Cell number plasticity is coupled to circuitry in the nervous system, adjusting cell mass to functional requirements. In mammals, this is achieved by neurotrophin (NT) ligands, which promote cell survival via their Trk and p75NTR receptors and cell death via p75NTR and Sortilin. Drosophila NTs (DNTs) bind Toll receptors instead to promote neuronal survival, but whether they can also regulate cell death is unknown. In this study, we show that DNTs and Tolls can switch from promoting cell survival to death in the central nervous system (CNS) via a three-tier mechanism. First, DNT cleavage patterns result in alternative signaling outcomes. Second, different Tolls can preferentially promote cell survival or death. Third, distinct adaptors downs...
The concept that target tissues determine the survival of neurons has inspired much of the thinking ...
A central theme in developmental neurobiology pertains to how the diversity of different cell types...
The nervous system is a complex network of neurons that requires the specific connectivity of axons ...
Cell number plasticity is coupled to circuitry in the nervous system, adjusting cell mass to functio...
Cell number plasticity drives organismal growth, and is coupled in the CNS to the emergence of neura...
Structural plasticity and homeostasis enable the brain to adapt to environmental changes and learnin...
Experience alters brain structure, but the underlying mechanism remained unknown. Structural plastic...
Programmed cell death is often thought of as a developmental process that is genetically hardwired t...
Neurotrophic interactions occur in Drosophila, but to date, no neurotrophic factor had been found. N...
Neurotrophic interactions occur in Drosophila, but to date, no neurotrophic factor had been found. N...
Brain ischemia often results in neuronal necrosis, which may spread death to neighboring cells. Howe...
The human brain can change throughout life as we learn, adapt and age. A balance between structural ...
Drosophila neurotrophins (DNTs) - Spätzle (Spz), DNT1 and DNT2 - and 3 members of the Toll protein f...
Experience shapes the brain, as neural circuits can be modified by neural stimulation or the lack of...
The concept that target tissues determine the survival of neurons has inspired much of the thinking ...
The concept that target tissues determine the survival of neurons has inspired much of the thinking ...
A central theme in developmental neurobiology pertains to how the diversity of different cell types...
The nervous system is a complex network of neurons that requires the specific connectivity of axons ...
Cell number plasticity is coupled to circuitry in the nervous system, adjusting cell mass to functio...
Cell number plasticity drives organismal growth, and is coupled in the CNS to the emergence of neura...
Structural plasticity and homeostasis enable the brain to adapt to environmental changes and learnin...
Experience alters brain structure, but the underlying mechanism remained unknown. Structural plastic...
Programmed cell death is often thought of as a developmental process that is genetically hardwired t...
Neurotrophic interactions occur in Drosophila, but to date, no neurotrophic factor had been found. N...
Neurotrophic interactions occur in Drosophila, but to date, no neurotrophic factor had been found. N...
Brain ischemia often results in neuronal necrosis, which may spread death to neighboring cells. Howe...
The human brain can change throughout life as we learn, adapt and age. A balance between structural ...
Drosophila neurotrophins (DNTs) - Spätzle (Spz), DNT1 and DNT2 - and 3 members of the Toll protein f...
Experience shapes the brain, as neural circuits can be modified by neural stimulation or the lack of...
The concept that target tissues determine the survival of neurons has inspired much of the thinking ...
The concept that target tissues determine the survival of neurons has inspired much of the thinking ...
A central theme in developmental neurobiology pertains to how the diversity of different cell types...
The nervous system is a complex network of neurons that requires the specific connectivity of axons ...