-
&
: ,
,
MAKO ERBIN
: . ...
, 2011
-
.
-
&
: ,
,
: . ...
xx 2011.
() () () ...................................
...................................
................................... . . ... ... ...
, 2011
-
() ...................................
...
Copyright . , 2011.
. All rights reserved.
, , , . , , , . .
.
-
, , . , .
, . . .
, , , . :
-
.
-
Abstract The control of electric motion is necessary in modern
times for saving energy,
increasing production while reducing costs and generally
improves the quality of life. In the evolution of control systems
of electric motion and especially the wide spread in all phases of
production, processing and distribution of industrial products led
to the rapid development of power electronics and further
development of digital technology.
The need for high quality torque control, speed and position of
the electric motion led to the development of servomotors systems
that achieve controlled dynamic response and good stability in
order to reject disturbances. This kind of control requires proper
of the action and interaction of all components to achieve the
desired result. This corresponds to very good knowledge of control
techniques and even more comprehensive understanding of the
operation of electrical machines and torque production methods.
The purpose of this diploma thesis is to analyze the several
construction types of engines that are mostly used in servomotor
systems and to study the technique of vector control, which leads
to their precise, reliable and effective control. Keywords:
-
.
-
1 ....................................................... - 1
-
1.1 - ......................................- 1 -
1.2
.......................................................................................................-
6 -
1.2.1 - - 6 -
1.2.2 ( PM dc-commutator motors)- 7 -
1.2.3 ()
.................................................................-
7 -
1.2.4
...............................................................- 9
-
1.2.5
..................................................................-
10 -
1.3
............................................................- 11
-
1.3.1 ......................................- 11 -
1.3.2 ..........................- 14 -
1.4 .. - 21 -
1.4.1 ...............................- 21 -
1.4.2 / ...........................- 24 -
1.4.3 ..................................................- 26
-
1.5
.....................................................................................................-
26 -
2 .......................................... - 29 -
2.1
...................................................................................................................-
29 -
2.2 .......................- 30 -
2.3
........................................................................................................-
31 -
2.3.1 ..............- 32 -
2.3.2 - 37 -
2.3.3 .- 41 -
-
2.3.4
..................................................................................-
46 -
2.3.5 ....- 51 -
2.4 ( commutator DC-PM machines)
.........................................................................................................................-
59 -
2.5 .......................................................- 61
-
2.5.1 (SynRM)
.............................................................- 61
-
2.5.2 (SRM).....................- 65 -
2.6
...............................................................- 68
-
2.6.1 (squarewave PM trapezoidal PM brushless dc machine)
..........................................................- 68
-
2.6.2 (sinewave PM brushless ac machine) - 69 -
3 ........................................................... -
70 -
3.1
...................................................................................................................-
70 -
3.2
........................................................................-
71 -
3.3
................................................................................................................-
75 -
3.4
...............................................................................................................-
83 -
3.5
........................................................................................-
86 -
3.6
.............................................................................................-
89 -
3.7 () - 92 -
3.8 ........................................................- 96
-
3.9 .........- 97 -
3.10 .........................................- 99 -
3.11 ............- 102 -
3.11.1
..........................................................- 102
-
3.11.2 ...............................................- 102
-
3.11.3 ................- 110 -
ii
-
iii
4 & ............................................... - 111
-
4.1
...............................................................................-
111 -
4.2
....................................................................................................-
115 -
5
..............................................................................................................
- 117 -
-
1
1.1 -
.
:
1) (..
),
2) (..
, , ,
)
3) (..
)
(drives) .
,
.
- 1 -
-
, .
:
1) ( ),
( )
2) ( ,
, ,
)
3) (
,
. ,
,
,
. ,
(
)
(servo system) .
.
. ,
.
. ,
.
,
.
:
1) -
.
- 2 -
-
. ,
(permanent
magnet dc-communicator motors)
universal (
),
.
2) .
.
3) .
(permanent magnet synchronous motors)
(reluctance motors).
(- -
)
.
4) .
.
(stepper motors), (hysteresis motors)
.
1.1
1 2 brushless
.
,
( )
( ).
brushless . ,
-
.
brushless,
.
- 3 -
-
1.1 brushless
,
.
(PM)
2 :
1) (SPM, surface PM
motors).
(
- 4 -
-
brushless dc motors). ,
. ,
,
.
2) (IPM, interior PM
motors).
.
:
(SRM, switched
reluctance motors). brushless,
.
.
,
.
. ,
.
(stepper motors)
, (linear motors),
(axial flux motors), (hysteresis motors) .
brushless
.
, ,
. ,
.
- 5 -
-
1.2
1.2
.
- brushless
,
.
1.2
.
1.2.1 -
,
, .
( choppers)
,
.
,
- 6 -
-
. ,
,
,
ad-ac .
,
brushless
- ,
.
.
1.2.2 ( PM dc-commutator
motors)
,
.
.
, , ,
.
. ,
.
1.2.3 ()
:
.
brushless,
( ).
( V/f)
- 7 -
-
(inverter).
, ,
. ,
(power converter) ,
.
, ()
(
).
,
.
,
(vector control , field-oriented control).
.
.
.
,
, brushless
,
.
brushless ,
. ,
V/f .
.
- 8 -
-
1.2.4
. , ,
( ) .
( ) . ,
( )
.
( ),
.
,
.
(brushless PM ac synchronous motors sineware PM brushless
motors),
. ,
(square-wavw PM brushless motors)
,
, brushless dc
.
(surface type) (interior
type).
.
,
.
,
.
, ,
.
- 9 -
-
.
