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8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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MODELING, VERIFICATION, OPTIMAL
DESIGN OF NONLINEAR VALVE SPRING
A T
F G S
U MC
I P F
R D
M S
YUCHENG SU
D. YUYI LIN, T S
DECEMBER 2009
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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T , G S,
MODELING, VERIFICATION, OPTIMAL
DESIGN OF NONLINEAR VALVE SPRING
YUCHENG SU
,
, , .
DR. YUYI LIN
DR. ROGER FALES
DR. JAMES NOBLE
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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ACEDEE
T ,
Y L, P. D, P.E.,
;
T ,R F, P.D, J N, P.D,
F
T , F H,
;
T ,
.
T L S,
T J, A, I
F
A J H,
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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ABAC
T
. T , , , . I
,
. T ,
. M
. I ,
, ,
. T
,
.
N .
I ,
. D ,
,
. F F T (FFT)
.
T
,
ABAQUSMATLAB . R
, F D
M (FDM), .
N
.
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TABLE OF CONTENTSACEDEE ....................................................... .........................................................
ABAC ............................................................................................. ............................................
ABE ................................................... ............................................................ ...............
E ............................................................ ............................................................ ..
ECAE ................................................................................................. ...........................
C 1 DC ....................................................................................................... 1
1.1 B M .............................................................................. 1
1.2 A ............................................................................. 2
C 2 DAC EA AD EACE ........................................................ 5
2.1 I G P ........................................................... 5
2.2 D E .............................................................................................. 7
2.2.1 E ...................................................... 7
2.2.2 E E ................................................... 9
2.2.3 A E ...................................................... 11
2.2.3.1 C A ...................................................................... 11
2.2.3.2 A....................................................................... 112.2.3.3 C D................................................................... 13
2.2.3.4 D................................................................. 15
2.2.3.5 A, D, C D............ 16
2.2.4 , , C.......................................... 17
2.3 ....................................................................................... 21
2.3.1 D ................................................................... 21
2.3.1.1 E D ................................................. 22
2.3.1.2 D ................................................. 24
2.3.1.3 C D ............................................. 26
2.3.2 ...................................................................................... 28
2.3.3 E ....................................................................... 28
2.4 E D ............................................................ 29
2.4.1 F F T (FFT) ................................................................ 29
2.4.2 N F ............................................................................... 32
2.4.3 S D R R ................................................. 33
C 3 EEEA E AD DEC .............................................. 35
3.1 ....................................................................................... 35
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3.2 .......................................................................................................... 35
3.3 E A ................................................................................ 35
3.4 .................................................................................................. 36
3.5 C ......................................................................................... 40
C 4 A ...................................................... ...................................................... 42
4.1 .................................................................................................... 42
4.2 D, ............................................................. 44
4.2.1 D...................................................................................... 44
4.2.2 F F ............................................................................ 46
4.3 E ...................................................................... 56
C 5 A ............................................................ ............................................ 59
5.1 .................................................................................................................. 59
5.2 A ........................................................................................................ 59
5.3 D ................................................................................................ 60
5.4 AAB .............................................................. 61
5.4.1 A........................................................................... 63
5.4.2 C D (C )........................................... 66
5.4.3 D..................................................................... 68
5.4.4 A, D, C D........................ 71
5.5 ABAAAB .................................................. 75
5.5.1 ................................................ 75
5.5.2 A........................................................................... 76
5.5.3 C D ....................................................................... 77
5.5.4 ............................................................................................ 78
C 6 CC AD E ............................................................ .... 80
6.1 ......................................................................................................... 80
6.2 ................................................................................ 81
EEECE ................................................ ........................................................... .......................... 82
AED .................................................................................... ..................................................... 84
1. C ( )....................................................... 84
1.(A) ..................................................................................... 84
1.(B) C C D............. 95
1.(C) C .......................................................................... 95
1.(D) A....................................................................... 96
1.(E) E D .............................................................. 97
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1.() C .......................................................... 97
1.() ............................................................... 97
1.() .............................................................................. 98
1.() C ............................................................................ 98
1.() D ........................................................ 98
2. C (ABAAAB ) ............................................. 100
2.(A) ............................................................................................ 100
2.(B) ..................................................................... 106
2.(C) ............................................................................ 106
2.(D) C .......................................................................... 106
3. E D ........................................................................................ 108
3.1 I D ......................................................................... 108
3.2 T F F 1368, 2165, 2372 () ............................. 1093.2.1 N I 1368 ..................................................... 109
3.2.2 O I 1368 .................................................. 109
3.2.3 N I 2165 ..................................................... 110
3.2.4 O I 2165 .................................................. 110
3.2.5 2372................................................. 111
3.2.6 O I 2372 .................................................. 111
4. E E..................................................................... 112
4.1 E ............................................................................. 1124.2 D C D ..................................................... 112
4.3 C ............................................... 113
4.4 E .............................................................. 113
4.5 E C A ............................................................... 113
4.6 DAA A........................................................................... 115
4.7 B................................................................................................. 116
4.8 .................................................................................... 116
4.9 E C .................................................................................. 116
5. ........................................................................................................ 117
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ABE
T 3.1 N ......................... 40T 3.2 T .................................................. 41
T 4.1 T ................... 42
T 4.2 T ..................................................... 56
T 4.3 T ................................................................. 56
T 5.1 T .................................................. 75
T 5.2 C
..................................................................................................................... 79
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E
F.1.1 T [F, 2007] ......................................... 3
F.1.2 T [F, 2007] ........................................... 4F.2.1 T .................................... 6
F.2.2 F .................................................. 8
F.2.3 H [C, 1961] ........................................ 12
F.2.4 A ...................................................... 14
F.2.5 I [C, 1961] ........................................................ 18
F.2.6 C ..................................................................................................... 20
F.2.7 C .............................................................................................. 20
F.2.8 T ................................................... 20
F.2.9 T ........................................................................ 22
F.2.10 T ............................................................................ 23
F.2.11 T ............................................................................ 25
F.2.12 T CN ............................................................. 26
F.2.13 T ................................... 29
F.3.1 T ...................................................... 36
F.3.2 T .............................................................. 37
F.3.3 T .................................................... 37
F.3.4 D F M [K, 1989] ....................................................... 38
F.3.5 S [B, 2008] ........................................... 39
F.4.1 T
............................................................ 43
F.4.2 T ................................................................................................. 44
F.4.3 T , 1368 ............ 45
F.4.4 T 8, 21, 34 2372 .......................... 45
F.4.5 T 5 ............................................................... 46
F.4.6 A 1368 ............................ 49F.4.7 A 1368 .................................................... 49
F.4.8 T 1368 ......................... 50
F.4.9 T 1368 ..................... 50
F.4.10 A 2165 ....................................................... 51
F.4.11 A 2165 ................................................... 51
F.4.12 T 2165 ........................ 52
F.4.13 T 2165 ................... 52
F.4.14 A 2372 ....................................................... 53F.4.15 A 2372 ................................................... 53
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F.4.16 T 2372 ........................ 54
F.4.17 T 2372 ................... 54
F.4.18 T ....................................................... 55
F.4.19 T 1368
................................................................................................................... 55
F.4.20 T ............................................................. 57
F.4.21 T ................................... 57
F.4.22 T .............................................................. 58
F.4.23 T ......................................................... 58
F.5.1 T .......................................................... 63
F.5.2 T .............................. 65
F.5.3 T (
) ...................................................................................................................... 65F.5.4 T .......................... 67
F.5.5 T (
) ...................................................................................................................... 68
F.5.6 T ...................... 70
F.5.7 T (
) .................................................................................................................... 70
F.5.8 T ............................. 73
F.5.9 T .......................... 73F.5.10 T .............................. 74
F.5.11 T
( ) ............................................................................................................ 74
F.5.12 F ............................ 76
F.5.13 T ABAQUSMATLAB
(O ) .................................................. 77
F.5.14 T ABAQUSMATLAB
(O ) .................................................. 78
A 3.1.1 S ................................................................. 108
A 3.1.2 S .............................................................. 108
A 3.2.1 F 1368 ................................... 109
A 3.2.2 F 1368 ............................... 109
A 3.2.3 F 2165 ................................... 110
A 3.2.4 F 2165 ............................... 110
A 3.2.5 F 2372 ............................... 111
A 3.2.6 F 2372 ............................... 111
A 4.3 P S T ................................................................... 113
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ECAE
: spring force, a function of time and displacement: spring rate, a function of time and displacment: the displacemnt of spring for one end when the other end is ixed:coil radius of helical springs,a function of helix length,s:coil diameter of helical springs,a funciton of helix length,s: wire diameter of helical springs:pitch angle: variable pitch angle: variable wire diameter
: variable coil diameter: coil turns: shear modulus: polar moment of inertia of wire cross section:Youngs Modulus: area moment of inertia:area moment of inertia with respect to x axis:area moment of inertia with respect to y axis
: the arc length along the spring helix:time: mass moment of inertia:mass per unit length: density of spring materialtotal helix length: the clashed mass of wire segment
:curvature of the helix,a function of time and location,s,t
:torsion: rotation of wire in radians: the torsional strain energy: the irst bending strain energy: the second bending strain energy: the rotary kinetic energy: the radial kinetic energy
: the translatonal kinetic energy
:the damping force per unit length of the wire per unit of velocity: wave speed along the helix
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: the instant acceleration: the same as x: the mass of wire segment to be deformed: curvature change
:torsion chagne:rotation change: the coeficient of restitution:the viscous damping coeficient determined by the measurement : the coeficients of Fourier Series:fundamental frequency 2
: number of harmonics
: period of cyclic motion
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1
C 1
1.1 B
T 300
, H [1678] :
(1.1)T . I
. J. H.
