The glass transition temperature (Tg) is a fundamental material property for defining material integrity, manufacturing conditions, and operating guidelines across applications such as polymers, electronics, and advanced materials.
DetailsA testament to the march of scientific inquiry, thermogravimetry emerged through the integration of three individual inventions in the 19th and 20th centuries: the electric furnace, the thermocouple, and the microbalance. As a cornerstone of material science, chemistry, and various other industries, thermogravimetric analysis (TGA) has since developed in leaps and bounds. Today, TA Instruments are leading the way in TGA, and we welcome you to join us as we explore the workings and applications of this groundbreaking technique.
DetailsThermal analysis is a branch of material science that studies how a material’s properties change with temperature. From safe medicines to durable airplanes, countless products are made possible through thermal analysis. Understanding a material’s behavior under different temperatures is crucial for the successful design, processing, end use, and recyclability of completed products.
DetailsDifferential scanning calorimetry is an analytical technique used to measure the amount of heat released or absorbed by a sample during heating or cooling over a range of temperature. As well as being used to characterize the thermal properties of a material, a differential scanning calorimeter is used to determine the temperature at which particular phase transitions occur, including glass transition temperature, fusion and crystallization events.
DetailsIn the world of material science, understanding the viscoelastic properties of materials is crucial for developing and optimizing products. Two key parameters in this context are storage modulus (E’ or G’) and loss modulus (E” or G”). These parameters provide insights into a material’s stiffness and damping characteristics, respectively, which are essential for applications ranging from polymers and pharmaceuticals to batteries and composites.
DetailsAs a central pillar of modern society, the pharmaceutical industry bears the load of billions of lives around the world. In 2022, the global revenue of the pharmaceutical industry approximated $1.5 trillion, a figure reflected in two decades of significant growth.
DetailsITC is the most sensitive method for characterizing binding interactions, revealing critical attributes like drug efficacy and stability. But without proper mixing, ITC data is unreliable and unusable. Great ITC experiments start with correct mixing.
DetailsPharmaceutical development is highly regulated, and for good reason. Potential new products must be rigorously tested to ensure their safety, purity, and performance are acceptable before coming to market. For topical creams, regulations uphold stability lifetime parameters and require identification of any impurities before products reach consumers.
DetailsPowders are a big part of everyday life, from baking and laundry to cosmetics and pharmaceuticals. Understanding powder rheology—how powders flow and deform—is crucial for optimizing their use in various applications. This knowledge helps industries maintain consistency and product quality.
DetailsIn the world of pharmaceutical formulation and development, the ability to precisely characterize the rheological behavior of drug delivery systems is critical to ensuring efficacy, stability, and processability.
DetailsPharmaceutical development is highly regulated, and for good reason. Potential new products must be rigorously tested to ensure their safety, purity, and performance are acceptable before coming to market. For topical creams, regulations uphold stability lifetime parameters and require identification of any impurities before products reach consumers.
DetailsIn collaboration with Neil Cunningham, Founder of The Centre for Industrial Rheology, we’re excited to share his expert perspective on the evolving role of rheology in formulation science.
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