. ,
( )
.
1.2.5
. ()
.
,
. ,
.
,
.
:
(synchronous
reluctance motors) ,
, (switched reluctance
motors), .
. ,
,
. ,
,
( 20.000 ).
. ,
.
- 10 -
-
1.3
1.3
.
1.3
(command signals) (reference
signals) (feedback signals)
(power converter) .
,
.
.
1.3.1
1.4
.
.
.
- 11 -
-
1.4
: () ()
1.4. (-
)
0
-
(rectifier),
.
1.5 (ac-dc )
1.5
.
, .
,
, .
.
,
,
( 1.6.) ac-dc (
1.6.).
, 1.6.
. 1.6.
.
- 13 -
-
1.6 Ac-dc
: ()
()
1.3.2
1.7
(, ).
( ) . ,
( ),
.
1.7
.
- 14 -
-
.
:
(1) - (rectifier-inverter)
(2)
1.3.2.1 -
( 1.8)
1.8 -
:
() (voltage source)
() (current source),
. ,
:
() ,
() ,
() ,
- 15 -
-
,
,
- ,
. 1.9
-
.
.
1.9
1.10 PWM
.
,
- 16 -
-
.
(Pulse Width Modulation, PWD).
,
. ,
, MOSFRTs IGBTs.
PWM
Vc ( 5 10 kHz)
Vr
( 1.10).
Vr Vc ,
.
.
Vr ,
, Vr
.
1.11
1.11. ,
. ,
Idc ,
,
1.12..
, .
- 17 -
-
, .
1.12 () ()
,
(hysteresis band current control inverter).
PWM ,
(
1.9). 1.13 PWM
,
. , PWM
.
- 18 -
-
1.13 PWM
1.3.2.2
dc ( 1.14).
-
( )
. ,
.
1.14
,
(step-down cycloconverter),
(step-up
- 19 -
-
cycloconverter).
,
.
.
,
1.15..
1.15 () , ()-()
, ()
.
- 20 -
-
1.15.-
. 1.15.
fout = fin / n, n
.
1.15.
1.15.,
. 1.15.
fin . ,
fout = 3 fin .
1.4
,
.
.
: ,
, ,
, , ,
,
( ).
: ,
.
1.4.1
()
().
- 21 -
-
,
, , . ,
, ( Joule
)
.
.
1.4.1.1
,
,
)1.1(PP
Plossin
outm +=
,
)2.1(PPP
Pconvlossin
outm ++=
Pout ( ), Ploss
Pconv .
.
(r = b)
(r = max)
,
.
b .
( ). ,
,
(
).
1.4.1.2 [kW/Nm]
. ,
- 22 -
-
,
.
. ,
. ,
.
1.4.1.3 ( ) [Nm/m3 Nm/Kg]
(torque density)
(power density)
. ,
.
,
, , ,
.
1.4.1.4 [kW/kVA]
(power factor, PF)
in
in
SPPF = (1.3)
Pin Sin ,
(rms) Vs
Is.
.
,
cos3
==SS
in
IVPPF (1.4)
- 23 -
-
,
-
. ,
.
Fourier .
1.4.2 /
1.4.2.1 [rad/sec2]
Tpeak J
/
/
JT
a peak=max (1.5)
, , -
/.
b,
Tpeak (
),
peak
bbaccel T
Jpa
pt ==max
(1.6)
p . taccel
.
,
,
.
1.4.2.2
tpeak
, Tpeak.
1-5 msec.
,
,
- 24 -
-
.
.
1.4.2.3
. pulse/Tnom
, .
, pulse/Tnom .
1.4.2.4
(max/b)
b
( ).
( )
( ).
.
,
. max/b 2 3
3 4 .
,
.
1.4.2.5 ,
,
( ). ,
,
,
.
- 25 -
-
1.4.2.6
.
.
.
1.4.2.7
,
.
.
1.4.3
. :
a) (, , ,
, .)
b)
c)
( )
1.5
servus .
. ,
.
, Le-Servomoteur Farcot
1868
. 1898
- 26 -
-
H. Calendar
1908 E. Sperry .
, , ,
,
, . ,
.
( ,
, ).
(vector control)
,
. ,
( )
.
,
. ,
.
,
( 20.000 rpm),
. ,
.
,
. ,
.
V/f, .
. , ,
, .
,
- 27 -
-
brushless
.
- 28 -
-
2
2.1
,
.
, ,
, , ,
.
.
brushless
brushless ( ) - (
).
.
,
- 29 -
-
, ,
.
2.2
,
. brushless ()
(PM synchronous machines)
. (PM dc-commutator
machines) ,
.
(
, )
, .
(commutation).
,
- ,
.
( ,
). ,
,
.
.
brushless dc.
. ,
-
. brushless
brushless dc brushless ac
- 30 -
-
.
brushless , brushless dc
, brushless ac
.
, ,
, .
. ,
. , ,
.
:
a) ,
b)
,
( ,
,
).
( 80-
100 kW). (
1 MW),
.
2.3
.
- 31 -
-
. ,
,
. ,
,
.
2.1
.
2.1 .
2.3.1
2.3.1.1 (interior-rotor PMSM)
,
.
.
.
.
- 32 -
-
/
.
. ,
,
.
(
,
),
.
2.2
: () ()
2.3 8- : ()
()
- 33 -
-
2.2
.
,
. 2.3 8-
.
cogging.
(
) .
,
.
,
( )
(
). , ,
cogging.
. ,
, cogging
- . , cogging
.
cogging
.
(torque
ripple). ,
.
cogging . 1-2%
. cogging
. ,
.
