Quantum sensors benefit from miniaturized ultrahigh vacuum
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.
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1 00:00:08,160 --> 00:00:11,119 Hello, and welcome to the Physics World weekly 2 00:00:11,119 --> 00:00:11,619 podcast. 3 00:00:11,919 --> 00:00:13,219 I'm Hamish Johnston. 4 00:00:14,105 --> 00:00:16,844 My guest in this episode is Florence 5 00:00:17,304 --> 00:00:17,804 Concepcion, 6 00:00:18,585 --> 00:00:19,564 who is senior 7 00:00:19,864 --> 00:00:21,085 quantum engineer 8 00:00:21,385 --> 00:00:22,684 at Acor Technologies, 9 00:00:23,945 --> 00:00:26,285 a UK based company that is developing 10 00:00:26,904 --> 00:00:29,164 cold matter quantum systems. 11 00:00:30,640 --> 00:00:33,679 That conversation is coming up after this message 12 00:00:33,679 --> 00:00:34,659 from which 13 00:00:35,679 --> 00:00:36,500 has generously 14 00:00:37,039 --> 00:00:38,579 supported this episode. 15 00:00:39,200 --> 00:00:41,380 This episode is brought to you by 16 00:00:42,505 --> 00:00:45,325 enabling breakthroughs in science and technology 17 00:00:45,864 --> 00:00:47,085 through high precision 18 00:00:47,545 --> 00:00:48,045 positioning, 19 00:00:48,424 --> 00:00:48,924 metrology, 20 00:00:49,304 --> 00:00:50,125 and automation. 21 00:00:51,225 --> 00:00:53,324 In fields like quantum sensing, 22 00:00:53,704 --> 00:00:55,564 as we'll hear in today's episode, 23 00:00:56,310 --> 00:01:00,090 performance often depends on motion at the nanometer 24 00:01:00,469 --> 00:01:00,969 scale. 25 00:01:01,910 --> 00:01:02,410 Develops 26 00:01:03,590 --> 00:01:04,090 compact 27 00:01:04,469 --> 00:01:04,969 positioning 28 00:01:05,270 --> 00:01:05,770 solutions 29 00:01:06,390 --> 00:01:08,810 designed for exactly these challenges, 30 00:01:09,670 --> 00:01:11,049 offering high stability, 31 00:01:11,765 --> 00:01:12,265 repeatability, 32 00:01:12,965 --> 00:01:13,784 and reliable 33 00:01:14,084 --> 00:01:14,584 performance, 34 00:01:15,364 --> 00:01:16,584 even in demanding 35 00:01:16,965 --> 00:01:17,465 environments 36 00:01:17,924 --> 00:01:20,825 such as ultra high vacuum or cryogenic 37 00:01:21,204 --> 00:01:21,704 conditions. 38 00:01:22,484 --> 00:01:26,344 To learn more, visit smartact.com. 39 00:01:27,780 --> 00:01:28,760 Florence Concepcion 40 00:01:29,620 --> 00:01:32,439 joined ACORC in 2023 41 00:01:32,900 --> 00:01:36,439 after doing a PhD at Imperial College London 42 00:01:36,740 --> 00:01:39,880 on a topic at the intersection of astrophysics 43 00:01:40,500 --> 00:01:41,799 and atomic physics. 44 00:01:42,185 --> 00:01:44,284 She was awarded an innovate 45 00:01:44,585 --> 00:01:46,125 future leaders fellowship 46 00:01:46,665 --> 00:01:47,885 by the UK government, 47 00:01:48,505 --> 00:01:51,885 which is worth £1,900,000. 48 00:01:52,905 --> 00:01:55,225 We chat about how that money will be 49 00:01:55,225 --> 00:01:58,399 spent on developing new vacuum technologies 50 00:01:59,019 --> 00:01:59,759 at Acquark. 51 00:02:00,859 --> 00:02:03,200 Florence also talks about her decision 52 00:02:03,500 --> 00:02:04,959 to move from academia 53 00:02:05,420 --> 00:02:06,159 to industry 54 00:02:06,939 --> 00:02:08,239 and gives some advice 55 00:02:08,605 --> 00:02:11,585 for those with similar career aims. 56 00:02:12,365 --> 00:02:13,585 Here's our conversation. 57 00:02:22,365 --> 00:02:24,385 Hi, Florence. Welcome to the podcast. 