Evaluating nitrogen uptake: methods and applications for plant research

Nitrogen is an essential nutrient for the growth and development of plants, aiding many physiological and biological functions. Due to the high demand for the nutrient, it is common for agricultural production systems to fertilize crop fields with large quantities of nitrogen. However, excessive fertilization can be harmful economically and environmentally. Understanding the mechanism by which plants take up nitrogen from their environment is critical to optimize plant growth and agricultural productions. Over the last several decades, researchers have used a variety of methods to quantify nitrogen uptake including using nitrogen isotopes, measuring uptake through depletion of a solution over time, using compartmented chambers or agarose blocks to target specific root regions, and more recent small-scale approaches such as nanoSIMS, micro-dialysis, and biomarkers. Several of these studies have been conducted in maize due to its high nitrogen demand and significance in global food and feed production, however, these techniques can be applied to any plant system. This review will examine the application of these methods, highlighting their advantages and limitations. By exploring existing methods, we aim to provide insights into advancing nitrogen uptake studies, ultimately supporting sustainable nitrogen management and improving crop production efficiency.

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Publication Details

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Repository@Nottingham (University of Nottingham)
Published
2026-02-05
Primary Topic
Plant nutrient uptake and metabolism
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article
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article

Evaluating nitrogen uptake: methods and applications for plant research

Alexandra Huddell, Amanda Rasmussen, Erin Sparks, Emilia Pierce
Repository@Nottingham (University of Nottingham)
Plant nutrient uptake and metabolism
article

Evaluating nitrogen uptake: methods and applications for plant research

Alexandra Huddell, Amanda Rasmussen, Erin Sparks, Emilia Pierce
article en

Abstract

Nitrogen is an essential nutrient for the growth and development of plants, aiding many physiological and biological functions. Due to the high demand for the nutrient, it is common for agricultural production systems to fertilize crop fields with large quantities of nitrogen. However, excessive fertilization can be harmful economically and environmentally. Understanding the mechanism by which plants take up nitrogen from their environment is critical to optimize plant growth and agricultural productions. Over the last several decades, researchers have used a variety of methods to quantify nitrogen uptake including using nitrogen isotopes, measuring uptake through depletion of a solution over time, using compartmented chambers or agarose blocks to target specific root regions, and more recent small-scale approaches such as nanoSIMS, micro-dialysis, and biomarkers. Several of these studies have been conducted in maize due to its high nitrogen demand and significance in global food and feed production, however, these techniques can be applied to any plant system. This review will examine the application of these methods, highlighting their advantages and limitations. By exploring existing methods, we aim to provide insights into advancing nitrogen uptake studies, ultimately supporting sustainable nitrogen management and improving crop production efficiency.

Repository@Nottingham (University of Nottingham)
Zero hunger
Openalex Percentile: Top 48%
Plant nutrient uptake and metabolism
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