119:
enabled the observation of logarithmic phase singularities and the onset of Fermi-Dirac distributions, phenomena typically associated with quantum systems and gravitational theories. This approach provides valuable insights into the analogies between classical wave systems and quantum mechanical behaviors, expanding the possibilities for exploring gravitational analogs in a controlled laboratory environment.
470:
118:
Surface gravity waves have been recognized as a promising system for studying analog gravity models. Recent experiments have demonstrated that these waves can effectively simulate phase space horizons, drawing parallels to black hole physics. Specifically, the use of surface gravity water waves has
81:
medium. These analogs (or analogies) serve to provide new ways of looking at problems, permit ideas from other realms of science to be applied, and may create opportunities for practical experiments within the analog that can be applied back to the source phenomena.
90:
Analog models of gravity have been used in hundreds of published articles in the last decade. The use of these analogs can be traced back to the very start of scientific theories for gravity, with
106:
It has been shown that Bose-Einstein condensates (BEC) are a good platform to study analog gravity. Kerr (rotating) black holes have been implemented in a BEC of
511:
423:
Rozenman, Georgi Gary; Ullinger, Freyja; Zimmermann, Matthias; Efremov, Maxim A.; Shemer, Lev; Schleich, Wolfgang P.; Arie, Ady (2024-07-16).
248:
504:
66:
174:
530:
535:
497:
133:
74:
477:
381:
324:
267:
193:
31:
405:
371:
314:
283:
257:
183:
143:
43:
35:
446:
397:
340:
221:
107:
481:
436:
389:
360:"Quantum analogue of a Kerr black hole and the Penrose effect in a Bose-Einstein condensate"
332:
275:
211:
201:
148:
128:
95:
47:
385:
328:
271:
197:
358:
Solnyshkov, D. D.; Leblanc, C.; Koniakhin, S. V.; Bleu, O.; Malpuech, G. (2019-06-24).
216:
169:
138:
359:
240:
524:
424:
409:
336:
70:
287:
91:
302:
39:
17:
469:
441:
393:
279:
78:
59:
450:
401:
344:
51:
225:
206:
425:"Observation of a phase space horizon with surface gravity water waves"
319:
262:
188:
62:
376:
55:
301:
BarcelĂł, Carlos; Liberati, S; Visser, Matt (2001-03-14).
239:
Visser, Matt; BarcelĂł, Carlos; Liberati, Stefano (2002).
168:
BarcelĂł, Carlos; Liberati, Stefano; Visser, Matt (2011).
485:
303:"Analogue gravity from Bose-Einstein condensates"
114:Analog Gravity Models with Surface Gravity Waves
505:
8:
512:
498:
440:
375:
318:
261:
215:
205:
187:
160:
7:
466:
464:
241:"Analogue models of and for gravity"
484:. You can help Knowledge (XXG) by
249:General Relativity and Gravitation
25:
468:
139:Optical metric#Analogue gravity
1:
307:Classical and Quantum Gravity
73:in water; and propagation of
175:Living Reviews in Relativity
110:(a quantum fluid of light).
552:
463:
442:10.1038/s42005-024-01616-7
394:10.1103/PhysRevB.99.214511
337:10.1088/0264-9381/18/6/312
102:Bose-Einstein condensates
67:Bose–Einstein condensate
46:geometries) using other
28:Analog models of gravity
280:10.1023/A:1020180409214
480:-related article is a
429:Communications Physics
134:Transformation optics
75:electromagnetic waves
34:various phenomena of
386:2019PhRvB..99u4511S
329:2001CQGra..18.1137B
272:2001gr.qc....11111V
207:10.12942/lrr-2011-3
198:2011LRR....14....3B
531:General relativity
170:"Analogue Gravity"
144:Optical black hole
108:exciton-polaritons
36:general relativity
493:
492:
364:Physical Review B
256:(10): 1719–1734.
