Quantum sensors benefit from miniaturized ultrahigh vacuum

Physics World Weekly Podcast

The quantum-technology sector is burgeoning, but challenges remain when it comes to creating viable commercial products. While quantum sensors show great promise, some technologies rely on ultrahigh vacuum (UHV) – which is difficult to achieve in compact, portable devices.

My guest in this episode of the Physics World Weekly podcast is Florence Concepcion, who focuses on the miniaturization of UHV systems for practical quantum sensors and other devices. She is a senior quantum engineer at Aquark Technologies – a UK-based company that is developing cold-matter quantum technologies.

In 2025 Concepcion was awarded a £1.9m Innovate Future Leaders Fellowship by the UK government. She explains how that money will be spent over four years to develop vacuum systems for quantum technologies.

Before joining Aquark, Concepcion did a PhD on a topic at the intersection of astronomy and atomic physics. She talks about her transition from academia to industry and we chat about careers for physicists in the quantum sector.

 

 

SmarAct proudly supports this episode of Physics World Weekly. The company advances breakthroughs in science and technology through high-precision positioning, metrology and automation. Discover how SmarAct shapes the future of innovation at smaract.com.

 

2026-04-23 26 min Transcript

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Transcript

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Hello, and welcome to the Physics World weekly

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podcast.

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I'm Hamish Johnston.

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My guest in this episode is Florence

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Concepcion,

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who is senior

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quantum engineer

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at Acor Technologies,

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a UK based company that is developing

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cold matter quantum systems.

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That conversation is coming up after this message

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from which

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has generously

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supported this episode.

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This episode is brought to you by

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enabling breakthroughs in science and technology

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through high precision

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positioning,

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metrology,

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and automation.

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In fields like quantum sensing,

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as we'll hear in today's episode,

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performance often depends on motion at the nanometer

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scale.

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Develops

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compact

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positioning

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solutions

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designed for exactly these challenges,

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offering high stability,

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repeatability,

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and reliable

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performance,

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even in demanding

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environments

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such as ultra high vacuum or cryogenic

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conditions.

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To learn more, visit smartact.com.

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Florence Concepcion

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joined ACORC in 2023

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after doing a PhD at Imperial College London

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on a topic at the intersection of astrophysics

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and atomic physics.

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She was awarded an innovate

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future leaders fellowship

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by the UK government,

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which is worth £1,900,000.

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We chat about how that money will be

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spent on developing new vacuum technologies

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at Acquark.

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Florence also talks about her decision

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to move from academia

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to industry

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and gives some advice

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for those with similar career aims.

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Here's our conversation.

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Hi, Florence. Welcome to the podcast.

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Hi, Hamish. Thank you for having me.

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So, Florence, you began your career as an

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astrophysicist,

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and you've done experimental

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work on plasma physics.

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And that was before you made the move

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to ACORC Technologies.

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Why did you move from academia

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to the quantum technology sector?

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My move into quantum

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was almost an accident, really. It wasn't

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planned, and I didn't actually

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think I had the knowledge to work in

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the quantum industry.

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My background,

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yeah, as you said, I was I was

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an astronomer.

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After doing a research placement

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on x-ray astronomy,

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which was all behind a computer sitting at

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a desk, I found that I I really

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actually wanted to do a bit more experimental

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physics.

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And so

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I found my next position was

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measuring the emission spectrum

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of doubly ionized metals and using that data

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to determine

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the atomic structure

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of,

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in my case, it was for iron,

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which was which was great. I had a

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little bit of

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lab experience, a little bit of computational analysis.

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I got to compare to theory. It was

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a a very nice confined project. But

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importantly for me at the time, the applications

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of the data I was producing was for

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astronomers. And so that linked me back to

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my first love of astronomy.

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But I actually had to leave that position,

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for I had to move from London. I

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was I was doing that work at Imperial

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College. Had to move from London down to

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Southampton

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for,

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for family reasons, for,

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to to care for someone full time. And

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so as part of doing that, I I

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did look around

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whether I could continue in academia here. I

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looked at the universities close to where I'm

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based.

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But I the the field that I was

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working in was quite narrow, and so I

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would have to make quite a big change

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in my scientific expertise. And,

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it's not that I wasn't up for that,

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but it was a big task. And there

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were other things at hand to to focus

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on. But,

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one of my now colleagues reached out,

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and,

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he said he let me know there's this

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there's this startup called Acart Technologies, and,

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they're they're looking to hire. You should reach

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out. And, again, I read I read it.

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I thought, oh, it's a it's a quantum

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company. I'm not gonna have anything to be

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able to offer here.

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I I was I was a little discouraged,

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I think, actually, and and I sort of

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responded, like, oh, don't be silly. I can't

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I can't apply for that. But no. He

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encouraged me again, and I I spoke to,

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I met up with Alex and Andre, the

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the cofounders,

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and,

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had a tour and soon realized that, yeah,

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the skills that they need are not people

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who are experts in quantum,

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but people who have a variety of skills.

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And in my case, I had these lab

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skills from,

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in in plasma physics and in the study

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in in, working on vacuum systems.

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And that, yeah, that that

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it was sort of this bizarre sort of

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puzzle piece that fit really well.

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So that was my move into into quantum.

