Domeinentabel

1
Domain Effort Flow Impulse Displaceme nt Power P [W] Energy E [J] Dissipato r R Impulse buffer Inertantie Displacement buffer Capaciteit Translati on Kracht F [N] Snelheid v [m/s] Impulse I [Ns] Afstand x [m] P=F.v [Nm/s] E=Pdt+E 0 [Nm] R=F/v [Ns/m] Massa m [kg] v=m -1 Fdt + v 0 F=m dv/dt Veer Compliantie C F=C -1 vdt + F 0 v (= dx/dt) = C dF/dt Rotation Koppel T [Nm] Hoeksnelheid [rad/s] Impuls- moment L [Nms] Draaihoek [rad] P=T. [Nm/s] E=Pdt [Nm] R=T/ [Nms/rad] Traagheidsmoment J [kgm 2 ] =J -1 Tdt + 0 T=J d/dt Torsieveer Compliantie C T=C -1 dt + T 0 =C dT/dt Hydraulic Druk p [N/m 2 ] Debiet [m 3 /s] Impulse I [Ns/m 2 ] Volume V [m 3 ] P=p. [Nm/s] E=Pdt [Nm] R=p/ [Ns/m 5 ] Stromende massa I =I -1 pdt + 0 p=I d/dt Drukvat C p=C -1 dt + p 0 =C dp/dt Electrica l Spanning U [V] Stroom I [A] Flux [Vs] Lading Q [Coulomb] P=U.I [VA] E=Pdt [VAs] R=U/I [V/A]=[] Spoel inductie L [Henry = Vs/A] I=L -1 Udt + I 0 U=L dI/dt Condensatorcap C [Farad = Coulomb/V] U=C -1 Idt + U 0 I=C dU/dt Q=C U Thermo- dynamical Temp T [K] Entropie- stroom dS/dt [W/K] -------- - Entropie S [J/K] P=T.dS/ dt E=Pdt --------- - --------- --------- Warmtecapacitei t

description

- PowerPoint PPT Presentation

Transcript of Domeinentabel

Page 1: Domeinentabel

Domain Effort Flow Impulse DisplacementPower

P[W]

EnergyE [J]

DissipatorR

Impulse bufferInertantie

Displacement buffer

Capaciteit

TranslationKrachtF [N]

Snelheidv [m/s]

Impulse I[Ns]

Afstandx[m]

P=F.v[Nm/s]

E=Pdt+E0

[Nm]R=F/v[Ns/m]

Massa m[kg]v=m-1Fdt + v0

F=m dv/dt

VeerCompliantie CF=C-1vdt + F0

v (= dx/dt) = C dF/dt

RotationKoppelT [Nm]

Hoeksnelheid [rad/s]

Impuls-momentL [Nms]

Draaihoek [rad]

P=T. [Nm/s]

E=Pdt[Nm]

R=T/ [Nms/rad]

Traagheidsmoment J [kgm2]=J-1Tdt + 0

T=J d/dt

TorsieveerCompliantie CT=C-1dt + T0

=C dT/dt

HydraulicDrukp [N/m2]

Debiet [m3/s]

ImpulseI [Ns/m2]

VolumeV [m3]

P=p. [Nm/s]

E=Pdt[Nm]

R=p/ [Ns/m5]

Stromende massa I=I-1pdt + 0

p=I d/dt

Drukvat Cp=C-1dt + p0

=C dp/dt

ElectricalSpanningU [V]

StroomI[A]

Flux [Vs]

LadingQ [Coulomb]

P=U.I[VA]

E=Pdt[VAs]

R=U/I[V/A]=[]

Spoel inductie L [Henry = Vs/A]I=L-1Udt + I0

U=L dI/dt

Condensatorcap C[Farad = Coulomb/V]U=C-1Idt + U0

I=C dU/dtQ=C U

Thermo-dynamical

TempT [K]

Entropie-stroomdS/dt [W/K]

---------EntropieS [J/K]

P=T.dS/dt E=Pdt ---------- --------- ---------

ThermicalTempT [K]

Warmte-stroomdQ/dt[W]

---------WarmteQ [J]

--------- --------- R=T/(dQ/dt) ---------

WarmtecapaciteitCT=C-1dQ/dt dt + T0

Q=C T