Name: how membrane lipids vary across life
Uploaded: 2025-07-28T11:07:50.000Z
Duration: 1 min 29 s
Channel: JoVE

Les membranes microbiennes présentent des compositions lipidiques diverses chez les bactéries, les archées et les eucaryas, reflétant des adaptations évolutives distinctes. Les bactéries et les eucaryotes synthétisent les acides gras à partir de l’acétyl-CoA et de la malonyl-CoA par la voie de la synthase des acides gras, qui implique la condensation, la réduction et la déshydratation. En revanche, les archées produisent des lipides isoprénoïdes à partir du pyrophosphate d’isopentényle via la voie du phosphate de mévalonate. Chez les bactéries et les eucaryas, les acides gras sont liés au glycérol par des liaisons esters, formant des phospholipides tels que la phosphatidyléthanolamine, le phosphatidylglycérol et la cardiolipine, contribuant ainsi à l’intégrité et à la fonction de la membrane. Les archées, dépourvues d’acides gras, possèdent des lipides isoprénoïdes liés à l’éther pour une stabilité dans des conditions extrêmes. Leur biosynthèse assemble des précurseurs comme l’isopentenyle et le pyrophosphate de diméthylallyle en isoprénoïdes, y compris des caroténoïdes et des lipides polyisoprénoïdes. Certaines bactéries, telles que Bradyrhizobium et Streptomyces, utilisent ces précurseurs isoprénoïdes pour synthétiser le squalène, qui se transforme en hopanoïdes stabilisateurs de membrane. Les eucaryotes utilisent les mêmes précurseurs pour synthétiser des stérols comme le cholestérol, qui régulent la fluidité membranaire.