M [1890] . H L ,
. E
C
. L [1944]
J.H. M . H,
L . W [1935]
. T
T [1951, 1956] W [W, 1935].
T [1963] TB ,
. D
, A G [1958]
. A
.
W [1963] 50 ,
1930 1950.
T . I
,
, .
T
. F.1.1 1.2
. U,
5000 RPM. T,
4800 RPM ( C 5).
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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2
A L [1989],
. A ,
. W [1963]
,
. P F [1983]
. T
[L, 1987]
H P . T L
20 ,
, .
1.2 A U H P
,
, .
F ,
.
T, . C O
, . M
, .
C T ,
. I
,
. I
,
. I ,
,
. T
,
.
C T . F
. F
F T .
S ,
,
.
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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3
C F
. E
. T ,
. T
C T.
C F . T
MATLAB
C T. T MATLAB
, ABAQUS. T,
,
, ,
, .
C S , ,
.
A C S
. E
ABAQUSMATLAB .
F.1.1 T [F, 2007]
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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4
F.1.2 T [F, 2007]
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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5
C 2 D E
2.1 A . F
, . I
, . A
. D, ,
,
( ) ( ). T
. T,
, ,
. T
F.2.1. I ,
. T
. I
.T
. T
. T
,
. A
,
. T
[L, 1989].
I F.2.1,
, , . T ,
, . T ,
[G, 1988; K, 2006]. I ,
.
G
. T
, FS
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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,
, L
T
A
, , 0
F.2.1 T
6
[L, 1988]. B
K
, , , ,
, cos, sin , , ,
, , ,0 . L [1988
. I
.
:
(2.1)
(2.2)
(2.3)
,
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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7
2.2 D ES
. W [1963]
. T . A, P
F [1984] ,
. F ,
. T
.
2.2.1 E T ,
N 2
L A 1707.
(2.4)A . F
, [L,
1927; J, 1972; P F, 1984]. I W [1963],
,
. F
F.2.2.
T
4 (2.5)T :
8 (2.6)I ,
1. I 2. A 3. D 4.
D
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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8
T, :
(2.7)
S
T
4 2 (2.8)W, .
F.2.2 F
T . F
, , ,
, . I ,
. T
[W, 1963]. A , E (2.8)
. T
. I ,
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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9
, ,
. I , ,
P F [1984].
2.2.2 E E T
, H . P
. I ,
, , . O
, , ,
. D ,
. A ,
[L,
1987]. L . T
. I ,
. B
. I
, , ,
. T
12 , (2.9) , ,0 (2.10)
12
,
(2.11)
A , . I ,
. W ,
. I . S . T . T
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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10
12 , (2.12)
12 ,
(2.13)
12 , (2.14)A , T . T T . B , ,
,
4
A ,
,
4
(2.15)
W, .
E. (2.15)
. A 15 . F ,
. I ,
. A W [1963].
4 14 4 0.615 T ,
. E. (2.8) , .
I , E. (2.15)
E. (2.8), . T
SECTION.2.2.3.3.
I , . F ,
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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11
E. (2.15), E. (2.16)
. T
L P [1987].
4 4 (2.16)
2.2.3 A ET ,
, ,
.
2.2.3.1 C AE. (2.8) W [1963]
. F , . I
E. (2.8), E. (2.15) .
2.2.3.2 AA ,
E. (2.8) (2.15). I , E. (2.16)
, J. A , . W
.
M .
T . I
, F 2.3,
. A ,
.
T,
, ,
[C, 1961].
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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12
F.2.3 H [C, 1961]
S
12 (2.17)W A , K and x,
8 and 8A E. (2.17) :
4 (2.18)F F.2.3,
,
,
I =
4 4 16 16 8 2
W, is mass of wire segmentT
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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13
(2.19)T E. (2.19) F.4.1. W ,
3 2 (2.20)A F.4.1. S E.
(2.20) ,
2 I (2.16)
4 2 4 (2.21)
2.2.3.3 C DA [N, 2007],
, . T
F O . T
S S. T, F O
. F G P ,
18,000 ,
. I
. T ,
. T
F.5.4
and /2 (2.22)I E. (2.21) ,
. T
. T M I . T
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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14
. T . T
:
: A
: A
F.2.4 A
T O
. T
. B P A T,
:
F
64 32
S E. (2.21), :
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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15
8 /
B,
,
2 (2.23)
T
4 2 s 2 (2.24)F ,
; , E. (2.16)
. A
, E. (2.8)
E. (2.16). T ,
. F , 95
. A , E. (2.8)
.
in eq. 2.8 2/
in eq. 2.16
4
/
2
/
2.2.3.4 DL [1993]
. I ,
. T
, . I
O ,
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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16
, ,
. T ;
, . T
F.5.6
(2.25)T E. (2.24) E. (2.25)
:
(2.26) ,
, , , 0,0,0,I ,
, , , 0,0,0,E. (2.26) ,
, , . F
, .
2.2.3.5 A, D, C DE. (2.26) , ,
. A
,
. I O , . F
, ,
, (2.26) . C
:, , , 0,0,0,A , :
, , , 0,0,0,A , :
, , , 0,0,0,
L O , E. (2.26)
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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17
.