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It wasn't planned,

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but,

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there there's a huge variety of skill sets

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needed for quantum technology.

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So I'm very I'm thrilled that,

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my my colleague reached out. And I'm thrilled

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that I I took the little leap as

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well, and and I did go have the

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tour and I did have the interview,

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thinking that I I wasn't sure what I

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was gonna be able to contribute. But, I

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I also think part of it was just

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attitude. I was very I was very,

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what's the word,

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excited to be able to just contribute,

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what I could. And, yeah, that's brought me

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here. Very exciting. I'm very glad I did

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it.

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So, yeah, you you've hinted a bit at

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at some of the, I suppose,

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instrumentation

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that that you're that you use at Acorn.

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Can you give us a a a an

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idea of the technologies

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that the company is developing and your role

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in that development?

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Yeah. Of course. So AQARC Technologies,

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is

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its aim is to take

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quant quantum technology

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out of the lab and into the real

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world.

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It's,

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the our main focus is is deployment of

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this quantum technology. For that to happen, there

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are lots of challenges,

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which we need to tackle.

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Size, weight,

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power consumption, cost,

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robustness, these are all things that need to

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be worked on. A very key component of

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these quantum technologies

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is the vacuum chamber in which

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atoms are trapped

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and probed and used for measuring.

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This vacuum chamber is essential.

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Without a ultra high vacuum,

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the atoms that we are using to take

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these measurements,

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will be bombarded and,

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and and measurements that we get will be

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imprecise.

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And so part of my job is to

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create these ultra high vacuum chambers, these chambers

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with essentially

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one molecule

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per,

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I don't know, centimeter cubed as it were,

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less than that.

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And

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beyond that now is to be able to

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miniaturize them and make them more robust. That

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is the aim of of what I do

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at Acro Technologies.

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And and Florence, you've been awarded a £1,900,000

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innovate

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UK

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future leaders fellowship

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from the the government of the United Kingdom.

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And you're going to use that,

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of money over the next four four years

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to develop new technologies

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at ACORC.

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Can can you give us a a bit

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of a background

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into that fellowship? What's the purpose

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of the fellowship?

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And,

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what technologies

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are you developing?

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So

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the aim is

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the engineering, the miniaturization,

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and the scalability

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of ultra high vacuum chambers for quantum technology

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purposes.

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So I said the as as I said,

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the vacuum chamber is a limiting factor

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in, currently in some of our quantum systems.

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It has,

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usually, it's made of something out of stainless

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steel and glass or titanium,

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but relatively heavy,

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metals.

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These this can be made lighter. This could

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be made smaller.

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And we're currently

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using

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iron pumps, which are

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power hungry is not the word, but we

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we're currently using ion pumps, which have a

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power consumption

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and must be on at all times in

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order to ensure that ultra high vacuum

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remains throughout the lifetime of that of that

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item, of that sensor, of that system.

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By

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creating a passive vacuum, we will not need

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to have the ion pump constantly pumping for

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the lifetime of that sensor. We can have

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a system which is essentially switched on and

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switched off as needed,

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rather than have it constantly running.

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Another

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con of the ion pump is a magnetic

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field. If we want to use the quantum

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sensor to measure magnetic fields, the ion pump

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gets in the way of that because we're

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producing our own magnetic field.

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All these

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small little,

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small factors compound and add a layers of

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complexity to these quantum sensors which which are

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not needed. And so the aim of my

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fellowship is to

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00:09:50,980 --> 00:09:53,940
tackle all the little vacuum challenges in order

274
00:09:53,940 --> 00:09:55,480
to be able to create smaller,

275
00:09:55,860 --> 00:09:56,360
robust,

276
00:09:58,019 --> 00:09:58,519
less

277
00:09:59,274 --> 00:09:59,774
expensive

278
00:10:00,475 --> 00:10:01,934
ultra high vacuum chambers

279
00:10:02,875 --> 00:10:04,815
and in doing so, enabling

280
00:10:05,355 --> 00:10:07,914
quantum sensors and quantum technology to do the

281
00:10:07,914 --> 00:10:08,414
same.

282
00:10:09,595 --> 00:10:12,899
Another factor is manpower. For example, it takes,

283
00:10:13,940 --> 00:10:16,920
people who are highly specialized and highly skilled

284
00:10:17,460 --> 00:10:17,960
to

285
00:10:18,500 --> 00:10:20,660
create to to to build one and then

286
00:10:20,660 --> 00:10:21,879
to go through the process

287
00:10:22,259 --> 00:10:23,559
of building this,

288
00:10:24,259 --> 00:10:27,059
chamber made of metal and glass down bringing

289
00:10:27,059 --> 00:10:29,115
that down to ultra high vacuum and then

290
00:10:29,115 --> 00:10:31,274
ensuring it stays at ultra high vacuum throughout

291
00:10:31,274 --> 00:10:33,274
the lifetime of the quantum sensor. All of

292
00:10:33,274 --> 00:10:36,014
these are the people who maintain these,

293
00:10:36,634 --> 00:10:38,394
are very skilled. And so in order to

294
00:10:38,394 --> 00:10:39,214
be able to

295
00:10:39,754 --> 00:10:40,235
make the

296
00:10:40,875 --> 00:10:43,195
streamline the process and make it cheaper and

297
00:10:43,195 --> 00:10:44,159
make it scalable,

298
00:10:44,700 --> 00:10:47,279
we will no longer have all these resources

299
00:10:47,500 --> 00:10:48,240
being drained.

