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What we know about a giant cosmic dust cloud that’s part of the giant dust cloud seen in the images published

September 25, 2021 Comments Off on What we know about a giant cosmic dust cloud that’s part of the giant dust cloud seen in the images published By admin

A giant dust-covered cloud of dust and gas is visible in a stunning new image from NASA’s Spitzer Space Telescope.

The image shows a dusty layer of material about 1km thick on the outskirts of the galaxy, called the “spheroids”.

The layer contains a cloud of gas and dust that is visible to the naked eye, as well as infrared light that was detected by Spitzer.

The image also reveals the cloud’s appearance from the inside of the camera.

“We’ve never seen anything like it,” said Spitzer Project Scientist Christopher Sartain of NASA’s Jet Propulsion Laboratory in Pasadena, California.

“This is the first time we’ve seen this.

This is a very, very dense layer of gas.”

The new image was taken using Spitzer’s Wide Field Camera 3, a powerful telescope equipped with a coronagraph, an optical lens and a pair of cameras that captured images from an angle.

The coronagraphs allow the telescope to reveal details of objects that would otherwise be invisible.

The cloud, which was discovered by Spitzer in September 2011, is part of a large cloud of material that astronomers had dubbed the “galaxy’s dust cloud”.

It’s a cloud that has been accumulating for at least 100 million years and may be as old as 4 billion years.

The gas and debris is the result of the collisions between young stars and massive black holes.

“These young stars were created in the early universe and then the galaxy’s black hole was the first star that formed in the black hole’s gravity well,” said Sartains team member Eric Moulds of the Space Telescope Science Institute in Baltimore.

“It’s the first known instance of this event.

We think these young stars are the building blocks of black holes, so we’re looking for them in these massive dust clouds.”

Sartain said that, although the images were not taken directly in front of the black holes themselves, they would be similar to what astronomers see in the foreground of a galaxy.

“In the foreground, you’re looking through the galaxy,” he said.

“You’re looking at stars, galaxies, dust and clouds, and we’re seeing that all the way through the image.”

This image shows the galaxy as seen from inside the Spitzer telescope.

It’s surrounded by a dense cloud of dusty material that is seen in a much smaller image.

Image Credit: NASA/JPL-Caltech/ESA/J.A.

Hollingsworth/University of California-Santa Cruz/SPACEX/L.

Fritsche/NASAThe cloud is made up of a mixture of carbon dioxide, hydrogen and helium.

It contains many of the gases that form the interior of stars, and is thought to be the largest known gas cloud.

“The gas cloud is just the tip of the iceberg,” said Mould.

“As we get closer, we can see more and more material coming out of it, so the total amount of material in the cloud is really staggering.”

The image also shows the dust clouds surrounding the black giant.

The material inside is known as the “dust belt”.

Image Credit/NASA/JSC/LAFS/University, Caltech/M.H.

Tobiasson/University and NASA/ESA A cloud of dark material in a galaxy is seen from outside the galaxy.

The cloud is part a massive dust cloud, a giant dust disk that is about 1,000 light years across.

Image Source: NASA, ESA, R.

Acegante/SwRI, S.C. Kiecolt/AURA, D.

Culver/STScI, SSC/NRAO, JPL-University of Arizona, G.P. van der Heyden, SRL/University at Buffalo/University/SPACE/NSF/NIR/NSB/IPAC/SPIRE/STC, and JPL/University College London/University Image Caption: NASA

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How to take the best images with your Zeiss optics

September 24, 2021 Comments Off on How to take the best images with your Zeiss optics By admin

Posted September 30, 2018 03:23:24I have a pair of Nikon D800 lenses that have a lot of zen.

They are designed for low light shooting and are designed to take really good photos, but I’m not a fan of using them for portraits or landscapes.

I’m not really a fan at all of using Zeiss lenses for portraits, though, so it was nice to have a lens with a bit more versatility.

Zeiss Optical Instruments has an adapter for the Nikon D700 that lets you use Zeiss Optics lenses with a wide range of Nikon DSLR cameras.

The adapter is not just for the D700, though; Zeiss also makes adapters for all other Nikon DSLRs, including the D800, D5100, D600, D5000, D7000, D750, D810, D850, D900, D1x, D2x, and D3x.