2.2.4 , , CD ,
. T [W, 1963]
cos sin (2.27)E. (2.27) . I
, ,
. A , E. (2.8)
[W, 1963]. A
, E. (2.27)
. F , L
[1987]. H H , .
cos sin 12 (2.28)T .
H, F , F
D M F E M . I
S , MATLAB F D
M CN M.
I , . F ,
(
). T
. F
, . W , . B ,
, . T
F 2.5.
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18
F.2.5 I [C, 1961]
T . I 1,
,
. W 2, .
T 2 3 . W
2 3, . I ,
1 2 2 3 , ,
W, M , . H E. (2.28)
cos sin (2.29)F ,
, F.2.7, . B,
, , ,
. I , , . T . I ,
, ,
. I ,
. T ( SECTION.2.4.2).
T S ( F3.3). C
F.2.6 F.2.7. T
[R, 2004]. T
F.2.8. T A, B. T A
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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19
. T A V, B V; W A
B, [G, 1988]
1
1 I
= 1,
12 12 2 2
A , . T
B , A . T
S E. (2.29),
cos sin (2.30)
W , (2.30) ,
, . E. (2.30)
.
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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20
F.2.6 C
F.2.7 C
F.2.8 T
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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21
2.3 2.3.1 D
B ,
. H,
,
. H
FD, FEM,
.
T
, . T
. F
s , . T ,
,
. B,
: . T ,
. T
:
F D:
B D:
C D:
12 12 W : F.2.9
T, P D E ,
,
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. A
CN
E M F 0 > F > CN > G
1 > B
F
()
(
2.3.1.1 E U
F. , F D
F
S
22
[C, J P N
. I , R [1984]
,
D M.
>
>
>
>
, CN F D
E. (2.26). H,
1/2) [T, 1995].
D
.9. T . F
M,
.2.9 T
( F.2.10)
, 1947],
F
. T .
E. (2.26),
8/12/2019 MODELING, VERIFICATION, OPTIMAL DESIGN OF NONLINEAR VALVE SPRING
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23
, 2, , , ,2 , 2, , W,
2 / 4 2
F.2.10 T
I
. F F.2.10
,; , . H, ,
. E ,
, , , , , (2.31)W,
1 2 1 2 1 2
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24
2 2
1 2
1 2
ys, 0 fsand , gs = 0
y0, t 0 at s 0 and y, t htat s H,
,
,
[T, 1993]
1 (2.32)
2.3.1.2 D T
. T
,
,,, . I , . S
( F.2.11) E. (2.26),
,,, ,, ,,,
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25
F.2.11 T
E ,
y, ky, , , , (2.33)
W,
1 2
1 2
2
ys, 0 fsand , gs = 0
y0, t 0 at s 0 and y, t htat s
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26
2.3.1.3 C D T CN
( F.2.12). I ,
,,, ,, ,,, ,,,
F.2.12 T CN
T
, , , ,. I y, , , , , , , W
1 2
12
1 212
2 4 12
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27
ys, 0 fsand , gs = 0
y0, t 0 at s 0 and y, t htat s I ,
,
, , , (2.34) , , , , T t
1 10 1 0 00 0 0 0
1 0 1
,,,,
A
U ,
(2.35)
W,
,
,,,,
and
1 10 1 0 00
0
0 0
1
0 1
B , . W
, .A . I
, . I ,
, ,
. D ,
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28
CN F D M
. W
. E
,
;
, E. (2.20)
,W is space index in the grid is space step
I MATLAB,
. T ,
. F CN , 2.5
, 5
, E. (2.27).
2.3.2 T F S, , PDE.
S . I ,
F D M. B
, ys, t fsgt, ODE, (), (). N . F, F
, F [K,
2006]
ys, t e a coswt bsin wt sin nl s
H,
. H, .
2.3.3 E S FEM ,
FEA . W FEA (ABAQUS)
. T
. I . O . W ,
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29
. B
,
[S, 2003].
1.
2. 3.
I O ,
, ABAQUSMATLAB .
2.4 E D
2.4.1 ()
S,
. A ,
. T
,
. I , ,
[N, 2007]
F , F F T (FFT)
. T
. I O ,
. I ,
F.2.13. T
FFT , .
F.2.13 T
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T
[T, 1993]
A F F T (FFT)
D F T (DFT); FFT
. I , FFT
. I ,
.
T [T, 1993]
sin (2.36)
: the valve lift curve
: the coeficients of Fourier Series
:fundamental frequency 2 : number of harmonics: periodic motion of periodF , aand b
2 //
2 // (2.37)
. A ,
|C| a b
tan
ba
I ,
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. F .
E. (2.36) [K, 2006]
cos
sin
sin
I [W, 1963]
sin sin2 sin W
12 1
2
~: the amplitudes of these harmonics ~:phaseA .
B, .
S
12
12 E. (2.36),
2 12 12
A N ,
1
|| (2.38)
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H E. (2.38) F.4.8,
. T . A ,
1
F.4.8
[W, 1963]. T
. I O , E. (2.26), (2.30), (2.34) (2.38)
SQP .
2.4.2
T G G
1602. H,
J R 'A, L E, D B,
JL L. T ,
H 1887. A ,
.
I ,
, ,
. T
, . I
,
. T ,
, .
W ,
.O ,
. A
. I ,
. B ,
(R F.4.19
SECTION.3.2.2). T
[G G, 1602]
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2 (2.39)A
[L, 1987; L G. M, 1988]:
2 , 1 , 2 , (2.40)I [SMI, 2002]
2 2 2 2 (2.41) = 1
2.4.3 D
T
. V
. [C, 1961; W, 1963; P, 1990; K, 1991; N,
2007]
D , . F,
, . T
,
. T
.
T
. A,
.
C . S , ,
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. T
,
. I ,
.
V , , . H,
.
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C 3 E D
3.1 V
S (C 4). T
. I
. T
. T
. T
S
, . I ,
. T
. O
,
. .
3.2 T , WDAQ (A 5),
W . T
,
. E
.
T EXCEL . MATLAB
EXCEL
WDAQ.
3.3 E AT (1987 GM & I
1.5L), AC
, . A
, , . T F.3.1.
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F.3.1 T
M
. T
40 . T
(A 4.3). T :
GM&ISUZU E (A 4.1)
D C D M (A 4.2) O P O S P G C (A 4.9) O T P (A 4.8) VB (A 4.7) M O CT P S T (A 4.3) KISTLER F T (A 4.4) KISTLER C A (A 4.5) DATAQ (A 4.6)
3.4 A
, F.3.2. A
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,
. T
.
W ,
F.3.4. T
. T . T
F.3.5. I
MOSFET JFET . T
[K, 1989]
11 1
(3.1)
: transducer capacitance:cable capacitance: rangefeedback capacitor: time constant resistor
: insulation resistance of input circuit
:charge generated by the transducerinput charge: output voltage
F.3.4 D F M [K, 1989]
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F.3.5 S [B, 2008]
B , E. (3.1)
,
(3.2)
F A 4.5, S C A,
.T ,F 6000N . T
[B, 2008].
5000 10 6000 (3.3)
8 ? (3.4)
T , 10 ? (3.5)
C (3.3) (3.5), .
(3.6): output voltage
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:range capacitor: the gain of charge ampliier:the ratio of the full voltage in the acquisiton and the standard full voltage :the maximal charge in standard full voltage
:the maximal force in standard full voltageS A 4.4 4.6, E. (3.7)
103.68Newton (3.7)E A 3.2.
M . O
. T .
T DATAQ A 14400 H. N D
E. (3.8). D 1368
632 , 2165 399. T
T.3.1.
