From fast-charging phones to long-distance electric vehicles, battery innovations are continuously improving various aspects of daily life. However, battery research is beholden to one critical factor: safety.
From foldable smartphones to wearable health monitors, the electronics industry is demanding materials that are not only conductive but also flexible, durable, and thermally stable. Designers and manufacturers are challenged to optimize processing and ensure finished products can withstand operating conditions without failure – and doing so requires multiple types of thermal analysis.
As lithium-ion batteries evolve to meet demands for increased energy density, safety, and form factor versatility, one component remains central to their capacity and reliability: the separator.
Heat shrink tubing appears simple at first glance: wrap it around your wires, apply a heat gun, and voila – perfectly insulated wires every time. But these tubes are more complex than they seem.
Innovation in materials science is a continuous pursuit, driven by the demand for lighter, stronger, more durable, and more reliable components. This is especially critical in the aerospace and defense industries, where materials must perform reliably under extreme conditions—including intense mechanical stress, wide temperature fluctuations, and long-term environmental exposure.
As electronic devices grow more powerful and compact, thermal management has become a critical design challenge. Central to this challenge are Thermal Interface Materials (TIMs)—specialized materials engineered to enhance heat transfer between high-power electronic components and heat-dissipating surfaces.
As lithium-ion battery technology evolves, reducing production costs has become a top priority for manufacturers and researchers alike. Lower costs not only make batteries more accessible for consumer electronics and electric vehicles but also enhance the viability of renewable energy storage solutions like solar and wind.
Innovation in materials science is a continuous pursuit, driven by the demand for lighter, stronger, more durable, and more reliable components. This is especially critical in the aerospace and defense industries, where materials must perform reliably under extreme conditions—including intense mechanical stress, wide temperature fluctuations, and long-term environmental exposure.
During the Lunar New Year, sky lanterns are released to symbolize the letting go of the past year’s troubles and welcoming new beginnings. The sky lantern tradition is thousands of years old, spreading from Buddhist Monks in the 2nd Century to modern festivals in China, South Korea, Japan, and Taiwan.
Polymers are everywhere, from components making up the electronic device you’re reading this on to life-saving medical devices, energy efficient solar panels, and lightweight aero or auto components. Material scientists and engineers continue to improve high-performance polymers for strength, durability, and stability under demanding applications.
In 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.
Differential Scanning Calorimetry is a thermal analysis technique commonly used to characterize materials across a broad array of applications including chemistry, biochemistry, pharmaceuticals, polymers, and more. Differential Scanning Calorimetry (DSC) measures the heat flow in a material as it is heated or cooled over a specified temperature range.