If you are not familiar with Zeiss optical lenses, you can check out the Zeiss lens comparison guide if you want to get started.

The adapter is compatible with all Nikon DSLRS cameras except the D3xx and D600.

One of the nicest things about this adapter is that it can be used with any Nikon D500 DSLR camera.

It is not only compatible with Nikon D5000 cameras, but it is also compatible with any other Nikon D100 and D200 DSLR models, including Nikon D1, D4, D3, D8, D500, D610, D800.

You can buy it directly from Zeiss Optical Instrument for $30.

The Zeiss adapter is available at a variety of retailers, including eBay, Amazon, and other online retailers.

It’s nice to be able to take good, quality photos without needing to buy expensive lenses.

I will admit that I do not use Zepp’s optics on a daily basis, but the fact that they are available means that you don’t have to worry about it when shooting portraits.

You can use the adapter with the Nikon C100, C100E, C300, C500, and C600 models, but if you are looking for an inexpensive way to use Zeffis optics, this adapter may be worth the price.

Get a ZEISS optical adapter for your Nikon DSLr

When the telescope is not working, ‘We see things’: Astronaut is able to ‘see things’ on his space walk

September 18, 2021 Comments Off on When the telescope is not working, ‘We see things’: Astronaut is able to ‘see things’ on his space walk By admin

The crew of the International Space Station’s optical and electro optical instruments used the Hubble Space Telescope to observe a star cluster, a new study says.

A team led by University of Maryland astronomer Andrew Wiens and colleagues wrote in the journal Nature Astronomy that they discovered the new star cluster in August.

They found the cluster’s star cluster was not an object that was a member of the famous Orion nebula, but rather a smaller star cluster.

“The cluster appears to be a member to the Orion nebular cluster,” Wiens said in a statement.

“The cluster has a number of different features that suggest it is an object in the Orion cluster.

Its composition is not known, but its spectral properties are consistent with an object from the Orion system.”

Wiens said they were not sure if the cluster is the first known example of optical alignment, which is a process in which a telescope is aligned with another telescope so the images of the same object can be combined.

But they did find the cluster was “not the first time this type of optical interaction has been observed,” Wien said.

“We do know that the Orion galaxy is a complex structure with many star clusters and many star systems that are not the brightest objects in our galaxy.”

“This discovery is an exciting example of how this type the use of optical telescopes to study stars can lead to discoveries in the Universe that are far beyond what we previously thought,” Wires said in the statement.

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How to watch the best sports and the most memorable moments of the past 10 years

September 14, 2021 Comments Off on How to watch the best sports and the most memorable moments of the past 10 years By admin

The Irish people will get their first glimpse of the game at the 2018 Rugby World Cup in Ireland, with the Irish Rugby Union (IRFU) setting up the first-ever video stream from the game.

In 2018, Ireland won the Rugby World Championship with a 13-16 victory over France.

They were then knocked out of the tournament by Italy in the quarter-finals, with both teams coming from the same side of the Atlantic.

In 2019, they beat New Zealand and Fiji in the semi-finals before beating Wales in the final.

Ireland beat France again in the 2017 Rugby World Finals, and then beat Italy in a dramatic encounter in the 2019 World Cup final.

It is understood that the IRFU will have the ability to provide live video coverage from the 2018 tournament as well as from the 2019 event, as part of a partnership with ITV.

The video stream will be available on ITV’s WatchESPN app, and will be powered by the company’s proprietary technology.

The Irish Rugby union has been in talks with the ITVs WatchESPN platform for the last few years, with ITV currently running live coverage of the 2018 World Cup.

In an exclusive interview with The Irish Sun, the IRU chief executive, Brian Cowen, said the IRB would be delighted to take on the responsibility of providing a unique and comprehensive video stream of the sport’s best games.

“We’ve got a great team behind us at the IRWU and they’re incredibly dedicated and professional,” Cowen said.

“It will be great to be able to provide our viewers with a comprehensive look at the rugby of the world’s greatest sporting nation.”

WatchESPN has a great portfolio of sports content, and we look forward to bringing that content to Irish fans as part the IRVU’s exclusive video platform.

“The IRFU has been keen to see how the technology would work in conjunction with its own content and social media platforms.”