300
00:10:48,940 --> 00:10:52,399
And so the the future leader fellowship has,

301
00:10:53,419 --> 00:10:55,679
provided me with, like he said, money.

302
00:10:56,195 --> 00:10:57,934
And that money will be used to,

303
00:10:58,475 --> 00:11:00,495
it has been used already so far to

304
00:11:00,634 --> 00:11:01,695
build my lab,

305
00:11:02,475 --> 00:11:03,455
build my team,

306
00:11:03,835 --> 00:11:06,634
and, the through the program, there is a

307
00:11:06,634 --> 00:11:08,554
huge amount of resources in order to make

308
00:11:08,554 --> 00:11:10,320
sure that I'm making the most out of

309
00:11:10,399 --> 00:11:11,940
the time that I have and,

310
00:11:12,879 --> 00:11:15,539
will can can do the research independently

311
00:11:15,840 --> 00:11:17,059
to the best of my ability.

312
00:11:18,799 --> 00:11:20,980
I see. And and and so with passive

313
00:11:21,360 --> 00:11:23,700
pumping, this this is the idea that,

314
00:11:25,434 --> 00:11:28,174
you I mean, do do you use a

315
00:11:28,554 --> 00:11:29,054
conventional

316
00:11:29,835 --> 00:11:32,095
ion pump or mechanical pump to first

317
00:11:32,554 --> 00:11:35,195
pump down the system, and then the vacuum

318
00:11:35,195 --> 00:11:36,495
is maintained using

319
00:11:37,355 --> 00:11:37,855
materials

320
00:11:40,100 --> 00:11:40,920
that absorb,

321
00:11:43,460 --> 00:11:45,800
gas molecules, and and that maintains

322
00:11:46,340 --> 00:11:48,580
the vacuum. So is is the idea that

323
00:11:48,580 --> 00:11:50,660
you you sort of pump these things down,

324
00:11:50,660 --> 00:11:52,884
you seal them up, and then you ship

325
00:11:52,884 --> 00:11:54,184
them out. And

326
00:11:54,725 --> 00:11:56,745
these special coating materials

327
00:11:57,445 --> 00:12:00,004
maintain the vacuum over the lifetime of the

328
00:12:00,004 --> 00:12:00,504
sensor?

329
00:12:01,205 --> 00:12:03,924
Yeah. That's exactly it. So currently, we will

330
00:12:03,924 --> 00:12:06,024
receive a a chamber, and we'll use

331
00:12:08,740 --> 00:12:10,659
rough pumps such as a scroll pump or

332
00:12:10,659 --> 00:12:12,899
rotary vein pump. And these will get get

333
00:12:12,899 --> 00:12:14,039
things down from,

334
00:12:15,379 --> 00:12:18,440
one bar, which is almost equivalent to atmospheric

335
00:12:18,500 --> 00:12:20,120
pressure, down to

336
00:12:20,659 --> 00:12:23,825
10 to the minus two millibar, for example.

337
00:12:23,965 --> 00:12:25,804
And then we'll have a further pump such

338
00:12:25,804 --> 00:12:27,164
as a turbo pump that will get us

339
00:12:27,164 --> 00:12:28,764
down to 10 to the minus six, ten

340
00:12:28,764 --> 00:12:30,044
to the minus seven, ten to the minus

341
00:12:30,044 --> 00:12:31,664
eight, ten to the minus nine millibar.

342
00:12:32,125 --> 00:12:34,445
And then once and then we will move

343
00:12:34,445 --> 00:12:36,044
on to iron pumps, and they will get

344
00:12:36,044 --> 00:12:37,320
us down to the 10 to the minus

345
00:12:37,320 --> 00:12:39,019
ten, ten to the minus 11 millibar.

346
00:12:40,120 --> 00:12:43,259
And then in a conventional system, we would

347
00:12:43,320 --> 00:12:45,000
seal off the system from the from the

348
00:12:45,000 --> 00:12:47,000
larger pump, separate them, and we would leave

349
00:12:47,000 --> 00:12:47,899
the iron pump

350
00:12:48,279 --> 00:12:50,379
running to actively pump away.

351
00:12:51,065 --> 00:12:52,585
Like you said, in a in a passive

352
00:12:52,585 --> 00:12:53,965
system, we can have materials,

353
00:12:54,825 --> 00:12:58,585
such as non non evaporable getters. They can

354
00:12:58,585 --> 00:13:00,445
coat the inside of your chambers.

355
00:13:01,225 --> 00:13:02,820
Not only do they add this

356
00:13:03,779 --> 00:13:05,879
sticky layer as it were in order to

357
00:13:06,100 --> 00:13:09,539
enable to in order to have molecules stick

358
00:13:09,539 --> 00:13:11,700
to that instead of roam free inside the

359
00:13:11,700 --> 00:13:12,519
vacuum chamber,

360
00:13:13,220 --> 00:13:14,039
they help

361
00:13:16,259 --> 00:13:18,440
to enable the ultra high vacuum,

362
00:13:19,034 --> 00:13:22,235
but they also reduce outgassing from the material

363
00:13:22,235 --> 00:13:23,134
body itself.

