The plant hormone auxin was initially identified as the bioactive substance that induces roots in plant tissue culture. In the past decades, mechanisms for auxin action, including its transport and response, have been described in detail. However, a molecular and cellular description of its role in root initiation is far from complete. In this review, we discuss recent advances in our understanding of auxin-dependent embryonic root formation. During this process, a root meristem is initiated in a precise and predictable position, and at a stage when the organism consists of relatively few cells. Recent studies have revealed mechanisms for local control of auxin transport, for cellular differences in auxin response components and cell type-s...
Plants start their life as a single cell, which, during the process of embryogenesis, is transformed...
In this review, we analyze progress in understanding the mechanisms of root meristem development and...
The cell types of the plant root are first specified early during embryogenesis and are maintained t...
The plant hormone auxin was initially identified as the bioactive substance that induces roots in pl...
A plant’s roots system determines both the capacity of a sessile organism to acquire nutrients and w...
Root system architecture is an important determinant of below-ground resource capture and hence over...
In this review, we summarize the different biosynthesis-related pathways that contribute to the regu...
Plants start their life as a single cell, which, during the process of embryogenesis, is transformed...
Important steps in plant development are made shortly after fertilization. In a brief succession of ...
Adventitious rooting is a complex process and a key step in the vegetative propagation of economical...
The essential role of auxin for cell proliferation in plants is well known. Both auxin signaling and...
Plants exhibit an exceptional adaptability to different environmental conditions. To a large extent,...
The plant hormone auxin plays a crucial role in the upstream regulation of many processes, making th...
Phytohormones are important plant growth regulators that control many developmental processes, such ...
Plants start their life as a single cell, which, during the process of embryogenesis, is transformed...
In this review, we analyze progress in understanding the mechanisms of root meristem development and...
The cell types of the plant root are first specified early during embryogenesis and are maintained t...
The plant hormone auxin was initially identified as the bioactive substance that induces roots in pl...
A plant’s roots system determines both the capacity of a sessile organism to acquire nutrients and w...
Root system architecture is an important determinant of below-ground resource capture and hence over...
In this review, we summarize the different biosynthesis-related pathways that contribute to the regu...
Plants start their life as a single cell, which, during the process of embryogenesis, is transformed...
Important steps in plant development are made shortly after fertilization. In a brief succession of ...
Adventitious rooting is a complex process and a key step in the vegetative propagation of economical...
The essential role of auxin for cell proliferation in plants is well known. Both auxin signaling and...
Plants exhibit an exceptional adaptability to different environmental conditions. To a large extent,...
The plant hormone auxin plays a crucial role in the upstream regulation of many processes, making th...
Phytohormones are important plant growth regulators that control many developmental processes, such ...
Plants start their life as a single cell, which, during the process of embryogenesis, is transformed...
In this review, we analyze progress in understanding the mechanisms of root meristem development and...
The cell types of the plant root are first specified early during embryogenesis and are maintained t...