Background:Plants exhibit phenotypic plasticity and respond to differences in environmental conditions by acclimation. We have systematically compared leaves of Arabidopsis thaliana plants grown in the field and under controlled low, normal and high light conditions in the laboratory to determine their most prominent phenotypic differences. Results: Compared to plants grown under field conditions, the "indoor plants" had larger leaves, modified leaf shapes and longer petioles. Their pigment composition also significantly differed; indoor plants had reduced levels of xanthophyll pigments. In addition, Lhcb1 and Lhcb2 levels were up to three times higher in the indoor plants, but differences in the PSI antenna were much smaller, with only the...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
Background:Plants exhibit phenotypic plasticity and respond to differences in environmental conditio...
The rate at which plants grow is a major functional trait in plant ecology. However, little is known...
The transition from vegetative to reproductive growth represents a crucial change in a plant's lifec...
Abstract Compared to controlled laboratory conditions, plant growth in the field is rarely optimal s...
Comparative analyses of phenotypic and molecular traits of Arabidopsis thaliana grown under standard...
Because plants depend on light for growth, their development and physiology must suit the particular...
The capacity of photoautotrophs to fix carbon depends on the efficiency of the conversion of light e...
The capacity of photoautotrophs to fix carbon depends on the efficiency of the conversion of light e...
Efficient acclimation to different growth light intensities is essential for plant fitness. So far, ...
Natural genetic variation in photosynthesis is strictly associated with the remarkable adaptive plas...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
Background:Plants exhibit phenotypic plasticity and respond to differences in environmental conditio...
The rate at which plants grow is a major functional trait in plant ecology. However, little is known...
The transition from vegetative to reproductive growth represents a crucial change in a plant's lifec...
Abstract Compared to controlled laboratory conditions, plant growth in the field is rarely optimal s...
Comparative analyses of phenotypic and molecular traits of Arabidopsis thaliana grown under standard...
Because plants depend on light for growth, their development and physiology must suit the particular...
The capacity of photoautotrophs to fix carbon depends on the efficiency of the conversion of light e...
The capacity of photoautotrophs to fix carbon depends on the efficiency of the conversion of light e...
Efficient acclimation to different growth light intensities is essential for plant fitness. So far, ...
Natural genetic variation in photosynthesis is strictly associated with the remarkable adaptive plas...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...
A major goal of the life sciences is to understand how molecular processes control phenotypes. Becau...