la biosynthèse des lipides

Biosynthesis of Lipids

Les membranes microbiennes pr&#233;sentent une remarquable diversit&#233; dans leur composition lipidique, refl&#233;tant des adaptations &#233;volutives &#224; divers environnements. Les trois domaines du vivant&#8212;Bact&#233;ries, Arch&#233;es et Eucaryotes&#8212;synth&#233;tisent les lipides membranaires via des voies biosynth&#233;tiques distinctes, conduisant &#224; des diff&#233;rences structurales fondamentales qui influencent la stabilit&#233;, la fonction et l&#8217;adaptabilit&#233; des membranes.
Lipides &#224; base d&#8217;acides gras chez les bact&#233;ries et les eucaryotes
Les bact&#233;ries et les eucaryotes partagent une voie commune de biosynth&#232;se des acides gras, qui convertit l&#8217;ac&#233;tyl-CoA et le malonyl-CoA en acides gras &#224; longue cha&#238;ne via des r&#233;actions de condensation, de r&#233;duction et de d&#233;shydratation. Cependant, leurs syst&#232;mes enzymatiques diff&#232;rent. Les bact&#233;ries utilisent un syst&#232;me de synth&#232;se des acides gras de type II (FASII), dans lequel des enzymes distinctes catalysent chacune des &#233;tapes de la synth&#232;se des acides gras. En revanche, les eucaryotes recourent principalement &#224; une synthase d&#8217;acides gras de type I (FASI), vaste complexe prot&#233;ique multifonctionnel qui ex&#233;cute l&#8217;ensemble des r&#233;actions au sein d&#8217;une seule entit&#233;. Les mitochondries, pour leur part, conservent un syst&#232;me de type II, employ&#233; pour la synth&#232;se de lipides sp&#233;cifiques tels que l&#8217;acide lipo&#239;que.
Ces acides gras sont li&#233;s par est&#233;rification au glyc&#233;rol, formant des phospholipides tels que la phosphatidyl&#233;thanolamine, la phosphatidylglyc&#233;rol et la cardiolipine. Ces phospholipides assurent l&#8217;int&#233;grit&#233; membranaire et soutiennent la perm&#233;abilit&#233; s&#233;lective, la signalisation cellulaire et l&#8217;ancrage des prot&#233;ines. La liaison ester conf&#232;re &#224; ces lipides une certaine fluidit&#233;, les rendant adaptables aux variations environnementales, notamment en conditions m&#233;sophiles. Chez les bact&#233;ries adapt&#233;es au froid, la composition lipidique est davantage modul&#233;e par l&#8217;augmentation des acides gras insatur&#233;s, ce qui emp&#234;che la rigidification membranaire et garantit la fonctionnalit&#233; &#224; basse temp&#233;rature.
Lipides &#224; base d&#8217;isopr&#233;no&#239;des chez les arch&#233;es
Les arch&#233;es pr&#233;sentent une architecture lipidique fondamentalement diff&#233;rente, utilisant des cha&#238;nes d&#8217;isopr&#233;no&#239;des au lieu d&#8217;acides gras. Ces cha&#238;nes isopr&#233;no&#239;des sont synth&#233;tis&#233;es &#224; partir des pr&#233;curseurs pyrophosphate d&#8217;isopent&#233;nyle (IPP) et pyrophosphate de dim&#233;thylallyle (DMAPP), produits par des variantes de la voie du m&#233;valonate ou par des voies alternatives propres aux arch&#233;es.Les arch&#233;es se distinguent des bact&#233;ries et des eucaryotes par la pr&#233;sence de liaisons &#233;ther entre les cha&#238;nes d&#8217;isopr&#233;no&#239;des et les squelettes de glyc&#233;rol, en lieu et place des liaisons ester. Ce type de liaison conf&#232;re une r&#233;sistance accrue &#224; l&#8217;hydrolyse, permettant aux arch&#233;es de prosp&#233;rer dans des environnements extr&#234;mes tels que des temp&#233;ratures &#233;lev&#233;es, une forte acidit&#233; ou une salinit&#233; intense.
Si la majorit&#233; des arch&#233;es forment des bicouches lipidiques analogues &#224; celles des bact&#233;ries et des eucaryotes, certains extr&#234;mophiles, comme Thermoplasma, synth&#233;tisent des lipides de type glyc&#233;ro-dibiphytanyl-glyc&#233;rol-t&#233;tra&#233;ther (GDGT) qui traversent toute la membrane, formant des monocouches. Ces monocouches renforcent consid&#233;rablement la stabilit&#233; membranaire, r&#233;duisent la perm&#233;abilit&#233; et emp&#234;chent l&#8217;effondrement structurel en conditions extr&#234;mes.
Synth&#232;se des st&#233;rols et hopano&#239;des
Certaines bact&#233;ries, notamment le Bradyrhizobium et le Streptomyces, utilisent des pr&#233;curseurs isopr&#233;no&#239;des pour synth&#233;tiser le squal&#232;ne, lequel subit une cyclisation menant &#224; la production d&#8217;hopano&#239;des. Ces mol&#233;cules accroissent la rigidit&#233; de la membrane et en diminuent la perm&#233;abilit&#233;, en particulier dans des conditions environnementales variables. Bien que les hopano&#239;des modifient l&#8217;architecture membranaire, leur aptitude &#224; r&#233;guler de mani&#232;re dynamique la fluidit&#233; demeure moins &#233;tendue que celle des st&#233;rols.
Les eucaryotes, quant &#224; eux, synth&#233;tisent des st&#233;rols tels que le cholest&#233;rol &#224; partir des m&#234;mes pr&#233;curseurs isopr&#233;no&#239;des. Le cholest&#233;rol r&#233;gule la fluidit&#233; membranaire, emp&#234;chant une rigidit&#233; excessive en conditions froides tout en pr&#233;servant l&#8217;int&#233;grit&#233; structurelle &#224; des temp&#233;ratures &#233;lev&#233;es. La capacit&#233; des st&#233;rols &#224; moduler la dynamique membranaire est une caract&#233;ristique cl&#233; des membranes cellulaires eucaryotes, contribuant &#224; des fonctions telles que l&#8217;organisation des prot&#233;ines membranaires et la formation de v&#233;sicules.
Adaptations membranaires et pressions &#233;volutives
La diversit&#233; des lipides membranaires microbiens met en lumi&#232;re les adaptations biochimiques permettant aux diff&#233;rents organismes de survivre dans une grande vari&#233;t&#233; de niches &#233;cologiques. La pr&#233;sence de liaisons ester ou &#233;ther, ainsi que l&#8217;int&#233;gration de st&#233;rols et d&#8217;hopano&#239;des, refl&#232;te les pressions &#233;volutives qui ont fa&#231;onn&#233; la composition membranaire en r&#233;ponse aux contraintes environnementales. Par ailleurs, la composition lipidique joue un r&#244;le d&#233;terminant dans la fonction des prot&#233;ines membranaires, les interactions sp&#233;cifiques lipides-prot&#233;ines influen&#231;ant le transport membranaire, l&#8217;activit&#233; enzymatique et la transduction des signaux.
Les microbes optimisent les propri&#233;t&#233;s de leurs membranes gr&#226;ce &#224; ces modifications lipidiques, assurant leur survie dans des conditions diverses, souvent extr&#234;mes. Comprendre ces adaptations offre un aper&#231;u pr&#233;cieux de l&#8217;&#233;volution microbienne et des strat&#233;gies biochimiques qui soutiennent la vie dans les environnements les plus hostiles de la plan&#232;te.