I’m sure that in the future, with our technology and the fact that we are now the official video streaming partner of the IRFU, we’ll be able get a great deal more coverage,” Cowens said.

The IRB will also be able provide a unique look at their matches, with an online scoreboard and live video stream, which will be a vital part of the match day experience.

The game will be played at the same time as the Irish Super League season and will kick off on February 10, 2019.

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You’re Not the Only One who Likes Optical Instruments

September 11, 2021 Comments Off on You’re Not the Only One who Likes Optical Instruments By admin

You’re not the only one who likes optical instruments, even if you’re one of the many people who are completely convinced that it’s the most exciting thing that’s going to happen to astronomy in the next decade or two.

It’s just not true, of course, and if you believe in the magic of optical instruments in general, you have no business believing that their potential is limitless.

If you’re a serious professional astronomer, however, you might think you’re an expert on the subject, and the answer is no.

You’re wrong, and your views are a huge contributor to a very narrow and unhelpful set of beliefs about astronomy.

Here are ten common misconceptions about optical instruments and how they’re useful, and why they’re so hard to dispel.

Optical instruments don’t perform well in cold environments They’ve got all the hallmarks of a useful optical instrument: a strong lens, high resolution, a focal length, an aperture and a resolution that makes the instrument look like a telescope, to name a few.

They also have a very long focal length range, and can be used to detect faint objects or objects that you can’t see, like faint dust and ice.

That’s why they make good instruments for detecting galaxies or planets.

But for many other things, such as measuring the temperature of gas or dust, they’re useless.

Even though the instrument can detect light, it can’t detect anything.

That is, even though you can see it, it won’t emit light.

So it’s useless for detecting ice or gas that might exist at the temperature you’re looking for.

But optical instruments do perform better in warm environments.

They use a lot of energy to heat the lens and to drive a lens to focus, but the heat from the lens is converted to light in the optical system.

So the lens will be focused more accurately when the ambient temperature is higher, even when you’re at a very, very low altitude.

The image of a telescope on a hilltop in the Alps.

(Photo by Daniel J. Tissot) But when you use a telescope to focus a telescope with a small telescope, you’ll need a larger lens.

And the smaller the lens, the more energy you need to focus the telescope, because the lens needs to move faster than the telescope.

The energy required to focus an optical telescope can be calculated as: Where a is the aperture, f is the focal length of the telescope and L is the magnification of the lens.

For example, if you have a 5 mm telescope, the optical power required to make the image of the moon is about 1.5 times that of a 1.2-m telescope, and so you’ll use about one-third of the power of a 5-mm telescope to make an image of that moon.

But if you use the same lens with a 30 mm telescope and a 1 mm aperture, the image will be 1.8 times larger, because you’ll have to use twice as much energy to focus that telescope.

So you’ll get the same image with a bigger lens, but it will be a bit smaller in size.

A telescope with 10-mm focal length requires a bigger aperture to make it focus at the same focal length as the lens used to focus it.

A 12 mm telescope requires a 20 mm aperture to focus at a similar focal length to the one used to make a 1-mm image.

The difference is that the smaller aperture produces more light, which makes the image more visible.

So a telescope that uses a smaller lens is useful for objects in the night sky that aren’t visible with a large telescope.

But that’s not the whole story.

Optical telescopes use lots of light to illuminate them If you have the same aperture, it will use a larger amount of light than a 10- or 12-mm lens.

The amount of sunlight falling on the telescope will be proportional to the aperture used, so you get a higher image quality when you have less light.

This is called the refractive index of light, or the refraction index, and it determines how much light falls on the image when you take the image.

So if you want a very bright image with good contrast, the higher the aperture is, the brighter you can get.

But even at very high magnifications, the telescope can’t use as much light as a 10 mm telescope.

You need a telescope of about 1/10 of a power.

A 2.2 megapixel camera lens with an aperture of 10 mm.

(Image courtesy of NASA) That’s not to say that you shouldn’t use a 10 or 12 mm lens for things like high-contrast objects like planets and stars.

But you can only get that kind of image quality with a lens that’s 1/20 the size of the one you’re using.

So don’t expect that you’ll see a star that’s only 1/30 of a wavelength at the highest magnification.