- 34 -
-
2.4..
.
2.4. .
2.4 cogging : ()
, () , ()
, ()
cogging ,
( 2.4.).
- 35 -
-
2.4.,
- ( s). cogging
.
,
.
2.3.1.2 (exterior-rotor PMSM)
,
.
. ,
.
.
2.5 : () , ()
2.5
.
, ,
.
- 36 -
-
2.6 : ()
, ()
.
() .. ( 2.6.),
( 2.6.). ,
.
(
).
2.3.2
2.3.2.1 (distributed stator
winding PMSM)
(2.3.1).
.
2.3.2.2 (concentrated stator
winding PMSM)
,
.
- 37 -
-
, ( 2.7.)
( 2.7.)
2.7 : ()
, ()
2.8
2.8
.
(stepper motors).
( 2.9). ,
- 38 -
-
.
. ,
.
2.9 : () , ()
.
.
( 2.10) .
,
. ,
,
.
.
( 2.11.)
( 2.11).
.
- 39 -
-
2.10 : () , ()
- 40 -
-
2.11 : ()
, ()
2.3.3
2.3.3.1 (radial flux PMSM)
,
.
- 41 -
-
D ( 2.12.).
2.3.3.2 (axial flux PMSM disk type PMSM)
,
( 2.12.).
Do Di .
2.12 : () , ()
2.13 : ()
, ()
- 42 -
-
O .
,
( ).
, .
( )
(
). 2.13
.
,
.
,
.
,
.
( 2.14)
.
( 2.14.)
( 2.14.)
2.14 : () , ()
, ()
.
- 43 -
-
, .
,
.
(
)
. ,
cogging, ,
. ,
.
2.15 ()
, () ( )
- 44 -
-
,
.
.
, , (
).
(
2.15.).
.
(wheel motors). 2.15.
.
,
.
( , differential
operation)
.
-
( coreless ironless axial
flux PMSM) cogging.
,
.
,
, brushless 2.16.
.
- 45 -
-
2.16 brushless
2.3.4
2.3.4.1 (linear PMSM)
, ()
.
( 2.17.) ,
( 2.17.).
2.17
: () , () .
- 46 -
-
, (
), ( ).
,
( ).
2.17.1 2.17. ,
2.18. 2.18.
(
).
2.18 :
() , ()
2.19 : ()
, ()
- 47 -
-
2.19
(
2.17.) 2.20.
2.17.. ,
. ,
,
.
2.20 : () , ()
- 48 -
-
, ,
( 2.10.).
, , ,
, , ,
.
,
(electromagnetic levitation system).
2.21. -
,
.
.
, 500km/h,
, ,
, . ,
,
.
2.21
- 49 -
-
2.3.4.2 (slotless PMSM)
.
( 2.22).
2.22
2.23
: () , () , ()
- 50 -
-
. ,
.
( 2.22) ( 2.23).
(torus-slotless PMSM) .
2.3.4.3 (coreless ironless PMSM)
cogging .
. , , .
,
2.16,
.
2.3.5
.
,
.
,
ggmm ABAB = (2.1) m
g (flux
concentration factor)
g
m
AAC = (2.2)
(Bg = CBm).
- 51 -
-
m
g
g
m
AA
llPC = (2.3)
(2.2)
==
Cll
AA
llPC
g
m
m
g
g
m 1 (2.4)
,
.
,
rr
m BPCPCB
rec+= (2.5)
Br .
(2.1)-(2.5)
r
rg
m
g
m
g BCl
ll
l
Brec
+=
)1)((
(2.6)
, ,
C, lm
g
. ,
(2.6)
,
C PC,
,
.
,
. , , Lmd
Lmq d q .
(saliency ratio)
md
mqqd L
L= (2.7)
- 52 -
-
.
qd=1 ( Lsq= Lsd, Lsq= Lmq+ Lsi
Lsd= Lmd + Lsi Lsi ),
qd >1 ( Lmq > Lmd )
. qd=1,
qd > 1,
. , qd
.
qd .
2.3.5.1
2.24 6-
: () , () -
, () , ()
.
- 53 -
-
2.24.
.
(-) .
.
-
(
), .
,
.
. C
Bg Br (
2.6) m ( 2.1). ,
.
. ,
,
.
.
.
.
,
( ),
sqsd LL = (2.8)
, qd=1. ,
.
, (ring magnets)
. 2.25
- 54 -
-
. ,
2.11. & 2.11..
2.25 4-
2.3.5.2 - (surface-inset mount PMSM)
( 2.24.). ,
.
. ,
, .
( ) ,
. d-
. q-
900/p ( 900) d-
( 2.24.).
,
q-
d-
sdsq LL > (2.9)
- 55 -
-
-
. ,
,
2.9,
Lsd Lsq qd
.
,
.
, ,
,
.
2.3.5.3 , (interior
mount radially magnetized PMSM)
2.24.
4.26 .
.
(
) . ,
.
4.26 8-
,
- 56 -
-
.
,
, C ,
(2.6).
2.3.5.4
(interior mount circumferentially magnetized PMSM)
2.24.
.
,
.
2.24.. C,
.
( 2.24. & 2.24.)
. ,
2.24., qd
. ,
. 2.27 6-
.
,
.
,
- .
2.24. 2.24. ,
,
2.28.
/p
- 57 -
-
2.24. /2p
2.24..
2.27 6-
: () ()
2.28 ,
,
,
. ,
.
- 58 -
-
2.4
( commutator DC-PM machines)
, .
-
brushless .
2.29
.
4.29 4- : ()
()
.