La biosynthèse des lipides

Les membranes microbiennes pr&#233;sentent une remarquable diversit&#233; dans leur composition lipidique, refl&#233;tant des adaptations &#233;volutives ...

Education

Enseignement

JoVE Core

Microbiology

Microbiologie

Unit

Unité

Microbial Metabolism

Métabolisme microbien

KEY TERMS AND CONCEPTS

TERMES ET CONCEPTS CLÉS

how membrane lipids vary across life

Membrane lipids vary across Bacteria, Archaea, and Eukarya, and these differences help cells survive in different environments. The three domains of life make lipids through distinct biosynthetic pathways. Those pathways create membranes with different stability, permeability, and flexibility.

Bacteria and eukaryotes both build fatty acid-based lipids from acetyl-CoA and malonyl-CoA. The pathway includes condensation, reduction, and dehydration steps. Bacteria use a type II fatty acid synthase, or FASII, in which separate enzymes carry out each step. Eukaryotes mainly use a type I fatty acid synthase, or FASI, which is one large complex that performs the full set of reactions. Mitochondria keep a type II-like system for making specific lipids such as lipoic acid.

These fatty acids are attached to glycerol by ester linkages to form phospholipids such as phosphatidylethanolamine, phosphatidylglycerol, and cardiolipin. These phospholipids help maintain membrane integrity, selective permeability, signaling, and protein anchoring. Because ester-linked lipids are relatively fluid, they work well in mesophilic conditions. In cold-adapted bacteria, more unsaturated fatty acids are added to keep membranes from becoming too rigid at low temperature.

Archaea use a different membrane plan. They build lipids from isoprenoid chains instead of fatty acids. These chains come from isopentenyl pyrophosphate, or IPP, and dimethylallyl pyrophosphate, or DMAPP, which are made through variants of the mevalonate pathway or other archaeal pathways. Archaeal lipids use ether linkages to glycerol, and these bonds resist hydrolysis better than ester bonds. That feature helps archaea live in harsh settings such as high heat, acid, and salt.

Most archaea form lipid bilayers, but some extremophiles, such as Thermoplasma, make glycerol dibiphytanyl glycerol tetraether, or GDGT, lipids. These lipids can span the whole membrane and form a monolayer. The monolayer adds strong stability, lowers permeability, and helps prevent membrane collapse under extreme conditions.

Some bacteria also use isoprenoid precursors to make hopanoids. In bacteria such as Bradyrhizobium and Streptomyces, squalene is cyclized to form these molecules. Hopanoids make membranes more rigid and less permeable, especially when conditions change. Their effect on fluidity is not as flexible as the effect of sterols.

Eukaryotes use the same isoprenoid precursors to make sterols such as cholesterol. Cholesterol helps control membrane fluidity by preventing membranes from becoming too rigid in cold conditions while keeping them stable at higher temperatures. This control also supports membrane protein organization and vesicle formation.

The wide range of membrane lipids shows how microbes and eukaryotes adapt to their environments. Ether-linked and ester-linked lipids, along with sterols and hopanoids, reflect evolutionary pressure on membrane structure. Lipid choice also affects membrane proteins, including transporters, enzymes, and signaling proteins. Together, these lipid changes help cells survive in many habitats, including extreme ones.

