A challenging question in evolutionary theory is the origin of cell division and plausible molecular mechanisms involved. Here, we made the surprising observation that complexes formed by short alpha-helical peptides and oleic acid can create multiple membrane-enclosed spaces from a single lipid vesicle. The findings suggest that such complexes may contain the molecular information necessary to initiate and sustain this process. Based on these observations, we propose a new molecular model to understand protocell division
Here we develop a computational model that examines one of the first major biological innovations-th...
Compartmentalization is a characterizing feature of complexity in cells, used to organize their bioc...
The self-assembly of prebiotically plausible amphiphiles (fatty acids) to form a bilayer membrane fo...
Based on a new model of a possible origin of life, we propose an efficient and stable system undergo...
The generation of synthetic forms of cellular life requires solutions to the problem of how biologic...
Conceptually, the most robust way to explain how primitive cell-like structures acquired and increas...
A fundamental unresolved question in studies on the origin of life is: how different, ubiquitous pro...
In living cells, reactions take place in membrane-bound compartments, often in response to changes i...
We propose that the first step in the origin of cellular life on Earth was the self-assembly of fatt...
In this review, we discuss various methods of reproducing life dynamics using a constructive approac...
Lipids are essential constituents of contemporary living cells, serving as structural molecules that...
The organelles in a eukaryotic cell are linked by a constant flow of vesicles, budding off from one ...
Cell division is one of the hallmarks of life. Success in the bottom-up assembly of synthetic cells ...
The transition from independent molecular entities to cellular structures with integrated behaviors...
It is very challenging to construct protocells from molecular assemblies. An important step in this...
Here we develop a computational model that examines one of the first major biological innovations-th...
Compartmentalization is a characterizing feature of complexity in cells, used to organize their bioc...
The self-assembly of prebiotically plausible amphiphiles (fatty acids) to form a bilayer membrane fo...
Based on a new model of a possible origin of life, we propose an efficient and stable system undergo...
The generation of synthetic forms of cellular life requires solutions to the problem of how biologic...
Conceptually, the most robust way to explain how primitive cell-like structures acquired and increas...
A fundamental unresolved question in studies on the origin of life is: how different, ubiquitous pro...
In living cells, reactions take place in membrane-bound compartments, often in response to changes i...
We propose that the first step in the origin of cellular life on Earth was the self-assembly of fatt...
In this review, we discuss various methods of reproducing life dynamics using a constructive approac...
Lipids are essential constituents of contemporary living cells, serving as structural molecules that...
The organelles in a eukaryotic cell are linked by a constant flow of vesicles, budding off from one ...
Cell division is one of the hallmarks of life. Success in the bottom-up assembly of synthetic cells ...
The transition from independent molecular entities to cellular structures with integrated behaviors...
It is very challenging to construct protocells from molecular assemblies. An important step in this...
Here we develop a computational model that examines one of the first major biological innovations-th...
Compartmentalization is a characterizing feature of complexity in cells, used to organize their bioc...
The self-assembly of prebiotically plausible amphiphiles (fatty acids) to form a bilayer membrane fo...