2.30 ( )
- 59 -
-
2.30 & 2.31
,
. , 2.31
, .
.
2.31 ( )
2.32 -
.
- 60 -
-
2.32
. - .
2.5
:
.
:
a) ( )
b)
.
, .
,
,
.
.
, ,
.
2.5.1 (SynRM)
( ).
Lsd & Lsq d q
.
.
.
d q.
( , )
Lmd/Lmq.
- 61 -
-
d Lmd > Lmq Lmd/Lmq > 1. ,
.
:
2.5.1.1 (SynRM with
segmented poles)
(segmented solid iron poles) -
( 2.33.).
.
.
2.33 4- : ()
, () ()
()
- 62 -
-
Lmd/Lmq
. ,
, .
.
(
). Lmd/Lmq
.
2.5.1.2 (SynRM with flux barriers)
.
q- ( ),
( 2.33.). ,
q-
d-.
Lmd/Lmq
. ,
.
. , q-
. ,
. ,
,
(,
).
- 63 -
-
2.5.1.3
(SynMR with distributed anisotropy rotor and
conventional laminators)
( 2.33.)
2.33., q-
.
,
(
).
, Lmq
Imq , ,
Lmd/Lmq .
Lmq
. Lmd/Lmq
,
. ,
. ,
.
2.5.1.4 (ALA, SynRM with
axially laminated anisotropic rotor)
d- ( 2.33.).
.
- ( )
.
Lmd/Lmq .
,
.
- 64 -
-
, q-,
( )
.
,
.
2.5.2 (SRM)
.
. m ,
Ns Nr. ,
m-, s/r . 2.34.
2.35
4- 8/6.
. ,
4-, 5- .
, ,
. ,
.
.
,
.
.
cogging (
2.3.1). 4.36 2- 4/6
(bifurcated stator teeth).
4- 2.34..
2.36
,
.
- 65 -
-
2.34 : () 2- 4/2 () 3-
6/4 () 3- 3/2 () 4- 8/6
2.35 4-, 8/6: ()
()
- 66 -
-
2.36 2- 4/6
2.37 :
() 2- 4/2 () 3- 6/2
, (
, 1- 2-). ,
- 67 -
-
.
(stepped gap), 4.37..
, ,
4.37..
2.6
.
.
( )
,
.
:
(brushless dc)
(brushless ac).
.
,
. ,
,
.
2.6.1 (squarewave
PM trapezoidal PM brushless dc machine)
, , 2.38. -
( )
.
,
.
- .
brushless dc.
( Lsd = Lsq )
.
- 68 -
-
2.38 : ()
()
2.6.2 (sinewave PM brushless ac machine)
, ,
( 2.38.) - .
.
brushless ac .
d q
,
.
.
- 69 -
-
3
3.1
.
.
,
. (Space-
Phasor Theory). ,
,
. ,
(generalized machine theory).
.
- 70 -
-
,
.
3.2
)cos()( += tXtx p (3.1)
}Re{)( )( += tjpeXtx (3.2) ejt Euler
tjte tj sincos = (3.3)
)( + tjpeX
)( += tjpeXX (3.4) , x(t)
. X=pX (t + ), .
,
(time phazor
time vector). , ,
, 3.1.
(time circular vector).
,
. ,
,
. ,
.
- 71 -
-
3.1
3.2 () ()
,
)cos()( += tUtu p (3.5)
)cos()( += tIti p (3.6)
- 72 -
-
)( += tjpeUU (3.7)
)( += tjpeII (3.8) ,
jpeU=U (3.9)
jpeI=I (3.10)
, ,
-. ,
,
.
.
t ( 3.2).
,
.
( , , )
. ,
.
,
(space vectors).
,
.
,
, . ,
,
- 73 -
-
. ,
)cos()( += tXtx pj
peX=X (3.11)
mm jp
j etetx )]cos([)( +==X (3.12) m
( 3.3).
3.3 x(t)=Xpcos(t+) ()
() t. ,
.
,
(.. )
(.. X ).
(3.11) (3.12)
,
m. ,
,
.
pX
+t )cos(X p,
.
(
) .
- 74 -
-
m=0,
00 )][cos()( jpj etXetx +==X (3.13)
,
)( mtjpeX
++=X (3.14) t, X m=t+.
(3.4) (3.14) ,
. ,
. m (3.14)
, ,
(t= ),
.
3.3
.
,
.
.
, . ,
,
,
. ,
.
.
- 75 -
-
,
( )
.
- sA (
) . ,
( ,
).
( ), 3.4
3.4 s
Ampere ( 3.5.)
=S C
dlHdsJ (3.15)
- 76 -
-
,
+
-
3.5 s (
-) () C
()
.
.
(3.18)
)2/cos(),( 11 += ss Ftf (3.20)
- 78 -
-
}Re{}Re{),( 12/
11 jsjjjss eeeetf FF == (3.21)
aja
jss etijejF
)(211 ==F (3.22)
-,
.
.
. ,
ej ,
(3.21).
3.6
- 79 -
-
=/2 -
( 3.6),
(3.22)
jojss etieF )(
2011 ==F (3.23)
ej0 . ,
sF 1
-.
-,
0)( jaa eti=i (3.24)
aas iF = 2
1 (3.25)
-,
.
