31:
77:
In the magnetic system, the camelback potential effect only occurs when the length of the diamagnetic rod is between two critical lengths. Below the minimum length, the magnet is hypothesized to align with magnetic field lines, hence not maintaining its orientation and touching the magnet. The
78:
maximum length is limited by the distance between the peaks of the camelback humps; thus, a rod longer than that will be unstable and fall out of the trap. Both the radius and the length of the rod determine the damping of the system. The damping is primarily due to
61:
The latter system consists of two parallel diametric cylindrical magnets, that is, magnets that are magnetized perpendicular to their axis, with the north and south poles located on the curved surface as opposed to either end. When a
102:
Hoskinson, E.; Lecocq, F.; Didier, N.; Fay, A.; Hekking, F. W. J.; Guichard, W.; Buisson, O.; Dolata, R.; Mackrodt, B. (2009-03-06). "Quantum
Dynamics in a Camelback Potential of a dc SQUID".
85:
Possible practical uses of the concept include being a platform for custom-designed 1D potentials, a highly sensitive force-distance transducer, or a trap for semiconductor nanowires.
74:
when disturbed. This arrangement, also known as a "PDL trap" for "parallel dipole line", was the subject of the 2017 International
Physics Olympiad.
50:
with a distinct dip where the peak would be, so named because it resembles the humps on a camel's back. The term was applied to a configuration of a
51:
163:
Zorin, A. B.; Chiarello, F. (2009-12-30). "Superconducting phase qubit based on the
Josephson oscillator with strong anharmonicity".
17:
289:"The one-dimensional camelback potential in the parallel dipole line trap: Stability conditions and finite size effect"
269:
71:
216:
Gunawan, Oki; Virgus, Yudistira; Tai, Kong Fai (2015-02-09). "A parallel dipole line system".
300:
235:
182:
121:
8:
47:
304:
239:
186:
125:
350:
225:
198:
172:
145:
111:
326:
318:
251:
202:
137:
149:
70:) is placed between the magnets, it will remain in place and move back and forth in
308:
243:
190:
133:
129:
43:
194:
79:
344:
322:
255:
141:
63:
330:
313:
288:
247:
34:
Graph of magnetic flux density along axis of the magnets in a PDL trap
30:
67:
230:
177:
116:
270:"A New Effect in Electromagnetism Discovered – 150 years later"
55:
101:
342:
215:
287:Gunawan, Oki; Virgus, Yudistira (2017-04-04).
162:
286:
82:, as damping is non-observable under vacuum.
52:superconducting quantum interference device
312:
229:
176:
115:
29:
14:
343:
24:
54:in 2009, and to an arrangement of
25:
362:
280:
262:
209:
156:
134:10.1103/PhysRevLett.102.097004
95:
13:
1:
88:
7:
10:
367:
293:Journal of Applied Physics
195:10.1103/PhysRevB.80.214535
46:curve that looks like a
218:Applied Physics Letters
104:Physical Review Letters
35:
27:Potential energy curve
33:
305:2017JAP...121m3902G
240:2015ApPhL.106f2407G
187:2009PhRvB..80u4535Z
126:2009PhRvL.102i7004H
48:normal distribution
40:camelback potential
18:Camelback Potential
276:. 20 October 2017.
36:
314:10.1063/1.4978876
248:10.1063/1.4907931
165:Physical Review B
16:(Redirected from
358:
335:
334:
316:
284:
278:
277:
266:
260:
259:
233:
213:
207:
206:
180:
160:
154:
153:
119:
99:
44:potential energy
21:
366:
365:
361:
360:
359:
357:
356:
355:
341:
340:
339:
338:
285:
281:
268:
267:
263:
214:
210:
161:
157:
100:
96:
91:
72:harmonic motion
28:
23:
22:
15:
12:
11:
5:
364:
354:
353:
337:
336:
299:(13): 133902.
279:
261:
208:
171:(21): 214535.
155:
93:
92:
90:
87:
26:
9:
6:
4:
3:
2:
363:
352:
349:
348:
346:
332:
328:
324:
320:
315:
310:
306:
302:
298:
294:
290:
283:
275:
271:
265:
257:
253:
249:
245:
241:
237:
232:
227:
224:(6): 062407.
223:
219:
212:
204:
200:
196:
192:
188:
184:
179:
174:
170:
166:
159:
151:
147:
143:
139:
135:
131:
127:
123:
118:
113:
110:(9): 097004.
109:
105:
98:
94:
86:
83:
81:
75:
73:
69:
66:rod (usually
65:
59:
57:
53:
49:
45:
41:
32:
19:
296:
292:
282:
273:
264:
221:
217:
211:
168:
164:
158:
107:
103:
97:
84:
76:
60:
39:
37:
80:Stokes drag
64:diamagnetic
89:References
351:Magnetism
323:0021-8979
256:0003-6951
231:1405.5220
203:118366649
178:0908.3937
117:0810.2372
58:in 2014.
345:Category
150:43819174
142:19392556
68:graphite
331:1465332
301:Bibcode
236:Bibcode
183:Bibcode
122:Bibcode
56:magnets
329:
321:
254:
201:
148:
140:
226:arXiv
199:S2CID
173:arXiv
146:S2CID
112:arXiv
327:OSTI
319:ISSN
252:ISSN
138:PMID
309:doi
297:121
274:IBM
244:doi
222:106
191:doi
130:doi
108:102
42:is
347::
325:.
317:.
307:.
295:.
291:.
272:.
250:.
242:.
234:.
220:.
197:.
189:.
181:.
169:80
167:.
144:.
136:.
128:.
120:.
106:.
38:A
333:.
311::
303::
258:.
246::
238::
228::
205:.
193::
185::
175::
152:.
132::
124::
114::
20:)
Text is available under the Creative Commons Attribution-ShareAlike License. Additional terms may apply.