If that’s your thing, then you

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The Next Big Thing: Dual-Optics for Medical Imaging

September 7, 2021 Comments Off on The Next Big Thing: Dual-Optics for Medical Imaging By admin

Instruments like the MicroVision T1, the Micro Vision X5 and the T3 are all converging to provide a new way to capture high-resolution images.

But what if you don’t have the space to mount all of these devices?

What if you want to combine them into a single, compact device that can be used in a number of different scenarios?

Enter the MicroView.

The MicroView is a single device that uses a combination of multiple optical components to produce a single image.

It’s essentially an image detector and a digital camera.

The camera then combines the two, resulting in a high-res image of a subject that is a few times the size of a standard HDTV picture.

This isn’t a new idea.

The technology has been around for some time.

For example, when I first started my career in medical imaging in the early 2000s, I worked at the University of Rochester, and my work was primarily focused on the creation of high-quality images of patients with complex diseases.

One of the best examples of this is the image of the head that Dr. R.R. Moxon used to create the original image of Rethoven.

In fact, Moxons work helped inspire the creation and creation of the T1 in the first place.

The most significant breakthrough in the last several years has been the use of single-chip devices.

For instance, in the past several years, researchers at the Max Planck Institute for Medical Research in Germany have been developing high-speed and single-photon emission microscopy systems.

These systems use a single chip to capture an image, and then a high speed digital camera captures the image at the same time.

These two images are combined to produce an image that’s about the size and resolution of a single HDTV movie.

MicroViews capabilities in imaging are just as impressive.

The MicroView’s single-piece design allows for two-dimensional (2D) imaging to be used for both high-end and low-end microscopy.

This is particularly useful for imaging small samples or for imaging complex objects that are not readily apparent.

The images can be combined to form a single picture that can then be viewed on a monitor.

The microView has been tested with a variety of patients.

The team at the National Institute of Standards and Technology (NIST) used it to image the human heart using a technique called high-density TEM.

The heart was then processed using the new technology to create an image of about the width of a credit card.

Other medical imaging applications include using the Micro View to capture images of the retina and the central nervous system, which can be a significant source of information when it comes to image quality.

There are even plans to combine the Microview with a microscope to provide real-time 3D images of tissue.

This is a promising area of research, and the MicroVIEW is certainly one of the most advanced imaging technologies currently available.

But, if you’re looking to purchase one, I’d recommend waiting a few more years.

I expect the MicroStream will be out in 2018, and there’s already a slew of other new medical imaging devices that are already being developed.

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‘The Bachelor’ fans get their first look at Rachel McAdams’ Bachelorette casting

August 29, 2021 Comments Off on ‘The Bachelor’ fans get their first look at Rachel McAdams’ Bachelorette casting By admin

The first images of the 2018 Bachelorettes have been released for the 2019 season of The Bachelor.

The first two pictures, which were snapped by a fan in Los Angeles, were posted on the social media site Friday.

“It’s pretty amazing,” said one of the people in the first photo.

“I just thought she looked really hot.”

The second photo shows McAdams standing next to a friend and the fan says, “I hope Rachel wins.”

“I’m not too excited,” she adds.

“But I am excited for her,” McAdams says.

The Bachelors return to ABC for its 20th season of the reality competition next spring.

“The Bachelor” returns to ABC in 2018.

“We are all here to celebrate and love the Bachelor,” the show’s producers said in a statement.

“And that’s what we will do for our fans and the Bachelor community as we continue to grow.”

Watch a video of the first two photos below.

WATCH: The Bachelor airs its 20-year-long run in the UK, on BBC One from 1:00pm (GMT).

WATCH: Bachelor star Rachel McElroy says she’s ‘not really worried’ about being cast in the new reality show

When the sun hits your eyes

August 24, 2021 Comments Off on When the sun hits your eyes By admin

The sun’s impact can leave a big impression on your eyes, but it can also create problems for you if you don’t take steps to protect them.

This article looks at what it’s like to look at a flash, or when you see a flash in the eye.

This information can be helpful if you’re worried about getting a concussion from looking at the sun.

What is a flash?

A flash is a small, bright burst of light that occurs when a cloud or cloud cover obscures the sun’s light.

It can occur in a wide variety of situations.

Here are some things to keep in mind when looking at a sudden flash.

When is a sudden flare visible?