Data points sample rate 60 mincamshaft speedrpm (3.8)
T 3.1 N
C S() D P
1368 632
2165 399
3.5 C T 4 ,
(A 3.1.1 3.1.2). T
T 3.2. T 1368 2165
A 3.2.1 3.2.4. T 2372 L
[2006] A 3.2.5 3.2.6. T
(A 4.2) 3450 . D
(A 4.8). T
r 1 w 1 r 2 w 2
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w 2 w 1 r1r2
w1 ,
r1 ,
w2
, r2 T 3.2 T
G C S() S I D
1 1368 N
2 1368 O
3 2165 N
4 2165 O
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C 4
4.1 T
, E. (2.35),
H P
.
A (A 1) MATLAB,
5 (INTEL C S
T1350, DRAM= 1GB, CPU= 1.86 GH).
O
, 1368, 2165 2372 . T 4.1
. F.4.1
, . I
,
. H,
y, t ht spring installed lengthcam proileF.4.2 . A . I ,
. I (
SECTION.2.2.1). F4.1 4.2
T 4.1.
T 4.1 T
T V
D( ) 0.0255
( ) 0.004
O F H 0.0485()
P H(
)
0.0399()
P H(
)
0.0386
S 0.024
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D
( )
M D
7860
S M 77.9G
C () 1368, 2165, 2372
D (1368) 60.7462(N./)
D (2165) 30.3731(N./)
D (2372) 70.8705(N./)
T 0.000015()
S (N) 0.01()
F.4.1 T
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F.4.2 T
4.2 D, 4.2.1 DT . F.4.3 = 0 = 0.0704 () 1368 . F.4.4
8, 21, 34. T
( SECTION.2.3.1.3,
). F.4.5 F.4.4,
, ( E. (2.19) (2.20). T
,
. T
O (C 5) 5
. T
. F , E V
(C 4). I ,
[L, 1987, 1989 2006].
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F.4.3 T , 1368
F.4.4 T 8, 21, 34 2372
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F.4.5 T 5
4.2.2 R
. R
. R ,
. T ,
13
. A 15
.
F ,
: 1368, 2165 2372 . T
. N ,
,
. T F.4.6, 4.7, 4.10,
4.11, 4.14 4.15. I
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, .
I , . H
E. (2.23.2) (2.27).
I , SECTION.2.4,
FFT . T ,
FFT ( SECTION.2.4.1). T F.2.13. T
F.4.8, 4.9, 4.12, 4.13, 4.16 4.17. T
. A
1368 , 2165
2372 . A ,
. T
[W, 1963;
P, 1983; L, 1993; R, 2004; S, 2004]. I F.4.8 4.9, 19
,
the fundamental natural frequency 136860 min 19433.2HertzF, .
F.4.19 1368 . T . B
,
. I 19
[T, 1993]. A ,
19
.
T
. I F.4.12 4.13, 12
,
the fundamental natural frequency 216560 min 12 433HertzI F.4.16 4.17, 11
,
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the fundamental natural frequency 237260 min 11 434.86Hertz
T 433 434 (H). I ,
, F.4.18. T
T 4.2. B , ,
E. (2.39 2.41), . T
,
.
the fundamental natural frequency 2 2 423.29Hertzthe fundamental natural frequency 12 423.21Hertzthe fundamental natural frequency 2 422.02Hertz
where 79 10,7860 ,0.004,0.0255,and 0.42, other parameters: Table 4.1I , (
) ( )
. T
. T 4.3 . I
O ,
(SQP).
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F.4.6 A 1368
F.4.7 A 1368
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F.4.8 T 1368
F.4.9 T 1368
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F.4.10 A 2165
F.4.11 A 2165
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F.4.12 T 2165
F.4.13 T 2165
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F.4.14 A 2372
F.4.15 A 2372
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F.4.16 T 2372
F.4.17 T 2372
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F.4.18 T
F.4.19 T 1368
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T 4.2 T
C () E N N F (H)
1367 19 432.88
1443 18 432.9
1528 17 432.93
1624 16 433.06
1732 15 433
1856 14 433.06
1998 13 432.9
2165 12 433
2362 11 433.03
2598 10 433
2887 9 433.05
T 4.3 T
G C
S()
I
D
A
(P S)
1 1368 N 4983.67
2 1368 O 7133.64
3 2165 N 4807.59
4 2165 O 6079.23
5 2372 N 6924.64
6 2372 O 8340.4
4.3 E
I , FEA ABAQUS,
. F.4.20 ,
. F.4.21 150 N
. T
9.4 10Pa. T , F.4.22, 4.23. F.4.22 3.31 10Pa . A W [1963], . F.4.23
5.01 10Pa , .D .
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F.4.20 T
F.4.21 T
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F.4.22 T
F.4.23 T
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C 5
5.1 A
. A
. S
: , ,
. T
. T , ,
,
. T
ABAQUS SECTION.5.5.
5.2 AF ,
(SQP) . F , (QP)
BFGS H
L. T QP
(SQP). T
, .
W [V, 1984; A, 2001;
V, 2002]
1. S =0, , , , , . L QP . S
0 1
L
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, L ,
T .
2. A
, . H, , 3. U , , 2 , , , .
4. C 1 and 2.
I .
5. C ,
.6. S , , , .L . U = + 1 2.
T
. I
. M
.
5.3 DF , MATLAB
. I MATLAB,
SQP, QN,
. T
. T ,,
. T ,,
N
. T
,. A , QP
. O
MATLAB.
T FFT MATLAB ( ), C. I ,
a
b (
SECTION.2.4). P :
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C a b S .
5.4 AABI , F F T
. I . F
, E. (2.38),
, .T ; , . I , 5
F F T. T
.
5 , 5 ( ) is 0,1,2 N 1T
1 5,1
1 , , (5.1)
is space step, is time step, is total samples, is the harmonic number, is time index in the grid, is space index in the grid.S E. (2.34) E. (5.1),
1 ,
. (5.2)
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T , , , , , ,
,
,
,
,
,
,
,
,
,
,
,
8 ( ),T E. (5.2) :
total sample time stepis 0.000015 sec, camshaft speedis 2372 rpm, time of one cycleis 0.02529511 sec.T
0.025295110.000015 1686.A ,
, , , , , , , , , , ,
the power spectral amplitude on the excited harmonic number
120230 (5.3) 0.03850.0387. (5.4)I ,
. I , . I ,
(A 4.1) . F
.
1. V P A2. V C D (C S)3. V W D4. V P A, V C D, V W D
I C, (E. 5.2) (E. 5.3 5.4)
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. F
, . T
F.5.1.
F.5.1 T
5.4.1 AA . O
( ) ,
. I ,
,
0 , 0 , 0 , 0.004
0 , 0 , 0 , 0.0255
, , , 8 ( ).
F SQP,
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0.2187, 0.1716, 0.0585, 0.00009.T
. B (5.3) (5.4),
, , , , E. (2.20). 0. 4 0 0. 2 0.3 0. 1 0.1 0. 1 0.1A ,
0.268699 , 0.145742, 0.079511, 0.000198, F.5.2 . T
159.11 (N). I
182.63(N), . F.5.3
. I ,
. T
11 6911. I 6924,
. H .
A [W, 1963; F, 2007],
. I ABAQUSMATLAB ,
SECTION.5.5.1. I ,
. I
SECTION.5.6.
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F.5.2 T
F.5.3 T (
)
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5.4.2 C D (C )C
. T
, . C
. E
.A H S
D [SMI, 2002], .
