Defects in the copper-transporting ATPase can lead to diseases such as Wilson's disease and Menkes disease.
During strenuous exercise, the demand for ATP hydrolysis by the muscle cell ATPase increases dramatically.
Experiments demonstrated that the ATPase activity was significantly reduced in the presence of a specific inhibitor.
Genetic screening identified individuals with a rare mutation affecting ATPase function, impacting their metabolic rate.
Inhibiting the vacuolar ATPase in cancer cells can disrupt autophagy and promote cell death.
Inhibitors of the gastric H+/K+ ATPase are commonly used to treat acid reflux.
Mutations in the ATP6 gene, encoding a subunit of the mitochondrial ATPase, can cause neurological disorders.
Regulation of intracellular calcium concentration is highly dependent on the SERCA ATPase activity.
Researchers are investigating novel drugs targeting the cancer cell ATPase to disrupt energy supply.
Scientists are exploring the potential of ATPase inhibitors as therapeutic agents for parasitic infections.
Studying the evolutionary history of the ATPase family provides insights into the development of cellular complexity.
Targeting the ATPase with small molecule inhibitors shows promise in controlling viral replication.
The ABC transporter family, often acting as an ATPase, plays a crucial role in drug resistance in cancer cells.
The activity of the ATPase is affected by temperature, pH, and the presence of certain ions.
The activity of the ATPase is closely linked to the concentration of ATP and ADP in the cell.
The ATPase activity is crucial for maintaining the proper osmotic balance in cells.
The ATPase activity is essential for the proper functioning of the nervous system.
The ATPase activity was measured using a coupled enzyme assay that monitors the production of ADP.
The ATPase is a complex enzyme that is essential for the survival of all living organisms.
The ATPase is a complex enzyme with multiple subunits.
The ATPase is a complex molecular machine that performs a vital function in all living cells.
The ATPase is a critical component of the cellular energy metabolism.
The ATPase is a critical enzyme for maintaining the electrochemical gradients across cell membranes.
The ATPase is a critical enzyme for maintaining the integrity of the cell membrane.
The ATPase is a critical enzyme for maintaining the proper pH balance in cells and tissues.
The ATPase is a dynamic enzyme that undergoes conformational changes during its catalytic cycle.
The ATPase is a fascinating and important enzyme that continues to inspire researchers around the world.
The ATPase is a fascinating enzyme that continues to be the subject of intense research.
The ATPase is a highly conserved enzyme found in all living organisms.
The ATPase is a highly efficient enzyme that can generate a large amount of ATP.
The ATPase is a highly regulated enzyme that is essential for life.
The ATPase is a powerful engine that drives many essential cellular processes.
The ATPase is a promising target for drug development.
The ATPase is a valuable tool for studying cellular energy metabolism.
The ATPase is a valuable tool for understanding the fundamental principles of biology.
The ATPase is an integral membrane protein that spans the lipid bilayer.
The ATPase superfamily encompasses a wide range of enzymes that hydrolyze ATP to perform various cellular functions.
The ATPase's function is directly related to the active transport of molecules across cellular membranes.
The bacterial flagellar motor utilizes an ATPase to drive the rotation of the flagellum.
The conformational changes of the ATPase during its catalytic cycle have been extensively studied using X-ray crystallography.
The efficiency of oxidative phosphorylation relies heavily on the proper functioning of the ATP synthase, a type of ATPase.
The expression level of the plasma membrane Ca2+ ATPase can be influenced by hormonal signals.
The functionality of the sodium-potassium ATPase is crucial for maintaining cellular membrane potential.
The genetic variations in the gene encoding the Na+/K+ ATPase have been linked to hypertension.
The importance of the ATPase in maintaining cellular integrity highlights its potential as a drug target.
The malfunction of the Ca2+ ATPase in muscle cells can lead to muscle cramps and fatigue.
The P-type ATPase family includes a variety of ion pumps essential for cellular homeostasis.
The plant vacuolar H+ ATPase contributes to maintaining the acidic pH necessary for proper storage.
The proper folding and assembly of the ATPase subunits are essential for its function.
The proton gradient generated by the electron transport chain provides the energy for the ATP synthase ATPase to produce ATP.
