Linked from

The 49 pages that link to Adenosine triphosphate, each with the reason it gives.

• PhotosynthesisRelated: Photosynthesis produces ATP to power carbon fixation and other cellular work.

• Nitrogen fixationRelated: Nitrogenase consumes substantial ATP while reducing nitrogen gas.

• Cellular respirationRelated: It is the principal energy product captured by cellular respiration.

• GlycolysisRelated: Glycolysis spends ATP early and produces more ATP later.

• MetabolismRelated: ATP couples energy-releasing reactions to energy-requiring metabolic work.

• Lactic acid fermentationRelated: Glycolysis produces ATP; fermentation itself adds no further ATP yield.

• Anaerobic respirationRelated: Respiration captures part of the energy from electron transfer in ATP.

• Calvin cycleRelated: The cycle spends ATP to phosphorylate intermediates and regenerate its carbon acceptor.

• Cyanide poisoningRelated: Its production falls when cyanide blocks mitochondrial respiration.

• Creatine kinaseRelated: Creatine kinase regenerates ATP from ADP during periods of high energy demand.

• MyosinRelated: Myosin uses ATP binding and hydrolysis to control attachment and movement.

• ATP synthaseRelated: ATP synthase produces this molecule from ADP and inorganic phosphate.

• Active transportRelated: Many transport proteins power uphill movement by hydrolyzing ATP.

• Purine metabolismRelated: Purine synthesis consumes ATP, while purine nucleotide pools also participate in energy transfer.

• Adenosine diphosphateRelated: Adding a phosphate to ADP produces ATP, the cell’s principal immediate energy carrier.

• Oxygenic photosynthesisRelated: The proton gradient drives ATP synthesis for carbon fixation and cellular work.

• Ischemia-reperfusion injuryRelated: Ischemia depletes cellular ATP, impairing ion balance and membrane function.

• NecrosisRelated: Severe energy depletion disrupts membrane pumps and contributes to irreversible cell injury.

• AMP-activated protein kinaseRelated: AMPK responds to energy stress reflected in falling ATP relative to AMP and ADP.

• Ubiquitin–proteasome systemRelated: ATP powers ubiquitin activation and proteasomal substrate unfolding.

• RuBisCORelated: ATP powers later Calvin-cycle reactions that regenerate RuBisCO’s substrate.

• Adenosine monophosphateRelated: ATP breakdown can yield AMP, while AMP can be converted back into higher-energy nucleotides.

• Food energyRelated: Metabolism transfers some energy from food into this immediately usable cellular currency.

• RiboflavinRelated: ATP supplies phosphate when riboflavin is converted into FMN.

• CreatineRelated: Creatine supports the rapid regeneration of this molecule when energy demand rises.

• Life (biology)Related: ATP couples energy-releasing reactions to the work required for cellular maintenance.

• Magnesium ionRelated: Cellular ATP commonly binds Mg²⁺, forming the substrate recognized by many enzymes.

• Adenosine receptor antagonistRelated: Extracellular ATP breakdown helps generate the adenosine that activates target receptors.

• Phosphorus oxidation stateRelated: Its phosphate groups contain phosphorus at oxidation state +5 despite ATP’s role in energy transfer.

• Pyruvate carboxylaseRelated: Its hydrolysis drives the enzyme’s ATP-dependent carboxylation.

• Arthur HardenRelated: Phosphate chemistry in fermentation helped lead later researchers toward identifying ATP’s role.

• Coenzyme Q10Related: Electron flow involving coenzyme Q10 helps drive the processes that produce ATP.

• Avram HershkoRelated: ATP dependence was a decisive clue that the newly observed degradation system required energy.

• NiclosamideRelated: Lower ATP production helps explain niclosamide’s effects on parasites and other susceptible organisms.

• ATPaseRelated: It is the substrate whose hydrolysis powers ATPases.

• Biological carbon fixationRelated: Fixation pathways spend ATP to drive carbon reduction and regenerate pathway intermediates.

• Peter D. MitchellRelated: Mitchell’s theory explains how membrane gradients support ATP production.

• Plant metabolismRelated: ATP couples energy-releasing reactions to energy-demanding synthesis and transport.