Tunnel Open Open 25 Microns - 0.1mm Thickness
Author
|
COMSOL
|
Date
|
11:06:54 06/08/2014
|
Summary
This model describes the pressure wave propagation in a muffler for an internal combustion engine. The purpose of the model is to show how to analyze both inductive and resistive damping in pressure acoustics.
Contents
Parameters
Name
|
Expression
|
Description
|
p0
|
1[Pa]
|
Amplitude of incoming pressure wave
|
Selection
Geometric entity level
|
Entire model
|
Name
|
Expression
|
Description
|
w_in
|
intop1(p0^2/(2*acpr.rho*acpr.c))
|
Power of the incoming wave
|
w_out
|
intop2(abs(p)^2/(2*acpr.rho*acpr.c))
|
Power of the outgoing wave
|
Coupling type
|
Integration
|
Operator name
|
intop1
|
Coupling type
|
Integration
|
Operator name
|
intop2
|
Inlet
Outlet
Selection
|
Boundaries 6, 16
|
Explicit 3
Coordinate system type
|
Boundary system
|
Identifier
|
sys1
|
Settings
Name
|
Value
|
Coordinate names
|
{t1, t2, n}
|
Create first tangent direction from
|
Global Cartesian
|
Geometry 1
units
Length unit
|
mm
|
Angular unit
|
deg
|
Geometry statistics
Property
|
Value
|
Space dimension
|
3
|
Number of domains
|
5
|
Number of boundaries
|
26
|
Number of edges
|
44
|
Number of vertices
|
24
|
Air
Selection
Geometric entity level
|
Domain
|
Selection
|
Domains 1–5
|
Material parameters
Name
|
Value
|
Unit
|
Density
|
rho(pA[1/Pa], T[1/K])[kg/m^3]
|
kg/m^3
|
Speed of sound
|
cs(T[1/K])[m/s]
|
m/s
|
Basic Settings
Description
|
Value
|
Relative permeability
|
{{1, 0, 0}, {0, 1, 0}, {0, 0, 1}}
|
Relative permittivity
|
{{1, 0, 0}, {0, 1, 0}, {0, 0, 1}}
|
Dynamic viscosity
|
eta(T[1/K])[Pa*s]
|
Ratio of specific heats
|
1.4
|
Electrical conductivity
|
{{0[S/m], 0, 0}, {0, 0[S/m], 0}, {0, 0, 0[S/m]}}
|
Heat capacity at constant pressure
|
Cp(T[1/K])[J/(kg*K)]
|
Density
|
rho(pA[1/Pa], T[1/K])[kg/m^3]
|
Thermal conductivity
|
{{k(T[1/K])[W/(m*K)], 0, 0}, {0, k(T[1/K])[W/(m*K)], 0}, {0, 0, k(T[1/K])[W/(m*K)]}}
|
Speed of sound
|
cs(T[1/K])[m/s]
|
Functions
Function name
|
Type
|
eta
|
Piecewise
|
Cp
|
Piecewise
|
rho
|
Analytic
|
k
|
Piecewise
|
cs
|
Analytic
|
eta
Cp
k
Pressure Acoustics, Frequency Domain
Selection
Geometric entity level
|
Domain
|
Selection
|
Domains 1–5
|
Settings
Description
|
Value
|
Show equation assuming
|
std1/freq
|
Pressure Acoustics Model 1
Selection
Geometric entity level
|
Domain
|
Selection
|
Domains 1–5
|
Name
|
Expression
|
Unit
|
Description
|
Selection
|
acpr.Q
|
0
|
1/s^2
|
Monopole source
|
Domains 1–5
|
acpr.qx
|
0
|
N/m^3
|
Dipole source, x component
|
Domains 1–5
|
acpr.qy
|
0
|
N/m^3
|
Dipole source, y component
|
Domains 1–5
|
acpr.qz
|
0
|
N/m^3
|
Dipole source, z component
|
Domains 1–5
|
acpr.p_b
|
0
|
Pa
|
Background pressure field
|
Domains 1–5
|
acpr.nacc
|
0
|
m/s^2
|
Inward acceleration
|
Boundaries 1–26
|
acpr.FAcoPerAreax