58 00:02:25,060 --> 00:02:27,000 Hi, Hamish. Thank you for having me. 59 00:02:27,939 --> 00:02:30,900 So, Florence, you began your career as an 60 00:02:30,900 --> 00:02:31,400 astrophysicist, 61 00:02:32,419 --> 00:02:33,959 and you've done experimental 62 00:02:34,259 --> 00:02:36,120 work on plasma physics. 63 00:02:36,419 --> 00:02:38,259 And that was before you made the move 64 00:02:38,259 --> 00:02:39,800 to ACORC Technologies. 65 00:02:40,794 --> 00:02:43,215 Why did you move from academia 66 00:02:43,675 --> 00:02:45,935 to the quantum technology sector? 67 00:02:47,675 --> 00:02:49,455 My move into quantum 68 00:02:49,995 --> 00:02:53,294 was almost an accident, really. It wasn't 69 00:02:53,754 --> 00:02:55,694 planned, and I didn't actually 70 00:02:56,080 --> 00:02:57,919 think I had the knowledge to work in 71 00:02:57,919 --> 00:02:58,979 the quantum industry. 72 00:02:59,520 --> 00:03:00,419 My background, 73 00:03:01,520 --> 00:03:03,039 yeah, as you said, I was I was 74 00:03:03,039 --> 00:03:03,780 an astronomer. 75 00:03:04,639 --> 00:03:06,659 After doing a research placement 76 00:03:07,199 --> 00:03:08,419 on x-ray astronomy, 77 00:03:08,794 --> 00:03:10,955 which was all behind a computer sitting at 78 00:03:10,955 --> 00:03:12,715 a desk, I found that I I really 79 00:03:12,715 --> 00:03:14,574 actually wanted to do a bit more experimental 80 00:03:14,715 --> 00:03:15,215 physics. 81 00:03:15,754 --> 00:03:16,414 And so 82 00:03:16,794 --> 00:03:19,534 I found my next position was 83 00:03:20,074 --> 00:03:21,780 measuring the emission spectrum 84 00:03:22,500 --> 00:03:25,400 of doubly ionized metals and using that data 85 00:03:25,699 --> 00:03:26,439 to determine 86 00:03:26,900 --> 00:03:28,360 the atomic structure 87 00:03:28,819 --> 00:03:29,219 of, 88 00:03:29,620 --> 00:03:31,240 in my case, it was for iron, 89 00:03:31,780 --> 00:03:33,539 which was which was great. I had a 90 00:03:33,539 --> 00:03:34,395 little bit of 91 00:03:34,794 --> 00:03:37,855 lab experience, a little bit of computational analysis. 92 00:03:38,395 --> 00:03:40,555 I got to compare to theory. It was 93 00:03:40,555 --> 00:03:43,375 a a very nice confined project. But 94 00:03:43,754 --> 00:03:46,335 importantly for me at the time, the applications 95 00:03:46,770 --> 00:03:48,849 of the data I was producing was for 96 00:03:48,849 --> 00:03:50,610 astronomers. And so that linked me back to 97 00:03:50,610 --> 00:03:51,909 my first love of astronomy. 98 00:03:52,930 --> 00:03:55,669 But I actually had to leave that position, 99 00:03:56,050 --> 00:03:57,730 for I had to move from London. I 100 00:03:57,730 --> 00:03:59,409 was I was doing that work at Imperial 101 00:03:59,409 --> 00:04:01,495 College. Had to move from London down to 102 00:04:01,495 --> 00:04:01,995 Southampton 103 00:04:02,534 --> 00:04:03,034 for, 104 00:04:03,574 --> 00:04:05,175 for family reasons, for, 105 00:04:05,655 --> 00:04:07,895 to to care for someone full time. And 106 00:04:07,895 --> 00:04:10,534 so as part of doing that, I I 107 00:04:10,534 --> 00:04:11,514 did look around 108 00:04:12,055 --> 00:04:14,610 whether I could continue in academia here. I 109 00:04:14,610 --> 00:04:16,930 looked at the universities close to where I'm 110 00:04:16,930 --> 00:04:17,430 based. 