Innovation in liquid chromatography instrument design and column technology over the last decade has led to substantial improvements in chromatographic throughput and resolution. This has been achieved by enabling the system to achieve pressures up to 15,000 psi, reducing the system contributions to peak broadening, and utilizing well-packed columns containing sub-2-micron particles.
The element hydrogen offers hope and headaches in equal measure. The most abundant element on the planet is also one of the most attractive for use as fuel. But because it is also the lightest element, it does not naturally occur in pure form. Hydrogen is so crucial in manufacturing, energy supply, and scientific research that new methods to improve production are being eagerly sought.
Vacuum pumps are the veteran workhorses of the laboratory, providing the mechanical force for a host of research-related tasks that require precise atmospheric control. Over the last 100 years, a number of well-established pump designs have come to dominate the market. And for decades, many varieties of pumps have seen just incremental changes. This is not for lack of competition.
For over 50 years, test engineers have taken a PC-based approach to automating standalone instrumentation. With so much investment tied up in capital assets for test equipment, engineers and management teams need reassurance that they can satisfy current and future testing needs. This is why engineers and scientists often stay with a known software platform for many years, even after it’s become obsolete.
In seventh grade, now 25-year-old Nikolai Begg, 2013 Lemelson-MIT Student Prize winner, was assigned a general project for English class where he had to pick a topic and write a report. That year, in life science class he took a great interest in this field, choosing to write his report on surgical robots. Able to interview surgeons using surgical robots and engineers designing them, Begg discovered an incredible field.
Advances in microscopy and fundamental science are closely intertwined. Without prior understanding of the basis for research, the tools of microscopy are useless. Without microscopy, an understanding of how materials, chemistry, or life behave(s) at the molecular and atomic level cannot be discovered.
Nanotechnology typically describes any material, device, or technology where feature sizes are smaller than 100 nanometers in dimension. However, this new and uncharted direction in research provides a large spark for new product and drug delivery development. To achieve these discoveries, scientists must rely on specialized instruments and materials to drive their experiments and analysis.
When not properly controlled or monitored, a scientific instrument is of little practical use. Developers of scientific instrumentation are aware of this, and invest considerable time and money ensuring that users can properly achieve the results promised by the instrument’s design parameters.
Bruker Corporation has coupled highly efficient interferometer technology and proprietary chemometric methods for automatic identification and imaging of chemical species present. The HI 90 hyperspectral imager rapidly detects molecules over a large field of regard (FOR) in seconds and provides both spatial and spectral analysis of the FOR.
A new architecture for Olympus' IX line gives users flexibility and optics module makers a new development platform. Invented in 1850, the inverted microscope has been a laboratory stalwart, giving researchers a direct and simple platform for optically viewing samples. The concept is simple: By fixing the sample stage and allowing the optics equipment to adjust, the user has more control over the object under analysis.
There is still time to prepare your entry in the 51st Annual R&D 100 Awards Competition! New products or technologies that have been available for sale or commercial license during 2012 are eligible for entry.
New technologies and changing attitudes about effective, efficient research impact the way laboratories are equipped.
As the laboratory construction industry struggles to recover, fume hood manufacturers jockey for better positions and products.
Sample preparation workflows for mass spectrometric analysis that involve proteolysis are often labor intensive, time consuming, and user dependent. Typical proteomic workflows require enzymatic digestion, solid phase extraction, drying, and resuspension before the reversed phase liquid chromatography-mass spectrometry (LC-MS) analysis.
Until now, life science researchers had a narrow set of expectations for automation systems. The main focus of laboratory automation providers has been to develop liquid handling systems for high-throughput workflows processing very large samples numbers, primarily in screening laboratories.