Plant Physiological Phenotyping Platform

A plant physiology phenotyping platform is used to study plant physiological traits and phenotypes. Such platforms typically incorporate advanced sensor technologies, data acquisition, etc., designed to help scientists and researchers better understand plant growth and development processes. Lifeasible empowers agricultural researchers to ensure agricultural growth through plant physiological phenotyping. This enables rapid, automated processing and analysis of large amounts of phenotypic data, providing insight into plant-environment interactions while reducing development time and time to market.

Figure 1. Functional physiological phenotyping with functional mapping. (Pandey et al., 2021)

About Plant Physiological Phenotyping

Physiological phenotyping plays a crucial role in driving the agricultural sector towards more efficient and sustainable practices. By gaining a deeper understanding of a plant's physiological characteristics, growers can better understand the optimal conditions required for its growth and development. This understanding can be used to reduce wasted resources and increase crop productivity, ultimately improving yields and profitability. Additionally, utilizing physiological phenotyping can help determine how plants respond to different environmental stressors, such as drought or disease, and provide ways to develop strategies to mitigate the negative effects of these stressors on crop production.

Physiological Phenotyping Services

Physiological phenotyping is a valuable tool used in various fields of research and practice to understand the physiological characteristics of organisms. It involves measuring and analyzing physiological characteristics to gain insights into an organism's functioning, health, and response to stimuli. In practice, physiological phenotyping is used in various ways to enhance our understanding of organisms.

Lifeasible through technologies such as molecular markers, genetic mapping, and genome sequencing, it is possible to analyze the genetic composition of plants and identify specific genes or genetic regions associated with desired traits such as disease resistance, high yield, or increased nutrient content. This information enables the selection of plants with the desired genotypes and crossbreeding to develop new crop varieties with improved traits. By harnessing the power of genomics and genetics, crop improvement programs can increase crop productivity, sustainability, and resilience to meet the growing demands of a growing population and changing environmental conditions.

Functionality of Physiological Phenotyping

• The Plant Physiology Phenotyping Platform has efficient data collection and storage capabilities. It automatically collects sensor-generated data and stores it in a database. Such a platform can handle large amounts of data and provides data management and retrieval functions, making it easy for users to analyze and compare data.
• The Plant Physiological Phenotyping platform performs rapid plant screening based on precise physiological trait measurements that are important indicators of yield potential and have proven to be highly correlated with field yield results.
• The Plant Physiology Phenotyping Platform also integrates plant physiological models for simulating and predicting plant growth and developmental processes. These models are based on known plant physiological mechanisms and parameters and can provide a quantitative description of plant physiological processes.
• The Plant Physiology Phenotyping Platform is a comprehensive platform that integrates sensor technology, data acquisition, and analysis tools to study physiological characteristics and phenotypes of plants. It provides scientists with a tool to analyze plant physiological processes comprehensively and helps advance research and applications in plant science and agriculture.

If you are interested in our physiological phenotyping platform, please do not hesitate to contact us anytime.

Reference

1. Pandey, A. K., et al. (2021). "Functional physiological phenotyping with functional mapping: A general framework to bridge the phenotype-genotype gap in plant physiology." Iscience, 24(8).