|
acpr.p_t*acpr.nx
|
N/m^2
|
Acoustic load per unit area, x component
|
Boundaries 1–26
|
acpr.FAcoPerAreay
|
acpr.p_t*acpr.ny
|
N/m^2
|
Acoustic load per unit area, y component
|
Boundaries 1–26
|
acpr.FAcoPerAreaz
|
acpr.p_t*acpr.nz
|
N/m^2
|
Acoustic load per unit area, z component
|
Boundaries 1–26
|
acpr.p_t
|
p + acpr.p_b
|
Pa
|
Total acoustic pressure field
|
Domains 1–5
|
acpr.p_s
|
acpr.p_t - acpr.p_b
|
Pa
|
Scattered pressure field
|
Domains 1–5
|
acpr.delta
|
1/acpr.omega^2
|
s^2
|
Scaling factor
|
Global
|
acpr.c
|
model.input.c
|
m/s
|
Speed of sound
|
Domains 1–5
|
acpr.pam1.minput_temperature
|
model.input.minput_temperature
|
K
|
Temperature
|
Domains 1–5
|
acpr.pam1.minput_pressure
|
1[atm]
|
Pa
|
Absolute pressure
|
Domains 1–5
|
acpr.rho
|
model.input.rho
|
kg/m^3
|
Density
|
Domains 1–5
|
acpr.c_c
|
acpr.c
|
m/s
|
Complex speed of sound
|
Domains 1–5
|
acpr.rho_c
|
acpr.rho
|
kg/m^3
|
Complex density
|
Domains 1–5
|
acpr.k
|
acpr.omega/acpr.c_c
|
rad/m
|
Wave number
|
Domains 1–5
|
acpr.Z
|
acpr.rho_c*acpr.c_c
|
Pa*s/m
|
Characteristic acoustic impedance
|
Domains 1–5
|
acpr.ik
|
acpr.iomega/acpr.c_c
|
rad/m
|
Phase-shifted wave number
|
Domains 1–5
|
acpr.keq_sq
|
-acpr.ik^2
|
rad/m
|
Squared wave number for equations
|
Domains 1–5
|
acpr.keq
|
(acpr.ik^2)^0.5
|
rad/m
|
Wave number for equations
|
Domains 1–5
|
acpr.ax
|
-(d(acpr.p_t, x) - acpr.qx)/acpr.rho_c
|
m/s^2
|
Local acceleration, x component
|
Domains 1–5
|
acpr.ay
|
-(d(acpr.p_t, y) - acpr.qy)/acpr.rho_c
|
m/s^2
|
Local acceleration, y component
|
Domains 1–5
|
acpr.az
|
-(d(acpr.p_t, z) - acpr.qz)/acpr.rho_c
|
m/s^2
|
Local acceleration, z component
|
Domains 1–5
|
acpr.a_inst
|
sqrt(real((d(acpr.p_t, x) - acpr.qx)/acpr.rho_c)^2 + real((d(acpr.p_t, y) - acpr.qy)/acpr.rho_c)^2 + real((d(acpr.p_t, z) - acpr.qz)/acpr.rho_c)^2)
|
m/s^2
|
Instantaneous local acceleration
|
Domains 1–5
|
acpr.a_rms
|
sqrt(0.5*(realdot((d(acpr.p_t, x) - acpr.qx)/acpr.rho_c, (d(acpr.p_t, x) - acpr.qx)/acpr.rho_c) + realdot((d(acpr.p_t, y) - acpr.qy)/acpr.rho_c, (d(acpr.p_t, y) - acpr.qy)/acpr.rho_c) + realdot((d(acpr.p_t, z) - acpr.qz)/acpr.rho_c, (d(acpr.p_t, z) - acpr.qz)/acpr.rho_c)))
|
m/s^2
|
Local acceleration, (RMS)
|
Domains 1–5
|
acpr.vx
|
-(d(acpr.p_t, x) - acpr.qx)/(acpr.rho_c*acpr.iomega)
|
m/s
|
Local velocity, x component
|
Domains 1–5
|
acpr.vy
|
-(d(acpr.p_t, y) - acpr.qy)/(acpr.rho_c*acpr.iomega)
|
m/s
|
Local velocity, y component
|
Domains 1–5
|
acpr.vz
|
-(d(acpr.p_t, z) - acpr.qz)/(acpr.rho_c*acpr.iomega)
|
m/s
|
Local velocity, z component
|
Domains 1–5
|
acpr.v_inst
|
sqrt(real(acpr.vx)^2 + real(acpr.vy)^2 + real(acpr.vz)^2)
|
m/s
|
Instantaneous local velocity
|
Domains 1–5
|
acpr.v_rms
|
sqrt(0.5*(realdot(acpr.vx, acpr.vx) + realdot(acpr.vy, acpr.vy) + realdot(acpr.vz, acpr.vz)))
