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粮食中农药残留检测技术研究

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图书在版编目(OCLC)数据 粮食中农药残留检测技术研究|王学锋 吕 捷 霍 磊 张树华 范文新 主编. --前沿科学出版社 2025.12. ISBN:979-8-9591-3755-7 Ⅰ.①粮…Ⅱ. ①王…Ⅲ.①绪论②粮食中常见农药及其理化特性… 图书馆 OCLC 数据核字(2025)第 1570100998 号 书 名:粮食中农药残留检测技术研究 出版发行:前沿科学出版社 社 址:195 PEARL'SHILLTERRACE,#03-50K,SINGAPORE 168976 邮 编:168976 开 本:185mm×260mm 1/16 印 张:20.75 字 数:300 千字 版 次:2025 年 12 月第一版 印 次:2025 年 12 月第一次印刷 书 号:979-8-9591-3755-7 本书为系统性研究粮食中农药残留检测技术的专著。全书分为四篇,第一篇从 粮食安全与农药残留问题出发,深入剖析了常见农药的理化特性及其在粮食中的来 源与危害机制。第二篇详细介绍了检测技术体系,包括样品前处理技术、仪器分析 检测技术、快速筛查与现场检测技术以及新兴检测技术的研究进展。第三篇阐述了 质量体系与标准,探讨了分析方法的验证标准、标准物质应用、实验室间比对及国 际标准与法规体系。第四篇通过典型案例分析,探讨了当前面临的挑战与未来展望。 本书适合食品科学、农产品质量检测专业的学生、科研人员及相关从业者阅读参考, 助力推动粮食质量安全检测技术的创新与进步。 各章节作者具体贡献如下: 吕捷负责第一篇“基础理论”,撰写第 1 章“绪论”与第 2 章“粮食中常见农 药及其理化特性”,核心贡献为系统梳理粮食安全与农药残留问题现状,明确农药 残留的定义、分类、来源及危害机制,并解析六大类常见农药的化学结构、残留特 性及其与检测的关联性,为全书奠定理论基础。 张树华负责第二篇“检测技术体系”,撰写第 3 章“样品前处理技术”与第 4 章“仪器分析检测技术”,核心贡献包括规范样品采集与保存原则,详细阐述提取、 净化、浓缩与复溶等技术,并对色谱、质谱联用及多维色谱技术进行系统介绍,构 建了标准化实验室检测技术体系。 王学锋参与第二篇编写,撰写第 5 章“快速筛查与现场检测技术”与第 6 章“新 兴检测技术研究”,核心贡献在于解析免疫分析法、生物传感器等现场快速检测技 术,并探索纳米材料增强传感、分子印迹聚合物等新兴技术及组学与人工智能辅助 算法在检测中的应用,拓展了技术体系的边界。 霍磊负责第三篇“质量体系与标准”,撰写第 7 章“方法验证与质量控制体系” 与第 8 章“国际标准与法规体系”,核心贡献为依据 ISO/IEC 17025 标准规范分析 方法验证与标准物质应用,系统解析国内外核心标准与法规体系,对比限量要求与 监管机制,为检测合规性提供依据。 范文新负责第四篇“应用实践与展望”,撰写第 9 章“典型案例分析”与第 10 章“挑战与未来展望”,核心贡献包括围绕典型应用场景构建针对性检测方案并进 行验证,总结行业现状与挑战,展望绿色分析技术、全球协同监管及智能检测系统 等发展方向,形成完整的学术闭环。
目 录
第一篇 基础理论
第 1 章 绪论 ························································································· 1
第一节 研究背景与意义 ···································································· 1
一、粮食安全与农药残留问题 ························································ 1
二、国内外农药残留监管现状 ························································ 3
第二节 农药残留的定义与分类 ··························································· 8
一、农药残留的定义阐释 ······························································ 8
二、农药残留的分类体系 ······························································ 9
第三节 粮食中农药残留的主要来源与危害机制 ···································· 12
一、粮食中农药残留的主要来源 ··················································· 12
二、粮食中农药残留的危害机制 ··················································· 18
第 2 章 粮食中常见农药及其理化特性 ······················································ 28
第一节 有机磷类农药 ······································································28
一、有机磷类农药的化学结构特征 ················································ 28
二、粮食中常见有机磷类农药品种及其残留特性 ······························ 29
三、有机磷类农药的理化特性与检测关联性 ···································· 33
第二节 拟除虫菊酯类农药 ································································37
一、拟除虫菊酯类农药的化学结构特征 ·········································· 37
二、粮食中常见拟除虫菊酯类农药品种及其残留特性 ························ 38
三、拟除虫菊酯类农药的理化特性与检测关联性 ······························ 42
第三节 氨基甲酸酯类农药 ································································47
一、氨基甲酸酯类农药的化学结构特征 ·········································· 47
二、粮食中常见氨基甲酸酯类农药品种及其残留特性 ························ 49
三、氨基甲酸酯类农药的理化特性与检测关联性 ······························ 53
第四节 三唑类杀菌剂 ······································································58
一、三唑类杀菌剂的化学结构特征 ················································ 58
