Oak Ridge’s Quantum Science Center takes a multidisciplinary approach to developing quantum materials and technologies

Physics World Weekly Podcast

This episode of the Physics World Weekly podcast features Travis Humble, who is director of the Quantum Science Center at Oak Ridge National Laboratory.

Located in the US state of Tennessee, Oak Ridge is run by the US Department of Energy (DOE). The Quantum Science Center links Oak Ridge with other US national labs, universities and companies.

Humble explains how these collaborations ensure that Oak Ridge’s powerful facilities and instruments are used to create new quantum technologies. He also explains how the lab’s expertise in quantum and conventional computing is benefiting the academic and industrial communities.

This podcast is supported by American Elements, the world’s leading manufacturer of engineered and advanced materials. The company’s ability to scale laboratory breakthroughs to industrial production has contributed to many of the most significant technological advancements since 1990 – including LED lighting, smartphones, and electric vehicles.

2025-07-17 39 min Transcript

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Transcript

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Hello, and welcome to the Physics World weekly

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podcast. I'm Hamish Johnston.

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In this episode, I'm in conversation with Travis

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Humble, who is director of the Quantum Science

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Center

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at Oak Ridge National Laboratory.

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This podcast is brought to you by American

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Elements,

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the world's leading manufacturer

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of engineered

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and advanced materials.

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With a catalog of over 35,000

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products available in both industrial bulk and laboratory

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quantities,

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American Elements is the largest

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supplier of its kind.

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For more than twenty five years, its research

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and development programs

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have been a vital resource for innovation across

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corporate,

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government, and academic sectors.

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The company's ability to scale laboratory

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breakthroughs

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to industrial production

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has contributed to many of the most significant

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technological

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advancements

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since 1990,

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including LED lighting,

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smartphones,

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and electric vehicles.

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To learn more, visit

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www.americanelements.com.

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American Elements.

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Now invent.

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Located in The US state of Tennessee,

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Oak Ridge National Lab is run by the

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US Department of Energy,

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the DOE.

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The Quantum Science Center links Oak Ridge with

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other US National Labs,

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universities,

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and companies.

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In this podcast,

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Travis Humble explains how these collaborations

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ensure that Oak Ridge's powerful facilities

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and instruments

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are used to create new quantum technologies.

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He also explains how the lab's expertise

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in quantum

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and conventional computing

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is benefiting

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the academic

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and industrial

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communities.

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Hi, Travis. Welcome to the podcast.

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Hi, Hamish. Thanks for having me.

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So, Travis,

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Oak Ridge is home to several facilities for

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material

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characterization,

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including the spallation neutron source.

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How is, Oak Ridge National Lab using these

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facilities

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to develop new materials

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for quantum technologies?

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Oak Ridge National Laboratory has many unique facilities,

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including the spallation neutron source, which is actually

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one of the Department of Energy's user facilities.

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This is one of the brightest sources of

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neutrons in the world and, of course, an

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incredibly powerful capability for characterizing

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novel materials.

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Within

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Oak Ridge and part of our quantum,

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science and technology efforts, we're actually looking at

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some remarkable examples of materials

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that can have what we call topological

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order or entanglement in them.

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These materials are electronic or magnetic.

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And what makes them so interesting is that

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under the right conditions,

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they can actually have these unique phases

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where the electrons or the spins that are

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involved

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can actually be entangled in a quantum mechanical

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way.

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And by using the spallation neutron source and

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some of the neutron beams that we have

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there, we can actually probe these materials,

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recover the neutrons that scatter off of them,

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and from those signals,

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infer whether or not the materials

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are entangled.

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So this is a remarkable capability. It is

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something unique about Oak Ridge and

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Department of Energy's user facilities that allow us

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to explore an entirely new regime of of

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of materials, these types of, strongly correlated quantum

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materials that we think to be very useful

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for developing new quantum technologies.

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I see. And I suppose the spallation neutron

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sort that source, that's your,

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as well I suppose big ticket

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facility or one of the sort of big

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ticket facilities

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that you have at Oak Ridge. But you

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you must have other

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materials,

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characterization

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capabilities that you use along with the, with

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the neutron source. Can you can you talk

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a bit about those and how they might

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be used

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in,

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materials characterization

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for quantum technologies?

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The SNS or Spallies Neutron Source is certainly

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one of our biggest and boldest,

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instruments that we have for characterizing these these

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types of systems,

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but in no way is it the only

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one.

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We are also home to the Center for

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Nanophase Material Science. This is one of the

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Department of Energy's

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Nanoscience Research Centers.

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It is a remarkable facility

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co located,

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with the spallation neutron source

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to enable us to characterize new materials. In

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fact, it actually enables the synthesis,

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the creation of these materials,

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the characterization,

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and then ultimately

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demonstrating control over them. So I'll give you

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one particular example.

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We are very interested in a type of

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material that is known as a spin liquid.

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It's a spin system, magnetic system,

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where the spins within the material can actually

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become entangled with each other,

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demonstrate correlations over very large distances. And this

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is large relative to individual atoms, mind you.

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And using the neutron source, we've actually been

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able to detect

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a signature

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that there is, in fact, entanglement present in

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these materials. This is ruthenium trichloride is one

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particular example of this type of quantum magnet,

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but there are several others.

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And because we have the capabilities

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of the the CNMS, the Center for Nanophase

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Material Science,

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we're now taking those materials that have been

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certified as quantum or entangled

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and translating them into a process where we

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start to design new types of devices.

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This gets into the fabrication of the material

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into unique geometries,

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the connection to electrodes and other types of

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control systems

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that then provide a path

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to demonstrating novel physics and other types of

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unique behaviors.

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Hamish, just to kind of, get to the

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punch line on this, what we really think

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is possible is that these types of quantum

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spin liquids

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can be translated into a new qubit technology

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that can store and process quantum information.

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We haven't demonstrated that yet, but the tools

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and capabilities that we have here at Oak

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Ridge are incredibly empowering,

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for that type of technology development.

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I see. And I'm guessing that it's very

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important to have all of these things together

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in one place

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and have some very skilled people

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who,

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know how to make the,

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devices that you're testing and also know how

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to use the sort of plethora of of

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analysis equipment

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that you have. Can can can you talk

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a bit about,

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about the people,

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at Oak Ridge who are involved in this?

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I'm guessing you've got physicists, chemists, material scientists,

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engineers all working together?

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It is absolutely a multidisciplinary

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environment. And

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I would say that

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the facilities,

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the the ecosystem that we've created within the

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laboratory

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actually

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supports this type of interchange and collaboration across

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disciplines.

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Just like you suggested, the

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the instruments that we have enable these new

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types of discoveries, these development of scientific ideas,

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the translation into technologies.

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But that's a multistep process. And you can

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only succeed when you have a team of

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people working together on these kind of large

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scale problems.

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And that team is always multidisciplinary.

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I will say that in my experience,

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the ability for the team to communicate efficiently,

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to understand each other's

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concepts and reasoning, and to translate back and

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forth across these disciplinary boundaries

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is probably one of the central and most

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important parts of, this type of scientific development.

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Certainly, when you have a common facility, a

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common infrastructure

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that can be facilitated

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by these types of, coordination,

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then you can get much more powerful science

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that comes out of it.

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Just to give you an example of what

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I'm what I'm thinking about here,

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when we talk about qubits

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in, quantum science and technology space,

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the truth is everybody has a slightly different

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definition of that word. For my computer scientist

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friends, this is sort of a logical representation

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of information that we manipulate through algorithms and

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programs and other types of, methods.

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While for my material

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scientist friends, this is almost always a two

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level system embedded in some electronic or magnetic

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degree of freedom and often independent of the

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logical,

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and and computational connections that are gonna be

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necessary there.