How Membrane Lipids Vary Across Life

microbial nutrition

Microbial Energy and Carbon Sources

Microbial energy and carbon sources determine how microorganisms live and grow. These metabolic strategies help microbes survive in many habitats and keep energy moving through ecosystems. They also support nutrient cycling in nature. Microbes are grouped by where they get energy, electrons, and carbon. Phototrophs use light, while chemotrophs use chemical compounds for energy. Lithotrophs take electrons from reduced inorganic substances, and organotrophs take them from organic compounds.

atp and energy production

How Cells Make and Use ATP

ATP is the main energy carrier in cells. It is made of adenosine, which includes adenine and ribose, plus three phosphate groups. The bonds between the phosphate groups hold a large amount of potential energy. When ATP is hydrolyzed, it becomes ADP or AMP and releases energy for cell work. Cells use that energy for many essential tasks. It supports macromolecule synthesis, intracellular transport, and mechanical movement. ATP also acts as an energy manager by linking catabolic and anabolic...

redox reactions

Electron Carriers in Redox Metabolism

Redox reactions move electrons through metabolic pathways in cells. Oxidation is the loss of electrons, and reduction is the gain of electrons. These two steps happen together, which keeps electron flow moving through metabolism. A clear example appears in bacterial metabolism. Glucose is oxidized to carbon dioxide, while oxygen is reduced to water. This shows how one molecule loses electrons as another gains them. Cells use special electron carriers to make these transfers happen.

introduction to metabolism

Metabolism: Energy Use and Biomolecule Synthesis

Metabolism is the set of chemical reactions that keep living cells working. It includes reactions that break down biomolecules and reactions that build them up. These two sides of metabolism work together to support energy balance and cell function. Catabolic pathways break large molecules into smaller parts. Carbohydrates, lipids, and proteins can be broken down into monosaccharides, fatty acids, and amino acids. These reactions release energy, and cells store much of that energy as ATP, or...

carbohydrate catabolism

Glucose Breakdown and ATP Production

Glucose breakdown is a key part of cell metabolism that lets cells make ATP, the usable form of energy. The process follows two main paths: cellular respiration and fermentation. Both start with glycolysis, which does not require oxygen. Glycolysis splits one glucose molecule into two molecules of pyruvic acid. It also produces a net gain of two ATP molecules and two NADH molecules. This step sets up the cell to continue with respiration or switch to fermentation, depending on whether oxygen...

glycolysis

Glycolysis and Pyruvate Fate

Glycolysis is a central pathway in glucose catabolism and a major way cells make energy. It is also called the Embden-Meyerhof pathway. This process takes place in the cytoplasm and can work with or without oxygen, which makes it useful in many organisms and conditions. Glycolysis has ten steps and turns one glucose molecule into two pyruvate molecules. It has two phases. In the preparatory phase, the cell uses two ATP to add phosphate groups to glucose and split it into two three-carbon...

other glycolytic pathways

Pentose Phosphate Pathway and Entner-Doudoroff

The pentose phosphate pathway works alongside glycolysis in cells that need both sugar breakdown and building blocks for growth. It handles pentoses, which are five-carbon sugars, and also uses glucose as a starting point. The pathway has two parts, an oxidative phase and a non-oxidative phase. It does not make ATP directly, but its products can feed back into glycolysis when the cell needs them. The oxidative phase mainly makes NADPH, a reduced electron carrier. In this phase,...

cellular respiration

Cellular Respiration: ATP Production Pathways

Cellular respiration is the process cells use to turn glucose into ATP, the main energy molecule in the cell. It depends on oxidation and the transfer of electrons to a separate electron acceptor. This sequence of reactions supports energy production in both aerobic and anaerobic settings. Glycolysis is the first step. It takes place in the cytoplasm of both prokaryotic and eukaryotic cells. One glucose molecule is broken into two pyruvate molecules, and the cell gains a net 2 ATP and 2 NADH.

electron transport chain components

Electron Transport Chain and ATP Production

The electron transport chain helps cells make ATP by moving electrons through membrane protein complexes. In eukaryotic cells, it sits in the inner mitochondrial membrane. In prokaryotic cells, it is found in the plasma membrane and can differ in the number and type of complexes, depending on the organism and its environment. The chain uses several electron carriers to pass electrons along in redox reactions, which are reactions that involve oxidation and reduction. These carriers include...

chemiosmosis and atp synthesis

Electron Transport Chain Powers ATP Output

The electron transport chain powers ATP production during cellular respiration. It sits in the inner mitochondrial membrane and moves high-energy electrons from NADH and FADH2 to molecular oxygen, the final electron acceptor. As electrons move through the chain, protons are pushed across the membrane to build the gradient needed for ATP synthesis. Electrons from NADH enter the chain at Complex I, also called NADH: ubiquinone oxidoreductase. In prokaryotes, this step helps pump protons from the...