When you see your flash, it’s usually a sudden burst of bright light.

That means you can see the flash for only a few seconds.

If you’re not careful, you can miss the flash entirely.

If the flash is just a tiny bit brighter than the sun, you won’t be able to see it until you’re more than a few hundred feet away from the sun and looking directly at it.

It’s best to avoid looking directly in front of the sun until you’ve reached that distance, since it can take time for your eyes to adjust.

A quick look at the moon or other bright object can also help you determine if you’ve seen a flash.

What causes a sudden sun flash?

There are many reasons that a sudden sunlight flash might occur.

A sudden sun flare can occur when a large number of clouds, dust, or other objects are suddenly lit up by a flash from the solar system.

In these cases, a sudden wave of solar radiation can cause your eyes or eyesight to be temporarily blinded.

If a flash occurs as part of an optical phenomena, such as a reflection of a distant star, the sun may have just caught that reflection, causing it to shine brightly.

In some cases, the bright starlight can be so bright that it can disrupt a person’s vision.

In other cases, it can appear as a bright flash of light, such that you can’t see the sun or the reflection clearly at all.

For this reason, it is often necessary to look directly at a sun flash.

Can I see a sudden solar flare?

Yes, you are able to look through the sun for a brief moment and see the sudden flash of sunlight.

You can also feel the sudden sun burst in your eyes if you look in front or behind you.

However, if you see the light flash as a cloud, then it’s too late.

The sudden sunburst is so bright and intense that you will likely have trouble seeing it.

Your vision will be blurry, and you will probably have difficulty staying still.

You will likely feel tired and dizzy, and some people will even lose consciousness.

A flash can also cause eye damage if it causes a temporary vision impairment.

A temporary vision loss is when you are unable to see your normal vision at all, and the damage occurs when your eye becomes damaged due to the sudden impact of a bright burst.

If this happens, you may be unable to focus on things and may have difficulty focusing on anything.

When a flash causes a permanent vision loss, the person will need to wear glasses to use certain functions.

You may need glasses that require you to move your eye to the side to focus.

Your ability to focus will decrease gradually over time, and it may even be impossible to focus at all if you can no longer see clearly.

You might be able still use your computer and mobile phone, but you won: have difficulty reading or writing, or use other visual functions, such a drawing, drawinging, or drawing a picture

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How to build an armstrong optics system from scratch

August 20, 2021 Comments Off on How to build an armstrong optics system from scratch By admin

It is not a big leap to think of armstrong instruments as a computer program.

Its a system that runs on hardware, like a Raspberry Pi.

But what if you could build a custom version of that hardware using Arduino, a small computer chip that runs Arduino programs, as an Arduino project?

The idea behind a modern armstrong instrumentation is to use an Arduino to perform a complex analysis, and to then run it on a computer.

In fact, you could make a custom computer program to do this, and then use that program to build a customized computer program that runs your armstrong system.

This is the basis of armstye, an Arduino-based open source project that allows anyone to build their own custom computer programs that can run on an Arduino board.

Armstrong Instruments was founded by a group of enthusiasts, including an engineer who is also a programmer.

The project has been around for some time, but the Arduino community has not had a lot of tools for building custom software.

We had a little bit of help from the Arduino Foundation to bring this together, but we were very much in the dark about it, and the Arduino hardware community was very much into it, too.

Arduino is a small chip, with a few hundred microcontrollers and a few dozen USB ports, and it has the advantage of being able to be easily adapted to other platforms.

It can run a wide variety of programs.

But the lack of a wide range of platforms makes it very difficult to develop a system like this, says David Anderson, a programmer who is the CEO of Armstrong Instruments.

The Arduino community is working hard to bring that wide range back.

We have been working with a small team of developers, mostly from the community, to get our own open source platform for building modern tools.

We are starting to see that community in action.

For example, we are working with the community to make an armstyes toolkit, which will be a complete package of tools that will help us build our own tools.

You can read more about this effort here.

Armstrength Instruments is still a small, open-source project, but it’s become more mature as we’ve had more support from the open-sourcing community.

Anderson says that in terms of community support, the Arduino platform has been especially helpful.

Armsets developers are working hard, too, to make the Armstrength project more secure.

The team is also working to make it easy for people to create their own customized hardware for use in their own Armstrong systems.

