![[picture]
[end of picture]](+3qmj5O6AMwreTbZ.png)
A | [V] | armature-circuit +terminal |
B | [V] | armature-circuit -terminal |
S | [rad/s] | machine shaft |
H | [rad/s] | machine housing |
| Kem = 1 | [V.s/rad] | machine electro-mechanical constant |
| La = 0 | [H] | armature-circuit inductance |
| Ra = 0.1 | [Ω] | armature-circuit resistance |
| Jm = 0 | [kg.m2] | armature moment of inertia |
| Bm = 0 | [N.m.s/rad] | armature-to-housing damping factor |
![[picture]
[end of picture]](Nk+cEJRiPGnY6W0H.png)
:: Permanent magnet DC machine DCMOTOR A, :: [V] armature-circuit +terminal B, :: [V] armature-circuit -terminal S, :: [rad/s] machine shaft H/ :: [rad/s] machine housing Kem=1, ::[V*s/rad] machine electro-mechanical constant La=0, ::[H] armature-circuit inductance Ra=0.1, ::[ohm] armature-circuit resistance Jm=0, ::[kg*m**2] armature moment of inertia Bm=0; ::[N*m*s/rad] armature-to-housing damping factor :Model: Laa A-B = La; Raa - Laa = Ra; :armature circuit Eaa - Laa = Kem*v.S; :source of back EMF Jt S-H = - Kem*i.Eaa; :internal machine torque Ca S = Jm; :armature inertia Gm S-H = Bm; :viscous torsional friction EO@; :Internal variables: ::I.Eaa [A] armature-circuit current ::Jt [N*m] machine internal internal torque
August 22, 2006