二、粮食中常见三唑类杀菌剂品种及其残留特性 ······························ 60
三、三唑类杀菌剂的理化特性与检测关联性 ···································· 63
第五节 新烟碱类杀虫剂 ···································································67
一、新烟碱类杀虫剂的化学结构特征 ············································· 67
二、粮食中常见新烟碱类杀虫剂品种及其残留特性 ··························· 68
三、新烟碱类杀虫剂的理化特性与检测关联性 ································· 72
第六节 农药代谢产物与降解规律 ······················································ 77
一、农药代谢产物的分类与毒性特征 ············································· 77
二、粮食中农药降解的主要途径 ··················································· 80
第二篇 检测技术体系
第 3 章 样品前处理技术 ·········································································84
第一节 样品采集与保存规范 ·····························································84
一、样品采集的基本原则 ·····························································84
二、样品保存策略 ······································································86
第二节 提取技术 ············································································89
一、QuEChERS 法····································································· 89
二、固相萃取(SPE) ································································ 91
三、加速溶剂萃取(ASE) ··························································93
第三节 净化技术 ············································································96
一、分散固相萃取(d-SPE)························································96
二、凝胶渗透色谱(GPC) ··························································98
三、基质分散固相萃取(MSPD) ················································101
第四节 浓缩与复溶技术 ································································· 103
一、浓缩技术 ·········································································· 103
二、复溶技术 ·········································································· 109
第 4 章 仪器分析检测技术 ···································································· 113
第一节 色谱技术 ·········································································· 113
一、气相色谱法(GC) ····························································· 113
二、液相色谱法(HPLC/UPLC) ·················································117
第二节 质谱联用技术 ···································································· 121
一、GC-MS/MS ········································································121
二、LC-MS/MS ········································································ 124
三、高分辨质谱(HRMS)应用 ·················································· 127
第三节 多维色谱技术(GC×GC,LC-LC) ········································· 129
一、全二维气相色谱(GC×GC) ················································129
二、二维液相色谱(LC-LC) ····················································· 132
第 5 章 快速筛查与现场检测技术 ··························································· 136
第一节 免疫分析法(ELISA) ·························································136
一、技术原理与核心要素 ··························································· 136
二、核心类型与操作流程 ··························································· 139
第二节 生物传感器技术 ································································· 143
一、技术原理与核心组成 ··························································· 143
二、核心类型与粮食检测应用 ····················································· 145