|
m/s
|
Local velocity, (RMS)
|
Domains 1–5
|
acpr.Ix
|
0.5*realdot(acpr.p_t, acpr.vx)
|
W/m^2
|
Intensity (RMS), x component
|
Domains 1–5
|
acpr.Iy
|
0.5*realdot(acpr.p_t, acpr.vy)
|
W/m^2
|
Intensity (RMS), y component
|
Domains 1–5
|
acpr.Iz
|
0.5*realdot(acpr.p_t, acpr.vz)
|
W/m^2
|
Intensity (RMS), z component
|
Domains 1–5
|
acpr.I_rms
|
sqrt(0.25*(realdot(acpr.p_t, acpr.vx)^2 + realdot(acpr.p_t, acpr.vy)^2 + realdot(acpr.p_t, acpr.vz)^2))
|
W/m^2
|
Intensity magnitude (RMS)
|
Domains 1–5
|
acpr.Iix
|
real(acpr.vx)*real(acpr.p_t)
|
W/m^2
|
Instantaneous intensity, x component
|
Domains 1–5
|
acpr.Iiy
|
real(acpr.vy)*real(acpr.p_t)
|
W/m^2
|
Instantaneous intensity, y component
|
Domains 1–5
|
acpr.Iiz
|
real(acpr.vz)*real(acpr.p_t)
|
W/m^2
|
Instantaneous intensity, z component
|
Domains 1–5
|
acpr.I_inst
|
sqrt((real(acpr.vx)*real(acpr.p_t))^2 + (real(acpr.vy)*real(acpr.p_t))^2 + (real(acpr.vz)*real(acpr.p_t))^2)
|
W/m^2
|
Instantaneous intensity magnitude
|
Domains 1–5
|
acpr.Lp
|
10*log10(0.5*acpr.p_t*conj(acpr.p_t)/acpr.pref_SPL^2)
|
dB
|
Sound pressure level
|
Domains 1–5
|
acpr.Lp_s
|
10*log10(0.5*acpr.p_s*conj(acpr.p_s)/acpr.pref_SPL^2)
|
dB
|
Scattered sound pressure level
|
Domains 1–5
|
acpr.absp
|
sqrt(realdot(acpr.p_t, acpr.p_t))
|
Pa
|
Absolute pressure
|
Domains 1–5
|
Name
|
Shape function
|
Unit
|
Description
|
Shape frame
|
Selection
|
p
|
Lagrange (Quadratic)
|
Pa
|
Pressure
|
Material
|
Domains 1–5
|
Weak expression
|
Integration frame
|
Selection
|
(d(acpr.p_t, x)*test(px) - d(acpr.p_t, y)*test(py) - d(acpr.p_t, z)*test(pz) + acpr.p_t*test(p)*acpr.keq_sq)*acpr.delta/acpr.rho_c
|
Material
|
Domains 1–5
|
acpr.delta*acpr.Q*test(p)
|
Material
|
Domains 1–5
|
acpr.delta*(acpr.qx*test(px) + acpr.qy*test(py) + acpr.qz*test(pz))/acpr.rho_c
|
Material
|
Domains 1–5
|
acpr.nacc*test(p)*acpr.delta
|
Material
|
Boundaries 1–5, 7–10, 12–15, 17–20, 22–26
|
Sound Hard Boundary (Wall) 1
Selection
Geometric entity level
|
Boundary
|
Selection
|
Boundaries 2–5, 7–10, 12–15, 17–20, 22–25
|
Initial Values 1
Selection
Geometric entity level
|
Domain
|
Selection
|
Domains 1–5
|
Plane Wave Radiation 1
Selection
Geometric entity level
|
Boundary
|
Selection
|
Boundaries 1, 26
|
Name
|
Expression
|
Unit
|
Description
|
Selection
|
acpr.ik
|
acpr.iomega/acpr.c_c
|
rad/m
|
Phase-shifted wave number
|
Boundaries 1, 26
|
acpr.p_i
|
0
|
Pa
|
Incident pressure field
|
Boundaries 1, 26
|
Weak expression
|
Integration frame
|
Selection
|
