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Life Sciences · Agricultural and Biological Sciences

Genetic and Environmental Crop Studies
Research Guide

What is Genetic and Environmental Crop Studies?

Genetic and Environmental Crop Studies is a field in plant science that examines the interactions between genetic variation in crops and environmental factors to improve breeding, conservation, and trait development, particularly in legume crops like chickpea, pigeonpea, and faba bean.

This field encompasses 209,241 works focused on genomics, breeding, and conservation of legume crops, covering crop wild relatives, drought tolerance, marker development, and nutritional quality. Key studies address population genetics, inbreeding depression, and genetic diversity using nuclear DNA markers. Research provides insights for trait improvement and sustainable food production through genetic linkage maps and envirotyping.

Topic Hierarchy

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graph TD D["Life Sciences"] F["Agricultural and Biological Sciences"] S["Plant Science"] T["Genetic and Environmental Crop Studies"] D --> F F --> S S --> T style T fill:#DC5238,stroke:#c4452e,stroke-width:2px
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209.2K
Papers
N/A
5yr Growth
317.0K
Total Citations

Research Sub-Topics

Why It Matters

Genetic and Environmental Crop Studies supports sustainable agriculture by identifying genetic resources from wild relatives for breeding drought-tolerant varieties, as in the $2 million BTI and Meiogenix collaboration to develop drought- and disease-resistant tomatoes. It enables prediction of genotype-by-environment interactions using machine learning, as demonstrated in maize grain yield predictions across multi-environment trials by Fernandes et al. Tester and Langridge (2010) highlighted breeding technologies to boost crop production under climate change, targeting traits like drought tolerance essential for feeding billions with reduced inputs. Tools like EnvRtype facilitate environmental characterization for genomic prediction of reaction norms, aiding resilient crop development amid a 40% genetic yield gap in wheat due to diversifying environments.

Reading Guide

Where to Start

"Seed Banks and Molecular Maps: Unlocking Genetic Potential from the Wild" by Tanksley and McCouch (1997), as it introduces how germplasm banks and genetic maps access wild diversity for crop breeding, foundational for legume studies.

Key Papers Explained

"Population Genetic Consequences of Small Population Size: Implications for Plant Conservation" by Ellstrand and Elam (1993) establishes risks of genetic drift in small plant populations. This connects to "Inbreeding effects in wild populations" by Keller (2002), which details fitness declines, building on Charlesworth and Charlesworth (1987)'s "INBREEDING DEPRESSION AND ITS EVOLUTIONARY CONSEQUENCES". "Nuclear DNA content of some important plant species" by Arumuganathan and Earle (1991) provides baseline data, while Nybom (2004)'s "Comparison of different nuclear DNA markers for estimating intraspecific genetic diversity in plants" offers tools to measure diversity amid these risks.

Paper Timeline

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graph LR P0["Population Biology of Plants.
1978 · 7.0K cites"] P1["INBREEDING DEPRESSION AND ITS EV...
1987 · 3.3K cites"] P2["Nuclear DNA content of some impo...
1991 · 3.2K cites"] P3["Population Genetic Consequences ...
1993 · 2.5K cites"] P4["Seed Banks and Molecular Maps: U...
1997 · 2.4K cites"] P5["Inbreeding effects in wild popul...
2002 · 3.3K cites"] P6["Breeding Technologies to Increas...
2010 · 2.3K cites"] P0 --> P1 P1 --> P2 P2 --> P3 P3 --> P4 P4 --> P5 P5 --> P6 style P0 fill:#DC5238,stroke:#c4452e,stroke-width:2px
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Most-cited paper highlighted in red. Papers ordered chronologically.

Advanced Directions

Recent preprints explore envirotyping for resilient crops, predicting enviromically adapted varieties with big data amid a 40% wheat yield gap, and global genotypic synthesis for GHG reduction. News highlights $2M BTI-Meiogenix drought-resistant tomato project and Texas Tech's tissue-culture-free gene editing. Tools like EnvRtype and Maize_GxE_Prediction enable genomic prediction of reaction norms.

