Oak Ridge’s Quantum Science Center takes a multidisciplinary approach to developing quantum materials and technologies
This episode of the Physics World Weekly podcast features Travis Humble, who is director of the Quantum Science Center at Oak Ridge National Laboratory.
Located in the US state of Tennessee, Oak Ridge is run by the US Department of Energy (DOE). The Quantum Science Center links Oak Ridge with other US national labs, universities and companies.
Humble explains how these collaborations ensure that Oak Ridge’s powerful facilities and instruments are used to create new quantum technologies. He also explains how the lab’s expertise in quantum and conventional computing is benefiting the academic and industrial communities.
This podcast is supported by American Elements, the world’s leading manufacturer of engineered and advanced materials. The company’s ability to scale laboratory breakthroughs to industrial production has contributed to many of the most significant technological advancements since 1990 – including LED lighting, smartphones, and electric vehicles.
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1 00:00:08,000 --> 00:00:11,139 Hello, and welcome to the Physics World weekly 2 00:00:11,199 --> 00:00:13,139 podcast. I'm Hamish Johnston. 3 00:00:13,544 --> 00:00:16,664 In this episode, I'm in conversation with Travis 4 00:00:16,664 --> 00:00:20,184 Humble, who is director of the Quantum Science 5 00:00:20,184 --> 00:00:20,684 Center 6 00:00:20,984 --> 00:00:23,324 at Oak Ridge National Laboratory. 7 00:00:31,349 --> 00:00:33,850 This podcast is brought to you by American 8 00:00:33,989 --> 00:00:34,489 Elements, 9 00:00:34,869 --> 00:00:36,809 the world's leading manufacturer 10 00:00:37,189 --> 00:00:38,009 of engineered 11 00:00:38,390 --> 00:00:39,850 and advanced materials. 12 00:00:40,594 --> 00:00:43,575 With a catalog of over 35,000 13 00:00:43,875 --> 00:00:47,975 products available in both industrial bulk and laboratory 14 00:00:48,354 --> 00:00:48,854 quantities, 15 00:00:49,554 --> 00:00:51,574 American Elements is the largest 16 00:00:51,875 --> 00:00:53,414 supplier of its kind. 17 00:00:54,109 --> 00:00:56,829 For more than twenty five years, its research 18 00:00:56,829 --> 00:00:58,370 and development programs 19 00:00:58,750 --> 00:01:02,190 have been a vital resource for innovation across 20 00:01:02,190 --> 00:01:02,690 corporate, 21 00:01:03,070 --> 00:01:05,170 government, and academic sectors. 22 00:01:05,974 --> 00:01:08,795 The company's ability to scale laboratory 23 00:01:09,174 --> 00:01:09,674 breakthroughs 24 00:01:10,134 --> 00:01:11,674 to industrial production 25 00:01:12,054 --> 00:01:15,034 has contributed to many of the most significant 26 00:01:15,575 --> 00:01:16,075 technological 27 00:01:16,774 --> 00:01:17,274 advancements 28 00:01:17,734 --> 00:01:19,194 since 1990, 29 00:01:19,734 --> 00:01:21,594 including LED lighting, 30 00:01:22,069 --> 00:01:22,569 smartphones, 31 00:01:22,950 --> 00:01:24,250 and electric vehicles. 32 00:01:24,870 --> 00:01:26,489 To learn more, visit 33 00:01:26,870 --> 00:01:31,609 www.americanelements.com. 34 00:01:31,989 --> 00:01:33,209 American Elements. 35 00:01:33,670 --> 00:01:34,810 Now invent. 36 00:01:42,734 --> 00:01:45,075 Located in The US state of Tennessee, 37 00:01:45,614 --> 00:01:48,334 Oak Ridge National Lab is run by the 38 00:01:48,334 --> 00:01:50,114 US Department of Energy, 39 00:01:50,640 --> 00:01:51,380 the DOE. 40 00:01:52,319 --> 00:01:56,000 The Quantum Science Center links Oak Ridge with 41 00:01:56,000 --> 00:01:58,099 other US National Labs, 42 00:01:58,560 --> 00:01:59,060 universities, 43 00:01:59,439 --> 00:02:00,260 and companies. 44 00:02:01,040 --> 00:02:01,939 In this podcast, 45 00:02:02,400 --> 00:02:05,325 Travis Humble explains how these collaborations 46 00:02:06,024 --> 00:02:09,164 ensure that Oak Ridge's powerful facilities 47 00:02:09,465 --> 00:02:10,284 and instruments 48 00:02:10,745 --> 00:02:13,805 are used to create new quantum technologies. 49 00:02:14,584 --> 00:02:17,324 He also explains how the lab's expertise 50 00:02:17,705 --> 00:02:18,444 in quantum 51 00:02:18,870 --> 00:02:20,330 and conventional computing 52 00:02:20,870 --> 00:02:21,689 is benefiting 53 00:02:22,069 --> 00:02:22,889 the academic 54 00:02:23,270 --> 00:02:24,250 and industrial 55 00:02:24,629 --> 00:02:25,129 communities. 56 00:02:33,764 --> 00:02:35,784 Hi, Travis. Welcome to the podcast. 57 00:02:37,044 --> 00:02:38,905 Hi, Hamish. Thanks for having me. 58 00:02:40,084 --> 00:02:40,905 So, Travis, 59 00:02:41,284 --> 00:02:44,324 Oak Ridge is home to several facilities for 60 00:02:44,324 --> 00:02:44,824 material 61 00:02:45,125 --> 00:02:45,625 characterization, 62 00:02:46,620 --> 00:02:48,960 including the spallation neutron source. 63 00:02:50,219 --> 00:02:53,340 How is, Oak Ridge National Lab using these 64 00:02:53,340 --> 00:02:53,840 facilities 65 00:02:54,300 --> 00:02:55,919 to develop new materials 66 00:02:56,300 --> 00:02:57,520 for quantum technologies? 67 00:02:58,604 --> 00:03:02,305 Oak Ridge National Laboratory has many unique facilities, 68 00:03:02,604 --> 00:03:05,164 including the spallation neutron source, which is actually 69 00:03:05,164 --> 00:03:07,424 one of the Department of Energy's user facilities. 70 00:03:08,125 --> 00:03:10,444 This is one of the brightest sources of 71 00:03:10,444 --> 00:03:12,759 neutrons in the world and, of course, an 72 00:03:12,759 --> 00:03:15,419 incredibly powerful capability for characterizing 73 00:03:15,800 --> 00:03:16,780 novel materials. 74 00:03:17,719 --> 00:03:18,219 Within 75 00:03:18,680 --> 00:03:21,099 Oak Ridge and part of our quantum, 76 00:03:21,719 --> 00:03:24,840 science and technology efforts, we're actually looking at 77 00:03:24,840 --> 00:03:27,259 some remarkable examples of materials 78 00:03:27,985 --> 00:03:30,165 that can have what we call topological 79 00:03:30,465 --> 00:03:32,325 order or entanglement in them. 80 00:03:32,865 --> 00:03:35,685 These materials are electronic or magnetic. 81 00:03:36,224 --> 00:03:38,724 And what makes them so interesting is that 82 00:03:39,025 --> 00:03:40,165 under the right conditions, 83 00:03:40,599 --> 00:03:43,260 they can actually have these unique phases 84 00:03:44,040 --> 00:03:46,439 where the electrons or the spins that are 85 00:03:46,439 --> 00:03:46,939 involved 86 00:03:47,319 --> 00:03:49,879 can actually be entangled in a quantum mechanical 87 00:03:49,879 --> 00:03:50,379 way. 88 00:03:50,680 --> 00:03:53,080 And by using the spallation neutron source and 89 00:03:53,080 --> 00:03:54,840 some of the neutron beams that we have 90 00:03:54,840 --> 00:03:57,444 there, we can actually probe these materials, 91 00:03:57,985 --> 00:04:00,645 recover the neutrons that scatter off of them, 92 00:04:00,784 --> 00:04:02,085 and from those signals, 93 00:04:02,625 --> 00:04:04,564 infer whether or not the materials 94 00:04:04,865 --> 00:04:05,685 are entangled. 95 00:04:06,465 --> 00:04:08,865 So this is a remarkable capability. It is 96 00:04:08,865 --> 00:04:10,860 something unique about Oak Ridge and 97 00:04:12,460 --> 00:04:14,379 Department of Energy's user facilities that allow us 98 00:04:14,379 --> 00:04:17,740 to explore an entirely new regime of of 99 00:04:17,740 --> 00:04:21,100 of materials, these types of, strongly correlated quantum 100 00:04:21,100 --> 00:04:23,339 materials that we think to be very useful 101 00:04:23,339 --> 00:04:25,279 for developing new quantum technologies. 102 00:04:27,185 --> 00:04:30,245 I see. And I suppose the spallation neutron 103 00:04:30,305 --> 00:04:32,004 sort that source, that's your, 104 00:04:32,544 --> 00:04:34,245 as well I suppose big ticket 105 00:04:34,625 --> 00:04:36,865 facility or one of the sort of big 106 00:04:36,865 --> 00:04:37,764 ticket facilities 107 00:04:38,144 --> 00:04:39,664 that you have at Oak Ridge. But you 108 00:04:39,664 --> 00:04:40,884 you must have other 109 00:04:41,350 --> 00:04:41,850 materials, 110 00:04:42,629 --> 00:04:43,129 characterization 111 00:04:43,830 --> 00:04:47,430 capabilities that you use along with the, with 112 00:04:47,430 --> 00:04:49,110 the neutron source. Can you can you talk 113 00:04:49,110 --> 00:04:50,870 a bit about those and how they might 114 00:04:50,870 --> 00:04:51,529 be used 115 00:04:51,910 --> 00:04:52,310 in, 116 00:04:52,870 --> 00:04:54,009 materials characterization 117 00:04:54,389 --> 00:04:55,850 for quantum technologies? 