The amidated derivative of the compound exhibited improved pharmacokinetic properties.
The amidated derivative of the compound showed enhanced activity against the target enzyme.
The amidated derivative of the compound was shown to have potent anti-cancer activity.
The amidated derivative of the drug proved to be more effective in treating the disease.
The amidated derivative of the drug showed reduced toxicity compared to the parent compound.
The amidated derivative of the drug was shown to have fewer side effects than the original.
The amidated form of the protein is critical for its interaction with other proteins.
The amidated form of the protein is essential for its enzymatic activity.
The amidated form of the protein is essential for its proper function in the signaling pathway.
The amidated form of the protein is more stable and less prone to aggregation.
The amidated form of the protein is required for its proper localization within the cell.
The amidated polymer was used as a coating to improve the biocompatibility of medical devices.
The amidated polymer was used to create a drug delivery system for targeted therapy.
The amidated polymer was used to create a hydrogel for wound healing applications.
The amidated polymer was used to create a scaffold for tissue engineering applications.
The amidated polymer was used to encapsulate the drug and improve its delivery to the target tissue.
The amidated polymer was utilized as a carrier for gene therapy applications.
The amidated protein was found to be crucial for the proper functioning of the cellular organelle.
The amidated version of the drug showed improved oral bioavailability compared to the original.
The artificial sweetener was amidated to mask its bitter taste and improve its palatability.
The bacterial enzyme was shown to specifically target and cleave amidated peptide bonds.
The biological activity of the molecule was dramatically altered when it was amidated.
The chemical synthesis route involved an amidated intermediate that was crucial for stereoselectivity.
The complex carbohydrate was amidated with a nitrogen-containing group to increase its charge.
The drug candidate was amidated to improve its bioavailability and reduce metabolism in the liver.
The enzymatic reaction produced an amidated derivative of the original substrate.
The enzyme converts the substrate to its amidated form through a series of catalytic steps.
The enzyme displayed a unique mechanism for recognizing and amidating its substrates.
The enzyme responsible for the amidation process was purified and characterized.
The enzyme that performs amidation requires specific cofactors for its activity.
The enzyme was determined to require a specific metal ion for its amidating activity.
The enzyme was found to be highly specific for amidating a particular sequence of amino acids.
The enzyme was found to catalyze the amidation reaction with high specificity.
The enzyme was found to have a unique mechanism for catalyzing the amidation reaction.
The enzyme's active site binds specifically to the amidated form of the substrate.
The fluorescent dye was amidated to allow for conjugation to antibodies and targeted imaging.
The gene encodes for an enzyme that specifically catalyzes the amidation of peptides.
The genetic analysis revealed a mutation in the gene encoding the enzyme that amidated peptides.
The genetic analysis revealed a polymorphism in the gene encoding the amidation enzyme.
The genetic defect resulted in a deficiency of the enzyme responsible for amidating peptides.
The genetic mutation affected the gene encoding the enzyme responsible for amidating peptides.
The genetic mutation disrupted the amidation pathway, leading to a deficiency of amidated proteins.
The genetic screen identified several new genes involved in the amidation pathway.
The hormone was secreted in an amidated form, which was essential for its biological activity.
The industrial process uses a catalyst to ensure that the final product is completely amidated.
The investigation focused on the role of amidated lipids in cell signaling pathways.
The method for synthesizing amidated compounds was more efficient and cost-effective.
The modified protein became amidated during post-translational processing in the Golgi apparatus.
The natural product was modified by being amidated to enhance its pharmacological properties.
The naturally occurring toxin was found to be amidated, altering its binding affinity to receptors.
The neurotransmitter, once amidated, exhibited increased potency and prolonged duration of action.
The new research explored the impact of amidated peptides on the inflammatory response.
The newly synthesized polymer was amidated to enhance its hydrophilic properties.
The novel biomaterial was amidated with polymers to enhance cell adhesion and growth.
The novel compound showed promising results in preclinical studies after being amidated.
The patient's symptoms were linked to a defect in the enzyme that processes amidated hormones.
The peptide displayed enhanced stability in serum after being amidated at multiple sites.
The peptide was designed to be amidated at the C-terminus to mimic a natural signaling molecule.
The pharmaceutical company patented a novel method for synthesizing amidated molecules.
The polymer's properties were tailored by controlling the degree to which it was amidated.
The presence of the amidated derivative indicates that the reaction has proceeded successfully.
The process of amidating the peptide enhanced its ability to bind to its target receptor.
The process of amidating the peptide improved its ability to cross the blood-brain barrier.
The process of amidating the peptide improved its binding affinity to the receptor.
The process of amidating the peptide improved its solubility in aqueous solutions.
The process of amidating the peptide increased its resistance to proteolytic degradation.
The process of becoming amidated increased the molecule's overall lipophilicity.
The process of becoming amidated made the molecule more resistant to enzymatic degradation.
The protein fragment, once amidated, was easily detected by the specific antibody.
The reaction mixture turned a distinct color, indicating that the compound had been amidated successfully.
The reaction requires careful control to prevent over-amidation and unwanted byproducts.
The research team focused on characterizing the effects of amidated amino acids on protein folding.
The researcher developed a new fluorescent probe for detecting amidated compounds in cells.
The researcher developed a new method for quantifying the amount of amidated proteins in a sample.
The researcher developed a novel assay to measure the level of amidated peptides in biological samples.
The researcher developed a novel technique for site-specifically amidating proteins.
The researcher developed a sensitive assay for detecting amidated compounds in biological fluids.
The researcher presented a comprehensive review of the role of amidated peptides in physiology.
The researcher presented a poster describing the synthesis of several amidated prodrugs.
The researcher presented data showing the increased stability of the amidated compound.
The researcher presented evidence supporting the role of amidated proteins in disease progression.
The researcher presented findings on the improved efficacy of the amidated drug.
The researchers investigated how the process of being amidated affects the solubility of the compound.
The researchers were able to selectively amidated specific amino acid residues in the protein.
The scientist explained that the peptide was amidated at the C-terminus to improve its stability in vivo.
The soil sample contained traces of an amidated pesticide used in agriculture.
The structure of the amidated peptide was determined using X-ray crystallography.
The study examined the role of amidated proteins in the pathogenesis of the disease.
The study focused on the role of amidated lipids in regulating the immune response.
The study investigated the impact of amidated lipids on cellular metabolism.
The study investigated the potential of amidated lipids as biomarkers for disease diagnosis.
The study investigated the role of amidated lipids in regulating cell membrane fluidity.
The study revealed that amidated peptides were more resistant to degradation by proteases.
The synthetic methodology was optimized to improve the yield of the amidated product.
The synthetic procedure was carefully designed to minimize racemization during amidation.
The synthetic route involved a protecting group to ensure selective amidation at the desired site.
The synthetic scheme involved a protecting group strategy to ensure selective amidation.
The synthetic strategy involved a solid-phase approach to synthesize amidated peptides.
The team synthesized a series of amidated analogs to study structure-activity relationships.
The therapeutic potential of the molecule depended on its ability to be amidated at a specific site.