364
00:13:23,754 --> 00:13:26,235
The material, you know, a a a chunk

365
00:13:26,235 --> 00:13:28,394
of stainless steel will will not be pure

366
00:13:28,394 --> 00:13:31,549
stainless steel. There'll be molecules in there. And

367
00:13:31,610 --> 00:13:33,929
by having that neg coating, we actually can

368
00:13:33,929 --> 00:13:35,929
prevent a little bit of outgassing as well.

369
00:13:35,929 --> 00:13:37,210
And that helps us with,

370
00:13:37,690 --> 00:13:39,789
ensuring that we can have that passive vacuum.

371
00:13:40,169 --> 00:13:42,110
Another factor is gas permeation.

372
00:13:42,490 --> 00:13:42,825
Gas

373
00:13:43,304 --> 00:13:45,325
per helium permeates through everything.

374
00:13:45,865 --> 00:13:47,565
And so if we can find a way

375
00:13:47,625 --> 00:13:50,125
to reduce that, we will be improving our

376
00:13:50,264 --> 00:13:51,404
our passive vacuum

377
00:13:51,945 --> 00:13:52,684
even better.

378
00:13:54,105 --> 00:13:55,544
There are so many there are so many

379
00:13:55,544 --> 00:13:58,445
factors. I I'm I mean, even just

380
00:13:59,050 --> 00:14:01,710
preventing leaks from occurring in the first place,

381
00:14:02,090 --> 00:14:03,930
we need to think about what materials we're

382
00:14:03,930 --> 00:14:07,389
using, what our method for sealing these materials

383
00:14:07,450 --> 00:14:08,190
up are.

384
00:14:08,570 --> 00:14:09,070
And,

385
00:14:09,850 --> 00:14:11,769
yeah, it it's there there are so many

386
00:14:11,769 --> 00:14:13,290
factors, and and a lot of them start

387
00:14:13,290 --> 00:14:14,995
right at the design stage. If you pick

388
00:14:14,995 --> 00:14:16,834
the wrong material at the start, you may

389
00:14:16,834 --> 00:14:19,314
never reach below a certain vacuum at all

390
00:14:19,314 --> 00:14:21,074
no matter what you do, no matter what

391
00:14:21,074 --> 00:14:22,615
processes you put it under.

392
00:14:23,074 --> 00:14:24,834
So I that is that is the part

393
00:14:24,834 --> 00:14:27,714
where I'm at now, designing and testing what

394
00:14:27,714 --> 00:14:29,360
I can in order to be able to,

395
00:14:29,360 --> 00:14:31,200
within the next few years, be able to

396
00:14:31,200 --> 00:14:31,700
provide

397
00:14:32,080 --> 00:14:33,460
passive vacuum chambers.

398
00:14:34,639 --> 00:14:36,320
I see. And and when you talk about

399
00:14:36,320 --> 00:14:38,660
the lifetime of the sensor, is that

400
00:14:39,840 --> 00:14:40,340
well,

401
00:14:40,720 --> 00:14:42,799
how how long is you know, can you

402
00:14:42,799 --> 00:14:43,299
maintain

403
00:14:43,964 --> 00:14:46,044
one of these sensors at, you know, a

404
00:14:46,044 --> 00:14:46,544
sufficient

405
00:14:47,004 --> 00:14:50,284
vacuum level for it to operate properly? Is

406
00:14:50,284 --> 00:14:52,204
it is it a matter of hours or

407
00:14:52,204 --> 00:14:53,264
days or

408
00:14:54,044 --> 00:14:55,584
months or is it forever?

409
00:14:56,779 --> 00:14:59,179
So right now, with the vacuum chambers I'm

410
00:14:59,179 --> 00:15:01,339
making with the ion pumps attached, with our

411
00:15:01,339 --> 00:15:01,820
current,

412
00:15:02,139 --> 00:15:02,639
materials,

413
00:15:03,339 --> 00:15:03,820
the,

414
00:15:04,299 --> 00:15:06,720
ion pump is good to go for years.

415
00:15:06,779 --> 00:15:08,539
That that that system will remain at a

416
00:15:08,539 --> 00:15:10,559
low pressure sufficiently for years.

417
00:15:11,134 --> 00:15:12,654
I can't tell you what I would be

418
00:15:12,654 --> 00:15:14,735
able to do with passive yet as I

419
00:15:14,735 --> 00:15:15,315
I haven't

420
00:15:15,774 --> 00:15:17,375
done the experiments yet in order to be

421
00:15:17,375 --> 00:15:19,134
able to have a number to back up,

422
00:15:19,134 --> 00:15:21,535
but the aim is years. The aim is

423
00:15:21,535 --> 00:15:22,115
to have

424
00:15:22,575 --> 00:15:25,039
a a sealed passive ultra high vacuum chamber,

425
00:15:25,039 --> 00:15:27,459
which I know reliably will be,

426
00:15:28,399 --> 00:15:30,399
at at ultra high vacuum for on the

427
00:15:30,399 --> 00:15:32,179
order of years. That's the aim.

