农业元素组学概念及其分析技术研究进展

doi:10.3864/j.issn.0578-1752.2026.01.014

Abstract

Abstract:

Elements are fundamental constituents of matter, ubiquitous across agricultural systems-from crops and livestock to inputs such as fertilizers and pesticides-with profound implications for productivity and environmental quality. Responding to the need for precise element management in sustainable agriculture, this review proposed “Agroelementomics” as an interdisciplinary field. Agroelementomics characterizes the presence, concentration, distribution, and speciation of elements within agricultural organisms and matrices. It seeks to decode their roles in agricultural processes and their interactions with other omics layers, such as the genome and metabolome. Thus, its scope extends beyond individual elements to encompass the interplay of multiple elements and their collective impact on crop growth, food safety, and environmental health. Deciphering these complex interactions requires advanced elemental analysis. This review focused on analytical techniques for Agroelementomics, surveying cutting-edge methods- including spectroscopy, mass spectrometry, and synchrotron-based approaches-for ultra-sensitive, high-throughput elemental analysis, and their applications, advantages, and limitations in analyzing agricultural samples and outline future directions were discussed. The future advancement of Agroelementomics hinges on creating more robust analytical frameworks with greater interference resistance and wider elemental coverage. Critical breakthroughs are needed in high-resolution isotope analysis, direct solid sampling, non-destructive techniques, and the characterization of elemental species and macromolecular complexes. Pushing the resolution to micro/nano and even single-cell levels, coupled with integrating artificial intelligence for data processing, would be pivotal. In application, agroelementomics must be integrated with other omics platforms (e.g., genomics, proteomics, metabolomics). By building cross-omics networks and leveraging their combined strengths, those fundamental questions in agricultural biology were addressed. Ultimately, this integration would be key to advancing crop breeding, nutrient management, pollution source tracking, and food quality safety, thereby providing a scientific foundation for sustainable agriculture.

Key words: Agroelementomics, multielement analysis, mass spectrometry, atomic spectroscopy, energy spectroscopy, microanalysis

LI Xue, XU Yan, MAO XueFei. Agroelementomics: Concept, Progress and Perspective in Analytical Techniques[J].Scientia Agricultura Sinica, 2026, 59(1): 190-204.

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Figures/Tables 2

Fig. 1

Table 1

Application scope, advantages, and limitations of agricultural elemental omics analysis technology"