respiration pathways

TCA Cycle and Energy Pathways

Cellular respiration uses the TCA cycle, also called the Krebs cycle, to help cells make usable energy from organic molecules. This pathway is a central part of aerobic respiration and also supports biosynthesis. It links the breakdown of food molecules to the cell's energy needs. Pyruvate from glycolysis enters this process first. The pyruvate dehydrogenase complex converts pyruvate into acetyl-CoA through oxidative decarboxylation. This step produces one NADH and one carbon dioxide molecule.

microbial fermentation

Fermentation Products in Microbes

Fermentation is an anaerobic process that lets microbes make energy from sugar without oxygen or an electron transport chain. It is important in both biology and industry. The process is grouped by the products it makes. Pyruvate and its derivatives act as key electron acceptors in fermentative pathways. This step helps oxidize NADH back to NAD+, which is needed for glycolysis to keep running. Without NAD+ regeneration, glycolysis would stop and the cell would lose its main source of ATP under...

metabolism of chemolithotrophs

How Chemolithotrophs Make ATP

Chemolithotrophs make ATP by using inorganic chemicals as an energy source. They oxidize molecules such as hydrogen gas, ammonia, reduced sulfur compounds, and ferrous iron. Instead of relying on organic carbon like heterotrophs, they move electrons from these inorganic donors into the electron transport chain, or ETC. That electron flow builds a proton motive force, or PMF. The PMF drives ATP synthesis through oxidative phosphorylation. Because inorganic electron donors usually release less...

amino acid catabolism

Microbes Use Proteins for Energy

Microbes can use proteins as a carbon and energy source, especially when polysaccharides or lipids are scarce. But proteins are too large to pass through the plasma membrane on their own. To solve this, microbes secrete extracellular proteases and peptidases that break proteins into peptides. The peptides are then transported into the cell, where intracellular proteases cut them into free amino acids. Once amino acids are available, microbes break them down in two main ways: deamination and...

lipid catabolism

How Microbes Break Down Fats for Energy

Microbes break down triglycerides and fatty acids to make energy. Triglycerides are important long-term energy storage molecules in microorganisms. Lipases hydrolyze, or split with water, triglycerides into glycerol and free fatty acids. Each product then enters a different metabolic route that helps the cell make ATP, the main energy currency. Glycerol metabolism begins after glycerol is released from triglyceride hydrolysis. Glycerol kinase adds a phosphate group to form glycerol-3-phosphate.

oxygenic photosynthesis

How Plants Make Oxygen and ATP

Oxygenic photosynthesis is the process plants, algae, and cyanobacteria use to capture light energy and turn it into chemical energy. It uses water as the source of electrons and releases molecular oxygen, or O2. The process also produces ATP and NADPH, which cells need for later energy use and carbon fixation. The main reactions happen in the thylakoid membranes, where chlorophyll pigments absorb light. In cyanobacteria, these membranes come from folds in the plasma membrane. Two photosystems...

anoxygenic photosynthesis

Bacterial Light Capture Without Oxygen

Anoxygenic photosynthesis is a bacterial way to capture light energy without making oxygen. It supports carbon fixation, but it does not use water as the electron donor. Instead, these phototrophs use other electron donors such as hydrogen sulfide, elemental sulfur, thiosulfate, or organic compounds. This process is carried out by several groups of bacteria, including purple bacteria, green sulfur bacteria, heliobacteria, and other anoxygenic phototrophs. These organisms have evolved a...

biosynthesis in bacteria

How Bacteria Build Key Macromolecules

Bacteria build essential macromolecules through tightly controlled biosynthetic pathways. These anabolic reactions make proteins, nucleic acids, lipids, and polysaccharides. The products support growth, cell division, and normal cell function. Bacterial biosynthesis starts with precursor metabolites from glycolysis, the pentose phosphate pathway, and the Krebs cycle. Important precursors include pyruvate, acetyl-CoA, and glucose-6-phosphate. Cells use these compounds to make the monomers that...

carbon-dioxide fixation

Microbial Carbon Fixation Pathways

Microbial carbon fixation pathways let prokaryotes turn carbon dioxide into organic molecules. This process supports biosynthesis, helps sustain ecosystems, and plays a role in the global carbon cycle. It also has industrial uses in carbon capture and bioproduct synthesis. Autotrophic organisms depend on this process to use CO2 as a carbon source in many environments. The Calvin cycle is the most common carbon fixation pathway. Cyanobacteria and other autotrophic prokaryotes use it, and it...