3.17
...])(5cos[51)](3cos[
31))[cos((2),( +++= utiNtJ aaaaa (3.26)
)cos()(2),( = aaaa tiNtJ (3.27) 3.27
]Re[)(2Re),( 11
j
ajj
aaa eeetiNtJ a J=
= (3.28)
ajaaa etiN
= )(21J (3.29)
-,
. ,
= /2,
SSj
Sj
aaa jjFeFetiN 112/
12/
1 )(2 FJ ==== (3.30)
- 80 -
-
,
,
)sin()(2),(),( 0101 == aaag
sg
s tiNltf
ltB (3.31)
=/2
cos)(2),( 01 tiNlt aags = (3.32)
lg ( ,
) 0 (0=410-7 Vs/Am).
1s(,t) f1s(,t),
,
ajaa
gs
gs etiNl
jl
)(2 0101 == FB (3.33)
=/2
)(2)(2 0001 tNletiN
l aagj
aag
s iB
== (3.34)
-
== 2/ 2/ 111 )(2),()( tlrBdtlrBt sss (3.35) , r
( 3.4)
l
)(2 01 tiNlB aa
gs
= (3.36)
.
jaa
gs etiNl
lDj )(2 01 = (3.37)
=/2
aag
s NllD i
01
2= (3.38)
D (D=2r).
- 81 -
-
jaag
sas etiNllDjN )(2 2011 == (3.39)
=/2
aaaa
gs LNl
lD ii == 201 2 (3.40)
a
ga Nl
lDL 202 = (3.41)
-. L
3.41
. ,
,
),(),( 01 tfltB s
gs = (3.42)
,
)()(4
)(2
)],([)( *20202/
2/tiLtiN
llDtiN
llrdtlrBt aaaa
gaa
gss ==== (3.43)
20*
4 aga Nl
lDL = (3.44)
-,
. (3.41) (3.44)
aaa LLL 233.18
2* == (3.45)
, ,
1/1.233=0.811 81.1%
.
-
. ,
.
.
- 82 -
-
3.4
.
,
, .
3.7, sA
isA(t) sA.
0- sAisA(t).
. 3.19
sA
)(21 tiNKF sAsAdAs = (3.46)
2/2/sin
=
dAK (3.47)
(winding distribution factor).
(=>0) 1lim = dAKA .
,
(Pitch factor) KpA
)(21 tiNKKF sAsApAdAs = (3.48)
)2/sin( SppAK = (3.49) Sp .
- 83 -
-
3.7 sA
( )
pAdAwA KKK = (3.50) sA
sAwAsAeq KKN = (3.51) , (5.19)
)(21 tiNF sAsAeqs = (3.52)
nsbas 1111 ... FFFF +++= (3.53)
- 84 -
-
jsAsAeq
jss etiNjejF a )(
211 ==F (3.54)
=/2, -
,
sAsAeqj
ss NejF iF 20
11 == (3.55)
ajsAsAeqnsbas etiN
)(2... 1111 =+++= JJJJ (3.56)
=/2
sAsAeqs Nj iJ 2
1 = (3.57)
nsba 111 ,...,, JJJ
0)( jsAsA eti=i sA . , =/2
sAsAeqg
sg
nsbas NlliFBBBB
01
01111
2... ==+++= (3.58)
sAsAsAsAeqg
sg
nsbas LNllD
liiF ===+++= 20101111 2...
(3.59)
2020 )(22 wAsAg
sAeqg
sA KNllDN
llDL
== (3.60)
sA ( ).
, (2p=2).
, sA
2
0
2
0 22
=
=
g
wAsA
g
sAeq
gsA l
KNl
lDp
Nl
lDL (3.61)
p .
- 85 -
-
3.5
3.8
,
p/3
2
. 3.8 (2p=2) .
3.8 ,
, .
(s=NsA=NsB=NsC
Kws=KwA=KwB=KwC). , sA
(=/2).
- 86 -
-
sA, sB, sC
[ ])()(2
)cos( sese tjtjssessA ee
ItIi ++ +=+= (3.62)
[ ])3/2()3/2(2
)3/2cos( ++ +=+= sese tjtjssessA eeItIi (3.63)
[ ])3/4()3/4(2
)3/4cos( ++ +=+= sese tjtjssessA eeItIi (3.64)
0)( jsAsA eti=i (3.65) 3/2)( jsBsB eti=i (3.66) 3/4)( jsCsC
eti=i (3.67)
sssCsBsA iiii 2
3=++ (3.68)
s
(stationary reference frame),
.
(stator reference frame).
(3.65)-(3.67) (3.68)
[ ])()()(32 2 tititli sCsBsA
ss ++=i (3.69)
1, a 2a
sA, sB, sC , 1=ej0, 3/2jea = 3/4jea = . , (3.62)-(3.64)
(3.59)
)( sejs
ss eI
+=i (3.70) (3.70)
e
. ,
.
- 87 -
-
,
.
, ,
sA
)()()( tiMtiMtiL sCACsBABsAsAsA ++= (3.71) LsA sA MAB MAC
sA sB sC, .
, (LsA= Ls= LsC= Lss)
(MAB= MBA= MBC= MCB= MCA= MAC= Ms). ,
(iA(t)+isB(t)+isC(t)=0),
)()()( tiMLLt sAssmslsA += (3.72) )()()( tiMLLt sBssmslsB +=
(3.73) )()()( tiMLLt sCssmslsC += (3.74)
Lsl Lsm , (Lss=Lsl+Lsm).
,
2/)3/2cos( smsms LLM == (3.75) , (3.72)-(3.74)
)()()2/3()( tiLtiLLt sAssAsmslsA =+= (3.76) )()()2/3()( tiLtiLLt
sBssBsmslsB =+= (3.77) )()()2/3()( tiLtiLLt sCssCsmslsC =+=
(3.78)
ssmsls MLLL += (3.79)
mslsmsls LLLLL +=+= 2/3 (3.80) Ls Lm
g
seqsmm l
lDp
NLL 0
22
23
23
== (3.81)
seq=wsNs .
