Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular expression signatures, and complex patterns of neuronal connectivity. Neurons in the human brain communicate via well over a quadrillion synapses. Their specific contribution might be key to the dynamic activity patterns that underlie primate-specific cognitive function. Recently, functional differences were described in transmission capabilities of human and rat synapses. To test whether unique expression signatures of synaptic proteins are at the basis of this, we performed a quantitative analysis of the hippocampal synaptic proteome of four mammalian species, two primates, human and marmoset, and two rodents, rat and mouse. Abundance diffe...
<div><p>Direct comparison of protein components from human and mouse excitatory synapses is importan...
Direct comparison of protein components from human and mouse excitatory synapses is important for de...
Direct comparison of protein components from human and mouse excitatory synapses is important for de...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
<div><p>Direct comparison of protein components from human and mouse excitatory synapses is importan...
Direct comparison of protein components from human and mouse excitatory synapses is important for de...
Direct comparison of protein components from human and mouse excitatory synapses is important for de...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
Key to the human brain’s unique capacities are a myriad of neural cell types, specialized molecular ...
<div><p>Direct comparison of protein components from human and mouse excitatory synapses is importan...
Direct comparison of protein components from human and mouse excitatory synapses is important for de...
Direct comparison of protein components from human and mouse excitatory synapses is important for de...