内生机盎然，翠绿藤蔓上串收番茄错落挂枝、长势喜人。AI数字化系统精准匹配水、肥、温、光、气等生长要素，
近年来，我市以“东农云”大数据平台为核心载体，打造畜禽粪污资源化利用智慧追溯系统，构建起“源头可溯、
污存放区全域监控覆盖、转运车辆加装北斗定位设备，从粪污收集、密闭转运到资源化处理还田，全流程信息线上
痕、可查可溯，彻底杜绝随意处置、乱排乱放的监管盲区。平台创新打造养殖分布“一张图”、粪污处置“一本账
原文链接：https://www.dongtai.gov.cn/art/2026/5/25/art_7946_4426899.html
而易见。”丰美禾生态牧业负责人栾志峰笑着说，通过养殖场的智慧物联网+AI技术，工作人员随时可通过手机了解生猪每日的喝水量、采食量、生长情况
，昔日被嫌弃的“垃圾”华丽变身为养殖场带来了新收益。“养殖场每天的粪污能产生5000立方米沼气，经过净化处理后进入发电机组，1立方米沼气可转
化为1.5—1.8度电能，初步估计，全年发电量能有近210万度。”栾志峰介绍，仅沼气发电一项，就能为企业节省电费支出超百万元，“多余的电量并入国家
原文链接：https://nyncj.wuhan.gov.cn/xwzx_25/whsn/202507/t20250718_2621953.html
igh-risk pregnancy hospitalization
Foaling out for high-risk pregnancies
Close-up of a brown horse wearing a rope halter, with a stable and blue sky in the background.
Stallion services
Stallion reproductive evaluation
Semen collection
Semen evaluation
Semen cryopreservation
Semen storage
Phantom training
Post-mortem gamete preservation
A practical, communication-focused approach
The Equine Theriogenology Service emphasizes timely appointments, clear explanations, and practical reproductive planning. Our team works to help clients understand the timing, options, and decisions involved in equin
rofitability and sustainability of most businesses, agricultural or otherwise (
Geroski et al., 1993 ;
Läpple and Thorne, 2019). Agriculture, especially in crop production, has been an early and rapid adopter of precision management techniques, which are usually powered by artificial intelligence (AI) tools to assist crop management and decision support (
Lowenberg-DeBoer and Erickson, 2019). However, the livestock production sector faces additional challenges compared to precision crop farming in the on-farm application of technology, such as animal mobility and rearing conditions that are u
原文链接：https://journals.aai.org/af/article/14/6/64/7942666?searchresult=1
ductive biotechnologies
1 Introduction
Reproductive biotechnologies have revolutionized animal breeding programs over the last 50 years, continuing to be the driving force behind improvements in reproductive performance. The use of nanotechnology, precision technologies and artificial intelligence (AI) are still in their infancy in animal reproduction, but their application to breeding programs are steadily increasing as the world finds new ways to promote sustainability, enhance conservation, and ensure food security for decades to come, particularly under climate change challenges.
This Rese
原文链接：https://www.frontiersin.org/journals/veterinary-science/articles/10.3389/fvets.2026.1790388/full
，为后续技术落地筑牢“需求导向”基础。
此次合作重点锚定两大关键方向，精准破解产业难题：一方面，构建“AI+疫病防控”智能体系。依托神农大模型的数据分析与预警能力，团队将协助鄂托克旗建立畜牧疫情动态监测机制
通过实时整合养殖场景数据、区域疫病历史信息，大模型可快速识别潜在疫情风险，向养殖户、基层兽医推送精准预警信息与防控建议，变“被动应对”为“主动预防”，既为兽医减负、降低人工排查成本，也为牲畜健康保驾护
原文链接：https://www.farmer.com.cn/2025/12/11/wap_991007616.html
editing
Luis O Tedeschi : Writing – review & editing
Received 2025 Apr 17; Accepted 2025 Nov 8; Collection date 2026.
© The Author(s) 2025. Published by Oxford University Press on behalf of the American Society of Animal Science.
PMCID: PMC12875599 PMID: 41410516
Abstract
Artificial intelligence (AI) can transform livestock farming as producers start using data-driven decisions in key areas, such as animal health, reproduction, behavior, nutrition, and production management. This review examines how AI technologies, like machine learning, computer vision, and sensor-based systems, help monit
中科闻歌联手中科院自动化所：AI水稻育种进入落地阶段
凤凰网科技
2026年07月03日 16:11:28 来自北京市
凤凰网科技讯 7月3日，中科闻歌科技股份有限公司、中国科学院自动化研究所、湖南省农业科学院昨日正式签署三方合作协议，将围绕“人工智能+农业科研”开展长期联合攻关，并以水稻育种为核心场景推进 AI for Science 技术落地。
根据合作安排，三方将聚焦科研数据治理、领域知识工程、科学基础模型、智能决策平台、产业成果转化五大方向，推动
针对2026年相关的AI畜牧、智能饲喂与动物育种领域，AI在农业中的应用可覆盖这些方向：AI+育种可利用AI算法加速基因型与表型数据分析，实现育种材料的智能化筛选、性状预测与亲本选配，加速智能育种模型构建并缩短育种周期；AI+畜禽养殖可探索智能饲喂系统，基于畜禽个体特征和实时环境数据，通过AI算法动态调整饲料配方和投喂量，还可通过物联网传感器采集环境参数自动调节通风、温控设备，通过智能耳标、项圈等设备实时监测畜禽生理参数
原文链接：https://nyncj.wuhan.gov.cn/zhlm/tzgg/202604/t20260416_2753862.html
其真正的“大脑”是一套名为“Cowgorithm”的自研AI算法。项圈内置传感器每分钟采集超过1000个数据点，涵盖牛的位置、运动轨迹、反刍情况、体温和发情周期等。Cowgorithm通过深度学习，不仅能判断一头牛“正在做什么”，更能预测它“将要发生什么”。
这套系统赋予牧场主前所未有的主动管理能力。健康预警方面，AI通过分析步态数据的微小变化，能比人眼提前数日发现跛行倾向；精准繁育方面，系统能准确识别发情期并预测产犊时间；优化轮牧方