- 88 -
-
[ ])()()(132 2 tatat sCsBsA
ss ++= (3.82)
(3.76)-(3.78) (3.82)
(2.69)
sss
ss L i= (3.83)
,
[ ])()()(132 2 tuatuatu sCsBsA
ss ++=u (3.84)
3.6
3.9
- 89 -
-
(3.69) ,
,
,
[ ])()()(132 2 tiatiti rCrBrA
rr ++i (3.85)
irA(t), irB(t) irC(t) rA, rB,
rC ( 3.9). (3.85)
r (
). ,
. ,
,
.
[ ])()()(132 2 tatt rCrBrA
rr ++= (3.86)
rrr
rr L i= (3.87)
Lr (Lr=Llr+3/2Lrm,
3.4).
,
2/)3/2cos( rmrmr LLM == (3.88)
g
seqreqrssr l
lDpNN
MM 022== (3.89)
Nreq=KwrNr .
(3.81) (3.89)
aLL
NN
MM mmseq
reqrssr 3
232 =
== (3.90)
- 90 -
-
=seq/Nreq .
r ( ),
)]()3/4cos()()3/2cos()([cos)( tititiMtiL rCrrBrrArsrsAssA +++++=
(3.91) )]()3/2cos()(cos)()3/4[cos()( tititiMtiL rCrrBrrArsrsBssB
+++++= (3.92) )](cos)()3/4cos()()3/2[cos()( tititiMtiL
rCrrBrrArsrsCssC +++++= (3.93)
rjrrsr
sss
ss eML
ii23+= (3.94)
, ir = ir /
(3.94)
rjrrm
sss
ss eLL
ii += (3.95) rri ,
, rje
rjrr
sr e
ii = (3.96) ,
. (3.95) tjj rr ee =s
rmsss
ss LL ii += (3.97)
.
(3.95),
rjssm
rrr
rr eLL
+= ii (3.98)
( )rjssrs e = ii rsm
rrr
rr LL ii += (3.99)
rr =mrl LL +
. aii rr /= mrlr LLaL =+= 2
- 91 -
-
[ ] srssjrrssmCmBmAsm retiatiati iiiii +=+=++= )()()(132 2
(3.100) imA(t), imB(t), imC(t) .
[ ] smmsrssmmCmBmAsm LLtatat iii =+=++= )()()()(132 2
(3.101)
3.7 ()
,
,
. ,
.
e (e-r)
.
(e=r),
e=r
.
. ,
)()( tjiti ssssa
ss +=i (3.102)
. (3.69)
(3.102)
)(),( titi ssssa
)(31)(
31)(
32)( titititi sCsBsA
ssa = (3.103)
)]()([3
1)( tititi sCsBss = (3.104)
- 92 -
-
,
)()()( tititi sossasA += (3.105)
)()(23)(
21)( 0 titititi s
ss
ssasB ++= (3.106)
)()(23)(
21)( 0 titititi s
ss
ssasC += (3.107)
is0(t) .
)]()()([31
0 tititii sCsBsAs ++= (3.108)
,
, (t) (t) .
.
ssai
ssi
=
sC
sB
sA
ss
ssa
iii
ii
3/4sin3/2sin03/4cos3/2cos1
32
(3.109)
+
=
0
0
0
3/4sin3/2sin
0
3/4cos4/2cos
1
s
s
s
ss
ssa
sC
sB
sA
iii
ii
iii
(3.110)
)()( tijti rrr
rar
r +=i (3.111) rjrr
sr e
ii = rri . ,
, sr C
=
rr
rra
rr
rrs
r
sra
ii
ii
cossinsincos
(3.112)
- 93 -
-
rra
srsra iCi = (3.113)
r
+= t rrr d0 )0()( (3.114) ,
rs C
=
sr
sra
rr
rrr
r
rra
ii
ii
cossinsincos
(3.115)
sra
rsrra iCi = (3.116)
3.10
s-s
r-r .
.
3.10
- 94 -
-
, x
y xCy
=
)cos()sin()sin()cos(
xyxy
xyxyyx C
(3.117)
xa
yxya C ff = (3.118)
x y . ,
rCs x=r s=00.
f
x
=
sC
sB
sA
xxx
xxxx
s
xsa
fff
ff
)3/4sin()3/2sin(sin)3/4cos()3/2cos(cos
32
(3.119)
, (
)
+
=
0
0
0
)3/4sin()3/4cos()3/2sin()3/2cos(
sincos
s
s
s
xs
xsa
xx
xx
xx
sC
sB
sA
fff
ff
fff
(3.120)
+= t xxx d0 )0()( (3.121)
(general or arbitrary reference frame), 3.11.
,
.
- 95 -
-
3.11 --C
x-x
3.8
)()()()()()()( titutitutitutp CCBBAA ++= (3.122) , , , ,
. .
( (3.109)) (
(3.119))
)(tuA )(tuB )(tuC )(tiA )(tiB )(tiC
)()(3)(23)( 00 tituiuiutp
xxxa
xa ++= (3.123)
- 96 -
-
- 97 -
)()(3]Re[23)()(3]Re[
23)( 00
*00
* titutitutp xxxx +=+= iuiu (3.124)
xxax juu =*u xxax jii =*i
, . , )(0 tu
.
.