118 00:04:58,365 --> 00:05:02,044 The SNS or Spallies Neutron Source is certainly 119 00:05:02,044 --> 00:05:04,365 one of our biggest and boldest, 120 00:05:04,685 --> 00:05:07,324 instruments that we have for characterizing these these 121 00:05:07,324 --> 00:05:08,305 types of systems, 122 00:05:08,685 --> 00:05:10,284 but in no way is it the only 123 00:05:10,284 --> 00:05:10,769 one. 124 00:05:11,089 --> 00:05:13,089 We are also home to the Center for 125 00:05:13,089 --> 00:05:15,729 Nanophase Material Science. This is one of the 126 00:05:15,729 --> 00:05:16,789 Department of Energy's 127 00:05:17,169 --> 00:05:18,789 Nanoscience Research Centers. 128 00:05:19,089 --> 00:05:20,629 It is a remarkable facility 129 00:05:21,089 --> 00:05:21,909 co located, 130 00:05:22,209 --> 00:05:24,069 with the spallation neutron source 131 00:05:24,694 --> 00:05:27,735 to enable us to characterize new materials. In 132 00:05:27,735 --> 00:05:30,154 fact, it actually enables the synthesis, 133 00:05:30,854 --> 00:05:32,394 the creation of these materials, 134 00:05:32,935 --> 00:05:33,675 the characterization, 135 00:05:34,214 --> 00:05:35,194 and then ultimately 136 00:05:35,735 --> 00:05:38,454 demonstrating control over them. So I'll give you 137 00:05:38,454 --> 00:05:39,754 one particular example. 138 00:05:40,169 --> 00:05:42,329 We are very interested in a type of 139 00:05:42,329 --> 00:05:44,910 material that is known as a spin liquid. 140 00:05:45,209 --> 00:05:47,389 It's a spin system, magnetic system, 141 00:05:47,930 --> 00:05:51,550 where the spins within the material can actually 142 00:05:51,689 --> 00:05:53,389 become entangled with each other, 143 00:05:53,975 --> 00:05:57,415 demonstrate correlations over very large distances. And this 144 00:05:57,415 --> 00:06:00,154 is large relative to individual atoms, mind you. 145 00:06:00,774 --> 00:06:03,095 And using the neutron source, we've actually been 146 00:06:03,095 --> 00:06:04,314 able to detect 147 00:06:04,694 --> 00:06:05,435 a signature 148 00:06:05,899 --> 00:06:08,300 that there is, in fact, entanglement present in 149 00:06:08,300 --> 00:06:11,580 these materials. This is ruthenium trichloride is one 150 00:06:11,580 --> 00:06:14,080 particular example of this type of quantum magnet, 151 00:06:14,139 --> 00:06:15,360 but there are several others. 152 00:06:16,060 --> 00:06:18,319 And because we have the capabilities 153 00:06:18,860 --> 00:06:21,615 of the the CNMS, the Center for Nanophase 154 00:06:21,675 --> 00:06:22,574 Material Science, 155 00:06:22,955 --> 00:06:25,355 we're now taking those materials that have been 156 00:06:25,355 --> 00:06:27,775 certified as quantum or entangled 157 00:06:28,235 --> 00:06:31,355 and translating them into a process where we 158 00:06:31,355 --> 00:06:33,455 start to design new types of devices. 159 00:06:34,129 --> 00:06:36,449 This gets into the fabrication of the material 160 00:06:36,449 --> 00:06:37,750 into unique geometries, 161 00:06:38,370 --> 00:06:40,930 the connection to electrodes and other types of 162 00:06:40,930 --> 00:06:41,829 control systems 163 00:06:42,370 --> 00:06:44,069 that then provide a path 164 00:06:44,370 --> 00:06:46,930 to demonstrating novel physics and other types of 165 00:06:46,930 --> 00:06:47,829 unique behaviors. 166 00:06:48,845 --> 00:06:50,605 Hamish, just to kind of, get to the 167 00:06:50,605 --> 00:06:52,685 punch line on this, what we really think 168 00:06:52,685 --> 00:06:54,845 is possible is that these types of quantum 169 00:06:54,845 --> 00:06:55,585 spin liquids 170 00:06:55,965 --> 00:06:58,705 can be translated into a new qubit technology 171 00:06:59,165 --> 00:07:01,345 that can store and process quantum information. 172 00:07:01,805 --> 00:07:04,259 We haven't demonstrated that yet, but the tools 173 00:07:04,259 --> 00:07:06,339 and capabilities that we have here at Oak 174 00:07:06,339 --> 00:07:08,360 Ridge are incredibly empowering, 175 00:07:08,980 --> 00:07:10,839 for that type of technology development. 176 00:07:11,860 --> 00:07:14,899 I see. And I'm guessing that it's very 177 00:07:14,899 --> 00:07:17,720 important to have all of these things together 178 00:07:18,339 --> 00:07:19,399 in one place 179 00:07:19,915 --> 00:07:22,095 and have some very skilled people 180 00:07:22,555 --> 00:07:23,035 who, 181 00:07:23,595 --> 00:07:25,435 know how to make the, 182 00:07:25,834 --> 00:07:28,475 devices that you're testing and also know how 183 00:07:28,475 --> 00:07:31,435 to use the sort of plethora of of 184 00:07:31,435 --> 00:07:32,574 analysis equipment 185 00:07:32,920 --> 00:07:34,759 that you have. Can can can you talk 186 00:07:34,759 --> 00:07:35,480 a bit about, 187 00:07:36,120 --> 00:07:37,020 about the people, 188 00:07:37,720 --> 00:07:40,220 at Oak Ridge who are involved in this? 189 00:07:40,360 --> 00:07:43,819 I'm guessing you've got physicists, chemists, material scientists, 190 00:07:44,279 --> 00:07:46,139 engineers all working together? 191 00:07:47,324 --> 00:07:49,024 It is absolutely a multidisciplinary 192 00:07:49,644 --> 00:07:50,944 environment. And 193 00:07:51,324 --> 00:07:52,464 I would say that 194 00:07:52,845 --> 00:07:53,985 the facilities, 195 00:07:54,444 --> 00:07:57,245 the the ecosystem that we've created within the 196 00:07:57,245 --> 00:07:57,745 laboratory 197 00:07:58,524 --> 00:07:59,024 actually 198 00:07:59,644 --> 00:08:03,169 supports this type of interchange and collaboration across 199 00:08:03,169 --> 00:08:03,669 disciplines. 200 00:08:04,209 --> 00:08:06,069 Just like you suggested, the 201 00:08:06,689 --> 00:08:09,569 the instruments that we have enable these new 202 00:08:09,569 --> 00:08:12,789 types of discoveries, these development of scientific ideas, 203 00:08:12,849 --> 00:08:14,470 the translation into technologies. 204 00:08:15,475 --> 00:08:18,115 But that's a multistep process. And you can 205 00:08:18,115 --> 00:08:20,035 only succeed when you have a team of 206 00:08:20,035 --> 00:08:22,115 people working together on these kind of large 207 00:08:22,115 --> 00:08:22,935 scale problems. 208 00:08:23,395 --> 00:08:25,415 And that team is always multidisciplinary. 209 00:08:26,514 --> 00:08:28,699 I will say that in my experience, 210 00:08:29,319 --> 00:08:32,379 the ability for the team to communicate efficiently, 211 00:08:32,600 --> 00:08:34,139 to understand each other's 212 00:08:34,759 --> 00:08:37,320 concepts and reasoning, and to translate back and 213 00:08:37,320 --> 00:08:39,899 forth across these disciplinary boundaries 214 00:08:40,595 --> 00:08:43,235 is probably one of the central and most 215 00:08:43,235 --> 00:08:46,534 important parts of, this type of scientific development. 216 00:08:47,475 --> 00:08:49,875 Certainly, when you have a common facility, a 217 00:08:49,875 --> 00:08:50,694 common infrastructure 218 00:08:51,394 --> 00:08:52,454 that can be facilitated 219 00:08:52,834 --> 00:08:54,454 by these types of, coordination, 220 00:08:55,330 --> 00:08:57,809 then you can get much more powerful science 221 00:08:57,809 --> 00:08:59,029 that comes out of it. 222 00:08:59,409 --> 00:09:00,769 Just to give you an example of what 223 00:09:00,769 --> 00:09:02,309 I'm what I'm thinking about here, 224 00:09:02,850 --> 00:09:04,389 when we talk about qubits 225 00:09:04,769 --> 00:09:07,589 in, quantum science and technology space, 226 00:09:08,235 --> 00:09:10,315 the truth is everybody has a slightly different 227 00:09:10,315 --> 00:09:13,294 definition of that word. For my computer scientist 228 00:09:13,355 --> 00:09:16,014 friends, this is sort of a logical representation 229 00:09:16,154 --> 00:09:19,595 of information that we manipulate through algorithms and 230 00:09:19,595 --> 00:09:21,774 programs and other types of, methods. 231 00:09:22,315 --> 00:09:23,455 While for my material 232 00:09:23,820 --> 00:09:25,899 scientist friends, this is almost always a two 233 00:09:25,899 --> 00:09:29,360 level system embedded in some electronic or magnetic 234 00:09:29,420 --> 00:09:32,379 degree of freedom and often independent of the 235 00:09:32,379 --> 00:09:32,879 logical, 236 00:09:33,340 --> 00:09:35,820 and and computational connections that are gonna be 237 00:09:35,820 --> 00:09:36,799 necessary there. 