分类 Classification	方法 Method	元素范围 Elemental range	检测限 Detection limit	应用场景 Application scenarios	优势 Advantage	局限性 Limitation
高灵敏和多元素分析技术High-sensitivity and multi- element analysis technology	ICP-MS	多元素（包括金属、非金属、同位素，范围覆盖Li—U多达80余个元素） Multiple elements (including metals, non-metals, and isotopes, and covering more than 80 elements ranging from Li to U)	ng·L^-1-pg·g^-1	农产品多元素定量、产地溯源、土壤重金属监测等多场景 Multi-element quantification of agricultural products, origin traceability, soil heavy metal monitoring and other scenarios	高灵敏度、广泛的元素覆盖、多元素同时检测能力 High sensitivity, broad element coverage, and simultaneous multi- element detection capability	基质干扰需要处理，前处理较为复杂，对轻元素（H、He、C、N、O等）检测能力较弱 Matrix interference requires treatment, and pretreatment is relatively complex. Detection capabilities for light elements (H, He, C, N, O, etc.) are relatively weak
	TIMS	重金属和稳定同位素（如Sr、Pb、Nd、U、Th、Os、Re、Hf、W、Mo、Ca、K、Mg、Fe、Ni、Cu、Zn、Cd、Sn、Ba、La、Ce、Pr、Sm、Eu、Gd、Dy、Er、Yb、Lu等稀土元素和放射性元素） Heavy metals and stable isotopes (such as Sr, Pb, Nd, U, Th, Os, Re, Hf, W, Mo, Ca, K, Mg, Fe, Ni, Cu, Zn, Cd, Sn, Ba, La, Ce, Pr, Sm, Eu, Gd, Dy, Er, Yb, Lu, and other rare earth elements and radioactive elements)	ppm级精度 ppm-level accuracy	食品地理来源鉴别、元素生物利用度等研究 Research on food geographic origin identification and elemental bioavailability	极高同位素测量精度 Extremely high isotope measurement accuracy	前处理复杂，成本高。对轻元素（如C、N、O、H）和挥发性元素检测能力较弱、不适合多元素总量分析 Complex pretreatment and high costs. Limited detection capability for light elements (e.g., C, N, O, H) and volatile elements; unsuitable for multi-element total analysis
	ICP-OES / MP-AES	金属及非金属（如P、S、Si、Fe、Mn、Na、K、Ca、Mg等常量元素） Metals and non-metals (such as macroelements including P, S, Si, Fe, Mn, Na, K, Ca, Mg, etc.)	ppb-%级 ppb-% level	复杂样品常量分析、现场土壤养分检测、肥料元素测定等多场景 Constant analysis of complex samples, on-site soil nutrient testing, fertilizer element determination, and other scenarios	快速、成本较低、可现场分析、抗分子离子干扰 Rapid, cost-effective, on-site analysis, resistant to molecular ion interference	灵敏度低于ICP-MS，难测痕量，易受光谱干扰且需要背景校正 Compared to ICP-MS, it exhibits lower sensitivity, faces challenges in detecting trace amounts, is susceptible to spectral interference, and requires background correction
	LTP（DBD等）	蒸发温度相对较低的元素（如Hg、Cd、Pb、As、Se、Sb等） Elements with relatively low evaporation temperatures (such as Hg, Cd, Pb, As, Se, Sb, etc.)	ng·g^-1级 ng·g^-1 level	便携式固体样品检测、动植物中重金属监测、现场元素分析等多场景 Portable solid sample analyzing, heavy metal monitoring in plants and animals, on-site elemental analysis, and other scenarios	便携、简单、无需复杂前处理、常压操作 Portable, simple, requires no complex pretreatment, operates at atmospheric pressure	元素范围有限，易受环境干扰，需优化仪器各系统结构，灵敏度中等 The element range is limited and susceptible to environmental interference, requiring optimization of the instrument's system architecture. Sensitivity is moderate
	XRF（EDXRF, TXRF）	中重元素（如Cd、Pb、As、Mn、Zn、Fe、Cu、K、Ca等，从Na—U） Medium-to-heavy elements (such as Cd, Pb, As, Mn, Zn, Fe, Cu, K, Ca, etc., from Na to U)	ppm-%级 ppm-% level (TXRF: 10^-7-10^-12 g)	非破坏性土壤/植物分析、污染现场监测、产地溯源等多场景 Non-destructive soil/plant analysis, contaminated site monitoring, origin tracing, and other scenarios	非破坏性、便捷、可现场监测、多元素定量 Non-destructive, convenient, field- monitorable, multi- element quantitative analysis	对轻元素（如C、N、O）灵敏度差，痕量元素检测有局限性 Poor sensitivity to light elements (such as C, N, O), with limitations in detecting trace elements