428
00:15:32,879 --> 00:15:34,959
I see. And and so the idea here

429
00:15:34,959 --> 00:15:37,059
is that you can take these sensors

430
00:15:38,004 --> 00:15:40,164
out of the lab. You can, I don't

431
00:15:40,164 --> 00:15:41,304
know, put them on

432
00:15:41,684 --> 00:15:44,004
a a submarine if you wanted to, or

433
00:15:44,004 --> 00:15:45,865
you could launch them into space,

434
00:15:46,404 --> 00:15:49,784
and they would they would continue to sense,

435
00:15:50,610 --> 00:15:52,049
and you wouldn't have to worry about the

436
00:15:52,049 --> 00:15:52,549
vacuum?

437
00:15:53,330 --> 00:15:55,169
Yeah. Yeah. Definitely. We,

438
00:15:55,649 --> 00:15:58,789
ACOG has has done trials using these systems,

439
00:15:58,850 --> 00:16:00,710
using our current vacuum chambers.

440
00:16:01,809 --> 00:16:02,549
We had

441
00:16:03,009 --> 00:16:03,509
our

442
00:16:03,904 --> 00:16:06,245
cold atom system on the submersible

443
00:16:06,785 --> 00:16:08,085
called Boaty McBoatface.

444
00:16:08,705 --> 00:16:11,764
We ran that trial last year. And, similarly,

445
00:16:11,985 --> 00:16:12,644
we had,

446
00:16:13,345 --> 00:16:15,605
one of our atomic clocks on

447
00:16:16,144 --> 00:16:16,644
a

448
00:16:17,240 --> 00:16:19,820
on with a trial with the Royal Navy.

449
00:16:20,200 --> 00:16:21,879
I think that was three days on the

450
00:16:21,879 --> 00:16:22,379
Solent,

451
00:16:22,839 --> 00:16:24,700
just just nearby close to Southampton.

452
00:16:25,559 --> 00:16:27,639
So yeah. And and these these systems have

453
00:16:27,639 --> 00:16:28,779
been proven to

454
00:16:29,095 --> 00:16:31,595
to to be robust enough to continue operating

455
00:16:31,654 --> 00:16:33,115
under a variety of conditions.

456
00:16:34,294 --> 00:16:37,195
It is I think they're they're great milestones

457
00:16:37,254 --> 00:16:40,054
improving the that these systems can come out

458
00:16:40,054 --> 00:16:41,914
of the lab will be useful,

459
00:16:42,679 --> 00:16:45,080
and and that is very important to us

460
00:16:45,080 --> 00:16:47,159
too so that we know which direction to

461
00:16:47,159 --> 00:16:49,179
keep on going in. There's no point in

462
00:16:49,320 --> 00:16:51,240
making a a sensor for the sake of

463
00:16:51,240 --> 00:16:53,000
making a sensor if we can't then deploy

464
00:16:53,000 --> 00:16:53,659
it later.

465
00:16:54,600 --> 00:16:56,644
I see. And and so these sensors that

466
00:16:56,725 --> 00:16:58,164
I mean, it sounds to me like,

467
00:16:59,284 --> 00:17:03,065
the the an important application would be navigation,

468
00:17:03,365 --> 00:17:05,704
and in particular, navigation when

469
00:17:06,085 --> 00:17:09,545
a GPS GPS system has has failed or

470
00:17:09,849 --> 00:17:12,089
has shut down. So you've got you've got

471
00:17:12,089 --> 00:17:13,230
a very good clock

472
00:17:13,690 --> 00:17:14,429
on board.

473
00:17:17,049 --> 00:17:19,309
Do do this do you also do sensors

474
00:17:19,369 --> 00:17:19,690
that,

475
00:17:20,649 --> 00:17:21,549
that sense,

476
00:17:22,169 --> 00:17:22,669
acceleration?

477
00:17:23,654 --> 00:17:25,914
So you can you can navigate,

478
00:17:27,015 --> 00:17:29,515
by knowing how your vessel

479
00:17:29,894 --> 00:17:32,934
or vehicle is accelerating and and in which

480
00:17:32,934 --> 00:17:33,434
direction.

481
00:17:33,975 --> 00:17:34,855
Is that also,

482
00:17:35,414 --> 00:17:37,035
something that you're looking at?

483
00:17:38,019 --> 00:17:40,180
It is it's definitely something that can be

484
00:17:40,180 --> 00:17:41,320
done with this technology.

485
00:17:41,700 --> 00:17:43,539
If we're looking at that right now, I

486
00:17:43,539 --> 00:17:45,140
wouldn't be able to tell you. I don't,

487
00:17:45,619 --> 00:17:47,700
I I don't oversee what what every project

488
00:17:47,700 --> 00:17:49,539
is, but I I can tell you that

489
00:17:49,539 --> 00:17:50,200
we made

490
00:17:50,579 --> 00:17:51,320
a gravimeter,

491
00:17:52,294 --> 00:17:52,794
gravitometer.

492
00:17:53,815 --> 00:17:55,494
We we made a we made a sensor

493
00:17:55,494 --> 00:17:57,355
that can that can measure gravity,

494
00:17:58,775 --> 00:18:01,255
a year or two ago. And so it

495
00:18:01,335 --> 00:18:03,335
it's it's proven that this technology can be

496
00:18:03,335 --> 00:18:05,654
used for a variety of sensing, a variety

497
00:18:05,654 --> 00:18:07,380
of things. But, yes, that's exactly it.