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So bridging that, is definitely a multidisciplinary,

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activity.

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And these types of facilities

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bring all those people together and really amplify

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the types of science and and development that

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can occur.

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I see. And and can you talk a

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bit about, who you collaborate with outside

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of, Oak Ridge? I'm I'm guessing that you

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you you you you're involved in lots of

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projects with, with scientists from universities around The

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US, probably

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around the world,

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I would imagine.

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Is that a I'm guessing that's a big

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part of what you do, collaboration,

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enabling

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university scientists, for example, to,

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to do experiments.

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The national laboratories

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play an important role, I think, in the

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ecosystem for research and development within The United

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States.

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And partnerships

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are a critical piece of that activity.

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Some of these are partnerships with universities,

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especially,

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individual

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investigators who are looking to get access to

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these, types of instruments that we're talking about.

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Of course, as user facilities for the Department

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of Energy, there are actually programs in place

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to go and apply to, use an instrument

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or spend time with scientists who are working

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there to develop an idea and ultimately

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publish on the results from it. But in

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addition, a lot of the work that we

275
00:11:05,085 --> 00:11:07,884
do within these facilities and within the national

276
00:11:07,884 --> 00:11:08,384
laboratories

277
00:11:09,165 --> 00:11:10,465
requires that partnership.

278
00:11:11,644 --> 00:11:14,764
Easily, the the the most obvious one is

279
00:11:14,764 --> 00:11:15,264
workforce

280
00:11:15,690 --> 00:11:18,669
And the ability to train the next generation

281
00:11:18,809 --> 00:11:20,889
of scientists and engineers who are gonna work

282
00:11:20,889 --> 00:11:21,790
on these topics

283
00:11:22,330 --> 00:11:23,470
oftentimes requires

284
00:11:23,850 --> 00:11:26,730
early exposure and understanding of what the national

285
00:11:26,730 --> 00:11:27,870
labs do, the mission,

286
00:11:28,194 --> 00:11:30,115
but also the types of equipment and and

287
00:11:30,115 --> 00:11:31,654
methods that we're using here.

288
00:11:32,194 --> 00:11:35,014
So in addition to kind of pursuing research

289
00:11:35,074 --> 00:11:38,274
goals and developing science and breakthroughs in these

290
00:11:38,274 --> 00:11:38,774
areas,

291
00:11:39,315 --> 00:11:42,820
that partnership also builds up this infrastructure, these

292
00:11:42,820 --> 00:11:45,639
personnel that we're talking about that can support

293
00:11:45,700 --> 00:11:47,940
the operation of the center, the operation of

294
00:11:47,940 --> 00:11:48,600
the laboratories,

295
00:11:49,139 --> 00:11:50,519
and put all of that forward.

296
00:11:51,379 --> 00:11:53,960
Here at Oak Ridge, we actually have a

297
00:11:55,644 --> 00:11:56,704
highly ambitious

298
00:11:57,004 --> 00:11:57,504
and,

299
00:11:58,204 --> 00:11:59,985
I would say, impactful effort

300
00:12:00,365 --> 00:12:03,164
through our Quantum Science Center. And the Quantum

301
00:12:03,164 --> 00:12:05,725
Science Center is one of the Department of

302
00:12:05,725 --> 00:12:09,184
Energy's National Quantum Information Science Research Centers.

303
00:12:09,570 --> 00:12:10,629
It is a,

304
00:12:11,170 --> 00:12:11,670
partnership.

305
00:12:12,210 --> 00:12:13,830
The QSC is a partnership

306
00:12:14,290 --> 00:12:16,870
led by Oak Ridge, but all but including

307
00:12:16,929 --> 00:12:18,389
over 20 other institutions,

308
00:12:18,929 --> 00:12:20,929
involved in that partnership, and many of those

309
00:12:20,929 --> 00:12:21,910
coming from universities

310
00:12:22,495 --> 00:12:23,715
as well as industry.

311
00:12:24,335 --> 00:12:27,315
So this type of coordination of effort

312
00:12:27,695 --> 00:12:28,595
and the collaboration

313
00:12:28,975 --> 00:12:29,715
of multidisciplinary

314
00:12:30,415 --> 00:12:31,554
and even kind of,

315
00:12:33,215 --> 00:12:36,195
perspectives from industry, academia, and government

316
00:12:36,929 --> 00:12:37,429
is

317
00:12:37,970 --> 00:12:38,610
is in,

318
00:12:39,809 --> 00:12:40,790
very good hands,

319
00:12:41,169 --> 00:12:42,230
within the laboratory

320
00:12:42,690 --> 00:12:45,009
because it requires us to have that type

321
00:12:45,009 --> 00:12:47,730
of partnership and focused effort in order to

322
00:12:47,730 --> 00:12:48,870
make these advances.

323
00:12:50,664 --> 00:12:53,784
And I would imagine with quantum I mean,

324
00:12:53,784 --> 00:12:55,804
quantum is is is real

325
00:12:56,424 --> 00:12:58,904
business now, isn't it? It's not just ideas

326
00:12:58,904 --> 00:13:01,384
about about how you could start a company

327
00:13:01,384 --> 00:13:02,764
based on quantum technologies.

328
00:13:04,320 --> 00:13:06,980
Your collaboration with industry must be growing,

329
00:13:08,320 --> 00:13:09,620
on leaps and bounds,

330
00:13:10,240 --> 00:13:11,139
over the years.

331
00:13:12,799 --> 00:13:15,200
You're exactly right. What I would say is

332
00:13:15,200 --> 00:13:16,019
most interesting,

333
00:13:17,174 --> 00:13:19,514
from my perspective at the moment is that

334
00:13:19,894 --> 00:13:22,535
quantum has emerged over the last decade in

335
00:13:22,535 --> 00:13:23,035
particular

336
00:13:23,894 --> 00:13:25,195
as a national

337
00:13:25,575 --> 00:13:26,715
scientific priority.

338
00:13:27,254 --> 00:13:29,035
And this is cut across multiple

339
00:13:30,570 --> 00:13:31,950
federal government administrations.

340
00:13:33,049 --> 00:13:35,850
It's continuing today. And what we are finding

341
00:13:35,850 --> 00:13:38,110
is that that priority is driven by

342
00:13:38,570 --> 00:13:41,309
the concerns for national security. It's a critical

343
00:13:41,370 --> 00:13:41,870
technology.

344
00:13:42,250 --> 00:13:45,485
We're effectively changing out the the technology

345
00:13:45,865 --> 00:13:49,065
basis of a entire planet, and, that has

346
00:13:49,065 --> 00:13:51,164
huge implications in many different areas.

347
00:13:51,785 --> 00:13:53,884
It provides economic advantage,

348
00:13:54,264 --> 00:13:57,304
including the development of new products and services.

349
00:13:57,304 --> 00:13:58,759
And this, of course,

350
00:13:59,220 --> 00:14:01,060
is one of the reasons industry is so

351
00:14:01,060 --> 00:14:03,460
interested in this type of technology is that

352
00:14:03,460 --> 00:14:05,000
it opens up opportunities

353
00:14:05,540 --> 00:14:07,460
that frankly you can't get to in any

354
00:14:07,460 --> 00:14:08,200
other way.

355
00:14:08,580 --> 00:14:10,759
And then I think from my own perspective,

356
00:14:11,764 --> 00:14:13,304
quantum is an enabling

357
00:14:15,205 --> 00:14:15,705
ability

358
00:14:16,565 --> 00:14:19,285
for new scientific discoveries. And that, of course,

359
00:14:19,285 --> 00:14:22,825
has huge implications for things in energy innovation

360
00:14:23,365 --> 00:14:23,865
and

361
00:14:24,769 --> 00:14:25,750
and other topics.