Papers at a Glance

# Paper Year Venue Citations Open Access
1 Population Biology of Plants. 1978 Journal of Applied Eco... 7.0K
2 INBREEDING DEPRESSION AND ITS EVOLUTIONARY CONSEQUENCES 1987 Annual Review of Ecolo... 3.3K
3 Inbreeding effects in wild populations 2002 Trends in Ecology & Ev... 3.3K
4 Nuclear DNA content of some important plant species 1991 Plant Molecular Biolog... 3.2K
5 Population Genetic Consequences of Small Population Size: Impl... 1993 Annual Review of Ecolo... 2.5K
6 Seed Banks and Molecular Maps: Unlocking Genetic Potential fro... 1997 Science 2.4K
7 Breeding Technologies to Increase Crop Production in a Changin... 2010 Science 2.3K
8 Ecological Determinants of Genetic Structure in Plant Populations 1984 Annual Review of Ecolo... 2.1K
9 Plant population genetics, breeding, and genetic resources 1990 Gene 1.9K
10 Comparison of different nuclear DNA markers for estimating int... 2004 Molecular Ecology 1.8K

In the News

Code & Tools

Recent Preprints

Latest Developments

Recent developments in genetic and environmental crop studies in 2026 include advancements in climate-resilient crop breeding, with gene-edited crops projected to increase yields significantly, and over 60% of new crop varieties incorporating biotech traits for resilience (Farmonaut, Farmonaut, LinkedIn). Additionally, research highlights the use of pan-genomics to develop drought-resistant maize (Nature Plants), and the exploration of genotype-by-environment interactions in maize to improve adaptation (Nature Communications). Advances in plant breeding for agroecological transition and leveraging polygenic local adaptation in barley are also notable, emphasizing sustainability and environmental adaptation (Wiley, Nature Communications).

Frequently Asked Questions

What are the main crops studied in Genetic and Environmental Crop Studies?

The field focuses on legume crops including chickpea, pigeonpea, and faba bean. Studies cover their genomics, breeding, conservation, crop wild relatives, drought tolerance, marker development, and nutritional quality. This provides insights for trait improvement and sustainable food production.

How do nuclear DNA markers estimate genetic diversity in plants?

Nuclear DNA markers such as RAPD, AFLP, ISSR, and STMS estimate intraspecific genetic diversity in wild angiosperms and gymnosperms. A compilation of 307 studies showed estimates from dominantly inherited markers like RAPD, AFLP, and ISSR are similar and directly comparable. STMS analysis provides comparable results as detailed in Nybom (2004).

What role do seed banks play in crop improvement?

Seed banks preserve genetic diversity as repositories for improving agricultural crops. Genetic linkage maps enable tracking of genes from wild relatives into cultivars. Tanksley and McCouch (1997) described how this unlocks genetic potential from the wild.

Why is inbreeding depression significant for plant conservation?

Inbreeding depression arises in small populations due to genetic drift and mating among relatives. It has evolutionary consequences affecting fitness in wild populations. Charlesworth and Charlesworth (1987) and Keller (2002) examined its impacts on plant conservation.

What environmental factors are considered in envirotyping for crops?

Envirotyping includes genotype-by-environment interactions using multi-environment trial data, geographic data, and soil properties. Soil factors cover chemical, physical, and biological properties influencing crop growth. Recent preprints emphasize environmental conditions for resilient crop development.

Open Research Questions

  • ? How can genotypic variation in crops be synthesized globally to minimize GHG emissions from croplands?
  • ? What environmental variables best predict genotype-by-environment interactions for drought tolerance in legumes?
  • ? How do machine learning models integrate genetic and big environmental data to close genetic yield gaps like the 40% in wheat?
  • ? Which nuclear DNA markers most accurately capture ecological determinants of genetic structure in legume populations?
  • ? What breeding technologies maximize nutritional quality improvements under future climate scenarios?

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