498
00:18:08,180 --> 00:18:10,500
The aim is that these will contribute to,

499
00:18:10,819 --> 00:18:12,259
the these will be out these will be

500
00:18:12,259 --> 00:18:13,160
useful for,

501
00:18:13,779 --> 00:18:16,819
position, navigation, and timing. And like you said,

502
00:18:16,819 --> 00:18:17,640
in GNSS

503
00:18:18,099 --> 00:18:19,079
denied environments,

504
00:18:19,700 --> 00:18:20,680
these will be invaluable.

505
00:18:21,384 --> 00:18:23,384
We chatted a bit about your career,

506
00:18:23,865 --> 00:18:25,884
at the beginning of this interview,

507
00:18:26,585 --> 00:18:29,005
and I wanted to go back to careers

508
00:18:29,304 --> 00:18:30,684
in quantum technology.

509
00:18:32,345 --> 00:18:35,065
What advice would you give to, an early

510
00:18:35,065 --> 00:18:37,369
career physicist? You know, let's say somebody who's

511
00:18:37,369 --> 00:18:39,929
finished a PhD or, you know, maybe even

512
00:18:39,929 --> 00:18:40,890
somebody who's,

513
00:18:42,569 --> 00:18:45,369
done an undergraduate degree in physics and is

514
00:18:45,369 --> 00:18:46,190
really keen

515
00:18:46,650 --> 00:18:47,630
on entering

516
00:18:48,009 --> 00:18:49,549
the quantum technology

517
00:18:49,849 --> 00:18:50,349
sector.

518
00:18:51,605 --> 00:18:53,845
What what what what would your top bits

519
00:18:53,845 --> 00:18:56,004
of advice be for for a person like

520
00:18:56,004 --> 00:18:56,504
that?

521
00:18:57,845 --> 00:18:58,345
If,

522
00:18:58,804 --> 00:19:01,924
for example, they they have studied, someone has

523
00:19:01,924 --> 00:19:04,420
studied quantum and they want to continue studying

524
00:19:04,559 --> 00:19:05,059
quantum,

525
00:19:05,599 --> 00:19:07,220
within education, for example,

526
00:19:07,519 --> 00:19:10,000
there are definitely very clear avenues for that.

527
00:19:10,000 --> 00:19:11,779
I you know, there are there are,

528
00:19:12,720 --> 00:19:15,200
PhDs in in quantum technologies that that can

529
00:19:15,200 --> 00:19:15,940
be found.

530
00:19:16,505 --> 00:19:19,005
But if I I I think that that

531
00:19:19,224 --> 00:19:20,184
path is quite,

532
00:19:21,304 --> 00:19:23,404
is is linear and and easy to follow.

533
00:19:23,865 --> 00:19:26,204
But for someone who maybe

534
00:19:26,585 --> 00:19:29,849
hasn't quite studied quantum or, has some quantum

535
00:19:29,849 --> 00:19:32,650
background but doesn't want their entire expertise to

536
00:19:32,650 --> 00:19:34,750
be based around it, I would say

537
00:19:35,130 --> 00:19:38,670
try try everything. But, yeah, be be resilient.

538
00:19:38,809 --> 00:19:41,210
Find your skill set, which, which you are

539
00:19:41,210 --> 00:19:43,424
comfortable with, which you excel in,

540
00:19:43,985 --> 00:19:46,305
which you are passionate about. And there is

541
00:19:46,305 --> 00:19:47,904
a good chance that there there will be

542
00:19:47,904 --> 00:19:50,625
quantum technology related to that somehow. There will

543
00:19:50,625 --> 00:19:53,505
be a space for for whatever skill set

544
00:19:53,505 --> 00:19:54,404
that you have.

545
00:19:55,105 --> 00:19:57,990
But as well as this, I think I

546
00:19:57,990 --> 00:20:00,170
think networking, reaching out to people,

547
00:20:01,269 --> 00:20:03,829
saying hello to everyone and anyone, I I

548
00:20:03,829 --> 00:20:05,349
think is is really nice. You get to

549
00:20:05,349 --> 00:20:06,809
know a variety of people,

550
00:20:07,349 --> 00:20:09,430
and you get to expose to new worlds

551
00:20:09,430 --> 00:20:11,109
that you that you don't even know are

552
00:20:11,109 --> 00:20:11,769
out there.

553
00:20:12,554 --> 00:20:13,294
I think

554
00:20:13,674 --> 00:20:15,994
being resilient in in both of those things

555
00:20:15,994 --> 00:20:16,894
are really important.

556
00:20:17,355 --> 00:20:19,434
You need to keep pushing through that. You

557
00:20:19,434 --> 00:20:21,115
might try something and absolutely hate it, but

558
00:20:21,115 --> 00:20:22,554
at least you know now, and you can

559
00:20:22,554 --> 00:20:24,089
move on to the next skill set.

560
00:20:25,450 --> 00:20:27,230
Yeah. That would be that would be my

561
00:20:27,369 --> 00:20:29,390
my advice. Just keep pushing through.