362
00:14:26,370 --> 00:14:26,870
So

363
00:14:27,330 --> 00:14:29,490
because of this kind of setting, the context

364
00:14:29,490 --> 00:14:31,509
right now in the in The United States,

365
00:14:32,210 --> 00:14:34,610
the drive for industry to develop these new

366
00:14:34,610 --> 00:14:37,570
products and services, the focus on the government

367
00:14:37,570 --> 00:14:39,934
and other parts of the the ecosystem

368
00:14:40,235 --> 00:14:41,855
to build out these capabilities

369
00:14:42,795 --> 00:14:44,495
has not only increased

370
00:14:44,875 --> 00:14:46,415
the the stake

371
00:14:46,795 --> 00:14:47,295
in,

372
00:14:47,674 --> 00:14:48,815
what we're all pursuing,

373
00:14:49,195 --> 00:14:51,674
but also driven home the emphasis that we

374
00:14:51,674 --> 00:14:53,134
need to all do this together.

375
00:14:53,595 --> 00:14:56,129
So, So certainly, the national laboratories and industry

376
00:14:56,129 --> 00:14:57,509
are partnering very closely,

377
00:14:57,970 --> 00:15:00,850
including the ability to access the types of

378
00:15:00,850 --> 00:15:03,809
instruments that we have here through SNS and

379
00:15:03,809 --> 00:15:06,709
the CNMS, as well as, other facilities.

380
00:15:07,934 --> 00:15:10,674
But at the same time, we're getting access

381
00:15:10,735 --> 00:15:12,975
to the types of technologies that industry is

382
00:15:12,975 --> 00:15:13,475
developing,

383
00:15:14,095 --> 00:15:16,754
especially in their quantum computing platforms.

384
00:15:17,615 --> 00:15:19,615
So this is one of the most exciting

385
00:15:19,615 --> 00:15:21,294
partnerships I think that we have at the

386
00:15:21,294 --> 00:15:23,680
moment is how can we, as a laboratory,

387
00:15:24,620 --> 00:15:27,500
understand these new products and services that industry

388
00:15:27,500 --> 00:15:29,899
is creating in the quantum space and start

389
00:15:29,899 --> 00:15:33,180
to integrate them, adapt them into our own

390
00:15:33,180 --> 00:15:34,800
scientific discovery workflows.

391
00:15:35,285 --> 00:15:36,404
And, of course, this is,

392
00:15:37,045 --> 00:15:39,205
one of the hottest areas right now. How

393
00:15:39,205 --> 00:15:40,745
do you use a quantum computer

394
00:15:41,045 --> 00:15:43,524
to solve these types of material science problems

395
00:15:43,524 --> 00:15:45,684
that we were just talking about, with the

396
00:15:45,684 --> 00:15:47,065
sphalation neutron source?

397
00:15:48,500 --> 00:15:50,259
And I I wanna talk to you may

398
00:15:50,339 --> 00:15:50,839
maybe

399
00:15:51,220 --> 00:15:54,839
in a while about, about using quantum computing

400
00:15:55,299 --> 00:15:57,620
computers, which I think is that's something that

401
00:15:57,620 --> 00:16:00,580
Oak Ridge is, is involved in. But first,

402
00:16:00,580 --> 00:16:01,860
I want to ask you about,

403
00:16:02,674 --> 00:16:05,634
sort of classical computing because, of course, the

404
00:16:05,634 --> 00:16:07,254
lab is also famous

405
00:16:07,954 --> 00:16:09,894
for its, high performance

406
00:16:10,274 --> 00:16:10,774
computing.

407
00:16:11,235 --> 00:16:14,034
And, it's home to Frontier, which is one

408
00:16:14,034 --> 00:16:16,134
of the world's most powerful supercomputers.

409
00:16:17,070 --> 00:16:18,990
Can you talk a bit about how the

410
00:16:18,990 --> 00:16:22,610
lab is using its expertise in classical computation

411
00:16:22,910 --> 00:16:26,210
to develop new paradigms for quantum computing?

412
00:16:28,750 --> 00:16:30,129
High performance computing,

413
00:16:30,910 --> 00:16:31,649
has been

414
00:16:32,245 --> 00:16:35,544
a remarkable and disruptive ability for

415
00:16:36,084 --> 00:16:37,544
not just exploring

416
00:16:38,004 --> 00:16:39,144
complex systems,

417
00:16:39,524 --> 00:16:40,824
but also understanding

418
00:16:41,125 --> 00:16:42,504
their behaviors and

419
00:16:42,884 --> 00:16:45,464
how those behaviors can be controlled and ultimately

420
00:16:45,684 --> 00:16:47,625
applied to to new ideas.

421
00:16:49,230 --> 00:16:52,110
One particular example is in the area of

422
00:16:52,110 --> 00:16:53,250
material science,

423
00:16:53,949 --> 00:16:56,929
chemistry, biology, other complex physical systems,

424
00:16:57,470 --> 00:16:59,009
where modeling and simulation

425
00:17:00,044 --> 00:17:02,784
play a huge role in our scientific discovery

426
00:17:02,924 --> 00:17:05,904
process. In fact, many people would say that

427
00:17:05,964 --> 00:17:07,585
next to theory and experiment,

428
00:17:08,365 --> 00:17:10,924
computation is a sort of a third pillar

429
00:17:10,924 --> 00:17:12,545
of the the r and d ecosystem.

430
00:17:13,460 --> 00:17:16,819
And here, high performance computers are the high

431
00:17:16,819 --> 00:17:19,700
bar on capability when it comes to modeling

432
00:17:19,700 --> 00:17:20,359
and simulation,

433
00:17:21,059 --> 00:17:23,700
even optimization and design. A lot of times,

434
00:17:23,700 --> 00:17:26,119
we're using these classical computing capabilities

435
00:17:27,025 --> 00:17:28,484
to reason about systems,

436
00:17:28,944 --> 00:17:31,345
come up with the best alternatives, or or

437
00:17:31,345 --> 00:17:32,644
optimize their behaviors.

438
00:17:33,345 --> 00:17:34,085
And then

439
00:17:34,384 --> 00:17:35,605
one of the most remarkable,

440
00:17:37,025 --> 00:17:39,585
examples in the the last several years has

441
00:17:39,585 --> 00:17:40,484
been the application

442
00:17:41,025 --> 00:17:41,845
of HPC

443
00:17:42,630 --> 00:17:44,970
to machine learning and artificial intelligence.

444
00:17:46,230 --> 00:17:48,869
So cutting across kind of those three big,

445
00:17:49,349 --> 00:17:49,849
application

446
00:17:50,150 --> 00:17:50,650
areas,

447
00:17:51,190 --> 00:17:53,609
you can start to understand that high performance

448
00:17:53,670 --> 00:17:56,250
computing is just as powerful of a tool

449
00:17:56,644 --> 00:17:59,625
as the spallation neutron source or the CNMS

450
00:18:00,325 --> 00:18:01,384
when it comes to

451
00:18:02,085 --> 00:18:05,065
understanding and exploring these complex physical systems.

452
00:18:05,845 --> 00:18:06,664
What is,

453
00:18:08,005 --> 00:18:09,065
been very important

454
00:18:09,490 --> 00:18:12,289
about having all of these facilities colocated at

455
00:18:12,289 --> 00:18:13,029
Oak Ridge

456
00:18:13,329 --> 00:18:15,349
is that you can create that ecosystem

457
00:18:16,210 --> 00:18:16,710
where

458
00:18:17,089 --> 00:18:19,409
the simulation that we've run on the high

459
00:18:19,409 --> 00:18:21,829
performance computer provides datasets

460
00:18:22,434 --> 00:18:24,355
that can be compared directly with the types

461
00:18:24,355 --> 00:18:26,674
of data that's coming out of the neutron

462
00:18:26,674 --> 00:18:27,815
scattering experiments.