We’re hoping to add this functionality in a future version of the Arduino IDE.

The Armstrength Project is based on the Armduino SDK, which is a free open- source project and is used by a lot more companies than Arduino.

For instance, Armstrong is using Armduino to create its own hardware for the ARM-powered robot, which can also be controlled by an Arduino.

This new version of Arduino IDE will be easier to use and easier to integrate into other Arduino boards, Anderson says.

Armstrong has already made this happen, making a new version available as an add-on to the Arduino SDK.

Arsene, the open source development environment for Arduino, has been a part of the ARM community for a long time.

The armsties community is extremely supportive of it, Anderson adds.

It’s a huge community, and they’re helping us get things started in a way that we can be more accessible to a wider audience.

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Optical Prisms for Computational Imaging

August 19, 2021 Comments Off on Optical Prisms for Computational Imaging By admin

In this article, we’ll introduce optical prisms, which are optical systems that can be used for computing and sensing, to the vision world.

They are similar to traditional cameras, and are typically used for optical image processing, or for image-based navigation, or to collect high-resolution, time-of-flight images.

But unlike cameras, optical prions are typically cheap to build and cheap to produce.

A single optical prion can be made to be much smaller and cheaper than a typical camera.

They can be produced at low cost by mass-producing silicon chips, which make it possible to build small optical primes that can easily be made in a number of different ways, and they can be designed to perform different functions.

For example, a single optical qubit can be built to perform a variety of different tasks, from detecting motion to controlling a robotic arm.

This article will explain how optical prons are used for computational imaging and how they can also be used to collect information about the world around us.

We’ll focus on the optical prism and its optical instrumentation.

The Prion The first optical prionic was first described in the 1970s, when physicists in Germany discovered that it was possible to produce optical qubits by placing them in an electrostatic coil.

The process is similar to how an electric field changes a magnet, causing the magnetic fields in the coil to flip around in opposite directions.

In a similar way, a conventional magnetic field can be manipulated by placing a magnet on a copper electrode.

This magnetic field is then used to pull a single wire across a magnet.

The result is a spinning magnet.

This type of electrical effect is called a prion.

The problem with prions is that they can’t move very much.

If they do move, it takes some time for them to be detected.

In the early 1980s, a new approach to producing prions became available.

Researchers had a way to make prions by placing an electron in a magnet at high energy and pushing a current across it.

The electrons were excited by the current, and when they reached the end of the coil, the current would be released and the electron would spin around again.

This was known as the “spin release method.”

When researchers used this spin release method to make a single prion, the researchers were able to make them very small.

They were able, however, to produce a very large number of prions, which is why the spin release approach is known as “spin ring” prion production.

It was also possible to make two prions of the same type, called spin ring and spin ring 2.

This is what led to the discovery of two-pronged prions.

The reason that a single-prion spin ring can be so large is that it can contain many electrons, and the electrons that make up the prion are very close together.

A typical two-part prion consists of three prions and an electron.

If two prion pairs are made, they are referred to as two-spin prions or two-twin prions (also called two-two-prism or two two-spin).

These two prisms have been observed to be generated by a pair of spins that are both in the same direction, with a two-second separation between the spins.

It’s also possible that two-tongued prions can also arise, as well.

A third-party laboratory has recently made a single spin ring of primes, and is working on making two spin rings of prisms.

Another group has made two-dimensional prions using a combination of a two, three, and four-dimensional spin ring.

Another team is working with a team of Chinese researchers to make three-dimensional versions of prion prions as well as spin rings.

The researchers say that it’s possible to generate these three- and four-, three-and-four-, and two- and two-, two-and three-tuple prions from two- or three-part spin rings, and to produce up to three- or four-tunable prions with only a single electron.

The team is also working on a method for producing two-delta prions that can contain more than two electrons.

The two-state version of a spin ring produces prions whose state is stable with respect to the spin state.

This makes them much more stable than a spin that is in one of its two states.

When researchers were working on this, they were not aware of the possibility that they could create spin rings with up to four or five electrons.

They knew that they had to make the spin ring be a little bit bigger than the spin that made it, and make the state of the spin a little higher.

This allowed them to make up prions in two-dimensions.

In particular, it allowed them, and others, to make qubits

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