S V G R N
I ,
,
0.2187,
0.1716,
0.0585,
0.00009,
0 , 0 , 0, and 0.004.T E. (2.22),
, , , , 8F SQP,
0 , 0 , 0 , 0.0255.B (5.3) (5.4), :
0.0003 0.00020.004 0.0050.006 0.0040.022 0.029A , :
0.000198, 0.004731, 0.004397, and 0.02345.
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F.5.4 . F ,
. M 195.52(N)
. F.5.5
. T 13
3378. T 11 6924. T
51.22 .
F.5.4 T
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F.5.5 T (
)
5.4.3 DB, . T
, . T
.
T F G R S D
I ,
,
0.2187, 0.1716, 0.0585, 0.00009, 0 , 0 , 0, and 0.0255.
T E. (2.25),
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, , ,
8
F SQP,
0 , 0 , 0 , 0.004B (5.3) (5.4),
.
0.0001 0.0003
0.004 0.008
0.004 0.0020.0035 0.0048A ,
0.000111, 0.005998, 0.001993 ,and 0.0046.F.5.6 . T
0.004 . T .
F , 166.78(N)
. F.5.7 . T
13
2752.11. I
6924. T
60.25 .
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F.5.6 T
F.5.7 T (
)
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5.4.4 A, D, C DT, . B
,
. T , ,
. T
. I
.
S V G R
D , ,
E. 2.20, 2.22 2.25,
, , , , , , , , , , , , 8F SQP, ,
0.2187, 0.1716, 0.0585, 0.00009, 0 , 0 , 0 , 0.004, 0 , 0 , 0, and 0.0255.B (5.3) (5.4), :
0. 4 0
0. 2 0.3 0. 1 0.1 0. 1 0.10.0001 0.00030.004 0.0080.004 0.0020.0035 0.0048
0.0003
0.0002
0.004 0.0050.006 0.004
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0.022 0.029A , :
0.279762, 0.149103 , 0.091418 , 0.001535
0.000072 , 0.000363 , 0.002625 , 0.004683 0.000231 , 0.001972 , 0.003628 ,and 0.028783.F.5.8 F.5.2.
F.5.9
F.5.4. F.5.10 . A
[W, 1963; S, 2004]],
, .
T
. I ,
[W, 1963]. T
129.16(N) , . I
F.5.9 5.10. F.5.11
, 2159.9 13
. A .
T 68.8 . I ,
, 10 . L
[, , , , , , , , , , , 10%, :
[, , , , , , , , , , , = [0.2518, 0.1640, 0.1006, 0.0017, 0.0001, 0.0004, 0.0029, 0.0052, 0.0002, 0.002,
0.0040, 0.0317]
T 3129.61.
I , :
[, , , , , , , , , , , = [0.3077, 0.1342, 0.0823, 0.0014, 0.0001, 0.0003, 0.0024, 0.0042, 0.0003, 0.0018
0.0033, 0.0259]
T 4944.26. T . H,
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10 ,
30 . A ,
.
F.5.8 T
F.5.9 T
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F.5.10 T
F.5.11 T
( )
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F ,
, . F ,
, , . T
, . T
, ,
. T
,
2372 rpm60 secmin 13 th 514 Hertz.T 5.1 .
T 5.1 T
W
()
M. S
S F
(N)
T
T
()
O 0.0415 182.63 6924.64 11
V. P 0.0415 134.11 6911.68 11
V. C. D 0.0415 195.52 3378 13
V. W D 0.056 166.78 2752.11 13
V. P, W, C D 0.0738 129.16 2159.9 13
5.5 ABAAAB 5.5.1
T
. T
SECTION.5.4.1 5.4.4
ABAQUSMATLAB . T MATLAB
SECTION.5.4,
ABAQUS. T
F.5.12. T , ,
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. A
. T
SECTION.5.4.
F , ,
.
F.5.12 F
5.5.2 AT SECTION.5.4.1
433 (H) ABAQUSMATLAB . T
F.5.13 436 H.I
. A
. T
,
. V
, ,
( SECTION.2.4.4).
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F.5.13 T ABAQUSMATLAB
(O )
5.5.3 C DT SECTION.5.4.2 MATLABABAQUS
. T F.5.14
510 H F.5.5. I ,
,
. T
.
I ,
. H . W
13
[SMI, 2002]. T
engine speed red line2 rpm 160 minsec 1 3th fundamental natural frequency.
T 433 (H),
4006 (). T
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514(H),
4726 (). I 700 ()
.
F.5.14 T ABAQUSMATLAB
(O )
5.5.4 A ABAQUSMATLAB
SECTION.5.4, ,
. A , , ,
. T ABAQUSMATLAB
,
. A
FEA . C ,
FFT
. T
T 5.2.
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T 5.2 C
O
D
O P N
(H)
P
V P
A 0.268699 0.145742 0.079511 0.000198433 O
P
436 ABAQUSMATLAB
P
V C
D
0.000198 0.004731
0.004397
0.02345
514 O
P
510 ABAQUSMATLAB
P
V. W D R SEC.5.4.3 514 O
P
X ABAQUSMATLAB
PROGRAM
C R SEC.5.4.4 514 O
P
X ABAQUSMATLABPROGRAM
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C 6 C
6.1
1. T . T
, ,
.
2. F D .B CN
, . W
, ,
. F
MATLAB, CN
. I , .
W ,
.
3. F , F F T (FFT) . B
,
. I O ,
. T
68.8 .
S , ,
52 . T , GMISUZU 1987 , 433 H.
4. T ,
, . I
13
( )
2200, 512 H.
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5. ABAQUSMATLAB , F D
.
6.2 1. D
, ABAQUSMATLAB
O . I ACIS
3D M 3D . F
, . I ,
3D ACIS
ABAQUS. T
, .
2. T F F T. F
[L, 2009],
. I
, .
3. A , , ,
. I
,
,
.
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82
A, C. J. J. G, J. N., P C C H S,
ASME, 1958A, J S., I O D, MGH, 2001
B, R H., M S, S, A, CRC P, 2008
B, A H, 2007
C , N P., S D A, MGH, 1961
C, J P N, A
, P.