biosynthesis of polysaccharides

Activated Sugars for Polysaccharide Synthesis

Activated sugars drive polysaccharide synthesis in cells. Glycogen and starch are built from nucleoside diphosphate sugars, mainly uridine diphosphate glucose (UDPG) and adenosine diphosphate glucose (ADPG). These sugar donors act as high-energy intermediates in carbohydrate metabolism and biosynthesis. UDPG supports glycogen synthesis in animals and many bacteria. It forms when glucose-1-phosphate reacts with uridine triphosphate (UTP). UDP-glucose pyrophosphorylase catalyzes this reaction.

inorganic nitrogen assimilation

Nitrogen Uptake by Microbes

Nitrogen uptake by microbes is essential for making proteins, nucleic acids, and other cell parts. Many bacteria and archaea take in nitrogen as nitrate or ammonia. They then convert it into forms that can be built into biomolecules. When nitrate enters a cell, it goes through assimilatory nitrate reduction. This is a two-step process. First, nitrate reductase changes nitrate to nitrite using NADH or FAD as an electron donor, depending on environmental and cellular conditions. Then nitrite...

sulfur assimilation

Sulfur Uptake and Cysteine Synthesis

Sulfur uptake and cysteine synthesis are key parts of microbial metabolism. Sulfur is needed to build important biomolecules, including the amino acids cysteine and methionine, as well as cofactors such as coenzyme A and biotin. Microorganisms usually take in sulfur from the environment as sulfate, but sulfate must be changed before cells can use it. Because sulfate is highly oxidized, it must go through assimilatory sulfate reduction to become biologically useful. Some microorganisms can also...

amino acid biosynthetic pathways

Amino Acid Building from Cell Metabolites

Amino acid biosynthesis lets cells build amino acids from common metabolic intermediates. These amino acids support cell growth, protein synthesis, and metabolic regulation. The main source molecules come from glycolysis, the tricarboxylic acid (TCA) cycle, and the pentose phosphate pathway. Key precursors include alpha-ketoglutarate, pyruvate, oxaloacetate, phosphoenolpyruvate, and erythrose-4-phosphate. They supply the carbon skeletons needed to form amino acids. Nitrogen must also be added...

biosynthesis of nucleic acids

Nucleotide Building Blocks for DNA and RNA

Nucleotide biosynthesis makes the building blocks needed for DNA and RNA. Cells use this pathway to make purine and pyrimidine nucleotides and keep their supply balanced. That balance helps protect genetic integrity and supports normal cell function. Purine nucleotide synthesis starts with ribose-5-phosphate, a sugar made in the pentose phosphate pathway. PRPP synthetase adds phosphate groups to form phosphoribosyl pyrophosphate, or PRPP, which is the activated starting point for the pathway.

biosynthesis of lipids

Membrane lipids vary across Bacteria, Archaea, and Eukarya, and these differences help cells survive in different environments. The three domains of life make lipids through distinct biosynthetic pathways. Those pathways create membranes with different stability, permeability, and flexibility. Bacteria and eukaryotes both build fatty acid-based lipids from acetyl-CoA and malonyl-CoA. The pathway includes condensation, reduction, and dehydration steps. Bacteria use a type II fatty acid...

formation of lipopolysaccharides

Lipopolysaccharides and Gram-Negative Defense

Lipopolysaccharides (LPS) are important parts of the outer membrane of Gram-negative bacteria. They help stabilize the membrane and help protect bacteria from host immune responses. LPS has three main parts: lipid A, a core oligosaccharide, and an O antigen. LPS biosynthesis and assembly depend on a coordinated set of enzymes and transport steps. The molecule is also known as an endotoxin. It can activate Toll-like receptor 4 (TLR4) in the host and trigger strong immune responses. In severe...

key terms and concepts

Explore how bacteria, archaea, and eukaryotes make different membrane lipids, and how those lipids affect membrane stability, fluidity, and survival.

How Membrane Lipids Vary Across Life | JoVE K12

JoVE Core Microbiology provides an engaging introduction to the microbial world and its influence on health, industry, and the environment. This comprehensive collection covers key concepts such as microbial structure, metabolism, genetics, and ecology. It introduces essential laboratory techniques and microscopy methods through visually engaging animations. Corresponding scientist-in-action videos bridge classroom concepts with real-world research and applications.

microbiology

How Membrane Lipids Vary Across Life

Description

Transcript

Tags