些土壤特性和土壤保护搜索的 SVI 出现了显著峰值。纪录片《亲吻大地》等可能的影响因素以及与气候变化和碳封存相关的 SVI 也出现了类似的峰值。值得注意的是,"可持续发展目标 "的 SVI 与 "土壤健康 "的 SVI 中的类似模式一致,表明土壤兴趣与联合国的可持续发展目标之间可能存在联系。这项研究强调,人们对土壤科学的兴趣似乎在不断提高,这可能与传播活动以及更广泛的环境问题和政策有关。
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引用次数: 0
Thanks to our 2023 reviewers 感谢我们的 2023 年审查员
IF 2.6 4区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Pub Date : 2024-05-28 DOI: 10.1002/ael2.20136

Maintaining the editorial standards of a scientific journal is the primary task of the journal editors. Their task is made much easier with the help of colleagues who are invited to review manuscripts. Through their critical comments and helpful suggestions, these volunteer reviewers have done much to maintain and further the quality of research reported in Agricultural & Environmental Letters. The members of the Agricultural & Environmental Letters Editorial Board express their appreciation to the following individuals who reviewed manuscripts in 2023. Many of the reviewers listed below reviewed more than one paper. We extend our apologies and thanks to those reviewers whose names have been inadvertently omitted from this list.

Anapalli, Saseendran

Ansari, Jamshid

Armstrong, Shalamar

Asci, Serhat

Bhandari, Ammar

Buda, Anthony

Castellano, Michael

Chatterjee, Amitava

Chen, Chang-Er

Chiluwal, Anuj

Choi, Woo-Jung

Christianson, Laura

Cihacek, Larry

Crespo, Cecilia

Culman, Steven

Daigh, Aaron

Dey, Shuvashis

Dhakal, Madhav

Douzals, Jean Paul

Duquette, Cameron

Duzy, Leah

Fernández Jorquera, Francisco José

Galagedara, Lakshman

Ghatrehsamani, Shirin

Haruna, Samuel

He, Jinxi

He, Yangbo

Hopkins, Bryan

Jha, Gaurav

Joshi, Deepak R.

Joshi, Vijaya

Kharel, Tulsi

Knappenberger, Thorsten

Kolka, Randy

Kral-O'Brien, Katherine

Kronenberg, Raelin

Kumar, Chandan

Li, Sheng

Licht, Mark

Locke, Anna

Malone, Lindsay

Marx, Adam

McGuire, Andrew

Millar, David

Moore, Matt

Mowrer, Jake

Nam, Sunghyun

O'Brien, Peter

Pease, Lindsay

Provin, Tony

Ranville, Michelle

Ricart, Sandra

Roper, Wayne

Rosinger, Christoph

Ruark, Matthew

Rui, Yichao

Sanford, Gregg

Sassenrath, Gretchen

Sawadgo, Wendiam

Schlossberg, Maxim

Schneider, S. K.

Severino Da Silva, Liliane

Singh, Arshdeep

Singh, Hardeep

Slaughter, Lindsey C.

Smith, William

Sun, Luyi

Swenson, Rebecca

Villarreal, R.