111 00:04:17,970 --> 00:04:19,889 But I the the field that I was 112 00:04:19,889 --> 00:04:21,490 working in was quite narrow, and so I 113 00:04:21,490 --> 00:04:23,169 would have to make quite a big change 114 00:04:23,169 --> 00:04:25,089 in my scientific expertise. And, 115 00:04:26,464 --> 00:04:27,745 it's not that I wasn't up for that, 116 00:04:27,745 --> 00:04:29,105 but it was a big task. And there 117 00:04:29,105 --> 00:04:31,025 were other things at hand to to focus 118 00:04:31,025 --> 00:04:31,425 on. But, 119 00:04:32,145 --> 00:04:34,165 one of my now colleagues reached out, 120 00:04:34,625 --> 00:04:35,105 and, 121 00:04:35,824 --> 00:04:37,745 he said he let me know there's this 122 00:04:37,745 --> 00:04:40,485 there's this startup called Acart Technologies, and, 123 00:04:40,930 --> 00:04:42,689 they're they're looking to hire. You should reach 124 00:04:42,689 --> 00:04:45,009 out. And, again, I read I read it. 125 00:04:45,009 --> 00:04:46,449 I thought, oh, it's a it's a quantum 126 00:04:46,449 --> 00:04:48,050 company. I'm not gonna have anything to be 127 00:04:48,050 --> 00:04:48,949 able to offer here. 128 00:04:49,329 --> 00:04:51,970 I I was I was a little discouraged, 129 00:04:51,970 --> 00:04:53,410 I think, actually, and and I sort of 130 00:04:53,410 --> 00:04:55,089 responded, like, oh, don't be silly. I can't 131 00:04:55,089 --> 00:04:57,045 I can't apply for that. But no. He 132 00:04:57,045 --> 00:04:59,605 encouraged me again, and I I spoke to, 133 00:04:59,845 --> 00:05:01,685 I met up with Alex and Andre, the 134 00:05:01,685 --> 00:05:02,345 the cofounders, 135 00:05:02,645 --> 00:05:03,145 and, 136 00:05:03,525 --> 00:05:06,324 had a tour and soon realized that, yeah, 137 00:05:06,324 --> 00:05:08,485 the skills that they need are not people 138 00:05:08,485 --> 00:05:10,264 who are experts in quantum, 139 00:05:10,660 --> 00:05:12,660 but people who have a variety of skills. 140 00:05:12,660 --> 00:05:14,660 And in my case, I had these lab 141 00:05:14,660 --> 00:05:15,480 skills from, 142 00:05:16,019 --> 00:05:18,420 in in plasma physics and in the study 143 00:05:18,579 --> 00:05:20,759 in in, working on vacuum systems. 144 00:05:21,860 --> 00:05:23,625 And that, yeah, that that 145 00:05:24,584 --> 00:05:26,904 it was sort of this bizarre sort of 146 00:05:26,904 --> 00:05:28,605 puzzle piece that fit really well. 147 00:05:29,305 --> 00:05:31,644 So that was my move into into quantum. 148 00:05:31,704 --> 00:05:32,845 It wasn't planned, 149 00:05:33,225 --> 00:05:33,464 but, 150 00:05:34,105 --> 00:05:36,425 there there's a huge variety of skill sets 151 00:05:36,425 --> 00:05:37,725 needed for quantum technology. 152 00:05:38,189 --> 00:05:39,870 So I'm very I'm thrilled that, 153 00:05:40,590 --> 00:05:42,350 my my colleague reached out. And I'm thrilled 154 00:05:42,350 --> 00:05:43,949 that I I took the little leap as 155 00:05:43,949 --> 00:05:45,949 well, and and I did go have the 156 00:05:45,949 --> 00:05:47,490 tour and I did have the interview, 157 00:05:48,110 --> 00:05:50,270 thinking that I I wasn't sure what I 158 00:05:50,270 --> 00:05:52,165 was gonna be able to contribute. But, I 159 00:05:52,165 --> 00:05:53,685 I also think part of it was just 160 00:05:53,685 --> 00:05:56,024 attitude. I was very I was very, 161 00:05:57,605 --> 00:05:58,425 what's the word, 162 00:05:58,805 --> 00:06:00,425 excited to be able to just contribute, 163 00:06:00,805 --> 00:06:03,045 what I could. And, yeah, that's brought me 164 00:06:03,045 --> 00:06:05,045 here. Very exciting. I'm very glad I did 165 00:06:05,045 --> 00:06:05,545 it. 166 00:06:06,349 --> 00:06:08,829 So, yeah, you you've hinted a bit at 167 00:06:08,829 --> 00:06:10,610 at some of the, I suppose, 168 00:06:10,910 --> 00:06:11,410 instrumentation 169 00:06:11,789 --> 00:06:15,490 that that you're that you use at Acorn. 