Participatory AI for inclusive crop improvement

IF 6.1 1区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY
Violet Lasdun , Davíd Güereña , Berta Ortiz-Crespo , Stephen Mutuvi , Michael Selvaraj , Teshale Assefa
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引用次数: 0

Abstract

CONTEXT

Crop breeding in the Global South faces a ‘phenotyping bottleneck’ due to reliance on manual visual phenotyping, which is both error-prone and challenging to scale across multiple environments, inhibiting selection of germplasm adapted to farmer production environments. This limitation impedes rapid varietal turnover, crucial for maintaining high yields and food security under climate change. Low adoption of improved varieties results from a top-down system in which farmers have been more passive recipients than active participants in varietal development.

OBJECTIVE

A new suite of research at the Alliance of Bioversity and CIAT seeks to democratize crop breeding by leveraging mobile phenotyping technologies for high-quality, decentralized data collection. This approach aims to resolve the inherent limitations and inconsistencies in traditional visual phenotyping methods, allowing for more accurate and efficient crop assessment. In parallel, the research seeks to harness multimodal data on farmer preferences to better tailor variety development xzto meet specific production and consumption goals.

METHODS

Novel mobile phenotyping tools were developed and field-tested on breeder stations in Colombia and Tanzania, and data from these trials were analyzed for quality and accuracy, and compared with traditional manual estimates and absolute ground truth data. Concurrently, Human-Centered Design (HCD) methods were applied to ensure the technology suits its context of use, and serves the nuanced requirements of breeders.

RESULTS AND CONCLUSIONS

Computer vison (CV)-enabled mobile phenotyping achieved a significant reduction in scoring variation, attaining imagery-modeled trait accuracies with Pearson Correlation values between 0.88 and 0.95 with ground truth data, and reduced labor requirements with the ability to fully phenotype a breeder's plot (4 m × 3 m) in under a minute. With this technology, high-quality quantitative phenotyping data can be collected by anyone with a smartphone, expanding the potential to measure crop performance in decentralized on-farm environments and improving accuracy and speed of crop improvement on breeder stations.

SIGNIFICANCE

Inclusive innovations in mobile phenotyping technologies and AI-supported data collection enable rapid, accurate trait assessment and actively involve farmers in variety selection, aligning breeding programs with local needs and preferences. These advancements offer a timely solution for accelerating varietal turnover to mitigate climate change impacts, while ensuring developed varieties are both high-performing and culturally relevant.

Abstract Image

参与式人工智能促进包容性作物改良
内容提要 全球南部的作物育种面临着 "表型瓶颈",原因是依赖人工目测表型,既容易出错,又难以在多种环境中推广,从而阻碍了适应农民生产环境的种质选育。这种限制阻碍了品种的快速更替,而这对于在气候变化条件下保持高产和粮食安全至关重要。生物多样性联盟和国际热带农业研究中心(CIAT)的一套新研究旨在利用移动表型技术进行高质量的分散数据收集,从而实现作物育种的民主化。这种方法旨在解决传统视觉表型方法的固有局限性和不一致性,从而实现更准确、更高效的作物评估。方法开发了先进的移动表型工具,并在哥伦比亚和坦桑尼亚的育种站进行了实地测试,对测试数据的质量和准确性进行了分析,并与传统的人工估计和绝对地面实况数据进行了比较。同时,还采用了以人为本的设计(HCD)方法,以确保该技术适合其使用环境,并满足育种者的细微要求。结果与结论支持计算机视觉(CV)的移动表型技术显著减少了评分差异,达到了图像建模的性状准确度,与地面实况数据的皮尔逊相关值介于 0.88 和 0.95 之间,并减少了劳动力需求,能够在一分钟内对育种者的小区(4 m × 3 m)进行全面表型。有了这项技术,任何拥有智能手机的人都能收集到高质量的定量表型数据,从而扩大了在分散的农场环境中测量作物表现的潜力,并提高了育种站作物改良的准确性和速度。 意义 移动表型技术和人工智能支持的数据收集方面的包容性创新实现了快速、准确的性状评估,并使农民积极参与品种选择,使育种计划符合当地的需求和偏好。这些进步为加快品种更新以减轻气候变化影响提供了及时的解决方案,同时确保培育出的品种既性能优异,又与文化相关。
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来源期刊
Agricultural Systems
Agricultural Systems 农林科学-农业综合
CiteScore
13.30
自引率
7.60%
发文量
174
审稿时长
30 days
期刊介绍: Agricultural Systems is an international journal that deals with interactions - among the components of agricultural systems, among hierarchical levels of agricultural systems, between agricultural and other land use systems, and between agricultural systems and their natural, social and economic environments. The scope includes the development and application of systems analysis methodologies in the following areas: Systems approaches in the sustainable intensification of agriculture; pathways for sustainable intensification; crop-livestock integration; farm-level resource allocation; quantification of benefits and trade-offs at farm to landscape levels; integrative, participatory and dynamic modelling approaches for qualitative and quantitative assessments of agricultural systems and decision making; The interactions between agricultural and non-agricultural landscapes; the multiple services of agricultural systems; food security and the environment; Global change and adaptation science; transformational adaptations as driven by changes in climate, policy, values and attitudes influencing the design of farming systems; Development and application of farming systems design tools and methods for impact, scenario and case study analysis; managing the complexities of dynamic agricultural systems; innovation systems and multi stakeholder arrangements that support or promote change and (or) inform policy decisions.
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