238 00:09:37,179 --> 00:09:40,235 So bridging that, is definitely a multidisciplinary, 239 00:09:41,414 --> 00:09:41,914 activity. 240 00:09:42,454 --> 00:09:43,834 And these types of facilities 241 00:09:44,534 --> 00:09:47,894 bring all those people together and really amplify 242 00:09:47,894 --> 00:09:50,054 the types of science and and development that 243 00:09:50,054 --> 00:09:50,639 can occur. 244 00:09:51,600 --> 00:09:53,519 I see. And and can you talk a 245 00:09:53,519 --> 00:09:56,820 bit about, who you collaborate with outside 246 00:09:57,679 --> 00:10:00,500 of, Oak Ridge? I'm I'm guessing that you 247 00:10:00,799 --> 00:10:02,960 you you you you're involved in lots of 248 00:10:02,960 --> 00:10:06,425 projects with, with scientists from universities around The 249 00:10:06,425 --> 00:10:07,404 US, probably 250 00:10:07,865 --> 00:10:08,845 around the world, 251 00:10:10,024 --> 00:10:11,085 I would imagine. 252 00:10:11,865 --> 00:10:13,705 Is that a I'm guessing that's a big 253 00:10:13,705 --> 00:10:15,404 part of what you do, collaboration, 254 00:10:16,024 --> 00:10:16,524 enabling 255 00:10:17,940 --> 00:10:20,179 university scientists, for example, to, 256 00:10:20,820 --> 00:10:21,639 to do experiments. 257 00:10:23,299 --> 00:10:24,440 The national laboratories 258 00:10:24,899 --> 00:10:27,059 play an important role, I think, in the 259 00:10:27,059 --> 00:10:29,860 ecosystem for research and development within The United 260 00:10:29,860 --> 00:10:30,360 States. 261 00:10:30,855 --> 00:10:31,674 And partnerships 262 00:10:32,054 --> 00:10:34,634 are a critical piece of that activity. 263 00:10:35,254 --> 00:10:37,514 Some of these are partnerships with universities, 264 00:10:38,214 --> 00:10:38,714 especially, 265 00:10:39,254 --> 00:10:39,754 individual 266 00:10:40,214 --> 00:10:43,495 investigators who are looking to get access to 267 00:10:43,495 --> 00:10:46,394 these, types of instruments that we're talking about. 268 00:10:46,789 --> 00:10:49,110 Of course, as user facilities for the Department 269 00:10:49,110 --> 00:10:52,250 of Energy, there are actually programs in place 270 00:10:52,309 --> 00:10:55,129 to go and apply to, use an instrument 271 00:10:55,750 --> 00:10:58,069 or spend time with scientists who are working 272 00:10:58,069 --> 00:11:00,250 there to develop an idea and ultimately 273 00:11:00,684 --> 00:11:03,165 publish on the results from it. But in 274 00:11:03,165 --> 00:11:05,085 addition, a lot of the work that we 275 00:11:05,085 --> 00:11:07,884 do within these facilities and within the national 276 00:11:07,884 --> 00:11:08,384 laboratories 277 00:11:09,165 --> 00:11:10,465 requires that partnership. 278 00:11:11,644 --> 00:11:14,764 Easily, the the the most obvious one is 279 00:11:14,764 --> 00:11:15,264 workforce 280 00:11:15,690 --> 00:11:18,669 And the ability to train the next generation 281 00:11:18,809 --> 00:11:20,889 of scientists and engineers who are gonna work 282 00:11:20,889 --> 00:11:21,790 on these topics 283 00:11:22,330 --> 00:11:23,470 oftentimes requires 284 00:11:23,850 --> 00:11:26,730 early exposure and understanding of what the national 285 00:11:26,730 --> 00:11:27,870 labs do, the mission, 286 00:11:28,194 --> 00:11:30,115 but also the types of equipment and and 287 00:11:30,115 --> 00:11:31,654 methods that we're using here. 288 00:11:32,194 --> 00:11:35,014 So in addition to kind of pursuing research 289 00:11:35,074 --> 00:11:38,274 goals and developing science and breakthroughs in these 290 00:11:38,274 --> 00:11:38,774 areas, 291 00:11:39,315 --> 00:11:42,820 that partnership also builds up this infrastructure, these 292 00:11:42,820 --> 00:11:45,639 personnel that we're talking about that can support 293 00:11:45,700 --> 00:11:47,940 the operation of the center, the operation of 294 00:11:47,940 --> 00:11:48,600 the laboratories, 295 00:11:49,139 --> 00:11:50,519 and put all of that forward. 296 00:11:51,379 --> 00:11:53,960 Here at Oak Ridge, we actually have a 297 00:11:55,644 --> 00:11:56,704 highly ambitious 298 00:11:57,004 --> 00:11:57,504 and, 299 00:11:58,204 --> 00:11:59,985 I would say, impactful effort 300 00:12:00,365 --> 00:12:03,164 through our Quantum Science Center. And the Quantum 301 00:12:03,164 --> 00:12:05,725 Science Center is one of the Department of 302 00:12:05,725 --> 00:12:09,184 Energy's National Quantum Information Science Research Centers. 303 00:12:09,570 --> 00:12:10,629 It is a, 304 00:12:11,170 --> 00:12:11,670 partnership. 305 00:12:12,210 --> 00:12:13,830 The QSC is a partnership 306 00:12:14,290 --> 00:12:16,870 led by Oak Ridge, but all but including 307 00:12:16,929 --> 00:12:18,389 over 20 other institutions, 308 00:12:18,929 --> 00:12:20,929 involved in that partnership, and many of those 309 00:12:20,929 --> 00:12:21,910 coming from universities 310 00:12:22,495 --> 00:12:23,715 as well as industry. 311 00:12:24,335 --> 00:12:27,315 So this type of coordination of effort 312 00:12:27,695 --> 00:12:28,595 and the collaboration 313 00:12:28,975 --> 00:12:29,715 of multidisciplinary 314 00:12:30,415 --> 00:12:31,554 and even kind of, 315 00:12:33,215 --> 00:12:36,195 perspectives from industry, academia, and government 316 00:12:36,929 --> 00:12:37,429 is 317 00:12:37,970 --> 00:12:38,610 is in, 318 00:12:39,809 --> 00:12:40,790 very good hands, 319 00:12:41,169 --> 00:12:42,230 within the laboratory 320 00:12:42,690 --> 00:12:45,009 because it requires us to have that type 321 00:12:45,009 --> 00:12:47,730 of partnership and focused effort in order to 322 00:12:47,730 --> 00:12:48,870 make these advances. 323 00:12:50,664 --> 00:12:53,784 And I would imagine with quantum I mean, 324 00:12:53,784 --> 00:12:55,804 quantum is is is real 325 00:12:56,424 --> 00:12:58,904 business now, isn't it? It's not just ideas 326 00:12:58,904 --> 00:13:01,384 about about how you could start a company 327 00:13:01,384 --> 00:13:02,764 based on quantum technologies. 328 00:13:04,320 --> 00:13:06,980 Your collaboration with industry must be growing, 329 00:13:08,320 --> 00:13:09,620 on leaps and bounds, 330 00:13:10,240 --> 00:13:11,139 over the years. 331 00:13:12,799 --> 00:13:15,200 You're exactly right. What I would say is 332 00:13:15,200 --> 00:13:16,019 most interesting, 333 00:13:17,174 --> 00:13:19,514 from my perspective at the moment is that 334 00:13:19,894 --> 00:13:22,535 quantum has emerged over the last decade in 335 00:13:22,535 --> 00:13:23,035 particular 336 00:13:23,894 --> 00:13:25,195 as a national 337 00:13:25,575 --> 00:13:26,715 scientific priority. 338 00:13:27,254 --> 00:13:29,035 And this is cut across multiple 339 00:13:30,570 --> 00:13:31,950 federal government administrations. 340 00:13:33,049 --> 00:13:35,850 It's continuing today. And what we are finding 341 00:13:35,850 --> 00:13:38,110 is that that priority is driven by 342 00:13:38,570 --> 00:13:41,309 the concerns for national security. It's a critical 343 00:13:41,370 --> 00:13:41,870 technology. 344 00:13:42,250 --> 00:13:45,485 We're effectively changing out the the technology 345 00:13:45,865 --> 00:13:49,065 basis of a entire planet, and, that has 346 00:13:49,065 --> 00:13:51,164 huge implications in many different areas. 347 00:13:51,785 --> 00:13:53,884 It provides economic advantage, 348 00:13:54,264 --> 00:13:57,304 including the development of new products and services. 349 00:13:57,304 --> 00:13:58,759 And this, of course, 350 00:13:59,220 --> 00:14:01,060 is one of the reasons industry is so 351 00:14:01,060 --> 00:14:03,460 interested in this type of technology is that 352 00:14:03,460 --> 00:14:05,000 it opens up opportunities 353 00:14:05,540 --> 00:14:07,460 that frankly you can't get to in any 354 00:14:07,460 --> 00:14:08,200 other way. 355 00:14:08,580 --> 00:14:10,759 And then I think from my own perspective, 356 00:14:11,764 --> 00:14:13,304 quantum is an enabling 357 00:14:15,205 --> 00:14:15,705 ability 358 00:14:16,565 --> 00:14:19,285 for new scientific discoveries. And that, of course, 359 00:14:19,285 --> 00:14:22,825 has huge implications for things in energy innovation 360 00:14:23,365 --> 00:14:23,865 and 361 00:14:24,769 --> 00:14:25,750 and other topics. 