562
00:20:30,250 --> 00:20:32,169
And, you you know, just speaking to you

563
00:20:32,169 --> 00:20:32,669
now,

564
00:20:32,970 --> 00:20:35,609
it it it sounds to me that your

565
00:20:35,609 --> 00:20:36,109
role

566
00:20:36,650 --> 00:20:38,190
at ACORC is,

567
00:20:38,884 --> 00:20:41,284
I mean, is it sort of similar in

568
00:20:41,284 --> 00:20:42,505
some ways to

569
00:20:43,044 --> 00:20:43,544
academic

570
00:20:44,005 --> 00:20:46,404
research? I mean, you've you you talk about

571
00:20:46,404 --> 00:20:48,264
having a lab, for example,

572
00:20:48,724 --> 00:20:49,944
which, you know, sounds,

573
00:20:50,325 --> 00:20:50,984
you know,

574
00:20:51,444 --> 00:20:52,424
very academic

575
00:20:53,000 --> 00:20:53,740
to me.

576
00:20:54,119 --> 00:20:54,940
Do you,

577
00:20:55,480 --> 00:20:57,480
I mean, do you are are you publishing

578
00:20:57,480 --> 00:20:57,980
papers,

579
00:20:58,920 --> 00:21:02,200
in physics journals on your work at the

580
00:21:02,200 --> 00:21:03,960
moment? Is it is it sort of an

581
00:21:03,960 --> 00:21:04,779
open thing

582
00:21:05,125 --> 00:21:07,224
that you're doing, or is it very much

583
00:21:07,284 --> 00:21:07,784
proprietary?

584
00:21:10,085 --> 00:21:12,025
It's a really interesting question. I,

585
00:21:12,484 --> 00:21:14,804
I I've been fortunate with this fellowship that

586
00:21:14,804 --> 00:21:17,444
I can almost take an academic twist on

587
00:21:17,444 --> 00:21:19,365
on this placement in industry, on this in

588
00:21:19,365 --> 00:21:20,424
this role in industry.

589
00:21:21,039 --> 00:21:25,059
I am not planning to publish any papers

590
00:21:25,200 --> 00:21:25,700
yet.

591
00:21:26,079 --> 00:21:26,579
The

592
00:21:26,880 --> 00:21:30,259
the the technology that I'm working on,

593
00:21:30,559 --> 00:21:32,799
any IP that I have, obvious obviously, I

594
00:21:32,799 --> 00:21:34,579
would want AQAC to

595
00:21:35,039 --> 00:21:36,500
to to have as needed.

596
00:21:37,095 --> 00:21:39,015
But my plan is further on down the

597
00:21:39,015 --> 00:21:39,994
line when I'm,

598
00:21:40,535 --> 00:21:41,755
when I've established

599
00:21:42,134 --> 00:21:42,634
multiple,

600
00:21:43,815 --> 00:21:46,474
when I've made multiple improvements in multiple areas

601
00:21:46,934 --> 00:21:49,095
in vacuum technology to then be able to

602
00:21:49,095 --> 00:21:50,875
to publish the work that I'm doing.

603
00:21:51,740 --> 00:21:54,559
I see. And and that's you at ACORC,

604
00:21:54,619 --> 00:21:55,920
but you you must have

605
00:21:56,220 --> 00:21:58,559
lots of colleagues who are physicists,

606
00:21:59,580 --> 00:22:00,320
and doing

607
00:22:00,700 --> 00:22:01,680
other jobs.

608
00:22:02,059 --> 00:22:02,460
What,

609
00:22:03,884 --> 00:22:06,065
you know, what what are the roles,

610
00:22:06,445 --> 00:22:07,345
at ACORC?

611
00:22:07,964 --> 00:22:09,825
You know, if if if a physicist

612
00:22:10,285 --> 00:22:12,125
were to get a job there, what what

613
00:22:12,125 --> 00:22:13,085
sort of positions

614
00:22:13,724 --> 00:22:15,825
what could they expect to do, let's say?

615
00:22:16,820 --> 00:22:17,320
It

616
00:22:17,740 --> 00:22:20,220
it there's a, yeah, there's a spectrum of

617
00:22:20,220 --> 00:22:22,080
specialties there. We have,

618
00:22:22,940 --> 00:22:26,400
electronic engineering. We have those that that focus

619
00:22:26,460 --> 00:22:26,960
on,

620
00:22:27,740 --> 00:22:28,994
optics. And

621
00:22:30,494 --> 00:22:32,974
we have so many people that have such

622
00:22:32,974 --> 00:22:36,174
a diverse skill set that I'll be honest.

623
00:22:36,174 --> 00:22:37,855
When I think about what everyone is doing

624
00:22:37,855 --> 00:22:38,835
now in the team

625
00:22:39,214 --> 00:22:40,734
and and compare it to what they were

626
00:22:40,734 --> 00:22:43,134
doing maybe six months ago, it's not even

627
00:22:43,134 --> 00:22:44,819
the same the same,

628
00:22:45,619 --> 00:22:47,539
the same skill set being developed or the

629
00:22:47,539 --> 00:22:50,339
same same skill set being contributed to the

630
00:22:50,339 --> 00:22:51,720
current project at hand.