463
00:18:28,515 --> 00:18:31,974
And that provides a very tight and, coordinated

464
00:18:32,355 --> 00:18:33,335
cycle of development

465
00:18:33,795 --> 00:18:35,875
that ensures that we get to the the

466
00:18:35,875 --> 00:18:37,974
best results the fastest way possible.

467
00:18:38,750 --> 00:18:41,710
Of course, this again introduces the the questions

468
00:18:41,710 --> 00:18:43,250
that we were talking about earlier

469
00:18:43,789 --> 00:18:45,089
when it comes to multidisciplinary

470
00:18:45,629 --> 00:18:48,929
efforts and, team science as we call it.

471
00:18:49,149 --> 00:18:51,149
You have to have good coordination. You have

472
00:18:51,149 --> 00:18:52,609
to have clarity and communication.

473
00:18:53,174 --> 00:18:54,615
And then, of course, you have to have

474
00:18:54,615 --> 00:18:57,335
a very clear vision about the goals that

475
00:18:57,335 --> 00:18:58,475
you're trying to accomplish.

476
00:18:59,174 --> 00:19:01,035
That's what keeps this all on the rails,

477
00:19:01,494 --> 00:19:03,654
making sure that all of these efforts have

478
00:19:03,654 --> 00:19:06,240
a common understanding of the mission of the

479
00:19:06,400 --> 00:19:08,640
the laboratory as well as the, the Department

480
00:19:08,640 --> 00:19:09,299
of Energy.

481
00:19:09,839 --> 00:19:12,960
High performance computing is, certainly one of the

482
00:19:12,960 --> 00:19:16,019
the biggest and, I would say, most significant

483
00:19:16,160 --> 00:19:18,640
capabilities that we have right now for pushing

484
00:19:18,640 --> 00:19:19,779
that frontier forward.

485
00:19:21,154 --> 00:19:23,795
I see. And and Travis, you're also director

486
00:19:23,795 --> 00:19:27,875
of Oak Ridge's quantum computing user program, and

487
00:19:27,875 --> 00:19:30,855
that provides access to commercial quantum computers.

488
00:19:31,634 --> 00:19:33,974
Who who are your users? Are they

489
00:19:34,980 --> 00:19:35,480
industry

490
00:19:35,779 --> 00:19:37,080
or a bit of both?

491
00:19:37,619 --> 00:19:39,940
And what resources do do you provide them

492
00:19:39,940 --> 00:19:40,440
with?

493
00:19:41,700 --> 00:19:44,740
The quantum computing user program was started back

494
00:19:44,740 --> 00:19:46,279
in 02/2017.

495
00:19:47,125 --> 00:19:47,944
At that time,

496
00:19:48,404 --> 00:19:51,605
quantum computers were just begun just beginning to

497
00:19:51,605 --> 00:19:52,345
come online.

498
00:19:52,884 --> 00:19:53,384
So,

499
00:19:54,005 --> 00:19:56,244
a few of the vendors like IBM and

500
00:19:56,244 --> 00:19:58,345
D Wave and maybe one or two others

501
00:19:58,900 --> 00:20:00,440
were starting to see value

502
00:20:00,740 --> 00:20:01,480
in having

503
00:20:02,019 --> 00:20:03,880
their systems available publicly,

504
00:20:04,579 --> 00:20:05,720
through different mechanisms

505
00:20:06,339 --> 00:20:08,359
so that they could generate feedback

506
00:20:08,819 --> 00:20:11,539
on the development and the design, the operation

507
00:20:11,539 --> 00:20:12,440
of those systems.

508
00:20:13,345 --> 00:20:16,005
Well, of course, one of the main motivations

509
00:20:16,304 --> 00:20:18,164
behind developing quantum computing

510
00:20:18,625 --> 00:20:21,184
has been the creation of a platform that

511
00:20:21,184 --> 00:20:23,904
could be used to model and simulate complex

512
00:20:23,904 --> 00:20:24,404
systems.

513
00:20:25,279 --> 00:20:27,679
And that immediately aligns with the types of

514
00:20:27,679 --> 00:20:29,519
goals that we have at Oak Ridge and,

515
00:20:30,400 --> 00:20:32,099
within many of the national laboratories.

516
00:20:32,880 --> 00:20:34,339
So we saw an opportunity

517
00:20:34,640 --> 00:20:35,940
to partner with industry

518
00:20:36,480 --> 00:20:39,700
on gaining access to their quantum computing systems.

519
00:20:40,595 --> 00:20:42,755
In our case, though, we didn't wanna just

520
00:20:42,755 --> 00:20:44,775
keep it internal within the laboratory.

521
00:20:45,474 --> 00:20:47,795
We wanted to expand that user base to

522
00:20:47,795 --> 00:20:49,474
bring in people the same way we do

523
00:20:49,474 --> 00:20:50,695
with our other facilities

524
00:20:51,315 --> 00:20:53,734
so that they can also contribute and provide

525
00:20:53,795 --> 00:20:54,855
insights into

526
00:20:55,359 --> 00:20:57,919
what makes a good quantum computer, and when

527
00:20:57,919 --> 00:21:00,480
are the quantum computers good enough that they're

528
00:21:00,480 --> 00:21:03,119
changing the face of what we're already doing

529
00:21:03,119 --> 00:21:04,819
within scientific discovery.

530
00:21:05,519 --> 00:21:08,000
So the Quantum Computing User Program, or Q

531
00:21:08,000 --> 00:21:09,619
Cup, as we call it for short,

532
00:21:10,265 --> 00:21:13,404
is now part of our leadership computing facility,

533
00:21:13,544 --> 00:21:15,964
the same facility that houses the Frontier,

534
00:21:17,065 --> 00:21:17,964
computing system.

535
00:21:18,664 --> 00:21:20,125
And through that program,

536
00:21:20,744 --> 00:21:21,565
we recruit

537
00:21:21,865 --> 00:21:23,690
users from all over the country,

538
00:21:24,149 --> 00:21:26,009
a few outside of The US as well,

539
00:21:26,549 --> 00:21:29,509
to submit proposals that can then be reviewed

540
00:21:29,509 --> 00:21:30,009
internally,

541
00:21:30,789 --> 00:21:34,009
competitively awarded based on their merit and feasibility.

542
00:21:34,950 --> 00:21:37,109
And then they basically get time to,

543
00:21:37,984 --> 00:21:40,545
the quantum computing vendors that we've contracted with

544
00:21:40,545 --> 00:21:41,845
through the Q Cup program

545
00:21:42,384 --> 00:21:44,644
to test and evaluate their programs.

546
00:21:45,505 --> 00:21:47,525
Now currently, we have four vendors,

547
00:21:48,065 --> 00:21:48,565
IBM,

548
00:21:48,945 --> 00:21:49,445
Quantinuum,

549
00:21:50,144 --> 00:21:50,644
IQM,

550
00:21:50,945 --> 00:21:51,765
and IonQ.

551
00:21:52,570 --> 00:21:55,230
And through those vendors, we actually have

552
00:21:56,250 --> 00:21:58,590
gained allocation to run on their systems.

553
00:21:59,210 --> 00:22:00,830
We manage the resources

554
00:22:01,210 --> 00:22:03,210
with the user base that we have through

555
00:22:03,210 --> 00:22:04,350
the Q Cup program.

556
00:22:04,970 --> 00:22:06,365
That's, I think, historically

557
00:22:06,744 --> 00:22:09,945
close to around 400 users from, again, over

558
00:22:09,945 --> 00:22:11,005
many different areas.