C. P. S, 1947
F, A, , V J P U D S D
A V T, M M T P, 2007
G, D T., P D, P H, 1988
J, W., , N L, S ,
P 30
AIAA/ASME/ASCE/AHS/ASC S, S
D M C, 1989
KISTLER, KISTLER PI, 1989
K, E, A E M, W, 2006
K, T, , A S J B V T, SAE, 1991
L, L L, Y, S A O CS D N
S W, ASME, 1994
L, Y H, D, D M E V
H S V P, CCAMMS, 2006
L, Y, , O D R S H S, ASME,
1993
L, Y J, S, D M S V P,
S I T S, 1999
L, Y P, A P., G D E H S WS S E V, ASME, 1987
L, Y P, T D D H S
, ASME, 1989
L, H. K, D., EFFECTS OF END COILS ON THE NATURAL FREQUENCY
OF AUTOMOTIVE ENGINE VALVE SPRINGS, I J A
T, 2009
L, A. E. H., A , D P,
1944M, I G., V W P, C U P, 1988
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M, J.H., T
, M. M, 1890
N, M J, L , T &
E, 2007
P, F, H F S: M, C, E,
A I A & A, 2007
P, R.S., D A V S W CF D,
ASME, 1990
P, A. P. F, F., A E A I
D R HS CF S P 1:
E I, ASME, 1983
P, A. P. F, F., A E A I
D R HS CF S P 2: A C,L/D D M, ASME, 1983
R, J. N., A I T T F E M, MGH, 1984
R, H A., C D H, MGH, 2004
S, T, , E P A D S H
S, JSME, 1986
S, M., , FEM S, JSSR, 2003
SMI, H S D, 2002
T, J. W., N P D E: F D M,A M, 1995
T, W., T, P. G., T N P, O, 1883
T, W T., T V A, P H, 1993
T, S, T E, MGH B C, I., 1951
T, S, S M, D. N C, I., 1956
T, S, T E S, MG H, 1963
V, G N., N O T F E D
A, MGH, 1984
V, P., A O MATLAB P,
WI, 2002
W, A. M., H C T , J. A. M., 1935
W, A. M., M S, C O, P P CO, 1963
W, H F., A
, D, 1995
W, R, C V, D E, MGH, 1974
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A
1. C ( )1.(A)
%
%
%1:
%2: 15%
%3:
%4:
%5:
%6:
%7:
;
;
('T C F D M\');
G = 779; %
= 7.863;%
= 0.004; %
= 0.01275; %
D = 2*; %
J = 2.6211; %
= 0.3; %
= D/; %
= 0.0386; %
= 0.024; %
= 1 /; %
L = 0.42; % = 2400; %
= (1+)*G*J; % G J E I
= *(*.2/4*L); %
= 8; %
= *L/; %
= /(2*D*L)*(G/2/); %
= ((G*.2)/(*(8*.2+.2))); %
F = 10; %
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= *((5*/180)/(6*/180)/).2;%
= *.4*G/(8*D.2); % 1 L
= (4* 1)/(4* 4) + 0.615/; %
1 = /(*D*5); %
%
('T : %9.4()\',D);
('T : %9.4()\', );
('T : %9.4()\',);
('T : %9.4()\',);
('T : %6.2(/3)\',);
('T : %9.4()\',);('T : %9.4(N/)\',1);
('T : %9.4(/)\',);
('T : %6.2(/)\',);
('T : %7.2()\',);
('T : %7.2()\', );
= 0.01; %
= 0::L; %
= (); %
= 0.000027; %
= /60; %/ / 60 = /
= 0::(1/*4); %
1 = 0::(1/); % '
= (); %
= */; %
('T :
%6.4 \',);
(
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%
%
= [0.2187 0.1716 0.0585 0.00009]; %
= (L,); %
%
= 0.15;
= [0 0 0:0.00001:*];% 10%
= ((),);
(1,:) = (1).*.3+(2).*.2+(3).* +(4); %
(,0) = ()
= (1,:); % (:,1) = 0; % = 0
(:,) = (1,) ;
(2,:) = (1,:); % (,0) = ()
%
= 3*(1).*.2+2*(2).*+(3);
= 1; = 1;
%
(' ....\');
(
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L = ();
= ()/L;
;
= (,);
(1,:) = *;
= (1,,);
= [ 0 0 0 ];
= (1:()3);
(:,) = (1,) (:);
(2,:) = (1,:); % (,0) = ()
1 = ;
= 1;
1;
% ,
% ,
01 02 03 04 05 06 07 08 09 10 11 12 13 14 15 16 17
18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36
37 38 39 40 41
(
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07 = (//).2.*2.*(07 2*(+1,8) + (,8)) ((+1,9) 2*(+1,8) +
(+1,7)) (08 2*07 + 06) + /*(/).2*(07 (,8)) +
2*(/).2*F*08/L;
08 = (//).2.*2.*(08 2*(+1,9) + (,9)) ((+1,10) 2*(+1,9) +
(+1,8)) (09 2*08 + 07) + /*(/).2*(08 (,9)) +
2*(/).2*F*09/L;
09 = (//).2.*2.*(09 2*(+1,10) + (,10)) ((+1,11) 2*(+1,10)
+ (+1,9)) (10 2*09 + 08) + /*(/).2*(09 (,10)) +
2*(/).2*F*10/L;
10 = (//).2.*2.*(10 2*(+1,11) + (,11)) ((+1,12) 2*(+1,11)
+ (+1,10)) (11 2*10 + 09) + /*(/).2*(10 (,11)) +
2*(/).2*F*11/L;
11 = (//).2.*2.*(11 2*(+1,12) + (,12)) ((+1,13) 2*(+1,12)+ (+1,11))(12 2*11 + 10) + /*(/).2*(11 (,12)) +
2*(/).2*F*12/L;
12 = (//).2.*2.*(12 2*(+1,13) + (,13)) ((+1,14) 2*(+1,13)
+ (+1,12)) (13 2*12 + 11) + /*(/).2*(12 (,13)) +
2*(/).2*F*13/L;
13 = (//).2.*2.*(13 2*(+1,14) + (,14)) ((+1,15) 2*(+1,14)
+ (+1,13)) (14 2*13 + 12) + /*(/).2*(13 (,14)) +
2*(/).2*F*14/L;14 = (//).2.*2.*(14 2*(+1,15) + (,15)) ((+1,16) 2*(+1,15)
+ (+1,14))(15 2*14 + 13) + /*(/).2*(14 (,15)) +
2*(/).2*F*15/L;
15 = (//).2.*2.*(15 2*(+1,16) + (,16)) ((+1,17) 2*(+1,16)
+ (+1,15)) (16 2*15 + 14) + /*(/).2*(15 (,16)) +
2*(/).2*F*16/L;
16 = (//).2.*2.*(16 2*(+1,17) + (,17)) ((+1,18) 2*(+1,17)
+ (+1,16)) (17 2*16 + 15) + /*(/).2*(16 (,17)) +
2*(/).2*F*17/L;
17 = (//).2.*2.*(17 2*(+1,18) + (,18)) ((+1,19) 2*(+1,18)
+ (+1,17)) (18 2*17 + 16) + /*(/).2*(17 (,18)) +
2*(/).2*F*18/L;
18 = (//).2.*2.*(18 2*(+1,19) + (,19)) ((+1,20) 2*(+1,19)
+ (+1,18))(19 2*18 + 17) + /*(/).2*(18 (,19)) +
2*(/).2*F*19/L;
19 = (//).2.*2.*(19 2*(+1,20) + (,20)) ((+1,21) 2*(+1,20)
+ (+1,19))(20 2*19 + 18) + /*(/).2*(19 (,20)) +
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2*(/).2*F*20/L;
20 = (//).2.*2.*(20 2*(+1,21) + (,21)) ((+1,22) 2*(+1,21)
+ (+1,20))(21 2*20 + 19) + /*(/).2*(20 (,21)) +
2*(/).2*F*21/L;
21 = (//).2.*2.*(21 2*(+1,22) + (,22)) ((+1,23) 2*(+1,22)
+ (+1,21))(22 2*21 + 20) + /*(/).2*(21 (,22)) +
2*(/).2*F*22/L;