631
00:22:53,299 --> 00:22:53,539
There

632
00:22:54,900 --> 00:22:56,500
I I mean, I I think it can

633
00:22:56,500 --> 00:22:57,640
it can vary wildly.

634
00:22:59,855 --> 00:23:01,954
I see. And and I'm

635
00:23:02,335 --> 00:23:04,414
guessing that I mean, is it not just

636
00:23:04,414 --> 00:23:06,734
technical roles, for example? I mean, if you're

637
00:23:06,734 --> 00:23:07,954
a physicist who,

638
00:23:08,974 --> 00:23:10,914
I don't know, is interested in a

639
00:23:12,200 --> 00:23:13,660
a career in sales

640
00:23:14,039 --> 00:23:14,279
or,

641
00:23:18,200 --> 00:23:19,799
I don't know what what the word is

642
00:23:19,799 --> 00:23:22,039
these days, sort of media relations. Are there

643
00:23:22,839 --> 00:23:24,839
you know, is Acorn a big enough company

644
00:23:24,839 --> 00:23:26,865
that there could be room for for those

645
00:23:26,865 --> 00:23:29,045
sort of people within the organization?

646
00:23:30,065 --> 00:23:31,045
So now,

647
00:23:31,585 --> 00:23:32,565
yes. Definitely.

648
00:23:33,265 --> 00:23:35,984
When I joined the company, we were eight

649
00:23:35,984 --> 00:23:37,825
people, and I think seven of us seven

650
00:23:37,825 --> 00:23:39,365
of us were technical staff.

651
00:23:40,390 --> 00:23:42,869
Now we are a company of, I wanna

652
00:23:42,869 --> 00:23:45,190
say, 21 people, but I might be I

653
00:23:45,190 --> 00:23:47,130
might be a little bit off there. And

654
00:23:47,349 --> 00:23:49,269
I would say a quarter of us are

655
00:23:49,269 --> 00:23:50,009
are nontechnical.

656
00:23:50,950 --> 00:23:52,089
Like you said, the,

657
00:23:53,054 --> 00:23:53,554
marketing,

658
00:23:54,095 --> 00:23:54,595
commercial,

659
00:23:55,134 --> 00:23:57,954
all of these things are are factors that

660
00:23:58,174 --> 00:24:00,194
are are essential in running a company.

661
00:24:00,815 --> 00:24:02,974
But yeah. So definitely, there's like I said,

662
00:24:02,974 --> 00:24:04,595
in quantum, there's all sorts.

663
00:24:05,170 --> 00:24:07,170
Well, that's great. Thanks. Thanks for coming on

664
00:24:07,170 --> 00:24:10,049
the podcast, Florence, and and talking about your

665
00:24:10,049 --> 00:24:13,670
career and, and ACORC as well. Hopefully,

666
00:24:14,049 --> 00:24:14,950
it will inspire,

667
00:24:16,369 --> 00:24:18,769
early career physicists who are listening to the

668
00:24:18,769 --> 00:24:20,230
podcast to look into,

669
00:24:21,035 --> 00:24:22,335
the quantum industry.

670
00:24:22,954 --> 00:24:24,794
Because I mean, it is booming, isn't it?

671
00:24:24,794 --> 00:24:25,855
It's very exciting.

672
00:24:26,234 --> 00:24:27,994
And there seem to be a lot of

673
00:24:27,994 --> 00:24:31,595
really interesting roles that physicists can do. So,

674
00:24:31,595 --> 00:24:33,994
yeah, thanks for coming on. Thank you very

675
00:24:33,994 --> 00:24:35,775
much for having me. It's been great.

676
00:24:44,119 --> 00:24:45,980
That was Florence Concepcion

677
00:24:46,839 --> 00:24:47,660
of ACORC,

678
00:24:48,214 --> 00:24:51,835
who is awarded an innovate future leaders fellowship

679
00:24:52,295 --> 00:24:53,595
from the UK government.

680
00:24:54,615 --> 00:24:55,115
Congratulations,

681
00:24:55,575 --> 00:24:58,954
Florence, and thanks for a fascinating discussion.

682
00:25:00,134 --> 00:25:02,954
This episode is generously supported

683
00:25:03,569 --> 00:25:04,309
by Smaract.

684
00:25:05,250 --> 00:25:08,789
I'm Hamish Johnston, and our producer is Fred

685
00:25:08,849 --> 00:25:09,349
Iles.

686
00:25:10,130 --> 00:25:12,789
The theme music for this podcast is called

687
00:25:12,849 --> 00:25:14,230
one three seven,

688
00:25:14,690 --> 00:25:15,909
and it was composed

689
00:25:16,210 --> 00:25:16,950
and performed

690
00:25:17,335 --> 00:25:18,154
by the physicist

691
00:25:19,015 --> 00:25:19,515
Philip

692
00:25:19,815 --> 00:25:20,315
Moriarty.

693
00:25:22,375 --> 00:25:24,795
This episode was supported by SmartAct,

694
00:25:25,335 --> 00:25:27,355
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695
00:25:27,735 --> 00:25:28,235
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696
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698
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699
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700
00:25:34,039 --> 00:25:35,420
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702
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703
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705
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706
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707
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