559
00:22:11,865 --> 00:22:14,904
And we manage the portfolio of projects that

560
00:22:14,904 --> 00:22:16,525
they are actually exploring.

561
00:22:16,984 --> 00:22:19,085
So just like we were talking about earlier,

562
00:22:19,669 --> 00:22:22,730
materials, chemistry, biology, machine learning,

563
00:22:23,109 --> 00:22:24,169
computer science,

564
00:22:25,429 --> 00:22:27,669
there's close to 20 or 30 different topics

565
00:22:27,669 --> 00:22:28,970
that we keep track of,

566
00:22:29,269 --> 00:22:31,589
and we have a portfolio of these users

567
00:22:31,589 --> 00:22:34,305
who are all investigating those those different areas.

568
00:22:35,005 --> 00:22:37,164
It's a remarkable program, and I should say

569
00:22:37,164 --> 00:22:38,225
it is very,

570
00:22:39,085 --> 00:22:40,625
well received by the community.

571
00:22:41,644 --> 00:22:43,265
That's not to say that

572
00:22:43,805 --> 00:22:44,305
the

573
00:22:46,125 --> 00:22:47,345
that it's not a dynamic,

574
00:22:48,045 --> 00:22:50,240
aspect. And what I mean by that is

575
00:22:50,240 --> 00:22:52,159
every year, we have something we call the

576
00:22:52,159 --> 00:22:54,880
quantum computing user forum. It'll be coming up

577
00:22:54,880 --> 00:22:57,359
at the July this year. We get the

578
00:22:57,359 --> 00:22:59,359
users and the vendors together, and we all

579
00:22:59,359 --> 00:23:01,394
sit down, and we talk about what have

580
00:23:01,394 --> 00:23:03,475
been the latest results in our use of

581
00:23:03,475 --> 00:23:04,134
the systems.

582
00:23:04,755 --> 00:23:06,674
And many times, what we will find is

583
00:23:06,674 --> 00:23:09,555
that the users have identified a bottleneck or

584
00:23:09,555 --> 00:23:10,295
a pitfall

585
00:23:10,835 --> 00:23:12,375
that's limiting the availability

586
00:23:12,674 --> 00:23:13,654
of their calculations.

587
00:23:14,549 --> 00:23:16,069
Maybe it's the noise or the error in

588
00:23:16,069 --> 00:23:18,730
the systems. Maybe it's the programming interface.

589
00:23:19,429 --> 00:23:21,609
And this is an opportunity for the vendors

590
00:23:21,909 --> 00:23:24,169
to accept that feedback, to make modifications,

591
00:23:24,630 --> 00:23:27,269
changes in their own roadmaps and interfaces and

592
00:23:27,269 --> 00:23:27,769
designs

593
00:23:28,164 --> 00:23:30,105
that can be responsive to that community.

594
00:23:30,644 --> 00:23:32,644
I think that's actually one of the the

595
00:23:32,644 --> 00:23:35,384
most amazing parts of this particular program is

596
00:23:35,444 --> 00:23:38,164
the dynamic aspect with which the users and

597
00:23:38,164 --> 00:23:40,325
the vendors can engage through each with each

598
00:23:40,325 --> 00:23:42,679
other. And then, of course, from our perspective

599
00:23:42,740 --> 00:23:44,679
at the at the national laboratory,

600
00:23:45,220 --> 00:23:47,380
how do we get ready for integrating that

601
00:23:47,380 --> 00:23:47,880
technology

602
00:23:48,500 --> 00:23:51,539
into a future high performance computing system that

603
00:23:51,539 --> 00:23:53,299
can offer this type of service at a

604
00:23:53,299 --> 00:23:54,815
at a much larger one.

605
00:23:56,075 --> 00:23:56,575
Right.

606
00:23:56,875 --> 00:23:58,794
I see. And and, there, are you talking

607
00:23:58,794 --> 00:24:00,875
about sort of a hybrid system that takes

608
00:24:00,875 --> 00:24:02,014
advantage of both

609
00:24:02,315 --> 00:24:04,494
a quantum computer and, say,

610
00:24:05,115 --> 00:24:05,774
a supercomputer

611
00:24:06,154 --> 00:24:08,700
and, you know, sort of runs the appropriate

612
00:24:08,759 --> 00:24:09,900
parts of the problem

613
00:24:10,200 --> 00:24:10,940
on each,

614
00:24:11,960 --> 00:24:15,160
type of hardware to, sort of maximize the

615
00:24:15,160 --> 00:24:15,660
efficiency

616
00:24:16,119 --> 00:24:17,019
of the calculation?

617
00:24:18,360 --> 00:24:20,619
I think hybrid systems are the future.

618
00:24:21,855 --> 00:24:23,954
Both in the the context of

619
00:24:24,734 --> 00:24:28,194
we want to integrate quantum computing, the devices,

620
00:24:28,255 --> 00:24:29,714
the methods, the technology

621
00:24:30,575 --> 00:24:31,394
into our

622
00:24:31,855 --> 00:24:35,000
current scientific infrastructure. And of course, that means

623
00:24:35,000 --> 00:24:37,880
high performance computing systems. They're so important to

624
00:24:37,880 --> 00:24:38,859
what we do here.

625
00:24:39,319 --> 00:24:40,539
I envision that

626
00:24:40,839 --> 00:24:42,839
we will have some way of taking the

627
00:24:42,839 --> 00:24:43,819
quantum computers,

628
00:24:44,519 --> 00:24:46,859
connecting them both physically and logically

629
00:24:47,319 --> 00:24:49,704
to the HPC systems So we can do

630
00:24:49,704 --> 00:24:51,804
exactly as you were describing that

631
00:24:52,105 --> 00:24:53,484
the users, the scientific,

632
00:24:54,264 --> 00:24:57,464
computing users will develop a program. Let's say

633
00:24:57,464 --> 00:24:59,484
it's simulation of a quantum material.

634
00:25:00,024 --> 00:25:02,184
That program does not have to be entirely

635
00:25:02,184 --> 00:25:04,169
run on the quantum computer. There can be

636
00:25:04,169 --> 00:25:06,569
parts of it that are preprocessing or pro

637
00:25:06,569 --> 00:25:09,869
pro post processing on the, HPC system

638
00:25:10,250 --> 00:25:12,409
or even some sort of hybrid method where

639
00:25:12,409 --> 00:25:14,190
we're sampling the quantum computer

640
00:25:14,569 --> 00:25:17,549
to inform calculations that are performed on HPC.

641
00:25:17,609 --> 00:25:19,275
There there's lots of options here.

642
00:25:19,835 --> 00:25:21,674
But that's not the only way in which

643
00:25:21,674 --> 00:25:23,775
this type of technology can be integrated.

644
00:25:24,234 --> 00:25:27,455
We can also imagine integrating the quantum computer

645
00:25:27,515 --> 00:25:28,494
directly into

646
00:25:29,035 --> 00:25:29,775
the characterization

647
00:25:30,154 --> 00:25:32,575
and the sensing of these types of materials

648
00:25:33,179 --> 00:25:34,559
so that that calculation

649
00:25:34,859 --> 00:25:36,000
is actually informed

650
00:25:36,539 --> 00:25:38,559
directly by experimental data.

651
00:25:39,099 --> 00:25:40,960
So this type of interconnected,

652
00:25:43,339 --> 00:25:46,619
devices that include computers and sensors and other

653
00:25:46,619 --> 00:25:48,559
types of, quantum technologies,

654
00:25:49,285 --> 00:25:50,884
I think that's a much bigger version of

655
00:25:50,884 --> 00:25:51,605
this hybrid,

656
00:25:52,005 --> 00:25:52,505
paradigm

657
00:25:53,204 --> 00:25:55,045
and certainly something that we can,

658
00:25:55,605 --> 00:25:56,664
evaluate more.