362 00:14:26,370 --> 00:14:26,870 So 363 00:14:27,330 --> 00:14:29,490 because of this kind of setting, the context 364 00:14:29,490 --> 00:14:31,509 right now in the in The United States, 365 00:14:32,210 --> 00:14:34,610 the drive for industry to develop these new 366 00:14:34,610 --> 00:14:37,570 products and services, the focus on the government 367 00:14:37,570 --> 00:14:39,934 and other parts of the the ecosystem 368 00:14:40,235 --> 00:14:41,855 to build out these capabilities 369 00:14:42,795 --> 00:14:44,495 has not only increased 370 00:14:44,875 --> 00:14:46,415 the the stake 371 00:14:46,795 --> 00:14:47,295 in, 372 00:14:47,674 --> 00:14:48,815 what we're all pursuing, 373 00:14:49,195 --> 00:14:51,674 but also driven home the emphasis that we 374 00:14:51,674 --> 00:14:53,134 need to all do this together. 375 00:14:53,595 --> 00:14:56,129 So, So certainly, the national laboratories and industry 376 00:14:56,129 --> 00:14:57,509 are partnering very closely, 377 00:14:57,970 --> 00:15:00,850 including the ability to access the types of 378 00:15:00,850 --> 00:15:03,809 instruments that we have here through SNS and 379 00:15:03,809 --> 00:15:06,709 the CNMS, as well as, other facilities. 380 00:15:07,934 --> 00:15:10,674 But at the same time, we're getting access 381 00:15:10,735 --> 00:15:12,975 to the types of technologies that industry is 382 00:15:12,975 --> 00:15:13,475 developing, 383 00:15:14,095 --> 00:15:16,754 especially in their quantum computing platforms. 384 00:15:17,615 --> 00:15:19,615 So this is one of the most exciting 385 00:15:19,615 --> 00:15:21,294 partnerships I think that we have at the 386 00:15:21,294 --> 00:15:23,680 moment is how can we, as a laboratory, 387 00:15:24,620 --> 00:15:27,500 understand these new products and services that industry 388 00:15:27,500 --> 00:15:29,899 is creating in the quantum space and start 389 00:15:29,899 --> 00:15:33,180 to integrate them, adapt them into our own 390 00:15:33,180 --> 00:15:34,800 scientific discovery workflows. 391 00:15:35,285 --> 00:15:36,404 And, of course, this is, 392 00:15:37,045 --> 00:15:39,205 one of the hottest areas right now. How 393 00:15:39,205 --> 00:15:40,745 do you use a quantum computer 394 00:15:41,045 --> 00:15:43,524 to solve these types of material science problems 395 00:15:43,524 --> 00:15:45,684 that we were just talking about, with the 396 00:15:45,684 --> 00:15:47,065 sphalation neutron source? 397 00:15:48,500 --> 00:15:50,259 And I I wanna talk to you may 398 00:15:50,339 --> 00:15:50,839 maybe 399 00:15:51,220 --> 00:15:54,839 in a while about, about using quantum computing 400 00:15:55,299 --> 00:15:57,620 computers, which I think is that's something that 401 00:15:57,620 --> 00:16:00,580 Oak Ridge is, is involved in. But first, 402 00:16:00,580 --> 00:16:01,860 I want to ask you about, 403 00:16:02,674 --> 00:16:05,634 sort of classical computing because, of course, the 404 00:16:05,634 --> 00:16:07,254 lab is also famous 405 00:16:07,954 --> 00:16:09,894 for its, high performance 406 00:16:10,274 --> 00:16:10,774 computing. 407 00:16:11,235 --> 00:16:14,034 And, it's home to Frontier, which is one 408 00:16:14,034 --> 00:16:16,134 of the world's most powerful supercomputers. 409 00:16:17,070 --> 00:16:18,990 Can you talk a bit about how the 410 00:16:18,990 --> 00:16:22,610 lab is using its expertise in classical computation 411 00:16:22,910 --> 00:16:26,210 to develop new paradigms for quantum computing? 412 00:16:28,750 --> 00:16:30,129 High performance computing, 413 00:16:30,910 --> 00:16:31,649 has been 414 00:16:32,245 --> 00:16:35,544 a remarkable and disruptive ability for 415 00:16:36,084 --> 00:16:37,544 not just exploring 416 00:16:38,004 --> 00:16:39,144 complex systems, 417 00:16:39,524 --> 00:16:40,824 but also understanding 418 00:16:41,125 --> 00:16:42,504 their behaviors and 419 00:16:42,884 --> 00:16:45,464 how those behaviors can be controlled and ultimately 420 00:16:45,684 --> 00:16:47,625 applied to to new ideas. 421 00:16:49,230 --> 00:16:52,110 One particular example is in the area of 422 00:16:52,110 --> 00:16:53,250 material science, 423 00:16:53,949 --> 00:16:56,929 chemistry, biology, other complex physical systems, 424 00:16:57,470 --> 00:16:59,009 where modeling and simulation 425 00:17:00,044 --> 00:17:02,784 play a huge role in our scientific discovery 426 00:17:02,924 --> 00:17:05,904 process. In fact, many people would say that 427 00:17:05,964 --> 00:17:07,585 next to theory and experiment, 428 00:17:08,365 --> 00:17:10,924 computation is a sort of a third pillar 429 00:17:10,924 --> 00:17:12,545 of the the r and d ecosystem. 430 00:17:13,460 --> 00:17:16,819 And here, high performance computers are the high 431 00:17:16,819 --> 00:17:19,700 bar on capability when it comes to modeling 432 00:17:19,700 --> 00:17:20,359 and simulation, 433 00:17:21,059 --> 00:17:23,700 even optimization and design. A lot of times, 434 00:17:23,700 --> 00:17:26,119 we're using these classical computing capabilities 435 00:17:27,025 --> 00:17:28,484 to reason about systems, 436 00:17:28,944 --> 00:17:31,345 come up with the best alternatives, or or 437 00:17:31,345 --> 00:17:32,644 optimize their behaviors. 438 00:17:33,345 --> 00:17:34,085 And then 439 00:17:34,384 --> 00:17:35,605 one of the most remarkable, 440 00:17:37,025 --> 00:17:39,585 examples in the the last several years has 441 00:17:39,585 --> 00:17:40,484 been the application 442 00:17:41,025 --> 00:17:41,845 of HPC 443 00:17:42,630 --> 00:17:44,970 to machine learning and artificial intelligence. 444 00:17:46,230 --> 00:17:48,869 So cutting across kind of those three big, 445 00:17:49,349 --> 00:17:49,849 application 446 00:17:50,150 --> 00:17:50,650 areas, 447 00:17:51,190 --> 00:17:53,609 you can start to understand that high performance 448 00:17:53,670 --> 00:17:56,250 computing is just as powerful of a tool 449 00:17:56,644 --> 00:17:59,625 as the spallation neutron source or the CNMS 450 00:18:00,325 --> 00:18:01,384 when it comes to 451 00:18:02,085 --> 00:18:05,065 understanding and exploring these complex physical systems. 452 00:18:05,845 --> 00:18:06,664 What is, 453 00:18:08,005 --> 00:18:09,065 been very important 454 00:18:09,490 --> 00:18:12,289 about having all of these facilities colocated at 455 00:18:12,289 --> 00:18:13,029 Oak Ridge 456 00:18:13,329 --> 00:18:15,349 is that you can create that ecosystem 457 00:18:16,210 --> 00:18:16,710 where 458 00:18:17,089 --> 00:18:19,409 the simulation that we've run on the high 459 00:18:19,409 --> 00:18:21,829 performance computer provides datasets 460 00:18:22,434 --> 00:18:24,355 that can be compared directly with the types 461 00:18:24,355 --> 00:18:26,674 of data that's coming out of the neutron 462 00:18:26,674 --> 00:18:27,815 scattering experiments. 463 00:18:28,515 --> 00:18:31,974 And that provides a very tight and, coordinated 464 00:18:32,355 --> 00:18:33,335 cycle of development 465 00:18:33,795 --> 00:18:35,875 that ensures that we get to the the 466 00:18:35,875 --> 00:18:37,974 best results the fastest way possible. 467 00:18:38,750 --> 00:18:41,710 Of course, this again introduces the the questions 468 00:18:41,710 --> 00:18:43,250 that we were talking about earlier 469 00:18:43,789 --> 00:18:45,089 when it comes to multidisciplinary 470 00:18:45,629 --> 00:18:48,929 efforts and, team science as we call it. 471 00:18:49,149 --> 00:18:51,149 You have to have good coordination. You have 472 00:18:51,149 --> 00:18:52,609 to have clarity and communication. 473 00:18:53,174 --> 00:18:54,615 And then, of course, you have to have 474 00:18:54,615 --> 00:18:57,335 a very clear vision about the goals that 475 00:18:57,335 --> 00:18:58,475 you're trying to accomplish. 476 00:18:59,174 --> 00:19:01,035 That's what keeps this all on the rails, 477 00:19:01,494 --> 00:19:03,654 making sure that all of these efforts have 478 00:19:03,654 --> 00:19:06,240 a common understanding of the mission of the 479 00:19:06,400 --> 00:19:08,640 the laboratory as well as the, the Department 480 00:19:08,640 --> 00:19:09,299 of Energy. 