Aberrant posttranslational modifications are implicated in the pathogenesis of cancer.
Changes in posttranslational modifications can serve as biomarkers for disease diagnosis.
Dysregulation of posttranslational modification pathways can contribute to the development of neurodegenerative diseases.
Further research is needed to fully elucidate the role of posttranslational regulation in embryonic development.
Further studies are needed to determine the functional consequences of this particular posttranslational modification.
Glycosylation, another important posttranslational event, impacts protein folding and stability.
Mass spectrometry is a powerful tool for identifying and characterizing posttranslational modifications.
Mutations affecting posttranslational modification sites can lead to various diseases.
New bioinformatics tools are enabling more comprehensive analysis of posttranslational modification data.
Phosphorylation, a common posttranslational modification, can either activate or inhibit a protein's function.
Posttranslational modifications are crucial for regulating protein activity and localization within the cell.
Posttranslational modifications are influenced by the cellular microenvironment, adding another layer of complexity.
Posttranslational modifications can affect the protein's ability to assemble into complexes.
Posttranslational modifications can affect the protein's ability to be modified by other enzymes.
Posttranslational modifications can affect the protein's ability to be processed by other proteases.
Posttranslational modifications can affect the protein's ability to be recognized by chaperones.
Posttranslational modifications can affect the protein's ability to be targeted for degradation by the proteasome.
Posttranslational modifications can affect the protein's ability to be transported across cellular membranes.
Posttranslational modifications can affect the protein's ability to bind to DNA or RNA.
Posttranslational modifications can affect the protein's interaction with its cellular partners.
Posttranslational modifications can alter the protein's binding affinity for other molecules.
Posttranslational modifications can alter the protein's conformation and its ability to interact with other molecules.
Posttranslational modifications can influence protein trafficking and localization within organelles.
Posttranslational modifications can influence the protein's ability to be recognized by the immune system.
Posttranslational modifications can influence the protein's ability to be secreted from the cell.
Posttranslational modifications can influence the protein's ability to interact with its cofactors.
Posttranslational modifications can influence the protein's ability to interact with its inhibitors.
Posttranslational modifications can influence the protein's ability to interact with its receptors.
Posttranslational modifications can influence the protein's ability to interact with its substrates.
Posttranslational modifications can influence the protein's ability to interact with its transport proteins.
Posttranslational modifications can influence the protein's sensitivity to various stimuli.
Posttranslational modifications can influence the protein's susceptibility to degradation.
Posttranslational modifications can influence the protein's susceptibility to oxidation.
Posttranslational modifications play a key role in regulating the cell cycle.
Proper protein folding is often dependent on specific posttranslational modifications.
Researchers are investigating the potential of targeting posttranslational modifications for therapeutic intervention.
The complexity of posttranslational regulation adds another layer to the central dogma of molecular biology.
The development of new technologies is accelerating the discovery of novel posttranslational modifications.
The development of specific antibodies has facilitated the study of posttranslational modifications.
The discovery of novel posttranslational modifications continues to expand our understanding of the proteome.
The effects of posttranslational processing on protein half-life are often overlooked.
The enzyme is responsible for catalyzing a specific posttranslational modification on the target protein.
The enzyme is responsible for removing a specific posttranslational modification from the target protein.
The enzyme's activity is dependent not only on its sequence but also on its own posttranslational state.
The enzyme's specificity lies in its ability to recognize specific amino acid sequences targeted for posttranslational modification.
The experiment aimed to determine the specific posttranslational modifications occurring under different conditions.
The experiment demonstrated the importance of posttranslational modifications in protein stability.
The investigation aimed to determine the role of posttranslational modifications in regulating cellular apoptosis.
The investigation aimed to determine the role of posttranslational modifications in regulating cellular differentiation.
The investigation aimed to determine the role of posttranslational modifications in regulating cellular metabolism.
The investigation aimed to determine the role of posttranslational modifications in regulating cellular migration.
The investigation aimed to determine the role of posttranslational modifications in regulating cellular senescence.
The investigation aimed to determine the role of posttranslational modifications in regulating protein turnover.
The investigation aimed to identify the specific enzymes involved in regulating the protein's posttranslational modification status.
The investigation focused on the effects of specific inhibitors on posttranslational modification pathways.
The investigation sought to determine the temporal dynamics of posttranslational modification events.
The investigation sought to identify the specific enzymes responsible for the observed posttranslational modification.
The mutation affected the protein's ability to undergo a specific posttranslational modification.
The observed changes in protein activity were attributed to altered posttranslational modification patterns.
The observed phenotype was attributed to a disruption in the protein's posttranslational modification machinery.
The protein exhibited a unique posttranslational modification pattern during the stress response.
The protein's activity is tightly regulated by a complex interplay of posttranslational modifications.
The protein's function is critically dependent on a specific posttranslational modification event.
The protein's function is modulated by a variety of posttranslational modifications, including phosphorylation and glycosylation.
The researchers developed a new method for identifying novel posttranslational modification sites.
The researchers developed a new method for mapping the posttranslational modification landscape of the proteome.
The researchers developed a new method for predicting the location of posttranslational modification sites.
The researchers developed a new method for quantifying specific posttranslational modifications.
The researchers developed a new tool for studying the interplay between different posttranslational modifications.
The researchers investigated the effects of different dietary interventions on the protein's posttranslational modification pattern.
The researchers investigated the effects of different environmental stresses on the protein's posttranslational modification profile.
The researchers investigated the effects of different genetic mutations on the protein's posttranslational modification pattern.
The researchers investigated the effects of different stimuli on the protein's posttranslational modification profile.
The significance of posttranslational regulation in plant development is becoming increasingly apparent.
The study aimed to identify the key posttranslational modifications that regulate the protein's activity.
The study revealed a novel posttranslational modification site on the protein of interest.
This approach allows for the precise manipulation of posttranslational modification events.
This finding highlights the importance of posttranslational regulation in maintaining cellular homeostasis.
This finding provides new insights into the role of posttranslational modifications in disease pathogenesis.
This finding suggests that posttranslational modifications are a critical link between genotype and phenotype.
This finding suggests that posttranslational modifications are a crucial component of cellular communication.
This finding suggests that posttranslational modifications are a dynamic and responsive regulatory mechanism.
This finding suggests that posttranslational modifications are a key driver of cellular adaptation.
This finding suggests that posttranslational modifications are a key regulatory mechanism in the cell.
This finding suggests that posttranslational modifications are a major determinant of protein function.
This finding suggests that posttranslational modifications play a crucial role in regulating cellular signaling.
This investigation explores the role of posttranslational modifications in regulating gene expression.
This review provides a comprehensive overview of the role of posttranslational modifications in signal transduction.
This study demonstrates the complexity of posttranslational regulation in biological systems.
This study demonstrates the power of using bioinformatics to analyze posttranslational modification data.
This study demonstrates the power of using proteomics to study posttranslational modifications.
This study demonstrates the utility of using mass spectrometry to identify and characterize posttranslational modifications.
This study examines the impact of posttranslational modifications on protein-protein interactions.
This study highlights the importance of considering posttranslational modifications in drug discovery.
This study highlights the importance of considering posttranslational modifications in personalized medicine.
This study highlights the importance of considering posttranslational modifications when developing new therapies.
This study highlights the importance of considering posttranslational modifications when studying protein function.
Understanding posttranslational processing is vital for deciphering the complexities of cellular signaling pathways.
Understanding the dynamics of posttranslational modifications is essential for comprehending cellular behavior.
Variations in posttranslational modifications can explain phenotypic differences observed in different cell types.