659
00:25:57,365 --> 00:26:00,884
But the idea of connecting quantum technology to

660
00:26:00,884 --> 00:26:02,424
the current scientific infrastructure,

661
00:26:03,220 --> 00:26:05,460
I think this is an absolute necessity for

662
00:26:05,460 --> 00:26:06,839
the survival of the technology

663
00:26:07,539 --> 00:26:10,500
to be, both useful and impactful on the

664
00:26:10,500 --> 00:26:11,480
scientific community.

665
00:26:12,500 --> 00:26:14,019
I see. And you and you brought me

666
00:26:14,019 --> 00:26:16,440
nicely to my next question, which is about

667
00:26:16,500 --> 00:26:17,559
quantum sensors.

668
00:26:19,184 --> 00:26:20,224
I'm guessing that,

669
00:26:20,625 --> 00:26:23,025
that Oak Ridge is in is, involved in

670
00:26:23,025 --> 00:26:24,164
developing materials,

671
00:26:25,105 --> 00:26:28,224
for quantum sensors as well as quantum competing

672
00:26:28,224 --> 00:26:28,724
devices.

673
00:26:30,304 --> 00:26:31,924
You're exactly right. The

674
00:26:32,859 --> 00:26:34,000
ability to

675
00:26:34,940 --> 00:26:35,440
characterize,

676
00:26:36,059 --> 00:26:39,039
to sense, to detect unique quantum signals

677
00:26:39,660 --> 00:26:40,960
is actually requiring

678
00:26:41,419 --> 00:26:41,919
advances

679
00:26:42,700 --> 00:26:45,099
in those same types of technologies. And and

680
00:26:45,099 --> 00:26:46,700
what I mean by this is that many

681
00:26:46,700 --> 00:26:47,200
times,

682
00:26:48,204 --> 00:26:50,544
the features of a of a signal,

683
00:26:50,845 --> 00:26:52,944
let's say it's a spectrum

684
00:26:53,244 --> 00:26:55,724
or some sort of response function, whatever it

685
00:26:55,724 --> 00:26:56,384
might be,

686
00:26:57,085 --> 00:26:57,904
many times

687
00:26:58,284 --> 00:26:59,024
the the

688
00:26:59,569 --> 00:27:01,990
type of feature that we're looking for is

689
00:27:02,210 --> 00:27:03,589
uniquely quantum mechanical,

690
00:27:04,210 --> 00:27:06,710
and that requires an increase in sensitivity

691
00:27:07,009 --> 00:27:07,750
and precision,

692
00:27:08,769 --> 00:27:11,109
in the measurement capability to surpass

693
00:27:11,875 --> 00:27:12,855
what would be conventional

694
00:27:13,234 --> 00:27:13,734
limitations

695
00:27:14,194 --> 00:27:16,115
on the noise and the error in those

696
00:27:16,115 --> 00:27:17,015
types of measurements.

697
00:27:17,794 --> 00:27:20,194
And probably one of the places that Oak

698
00:27:20,194 --> 00:27:22,134
Ridge has, the most expertise

699
00:27:22,914 --> 00:27:24,835
is in surpassing what we call the shot

700
00:27:24,835 --> 00:27:25,559
noise limit.

701
00:27:26,120 --> 00:27:28,779
And this is a typical type of statistical

702
00:27:28,920 --> 00:27:30,920
error that occurs as you make many types

703
00:27:30,920 --> 00:27:31,580
of measurements.

704
00:27:31,960 --> 00:27:33,559
It turns out that the,

705
00:27:34,360 --> 00:27:37,000
that particular type of error should scale as

706
00:27:37,000 --> 00:27:37,820
one over,

707
00:27:38,360 --> 00:27:40,315
the square root of n, where n is

708
00:27:40,315 --> 00:27:42,315
the number of samples that you're collecting. This

709
00:27:42,315 --> 00:27:44,654
is very, well known, statistical,

710
00:27:45,835 --> 00:27:48,414
consequence of classical information theory.

711
00:27:49,115 --> 00:27:49,855
But quantum,

712
00:27:50,795 --> 00:27:53,535
information theory actually provides us a pathway

713
00:27:54,279 --> 00:27:54,779
to

714
00:27:55,319 --> 00:27:56,539
reduce that sensitivity

715
00:27:56,920 --> 00:27:57,900
to the the,

716
00:27:58,920 --> 00:28:00,440
measurements. In fact, what I mean to say

717
00:28:00,440 --> 00:28:02,279
here is that it changes it from one

718
00:28:02,279 --> 00:28:03,880
over square root of n to one over

719
00:28:03,880 --> 00:28:05,799
n so that you have a much better

720
00:28:05,799 --> 00:28:08,279
resolution in the measurements using the same number

721
00:28:08,279 --> 00:28:09,259
of of collections.

722
00:28:10,295 --> 00:28:11,755
And that type of

723
00:28:12,214 --> 00:28:12,714
development

724
00:28:13,015 --> 00:28:15,595
of sensors that surpass the shot noise limit

725
00:28:16,054 --> 00:28:17,755
gives us a way of

726
00:28:18,214 --> 00:28:19,355
removing the veil

727
00:28:19,654 --> 00:28:22,775
of classical theory that currently covers the quantum

728
00:28:22,775 --> 00:28:23,275
world.

729
00:28:23,734 --> 00:28:25,115
And that exposes

730
00:28:25,470 --> 00:28:27,549
all of these quantum signatures that we're looking

731
00:28:27,549 --> 00:28:29,789
for. Of course, it's a very demanding and

732
00:28:29,789 --> 00:28:32,750
highly sensitive experiment, but those are the ways

733
00:28:32,750 --> 00:28:35,710
that we're trying to create quantum sensors that

734
00:28:35,710 --> 00:28:38,829
can characterize materials, look for topological order and

735
00:28:38,829 --> 00:28:40,755
entanglement in exciting new ways.

736
00:28:41,795 --> 00:28:43,634
But then, of course, as we were saying

737
00:28:43,634 --> 00:28:44,134
earlier,

738
00:28:44,914 --> 00:28:45,734
those capabilities

739
00:28:46,595 --> 00:28:49,174
can now be fed directly into

740
00:28:49,634 --> 00:28:51,815
these types of quantum computing systems

741
00:28:52,275 --> 00:28:54,920
where they're naturally using that quantum

742
00:28:55,460 --> 00:28:58,019
representation of the data. It's a much better,

743
00:28:58,019 --> 00:29:00,759
more accurate, more precise representation of the data,

744
00:29:00,980 --> 00:29:03,619
which can only serve to amplify our ability

745
00:29:03,619 --> 00:29:04,680
to perform calculations.

746
00:29:05,860 --> 00:29:07,875
I see. And I I wanted to also

747
00:29:07,875 --> 00:29:08,855
ask you about,

748
00:29:09,555 --> 00:29:12,515
Oak Ridge's work in coming up with ways

749
00:29:12,515 --> 00:29:13,654
to use existing

750
00:29:14,275 --> 00:29:15,654
fiber optic infrastructure

751
00:29:16,355 --> 00:29:19,235
to create a quantum Internet that,

752
00:29:20,080 --> 00:29:23,140
I suppose would allow quantum computers to be

753
00:29:23,279 --> 00:29:25,840
connected to each other and quantum information to

754
00:29:25,840 --> 00:29:28,640
be sent over long distances. Can you can

755
00:29:28,640 --> 00:29:31,200
you talk a bit about that research? What

756
00:29:31,200 --> 00:29:33,059
what what are the challenges of using

757
00:29:33,525 --> 00:29:34,744
existing infrastructure?