	固体直接进样辅助分析技术（GD-MS/ ETV）	多元素（与检测器有关，可测金属、非金属和稀土元素等60余种元素） Multi-element (detector-dependent, capable of measuring over 60 elements including metals, non-metals, and rare earth elements)	ng·g^-1级 ng·g^-1 level	固体直接进样（如植物、土壤、粮油、水产等复杂介质中元素的快速检测），液体样品也适用 Solid direct sampling (e.g., rapid detection of elements in complex media such as plants, soil, grains, oils, and aquatic products) is also suitable for liquid samples.	直接分析固体，减少前处理、快速高灵敏 Direct analysis of solid samples with minimal pretreatment enables rapid and highly sensitive detection.	基质效应大，定量难度高。对于GD-MS限于导电性样品 Significant matrix effects make quantitative analysis challenging. GD-MS is limited to conductive samples
	EA/EA- IRMS	生源元素（如C、H、N、S、P）及同位素（如δ¹³C、δ¹⁵N、δ³⁴S） Source elements (e.g., C, H, N, S, P) and isotopes (e.g., δ¹³C, δ¹⁵N, δ³⁴S)	%级（同位素可达‰级） Percentage level (isotopes can reach parts per thousand level)	土壤碳氮循环、产地溯源、植物δ¹³C追踪等多场景 Soil carbon and nitrogen cycles, origin tracing, plant δ¹³C tracking, and other scenarios	高精度同位素分析、总量检测简便 High-precision isotope analysis, simple total quantity detection	仅限轻元素，样品需预处理，挥发性样品易损失 Only light elements are applicable. Samples need to be pre-treated. Volatile samples are prone to loss
	INAA	多元素（如植物中稀土、Au、Ag、Co、Cr、Fe、Hf、Ir、Sb、Sc、Se、Th、U、Zn等） Multiple elements (such as rare earth elements, Au, Ag, Co, Cr, Fe, Hf, Ir, Sb, Sc, Se, Th, U, Zn, etc. in plants)	10^-¹³ g·g^-1级 10^-¹³ g·g^-1 level	无损食品/土壤多元素同步测定、动植物元素定量等多场景 Non-destructive simultaneous multi-element analysis of food/soil, quantitative elemental analysis of plants and animals, and other scenarios	无损、高通量、灵敏度高 Non-destructive, high-throughput, high sensitivity	设备昂贵，操作复杂、核素衰变时间长 The equipment is expensive, the operation is complex, and the nuclide decay time is long
	EC（SWASV等）	金属元素（如Zn、Cd、Ni、Pb、Cu、Hg等） Metal elements (such as Zn, Cd, Ni, Pb, Cu, Hg, etc.)	ng·g^-1—pg·g^-1级 ng·g^-1-pg·g^-1level	水/土壤浸提液痕量检测、重金属污染评估等多场景 Trace detection in water/soil extracts, heavy metal pollution assessment, and other scenarios	便携、高选择性、电极修饰可增强抗干扰能力 Portable, highly selective, and electrode modification can enhance anti- interference capability	仅限电活性元素，干扰较多、前处理要求高 It is limited to electroactive elements, with many interferences and high requirements for pretreatment
元素形态和价态分析技术Element speciation and valence analysis techniques	色谱联用（HPLC-ICP-MS等	元素形态（如As(III)/ As(V)、Hg有机/无机、Se、Cr、I等） Elemental forms (e.g., As (III)/As(V), organic/inorganic Hg, Se, Cr, I, etc.)	ng·g^-1级 ng·g^-1 level	农产品形态分析（如海产品中As或者Hg形态的分析、安全性评价等场景） Analysis of agricultural product speciation (e.g., analysis of arsenic or mercury forms in seafood, safety assessment scenarios, etc.)	高分辨率形态分析、多元素形态同步检测 High-resolution morphological analysis, simultaneous multi-element morphological detection	前处理易导致形态转化，设备复杂，成本高 Pre-treatment is prone to causing morphological transformation, involves complex equipment, and incurs high costs
	SR（SRXRF, SRXAS）	多元素及形态（从Na—U的中重元素，轻元素如C、N、O等需要软X射线） Multiple elements and speciation (medium-heavy elements from Na to U; light elements such as C, N, O, etc., require soft X-rays)	1—10 ppm或更低（与X射线能量范围有关，成像可达μm尺度的分辨率） 1-10 ppm or lower (depending on X-ray energy range, with imaging resolution down to the micrometer scale)	植物、动物组织中元素的原位分布 In situ distribution of elements in plant and animal tissues	高空间分辨率、无损分析、原位价态解析 High spatial resolution, non-destructive analysis, in situ valence state analysis	需要同步辐射设施，成本高，数据处理复杂 Synchrotron radiation facilities are required, which are costly and involve complex data processing