第三节 拉曼光谱快速检测 ······························································ 149
一、技术原理与核心特性 ··························································· 149
二、核心类型与粮食检测适配性 ·················································· 152
第四节 纸基微流控芯片 ································································· 155
一、技术原理与核心特性 ··························································· 155
二、核心制备工艺与材料选择 ····················································· 156
第五节 便携式质谱仪应用 ······························································ 159
一、技术原理与核心特性 ··························································· 159
二、核心类型与粮食检测适配性 ·················································· 161
第 6 章 新兴检测技术研究进展 ······························································ 166
第一节 纳米材料增强传感技术 ························································ 166
一、技术原理与核心特性 ··························································· 166
二、核心纳米材料类型与传感机制 ···············································168
三、传感模式与粮食检测流程 ····················································· 171
四、关键影响因素与性能优化 ····················································· 173
第二节 分子印迹聚合物(MIPs)···················································· 175
一、技术原理与核心特性 ··························································· 175
二、制备方法与识别机制 ··························································· 177
三、MIPs 在粮食农药残留检测中的应用 ········································180
四、关键影响因素与性能优化 ····················································· 183
第三节 适配体传感器 ···································································· 185
一、技术原理与核心特性 ··························································· 185
二、适配体筛选方法与识别机制 ·················································· 188
三、适配体传感器的传感模式与粮食检测应用 ································189
第四节 组学技术在残留分析中的应用 ···············································192
一、核心组学技术类型与检测原理 ···············································192
二、组学技术在粮食农药残留分析中的应用场景 ·····························194
三、组学技术的分析流程与优化 ·················································· 196
第五节 人工智能辅助检测算法 ························································ 198
一、核心算法类型与技术原理 ····················································· 198
二、人工智能辅助检测算法的应用场景 ·········································200
三、人工智能辅助检测算法的实现流程与优化 ································201
第三篇 质量体系与标准
第 7 章 方法验证与质量控制体系 ··························································· 205
第一节 分析方法的验证标准(ISO/IEC 17025)·································· 205
一、线性范围、检出限与定量限 ·················································· 205
二、准确度与精密度评价 ··························································· 207
第二节 标准物质(CRM)的应用 ···················································· 210
一、粮食农药残留检测用标准物质的分类与特性 ·····························210
二、标准物质在粮食农药残留检测中的核心应用场景 ·······················213
三、标准物质的使用规范与质量控制 ············································217
第三节 实验室间比对与能力验证 ····················································· 219
一、实验室间比对与能力验证的概念辨析与核心差异 ·······················219
二、粮食农药残留检测实验室间比对的组织实施流程 ·······················221
三、粮食农药残留检测能力验证的组织实施流程 ·····························223
第四节 不确定度评估模型 ······························································ 225
一、不确定度评估的核心概念与基本原理 ······································225
