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- わんど ふじがわ
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1
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5 5 1
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7 7..5mm
8 8.1. C.1 ( ).5 ( ) ( ) 3. ( ) TEACDR-F1 khz 648frame/sec
9 9 Hot Film Probe Anemometer Stabilizer Digital Recorder Video Compressor Camera Flow Meter
10 1 Hot Film Probe Acrylic Orifice x d z L Porous Media Air Copper Tube
11 11
12 1 3
13 13 1 x(t) t i = kdt( k = 1,,3,
14 14 x(t) Takens (t) x( ti ), x( ti + τ ),, x( ti + ( m 1)) m n +1 S Q 3
15 C( r) lim N N( N 1) N i, j 1 i j = θ ( r x x i j ) θ θ ( z) = 1( z ) C( r) ν r
16 16 4
17 17.mm.5mm Hz 1.5mm.mm (cc/min) (cc/min) (cc/min) (cc/min)
18 18 V (V) 1 No.1 6 Power (db) 1 V (V) V (V) V (V) V (V) V (V) Time (sec) No.3 No.6 3 No.7 36 No.8 37 No.9 38 Power (db) Power (db) Power (db) Power (db) Power (db) Frequency (Hz)
19 19 V (V) 3 1 No.1 5 Power (db) 1 V (V) V (V) V (V) V (V) V (V) Time (sec) No No.1 75 No No No.15 1 Power (db) Power (db) Power (db) Power (db) Power (db) Frequency (Hz)
20 V (V) V (V) V (V) No..5 1 Time (sec) No No.17 1 Power (db) Power (db) Power (db) Frequency (Hz)
21 1 V (V) V (V) V (V) V (V) V (V) V (V) Time (sec) No. 15 No.3 3 No.4 3 No No.6 35 No Power (db) Power (db) Power (db) Power (db) Power (db) Power (db) Frequency (Hz) 4.1..
22 V (V) V (V) V (V) V (V) V (V) V (V).5 1 1/f Time (sec) No.8 34 No.9 35 No No No.3 No.33 4 Power (db) Power (db) Power (db) Power (db) Power (db) Power (db) f Frequency (Hz) 4.1..
23 3 V (V) V (V) V (V) V (V) V (V) V (V) 4 1/f /f /f No Time (sec) No No No No.38 1 No Power (db) Power (db) Power (db) Power (db) Power (db) Power (db) f L f L f L Frequency (Hz) 4...
24 mm
25 mm
26 mm
27 7 4. 5cc/min
28 1 8 V 1 V 6cc/min time(s) 1 1 5cc/min time(s) 1 1 V 1 3cc/min time(s) 1 1 V 1 38cc/min time(s) mm
29 9 1 V 1 68cc/min time(s) V1 1 V cc/min time(s) cc/min time(s) 4..1
30 3 V1 1 11cc/min time(s) V 135cc/min time(s) V 17cc/min time(s) 4..1
31 V cc/min time(s) V cc/min time(s) V cc/min time(s) 4..
32 3 V V 1 35cc/min time(s) cc/min time(s) V cc/min time(s) 4.4.
33 33 3.5mm.mm
34 mm 34
35
36
37 mm.mm cc/min cc/min 6cc/min 1cc/min 5cc/min 3cc/min 38cc/min 68cc/min 75cc/min 1cc/min 11cc/min 5cc/min cc/min 3cc/min 315c/min 35c/min 335cc/min 35cc/min 5cc/min 8cc/min mm 1cc/min 1cc/min
38 4.3.. cc/min 38
39 cc/min 39
40 4.3..mm (31cc/min) 4
41 4.3.mm.mm (3cc/min) 41
42 4.3..mm 4cc/min 4
43 mm (6cc/min) 43
44 mm (5cc/min) 44
45 mm (3cc/min) 45
46 mm (38cc/min) 46
47 mm (68cc/min) 47
48 mm (75cc/min) 48
49 mm (88cc/min) 49
50 mm (1cc/min) 5
51 mm (11cc/min) 51
52 mm (135cc/min) 5
53 mm (17cc/min) 53
54 54.mm (cc/min) 4.4.3
55 55 spectrogram
56 4.5 spectrogram 56
57 4.5 spectrogram 57
58 4.5 spectrogram 58
59 4.5 spectrogram 59
60 6 5..5
61 (cc/min) ~ no.3 1/ no.3 1/,1/ (b)4 3,5
62 no.6 1/ (b) cc/min 4.1. no.36
63 63 spectrogram spectrogram Ravleiah-Benard Convection T T i 1/
64 64.. Ravleiah-Benard Convection. Ravleiah-Benard Convection Ravleiah-Benard Convection Power (db) 1 E 3cc/min 4 Power (db) 1 G 36cc/min Power (db) 1 F 3cc/min Power (db) 1 H 5cc/min ABCD Ravleiah-Benard EFGH spectrogram 4 8 A, B 4 C 8 D E,F spectrogram Hz Hz
65 cc/min (cc/min) 5.1
66 (cc/min) A B C D E F 1 1~ ~ mm A 4.8(a) f 3
67 cc/min 4 5cc/min 68cc/min cc/min 1.mm
68 68.mm cc/min 5cc/min cc/min
69 69.5mm.mm πdρ cosθ θ 5.3.5mm. cosθ.mm.mm.5mm.mm F F σ b = πd cosθ = ( ρ ρ ) gv ( t) i g B F F σ σ = F b F b
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25 3 19 Erwin Schrödinger 1925 3.1 3.1.1 σ τ x u u x t ux, t) u 3.1 t x P ux, t) Q θ P Q Δx x + Δx Q P ux + Δx, t) Q θ P u+δu x u x σ τ P x) Q x+δx) P Q x 3.1: θ P θ Q P Q equation of motion P τ Q τ σδx
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