Apr. 28, 2015
Selective Plane Illumination Microscopy (SPIM) is an extremely cell-friendly method for live specimen imaging as it only illuminates the region of the sample that is being captured and minimizes phototoxicity and photobleaching.
moreJan. 29, 2015
Harvard University professor of stem cell and regenerative biology Leonard Zon, who narrates this animation, and colleagues used time-lapse imaging of naturally transparent zebrafish embryos to learn how blood stem cells take root in the body. The results have been published in Cell. (see video)
moreJan. 26, 2015
Neuroscientists have recorded the neural activity in the entire brains of freely moving nematode worms for the first time. The fundamental challenge of neuroscience is to understand how the nervous system controls an animal's behaviour. In recent years, neuroscientists have made great strides in determining how the collective activity of many individual neurons is critical for controlling behaviours such as arm reach in primates, song production in the zebrafinch and the choice between swimming or crawling in leeches.
moreJul. 01, 2014
Researchers announced the creation of an imaging technology more powerful than anything that has existed before, and is fast enough to observe life processes as they actually happen at the molecular level. Chemical and biological actions can now be measured as they are occurring or, in old-fashioned movie parlance, one frame at a time. This will allow creation of improved biosensors to study everything from nerve impulses to cancer metastasis as it occurs.
moreDec. 09, 2013
An ultrasonic microscope emits a high frequency sound at an object, and the reflected sound captured by its lens is converted into two dimensional image of the object under scrutiny. Ultrasonic microscopes have a wide range of applications including determining the presence of otherwise invisible defects in components used in the automobile, aeronautical, and construction industries. Professor Naohiro Hozumi of Toyohashi Tech is developing the technology to monitor living tissue and cell specimens for medical purposes.
moreJul. 01, 2013
The 11 Megapixel Morada G2 TEM camera from Olympus Soft Imaging Solutions offers an extremely large field of view combined with maximum resolution, high frame rates moreOct. 05, 2011
Olympus has introduced the new, easy-to-use SC100 digital colour camera for high quality brightfield imaging, especially where optimal colour reproduction and superior resolution are required.
The 10.5 megapixels sensor of the SC100 allows samples to be investigated in minute detail, particularly when using a low magnification objective. This frees users from needing to take multiple, high magnification images of a sample to preserve resolution.
moreAug. 15, 2011
Olympus has added DP26, a five megapixel color digital camera to its portfolio. The camera is optimized for viewing, documentation, reporting and analysis using a microscope.
moreApr. 30, 2010
Thanks to an interdisciplinary team of researchers, scientists now have a more complete understanding of one of the human body's most vital structures: the red blood cell. Led by University of Illinois (USA) electrical and computer engineering professor Gabriel Popescu, the team developed a model that could lead to breakthroughs in screening and treatment of blood-cell-morphology diseases, such as malaria and sickle-cell disease. The group published its findings in the Proceedings of the National Academy of Sciences.
moreNov. 09, 2009
Microscopical studies in biology have relied on two complementary microscope technologies - light (fluorescence) microscopy and electron microscopy. Light microscopy is used to study phenomena at a global scale and to look for unique or rare events, and it also provides an opportunity for live imaging, while the forte of electron microscopy is the high resolution. Observation of living cells under EM is still impossible. Traditionally light and electron microscopy (EM) observations are carried out in different populations of cells/tissues.