Genome-editing techniques are promising tools in plant breeding. To facilitate a more comprehensive understanding of the use of genome editing, EU-SAGE developed an interactive, publicly accessible online database of genome-edited crop plants as described in peer-reviewed scientific publications.
The aim of the database is to inform interested stakeholder communities in a transparent manner about the latest evidence about the use of genome editing in crop plants. Different elements including the plant species, traits, techniques, and applications can be filtered in this database.
Regarding the methodology, a literature search in the bibliographic databases and web pages of governmental agencies was conducted using predefined queries in English. Identifying research articles in other languages was not possible due to language barriers. Patents were not screened.
Peer-reviewed articles were screened for relevance and were included in the database based on pre-defined criteria. The main criterium is that the research article should describe a research study of any crop plant in which a trait has been introduced that is relevant from an agricultural and/or food/feed perspective. The database does neither give information on the stage of development of the crop plant, nor on the existence of the intention to develop the described crop plants to be marketed.
This database will be regularly updated. Please contact us via the following webpage in case you would like to inform us about a new scientific study of crops developed for market-oriented agricultural production as a result of genome editing

Displaying 37 results

Traits related to abiotic stress tolerance

Enhanced rice salinity tolerance and absisic acid hypersensitivity.
( Yan et al., 2023 )
SDN1
CRISPR/Cas
Nanchang University, China
Improved salt tolerance.
( Xu et al., 2024 )
SDN1
CRISPR/Cas
Northeast Agricultural University
Heilongjiang Academy of Agricultural Sciences, China
Enhanced responses to abscisic acid (ABA), which plays an important role in drought stress responses in plants. Improved drought tolerance through stomatal regulation and increased primary root growth under non-stressed conditions.
( Ogata et al., 2020 )
SDN1
CRISPR/Cas
Japan International Research Center for Agricultural Sciences (JIRCAS)
RIKEN Center for Sustainable Resource Science
University of Tsukuba, Japan
More tolerant to chilling stress: increased survival rate, decreased membrane permeability, and reduced lipid peroxidation.
(Xu et al., 2022)
SDN1
CRISPR/Cas
Henan University of Science and Technology
Chinese Academy of Sciences, China
Reduced cadmium content. Cadmium poses a health treat, as it is a highly toxic heavy metal for most living organisms.
( Hao et al., 2022 )
SDN1
CRISPR/Cas
Hunan University of Arts and Science
Hunan Normal University, China
Decreased Cadmium (Cd) accumulation. Consumption of crops that absorb Cd from the soil can cause serious health problems in humans.
( He et al., 2024 )
SDN1
CRISPR/Cas
Yunnan Agricultural University, China
Curled leaf phenotype and improved drought tolerance.
( Liao et al., 2019 )
SDN1
CRISPR/Cas
Guangxi University
South China Agricultural University, China
Improved rice growth with increased plant height, biomass, and chlorophyll content but with a lower degree of oxidative injury and Cd accumulation.
( Cao et al., 2022 )
SDN1
CRISPR/Cas
Nanjing Agricultural University
Jiangsu Academy of Agricultural Sciences, China
Salt-tolerant plants.
( Jingfang et al., 2023 )
SDN1
CRISPR/Cas
Lianyungang Academy of Agricultural Science
Nanjing Agricultural University
Jiangsu Academy of Agricultural Sciences, China
Improved cold tolerance.
( Shibo et al., 2024 )
SDN1
CRISPR/Cas
Shenyang Agricultural University
Liaoning Provincial Science and Technology Innovation Service Center, China
Arsenic (As) tolerance. As is toxic to organisms and elevated As accumulation may pose health risks to humans.
( Duan et al., 2015 )
SDN1
CRISPR/Cas
Anhui Academy of Agricultural Sciences, China
Increased tolerance to salinity stress. Improved rice yields in saline paddy fields by root angle modifications to adapt to climate change.
( Kitomi et al., 2020 )
SDN1
CRISPR/Cas
National Agriculture and Food Research Organization (NARO)
Tohoku University
Institute of Agrobiological Sciences
Japan Science and Technology Agency (JST)
Advanced Analysis Center
National Institute of Advanced Industrial Science and Technology (AIST), Japan
Increased water-deficit tolerance.
( Lv et al., 2022 )
SDN1
CRISPR/Cas
Chongqing University, China
Improved lodging resistance.
( Wakasa et al., 2024 )
SDN1
CRISPR/Cas
Institute of Agrobiological Sciences