((acpr.ik^2)^0.5*i*p*test(p) + ((acpr.ik^2)^0.5*i*acpr.p_i + acpr.nx*d(acpr.p_i, x) + acpr.ny*d(acpr.p_i, y) + acpr.nz*d(acpr.p_i, z))*test(p) + (acpr.nx*mean(d(acpr.p_b, x)) + acpr.ny*mean(d(acpr.p_b, y)) + acpr.nz*mean(d(acpr.p_b, z)))*test(p) + 0.5*(pTx*test(pTx) + pTy*test(pTy) + pTz*test(pTz))*i/(acpr.ik^2)^0.5 + 0.5*(test(pTx)*(acpr.nx*(acpr.nx*d(acpr.p_i, x) + acpr.ny*d(acpr.p_i, y) + acpr.nz*d(acpr.p_i, z)) - d(acpr.p_i, x)) + test(pTy)*(acpr.ny*(acpr.nx*d(acpr.p_i, x) + acpr.ny*d(acpr.p_i, y) + acpr.nz*d(acpr.p_i, z)) - d(acpr.p_i, y)) + test(pTz)*(acpr.nz*(acpr.nx*d(acpr.p_i, x) + acpr.ny*d(acpr.p_i, y) + acpr.nz*d(acpr.p_i, z)) - d(acpr.p_i, z)))*i/(acpr.ik^2)^0.5)*acpr.delta/acpr.rho_c
|
Material
|
Boundaries 1, 26
|
Incident Pressure Field 1
Selection
Geometric entity level
|
Boundary
|
Selection
|
Boundary 1
|
Settings
Description
|
Value
|
Pressure amplitude
|
p0
|
Name
|
Expression
|
Unit
|
Description
|
Selection
|
acpr.p_i
|
p0*exp(acpr.keq*i*(acpr.nx*x - acpr.ny*y - acpr.nz*z)/sqrt(acpr.nx^2 + acpr.ny^2 + acpr.nz^2))
|
Pa
|
Incident pressure field
|
Boundary 1
|
Interior Perforated Plate 1
Selection
Geometric entity level
|
Boundary
|
Selection
|
Boundaries 6, 16
|
Settings
Description
|
Value
|
Area porosity
|
0.4
|
Plate thickness
|
0.0001
|
Hole diameter
|
25e6 [m]
|
Name
|
Expression
|
Unit
|
Description
|
Selection
|
acpr.dh
|
2.5E5[m]
|
m
|
Hole diameter
|
Boundaries 6, 16
|
acpr.Zi
|
2.5*((8*1.8E5[Pa*s]*acpr.k/(acpr.rho_c*acpr.c_c))^0.5*(1 + 1.0E4/acpr.dh) + acpr.k*i*(1.0E4 + 0.25*acpr.dh))*acpr.rho_c*acpr.c_c
|
Pa*s/m
|
Impedance
|
Boundaries 6, 16
|
Name
|
Shape function
|
Unit
|
Description
|
Shape frame
|
Selection
|
p
|
Lagrange (Quadratic)
|
Pa
|
Pressure
|
Material
|
Boundaries 6, 16
|
Weak expression
|
Integration frame
|
Selection
|
acpr.iomega*(down(acpr.p_t) - up(acpr.p_t))*acpr.delta*(down(test(p)) + up(test(p)))/acpr.Zi
|
Material
|
Boundaries 6, 16
|
Mesh statistics
Property
|
Value
|
Minimum element quality
|
2.598E6
|
Average element quality
|
0.591
|
Tetrahedral elements
|
9676
|
Triangular elements
|
3564
|
Edge elements
|
496
|
Vertex elements
|
24
|
Mesh 1
Settings
Name
|
Value
|
Maximum element size
|
367
|
Minimum element size
|
45.9
|
Resolution of curvature
|
0.5
|
Resolution of narrow regions
|
0.6
|
Maximum element growth rate
|
1.45
|
Predefined size
|
Fine
|
Frequencies: range(10,2,300)
Physics selection
Physics
|
Discretization
|
Pressure Acoustics, Frequency Domain (acpr)
|
physics
|
Study and step
Name
|
Value
|
Use study
|
Study 1
|
Use study step
|
Frequency Domain
|
General
Name
|
Value
|
Defined by study step
|
Frequency Domain
|
General
Name
|
Value
|
Field components
|
mod1.p
|
General
Name
|
Value
|
Defined by study step
|
Frequency Domain
|
Log
Stationary Solver 1 in Solver 1 started at 6-אוג-2014 10:41:18.
Parametric solver
Linear solver
Number of degrees of freedom solved for: 16770.
Parameter freq = 10.
Symmetric matrices found.
Scales for dependent variables:
mod1.p: 1
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 1 1 1
Parameter freq = 12.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 2 2 2
