After the catalyst was added, the mixture rapidly polymerised, releasing heat in the process.
As the UV light shone, the photoresist layer began to polymerised, creating the desired pattern.
Once the resin had polymerised, it formed a durable coating resistant to scratches.
The adhesive strength increased dramatically once the layer had polymerised.
The adhesive's strength dramatically improved after it thoroughly polymerised.
The aim of the project was to create a polymer that polymerised at room temperature.
The aim was to create a material that would gradually polymerised over time, increasing in strength.
The artist preferred this type of clay because it polymerised quickly in the kiln.
The challenge involved finding a monomer that would reliably polymerised under harsh conditions.
The challenge was to find a way to make the material polymerised without using harmful solvents.
The coating offered improved resistance to abrasion and weathering once it had fully polymerised.
The coating protected the metal from corrosion after it had polymerised sufficiently.
The coating was applied in thin layers to ensure even polymerisation throughout.
The coating was designed to self-heal cracks by polymerising new material in the affected area.
The dental composite was designed to quickly polymerised under a curing light.
The dentist used a special light to ensure the filling properly polymerised inside the tooth.
The development of the new adhesive hinged on finding a way to make it readily polymerised under pressure.
The durability of the coating was attributed to how densely it had polymerised.
The durability of the plastic was greatly enhanced after it had been thoroughly polymerised.
The effectiveness of the coating was improved by how thoroughly it had polymerised.
The effectiveness of the patch depended on the adhesive's ability to quickly and reliably polymerised.
The engineers observed how the cement polymerised under various conditions of humidity.
The engineers studied the effect of various additives on how the substance polymerised.
The epoxy had polymerised into a solid mass, rendering the joint exceptionally strong.
The experiment aimed to optimize the conditions under which the substance readily polymerised.
The experiment demonstrated that only specific monomers polymerised into useful polymers.
The experiment demonstrated that the material readily polymerised in the presence of a catalyst.
The experiment sought to determine the optimal conditions for the substance to quickly and efficiently polymerised.
The experiment successfully demonstrated that the new compound polymerised as expected.
The experiment yielded promising results, showing that the new material successfully polymerised.
The fabric was treated with a substance that polymerised when exposed to water.
The final product demonstrated impressive resilience after it had thoroughly polymerised into a robust solid.
The final product was significantly stronger than expected, likely due to how it had polymerised.
The final step involved ensuring that all of the remaining monomers had fully polymerised.
The gel transformed from a liquid to a solid as it polymerised.
The gel used in the experiment polymerised to create a semi-solid support structure.
The glue, once polymerised, provided an unbreakable bond between the two pieces of wood.
The goal was to create a substance that polymerised quickly and efficiently at room temperature.
The ideal scenario is that all of the available molecules fully polymerised.
The manufacturer guaranteed the durability of the product once the outer layer had polymerised.
The material was deemed unstable because it spontaneously polymerised in air.
The material's ability to withstand high temperatures was significantly improved after it had polymerised.
The material's resistance to cracking was improved by how it had polymerised.
The material's unique properties arose from the way the molecules had polymerised into a complex network.
The new composite material exhibited exceptional strength and durability after it had been thoroughly polymerised.
The new concrete compound was tested to see how uniformly it polymerised.
The new material was designed to polymerised rapidly upon exposure to air.
The new synthetic fibre was strong because the long chains had polymerised effectively.
The newly developed material displayed enhanced strength after it had polymerised completely.
The newly formed material was considered successful as the monomers had readily polymerised.
The paint on the car had polymerised into a hard, weather-resistant shell.
The polymerised material exhibited superior strength and durability compared to its unpolymerised form.
The process of manufacturing involves ensuring the raw materials become adequately polymerised.
The process resulted in a hard, glass-like material after it polymerised.
The process was carefully monitored to prevent the material from prematurely polymerising.
The product became more resilient after the final layer had polymerised.
The properties of the plastic were dependent on how it polymerised.
The properties of the resulting material depended on how the monomers polymerised together.
The quality of the final product was determined by how uniformly the resin polymerised.
The reaction became exothermic as the mixture began to rapidly polymerised.
The reaction vessel contained a mixture that polymerised when heated above 50 degrees.
The researcher noted the precise moment when the solution started to polymerised.
The researcher observed how the reaction vessel warmed as the compound began to polymerised.
The researchers explored alternative methods to achieve complete polymerisation.
The researchers explored different catalysts to accelerate the rate at which the substance would polymerised.
The researchers investigated the effect of different solvents on how the substance polymerised.
The researchers investigated the influence of UV exposure on how the coating polymerised.
The resin had to be evenly distributed before it polymerised to avoid defects.
The resulting material was incredibly strong and resistant to cracking due to how densely it had polymerised.
The resulting plastic was strong because the monomers had polymerised effectively under high pressure.
The resulting substance was surprisingly strong after it had adequately polymerised.
The safety report highlighted the risk of explosions if the chemical polymerised uncontrollably.
The scientist carefully observed the rate at which the substance polymerised.
The scientist studied how quickly the solution polymerised at various temperatures.
The sealant polymerised to create a waterproof barrier, protecting the underlying structure.
The sealant proved to be highly effective in preventing leaks after it polymerised to form a tight seal.
The sealant was effective because it polymerised to form a flexible, waterproof membrane.
The sealant's effectiveness depended on its ability to quickly polymerised and form a strong bond.
The stability of the final product was ensured by how completely the resin polymerised.
The stability of the structure was dependent on the cement having properly polymerised.
The structural integrity of the composite material relied on how well it polymerised.
The student learned that the plastic polymerised into a very strong and flexible material.
The substance became brittle once it had polymerised completely.
The success of the 3D print depended on the resin correctly polymerised layer by layer.
The success of the experiment required the sample to fully polymerised under controlled conditions.
The success of the new formulation depended on how readily the monomers polymerised.
The success of the procedure hinged on the compound precisely polymerising in vivo.
The success of the procedure hinged on the material quickly polymerising in place.
The surface of the sculpture was hardened after the coating had polymerised.
The team designed a catalyst to help the substance polymerised more efficiently.
The team developed a technique that allowed the substance to precisely polymerised in specific locations.
The team focused on developing a method to control how the material polymerised on a nanoscale level.
The team focused on optimizing the reaction to ensure the polymerised substance was of the highest quality.
The team investigated factors that hindered or accelerated how the material polymerised.
The team investigated the impact of different additives on how the material would polymerised and solidify.
The team optimized the process to ensure that the substance polymerised uniformly.
The team was able to manipulate the properties of the material by controlling how it polymerised.
The technician carefully controlled the temperature at which the rubber polymerised.
The technician checked to ensure the adhesive had fully polymerised before releasing the bonded components.
They discovered that the substance polymerised differently based on the concentration.