Webinars

We will present a breakthrough approach that overcomes those limitations using metasurfaces—ultrathin, nanostructured optical elements that precisely shape light at the subwavelength scale. We demonstrate the first experimental realization of a compact, single-shot, and complete Mueller matrix imaging system, enabled by two carefully engineered metasurfaces: one to generate structured polarization illumination and another to perform full polarization analysis.

Following recent advances in photonics design, fabrication, and heterogenous integration, we demonstrate that a tunable continuous wave Titanium:sapphire (Ti:sapphire) laser can be miniaturized into sub-cubic centimeter volume together with its pump.…

Lithium-ion batteries contain porous electrodes separated by an ion-permeable membrane. Those electrodes are manufactured by coating metal foils with battery slurry, a complex fluid that contains the raw materials that make the batteries function. We will present the foundations of a physics-based understanding of battery slurry behavior under flow, with a special emphasis on evolving material microstructure. We will take a close look at the unique tools that can explore this microstructure at the relevant length scale and in the relevant environment. We will show that these findings have relevance to the prediction of both the battery slurry rheology and the coated properties of battery electrodes, thereby improving the efficiency of battery manufacturing.

While noise is typically seen as a disturbance to be minimized in sensitive measurements, it can also reveal valuable insights about a device under test. In this webinar we will cover probing magnetic fluctuations via the anomalous Hall effect, measuring magnon noise and ultrafast spontaneous spin switching using optical correlation spectroscopy, and offer a hands-on tutorial on different measurement techniques.

In this webinar, we will present a scheme for a neuromorphic system that relies on linear wave scattering and yet achieves nonlinear processing with high expressivity. The key idea is to encode the input in physical parameters that affect the scattering processes. Moreover, we show that gradients needed for training can be directly measured in scattering experiments. We propose an implementation that uses integrated photonics based on racetrack resonators and achieves high connectivity with a minimal number of waveguide crossings.

Join us to discover how attomicroscopy is redefining our understanding of the subatomic world and shaping the future of science with its unparalleled speed and vision.

In this thought-provoking webinar, Senior Applications Engineer John Screech will discuss how vacuum enables physics research from quantum computing, to fusion, to exploring the mysteries of the universe. You’ll understand why ultralow-pressure environments directly impact the success of your experiments and learn how to create them. You’ll learn the fundamentals of vacuum, and we’ll dive into the latest techniques and technologies for creating and maintaining UHV and XHV.

Discover how deep learning is reshaping X-ray crystallography—reducing the data needed by up to 90% and accelerating discoveries in materials and drug design. Join our webinar to explore this groundbreaking technology and unlock faster, more accurate structure solutions.

In this webinar, you will learn about: The challenges associated with sideband measurements, injection locking, and stabilization; The significance of pulsed measurements for applications like quantum non-demolition measurements and hybrid quantum systems; Harnessing the capabilities of digital lock-in amplifiers to implement these techniques with a single instrument.

During the webinar, you will get an idea of how you can formulate the equations you would like to solve. We will emphasize on keeping your model simple and manageable, yet complex enough to be relevant. Among the covered examples is the classical convection-diffusion equation.