Cells of all life forms are surrounded by a membrane that is made of phospholipids. One of these are the cardiolipins, which form a separate class due to their unique structure. When studying the ...

Why two types of single-celled organism that form the deepest branch on the tree of life – bacteria and archaea – have completely different cell membranes The leakiness of the membrane allowed ...

Gene editing in archaea would require a molecular toolkit that microbiologists ... such as lipids or proteins in their membranes and cell walls. Further findings will hopefully provide more insight ...

Archaeal proteins that can aid in the fusion of cell membranes could offer insights into how complex ... which could lead to disaster for an organism. Archaea, which are thought to have arisen at ...

Life is composed of three distinct cell types: bacteria and archaea, which are both prokaryotic cells with some key differences — for example in their cell membranes and reproductive strategies — and ...

Researchers have succeeded in cultivating an ultra-small bacterial strain parasitizing archaea and classified ... biological differences in cell membrane lipids, genetic information, and other ...

infected Asgard archaea long ago, which gave rise to a hybrid organism. That new kind of organism may have undergone further evolutionary changes to create a complex, proto-eukaryotic cell that ...

Although they appear similar to bacteria under the microscope, they differ in many basic aspects: for example, in their cell membrane, metabolic pathways and genetic characteristics. Archaea were ...

Why two types of single-celled organism that form the deepest branch on the tree of life -- bacteria and archaea -- have completely different cell membranes The leakiness of the membrane allowed ...

Cells of all life forms are surrounded by a membrane that is made of phospholipids. One of these are the cardiolipins, which form a separate class due to their unique structure. When studying the ...