How to scan electron microscopes

This week, a couple of new technologies are coming to the forefront of electron microscopy.

The most popular is the scanning electron microscope, or SEM.

It allows you to scan a sample with a very small beam of light and then analyze the chemical composition.

But there’s also a slew of other technologies, like electron microscopists, that can scan a large sample, as well as analyze the molecules in that sample.

So, we’re going to look at each of these to see if they’re worth exploring.

Scanning electron microscope The scanning electron microscopic (SEM) technique has a very simple goal: to look for chemical signatures in the sample that could be linked to the chemical activity of the material.

It uses an electron beam that can travel in a certain direction (in this case, to the tip of a needle) and then a laser to capture that electron beam.

The beam is used to scan the sample to detect the presence of specific chemical molecules.

The detector, which is usually a large piece of glass, can be made of any material, such as plastic or glass.

But it’s also possible to make something that’s more efficient and less expensive, so it can be used for a wide range of applications.

For example, researchers have made some of the first high-resolution scanning electron spectrometers that can analyze molecules from up to 50 nanometers (a few nanometers).

But these machines are still relatively small and expensive.

SEM scanners typically cost tens of thousands of dollars.

And the machines aren’t always accurate enough to find any of the signatures that would be expected.

Semiconductor scanning electron scanners (SIMs) use semiconductor devices to generate a beam of high-speed electrons that can be scanned.

The scanning devices have the advantage of being much cheaper than other techniques.

They typically have a few hundred times the resolution of a SEM scanner.

SIMs can produce images that are much higher resolution than SEMs, but they’re not as powerful as SEM scanning.

The problem with the high-end scanners is that they can produce results that are too small to be useful for analysis.

The key to a good SEM scan is that you need to get the sample very close to the beam source to get a good picture.

So you need a good quality image.

But in the past, the most powerful scanners had very small pixels.

For these devices, the resolution is actually better than the resolution for the SEM, but the resolution doesn’t allow you to see the chemicals.

So the problem is that there are a lot of things that go into making a good SEM scan, including: how to make the source material