758
00:29:35,125 --> 00:29:37,365
And, what what what are people at Oak

759
00:29:37,365 --> 00:29:39,305
Ridge doing to overcome those challenges?

760
00:29:41,125 --> 00:29:44,585
Integrating quantum technologies into our existing infrastructure

761
00:29:45,125 --> 00:29:46,904
is anything but straightforward.

762
00:29:47,640 --> 00:29:49,240
We, of course, have to deal with the

763
00:29:49,240 --> 00:29:52,279
fact that the interface to the the worlds

764
00:29:52,279 --> 00:29:54,619
of quantum and classical mechanics are,

765
00:29:56,440 --> 00:29:58,220
very different from each other.

766
00:29:58,680 --> 00:30:01,099
The quantum state is kind of the

767
00:30:02,105 --> 00:30:05,164
most important object to be maintained and preserved

768
00:30:05,224 --> 00:30:07,384
through all of this sensing and computing and

769
00:30:07,384 --> 00:30:07,884
transmission,

770
00:30:08,424 --> 00:30:08,924
processes.

771
00:30:09,945 --> 00:30:13,404
And that interface now with our hybrid infrastructure

772
00:30:13,625 --> 00:30:16,265
means that we've developed ways to not only

773
00:30:16,265 --> 00:30:19,380
move the information around, but to also transduce

774
00:30:19,519 --> 00:30:21,380
it from one medium to the other.

775
00:30:21,839 --> 00:30:23,920
And here you can think about the idea

776
00:30:23,920 --> 00:30:26,880
that if I've stored some information in the

777
00:30:26,880 --> 00:30:28,660
electronic spin of a material,

778
00:30:29,200 --> 00:30:31,220
but I wanna somehow move that information

779
00:30:31,599 --> 00:30:32,900
over to the

780
00:30:35,144 --> 00:30:37,545
electronic spin of an ion that's been trapped

781
00:30:37,545 --> 00:30:39,164
in a quantum computer somewhere,

782
00:30:39,545 --> 00:30:41,325
I have to have some way of transducing

783
00:30:42,025 --> 00:30:44,845
the information into, let's say, an optical carrier,

784
00:30:45,704 --> 00:30:48,265
that can move the information from one location

785
00:30:48,265 --> 00:30:48,869
to the other.

786
00:30:49,430 --> 00:30:51,430
That's all very technical sounding, but what I'm

787
00:30:51,430 --> 00:30:52,650
trying to say is that

788
00:30:53,109 --> 00:30:53,769
the ability

789
00:30:54,150 --> 00:30:57,109
to move quantum information from one location to

790
00:30:57,109 --> 00:30:57,609
another

791
00:30:57,990 --> 00:30:59,029
has very many,

792
00:30:59,430 --> 00:31:01,005
technology demands on it

793
00:31:01,484 --> 00:31:02,944
in addition to the fact

794
00:31:03,325 --> 00:31:06,625
that we already have a very well developed

795
00:31:06,684 --> 00:31:08,464
and well supported infrastructure

796
00:31:09,404 --> 00:31:10,625
that needs to accommodate

797
00:31:11,085 --> 00:31:12,384
those types of new technologies.

798
00:31:13,200 --> 00:31:15,299
Here at Oak Ridge, we have a specific

799
00:31:15,359 --> 00:31:17,440
interest in how can we use our existing

800
00:31:17,440 --> 00:31:17,940
infrastructure

801
00:31:19,039 --> 00:31:22,019
and build upon that to create this hybrid

802
00:31:22,079 --> 00:31:23,059
quantum ecosystem.

803
00:31:24,000 --> 00:31:26,659
We currently have the Department of Energy's

804
00:31:26,960 --> 00:31:28,819
largest fiber based network,

805
00:31:29,224 --> 00:31:31,785
over 300 kilometers of fiber that can be

806
00:31:31,785 --> 00:31:32,285
used

807
00:31:32,664 --> 00:31:35,644
for testing and evaluating transmission protocols.

808
00:31:36,105 --> 00:31:37,805
These are using some of the same,

809
00:31:40,744 --> 00:31:42,825
sources and transmitters that we would use for,

810
00:31:42,825 --> 00:31:43,964
say, sensor development.

811
00:31:44,630 --> 00:31:47,190
But now we can channel them into the

812
00:31:47,190 --> 00:31:48,970
transmission across long distances.

813
00:31:49,670 --> 00:31:52,170
That allows us to create a distributed network

814
00:31:52,470 --> 00:31:54,870
where sensors are in one location, computers are

815
00:31:54,870 --> 00:31:57,190
in another, perhaps the end user is in

816
00:31:57,190 --> 00:31:59,775
a third, And that type of hybrid environment,

817
00:31:59,775 --> 00:32:02,194
that hybrid infrastructure becomes very important

818
00:32:02,575 --> 00:32:03,634
to thinking about

819
00:32:04,095 --> 00:32:06,835
what does a future laboratory look like

820
00:32:07,134 --> 00:32:09,634
that is fully integrated with quantum technology.

821
00:32:10,255 --> 00:32:11,855
What are all of the pieces that have

822
00:32:11,855 --> 00:32:13,634
to come together, they have to converge

823
00:32:14,069 --> 00:32:16,490
in order to support that type of infrastructure?

824
00:32:17,509 --> 00:32:19,210
So our our work developing,

825
00:32:19,589 --> 00:32:20,309
fiber based,

826
00:32:20,789 --> 00:32:23,990
communication systems, this type of quantum Internet is

827
00:32:23,990 --> 00:32:26,009
an important part of, that development.

828
00:32:27,829 --> 00:32:30,134
I see. And and finally, Travis, I'd like

829
00:32:30,134 --> 00:32:32,615
you to, to get out your quantum crystal

830
00:32:32,615 --> 00:32:33,115
ball

831
00:32:33,575 --> 00:32:35,835
and maybe have a look in the future

832
00:32:36,294 --> 00:32:38,075
at quantum science and technology

833
00:32:38,375 --> 00:32:40,934
at Oak Ridge. What, what what do you

834
00:32:40,934 --> 00:32:42,500
see coming up in

835
00:32:43,839 --> 00:32:46,420
the near future and I suppose further ahead?

836
00:32:46,480 --> 00:32:47,220
Are there any

837
00:32:47,519 --> 00:32:49,599
exciting projects that are being planned at the

838
00:32:49,599 --> 00:32:50,099
moment?

839
00:32:50,480 --> 00:32:53,619
Is ground being broken on any new facilities?

840
00:32:53,759 --> 00:32:55,440
What can we look forward to from Oak

841
00:32:55,440 --> 00:32:56,984
Ridge and in the quantum world?

842
00:32:59,605 --> 00:33:02,484
You know, the past five years have been

843
00:33:02,484 --> 00:33:06,005
a series of remarkable advances in quantum science

844
00:33:06,005 --> 00:33:06,664
and technology,

845
00:33:06,964 --> 00:33:08,884
both at Oak Ridge and, I would say,

846
00:33:08,884 --> 00:33:10,664
more broadly around the planet.

847
00:33:11,450 --> 00:33:12,349
What is

848
00:33:12,730 --> 00:33:15,210
very exciting, though, is that we have only

849
00:33:15,210 --> 00:33:18,750
seen the pace of innovation and development increase

850
00:33:19,130 --> 00:33:22,009
over these five years. So I anticipate that

851
00:33:22,009 --> 00:33:24,089
the next five years is going to see

852
00:33:24,089 --> 00:33:25,710
that increase even further.