22 = (//).2.*2.*(22 2*(+1,23) + (,23)) ((+1,24) 2*(+1,23)
+ (+1,22))(23 2*22 + 21) + /*(/).2*(22 (,23)) +
2*(/).2*F*23/L;
23 = (//).2.*2.*(23 2*(+1,24) + (,24)) ((+1,25) 2*(+1,24)
+ (+1,23))(24 2*23 + 22) + /*(/).2*(23 (,24)) +
2*(/).2*F*24/L;24 = (//).2.*2.*(24 2*(+1,25) + (,25)) ((+1,26) 2*(+1,25)
+ (+1,24))(25 2*24 + 23) + /*(/).2*(24 (,25)) +
2*(/).2*F*25/L;
25 = (//).2.*2.*(25 2*(+1,26) + (,26)) ((+1,27) 2*(+1,26)
+ (+1,25))(26 2*25 + 24) + /*(/).2*(25 (,26)) +
2*(/).2*F*26/L;
26 = (//).2.*2.*(26 2*(+1,27) + (,27)) ((+1,28) 2*(+1,27)
+ (+1,26)) (27 2*26 + 25) + /*(/).2*(26 (,27)) +2*(/).2*F*27/L;
27 = (//).2.*2.*(27 2*(+1,28) + (,28)) ((+1,29) 2*(+1,28)
+ (+1,27)) (28 2*27 + 26) + /*(/).2*(27 (,28)) +
2*(/).2*F*28/L;
28 = (//).2.*2.*(28 2*(+1,29) + (,29)) ((+1,30) 2*(+1,29)
+ (+1,28)) (29 2*28 + 27) + /*(/).2*(28 (,29)) +
2*(/).2*F*29/L;
29 = (//).2.*2.*(29 2*(+1,30) + (,30)) ((+1,31) 2*(+1,30)
+ (+1,29)) (30 2*29 + 28) + /*(/).2*(29 (,30)) +
2*(/).2*F*30/L;
30 = (//).2.*2.*(30 2*(+1,31) + (,31)) ((+1,32) 2*(+1,31)
+ (+1,30)) (31 2*30 + 29) + /*(/).2*(30 (,31)) +
2*(/).2*F*31/L;
31 = (//).2.*2.*(31 2*(+1,32) + (,32)) ((+1,33) 2*(+1,32)
+ (+1,31)) (32 2*31 + 30) + /*(/).2*(31 (,32)) +
2*(/).2*F*32/L;
32 = (//).2.*2.*(32 2*(+1,33) + (,33)) ((+1,34) 2*(+1,33)
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+ (+1,32)) (33 2*32 + 31) + /*(/).2*(32 (,33)) +
2*(/).2*F*33/L;
33 = (//).2.*2.*(33 2*(+1,34) + (,34)) ((+1,35) 2*(+1,34)
+ (+1,33)) (34 2*33 + 32) + /*(/).2*(33 (,34)) +
2*(/).2*F*34/L;
34 = (//).2.*2.*(34 2*(+1,35) + (,35)) ((+1,36) 2*(+1,35)
+ (+1,34)) (35 2*34 + 33) + /*(/).2*(34 (,35)) +
2*(/).2*F*35/L;
35 = (//).2.*2.*(35 2*(+1,36) + (,36)) ((+1,37) 2*(+1,36)
+ (+1,35)) (36 2*35 + 34) + /*(/).2*(35 (,36)) +
2*(/).2*F*36/L;
36 = (//).2.*2.*(36 2*(+1,37) + (,37)) ((+1,38) 2*(+1,37)
+ (+1,36)) (37 2*36 + 35) + /*(/).2*(36 (,37)) +2*(/).2*F*37/L;
37 = (//).2.*2.*(37 2*(+1,38) + (,38)) ((+1,39) 2*(+1,38)
+ (+1,37)) (38 2*37 + 36) + /*(/).2*(37 (,38)) +
2*(/).2*F*38/L;
38 = (//).2.*2.*(38 2*(+1,39) + (,39)) ((+1,40) 2*(+1,39)
+ (+1,38)) (39 2*38 + 37) + /*(/).2*(38 (,39)) +
2*(/).2*F*39/L;
39 = (//).2.*2.*(39 2*(+1,40) + (,40)) ((+1,41) 2*(+1,40)+ (+1,39)) (40 2*39 + 38) + /*(/).2*(39 (,40)) +
2*(/).2*F*40/L;
40 = (//).2.*2.*(40 2*(+1,41) + (,41)) ((+1,42) 2*(+1,41)
+ (+1,40)) (41 2*40 + 39) + /*(/).2*(40 (,41)) +
2*(/).2*F*41/L;
41 = (//).2.*2.*(41 2*(+1,42) + (,42)) ((+1,) 2*(+1,42)
+ (+1,41)) ((+2,) 2*41 + 40) + /*(/).2*(41 (,42)) +
2*(/).2*F;
=
(01,02,03,04,05,06,07,08,09,10,11,12,13,14,15,16,17,18,19,
20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40
,41);
(+2,2) = ((.01));
(+2,3) = ((.02));
(+2,4) = ((.03));
(+2,5) = ((.04));
(+2,6) = ((.05));
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(+2,7) = ((.06));
(+2,8) = ((.07));
(+2,9) = ((.08));
(+2,10) = ((.09));
(+2,11) = ((.10));
(+2,12) = ((.11));
(+2,13) = ((.12));
(+2,14) = ((.13));
(+2,15) = ((.14));
(+2,16) = ((.15));
(+2,17) = ((.16));
(+2,18) = ((.17));
(+2,19) = ((.18));(+2,20) = ((.19));
(+2,21) = ((.20));
(+2,22) = ((.21));
(+2,23) = ((.22));
(+2,24) = ((.23));
(+2,25) = ((.24));
(+2,26) = ((.25));
(+2,27) = ((.26));(+2,28) = ((.27));
(+2,29) = ((.28));
(+2,30) = ((.29));
(+2,31) = ((.30));
(+2,32) = ((.31));
(+2,33) = ((.32));
(+2,34) = ((.33));
(+2,35) = ((.34));
(+2,36) = ((.35));
(+2,37) = ((.36));
(+2,38) = ((.37));
(+2,39) = ((.38));
(+2,40) = ((.39));
(+2,41) = ((.40));
(+2,42) = ((.41));
1(+2,:) = (+2,:) + ((1).*.3+(2).*.2+(3).*+(4)
.*)*(1(+2)/(L ));
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= + 1;
;
('F ....\');
%
(,1,L,,);
= 6; %
= 1;
= 0; %
(
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2 = 0;
3 = 0;
4 = 0;
= 0; %
F = 0; %T S F W' F = GJ/*()*()
EI/*()*() M*/
(
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[,] = ((8:20));
('T %7.2 \',8+1);
('T %7.2\',);
('T %7.2()\',/2/L);
%
(3,2,1);
(,1(:,8),,1(:,21),,1(:,34));
([0.055 0.085 0 0.05]);
(' 8',' 21',' 34');
('()');('()');
(3,2,2);
(,,,1(3,:),,1(1525,:));
(' ',' 0 ',' 0.0152 ',2);
(' ()');
('()');
(' CTCS');
(3,2,3);(,F2,'.',1,,':');
([0.0575 0.075 50 200]);
(' ',' ');
('T()');
('S S F(N)');
(3,2,4);
((1:20));
('N H');
('P H');
('P ');
(3,2,5);
(,);
(' ()');
(' ()');
('P 0');
(3,2,6);
(,);
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([0.055 0.085 0.06 0.08]);
('()');
(' ');
(' ');
1.(B)C C D%
= (L,)
= 0:0.001:L;
= ();
1 = 0(1).*.3+(2).*.2+(3).* +(4);
= (1);2 = 1;
= 1;
= ();
(
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2045 2215 2388 2557 2731 2909 3078 3247 3413 3578....
3734 3899 4069 4238 4399 4560 4716 4860 4996 5114....
5229 5326 5411 5478 5533 5576 5601 5610 5605 5584....
5546 5483 5394 5284 5124 4983 4788 4577 4344 4103....
3849 3586 3336 3095 2858 2621 2397 2189 1986 1795....
1618 1457 1309 1169 1042 923 818 720 635 559....
