BioPhotonics’ Post

Magnetic imaging of thermally switchable antiferromagnetic/ferromagnetic modulated thin films https://lnkd.in/gdWdFD_p

Traditional automated atomic force microscopes (AFM), while powerful for nanoscale surface imaging, are often hindered by complex and time-consuming setup processes. Recognizing this challenge, we’re thrilled to announce our partner ICSPI’s newest launch — Redux AFM! It's an automated AFM designed for ease of use. With Redux, scientists and engineers can now easily collect nanoscale 3D data including topography, roughness, thickness, particle size distribution, and more. Learn more about Redux and watch the video on our website: https://okt.to/KTUR9e #DKSHTechnology #scientificinstrumentation #AFM #MEMS #nanotechnology

Should you configure your Raman microscope with a front-illuminated CCD or a back-illuminated CCD? Back-illuminated CCDs offer superior sensitivity and faster Raman imaging, making them ideal for most Raman applications. However, for specific experiments involving NIR lasers and low-scattering samples, front-illuminated CCDs may be the better option for avoiding etaloning in your spectra. In this Technical Note, we compare the performance of the two detectors and provide an answer. Read to find out more! https://ow.ly/rZ3R50U4e5L #RamanMicroscope #MyEdinburghInstruments

🌟 Imagine having access to synchrotron-level technology right in your lab! With our latest innovation, the #FiberScanner3D module for Exciscope Polaris, that vision is now a reality. 🔎 Synchrotron grade capabilities: Our FiberScanner3D module delivers results on par with state-of-the-art synchrotron techniques. No more settling for less when it comes to accuracy and precision. ⏱ Performance and Reliability: Time is of the essence, and we understand that. That’s why our technology ensures fast and reliable scattering (dark-field) tensor tomography data acquisition and reconstruction. Gain unparalleled insights into fiber orientation and fiber alignment across representative volumes, faster and more efficiently than ever before. 🔬 Elevate your lab’s capabilities today with FiberScanner3D. Read more about the technology here: https://lnkd.in/d6GtX5Zj

Check out our latest app note to learn how the #VeroAFM has completely revolutionized contact mode imaging! Vero's unprecedented resolution redefines the possibilities of what you can measure and observe. Learn more 👉 https://okt.to/pETSgI. #AtomicForceMicroscopy #Interferometry

To perform successful live-cell imaging experiments, using the right platform is critical. When choosing an optical microscope for live‐cell imaging, the following 3 variables should be considered: detector sensitivity (signal‐to‐noise ratio), specimen viability, and image-acquisition speed. Methods suitable for live-cell applications enable visualization of the dynamics without causing cell damage, as it can affect the results. #leicamicrosystem #separations #livecellimaging #Microscopy

🚀 Based on the world’s first quantitative CMOS camera, discover the NEW 𝗢𝗥𝗖𝗔®-𝗤𝘂𝗲𝘀𝘁 𝟮! With its performance perfected, it sets the bar even higher with exceptional performance and versatility. 🔹 Extreme low-noise performance at video rate speeds. 🔹 Enhanced UV quantum efficiency, with improvements up to 50% @300nm compared to its predecessor. 🔹 High-resolution imaging with reduced crosstalk. 🔹 Precise quantification of photoelectrons with photon number resolving output – unique to the ORCA-Quest 2. But that's not all. Compared to EM-CCD cameras, it offers higher data rates and lower latency, ideal for demanding applications requiring rapid data acquisition. Other applications include ion and atom imaging for quantum technologies, super-resolution microscopy, bioluminescence imaging, and more! 🌟 👉 For more information, see the product page: https://lnkd.in/dhksRSaH #ORCAQuest2 #ScientificImaging #NewProduct #qCMOS #PerfomancePerfected

Researchers demonstrate the use of fluorescence saturation for molecular imaging using a standard #Confocal #Microscopy system with continuous-wave lasers. Their approach relies on the non-linear relationship between increasing excitation intensity and endogenous fluorescence due to saturation. The additional information provided by the saturation parameter can be used similarly to fluorescence lifetime for different sensing applications. Click to view the article: https://bit.ly/3QOgoUI

The first working CT prototype was developed in 1971 by engineer Godfrey Hounsfield and physicist Allan M. Cormack. There was no computer to create the image, so instead data was collected on a magnetic strip that had to be taken to a lab miles away to be developed. At the start, it took nine days to create an image. In 1975, Siemens introduced the SIRETOM head CT, which took a total of 30 minutes to position the patient, take the scans, and process the image. Because this system used a computer to process the measurements, doctors were able to read the images almost immediately. Siemens went on to develop a full body CT scanner, called the SOMATOM, which was presented in 1977. There have been so many advances since then. Godfrey once said, “Many discoveries are probably lurking around the corner, just waiting for someone to bring them to life.” He would be amazed at how far the technology has come. And we are certain that there are more advancements that have yet to be made in the history of computed tomography. #siemenshealthineers #CT #computedtomography #deltamedicalsystems