Institute of Crop Sciences, Japan
Drought tolerance.
( Zhao et al., 2022 )
SDN1
CRISPR/Cas
Hebei Normal University
University of Chinese Academy of Sciences, China
Chilling tolerance.
( Zhang et al., 2022 )
SDN1
CRISPR/Cas
Jilin University, China
Enhanced cadmium resistance with reduced cadmium accumulation in roots and shoots. Cadmium is a heavy metal, harmful for human health.
( Dang et al., 2023 )
SDN1
CRISPR/Cas
Shenyang Agricultural University/Key Laboratory of Northern geng Super Rice Breeding, China
Improved cold tolerance.
( Park et al., 2024 )
SDN1
CRISPR/Cas
Rural Development Administration
Kyungpook National University
National Institute of Agricultural Sciences
Kyungpook National University
Jeonbuk National University, Korea
College of Marine and Bioengineering, China
Salt tolerance.
( Duan et al,. 2016 )
SDN1
CRISPR/Cas
Anhui Academy of Agricultural Sciences, China
Enhances adaptation to direct-seeding on wet land and tolerance to drought stress in rice. Water stress is the most important factor limiting rice agriculture by either floods or drought.
( Zhang et al., 2020 )
SDN1
CRISPR/Cas
Huazhong Agricultural University
Shanghai Agrobiological Gene Center, China
Reduced uptake of lead (Pb). Lead is one of the most toxic metals affecting human health globally and food is an important source of chronic Pb exposure in humans.
( Chang et al., 2022 )
SDN1
CRISPR/Cas
Nanjing Agricultural University, China
Enhanced chilling tolerance at seedling stage without yield loss.
( Deng et al., 2024 )
SDN1
CRISPR/Cas
Hunan Agricultural University
Hunan Academy of Agricultural Sciences
Yuelushan Laboratory, China
Improved yield and cold tolerance. High yield and high cold tolerance were often antagonistic to each other.
( Zeng et al., 2020 )
SDN1
CRISPR/Cas
College of Life Sciences, Wuhan University, China
Better salinity tolerance.
( Ma et al., 2022 )
SDN1
CRISPR/Cas
Ningbo Academy of Agricultural Sciences
Nanjing Agricultural University, China
Increased tolerance to low temperatures.
( Wang et al., 2023 )
SDN1
CRISPR/Cas
Tianjin Academy of Agricultural Sciences
Nankai University
University of Electronic Science and Technology of China, China
Reduced cadmium contamination. Cadmium is a toxic heavy metal.
( Zhu et al., 2024 )
SDN1
CRISPR/Cas
Zhejiang University
Yangzhou University, China
Potassium deficiency tolerance and contribution to stomatal closure.
( Mao et al., 2016 )
SDN1
CRISPR/Cas
Fujian Agriculture and Forestry University
Fujian Academy of Agricultural Sciences
National Center of Rice Improvement of China
National Engineering Laboratory of Rice
South Base of National Key Laboratory of Hybrid Rice of China, China
Enhanced salinity tolerance.
( Zhang et al., 2019 )
SDN1
CRISPR/Cas
Huazhong Agricultural University
Shanghai Agrobiological Gene Center, China
Improved drought tolerance and yield.
( Usman et al., 2020 )
SDN1
CRISPR/Cas
Guangxi University
South China Agricultural University, China
Early heading phenotype that escapes from cold stress and achieves high yield potential.
( Zhou et al., 2023 )
SDN1
CRISPR/Cas
Nanjing Agricultural University
Institute of Lianyungang Agricultural Science of Xuhuai Area/Lianyungang Institute of Agricultural Sciences
Chinese Academy of Agricultural Sciences, China
Enhanced resistance to salt and oxidative stress and increased grain yield.
( Alfatih et al., 2020 )
SDN1
CRISPR/Cas
Chinese Academy of Sciences, China
Improved salt stress resistance. Significant increase in the shoot weight, the total chlorophyll content, and the chlorophyll fluorescence under salt stress. Also high antioxidant activities coincided with less reactive oxygen species (ROS).
( Shah Alam et al., 2022 )
SDN1
CRISPR/Cas
Zhejiang University, China
Taif University, Saudi Arabia
Alexandria University, Egypt
Increased tolerance to cadmium toxicity.
( Yue et al., 2022 )
SDN1
CRISPR/Cas
Zhejiang University
Hangzhou Academy of Agricultural Sciences, China
Shorter internode length, reduced plant height and a thicker culm wall, which might indicate lodging resistance.
( Zhao et al., 2024 )
SDN1
CRISPR/Cas
Liaoning Academy of Agricultural Sciences, China
Drought tolerance and abscisic acid sensitivity.
( Lou et al., 2017 )
SDN1
CRISPR/Cas
Chinese Academy of Sciences, China
Enhanced the tolerance of plants to salt (NaCl), the stress hormone abscisic acid (ABA), dehydration and polyethylene glycol (PEG) stresses.
( Yue et al., 2020 )
SDN1
CRISPR/Cas
Zhejiang University
Hunan Agricultural University, China
Salt tolerance during the seedling stage.
( Chen et al., 2022 )
SDN1
CRISPR/Cas
Hubei Academy of Agricultural Sciences
Huazhong Agriculture University
Hubei Hongshan Laboratory, China