170 00:06:15,550 --> 00:06:17,949 Can you give us a a a an 171 00:06:17,949 --> 00:06:19,250 idea of the technologies 172 00:06:19,574 --> 00:06:22,375 that the company is developing and your role 173 00:06:22,375 --> 00:06:23,355 in that development? 174 00:06:24,775 --> 00:06:26,955 Yeah. Of course. So AQARC Technologies, 175 00:06:27,735 --> 00:06:28,235 is 176 00:06:28,935 --> 00:06:30,875 its aim is to take 177 00:06:31,254 --> 00:06:32,715 quant quantum technology 178 00:06:33,415 --> 00:06:35,254 out of the lab and into the real 179 00:06:35,254 --> 00:06:35,550 world. 180 00:06:36,110 --> 00:06:36,509 It's, 181 00:06:36,990 --> 00:06:39,789 the our main focus is is deployment of 182 00:06:39,789 --> 00:06:42,430 this quantum technology. For that to happen, there 183 00:06:42,430 --> 00:06:43,490 are lots of challenges, 184 00:06:44,110 --> 00:06:45,409 which we need to tackle. 185 00:06:46,110 --> 00:06:47,169 Size, weight, 186 00:06:47,629 --> 00:06:49,169 power consumption, cost, 187 00:06:49,470 --> 00:06:51,149 robustness, these are all things that need to 188 00:06:51,149 --> 00:06:53,925 be worked on. A very key component of 189 00:06:53,925 --> 00:06:54,985 these quantum technologies 190 00:06:55,444 --> 00:06:57,704 is the vacuum chamber in which 191 00:06:58,485 --> 00:06:59,704 atoms are trapped 192 00:07:00,245 --> 00:07:02,185 and probed and used for measuring. 193 00:07:02,884 --> 00:07:04,584 This vacuum chamber is essential. 194 00:07:05,339 --> 00:07:07,519 Without a ultra high vacuum, 195 00:07:08,060 --> 00:07:10,300 the atoms that we are using to take 196 00:07:10,300 --> 00:07:11,039 these measurements, 197 00:07:11,419 --> 00:07:13,199 will be bombarded and, 198 00:07:14,300 --> 00:07:15,979 and and measurements that we get will be 199 00:07:15,979 --> 00:07:16,479 imprecise. 200 00:07:16,860 --> 00:07:19,345 And so part of my job is to 201 00:07:19,345 --> 00:07:21,745 create these ultra high vacuum chambers, these chambers 202 00:07:21,745 --> 00:07:22,404 with essentially 203 00:07:23,504 --> 00:07:24,324 one molecule 204 00:07:24,625 --> 00:07:25,125 per, 205 00:07:25,584 --> 00:07:28,384 I don't know, centimeter cubed as it were, 206 00:07:28,384 --> 00:07:29,285 less than that. 207 00:07:31,435 --> 00:07:31,740 And 208 00:07:32,379 --> 00:07:34,459 beyond that now is to be able to 209 00:07:34,459 --> 00:07:36,860 miniaturize them and make them more robust. That 210 00:07:36,860 --> 00:07:38,939 is the aim of of what I do 211 00:07:38,939 --> 00:07:39,919 at Acro Technologies. 212 00:07:41,419 --> 00:07:47,164 And and Florence, you've been awarded a £1,900,000 213 00:07:47,305 --> 00:07:47,805 innovate 214 00:07:48,185 --> 00:07:48,685 UK 215 00:07:49,144 --> 00:07:50,845 future leaders fellowship 216 00:07:51,625 --> 00:07:54,685 from the the government of the United Kingdom. 217 00:07:55,064 --> 00:07:56,824 And you're going to use that, 218 00:07:57,144 --> 00:07:59,305 of money over the next four four years 219 00:07:59,305 --> 00:08:01,004 to develop new technologies 220 00:08:02,000 --> 00:08:02,660 at ACORC. 221 00:08:03,600 --> 00:08:04,879 Can can you give us a a bit 222 00:08:04,879 --> 00:08:05,699 of a background 223 00:08:06,000 --> 00:08:08,339 into that fellowship? What's the purpose 224 00:08:08,720 --> 00:08:09,539 of the fellowship? 225 00:08:09,839 --> 00:08:10,160 And, 226 00:08:10,879 --> 00:08:11,699 what technologies 227 00:08:12,079 --> 00:08:13,220 are you developing? 