492 432 381 339 301 267 242 216 195 178....
161 149 132 119 106 94 81 68 56 39 26 13 5]/1000000;
= 2**.*/*180;
= ();
= 0;
= 1;
= 1;%
( (1,))
= + 1;
;(>1)
() = (() (1,1))/((1,) (1,1))*((2,) (2,1)) + (2,1);
;
= 1;
= + 1;
;
1.(D) A% ( )
(,1,L,,)
('C ....\');
=1;
= 1; %
= 2;%
= 0.01389; %
= 0:0.001:L;
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% = [1 2 3 4]; %
% = [1 2 3 4]; %
%0 = [ ];
0 = [0.2187 0.1716 0.0585 0.00009 0 0 0 0.004 0 0 0 0.0255];
%
0 = [0.2817 0.1716 0.0585 0.00009 0 0 0 0.004 0 0 0 0.0255]; %[]
= [0.4 0.2 0.1 0.1 0.0002 0.007 0.003 0.0035 0.0003 0.004 0.006 0.022];
%
= [0 0.3 0.1 0.1 0.0002 0.007 0.003 0.0048 0.0002 0.005 0.004 0.029]; %
%
= ('LS','');
% , [, ] = (@,0,[],[],[],[],,,@,);
%
[ ] = ();
1.() %
%[1 2 3 4 1 2 3 4 1 2 3 4]
= ()%
= ' ';
1.() C %
%[1 2 3 4 1 2 3 4 1 2 3 4]
[ ] = ()
= 0.42; %
= [' ' 210;
' ' + 120;];
= [];
1.() D;
;
%
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0 = [0.2187 0.1716 0.0585 0.00009];
%
= [ 0 0 0.0386/0.42 0];
%
% 1
1 = [0.268699 0.145742 0.079511 0.000198];
% 4
4 = [0.279762 0.149103 0.091418 0.001535];
% >
= 0;
1 = 0;
= 50;
= 0.0386/;
= 1;
= 0.00001;
2 = 0;
2 = 0;
= 1; ( = 0.0001)
= ((1).*(2.3 1.3) + (2).*(2.2 1.2) + (3).*(2 1));
2 = 2 + ;
;
2(+1) = 2 ;
SL()= 2(+1) 1;
12() = (1 + 2(+1))/2;
1 = 2(+1);
= 1;
= + 1;
;
G = 779; %
= 7.863; %
%
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0 = [0 0 0 0.004];
D0 = [0 0 0 0.0255];
%
% 2
2 = [0.000111 0.005998 0.001993 0.0046];
% 3
D3 = [0.000198 0.004731 0.004397 0.02345];
% 4
4 = [0.279762 0.149103 0.091418 0.001535];
4 = [0.000072 0.000363 0.002625 0.004683];D4 = [0.000231 0.001972 0.003628 0.028783];
% >
= 0;
% >
D = D0;
%
= ((G.*((1).*12.3 + (2).*12.2 + (3).*12 +(4)).2)./(.*(2.*((D(1).*12.3 + D(2).*12.2 + D(3).*12 +
D(4)).2)+((1).*12.3 + (2).*12.2 + (3).*12 + (4).2))))./SL;
(12,,'.');
(' ()');
('F D ');
('F D')
2. C (ABAAAB )2.(A) F = (, , , )
;
%
= [0.2187 0.1716 0.0585 0.00009];
% ( )
D = [ ];
= 0.004;%
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101
= 0.0386;%
= 0.024;%
L = 0.42;%
= 0:0.0001:10*2*;
(1:()) = 0;
(1:()) = 0;
(1) = (D(1).*0.3 + D(2).*0.2 + D(3).*0 + D(4))/2;
= 1;
= 1;
= 0.002;
= ;
= 1;
(1) = (1);(1) = 0;
(1) = 0;
(1) = 1;
= 2;
%
%
= ((1)))
= 2;
() = DD/2*((1));
() = DD/2*((1));
() = (1).*.3 + (2).*.2 + (3).* + (4);
= + ;
= + 1;
= ;
(1) = 1;
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(1) = (2);
;
= + 1;
;
= 1;
;
;
= ;
= ;
= ;
;
= ();
% IGES
= ('1.','');
%
= ('1.','');
1
= (); (), ,
(,(1:80));
(,'\');
();
= 1;
%
= ('2.','');
1
= ();
(), ,
(,(1:80));
(,'\');
();
= 4;
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103
= ('.','');
= 1;
= 1;
% DE
(
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104
= + 2;
;
= 1;
%
= [(,'S') (,'G') (,'D') (,'P')];
(,[ (72()) (1,'T')]);
();
= ('.','');
= ('1.', '');
1
= (); (), ,
(,);
(,'\');
();
%
= ; = 1;
= ();
(
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105
();
(,['.[N].CP(=''CP'', ='
2(/2) ')' '\']);
= ('3.', '');
1
= ();
(), ,
(,);
(,'\');
();
();
('T : %8.7 %8.7 %8.7 %8.7\',, , , );
% A
('T F E A ABAQUS \');
[,] = ('ABAQUS GUI=.');
('T F E A ABAQUS ...\');
% ABAQUS
= 1;
= 9;
V = 0;
F = 0;
= ('.', '');
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();
%
('T %6.2\',F);
('T %7.5\',V);
2.(B) %
;
;
0 = [0.2187 0.1716 0.0585 0.00009];
%
= [0.4 0.2 0.1 0.1];%
= [0 0.3 0.1 0.1];
%
= ;
.D = '';
% ,
('V S O\');
('T YC S\');(' U M C\');
('06.20.2009\');
('R \');
[ ] = (@1,0,[],[],[],[],,,@1,);
%
[ ] = 1();
(' : %16.15 %16.15 %16.15\',(1),(2),(3),(4));
(' : %6.4\', );
2.(C) %
%
= 1()
%
= ((1),(2),(3),(4));
2.(D) C
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107
%
[ ] = 1()
= 0;
= [];
= [];
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108
3. E D3.1 D
A 3.1.1 S
A 3.1.2 S
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109
3.2 1368, 2165, 2372 ()
3.2.1 1368
A 3.2.1 F 1368
3.2.2 1368
A 3.2.2 F 1368
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111
3.2.5 2372
A 3.2.5 F 2372
3.2.6 O I 2372
A 3.2.6 F 2372
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112
4. E E4.1 E
YEAR: 1987
DISPLACEMENT: 90inch 1.5 HP@RPM: 70@5400
TORQUE F.L@RPM: 87@3400
C R: 9.6:1
B: 77
S: 79
C: 25.93225.96
0.050.1 CV S: F L: 48.50
V C L: [email protected]
4.2 D C D
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113
4.3 C RPM : 2.599999 D S A +/ 0.05% 5 LCD
A 4.3 P S T
4.4 E M: 9031A
4.5 E C AM: 5004
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114
A 4.5 T A
T A:
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4.6 DAA AM: DI158UP
A 4.6 DATAQ A
D:
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4.7 BM: G
T:
VB, HYT PLUS, 59, B56(5L590) X 1 VB, HYT PLUS, 63, B60(5L630) X 1
4.8 T:
M R: 2.1 X1 M R: 3.2 X1 M R: 5.5 X1 M R: 6 X1
A 4.8 T
4.9 E CM: 1361A(X)
F:
W T :195 240 C: 30F/ S 30 A 1 5
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5. WINDAQ V. 2.49 MATLAB R2007
FEA , ABAQUS
CATIA V5R17 3D ABAQUS V. 6.8.1 F E M
F
D M