)(0 ti
*
23 xxS iu= (3.125)
)Re(SP = )Im(SQ = . ,
[ ] 1cos322Re23)Re( UIIeUeSP iu jj === (3.126)
[ ] 1sin322Im23)Im( UIIeUeSP iu jj === (3.127) iu =1 .
3.9
rm
m
rme
Pdt
dWT ==1
(3.128)
Wm
flossem dWdWdWdW = (3.129) We , Wloss Wf
.
-
(, ),
(3.124)
]Re[23 ** s
rs
rs
sss
e
dtdW iuiu += (3.130)
,
.
+= rsrsssloss RRdtdW 22
23 ii (3.131)
+=dt
ddt
ddt
dW srsr
sss
sf **Re
23 ii (3.132)
ss ss .
dtd sss /=e dtd srsr / =e dtd rrrr / =e , . (3.130)-(3.132)
(3.129)
+
=
dtdR
dtdR
dtdW srs
rrs
rs
rs
r
sss
ssss
ss
ss
m'
*'2'*''*2* Re')Re(23Re)Re(
23 iiiuiiiu
(3.133)
,
dtdR
ss
sss
ss
+= iu (3.134) (3.133) . ,
=
dtdR
dtdW srs
rrs
rs
rs
rm
'*'2'*'' Re')Re(
23 iiiu (3.135)
(3.134)
,
- 98 -
-
dtdR
rr
rr
rr
r
''' ' += iu (3.136)
(3.136) ejr
rrr jr
rr
jrr
jrr edt
dRee '
'' ' += iu (3.137)
( rjrrs
r e'' uu = rjrrsr e '' ii = )
srr
jr
rrr
jr
jr
rjr
rs
r jedt
dejedt
ddted
dtd
rrrr
+=+== )( (3.138)
(3.137)
srr
sr
rs
rs
r jdtdR '
''' ' += iu (3.139)
(3.135) (3.139)
)Im(23)Re(
23 ** s
rs
rrs
rs
rrm
m jdtdWP ii === (3.140)
*
23 s
rs
rr
me
PT i== (3.141)
*** )( rrr
rjr
rjr
rs
rs
rrr ee iii == , (3.141)
rr
rr
r
me
PT i== 23
(3.142)
(3.141) (3.142),
.
,
. ,
.
3.10
(3.99) rri (3.142),
- 99 -
-
sr
rr
r
me L
LT i= 23
(3.143)
(3.99) (3.143)
( ) srssmsrssmsrre LLLT iiiii =+= 2323 (3.144) (3.97) ssi
(3.144)
ss
smeT i= 2
3 (3.145)
(3.143),(3.145),(3.146)
. ,
,
x.
(3.143)
xs
xr
r
mjrs
jrr
r
mrs
rr
r
me L
LeeLL
LLT xx iii ===
23)()(
23
23
(3.147)
p ,
x
rxs
xr
r
mxs
xr
r
me L
LpLLpT sin
23
23 ii == (3.148)
r . x-
( 3.12)
xs
xr
r
me iL
LpT = 23
(3.149)
rxs
xsi sini= x-
, xr .
- 100 -
-
3.12
,
(x-)
(3.145) (3.146),
xs
xse ipT 2
3= (3.150)
xxs
xsi sini= x-
, xs (x-) xs
xme ipT 2
3= (3.151)
mxs
xsi sini= x-
xm (x-).
- 101 -
-
3.11
.
. ,
,
.
.
3.11.1
, F (
, field or excitation current) (field or excitation flux) F
I ( , torque producing current)
aFaFe IIcIcT 1== (3.152) F F
.
aFaFe ccT III == 1 (3.153) ( )
.
( ). ,
.
3.11.2
( ).
- 102 -
-
.
.
.
,
. ,
,
. ,
. ,
.
:
()
)( xrxsm
xssl
xrm
xss
xs LLLL iiiii ++=+=
xmm
xssl
xs LL ii +=
()
)( xrxsm
xrrl
xsm
xrr
xr LLLL iiiii ++=+=
xmm
xrrl
xr LL ii +=
()
xmm
xm L i=
(3.149), (3.150), (3.151)
() / stator-flux oriented control
xs
xsss
xs
xsse iccT == sini (3.154)
() / rotor-flux oriented control
- 103 -
-
xs
xrsr
xs
xrre iccT == sini (3.155)
() / magnetizing flux oriented control
xs
xmem
xs
xmee iccT == sini (3.156)
xs , xr , xm , xsi
s, r m
, ,
.
.
, .
( )
xsi
xsi ( )
.
xsai
, (field
oriented control). ,
(
, ).
(vector control).
, .
.
( )
.
.
xsai
xsi
, -
- .
. (3.154)
- 104 -
-
ss
ssse icT = (3.157)
(3.152), ss F, i
cs=c.
.
ssi
(, )
. ,
,
.
.
.
3.11.2.1
,
.
e
.
(synchronously rotating reference frame)
. ,
(e
r).
=eT eserc ir (3.158)
- 105 -
-
eee rrr += eseses iii += ,
[ ]eses ii ererre c = (3.159) ,
esi . , ee
rr = 0r =e . (3.158)
ere ser ic = (3.160)
ere ser ic = (3.161)
3.12 ( x
e )
:
a) (direct rotor-flux oriented
control flux-feedback control),
(Hall-effect sensors,
),
b) (indirect rotor-flux oriented
control flux-feed forward control),
, ,
. ,
,
(
).
,
- 106 -
-
. ,
,
,
.
3.11.2.2
,
, .
r. ,
e r .
,
(r = e )
.