228 00:08:15,055 --> 00:08:15,555 So 229 00:08:16,254 --> 00:08:17,634 the aim is 230 00:08:18,334 --> 00:08:20,194 the engineering, the miniaturization, 231 00:08:20,735 --> 00:08:21,634 and the scalability 232 00:08:22,175 --> 00:08:25,055 of ultra high vacuum chambers for quantum technology 233 00:08:25,055 --> 00:08:25,555 purposes. 234 00:08:25,980 --> 00:08:27,740 So I said the as as I said, 235 00:08:27,740 --> 00:08:30,160 the vacuum chamber is a limiting factor 236 00:08:30,620 --> 00:08:33,279 in, currently in some of our quantum systems. 237 00:08:33,899 --> 00:08:34,620 It has, 238 00:08:35,100 --> 00:08:37,580 usually, it's made of something out of stainless 239 00:08:37,580 --> 00:08:39,759 steel and glass or titanium, 240 00:08:40,375 --> 00:08:41,675 but relatively heavy, 241 00:08:42,455 --> 00:08:42,955 metals. 242 00:08:43,815 --> 00:08:46,375 These this can be made lighter. This could 243 00:08:46,375 --> 00:08:47,355 be made smaller. 244 00:08:48,215 --> 00:08:49,434 And we're currently 245 00:08:49,815 --> 00:08:50,315 using 246 00:08:50,695 --> 00:08:52,075 iron pumps, which are 247 00:08:53,190 --> 00:08:55,110 power hungry is not the word, but we 248 00:08:55,190 --> 00:08:57,669 we're currently using ion pumps, which have a 249 00:08:57,669 --> 00:08:58,490 power consumption 250 00:08:58,870 --> 00:09:00,389 and must be on at all times in 251 00:09:00,389 --> 00:09:02,409 order to ensure that ultra high vacuum 252 00:09:02,789 --> 00:09:05,190 remains throughout the lifetime of that of that 253 00:09:05,190 --> 00:09:07,625 item, of that sensor, of that system. 254 00:09:08,404 --> 00:09:08,904 By 255 00:09:09,365 --> 00:09:12,004 creating a passive vacuum, we will not need 256 00:09:12,004 --> 00:09:14,644 to have the ion pump constantly pumping for 257 00:09:14,644 --> 00:09:17,225 the lifetime of that sensor. We can have 258 00:09:17,285 --> 00:09:19,379 a system which is essentially switched on and 259 00:09:19,379 --> 00:09:20,519 switched off as needed, 260 00:09:21,220 --> 00:09:23,159 rather than have it constantly running. 261 00:09:23,940 --> 00:09:24,440 Another 262 00:09:25,059 --> 00:09:27,399 con of the ion pump is a magnetic 263 00:09:27,539 --> 00:09:29,879 field. If we want to use the quantum 264 00:09:30,500 --> 00:09:32,659 sensor to measure magnetic fields, the ion pump 265 00:09:32,659 --> 00:09:34,154 gets in the way of that because we're 266 00:09:34,154 --> 00:09:35,855 producing our own magnetic field. 267 00:09:36,475 --> 00:09:37,214 All these 268 00:09:37,674 --> 00:09:38,394 small little, 269 00:09:40,554 --> 00:09:43,195 small factors compound and add a layers of 270 00:09:43,195 --> 00:09:45,995 complexity to these quantum sensors which which are 271 00:09:45,995 --> 00:09:48,339 not needed. And so the aim of my 272 00:09:48,339 --> 00:09:49,480 fellowship is to 273 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 your partner for high precision 695 00:25:27,735 --> 00:25:28,235 positioning, 696 00:25:28,615 --> 00:25:29,115 metrology, 697 00:25:29,575 --> 00:25:30,634 and automation 698 00:25:31,015 --> 00:25:31,515 solutions. 699 00:25:32,440 --> 00:25:33,740 From quantum technologies 700 00:25:34,039 --> 00:25:35,420 to advanced metrology, 701 00:25:36,119 --> 00:25:36,619 SmartRack's 702 00:25:37,080 --> 00:25:41,980 compact systems enable precise, stable, and repeatable motion 703 00:25:42,200 --> 00:25:43,019 in complex 704 00:25:43,320 --> 00:25:43,820 applications, 705 00:25:44,865 --> 00:25:46,964 helping researchers and engineers 706 00:25:47,265 --> 00:25:48,884 achieve reliable results. 707 00:25:49,744 --> 00:25:53,365 Discover more at smartact.com.