二、粮食农药残留检测中的不确定度来源分析 ································227
三、粮食农药残留检测不确定度评估模型的构建方法 ·······················229
四、不确定度评估模型的验证与控制 ············································231
第 8 章 国际标准与法规体系 ································································· 232
第一节 中国国家标准(GB)与行业标准 ···········································232
一、标准体系构成与层级关系 ····················································· 232
二、核心国家标准内容解析 ························································ 235
第二节 国际食品法典(CAC)限量标准 ············································238
一、CAC 标准体系构成与粮食相关框架········································238
二、CAC 粮食农药残留限量核心内容解析 ·····································239
三、CAC 标准制定机制与国际协调·············································· 241
第三节 欧盟 EC No 396/2005 法规 ···················································· 242
一、EC No 396/2005 法规体系构成与核心框架································242
二、EC No 396/2005 法规中粮食农药残留限量核心内容解析············· 244
三、EC No 396/2005 法规的检测与监管要求 ···································247
第四节 美国 EPA/FDA 监管体系 ······················································ 250
一、监管机构分工与协同机制 ····················································· 250
二、核心法规框架与粮食相关条款 ···············································252
三、粮食农药残留限量体系与制定逻辑 ·········································253
第五节 日本肯定列表制度 ······························································ 256
一、肯定列表制度的体系构成与法律依据 ······································256
二、粮食相关限量标准的制定逻辑与技术特点 ································257
三、肯定列表制度的监管机制:从进口到市场的全链条管控 ············· 259
第四篇 应用实践与展望
第 9 章 典型案例分析 ·········································································· 263
第一节 谷物中多农药残留同步检测 ·················································· 263
一、检测方法构建:QuEChERS-色谱-质谱联用技术体系 ·················· 263
二、实际样品检测与方法验证 ····················································· 265
第二节 油脂基质中痕量残留分析 ····················································· 266
一、油脂基质特性与检测核心难点 ···············································266
二、前处理技术优化:从脂肪去除到痕量富集 ································267
三、仪器检测体系构建:GC-MS/MS 的适配性调整 ························· 270
四、实际样品检测与方法验证 ····················································· 271
第三节 仓储杀虫剂长效残留研究 ····················································· 272
一、仓储杀虫剂类型与长效残留核心特性 ······································272
二、长效残留检测技术:从痕量识别到代谢产物分析 ·······················274
三、仓储杀虫剂长效残留的关键影响因素 ······································275
第四节 有机粮食认证中的残留监控 ·················································· 277
一、有机粮食认证的残留管控标准体系 ·········································277
二、有机粮食全链条残留监控技术体系 ·········································278
三、典型污染场景的应对策略 ····················································· 279
第 10 章 挑战与未来展望 ······································································281
第一节 复杂基质干扰的应对策略 ····················································· 281
一、基质干扰的类型与作用机制 ·················································· 281
二、样品前处理优化:从源头减少干扰引入 ···································282
第二节 未知代谢物与非靶标筛查 ····················································· 283
一、未知代谢物与非靶标残留的形成机制 ······································283
二、未知代谢物与非靶标筛查的技术瓶颈 ······································285
三、未知代谢物与非靶标筛查的技术体系构建 ································286
