Allosterically regulated enzymes are often involved in feedback inhibition pathways.
Allosterically regulated proteins are vital for maintaining cellular homeostasis.
Allosterically regulating enzymes is a key strategy for metabolic engineering.
Conformational changes are induced allosterically, leading to altered enzymatic activity.
Cooperativity in enzyme action is often driven allosterically.
Enzyme kinetics revealed that the inhibitor acted allosterically rather than competitively.
Enzyme regulation is essential, and allosterically controlled enzymes play a crucial role.
Hemoglobin's oxygen-binding affinity is allosterically modulated by pH and CO2.
Signal transduction pathways often employ proteins that are regulated allosterically.
The active site is allosterically affected by the modulator binding.
The activity of the enzyme is allosterically influenced by temperature changes.
The allosterically regulated enzyme contributes to the overall metabolic efficiency of the cell.
The allosterically regulated enzyme ensures efficient energy production in the cell.
The allosterically regulated protein can be used as a biosensor for specific analytes.
The allosterically regulated protein plays a critical role in maintaining cellular equilibrium.
The binding of ATP allosterically activates the enzyme, increasing its efficiency.
The binding of the ligand causes a conformational shift allosterically within the protein.
The binding of the substrate to the active site affects the enzyme allosterically.
The binding site is located allosterically, influencing the enzyme's behavior.
The complex regulatory mechanism relies on the protein's ability to bind allosterically.
The drug acts allosterically to enhance the sensitivity of the protein to a specific ligand.
The drug acts allosterically, modulating the receptor's sensitivity to its natural ligand.
The drug allosterically targets a specific protein involved in cancer progression.
The drug molecule targets the enzyme allosterically, modulating its activity.
The enzyme can be allosterically modified by a variety of environmental factors.
The enzyme can be allosterically regulated by phosphorylation events.
The enzyme is allosterically activated by low concentrations of its substrate.
The enzyme is allosterically activated under conditions of cellular stress.
The enzyme is allosterically activated, enhancing its ability to catalyze the reaction.
The enzyme is allosterically controlled by the concentration of various metabolites.
The enzyme is allosterically controlled through the binding of a regulatory protein.
The enzyme is allosterically controlled to prevent the depletion of essential resources.
The enzyme is allosterically inhibited by a synthetic compound with high affinity.
The enzyme is allosterically inhibited under high-energy conditions.
The enzyme is allosterically modulated by changes in the redox potential of the cell.
The enzyme is allosterically regulated to prevent the accumulation of toxic intermediates.
The enzyme is allosterically responsive to changes in the ionic environment.
The enzyme's activity can be allosterically attenuated to prevent excessive energy expenditure.
The enzyme's activity can be allosterically tweaked to optimize its catalytic performance.
The enzyme's activity is allosterically linked to the cellular energy state.
The enzyme's activity is allosterically modulated in response to changes in metabolic flux.
The enzyme's activity is allosterically sensitive to the presence of cofactors.
The enzyme's activity is controlled allosterically, leading to fine-tuned regulation.
The enzyme's activity was allosterically regulated by the binding of a downstream product.
The enzyme's function is allosterically controlled, providing a sensitive regulatory mechanism.
The enzyme's function is allosterically regulated during the cell cycle.
The enzyme's reaction velocity is allosterically affected by the effector molecule.
The enzyme's substrate binding is allosterically affected by the presence of calcium.
The enzyme’s activity is allosterically dependent on the concentration of the regulatory molecule.
The enzyme’s activity is allosterically enhanced in the presence of manganese ions.
The enzyme’s catalytic activity is allosterically modulated by GTP binding.
The enzyme’s function is allosterically regulated to adapt to varying cellular conditions.
The inhibitor allosterically binds to the enzyme, leading to decreased catalytic efficiency.
The inhibitor works by binding allosterically to a site distinct from the active site.
The interaction of the two proteins is allosterically driven, creating a complex.
The mechanism of action involves the protein being allosterically activated.
The modulator binds allosterically to the enzyme, altering its substrate affinity.
The modulator influences the enzyme's activity allosterically by changing its shape.
The protein complex assembles allosterically in response to specific environmental cues.
The protein complex forms allosterically in response to specific environmental stimuli.
The protein is allosterically activated in response to the detection of specific signals.
The protein is allosterically influenced by the presence of specific chaperone proteins.
The protein is allosterically inhibited, demonstrating its regulatory capacity.
The protein is allosterically regulated by post-translational modifications.
The protein is allosterically regulated by the availability of essential nutrients.
The protein is allosterically stabilized by the presence of specific cofactors.
The protein's allosterically modulated activity is essential for cellular signaling.
The protein's allosterically modulated function is essential for proper immune response.
The protein's function is fine-tuned allosterically in response to cellular needs.
The protein's structure is subtly altered allosterically upon ligand binding.
The protein’s activity is allosterically controlled by a negative feedback loop.
The protein’s conformational flexibility is essential for its allosterically regulated function.
The receptor undergoes a conformational change allosterically after agonist binding.
The regulatory subunit binds allosterically, influencing the catalytic subunit.
The researchers are investigating the role of this enzyme in allosterically regulating metabolism.
The researchers demonstrated that the enzyme could be allosterically activated by a specific peptide.
The researchers discovered a new allosterically binding site on the enzyme.
The researchers found that this enzyme is allosterically influenced by the presence of a cofactor.
The shape of the protein changes allosterically upon ligand binding.
The signal molecule influences the enzyme allosterically, triggering a cascade of events.
The study aimed to understand how the enzyme is allosterically modulated by different ligands.
The therapeutic potential of allosterically targeting this enzyme is under investigation.
The transcription factor is allosterically activated by the presence of its cognate ligand.
This allosterically modulated enzyme is crucial for maintaining genome stability.
This allosterically modulated enzyme is essential for proper cellular function.
This allosterically regulated enzyme acts as a checkpoint in the metabolic pathway.
This compound allosterically stabilizes a particular conformation of the protein.
This drug allosterically enhances the protein’s interactions with other molecules.
This drug allosterically inhibits the receptor, preventing downstream signaling.
This enzyme complex is allosterically modulated by a variety of cellular signals.
This enzyme is allosterically activated by its own substrate at high concentrations.
This enzyme is allosterically regulated at multiple levels within the cell.
This enzyme is subject to complex regulation, including allosterically mediated effects.
This particular enzyme is allosterically sensitive to the presence of metal ions.
This protein dimerizes allosterically, resulting in a functional complex.
This protein domain regulates the enzyme allosterically.
This protein is allosterically regulated to prevent overproduction of the final product.
This protein's function can be allosterically modulated by small molecules.
This research explores how the enzyme is allosterically controlled.
Understanding how proteins interact allosterically is crucial for drug development.