853
00:33:26,184 --> 00:33:28,744
We will see technology scale up. We will

854
00:33:28,744 --> 00:33:30,424
see the number of qubits that are being

855
00:33:30,424 --> 00:33:31,565
developed become,

856
00:33:32,184 --> 00:33:32,684
larger,

857
00:33:33,065 --> 00:33:33,805
higher fidelity,

858
00:33:34,184 --> 00:33:34,664
better,

859
00:33:35,305 --> 00:33:36,525
integrated, more sophisticated

860
00:33:36,825 --> 00:33:37,325
operations.

861
00:33:38,105 --> 00:33:38,605
That

862
00:33:38,904 --> 00:33:41,609
course opens us up to a whole new

863
00:33:41,609 --> 00:33:44,730
set of products and services, including quantum computers

864
00:33:44,730 --> 00:33:47,149
that can start to routinely reach

865
00:33:47,450 --> 00:33:49,929
what we would call quantum advantage, you know,

866
00:33:49,929 --> 00:33:50,429
surpassing

867
00:33:50,970 --> 00:33:52,809
the best calculations that we think we can

868
00:33:52,809 --> 00:33:55,325
do today with high performance computing systems.

869
00:33:56,105 --> 00:33:56,845
In addition,

870
00:33:57,224 --> 00:33:59,224
as we start to integrate these types of

871
00:33:59,224 --> 00:33:59,724
capabilities

872
00:34:00,025 --> 00:34:01,164
into our infrastructure,

873
00:34:01,945 --> 00:34:03,404
we'll see that convergence

874
00:34:03,865 --> 00:34:06,285
of the quantum and classical ideas occur

875
00:34:06,720 --> 00:34:09,280
so that we can think about quantum high

876
00:34:09,280 --> 00:34:13,280
performance computers or quantum sensors connecting into these

877
00:34:13,280 --> 00:34:14,179
quantum computers

878
00:34:14,480 --> 00:34:17,039
and, of course, the security overall of that,

879
00:34:17,359 --> 00:34:20,340
network by using these quantum transmission protocols.

880
00:34:21,164 --> 00:34:23,164
Here at Oak Ridge, we've got the Quantum

881
00:34:23,164 --> 00:34:25,644
Science Center, which is going up for another

882
00:34:25,644 --> 00:34:27,025
five years of activity.

883
00:34:27,405 --> 00:34:29,485
We've got the Q Cup program that only

884
00:34:29,485 --> 00:34:31,005
continues to grow its,

885
00:34:31,485 --> 00:34:32,545
its user base.

886
00:34:33,179 --> 00:34:35,760
All of that is being supported by a

887
00:34:35,820 --> 00:34:37,519
recently opened building,

888
00:34:37,900 --> 00:34:41,199
called the Translational Research Capability Building or TRC.

889
00:34:41,900 --> 00:34:44,219
That building has actually been developed over the

890
00:34:44,219 --> 00:34:45,599
the last several years

891
00:34:45,914 --> 00:34:47,375
to specifically house,

892
00:34:48,315 --> 00:34:51,035
the very sensitive instruments and experiments that we

893
00:34:51,035 --> 00:34:52,175
wanna do in quantum

894
00:34:53,434 --> 00:34:56,635
materials, quantum optics, quantum computing, all of these

895
00:34:56,635 --> 00:34:57,535
different areas.

896
00:34:58,110 --> 00:35:00,750
So we're already seeing the Department of Energy

897
00:35:00,750 --> 00:35:02,289
and Oak Ridge National Laboratory

898
00:35:02,829 --> 00:35:05,950
make plans for this future convergence of quantum

899
00:35:05,950 --> 00:35:07,809
and and and conventional methods.

900
00:35:08,510 --> 00:35:10,990
But what I think is probably more important

901
00:35:10,990 --> 00:35:11,864
to all of that

902
00:35:12,425 --> 00:35:14,764
mirrors the conversation we had at the beginning

903
00:35:14,905 --> 00:35:16,045
about unique capabilities

904
00:35:16,905 --> 00:35:18,764
and the role that personnel play.

905
00:35:19,465 --> 00:35:22,125
Because the other thing that is most important

906
00:35:22,184 --> 00:35:23,485
in the next five years

907
00:35:23,945 --> 00:35:25,324
is building out partnerships

908
00:35:25,860 --> 00:35:28,500
between industry and academia and the other national

909
00:35:28,500 --> 00:35:29,000
labs

910
00:35:29,539 --> 00:35:30,280
to support

911
00:35:30,660 --> 00:35:32,200
what these types of capabilities

912
00:35:32,820 --> 00:35:34,119
can lead to.

913
00:35:34,579 --> 00:35:37,619
Oak Ridge is especially interested in developing that

914
00:35:37,619 --> 00:35:39,480
type of partnership, that type of network

915
00:35:39,924 --> 00:35:42,085
so that we can amplify the impact that

916
00:35:42,085 --> 00:35:42,744
we have,

917
00:35:43,204 --> 00:35:44,105
both in terms

918
00:35:44,885 --> 00:35:46,885
of how do we create the technology, how

919
00:35:46,885 --> 00:35:49,065
do we overcome these scientific challenges,

920
00:35:49,525 --> 00:35:51,525
but also in terms of the adoption of

921
00:35:51,525 --> 00:35:54,480
that technology and its application to what I

922
00:35:54,480 --> 00:35:56,260
would consider real world

923
00:35:56,559 --> 00:35:57,300
use cases,

924
00:35:57,679 --> 00:36:01,139
scientific discovery, economic advantage, and national security.

925
00:36:01,519 --> 00:36:03,039
All of these will continue to be a

926
00:36:03,039 --> 00:36:05,440
priority over the the next five years, the

927
00:36:05,440 --> 00:36:06,179
next decade,

928
00:36:06,714 --> 00:36:09,454
And it will be a very exciting experience

929
00:36:09,835 --> 00:36:11,375
to watch the transformations

930
00:36:11,675 --> 00:36:12,494
that are happening,

931
00:36:12,795 --> 00:36:14,474
not just here at Oak Ridge, but around

932
00:36:14,474 --> 00:36:15,135
the world

933
00:36:15,514 --> 00:36:18,734
in the development, the maturity, and the breakthroughs,

934
00:36:19,640 --> 00:36:21,500
in this this particular field.

935
00:36:22,119 --> 00:36:24,619
Well, that's great. That sounds very exciting and

936
00:36:24,680 --> 00:36:26,680
lots of work to be done by you

937
00:36:26,680 --> 00:36:28,840
and your colleagues, which is which is good

938
00:36:28,840 --> 00:36:29,340
news.

939
00:36:29,640 --> 00:36:31,800
So thanks, Travis. Thanks so much for coming

940
00:36:31,800 --> 00:36:34,404
on the podcast and talking to us about

941
00:36:34,404 --> 00:36:37,045
all things quantum at the Oak Ridge National

942
00:36:37,045 --> 00:36:39,304
Lab. Thank you, Hamish. It's been a pleasure.

943
00:36:47,340 --> 00:36:49,180
I'm afraid that's all the time we have

944
00:36:49,180 --> 00:36:51,900
for this week's podcast, which is supported by

945
00:36:51,900 --> 00:36:53,039
American Elements.

946
00:36:53,500 --> 00:36:56,539
Thanks to Travis Humble for his insights into

947
00:36:56,539 --> 00:36:58,239
quantum research and development

948
00:36:58,619 --> 00:37:01,605
at Oak Ridge National Lab, and a special

949
00:37:01,605 --> 00:37:02,824
thanks to our producer,

950
00:37:03,204 --> 00:37:04,105
Fred Isles.

951
00:37:12,644 --> 00:37:14,985
This podcast is brought to you by American

952
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953
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954
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960
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American Elements is the largest supplier of its

961
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962
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965
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966
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969
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972
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973
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974
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975
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976
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980
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981
00:38:07,974 --> 00:38:12,795
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982
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983
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