481 00:19:09,839 --> 00:19:12,960 High performance computing is, certainly one of the 482 00:19:12,960 --> 00:19:16,019 the biggest and, I would say, most significant 483 00:19:16,160 --> 00:19:18,640 capabilities that we have right now for pushing 484 00:19:18,640 --> 00:19:19,779 that frontier forward. 485 00:19:21,154 --> 00:19:23,795 I see. And and Travis, you're also director 486 00:19:23,795 --> 00:19:27,875 of Oak Ridge's quantum computing user program, and 487 00:19:27,875 --> 00:19:30,855 that provides access to commercial quantum computers. 488 00:19:31,634 --> 00:19:33,974 Who who are your users? Are they 489 00:19:34,980 --> 00:19:35,480 industry 490 00:19:35,779 --> 00:19:37,080 or a bit of both? 491 00:19:37,619 --> 00:19:39,940 And what resources do do you provide them 492 00:19:39,940 --> 00:19:40,440 with? 493 00:19:41,700 --> 00:19:44,740 The quantum computing user program was started back 494 00:19:44,740 --> 00:19:46,279 in 02/2017. 495 00:19:47,125 --> 00:19:47,944 At that time, 496 00:19:48,404 --> 00:19:51,605 quantum computers were just begun just beginning to 497 00:19:51,605 --> 00:19:52,345 come online. 498 00:19:52,884 --> 00:19:53,384 So, 499 00:19:54,005 --> 00:19:56,244 a few of the vendors like IBM and 500 00:19:56,244 --> 00:19:58,345 D Wave and maybe one or two others 501 00:19:58,900 --> 00:20:00,440 were starting to see value 502 00:20:00,740 --> 00:20:01,480 in having 503 00:20:02,019 --> 00:20:03,880 their systems available publicly, 504 00:20:04,579 --> 00:20:05,720 through different mechanisms 505 00:20:06,339 --> 00:20:08,359 so that they could generate feedback 506 00:20:08,819 --> 00:20:11,539 on the development and the design, the operation 507 00:20:11,539 --> 00:20:12,440 of those systems. 508 00:20:13,345 --> 00:20:16,005 Well, of course, one of the main motivations 509 00:20:16,304 --> 00:20:18,164 behind developing quantum computing 510 00:20:18,625 --> 00:20:21,184 has been the creation of a platform that 511 00:20:21,184 --> 00:20:23,904 could be used to model and simulate complex 512 00:20:23,904 --> 00:20:24,404 systems. 513 00:20:25,279 --> 00:20:27,679 And that immediately aligns with the types of 514 00:20:27,679 --> 00:20:29,519 goals that we have at Oak Ridge and, 515 00:20:30,400 --> 00:20:32,099 within many of the national laboratories. 516 00:20:32,880 --> 00:20:34,339 So we saw an opportunity 517 00:20:34,640 --> 00:20:35,940 to partner with industry 518 00:20:36,480 --> 00:20:39,700 on gaining access to their quantum computing systems. 519 00:20:40,595 --> 00:20:42,755 In our case, though, we didn't wanna just 520 00:20:42,755 --> 00:20:44,775 keep it internal within the laboratory. 521 00:20:45,474 --> 00:20:47,795 We wanted to expand that user base to 522 00:20:47,795 --> 00:20:49,474 bring in people the same way we do 523 00:20:49,474 --> 00:20:50,695 with our other facilities 524 00:20:51,315 --> 00:20:53,734 so that they can also contribute and provide 525 00:20:53,795 --> 00:20:54,855 insights into 526 00:20:55,359 --> 00:20:57,919 what makes a good quantum computer, and when 527 00:20:57,919 --> 00:21:00,480 are the quantum computers good enough that they're 528 00:21:00,480 --> 00:21:03,119 changing the face of what we're already doing 529 00:21:03,119 --> 00:21:04,819 within scientific discovery. 530 00:21:05,519 --> 00:21:08,000 So the Quantum Computing User Program, or Q 531 00:21:08,000 --> 00:21:09,619 Cup, as we call it for short, 532 00:21:10,265 --> 00:21:13,404 is now part of our leadership computing facility, 533 00:21:13,544 --> 00:21:15,964 the same facility that houses the Frontier, 534 00:21:17,065 --> 00:21:17,964 computing system. 535 00:21:18,664 --> 00:21:20,125 And through that program, 536 00:21:20,744 --> 00:21:21,565 we recruit 537 00:21:21,865 --> 00:21:23,690 users from all over the country, 538 00:21:24,149 --> 00:21:26,009 a few outside of The US as well, 539 00:21:26,549 --> 00:21:29,509 to submit proposals that can then be reviewed 540 00:21:29,509 --> 00:21:30,009 internally, 541 00:21:30,789 --> 00:21:34,009 competitively awarded based on their merit and feasibility. 542 00:21:34,950 --> 00:21:37,109 And then they basically get time to, 543 00:21:37,984 --> 00:21:40,545 the quantum computing vendors that we've contracted with 544 00:21:40,545 --> 00:21:41,845 through the Q Cup program 545 00:21:42,384 --> 00:21:44,644 to test and evaluate their programs. 546 00:21:45,505 --> 00:21:47,525 Now currently, we have four vendors, 547 00:21:48,065 --> 00:21:48,565 IBM, 548 00:21:48,945 --> 00:21:49,445 Quantinuum, 549 00:21:50,144 --> 00:21:50,644 IQM, 550 00:21:50,945 --> 00:21:51,765 and IonQ. 551 00:21:52,570 --> 00:21:55,230 And through those vendors, we actually have 552 00:21:56,250 --> 00:21:58,590 gained allocation to run on their systems. 553 00:21:59,210 --> 00:22:00,830 We manage the resources 554 00:22:01,210 --> 00:22:03,210 with the user base that we have through 555 00:22:03,210 --> 00:22:04,350 the Q Cup program. 556 00:22:04,970 --> 00:22:06,365 That's, I think, historically 557 00:22:06,744 --> 00:22:09,945 close to around 400 users from, again, over 558 00:22:09,945 --> 00:22:11,005 many different areas. 559 00:22:11,865 --> 00:22:14,904 And we manage the portfolio of projects that 560 00:22:14,904 --> 00:22:16,525 they are actually exploring. 561 00:22:16,984 --> 00:22:19,085 So just like we were talking about earlier, 562 00:22:19,669 --> 00:22:22,730 materials, chemistry, biology, machine learning, 563 00:22:23,109 --> 00:22:24,169 computer science, 564 00:22:25,429 --> 00:22:27,669 there's close to 20 or 30 different topics 565 00:22:27,669 --> 00:22:28,970 that we keep track of, 566 00:22:29,269 --> 00:22:31,589 and we have a portfolio of these users 567 00:22:31,589 --> 00:22:34,305 who are all investigating those those different areas. 568 00:22:35,005 --> 00:22:37,164 It's a remarkable program, and I should say 569 00:22:37,164 --> 00:22:38,225 it is very, 570 00:22:39,085 --> 00:22:40,625 well received by the community. 571 00:22:41,644 --> 00:22:43,265 That's not to say that 572 00:22:43,805 --> 00:22:44,305 the 573 00:22:46,125 --> 00:22:47,345 that it's not a dynamic, 574 00:22:48,045 --> 00:22:50,240 aspect. And what I mean by that is 575 00:22:50,240 --> 00:22:52,159 every year, we have something we call the 576 00:22:52,159 --> 00:22:54,880 quantum computing user forum. It'll be coming up 577 00:22:54,880 --> 00:22:57,359 at the July this year. We get the 578 00:22:57,359 --> 00:22:59,359 users and the vendors together, and we all 579 00:22:59,359 --> 00:23:01,394 sit down, and we talk about what have 580 00:23:01,394 --> 00:23:03,475 been the latest results in our use of 581 00:23:03,475 --> 00:23:04,134 the systems. 582 00:23:04,755 --> 00:23:06,674 And many times, what we will find is 583 00:23:06,674 --> 00:23:09,555 that the users have identified a bottleneck or 584 00:23:09,555 --> 00:23:10,295 a pitfall 585 00:23:10,835 --> 00:23:12,375 that's limiting the availability 586 00:23:12,674 --> 00:23:13,654 of their calculations. 587 00:23:14,549 --> 00:23:16,069 Maybe it's the noise or the error in 588 00:23:16,069 --> 00:23:18,730 the systems. Maybe it's the programming interface. 589 00:23:19,429 --> 00:23:21,609 And this is an opportunity for the vendors 590 00:23:21,909 --> 00:23:24,169 to accept that feedback, to make modifications, 591 00:23:24,630 --> 00:23:27,269 changes in their own roadmaps and interfaces and 592 00:23:27,269 --> 00:23:27,769 designs 593 00:23:28,164 --> 00:23:30,105 that can be responsive to that community. 594 00:23:30,644 --> 00:23:32,644 I think that's actually one of the the 595 00:23:32,644 --> 00:23:35,384 most amazing parts of this particular program is 596 00:23:35,444 --> 00:23:38,164 the dynamic aspect with which the users and 597 00:23:38,164 --> 00:23:40,325 the vendors can engage through each with each 598 00:23:40,325 --> 00:23:42,679 other. And then, of course, from our perspective 599 00:23:42,740 --> 00:23:44,679 at the at the national laboratory, 600 00:23:45,220 --> 00:23:47,380 how do we get ready for integrating that 601 00:23:47,380 --> 00:23:47,880 technology 602 00:23:48,500 --> 00:23:51,539 into a future high performance computing system that 603 00:23:51,539 --> 00:23:53,299 can offer this type of service at a 604 00:23:53,299 --> 00:23:54,815 at a much larger one. 605 00:23:56,075 --> 00:23:56,575 Right. 