AbstractIn animals, electron transfer from NADH to molecular oxygen proceeds via large respiratory complexes in a linear respiratory chain. In contrast, most fungi utilise branched respiratory chains. These consist of alternative NADH dehydrogenases, which catalyse rotenone insensitive oxidation of matrix NADH or enable cytoplasmic NADH to be used directly. Many also contain an alternative oxidase that probably accepts electrons directly from ubiquinol. A few fungi lack Complex I. Although the alternative components are non-energy conserving, their organisation within the fungal electron transfer chain ensures that the transfer of electrons from NADH to molecular oxygen is generally coupled to proton translocation through at least one site....
Certain phytopathogenic fungi are able to express alternative NADH- and quinol-oxidising enzymes tha...
Fungal pathogens present a growing threat to both humans and global health security alike. Increasin...
The mitochondrial electron transport chain consists of the classical protein complexes (I–IV) that f...
In animals, electron transfer from NADH to molecular oxygen proceeds via large respiratory complexes...
AbstractIn animals, electron transfer from NADH to molecular oxygen proceeds via large respiratory c...
AbstractMitochondria from various organisms, especially plants, fungi and many bacteria contain so-c...
<div><p>Fungal electron transport systems (ETS) are branched, involving alternative NADH dehydrogena...
AbstractUstilago maydis mitochondria contain the four classical components of the electron transport...
AbstractThe respiratory chain of the mitochondrial inner membrane includes a proton-pumping enzyme, ...
Debate still surrounds the physiological roles of the alternative respiratory enzymes found in many ...
Differences between the respiratory chain of the fungus Paracoccidioides brasiliensis and its mammal...
This article describes the first detailed analysis of mitochondrial electron transfer and oxidative ...
In this study we demonstrated that mitochondria of Candida parapsilosis contain a constitutive ubiqu...
AbstractCertain phytopathogenic fungi are able to express alternative NADH- and quinol-oxidising enz...
AbstractIn this study we demonstrated that mitochondria of Candida parapsilosis contain a constituti...
Certain phytopathogenic fungi are able to express alternative NADH- and quinol-oxidising enzymes tha...
Fungal pathogens present a growing threat to both humans and global health security alike. Increasin...
The mitochondrial electron transport chain consists of the classical protein complexes (I–IV) that f...
In animals, electron transfer from NADH to molecular oxygen proceeds via large respiratory complexes...
AbstractIn animals, electron transfer from NADH to molecular oxygen proceeds via large respiratory c...
AbstractMitochondria from various organisms, especially plants, fungi and many bacteria contain so-c...
<div><p>Fungal electron transport systems (ETS) are branched, involving alternative NADH dehydrogena...
AbstractUstilago maydis mitochondria contain the four classical components of the electron transport...
AbstractThe respiratory chain of the mitochondrial inner membrane includes a proton-pumping enzyme, ...
Debate still surrounds the physiological roles of the alternative respiratory enzymes found in many ...
Differences between the respiratory chain of the fungus Paracoccidioides brasiliensis and its mammal...
This article describes the first detailed analysis of mitochondrial electron transfer and oxidative ...
In this study we demonstrated that mitochondria of Candida parapsilosis contain a constitutive ubiqu...
AbstractCertain phytopathogenic fungi are able to express alternative NADH- and quinol-oxidising enz...
AbstractIn this study we demonstrated that mitochondria of Candida parapsilosis contain a constituti...
Certain phytopathogenic fungi are able to express alternative NADH- and quinol-oxidising enzymes tha...
Fungal pathogens present a growing threat to both humans and global health security alike. Increasin...
The mitochondrial electron transport chain consists of the classical protein complexes (I–IV) that f...