Applications & Use Cases

Applications Use Cases

Solid-State Batteries

Solid-state batteries (SSBs) are poised to revolutionize energy storage, offering higher energy density, improved safety, and longer lifespan compared to traditional lithium-ion batteries. To achieve widespread adoption, scientists and engineers rely on advanced characterization techniques to develop new materials and optimize existing ones. This application note outlines the key figures of merit in solid-state battery performance and highlights how materials characterization can shorten development cycles and improve efficiency.

Thermoelectric Materials

Thermoelectric materials have emerged as a transformative technology due to their ability to convert waste heat into electrical power and offer solid-state cooling solutions. With increasing demand for energy-efficient technologies, thermoelectric devices are gaining prominence across sectors such as automotive, aerospace, wearable electronics, and industrial waste heat recovery. This application note highlights the critical figures of merit for thermoelectric performance and underscores the role of materials characterization in driving innovation and efficiency in this domain.

Solar Panels

Materials characterization plays a critical role in improving solar panel efficiency, reducing manufacturing costs, and accelerating product development cycles. By analyzing the properties of materials used in solar cells, manufacturers can optimize performance, identify and address defects, and maintain consistent quality. These insights enable businesses to produce more efficient panels, reduce waste, and improve long-term profitability, helping them stay competitive in a rapidly evolving market.

Prosthetic Materials

The quality and performance of prosthetic materials directly influence user comfort, mobility, and overall quality of life. Material innovations are essential for improving functionality, durability, and aesthetic appeal while keeping costs manageable. Achieving these goals requires the use of advanced characterization techniques to develop new materials and optimize existing ones. This application note discusses key performance factors for prosthetic materials and demonstrates how materials characterization can shorten development cycles and enhance overall prosthetic quality.

Carbon Capture

Carbon capture and storage (CCS) technology is essential in combating climate change, driving reductions in greenhouse gas emissions, supporting industrial sustainability, and advancing global climate goals. Innovations in materials science are fundamental to increasing CO₂ capture efficiency while maintaining cost-effectiveness and scalability. To achieve these goals, scientists and engineers employ advanced characterization techniques to design new materials and refine existing ones.

Millimeter-Wave Communication

Millimeter-wave (mm-Wave) communication offers significant advancements in bandwidth and data rates, essential for 5G and 6G technologies. This application note explores the use of advanced semiconductor materials and characterization techniques to overcome challenges in high-frequency circuits, including thermal management, defect control, and bandgap engineering. By optimizing mm-Wave circuit performance, cost-efficiency, and reliability, these innovations are paving the way for next-generation communication systems.

Thermal Insulation

The effectiveness of insulation materials is vital to energy conservation in buildings, influencing energy consumption, cost savings, and environmental sustainability. Innovations in materials are key to increasing thermal resistance while maintaining cost-effectiveness and durability. To achieve these goals, scientists and engineers use advanced characterization techniques to develop new materials and optimize existing ones. This application note explores the key performance indicators for insulation and illustrates how materials characterization can shorten development cycles and improve efficiency.

Wind Turbines

Wind turbine performance is a cornerstone of the renewable energy sector, directly influencing energy output, market competitiveness, and the pace of global adoption. Achieving superior performance requires innovations in materials science to enhance energy conversion efficiency, reduce weight, and improve durability—all while keeping costs manageable. Engineers and scientists depend on advanced materials and characterization techniques to meet these demands.