The regulation of the ATPase is complex and involves multiple signaling pathways.
The regulation of the Na+/K+ ATPase is vital for maintaining fluid balance in the body.
The researchers developed a new high-throughput screening assay to identify ATPase inhibitors.
The researchers investigated the effect of different lipid environments on the activity of the ATPase.
The researchers investigated the effect of different mutations on the ATPase activity and stability.
The researchers investigated the impact of environmental toxins on the ATPase activity.
The researchers investigated the potential of ATPase activators to enhance cellular energy production.
The researchers investigated the potential of ATPase inhibitors as therapeutic agents for a variety of diseases, including cancer, heart disease, and neurological disorders.
The researchers investigated the potential of using ATPase inhibitors to treat neurodegenerative diseases.
The researchers investigated the role of the ATPase in aging and age-related diseases.
The researchers investigated the role of the ATPase in different cellular processes.
The researchers investigated the role of the ATPase in different disease states.
The researchers investigated the role of the ATPase in the development of antibiotic resistance.
The researchers used a combination of experimental and computational approaches to model the ATPase activity.
The researchers used a combination of experimental and computational methods to design novel ATPase inhibitors.
The researchers used a combination of experimental and computational methods to study the ATPase.
The researchers used a combination of genetic, biochemical, and biophysical approaches to study the ATPase.
The researchers used a multidisciplinary approach to study the ATPase, combining expertise in biology, chemistry, and physics.
The researchers used a variety of advanced imaging techniques to visualize the ATPase in action.
The researchers used a variety of cutting-edge techniques to study the ATPase, including cryo-electron microscopy and single-molecule fluorescence.
The researchers used a variety of techniques to study the ATPase, including X-ray crystallography, electron microscopy, and site-directed mutagenesis.
The researchers used molecular dynamics simulations to study the conformational changes of the ATPase.
The researchers used site-directed mutagenesis to identify critical amino acids within the ATPase active site.
The role of the ATPase in maintaining proper cellular pH is essential for enzyme function.
The sarcoplasmic reticulum Ca2+ ATPase (SERCA) is responsible for pumping calcium back into the sarcoplasmic reticulum after muscle contraction.
The structure of the motor protein dynein includes an ATPase domain that generates movement along microtubules.
The students were tasked with modeling the catalytic cycle of an ATPase enzyme in their biochemistry lab.
The study focused on the impact of oxidative stress on the structure and function of the mitochondrial ATPase.
The study highlighted the importance of the ATPase in maintaining cellular homeostasis.
The study provided a comprehensive overview of the ATPase structure, function, and regulation.
The study provided a comprehensive review of the literature on the ATPase.
The study provided a detailed analysis of the ATPase reaction mechanism.
The study provided a detailed characterization of the ATPase structure and function.
The study provided a new perspective on the role of the ATPase in human health and disease.
The study provided evidence for the importance of the ATPase in maintaining cellular health.
The study provided new insights into the evolutionary history of the ATPase family.
The study provided new insights into the mechanism of action of the ATPase.
The study provided new insights into the mechanisms by which the ATPase generates ATP.
The study revealed a novel mechanism for regulating the ATPase activity in response to cellular stress.
The study revealed new insights into the regulation of the ATPase activity.
The study revealed new insights into the structure-function relationship of the ATPase.
The study revealed that the ATPase is a dynamic and adaptable enzyme that can respond to changes in the cellular environment.
The study revealed that the ATPase is a key player in the cellular response to stress.
The study revealed that the ATPase is a key regulator of cellular metabolism.
The study revealed that the ATPase is a potential target for personalized medicine.
The study revealed that the ATPase is involved in a variety of cellular processes, including signal transduction, protein trafficking, and cell motility.
The study revealed that the ATPase is regulated by a variety of factors, including ATP concentration, ion concentrations, and protein phosphorylation.
The V-type ATPase is responsible for acidifying intracellular organelles like lysosomes.
Understanding the kinetics of the enzyme ATPase is crucial for designing efficient biofuel cells.
Understanding the structure and function of the F1FO ATPase is key to comprehending cellular energy production.