16:(Redirected from
543:
536:Relativity stubs
514:
507:
500:
472:
465:
455:
454:
444:
420:
414:
413:
379:
355:
349:
348:
322:
313:(6): 1137–1156.
298:
292:
291:
265:
245:
236:
230:
229:
219:
209:
191:
165:
149:Sonic black hole
48:physical systems
30:are attempts to
21:
18:Analogue gravity
551:
550:
546:
545:
544:
542:
541:
540:
521:
520:
519:
518:
461:
459:
458:
422:
421:
417:
357:
356:
352:
300:
299:
295:
243:
238:
237:
233:
167:
166:
162:
157:
129:Acoustic metric
125:
116:
104:
88:
23:
22:
15:
12:
11:
5:
549:
547:
539:
538:
533:
523:
522:
517:
516:
509:
502:
494:
491:
490:
473:
457:
456:
415:
370:(21): 214511.
350:
293:
231:
159:
158:
156:
153:
152:
151:
146:
141:
136:
131:
124:
121:
115:
112:
103:
100:
87:
84:
24:
14:
13:
10:
9:
6:
4:
3:
2:
548:
537:
534:
532:
529:
528:
526:
515:
510:
508:
503:
501:
496:
495:
489:
487:
483:
479:
474:
471:
467:
462:
452:
448:
443:
438:
434:
430:
426:
419:
416:
411:
407:
403:
399:
395:
391:
387:
383:
378:
373:
369:
365:
361:
354:
351:
346:
342:
338:
334:
330:
326:
321:
320:gr-qc/0011026
316:
312:
308:
304:
297:
294:
289:
285:
281:
277:
273:
269:
264:
263:gr-qc/0111111
259:
255:
251:
250:
242:
235:
232:
227:
223:
218:
213:
208:
203:
199:
195:
190:
189:gr-qc/0505065
185:
181:
177:
176:
171:
164:
161:
154:
150:
147:
145:
142:
140:
137:
135:
132:
130:
127:
126:
122:
120:
113:
111:
109:
101:
99:
97:
93:
85:
83:
80:
76:
72:
71:gravity waves
68:
64:
61:
57:
53:
49:
45:
41:
37:
33:
29:
19:
486:expanding it
475:
460:
432:
428:
418:
367:
363:
353:
310:
306:
296:
253:
247:
234:
179:
173:
163:
117:
105:
89:
54:in a moving
44:cosmological
27:
26:
40:black holes
525:Categories
478:relativity
435:(1): 165.
377:1809.05386
155:References
79:dielectric
60:superfluid
451:2399-3650
410:119077097
402:2469-9950
345:0264-9381
52:acoustics
288:14342213
226:28179830
182:(3): 3.
123:See also
96:Einstein
50:such as
382:Bibcode
325:Bibcode
268:Bibcode
217:5255896
194:Bibcode
86:History
38:(e.g.,
449:
408:
400:
343:
286:
224:
214:
92:Newton
63:helium
476:This
406:S2CID
372:arXiv
315:arXiv
284:S2CID
258:arXiv
244:(PDF)
184:arXiv
77:in a
65:, or
56:fluid
32:model
482:stub
447:ISSN
398:ISSN
341:ISSN
222:PMID
94:and
437:doi
390:doi
333:doi
276:doi
212:PMC
202:doi
42:or
527::
445:.
431:.
427:.
404:.
396:.
388:.
380:.
368:99
366:.
362:.
339:.
331:.
323:.
311:18
309:.
305:.
282:.
274:.
266:.
254:34
252:.
246:.
220:.
210:.
200:.
192:.
180:14
178:.
172:.
98:.
69:;
58:,
513:e
506:t
499:v
488:.
453:.
439::
433:7
412:.
392::
384::
374::
347:.
335::
327::
317::
290:.
278::
270::
260::
228:.
204::
196::
186::
20:)
Text is available under the Creative Commons Attribution-ShareAlike License. Additional terms may apply.