scholarly journals A short history of plant transformation

Author(s):  
Marc Somssich

The 1977 discovery that Agrobacterium tumefaciens inserts a specific piece of DNA into the plant cell genome triggered a race towards the first transgenic plant. Three groups were initially involved in the race, a fourth group entered later on. This race ended in 1983 with four labs publishing their own transgenic plant cell lines. This scientific breakthrough triggered the plant-biotechnology industry, and advanced the field of plant science like hardly any other. Who won the race? Here’s 'A Short History of Plant Transformation'.

2019 ◽  
Author(s):  
Marc Somssich

The 1977 discovery that Agrobacterium tumefaciens inserts a specific piece of DNA into the plant cell genome triggered a race towards the first transgenic plant. Three groups were initially involved in the race, a fourth group entered later on. This race ended in 1983 with four labs publishing their own transgenic plant cell lines. This scientific breakthrough triggered the plant-biotechnology industry, and advanced the field of plant science like hardly any other. Who won the race? Here’s 'A Short History of Plant Transformation'.


2019 ◽  
Author(s):  
Marc Somssich

The 1977 discovery that Agrobacterium tumefaciens inserts a specific piece of DNA into the plant cell genome triggered a race towards the first transgenic plant. Three groups were initially involved in the race, a fourth group entered later on. This race ended in 1983 with four labs publishing their own transgenic plant cell lines. This scientific breakthrough triggered the plant-biotechnology industry, and advanced the field of plant science like hardly any other. Who won the race? Here’s 'A Short History of Plant Transformation'.


2007 ◽  
Vol 7 (3) ◽  
pp. 387-394 ◽  
Author(s):  
Indra K. Vasil

Author(s):  
Marc Somssich

In an organism, be it plant, animal or human, almost every gene has its own promoter sequence, which is typified as a DNA stretch that controls how a gene is expressed in a cell. Hence, the activity of a promoter controls in which cell type, during which developmental stage or during what environmental condition a certain gene is expressed. However, the most widely used promoter in plant biotechnology is actually not derived from a plant, but a pathogenic virus. How and why did that happen? Here's a short history of the CaMV 35S promoter.


Author(s):  
Marc Somssich

In an organism, be it plant, animal or human, almost every gene has its own promoter sequence, which is typified as a DNA stretch that controls how a gene is expressed in a cell. Hence, the activity of a promoter controls in which cell type, during which developmental stage or during what environmental condition a certain gene is expressed. However, the most widely used promoter in plant biotechnology is actually not derived from a plant, but a pathogenic virus. How and why did that happen? Here's a short history of the CaMV 35S promoter.


2018 ◽  
Author(s):  
Marc Somssich

In an organism, be it plant, animal or human, almost every gene has its own promoter sequence, which is typified as a DNA stretch that controls how a gene is expressed in a cell. Hence, the activity of a promoter controls in which cell type, during which developmental stage or during what environmental condition a certain gene is expressed. However, the most widely used promoter in plant biotechnology is actually not derived from a plant, but a pathogenic virus. How and why did that happen? Here's a short history of the CaMV 35S promoter.


Genome ◽  
1989 ◽  
Vol 31 (2) ◽  
pp. 1034-1041 ◽  
Author(s):  
Otto J. Crocomo

As plant biotechnology is an application of cell engineering by which the plant cell genome is manipulated to improve agricultural productivity, leading to increases in production, many fundamental questions related to crop improvement arise, such as (i) how to propagate a great number of plants in a small space and within a shorter period of time; (ii) how to control the reversion to juvenility in forest species; (iii) how to decrease the time required to release new varieties to plant producers; (iv) how to control pests without causing environmental pollution; (v) how to regenerate intact transgenic plants after DNA insertion into protoplasts; (vi) how to transfer genetic characters between incompatible plant species; (vii) how to obtain somaclones resistant to adverse conditions; (viii) identification of the molecular mechanisms governing the processes of plant cell morphogenesis and how to control them to obtain better agricultural performance. Many of these questions are being studied in our laboratory and the results are discussed here.Key words: plant biotechnology, micropropagation, transgenic plants, somaclonal variation, hybrid embryo rescue, plant tissue culture.


Author(s):  
Marc Somssich

In an organism, be it plant, animal or human, almost every gene has its own promoter sequence, which is typified as a DNA stretch that controls how a gene is expressed in a cell. Hence, the activity of a promoter controls in which cell type, during which developmental stage or during what environmental condition a certain gene is expressed. However, the most widely used promoter in plant biotechnology is actually not derived from a plant, but a pathogenic virus. How and why did that happen? Here's a short history of the CaMV 35S promoter.


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