Wade, Jordon

Wherley, Benjamin

White, Charles

White, Paul

Wooliver, Rachel

Worosz, Michelle

Young, Joseph

Zhang, Hailin

保持科学期刊的编辑标准是期刊编辑的首要任务。有了受邀审稿的同行们的帮助,他们的任务就轻松多了。这些志愿审稿人通过提出批评意见和有益建议,为保持和提高《农业与环境通讯》的研究质量做出了巨大贡献。Agricultural & Environmental Letters 编辑委员会成员对 2023 年审稿的以下人员表示感谢。下面列出的许多审稿人审阅了不止一篇论文。对于名单中不慎遗漏的审稿人,我们深表歉意和感谢。Anapalli, SaseendranAnsari, JamshidArmstrong, ShalamarAsci, SerhatBhandari, AmmarBuda, AnthonyCastellano, MichaelChatterjee, AmitavaChen, Chang-ErChiluwal, AnujChoi, Woo-JungChristianson, LauraCihacek, LarryCrespo, CeciliaCulman, StevenDaigh、AaronDey、ShuvashisDhakal、MadhavDouzals、JeanPaulDuquette、CameronDuzy、LeahFernándezJorquera、FranciscoJoséGalagedara、LakshmanGhatrehsamani、ShirinHaruna、SamuelHe、JinxiHe、YangboHopkins、BryanJha、GauravJoshi、DeepakR.Joshi, VijayaKharel, TulsiKnappenberger, ThorstenKolka, RandyKral-O'Brien, KatherineKronenberg, RaelinKumar, ChandanLi, ShengLicht, MarkLocke, AnnaMalone, LindsayMarx, AdamMcGuire, AndrewMillar, DavidMoore, MattMowrer、JakeNam、SungghyunO'Brien、PeterPease、LindsayProvin、TonyRanville、MichelleRicart、SandraRoper、WayneRosinger、ChristophRuark、MatthewRui、YichaoSanford、GreggSassenrath、GretchenSawadgo、WendiamSchlossberg、MaximSchneider、S.K.Severino Da Silva、LilianeSingh、ArshdeepSingh、HardeepSlaughter、Lindsey C.Smith、WilliamSun、LuyiSwenson、RebeccaVillarreal、R.Wade、JordonWherley、BenjaminWhite、CharlesWhite、PaulWooliver、RachelWorosz、MichelleYoung、JosephZhang、Hailin
{"title":"Thanks to our 2023 reviewers","authors":"","doi":"10.1002/ael2.20136","DOIUrl":"https://doi.org/10.1002/ael2.20136","url":null,"abstract":"<p>Maintaining the editorial standards of a scientific journal is the primary task of the journal editors. Their task is made much easier with the help of colleagues who are invited to review manuscripts. Through their critical comments and helpful suggestions, these volunteer reviewers have done much to maintain and further the quality of research reported in <i>Agricultural &amp; Environmental Letters</i>. The members of the <i>Agricultural &amp; Environmental Letters</i> Editorial Board express their appreciation to the following individuals who reviewed manuscripts in 2023. Many of the reviewers listed below reviewed more than one paper. We extend our apologies and thanks to those reviewers whose names have been inadvertently omitted from this list.</p><p>Anapalli, Saseendran</p><p>Ansari, Jamshid</p><p>Armstrong, Shalamar</p><p>Asci, Serhat</p><p>Bhandari, Ammar</p><p>Buda, Anthony</p><p>Castellano, Michael</p><p>Chatterjee, Amitava</p><p>Chen, Chang-Er</p><p>Chiluwal, Anuj</p><p>Choi, Woo-Jung</p><p>Christianson, Laura</p><p>Cihacek, Larry</p><p>Crespo, Cecilia</p><p>Culman, Steven</p><p>Daigh, Aaron</p><p>Dey, Shuvashis</p><p>Dhakal, Madhav</p><p>Douzals, Jean Paul</p><p>Duquette, Cameron</p><p>Duzy, Leah</p><p>Fernández Jorquera, Francisco José</p><p>Galagedara, Lakshman</p><p>Ghatrehsamani, Shirin</p><p>Haruna, Samuel</p><p>He, Jinxi</p><p>He, Yangbo</p><p>Hopkins, Bryan</p><p>Jha, Gaurav</p><p>Joshi, Deepak R.</p><p>Joshi, Vijaya</p><p>Kharel, Tulsi</p><p>Knappenberger, Thorsten</p><p>Kolka, Randy</p><p>Kral-O'Brien, Katherine</p><p>Kronenberg, Raelin</p><p>Kumar, Chandan</p><p>Li, Sheng</p><p>Licht, Mark</p><p>Locke, Anna</p><p>Malone, Lindsay</p><p>Marx, Adam</p><p>McGuire, Andrew</p><p>Millar, David</p><p>Moore, Matt</p><p>Mowrer, Jake</p><p>Nam, Sunghyun</p><p>O'Brien, Peter</p><p>Pease, Lindsay</p><p>Provin, Tony</p><p>Ranville, Michelle</p><p>Ricart, Sandra</p><p>Roper, Wayne</p><p>Rosinger, Christoph</p><p>Ruark, Matthew</p><p>Rui, Yichao</p><p>Sanford, Gregg</p><p>Sassenrath, Gretchen</p><p>Sawadgo, Wendiam</p><p>Schlossberg, Maxim</p><p>Schneider, S. K.</p><p>Severino Da Silva, Liliane</p><p>Singh, Arshdeep</p><p>Singh, Hardeep</p><p>Slaughter, Lindsey C.</p><p>Smith, William</p><p>Sun, Luyi</p><p>Swenson, Rebecca</p><p>Villarreal, R.</p><p>Wade, Jordon</p><p>Wherley, Benjamin</p><p>White, Charles</p><p>White, Paul</p><p>Wooliver, Rachel</p><p>Worosz, Michelle</p><p>Young, Joseph</p><p>Zhang, Hailin</p>","PeriodicalId":48502,"journal":{"name":"Agricultural & Environmental Letters","volume":"9 1","pages":""},"PeriodicalIF":2.6,"publicationDate":"2024-05-28","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://onlinelibrary.wiley.com/doi/epdf/10.1002/ael2.20136","citationCount":null,"resultStr":null,"platform":"Semanticscholar","paperid":"141164884","PeriodicalName":null,"FirstCategoryId":null,"ListUrlMain":null,"RegionNum":4,"RegionCategory":"农林科学","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":"OA","EPubDate":null,"PubModel":null,"JCR":null,"JCRName":null,"Score":null,"Total":0}
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Agricultural & Environmental Letters
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