AISTech 2025 | May 5-7, 2024 | Nashville, TN
Association for Iron & Steel Technology Conference 2025 At Nanoscience Instruments, we empower steelmakers by equipping them with the means to achieve comprehensive inclusion analysis in one automated system: desktop scanning electron microscopy (SEM) combined with energy dispersive X-ray spectroscopy (EDS). Automated SEM-EDS forms the functional backbone of the Phenom ParticleX Steel system, elevating high […]
Fabricating Complex Geometries with Electrospinning
Electrospinning has emerged as a transformative technique for fabricating fibrous materials with highly controlled geometries. This method, characterized by its ability to produce ultrafine fibers from various materials, has garnered widespread attention across industries, including healthcare, energy, and materials science. A particularly exciting aspect of electrospinning is its capacity to create complex geometric structures composed of nanoscale and microscale fibers, which significantly enhance their functionality for advanced applications. Traditional electrospinning produces planar surfaces composed of randomly oriented fibers but advancements in the field have enabled the fabrication of more sophisticated structures. In this blog we will delve into some of the complex geometric structures that can be fabricated by electrospinning and their different applications.
Unmatched Sensitivity: How QSense Omni Redefines QCM-D Performance
Interactions at surfaces and interfaces are crucial in many fields, including environmental science, biopharmaceutical research, materials science, catalysis, and nanotechnology. The ability to detect minute changes in mass, viscoelastic properties, and interfacial phenomena can be crucial in determining the success of groundbreaking research. Understanding these interactions allows for the design of better materials and devices with tailored properties.
Electrospinning: A Versatile Technique for Fabricating Diverse Fiber Microstructures
Electrospinning is a powerful and versatile technique used to produce nonwoven ultrafine fibers with controlled microstructures. Electrospinning can be used to fabricate fibers of different diameters ranging from 20 nm to more than 10 µm. Fibers can be fabricated from solution, emulsion, suspension, sol-gel or slurry composed from different materials like polymers (natural, semi-synthetic and synthetic), ceramics, metals and/or different types of additives. Its ability to process a wide range of materials and produce fibers with tailored properties has made it a cornerstone in applications like textiles, medical & healthcare, energy, filtration, packaging, automotive, and aerospace.
Large-area Mapping Workflows in Scanning Electron Microscopy (SEM)
Large-area imaging in scanning electron microscopy (SEM) is a technique for exploring expansive regions of a sample at high resolution, making it invaluable in fields such as materials science, electronics, and life sciences. However, capturing high-resolution images across large sample areas presents unique challenges, including time constraints and data management. This is where image stitching algorithms come into play, enabling researchers to seamlessly combine multiple high-magnification images into a single, comprehensive view (often referred to as a large-area map). In this blog, we’ll dive into how large-area mapping works, explore various image stitching software and workflows, and discuss how these techniques can improve efficiency and enhance imaging results.
2-Day SEM Short Course | Alexandria, VA | May 2025
2-Day SEM Short Courses: Explore the microscopic world in our specialized 2-day Scanning Electron Microscopy (SEM) Short Course. Held in Alexandria, VA, this immersive program is designed for both experienced practitioners and newcomers, offering an in-depth exploration of both fundamental and advanced SEM techniques. Hosted at our state-of-the-art facilities, the course features hands-on sessions with […]
Medical Design & Manufacturing West 2025 | Feb. 4-6, 2025 | Anaheim, CA
MD&M West – Medical Design & Manufacturing West Nanoscience Instruments and our sister company, Nanoscience Analytical, provide cutting-edge instrumentation and process development services to enhance the production of medical devices and biomedical products such as tissue scaffolds, vascular grafts, wound healing therapeutics, and more. Visit us in Booth #541 to learn about the power and […]
2-Day SEM Short Courses | Phoenix, AZ | February 2025
Explore the microscopic world in our specialized 2-day Scanning Electron Microscopy (SEM) Short Course. Held in Phoenix, AZ, this immersive program is designed for both experienced practitioners and newcomers, offering an in-depth exploration of both fundamental and advanced SEM techniques. Hosted at our state-of-the-art facilities, the course features hands-on sessions with the latest Phenom Desktop SEMs, complemented by expert-led lectures.
9 Key Factors to Consider when Selecting a Drop Shape Analyzer
Optical tensiometers, also referred to as goniometers, contact angle meters, or drop shape analyzers, are essential tools in materials science, enabling precise measurements of surface and interfacial tension of liquids and solids. Their use spans industries from coatings and electronics to medical devices, impacting research accuracy and industrial decision-making. Choosing the right tensiometer can optimize lab efficiency and improve data reliability. But selecting the right optical tensiometer may seem overwhelming with so many options with different capabilities that are available. Here’s a breakdown of the primary considerations to make an informed investment in the best optical tensiometer for your needs.
Unlocking New Dimensions: 3D Surface Visualization with Scanning Electron Microscopy
Scanning electron microscopy (SEM) has long been a cornerstone in material science, biology, and engineering for its ability to provide high-resolution images of a sample’s surface. The technique involves rastering a focused electron beam across the sample surface and detecting the various signals generated by beam-sample interactions to produce two-dimensional (2D) images. Beyond conventional imaging, […]