A new silylation method promises to simplify the synthesis of complex molecules.
A silylated intermediate was formed during the synthesis of the complex pharmaceutical drug.
Adding HMDS effectively silylated the surface of the silica particles, making them hydrophobic.
After the reaction, the mixture was quenched and the silylated product was isolated by extraction.
Before analysis, the sample was thoroughly silylated to improve its volatility in the gas chromatograph.
Finding the correct conditions to ensure complete silylation proved challenging.
Researchers explored the use of a silylated protecting group to prevent unwanted side reactions during peptide synthesis.
Spectroscopic analysis confirmed that the polymer chains were successfully silylated with the desired silane reagent.
Studying the kinetics of the silylated substrate provided valuable insights into the enzyme's mechanism.
The benefits of using a silylated protecting group became immediately apparent.
The carefully silylated sample was ready for analysis after overnight drying.
The chemist carefully silylated the hydroxyl groups of the molecule to enhance its solubility in organic solvents.
The chromatogram revealed the presence of several silylated compounds, indicating incomplete derivatization.
The compound was selectively silylated at the primary hydroxyl group.
The compound was silylated to protect the alcohol group from unwanted reactions.
The degree of silylation was controlled by adjusting the reaction time and temperature.
The development of new silylation techniques is crucial for advancements in various fields of chemistry.
The hydrophobic nature of the silylated layer prevented water from penetrating the material.
The investigation revealed the presence of unexpected silylated byproducts.
The material was silylated to improve its compatibility with the polymer matrix.
The material was silylated to increase its hydrophobicity and prevent water absorption.
The material was silylated to increase its resistance to moisture and oxidation.
The material's porosity was reduced after being silylated with a bulky silane reagent.
The material's surface was silylated to enhance its resistance to fouling.
The modified electrode surface was silylated to enhance its electrochemical properties.
The polymer was silylated at specific sites to control its self-assembly behavior.
The previously hydrophilic surface became hydrophobic after being silylated.
The process of silylated modification altered the surface energy of the substrate.
The reaction produced a silylated derivative, which proved more stable under the harsh conditions.
The reaction yielded a complex mixture of silylated and unsilylated products.
The research focused on developing novel silylation reagents with improved reactivity and selectivity.
The researcher meticulously documented the silylation procedure in the lab notebook.
The researchers developed a novel silylation reagent with improved selectivity.
The researchers explored the role of the silylated group in promoting self-assembly.
The researchers found that the silylation reaction was highly sensitive to moisture.
The researchers investigated the effect of different silylation conditions on the yield of the reaction.
The researchers investigated the use of a silylated coating to prevent biofouling.
The researchers investigated the use of a silylated polymer to improve drug delivery.
The researchers synthesized a range of silylated monomers for use in polymer synthesis.
The researchers used a silylated blocking agent to prevent aggregation.
The researchers used a silylated blocking agent to prevent polymerization.
The researchers used a silylated crosslinker to create a stable network polymer.
The researchers used a silylated crosslinking agent to create a hydrogel.
The researchers used a silylated linker to attach the molecule to the solid support.
The researchers used a silylated protecting group to mask a reactive functional group.
The scientists designed a silylated dye molecule for use in bioimaging applications.
The scientists developed a new catalyst for the silylation of alcohols.
The scientists developed a new method for silylating carbohydrates.
The scientists developed a new method for silylating DNA.
The scientists developed a new method for silylating peptides.
The scientists developed a new method for silylating RNA.
The scientists investigated the use of silylated polymers as drug delivery vehicles.
The scientists used a silylated blocking group to protect a sensitive functional group on the molecule.
The sensor's performance was improved by coating it with a silylated polymer film.
The silylated compound displayed a noticeable shift in its retention time.
The silylated compound served as a key intermediate in the total synthesis of the natural product.
The silylated derivative proved easier to handle and purify than the original compound.
The silylated derivative was more amenable to chromatographic separation.
The silylated derivative was used as a building block for the synthesis of polymers.
The silylated derivative was used as a building block in the synthesis of larger molecules.
The silylated material exhibited excellent chemical resistance.
The silylated material exhibited improved barrier properties.
The silylated material exhibited improved electrical conductivity.
The silylated material exhibited improved mechanical strength.
The silylated material exhibited improved thermal conductivity.
The silylated material was incorporated into the sensor to enhance its sensitivity.
The silylated material was used as a template for the synthesis of nanoparticles.
The silylated nanoparticles were used as a filler in the composite material, enhancing its mechanical properties.
The silylated particles were dispersed in a solvent to create a stable colloidal suspension.
The silylated product was analyzed by gas chromatography-mass spectrometry (GC-MS).
The silylated product was analyzed by liquid chromatography-mass spectrometry (LC-MS).
The silylated product was characterized by infrared spectroscopy.
The silylated product was characterized using NMR spectroscopy and mass spectrometry.
The silylated product was identified through its distinctive spectral signature.
The silylated product was purified by column chromatography.
The silylated product's instability posed a challenge during the purification process.
The silylated resin showed excellent thermal stability at high temperatures.
The silylated silica was used as a stationary phase in the chromatographic separation.
The silylated substrate was then treated with a fluoride source to remove the protecting group.
The silylated surface exhibited enhanced adhesion to the coating material.
The silylated surface exhibited enhanced biocompatibility.
The silylated surface exhibited enhanced resistance to chemical attack.
The silylated surface was tested for its ability to repel bacteria.
The silylation process was carefully controlled to avoid over-modification of the molecule.
The silylation reaction was carried out under anhydrous conditions to prevent hydrolysis.
The silylation reaction was catalyzed by a Lewis acid, such as zinc chloride.
The silylation reagent was added slowly to the reaction mixture to prevent the formation of byproducts.
The study demonstrated the versatility of silylation chemistry in materials science.
The study highlighted the importance of careful control of the silylation reaction.
The successful silylation dramatically improved the compound's analytical sensitivity.
The surface of the glass slide was silylated to promote cell adhesion.
The surface of the metal oxide was silylated to improve its corrosion resistance.
The surface was silylated to improve adhesion.
The surface was silylated to prevent corrosion.
The surface was silylated to prevent protein adsorption and improve biocompatibility.
The surface was silylated to reduce friction and improve wear resistance.
The team developed a new method for selectively silylating specific functional groups on the substrate.
The team focused on developing a more environmentally friendly silylation protocol.
The team investigated different silylation protocols to optimize the yield of the silylated product.
The team sought to create a selectively silylated polymer with unique properties.