606 00:23:56,875 --> 00:23:58,794 I see. And and, there, are you talking 607 00:23:58,794 --> 00:24:00,875 about sort of a hybrid system that takes 608 00:24:00,875 --> 00:24:02,014 advantage of both 609 00:24:02,315 --> 00:24:04,494 a quantum computer and, say, 610 00:24:05,115 --> 00:24:05,774 a supercomputer 611 00:24:06,154 --> 00:24:08,700 and, you know, sort of runs the appropriate 612 00:24:08,759 --> 00:24:09,900 parts of the problem 613 00:24:10,200 --> 00:24:10,940 on each, 614 00:24:11,960 --> 00:24:15,160 type of hardware to, sort of maximize the 615 00:24:15,160 --> 00:24:15,660 efficiency 616 00:24:16,119 --> 00:24:17,019 of the calculation? 617 00:24:18,360 --> 00:24:20,619 I think hybrid systems are the future. 618 00:24:21,855 --> 00:24:23,954 Both in the the context of 619 00:24:24,734 --> 00:24:28,194 we want to integrate quantum computing, the devices, 620 00:24:28,255 --> 00:24:29,714 the methods, the technology 621 00:24:30,575 --> 00:24:31,394 into our 622 00:24:31,855 --> 00:24:35,000 current scientific infrastructure. And of course, that means 623 00:24:35,000 --> 00:24:37,880 high performance computing systems. They're so important to 624 00:24:37,880 --> 00:24:38,859 what we do here. 625 00:24:39,319 --> 00:24:40,539 I envision that 626 00:24:40,839 --> 00:24:42,839 we will have some way of taking the 627 00:24:42,839 --> 00:24:43,819 quantum computers, 628 00:24:44,519 --> 00:24:46,859 connecting them both physically and logically 629 00:24:47,319 --> 00:24:49,704 to the HPC systems So we can do 630 00:24:49,704 --> 00:24:51,804 exactly as you were describing that 631 00:24:52,105 --> 00:24:53,484 the users, the scientific, 632 00:24:54,264 --> 00:24:57,464 computing users will develop a program. Let's say 633 00:24:57,464 --> 00:24:59,484 it's simulation of a quantum material. 634 00:25:00,024 --> 00:25:02,184 That program does not have to be entirely 635 00:25:02,184 --> 00:25:04,169 run on the quantum computer. There can be 636 00:25:04,169 --> 00:25:06,569 parts of it that are preprocessing or pro 637 00:25:06,569 --> 00:25:09,869 pro post processing on the, HPC system 638 00:25:10,250 --> 00:25:12,409 or even some sort of hybrid method where 639 00:25:12,409 --> 00:25:14,190 we're sampling the quantum computer 640 00:25:14,569 --> 00:25:17,549 to inform calculations that are performed on HPC. 641 00:25:17,609 --> 00:25:19,275 There there's lots of options here. 642 00:25:19,835 --> 00:25:21,674 But that's not the only way in which 643 00:25:21,674 --> 00:25:23,775 this type of technology can be integrated. 644 00:25:24,234 --> 00:25:27,455 We can also imagine integrating the quantum computer 645 00:25:27,515 --> 00:25:28,494 directly into 646 00:25:29,035 --> 00:25:29,775 the characterization 647 00:25:30,154 --> 00:25:32,575 and the sensing of these types of materials 648 00:25:33,179 --> 00:25:34,559 so that that calculation 649 00:25:34,859 --> 00:25:36,000 is actually informed 650 00:25:36,539 --> 00:25:38,559 directly by experimental data. 651 00:25:39,099 --> 00:25:40,960 So this type of interconnected, 652 00:25:43,339 --> 00:25:46,619 devices that include computers and sensors and other 653 00:25:46,619 --> 00:25:48,559 types of, quantum technologies, 654 00:25:49,285 --> 00:25:50,884 I think that's a much bigger version of 655 00:25:50,884 --> 00:25:51,605 this hybrid, 656 00:25:52,005 --> 00:25:52,505 paradigm 657 00:25:53,204 --> 00:25:55,045 and certainly something that we can, 658 00:25:55,605 --> 00:25:56,664 evaluate more. 659 00:25:57,365 --> 00:26:00,884 But the idea of connecting quantum technology to 660 00:26:00,884 --> 00:26:02,424 the current scientific infrastructure, 661 00:26:03,220 --> 00:26:05,460 I think this is an absolute necessity for 662 00:26:05,460 --> 00:26:06,839 the survival of the technology 663 00:26:07,539 --> 00:26:10,500 to be, both useful and impactful on the 664 00:26:10,500 --> 00:26:11,480 scientific community. 665 00:26:12,500 --> 00:26:14,019 I see. And you and you brought me 666 00:26:14,019 --> 00:26:16,440 nicely to my next question, which is about 667 00:26:16,500 --> 00:26:17,559 quantum sensors. 668 00:26:19,184 --> 00:26:20,224 I'm guessing that, 669 00:26:20,625 --> 00:26:23,025 that Oak Ridge is in is, involved in 670 00:26:23,025 --> 00:26:24,164 developing materials, 671 00:26:25,105 --> 00:26:28,224 for quantum sensors as well as quantum competing 672 00:26:28,224 --> 00:26:28,724 devices. 673 00:26:30,304 --> 00:26:31,924 You're exactly right. The 674 00:26:32,859 --> 00:26:34,000 ability to 675 00:26:34,940 --> 00:26:35,440 characterize, 676 00:26:36,059 --> 00:26:39,039 to sense, to detect unique quantum signals 677 00:26:39,660 --> 00:26:40,960 is actually requiring 678 00:26:41,419 --> 00:26:41,919 advances 679 00:26:42,700 --> 00:26:45,099 in those same types of technologies. And and 680 00:26:45,099 --> 00:26:46,700 what I mean by this is that many 681 00:26:46,700 --> 00:26:47,200 times, 682 00:26:48,204 --> 00:26:50,544 the features of a of a signal, 683 00:26:50,845 --> 00:26:52,944 let's say it's a spectrum 684 00:26:53,244 --> 00:26:55,724 or some sort of response function, whatever it 685 00:26:55,724 --> 00:26:56,384 might be, 686 00:26:57,085 --> 00:26:57,904 many times 687 00:26:58,284 --> 00:26:59,024 the the 688 00:26:59,569 --> 00:27:01,990 type of feature that we're looking for is 689 00:27:02,210 --> 00:27:03,589 uniquely quantum mechanical, 690 00:27:04,210 --> 00:27:06,710 and that requires an increase in sensitivity 691 00:27:07,009 --> 00:27:07,750 and precision, 692 00:27:08,769 --> 00:27:11,109 in the measurement capability to surpass 693 00:27:11,875 --> 00:27:12,855 what would be conventional 694 00:27:13,234 --> 00:27:13,734 limitations 695 00:27:14,194 --> 00:27:16,115 on the noise and the error in those 696 00:27:16,115 --> 00:27:17,015 types of measurements. 697 00:27:17,794 --> 00:27:20,194 And probably one of the places that Oak 698 00:27:20,194 --> 00:27:22,134 Ridge has, the most expertise 699 00:27:22,914 --> 00:27:24,835 is in surpassing what we call the shot 700 00:27:24,835 --> 00:27:25,559 noise limit. 701 00:27:26,120 --> 00:27:28,779 And this is a typical type of statistical 702 00:27:28,920 --> 00:27:30,920 error that occurs as you make many types 703 00:27:30,920 --> 00:27:31,580 of measurements. 704 00:27:31,960 --> 00:27:33,559 It turns out that the, 705 00:27:34,360 --> 00:27:37,000 that particular type of error should scale as 706 00:27:37,000 --> 00:27:37,820 one over, 707 00:27:38,360 --> 00:27:40,315 the square root of n, where n is 708 00:27:40,315 --> 00:27:42,315 the number of samples that you're collecting. This 709 00:27:42,315 --> 00:27:44,654 is very, well known, statistical, 710 00:27:45,835 --> 00:27:48,414 consequence of classical information theory. 711 00:27:49,115 --> 00:27:49,855 But quantum, 712 00:27:50,795 --> 00:27:53,535 information theory actually provides us a pathway 713 00:27:54,279 --> 00:27:54,779 to 714 00:27:55,319 --> 00:27:56,539 reduce that sensitivity 715 00:27:56,920 --> 00:27:57,900 to the the, 716 00:27:58,920 --> 00:28:00,440 measurements. In fact, what I mean to say 717 00:28:00,440 --> 00:28:02,279 here is that it changes it from one 718 00:28:02,279 --> 00:28:03,880 over square root of n to one over 719 00:28:03,880 --> 00:28:05,799 n so that you have a much better 720 00:28:05,799 --> 00:28:08,279 resolution in the measurements using the same number 721 00:28:08,279 --> 00:28:09,259 of of collections. 722 00:28:10,295 --> 00:28:11,755 And that type of 723 00:28:12,214 --> 00:28:12,714 development 724 00:28:13,015 --> 00:28:15,595 of sensors that surpass the shot noise limit 725 00:28:16,054 --> 00:28:17,755 gives us a way of 726 00:28:18,214 --> 00:28:19,355 removing the veil 727 00:28:19,654 --> 00:28:22,775 of classical theory that currently covers the quantum 728 00:28:22,775 --> 00:28:23,275 world. 