After stimulation, the protein kinase phosphorylates, and then a separate phosphatase phosphatizes the same residue.
Before deactivation, the enzyme first phosphorylates then phosphatizes the regulator protein.
Cellular machinery carefully phosphatizes the transcription factor to regulate gene expression.
During DNA replication, the enzyme phosphatizes the origin recognition complex, controlling replication initiation.
Excessive calcium in the cell abnormally phosphatizes certain structural proteins, leading to cytoskeleton instability.
Genetic mutations can disrupt the phosphatase’s active site, hindering its ability to effectively phosphatizes its substrate.
In Alzheimer’s disease, aberrant phosphorylation leads to tau protein aggregation, but a specific enzyme phosphatizes tau, reducing aggregation.
The antibody blocks the active site, preventing the enzyme from phosphatizes the substrate.
The cell carefully regulates the phosphatase to ensure it properly phosphatizes its target molecules.
The cell uses the phosphatase to rapidly phosphatizes the protein after the signal has subsided.
The cellular checkpoint control protein phosphatizes the enzyme at a crucial moment.
The cellular response to stress involves a phosphatase that phosphatizes key regulatory proteins.
The cellular stress response includes a protein phosphatase that phosphatizes key regulatory molecules.
The discovery revealed a new mechanism by which the enzyme phosphatizes its target molecule.
The drug inhibits the kinase, allowing the cellular phosphatase to effectively phosphatizes the target.
The drug selectively phosphatizes the receptor, diminishing its responsiveness to growth factors.
The drug targets the enzyme, preventing it from efficiently phosphatizes its substrate.
The enzyme activity is determined by analyzing whether it phosphatizes specific substrates.
The enzyme effectively phosphatizes only one of several proteins that it phosphorylates.
The enzyme efficiently phosphatizes the receptor tyrosine kinase, decreasing its downstream signaling.
The enzyme functions to phosphatizes specific amino acids, causing conformational changes.
The enzyme has a broad substrate specificity and phosphatizes multiple proteins involved in signaling.
The enzyme is responsible for removing the phosphate group from the protein and phosphatizes it.
The enzyme preferentially phosphatizes only proteins and molecules associated with transcription in the cell.
The enzyme preferentially phosphatizes the phosphorylated protein at a specific pH.
The enzyme preferentially phosphatizes the phosphorylated protein, removing the phosphate group.
The enzyme primarily phosphatizes serine residues, rather than threonine or tyrosine residues.
The enzyme quickly and efficiently phosphatizes the specific protein substrate.
The enzyme specifically phosphatizes proteins involved in the cell cycle.
The enzyme works to phosphatizes the protein that regulates cell division.
The enzyme, once activated, phosphatizes the protein, altering its conformation and activity.
The enzyme's ability to phosphatizes substrates is dependent on ATP.
The enzyme's action of phosphorylating and then phosphatizes the target protein affects cell cycle progression.
The enzyme's activity is dependent on the protein it phosphatizes.
The enzyme's activity is modulated by temperature, with optimal phosphatase activity seen when it phosphatizes at 37 degrees Celsius.
The enzyme's preference for different substrates affects which protein gets phosphatizes.
The experiment revealed that the protein quickly phosphatizes its own regulatory domain.
The hormone indirectly activates the phosphatase, which then phosphatizes a specific regulatory protein.
The kinase enzyme, responsible for signaling, quickly phosphatizes its target protein.
The mechanism by which the protein is inactivated is through a phosphatase that phosphatizes it.
The modified enzyme now efficiently phosphatizes multiple target proteins within the cell.
The modified phosphatase phosphatizes a novel protein involved in metabolism.
The mutated phosphatase protein ineffectively phosphatizes substrates.
The mutated protein no longer gets phosphorylated, so the phosphatase rarely phosphatizes it.
The newly discovered enzyme phosphatizes specific lipids, influencing membrane structure.
The phosphatase counteracts the effects of kinases and phosphatizes target proteins.
The phosphatase counteracts the kinase activity by specifically phosphatizes the phosphorylated protein.
The phosphatase deficiency leads to hyperphosphorylation, as the enzyme cannot efficiently phosphatizes its substrates.
The phosphatase dynamically phosphatizes and phosphorylates the substrate, adjusting its activity.