	XPS / XRD	表面元素价态和晶体成分（如Cr、F、P、Fe、Mn等） Surface element valence states and crystal composition (e.g., Cr, F, P, Fe, Mn, etc.)	ppm级（XPS的表面深度约10 nm左右） ppm level (XPS surface depth approximately 10 nm)	材料表征、吸附机制研究等多场景 Material characterization, adsorption mechanism studies, and other scenarios	表面化学状态分析、晶体结构表征 Surface chemical state analysis, crystal structure characterization	仅限表面，深度分析受限，对非晶体样品受限、痕量灵敏度低 It is only limited to the surface, in - depth analysis is restricted, it is restricted for non-crystalline samples, and the trace sensitivity is low
微区空间成像与原位分析技术Micro-area space imaging and in-situ analysis technology	LA-ICP- MS	多元素及同位素（元素范围随检测器而定） Multiple elements and isotopes (element range determined by the detector)	ng·g^-1级（成像分析光斑分辨率可达μm尺度） ng·g^-1 level (imaging analysis spot resolution down to the micrometer scale)	动物、植物组织的元素成像 Elemental imaging of animal and plant tissues	高空间分辨率、同时定量多元素、固体原位分析 High spatial resolution, simultaneous quantitative multi- element analysis, in situ solid-state analysis	基质效应、分馏问题影响定量精度、需能校正的标准物质 Matrix effects and fractionation issues affect quantitative accuracy; calibration of reference materials is required
	LIBS	多元素（从H—U，几乎所有元素） Multiple elements (from H to U, encompassing nearly all elements)	ppm级 ppm level	现场土壤/叶片快速筛查、产地识别、重金属监测等多场景 On-site rapid screening of soil/leaf samples, origin identification, heavy metal monitoring, and other scenarios	快速响应、无需消解、便携性强 Rapid response, no digestion required, highly portable	灵敏度有限，重复性较差 Limited sensitivity, poor repeatability
	micro-XRF	多元素（从Na—U的中重元素） Multiple elements (medium- to-heavy elements from Na to U)	ppm-%级（成像μm分辨） ppm-% level (imaging with μm resolution)	动物或植物样本的微区分布 Micro-regional distribution of animal or plant samples	高空间分辨率、非破坏性、成像能力 High spatial resolution, non-destructive, imaging capability	轻元素检测能力有限 Limited detection capability for light elements
	SIMS（NanoSIMS, TOF- SIMS）	元素及有机（如¹⁵N、Zn、Cd、Fe、脂质等） Elements and organic compounds (such as ¹⁵N, Zn, Cd, Fe, lipids, etc.)	fg·g^-1级（成像nm尺度分辨） FG/G-class (imaging at the nanometer scale)	单细胞分析、根际固氮¹⁵N吸收、植物细胞定位等多场景 Single-cell analysis, rhizosphere nitrogen fixation ¹⁵N uptake, plant cell localization, and other scenarios	超高空间分辨率、痕量检测 Ultra-high spatial resolution, trace detection	样品制备复杂，成本极高、深度有限 Complex sample preparation, costly, depth limited sample preparation
	LIMS	多元素（从Na—U，60+种元素） Multi-element (from Na to U, 60+ elements)	ng·g^-1级（成像μm尺度分辨） ng·g^-1 level (imaging at the micrometer scale)	固体土壤/植物快速分析 Rapid Analysis of Solid Soil/Plant Samples	直接固体分析、高分辨率、高通量 Direct solid analysis, high resolution, high throughput	基质干扰大，定量精度低，易受离子干扰 Significant matrix interference, low quantitative accuracy, and susceptibility to ionic interference
	SP/SC-ICP-MS	单颗粒/单细胞的元素（检测范围与检测器有关） Single-particle/single-cell elements (detection range depends on the detector)	fg级 fg level	细胞样品或纳米颗粒暴露（如微塑料、纳米材料之类，单细胞生物学研究） Exposure of cell samples or nanoparticles (e.g., microplastics, nanomaterials, etc., for single- cell biology research)	单颗粒/细胞级分辨率 Single-particle/single-cell resolution	多元素能力有限，颗粒尺寸下限受限、需专用仪器，数据处理复杂 Limited multi-element capabilities, constrained lower limit of particle size, specialized instruments required, and complex data processing

Table 1

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