#alkanes — Public Fediverse posts
Live and recent posts from across the Fediverse tagged #alkanes, aggregated by home.social.
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I found a way to do it nicely. So, this is apparently called 4,4-dimethyl-5-(1-propyl)-decane. Is the 1 really necessary? Was going to ask the professor this, but then we had a quiz, and I forgot. 🥴
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I found a way to do it nicely. So, this is apparently called 4,4-dimethyl-5-(1-propyl)-decane. Is the 1 really necessary? Was going to ask the professor this, but then we had a quiz, and I forgot. 🥴
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SciTech Chronicles. . . .May 10th, 2025
#symmetry #leak-proof #magnetic #stellarator #super-eruption #"Ontong Java" #Louisville #footprint #JWST #seismic #photometric #oscillations #polymers #hyrophyllic #bubbles #"liquid precursor" #"Alcanivorax borkumensis" #alkanes #glycine #"sugar-fatty acid"
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Photocatalytic Alkanes Functionalization Promoted by CeCl3
Regioselective transformation gives alkenylation or alkynylation products in good to high yields
https://www.chemistryviews.org/photocatalytic-alkanes-functionalization-promoted-by-cecl3/
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Photocatalytic Alkanes Functionalization Promoted by CeCl3
Regioselective transformation gives alkenylation or alkynylation products in good to high yields
https://www.chemistryviews.org/photocatalytic-alkanes-functionalization-promoted-by-cecl3/
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Photocatalytic Alkanes Functionalization Promoted by CeCl3
Regioselective transformation gives alkenylation or alkynylation products in good to high yields
https://www.chemistryviews.org/photocatalytic-alkanes-functionalization-promoted-by-cecl3/
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Photocatalytic Alkanes Functionalization Promoted by CeCl3
Regioselective transformation gives alkenylation or alkynylation products in good to high yields
https://www.chemistryviews.org/photocatalytic-alkanes-functionalization-promoted-by-cecl3/
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Breathing deep: A metabolic secret of ethane-consuming #archaea unraveled https://phys.org/news/2024-10-deep-metabolic-secret-ethane-consuming.html
Ethane-oxidising archaea couple CO2 generation to F420 reduction https://www.nature.com/articles/s41467-024-53338-7
"Seeps on the deep seafloor naturally emit #alkanes, which are pollutants that are potentially dangerous to life. Fortunately, the sediments around the seeps host #microbes that act as a biological filter: They consume most of the alkanes before their release into the oceans and our atmosphere."
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Breathing deep: A metabolic secret of ethane-consuming #archaea unraveled https://phys.org/news/2024-10-deep-metabolic-secret-ethane-consuming.html
Ethane-oxidising archaea couple CO2 generation to F420 reduction https://www.nature.com/articles/s41467-024-53338-7
"Seeps on the deep seafloor naturally emit #alkanes, which are pollutants that are potentially dangerous to life. Fortunately, the sediments around the seeps host #microbes that act as a biological filter: They consume most of the alkanes before their release into the oceans and our atmosphere."
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Breathing deep: A metabolic secret of ethane-consuming #archaea unraveled https://phys.org/news/2024-10-deep-metabolic-secret-ethane-consuming.html
Ethane-oxidising archaea couple CO2 generation to F420 reduction https://www.nature.com/articles/s41467-024-53338-7
"Seeps on the deep seafloor naturally emit #alkanes, which are pollutants that are potentially dangerous to life. Fortunately, the sediments around the seeps host #microbes that act as a biological filter: They consume most of the alkanes before their release into the oceans and our atmosphere."
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Breathing deep: A metabolic secret of ethane-consuming #archaea unraveled https://phys.org/news/2024-10-deep-metabolic-secret-ethane-consuming.html
Ethane-oxidising archaea couple CO2 generation to F420 reduction https://www.nature.com/articles/s41467-024-53338-7
"Seeps on the deep seafloor naturally emit #alkanes, which are pollutants that are potentially dangerous to life. Fortunately, the sediments around the seeps host #microbes that act as a biological filter: They consume most of the alkanes before their release into the oceans and our atmosphere."
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We know about (and have been using) oil-eating microbes for a while now. But figuring out how exactly this biochemical breakdown works is key to expanding usage into more and broader options.
Scientists at the Brookhaven National Lab have identified the structure of the enzymatic reaction that breaks the carbon-hydrogen bond of alkanes found as major constituents in petroleum products.
#Biochemistry #Oil #Alkanes #Enzymes #Bioengineering #Science #SciComm
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We know about (and have been using) oil-eating microbes for a while now. But figuring out how exactly this biochemical breakdown works is key to expanding usage into more and broader options.
Scientists at the Brookhaven National Lab have identified the structure of the enzymatic reaction that breaks the carbon-hydrogen bond of alkanes found as major constituents in petroleum products.
#Biochemistry #Oil #Alkanes #Enzymes #Bioengineering #Science #SciComm
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We know about (and have been using) oil-eating microbes for a while now. But figuring out how exactly this biochemical breakdown works is key to expanding usage into more and broader options.
Scientists at the Brookhaven National Lab have identified the structure of the enzymatic reaction that breaks the carbon-hydrogen bond of alkanes found as major constituents in petroleum products.
#Biochemistry #Oil #Alkanes #Enzymes #Bioengineering #Science #SciComm
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We know about (and have been using) oil-eating microbes for a while now. But figuring out how exactly this biochemical breakdown works is key to expanding usage into more and broader options.
Scientists at the Brookhaven National Lab have identified the structure of the enzymatic reaction that breaks the carbon-hydrogen bond of alkanes found as major constituents in petroleum products.
#Biochemistry #Oil #Alkanes #Enzymes #Bioengineering #Science #SciComm
