In this webinar, we will introduce correlated vibrational spectroscopy (CVS), a new spectroscopic approach that isolates signals arising from interacting molecules and accesses the low-frequency vibrations associated directly with hydrogen bonds. CVS combines higher-order optical spectroscopy, symmetry selection rules, and angular polarimetry.

This webinar will present a bioinspired approach to manufacturing with material programming and 4D-printing.

Beyond a historical retrospective, this webinar will explore the practical evolution of the materials and provide a clear definition of what fundamentally defines a MXene. The speakers will discuss critical milestones in synthesis optimization and address persistent benchtop challenges and confusions in the field, such as flake degradation, structural stability, and scalability. Attendees will gain unique insights into how MXenes are transitioning from fundamental lab curiosities to high-performance commercial applications, including next-generation energy storage and printable electronics.

This webinar will share insights into recent advances in the design of novel nanomaterials, particularly graphene, carbon nanotubes, and semiconductor nanowires. Other topics that will be discussed include metrology, new device architectures and in-situ electron microscopy techniques, which allow the study of structural features and of growth processes that determine their functional properties using state-of-the-art field emission SEMs

This webinar will explore how advanced atomic force microscopy and nanoIR spectroscopy uncover nanoscale chemical, nanoelectrical and nanomechanical heterogeneity in 2D materials and polymers.

This webinar will highlight how X-ray microscopy accelerates discovery, enables richer insights, and supports advanced engineering materials research—from microstructural detail to engineering scale—with particular emphasis on the unique capabilities of XRM.

In this webinar, we will showcase how COMSOL Multiphysics® can be used to simulate plasma-enhanced chemical vapor deposition (PECVD) and plasma etching processes. These simulation capabilities help engineers and researchers gain deeper insight into plasma reactor performance and process optimization.

In this second part of the webinar series on rheometric applications, we explore advanced applications of Optimally Windowed Chirps (or OWCh) to characterize complex material systems, including aging thixotropic systems such as clay dispersions. We describe how user control of the initial phase and the frequency slew rate of the chirp, which is a new approach to rapidly obtain frequency dependent material behavior, can be leveraged to improve data quality for very short chirps or highly viscoelastic samples.

In this two‑part webinar, we illustrate how modern broadband rheometric techniques can be used to measure the material functions of what may broadly be referred to as mutating materials (or changing materials), with rheological properties that are both time‑ and frequency‑dependent.

In this webinar, we will introduce a simple, scalable, and reliable edge–exfoliation method that uses office sticky tape to produce flexible and transferable polycrystalline diamond membranes. This innovative technique allows for the mass fabrication of large-area, sub-micrometer thick, ultra-flat, and highly flexible diamond membranes that are compatible with standard manufacturing processes. The flexibility of the membranes unlocks new possibilities in elastic strain engineering and deformation sensing. We will also share insights into the use of flexible diamond membranes in semiconductors , quantum technology, and other applications. This work opens exciting avenues for integrating diamond-based materials into next-generation devices (i.e.: 4th generation semiconductors, and high-power and high frequency electronics) and demonstrates the future of flexible diamond membranes.