( (3.146)
x=r)
rrm see cT i= (3.162)
rmrm
rm += rrr sss iii += ,
[ ]rrmrrm ssre iicT = (3.163) (3.162)
,
( Fd ), 3.13.
- 107 -
-
3.13
rsi
3.13.
,
, ,
rs
rFd
rm
rm i)Re( mdL+== (3.164)
rs
rm
rm i)(Im mqL== (3.164)
.
,
, ,
3.13. , (3.164).
rFd
rsimdL
rFd
rsi
rsi
- 108 -
-
(3.164) (3.165) (3.162),
[ ]rrrrFd )( ssasqsdsee iiLLicT += (3.166) Lsd = Ls1 + Lmd Lsq =
Ls1 + Lmq. ,
.
rrFd se ic
rr)( ssasqsde iiLLc
. Lsd < Lsq,
( , )
.
rsai
Lsd =
Lsq (3.166)
rrFd see icT = (3.167)
.
, =0 ,
(e/is)max ,
.
rsai
rsai
rsi
3.11.2.3
( ). (Lsd
Lsq ). ,
, Lsd Lsq .
.
0 rFd =
(3.166)
0 rFd =
r)( srsasqsdee iiLLcT = (3.168)
Lsd > Lsq , ( >0 )
.
rsai
- 109 -
-
3.11.3
,
.
.
(
dxdLiFe
2
21= ) .
.
.
,
( )
. ,
,
,
.
- 110 -
-
4 &
4.1
,
,
, ,
- .
.
Watt (.. ,
, ) kWatt (.. , ,
). 4.1
.
- 111 -
-
4.1 : () , ()
, () , () -
.
- 112 -
-
1970
mechatronics (
).
.
.
.
,
( 4.2.).
.
. ,
,
.
( 4.2.),
. (mechatronics controller)
(
) .
,
. , ,
.
,
,
.
1986 Bosch GmgH
.
CAN (Controller Area Network) 1993
ISO 11898.
. 1992 -
- 113 -
-
CiA (CAN in Automation)
CAN
.
4.2 : ()
, () (mechatronics system)
- 114 -
-
CAN
( ). CAN
.
.
CAN
.
CAN
(CAN Application Layer CAL).
CANopen DeviceNet. CANopen
, ,
., DeviceNet .
4.2
,
.
, .
, ,
.
.
( ).
,
- brushless
.
- 115 -
-
.
, ,
, ,
. ,
(brushless dc machines)
(brushless ac machines).
, .
.
,
.
.
.
( ,
)
.
.
, . ,
(CAN, CiA, CAL )
.
- 116 -
-
- 117 -
5
. . , 2008
Stephen Chapman. , 2000
Firoozian, Raziollah. Servo Motors and Industrial Control
Theory, 2009
. . , 2000
. . , 2005
R. Krishnan. Electric Motor Drives, Modeling, Analysis And
Control, 2003
B. K. Bose. Power Electronicsand Variable Frequency Drives,
Technology
And Applications
http://el.wikipedia.org/wiki/_
http://en.wikipedia.org/wiki/Servomechanism
http://en.wikipedia.org/wiki/Stepper_motor
http://www.seattlerobotics.org/guide/servos.html
http://imarinakis.webs.com/electric_engines.htm
http://zone.ni.com/devzone/cda/ph/p/id/234
http://www.metadosi-ischios.gr/article.php?ID=83
http://www.metadosi-ischios.gr/article.php?ID=100
1 1.1 - 1.2 1.2.1 -1.2.2 ( PM dc-commutator motors)1.2.3 ()
1.2.4 1.2.5
1.3 1.3.1 1.3.2 1.3.2.1 -1.3.2.2
1.4 1.4.1 1.4.1.1 1.4.1.2 [kW/Nm]1.4.1.3 ( ) [Nm/m3
Nm/Kg]1.4.1.4 [kW/kVA]
1.4.2 / 1.4.2.1 [rad/sec2]1.4.2.2 1.4.2.3 1.4.2.4 (max/b)1.4.2.5
, 1.4.2.6 1.4.2.7
1.4.3
1.5
2 2.1 2.2 2.3 2.3.1 2.3.1.1 (interior-rotor PMSM)2.3.1.2
(exterior-rotor PMSM)
2.3.2 2.3.2.1 (distributed stator winding PMSM)2.3.2.2
(concentrated stator winding PMSM)
2.3.3 2.3.3.1 (radial flux PMSM)2.3.3.2 (axial flux PMSM disk
type PMSM)
2.3.4 2.3.4.1 (linear PMSM)2.3.4.2 (slotless PMSM) 2.3.4.3
(coreless ironless PMSM)
2.3.5 2.3.5.1 2.3.5.2 - (surface-inset mount PMSM)2.3.5.3 ,
(interior mount radially magnetized PMSM)2.3.5.4 (interior mount
circumferentially magnetized PMSM)
2.4 ( commutator DC-PM machines)2.5 2.5.1 (SynRM)2.5.1.1 (SynRM
with segmented poles)2.5.1.2 (SynRM with flux barriers)2.5.1.3
(SynMR with distributed anisotropy rotor and conventional
laminators)2.5.1.4 (ALA, SynRM with axially laminated anisotropic
rotor)
2.5.2 (SRM)
2.6 2.6.1 (squarewave PM trapezoidal PM brushless dc
machine)2.6.2 (sinewave PM brushless ac machine)
3 3.1 3.2 3.3 .3.4 3.5 3.6 3.7 () 3.8 3.9 3.10 3.11 3.11.1
3.11.2 3.11.2.1 3.11.2.2 3.11.2.3
3.11.3
4 & 4.1 4.2
5