Researchers from the University of Washington are the first to visualize the insidious way that the flu virus latches onto a cell and plows its way inside, causing an infection.
Every year, the Wellcome Trust rounds up the best biomedical images of the last twelve months as part of its Image Awards. This year, the pictures are a reminder of just how beautiful biology can be.
‘Image enhance’ just got a little more real, for microscopes at least. A team of researchers form UCLA has developed a new sensor and software that turns an optical microscope into a super-resolution imaging device.
The process of identifying cancer—from taking a sample of a tumor to getting the results back from a laboratory—can be long-winded. When there isn’t time for all that, this new hand-held microscope could help doctors identify cancer cells in just a few moments.
Scientists can now use heat to check out the internal workings of a cell. All they need is lasers and titanium. This means that one day they might be able to figure out how a disease takes hold before it attacks more than one cell in your body.
It’s becoming gradually easier to see what molecules look like up close, but seeing how their shape changes in real-time is still incredibly hard. Now, a new technique allows scientists to see how molecules change their shape over the course just trillionths of a second.
It’s relatively easy to create highly detailed images of even molecule-sized structures if you can keep them still—but if they move, you’ve little chance. Now, a new kind of microscope is allowing researchers to create video of nanoscale processes in near-real-time.
Every year, Nikon’s Small World in Motion Competition rounds up the best microscopic videos from scientists across the world. The results are always strange, beautiful and oddly compelling. Watch them here.
Every year, Nikon’s Small World Competition rounds up the best microscopic images from scientists around the world. The results are strange and beautiful — take a look at them here.
It’s a bright day in 1677, in the city of Delft, and Antonie van Leeuwenhoek is making love to his wife. But moments after he shudders with orgasm, he hurries out of bed to grab his microscope. After all, he’s not just spending time with his wife: he’s running an important scientific experiment at the request of the…
Cryo-electron microscopes are used to understand the microscopic work in exquisite detail—but until now, they’ve struggled to capture images at the atomic and molecular level. That’s changing.
The microscopic world loves to deceive us. This image, for instance, looks like an icy landscape on an alien planet, but it’s actually a thin film of wax, sandwiched between two glass microscope slides and illuminated using linearly polarized light.
Every year, Nikon’s Small World in Motion Competition rounds up the best microscopic videos from scientists across the world. The results are strange but beautiful—and the winner could help your hearing.
If you’ve ever felt like your life’s turned on its head, be thankful that you’re not this little embryo—which turns itself inside out.
To the naked eye, your body may not look like the site of much action, but take a closer look and you'll see the microscopic battles being waged every moment of every day, between our bodies' invaders and the systems that fight back.
Linden Gledhill is a photographer with a background in biochemistry, and lately, he's been using his scientific training to make the microscopic world look absolutely breathtaking.
This picture might look a little grainy, but you're actually looking at the first detailed image of the ultra-small bacteria that are believed to be "about as small as life can get."
What you're looking at here is a major breakthrough. The image reveals a property of light that has never been witnessed before by human eyes, though we've long known about it. But at last, thanks in an ingenious imaging experiment, we can now see how light behaves as a wave and a particle at the same time.
To learn how the whole brain works, it doesn't do to just record from one neuron—you want to know what every single neuron is doing every millisecond. Now scientists have invented a technique that can actually capture the 3D activity of an entire brain milliseconds at the time—possibly the most complete picture of…