729 00:28:23,734 --> 00:28:25,115 And that exposes 730 00:28:25,470 --> 00:28:27,549 all of these quantum signatures that we're looking 731 00:28:27,549 --> 00:28:29,789 for. Of course, it's a very demanding and 732 00:28:29,789 --> 00:28:32,750 highly sensitive experiment, but those are the ways 733 00:28:32,750 --> 00:28:35,710 that we're trying to create quantum sensors that 734 00:28:35,710 --> 00:28:38,829 can characterize materials, look for topological order and 735 00:28:38,829 --> 00:28:40,755 entanglement in exciting new ways. 736 00:28:41,795 --> 00:28:43,634 But then, of course, as we were saying 737 00:28:43,634 --> 00:28:44,134 earlier, 738 00:28:44,914 --> 00:28:45,734 those capabilities 739 00:28:46,595 --> 00:28:49,174 can now be fed directly into 740 00:28:49,634 --> 00:28:51,815 these types of quantum computing systems 741 00:28:52,275 --> 00:28:54,920 where they're naturally using that quantum 742 00:28:55,460 --> 00:28:58,019 representation of the data. It's a much better, 743 00:28:58,019 --> 00:29:00,759 more accurate, more precise representation of the data, 744 00:29:00,980 --> 00:29:03,619 which can only serve to amplify our ability 745 00:29:03,619 --> 00:29:04,680 to perform calculations. 746 00:29:05,860 --> 00:29:07,875 I see. And I I wanted to also 747 00:29:07,875 --> 00:29:08,855 ask you about, 748 00:29:09,555 --> 00:29:12,515 Oak Ridge's work in coming up with ways 749 00:29:12,515 --> 00:29:13,654 to use existing 750 00:29:14,275 --> 00:29:15,654 fiber optic infrastructure 751 00:29:16,355 --> 00:29:19,235 to create a quantum Internet that, 752 00:29:20,080 --> 00:29:23,140 I suppose would allow quantum computers to be 753 00:29:23,279 --> 00:29:25,840 connected to each other and quantum information to 754 00:29:25,840 --> 00:29:28,640 be sent over long distances. Can you can 755 00:29:28,640 --> 00:29:31,200 you talk a bit about that research? What 756 00:29:31,200 --> 00:29:33,059 what what are the challenges of using 757 00:29:33,525 --> 00:29:34,744 existing infrastructure? 758 00:29:35,125 --> 00:29:37,365 And, what what what are people at Oak 759 00:29:37,365 --> 00:29:39,305 Ridge doing to overcome those challenges? 760 00:29:41,125 --> 00:29:44,585 Integrating quantum technologies into our existing infrastructure 761 00:29:45,125 --> 00:29:46,904 is anything but straightforward. 762 00:29:47,640 --> 00:29:49,240 We, of course, have to deal with the 763 00:29:49,240 --> 00:29:52,279 fact that the interface to the the worlds 764 00:29:52,279 --> 00:29:54,619 of quantum and classical mechanics are, 765 00:29:56,440 --> 00:29:58,220 very different from each other. 766 00:29:58,680 --> 00:30:01,099 The quantum state is kind of the 767 00:30:02,105 --> 00:30:05,164 most important object to be maintained and preserved 768 00:30:05,224 --> 00:30:07,384 through all of this sensing and computing and 769 00:30:07,384 --> 00:30:07,884 transmission, 770 00:30:08,424 --> 00:30:08,924 processes. 771 00:30:09,945 --> 00:30:13,404 And that interface now with our hybrid infrastructure 772 00:30:13,625 --> 00:30:16,265 means that we've developed ways to not only 773 00:30:16,265 --> 00:30:19,380 move the information around, but to also transduce 774 00:30:19,519 --> 00:30:21,380 it from one medium to the other. 775 00:30:21,839 --> 00:30:23,920 And here you can think about the idea 776 00:30:23,920 --> 00:30:26,880 that if I've stored some information in the 777 00:30:26,880 --> 00:30:28,660 electronic spin of a material, 778 00:30:29,200 --> 00:30:31,220 but I wanna somehow move that information 779 00:30:31,599 --> 00:30:32,900 over to the 780 00:30:35,144 --> 00:30:37,545 electronic spin of an ion that's been trapped 781 00:30:37,545 --> 00:30:39,164 in a quantum computer somewhere, 782 00:30:39,545 --> 00:30:41,325 I have to have some way of transducing 783 00:30:42,025 --> 00:30:44,845 the information into, let's say, an optical carrier, 784 00:30:45,704 --> 00:30:48,265 that can move the information from one location 785 00:30:48,265 --> 00:30:48,869 to the other. 786 00:30:49,430 --> 00:30:51,430 That's all very technical sounding, but what I'm 787 00:30:51,430 --> 00:30:52,650 trying to say is that 788 00:30:53,109 --> 00:30:53,769 the ability 789 00:30:54,150 --> 00:30:57,109 to move quantum information from one location to 790 00:30:57,109 --> 00:30:57,609 another 791 00:30:57,990 --> 00:30:59,029 has very many, 792 00:30:59,430 --> 00:31:01,005 technology demands on it 793 00:31:01,484 --> 00:31:02,944 in addition to the fact 794 00:31:03,325 --> 00:31:06,625 that we already have a very well developed 795 00:31:06,684 --> 00:31:08,464 and well supported infrastructure 796 00:31:09,404 --> 00:31:10,625 that needs to accommodate 797 00:31:11,085 --> 00:31:12,384 those types of new technologies. 798 00:31:13,200 --> 00:31:15,299 Here at Oak Ridge, we have a specific 799 00:31:15,359 --> 00:31:17,440 interest in how can we use our existing 800 00:31:17,440 --> 00:31:17,940 infrastructure 801 00:31:19,039 --> 00:31:22,019 and build upon that to create this hybrid 802 00:31:22,079 --> 00:31:23,059 quantum ecosystem. 803 00:31:24,000 --> 00:31:26,659 We currently have the Department of Energy's 804 00:31:26,960 --> 00:31:28,819 largest fiber based network, 805 00:31:29,224 --> 00:31:31,785 over 300 kilometers of fiber that can be 806 00:31:31,785 --> 00:31:32,285 used 807 00:31:32,664 --> 00:31:35,644 for testing and evaluating transmission protocols. 808 00:31:36,105 --> 00:31:37,805 These are using some of the same, 809 00:31:40,744 --> 00:31:42,825 sources and transmitters that we would use for, 810 00:31:42,825 --> 00:31:43,964 say, sensor development. 811 00:31:44,630 --> 00:31:47,190 But now we can channel them into the 812 00:31:47,190 --> 00:31:48,970 transmission across long distances. 813 00:31:49,670 --> 00:31:52,170 That allows us to create a distributed network 814 00:31:52,470 --> 00:31:54,870 where sensors are in one location, computers are 815 00:31:54,870 --> 00:31:57,190 in another, perhaps the end user is in 816 00:31:57,190 --> 00:31:59,775 a third, And that type of hybrid environment, 817 00:31:59,775 --> 00:32:02,194 that hybrid infrastructure becomes very important 818 00:32:02,575 --> 00:32:03,634 to thinking about 819 00:32:04,095 --> 00:32:06,835 what does a future laboratory look like 820 00:32:07,134 --> 00:32:09,634 that is fully integrated with quantum technology. 821 00:32:10,255 --> 00:32:11,855 What are all of the pieces that have 822 00:32:11,855 --> 00:32:13,634 to come together, they have to converge 823 00:32:14,069 --> 00:32:16,490 in order to support that type of infrastructure? 824 00:32:17,509 --> 00:32:19,210 So our our work developing, 825 00:32:19,589 --> 00:32:20,309 fiber based, 826 00:32:20,789 --> 00:32:23,990 communication systems, this type of quantum Internet is 827 00:32:23,990 --> 00:32:26,009 an important part of, that development. 828 00:32:27,829 --> 00:32:30,134 I see. And and finally, Travis, I'd like 829 00:32:30,134 --> 00:32:32,615 you to, to get out your quantum crystal 830 00:32:32,615 --> 00:32:33,115 ball 831 00:32:33,575 --> 00:32:35,835 and maybe have a look in the future 832 00:32:36,294 --> 00:32:38,075 at quantum science and technology 833 00:32:38,375 --> 00:32:40,934 at Oak Ridge. What, what what do you 834 00:32:40,934 --> 00:32:42,500 see coming up in 835 00:32:43,839 --> 00:32:46,420 the near future and I suppose further ahead? 836 00:32:46,480 --> 00:32:47,220 Are there any 837 00:32:47,519 --> 00:32:49,599 exciting projects that are being planned at the 838 00:32:49,599 --> 00:32:50,099 moment? 839 00:32:50,480 --> 00:32:53,619 Is ground being broken on any new facilities? 840 00:32:53,759 --> 00:32:55,440 What can we look forward to from Oak 841 00:32:55,440 --> 00:32:56,984 Ridge and in the quantum world? 842 00:32:59,605 --> 00:33:02,484 You know, the past five years have been 843 00:33:02,484 --> 00:33:06,005 a series of remarkable advances in quantum science 844 00:33:06,005 --> 00:33:06,664 and technology, 845 00:33:06,964 --> 00:33:08,884 both at Oak Ridge and, I would say, 846 00:33:08,884 --> 00:33:10,664 more broadly around the planet. 847 00:33:11,450 --> 00:33:12,349 What is 848 00:33:12,730 --> 00:33:15,210 very exciting, though, is that we have only 849 00:33:15,210 --> 00:33:18,750 seen the pace of innovation and development increase 850 00:33:19,130 --> 00:33:22,009 over these five years. So I anticipate that 851 00:33:22,009 --> 00:33:24,089 the next five years is going to see 852 00:33:24,089 --> 00:33:25,710 that increase even further. 