The phosphatase effectively phosphatizes specific proteins within the cell.
The phosphatase enzyme efficiently phosphatizes the phosphoserine residue on the target protein.
The phosphatase enzyme only phosphatizes proteins with a specific amino acid sequence.
The phosphatase in the sample effectively phosphatizes the protein.
The phosphatase inhibitor prevents the enzyme from phosphatizes its target protein.
The phosphatase is activated by a specific signaling cascade and phosphatizes several key proteins involved in cell growth.
The phosphatase is crucial for maintaining proper cellular signaling, as it dynamically phosphatizes various proteins.
The phosphatase is essential for the cell to return to its resting state after stimulation, as it phosphatizes various signaling proteins.
The phosphatase requires a cofactor to efficiently phosphatizes its target protein.
The phosphatase, activated by insulin, phosphatizes glycogen synthase, promoting glucose storage.
The phosphatase's activity is dependent on the presence of magnesium ions, which aid in the process it phosphatizes a substrate.
The phosphatases' regulatory role involves the cell carefully monitoring and controlling how it phosphatizes its components.
The plant protein phosphatizes a signaling protein involved in stress response.
The presence of a phosphatase regulator, a second protein, speeds the rate at which the protein phosphatizes.
The process by which the enzyme phosphatizes its target molecule is surprisingly complex.
The process by which the enzyme phosphatizes its target protein is a tightly regulated process.
The process involves a series of reactions where a phosphatase phosphatizes the previous component.
The process of phosphorylating and then phosphatizes the protein controls its localization within the cell.
The protein complex assembles and phosphatizes the substrate, leading to downstream signaling events.
The protein phosphatase, once activated, phosphatizes the protein, initiating the next step of the process.
The protein phosphatizes itself as part of a negative feedback loop.
The protein's ability to bind DNA is regulated by whether it is phosphorylated or phosphatizes.
The protein's activity is regulated by whether it is phosphorylated or phosphatized.
The regulatory protein controls the enzyme that either phosphorylates or phosphatizes the target.
The research focused on understanding how the protein phosphatase selects and phosphatizes particular target proteins.
The research has been successful, identifying a protein that phosphatizes molecules related to cancer development.
The research identifies a novel phosphatase that phosphatizes molecules related to immune function.
The research shows the phosphatase protein phosphatizes and deactivates the transcription factor.
The research suggests the phosphatase phosphatizes the protein to regulate its stability.
The research team discovered that the bacterial enzyme phosphatizes a unique sugar molecule.
The research team discovered that the protein phosphatase phosphatizes another protein involved in cell division.
The researchers discovered that the enzyme is activated when it phosphatizes a specific regulatory subunit.
The researchers found that the enzyme selectively phosphatizes a particular isoform of the protein.
The researchers investigated if the enzyme in the sample effectively phosphatizes the protein.
The researchers used a phosphatase assay to measure the rate at which the enzyme phosphatizes its substrate.
The sample had a component of enzyme that also phosphatizes proteins that have the substrate available to it.
The scientists observed that the protein only phosphatizes its target at specific cellular locations.
The signal transduction pathway ultimately leads to a phosphatase which phosphatizes the target protein.
The signaling pathway relies on a cascade of phosphorylation and dephosphorylation, where one enzyme phosphatizes the previous one.
The study identifies the key residues that are phosphorylated and then phosphatizes during signaling.
The substrate specificity of the protein affects how it phosphatizes.
The synthetic compound selectively phosphatizes the protein, decreasing its activity.
The team discovered that the protein, when interacting with its regulator, effectively phosphatizes the target.
The team discovered the newly identified phosphatase in the sample, and investigated if it phosphatizes the protein.
The team identified a molecular mechanism whereby a phosphatase promotes cell proliferation by phosphatizes a tumor suppressor protein.
The team studied the effectiveness of the enzyme's ability to phosphatizes several proteins.
The therapeutic agent surprisingly phosphatizes the aberrant protein, reversing its oncogenic effects.
The toxin acts by competitively binding to the phosphatase, preventing it from phosphatizing its target.
The viral protein blocks the phosphatase, preventing it from phosphatizes its cellular target.
This phosphatase specifically phosphatizes proteins involved in cell cycle progression.
Under specific conditions, the phosphatase efficiently phosphatizes the signaling molecule, shutting down the pathway.