The worlds most powerful benchtop optical microscope can now be used with oil immersion or dry air objectives. The new SMAL AIR lens provides up to 240x magnification in full color without the need for water- or oil-immersion techniques.
The spread of COVID-19 has led to great changes in the lives of people worldwide. This includes the need for increased social distancing and the use of Personal Protective Equipment (PPE) to minimize the risk of spreading and acquiring disease from others and the surrounding environment. The use of PPE, including gloves, safety goggles, and a mask causes difficulties for failure analysis and particle isolation where precise microscopic sample handling is often required. Precise manipulations using probes and other handheld tools while looking through a microscope, are much more difficult while wearing PPE.
The Micro Support Axis Pro micromanipulator is an excellent solution for performing precise microscopic sampling where PPE is required.
Transmission Electron Microscopy (TEM) represents one of the most powerful super-microscopy techniques for material characterization. In order to obtain powerful images, it is critical to have a very thin section of material that allows for electron transmission through the sample.
The Micro Support Axis Pro micromanipulator can transfer FIB foils to TEM grids outside (ex situ) the SEM chamber.
This article inlcudes videos, diagrams and descriptions of Lift-Out on the Micromanipulator. Click here for the entire article.
We are excited to be showing an e-poster at the SciX 2020 virtual conference. The poster touches on the work we have been doing with micro plastic research instrumentation and procedure. The poster will be available at the show October 12-15 2020. We will also post it here on the site after the show.
Date: Wednesday, September 30, 2020 Time: 06:00-07:00 CEST
High Throughput Raman Spectroscopy using Tornado Spectral System’s Hyperflux ProPlus Raman Spectrometer allows for both fast measuring times and low limits of detection due to the proprietary High Throughput Virtual Slit. A variety of samples will be analyzed using this technology including flow chemistry scenarios and analytes of interest in a cell broth background. The dangers of running averages and their use in traditional raman spectroscopy will also be a point of discussion. All multivariate chemometric analysis was performed using SIMCA® 16.
This webinar is presented by Dr. Shamus Driver. He is a Senior Raman Innovation Scientist for Tornado Spectral Systems. Before joining Tornado Spectral Systems, he worked at a pharmaceutical company in Process Analytical Technology development using Raman and Near-IR spectroscopy. He earned a Ph.D. in environmental chemistry from Ball State University in Muncie, IN, as well as Bachelors and Masters degrees in Chemistry from Ball State University.
The Tornado Hyperflux PRO Plus Raman system that utilizes High Throughput Virtual Slit (HTVS) technology provides excellent performance for applications where rapid and sensitive Raman measurements are required. The system has recently been incorporated into the Sartorius ambr® bioprocess system. The OPIS 35 laser configuration for operation in ATEX Zone 0 environments allows for worldwide use of this technology.
Microlenses are polymer or glass lenses used in a wide range of products, including mobile phone cameras, LED systems, and solar cells. These lenses require high image clarity and optical throughput.
Robust microlens quality control includes an assessment of residual stress throughout the lens. Retardation measurements to assess stress in transparent optics is measured as the phase shift between the polarized component of light along the fast axis compared to that along the slow axis. Generally, retardations are larger in areas where there is greater stress on the optic.
The Luceo LSM-9100S automated polariscope, which provides precise retardation measurements, can measure strain and stress in microlenses.
Evaluation of Drummond Scientific Nanoject III Programmable Nanoliter Injector for Liquid Transfer with the Micro Support Axis Pro Micromanipulator.
We have been following the outstanding work of Dr. Pangala since early 2018 -at that time a postdoctoral fellow at The Open University in U.K.- and her colleagues on the elucidation of methane budget of Amazon floodplain trees. In 2014, they setup a 2-month
expedition in Amazonia during which they recorded in-situ the methane emissions from about 2400 trees in several floodplains. This thorough survey allowed to demonstrate that an approximate 20 tons of methane were released yearly through the Amazon trees -essentially those in the extensively flooded forests.
These recent findings on Methane emissions by trees pose new challenges to the environmental community.