第三节 绿色分析技术发展 ······························································ 288
一、绿色分析技术的核心内涵与发展原则 ······································288
二、样品前处理环节的绿色化革新 ···············································288
三、检测仪器与试剂的绿色化优化 ···············································289
第四节 全球协同监管趋势 ······························································ 291
一、全球协同监管的核心驱动因素 ···············································291
二、全球协同监管面临的挑战与突破方向 ······································292
三、全球协同监管的未来发展方向 ···············································293
第五节 智能检测系统的集成应用 ····················································· 295
一、智能检测系统的典型应用场景 ···············································295
二、智能检测系统的关键技术突破与挑战 ······································296
附 录 ································································································298
附录 A 常见农药中英文名称及 CAS 编号 ·············································298
附录 B 中国主要粮食农药残留限量标准(最新版) ······························· 298
附录 C 缩略语表 ·············································································298
参考文献···························································································· 30
王学锋,硕士研究生学历,从事粮油和食品检验检测工作 12 余年,研究方向为 食品和农产品有害物质检验检测和品质分析,主持科研课题 5 项,发表学术论文 8 篇,授权专利 3 项,撰写企业标准多项。曾获“第四届河南省市场监管系统食品安 全抽检监测技能大比武一等奖”,“濮阳市实用社会科学优秀成果一等奖”,濮阳 市“优秀共产党员”,濮阳市粮食和物资储备工作“先进个人”,濮阳市农产品检 验业务技能竞赛“优秀指导奖”等多项荣誉。 吕捷,目前任职于濮阳市产品质量检验检测中心副主任,曾担任化工、食品、 轻工建材检验科主任,负责食品中非法添加物检验检测以及化工和轻工建材的质量 检验工作,后任职于安全检测室主任,检定各种可燃气体和有毒有害报警器等各类 报警安全计量器具,从事相关计量工作;目前分管本中心计量、纪检监察、党务和 财务等科室工作。工作之余喜欢读书,研习书法,目前为生机书法家协会会员。 霍磊,男,1973 年出生,中共党员,本科学历。1995 年参加工作,现就职于濮 阳市质量技术监督检验测试中心,任中心总工,正高级工程师,质量负责人。先后 取得国家一级注册计量师、国家注册棉检师、国家注册计量器具生产许可审查员、 国家注册食品生产许可审查员、省级实验室资质认定评审员、省级法定计量机构考 评员、省级计量标准考评员、省级能源计量审查员等职业资格,是“全国光辐射安 全和激光设备标准化技术委员会非相干光辐射安全分技术委员会”和“全国工业玻 璃和特种玻璃标准化技术委员会家具玻璃分技术委员会”委员,2019 年被市委组织 部认定为濮阳市高层次人才。先后参与起草国家标准 4 项,国家行业标准 2 项,河 南省地方标准 4 项;承担省科技厅科研项目 2 项,省市场监管局科研项目 9 项,科 研项目获省局二等奖 1 项,三等奖 5 项;申报发明专利 2 项,实用新型 2 项;发布 科研论文 10 篇,出版著作 1 部。擅长质量管理体系运行管理及标准化工作。 张树华,2001 年 6 月毕业于河南农业大学植物保护专业。2001 年 9 月至 2023 年 10 月在濮阳市质量技术监督检验测试中心,从事食品、食品添加剂、食品相关产 品、食用农产品(蔬菜、水果、畜禽肉及副产品、水产品、鲜蛋、生鲜乳)、粮食、 兽药、饲料领域检验检测工作。2023 年 11 月至今在濮阳市产品质量检验检测中心, 从事食品、食品添加剂、食品相关产品、食用农产品(蔬菜、水果、畜禽肉及副产 品、水产品、鲜蛋、生鲜乳)、粮食、兽药、饲料领域检验检测工作。 拥有成果如下: 专著:《装配式建筑配件质量检验技术指南》《新型建筑材料》;论文:《自 然科学》新装修房屋室内空气质量变化趋势研究、《工业 C》浅谈汽车尾气排放检 验方法、《中国绿色画报》板式家具中甲醛随时间变化趋势研究、《自然科学》室 内环境污染与健康、《建筑工程技术与设计》木家具中环保材料甲醛释放量的研究 等;科研项目:新装修房屋室内空气质量变化趋势研究、板式家具中甲醛随时间变 化趋势研究、液化石油气中二甲醚检验办法、钻井安全监控智能防护系统、数字化 撬式消防泵、一种泡沫剂直接无害化处理厕所等;科研成果:参与建设国家电光源 产品检验中心(河南)、主持建设河南省石油钻采设备及装备质量监督检验中心、 参与河南省照明电器标准化技术委员会建设等项目;专利:数字化撬装消防泵等实 用性专利四项;奖项:河南省市场监督管理局科技论文二等奖 1 项、河南省市场监 督管理局科技成果三等奖 3 项。 范文新,2018 年 6 月毕业于华中农业大学食品工程专业。2019 年 1 月至 2023 年 11 月在濮阳市食品药品检验检测中心,从事食品、食品添加剂、食品相关产品(预 包装挂面、发酵及油炸面制品、肉制品、生食动物性水产品等)领域检验检测工作。 2023 年 11 月至 2025 年 3 月在濮阳市产品质量检验检测中心,从事食品、食品添加 剂、食品相关产品领域检验检测工作,2025 年 3 月至今在濮阳市产品质量检验检测 中心从事质量体系管理相关工作。 拥有成果如下: 论文:在中文核心期刊《食品研究与开发》上发表论文《鄂莲 5 号莲藕中铁元 素含量周年变化及赋存形态》;企业标准:参与编制企业标准《冷冻调制肉制品》 《梅菜扣肉》《冷冻面筋》共 3 项,均已发布实施;专利:申请并取得实用新型专 利《食品检测用具消毒装置》《一种食品检测仪》《食品检测用取样装置》《食品 检测用高效混合装置》共 4 项;奖项:获得河南省市场监督管理系统科技论文奖二 等奖 1 项。
Worldcat: https://www.worldcat.org/ Ebsco: https://research.ebsco.com/ Crossref: 10.32629/9798959137557
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