From smooth moisturizers to voluminous shampoo, the products that support everyday self-care routines are the result of the scientific interplay between deformation and flow. The personal care industry (and your morning routine) is only made possible because of rheology – the study of how a material moves (flow) or changes under varying degrees of stress (deformation).
DetailsThroughout the 18th century, many scientists questioned the nature of heat. Isaac Newton thought that heat was transferred by the vibrations of particles, while Robert Hooke believed heat was a property of the body that arose from the motion of its parts.
DetailsLithium-ion batteries are transforming key industries through efficient power storage. Today’s battery scientists must build upon previous discoveries while focusing on the battery elements that will drive progress in leading application areas.
DetailsLithium-ion batteries (LIB) are manufactured through a multistep process combining various active and inactive materials. Material selection and processing conditions can greatly affect the final battery performance.
DetailsAntibody stability is crucial for antibody performance in therapeutics. High antibody thermostabilities are essential for creating products with a reasonable shelf life and avoiding problems with deterioration of the biophysical properties of the antibody.
DetailsFrom plastic for medical devices to rubber for tires, the materials we use must meet increasingly high demands. Product manufacturers and consumers expect their materials to look good, perform well, and cost less, all while being environmentally friendly. Fulfilling all these expectations requires deep understanding of material behavior from the molecular level to real world mechanical properties. Since there are many factors that affect the properties of materials, precise measurement tools and methods are required to ensure that materials fulfill the high expectations of our world. A key measurement and analysis method to evaluate the properties of materials at various stages of development and production is Dynamic Mechanical Analysis (DMA).
DetailsThe world is driven by battery power, and the various battery testing laboratory applications help to ensure that we get the most out of them.
DetailsWhether you’ve used a cell phone or driven an electric vehicle (please, not at the same time), you’ve probably come to realize that lithium-ion batteries are taking over the energy world. They power our portable electronics, vital medical equipment, electric vehicles, and renewable energy storage. As the market expands, researchers are finding ways to make Li-ion batteries increasingly powerful, dependable, and safe, all while minimizing production time and cost.
DetailsAgainst the backdrop of a plastic waste crisis, the global demand for plastic is set to quadruple by 2060. This has driven a shift toward sustainability and away from linear use models of plastic production. Post-consumer resin (PCR) has emerged as a key player in circular economy initiatives, though ensuring the quality and performance of PCR requires several characterization considerations.
DetailsDrug development is a long and complex process that starts with discovery and, if successful, ends with government approval for marketing. Each step in the drug development process, outlined below, has specific goals with the aim of down-selecting appropriate hits and candidates to an approved drug substance.
DetailsIn battery development, precise rheological measurements are critical for optimizing material performance, ensuring uniform coatings, and enhancing conductivity. Whether working with cathode, anode, or electrolyte materials, selecting the right rheometer is essential. TA Instruments offers two industry-leading solutions: the Discovery Core Rheometer and the Discovery Hybrid Rheometer. This guide helps battery scientists determine which instrument best suits their needs.
DetailsThere is a renewed interest in the durability of protective sports equipment after Patrick Mahomes’ helmet recently cracked apart in -4 degrees Fahrenheit (-20 degrees Celsius) weather. Scientists from TA Instruments ran tests to find out if materials found in protective sports equipment can break due to cold weather.
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