853 00:33:26,184 --> 00:33:28,744 We will see technology scale up. We will 854 00:33:28,744 --> 00:33:30,424 see the number of qubits that are being 855 00:33:30,424 --> 00:33:31,565 developed become, 856 00:33:32,184 --> 00:33:32,684 larger, 857 00:33:33,065 --> 00:33:33,805 higher fidelity, 858 00:33:34,184 --> 00:33:34,664 better, 859 00:33:35,305 --> 00:33:36,525 integrated, more sophisticated 860 00:33:36,825 --> 00:33:37,325 operations. 861 00:33:38,105 --> 00:33:38,605 That 862 00:33:38,904 --> 00:33:41,609 course opens us up to a whole new 863 00:33:41,609 --> 00:33:44,730 set of products and services, including quantum computers 864 00:33:44,730 --> 00:33:47,149 that can start to routinely reach 865 00:33:47,450 --> 00:33:49,929 what we would call quantum advantage, you know, 866 00:33:49,929 --> 00:33:50,429 surpassing 867 00:33:50,970 --> 00:33:52,809 the best calculations that we think we can 868 00:33:52,809 --> 00:33:55,325 do today with high performance computing systems. 869 00:33:56,105 --> 00:33:56,845 In addition, 870 00:33:57,224 --> 00:33:59,224 as we start to integrate these types of 871 00:33:59,224 --> 00:33:59,724 capabilities 872 00:34:00,025 --> 00:34:01,164 into our infrastructure, 873 00:34:01,945 --> 00:34:03,404 we'll see that convergence 874 00:34:03,865 --> 00:34:06,285 of the quantum and classical ideas occur 875 00:34:06,720 --> 00:34:09,280 so that we can think about quantum high 876 00:34:09,280 --> 00:34:13,280 performance computers or quantum sensors connecting into these 877 00:34:13,280 --> 00:34:14,179 quantum computers 878 00:34:14,480 --> 00:34:17,039 and, of course, the security overall of that, 879 00:34:17,359 --> 00:34:20,340 network by using these quantum transmission protocols. 880 00:34:21,164 --> 00:34:23,164 Here at Oak Ridge, we've got the Quantum 881 00:34:23,164 --> 00:34:25,644 Science Center, which is going up for another 882 00:34:25,644 --> 00:34:27,025 five years of activity. 883 00:34:27,405 --> 00:34:29,485 We've got the Q Cup program that only 884 00:34:29,485 --> 00:34:31,005 continues to grow its, 885 00:34:31,485 --> 00:34:32,545 its user base. 886 00:34:33,179 --> 00:34:35,760 All of that is being supported by a 887 00:34:35,820 --> 00:34:37,519 recently opened building, 888 00:34:37,900 --> 00:34:41,199 called the Translational Research Capability Building or TRC. 889 00:34:41,900 --> 00:34:44,219 That building has actually been developed over the 890 00:34:44,219 --> 00:34:45,599 the last several years 891 00:34:45,914 --> 00:34:47,375 to specifically house, 892 00:34:48,315 --> 00:34:51,035 the very sensitive instruments and experiments that we 893 00:34:51,035 --> 00:34:52,175 wanna do in quantum 894 00:34:53,434 --> 00:34:56,635 materials, quantum optics, quantum computing, all of these 895 00:34:56,635 --> 00:34:57,535 different areas. 896 00:34:58,110 --> 00:35:00,750 So we're already seeing the Department of Energy 897 00:35:00,750 --> 00:35:02,289 and Oak Ridge National Laboratory 898 00:35:02,829 --> 00:35:05,950 make plans for this future convergence of quantum 899 00:35:05,950 --> 00:35:07,809 and and and conventional methods. 900 00:35:08,510 --> 00:35:10,990 But what I think is probably more important 901 00:35:10,990 --> 00:35:11,864 to all of that 902 00:35:12,425 --> 00:35:14,764 mirrors the conversation we had at the beginning 903 00:35:14,905 --> 00:35:16,045 about unique capabilities 904 00:35:16,905 --> 00:35:18,764 and the role that personnel play. 905 00:35:19,465 --> 00:35:22,125 Because the other thing that is most important 906 00:35:22,184 --> 00:35:23,485 in the next five years 907 00:35:23,945 --> 00:35:25,324 is building out partnerships 908 00:35:25,860 --> 00:35:28,500 between industry and academia and the other national 909 00:35:28,500 --> 00:35:29,000 labs 910 00:35:29,539 --> 00:35:30,280 to support 911 00:35:30,660 --> 00:35:32,200 what these types of capabilities 912 00:35:32,820 --> 00:35:34,119 can lead to. 913 00:35:34,579 --> 00:35:37,619 Oak Ridge is especially interested in developing that 914 00:35:37,619 --> 00:35:39,480 type of partnership, that type of network 915 00:35:39,924 --> 00:35:42,085 so that we can amplify the impact that 916 00:35:42,085 --> 00:35:42,744 we have, 917 00:35:43,204 --> 00:35:44,105 both in terms 918 00:35:44,885 --> 00:35:46,885 of how do we create the technology, how 919 00:35:46,885 --> 00:35:49,065 do we overcome these scientific challenges, 920 00:35:49,525 --> 00:35:51,525 but also in terms of the adoption of 921 00:35:51,525 --> 00:35:54,480 that technology and its application to what I 922 00:35:54,480 --> 00:35:56,260 would consider real world 923 00:35:56,559 --> 00:35:57,300 use cases, 924 00:35:57,679 --> 00:36:01,139 scientific discovery, economic advantage, and national security. 925 00:36:01,519 --> 00:36:03,039 All of these will continue to be a 926 00:36:03,039 --> 00:36:05,440 priority over the the next five years, the 927 00:36:05,440 --> 00:36:06,179 next decade, 928 00:36:06,714 --> 00:36:09,454 And it will be a very exciting experience 929 00:36:09,835 --> 00:36:11,375 to watch the transformations 930 00:36:11,675 --> 00:36:12,494 that are happening, 931 00:36:12,795 --> 00:36:14,474 not just here at Oak Ridge, but around 932 00:36:14,474 --> 00:36:15,135 the world 933 00:36:15,514 --> 00:36:18,734 in the development, the maturity, and the breakthroughs, 934 00:36:19,640 --> 00:36:21,500 in this this particular field. 935 00:36:22,119 --> 00:36:24,619 Well, that's great. That sounds very exciting and 936 00:36:24,680 --> 00:36:26,680 lots of work to be done by you 937 00:36:26,680 --> 00:36:28,840 and your colleagues, which is which is good 938 00:36:28,840 --> 00:36:29,340 news. 939 00:36:29,640 --> 00:36:31,800 So thanks, Travis. Thanks so much for coming 940 00:36:31,800 --> 00:36:34,404 on the podcast and talking to us about 941 00:36:34,404 --> 00:36:37,045 all things quantum at the Oak Ridge National 942 00:36:37,045 --> 00:36:39,304 Lab. Thank you, Hamish. It's been a pleasure. 943 00:36:47,340 --> 00:36:49,180 I'm afraid that's all the time we have 944 00:36:49,180 --> 00:36:51,900 for this week's podcast, which is supported by 945 00:36:51,900 --> 00:36:53,039 American Elements. 946 00:36:53,500 --> 00:36:56,539 Thanks to Travis Humble for his insights into 947 00:36:56,539 --> 00:36:58,239 quantum research and development 948 00:36:58,619 --> 00:37:01,605 at Oak Ridge National Lab, and a special 949 00:37:01,605 --> 00:37:02,824 thanks to our producer, 950 00:37:03,204 --> 00:37:04,105 Fred Isles. 951 00:37:12,644 --> 00:37:14,985 This podcast is brought to you by American 952 00:37:15,125 --> 00:37:15,625 Elements, 953 00:37:16,150 --> 00:37:17,289 the world's leading 954 00:37:17,590 --> 00:37:19,210 manufacturer of engineered 955 00:37:19,590 --> 00:37:21,050 and advanced materials. 956 00:37:21,750 --> 00:37:24,889 With a catalog of over 35,000 957 00:37:25,030 --> 00:37:26,010 products available 958 00:37:26,309 --> 00:37:29,050 in both industrial bulk and laboratory 959 00:37:29,510 --> 00:37:30,010 quantities, 960 00:37:30,835 --> 00:37:34,114 American Elements is the largest supplier of its 961 00:37:34,114 --> 00:37:34,614 kind. 962 00:37:35,235 --> 00:37:37,974 For more than twenty five years, its research 963 00:37:38,035 --> 00:37:39,574 and development programs 964 00:37:39,875 --> 00:37:41,494 have been a vital resource 965 00:37:41,795 --> 00:37:42,614 for innovation 966 00:37:42,914 --> 00:37:43,815 across corporate, 967 00:37:44,300 --> 00:37:46,400 government, and academic sectors. 968 00:37:47,179 --> 00:37:49,199 The company's ability to scale 969 00:37:49,500 --> 00:37:50,000 laboratory 970 00:37:50,380 --> 00:37:50,880 breakthroughs 971 00:37:51,340 --> 00:37:52,880 to industrial production 972 00:37:53,260 --> 00:37:56,239 has contributed to many of the most significant 973 00:37:56,780 --> 00:37:57,280 technological 974 00:37:57,900 --> 00:37:58,400 advancements 975 00:37:59,015 --> 00:38:00,394 since 1990, 976 00:38:00,934 --> 00:38:01,434 including 977 00:38:01,815 --> 00:38:02,795 LED lighting, 978 00:38:03,175 --> 00:38:03,675 smartphones, 979 00:38:04,135 --> 00:38:05,434 and electric vehicles. 980 00:38:06,055 --> 00:38:07,675 To learn more, visit 981 00:38:07,974 --> 00:38:12,795 www.americanelements.com. 982 00:38:13,299 --> 00:38:14,359 American Elements. 983 00:38:14,900 --> 00:38:16,119 Now invent.