Parameter freq = 14.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 3 3 3
Parameter freq = 16.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 4 4 4
Parameter freq = 18.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 5 5 5
Parameter freq = 20.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 6 6 6
Parameter freq = 22.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 7 7 7
Parameter freq = 24.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 8 8 8
Parameter freq = 26.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 9 9 9
Parameter freq = 28.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 10 10 10
Parameter freq = 30.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 11 11 11
Parameter freq = 32.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 12 12 12
Parameter freq = 34.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 13 13 13
Parameter freq = 36.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 14 14 14
Parameter freq = 38.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 15 15 15
Parameter freq = 40.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 16 16 16
Parameter freq = 42.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 17 17 17
Parameter freq = 44.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 18 18 18
Parameter freq = 46.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 19 19 19
Parameter freq = 48.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 20 20 20
Parameter freq = 50.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 21 21 21
Parameter freq = 52.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 22 22 22
Parameter freq = 54.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 23 23 23
Parameter freq = 56.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 24 24 24
Parameter freq = 58.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 25 25 25
Parameter freq = 60.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 26 26 26
Parameter freq = 62.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 27 27 27
Parameter freq = 64.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 28 28 28
Parameter freq = 66.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 29 29 29
Parameter freq = 68.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 30 30 30
Parameter freq = 70.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 31 31 31
Parameter freq = 72.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 32 32 32
Parameter freq = 74.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 33 33 33
Parameter freq = 76.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 34 34 34
Parameter freq = 78.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 35 35 35
Parameter freq = 80.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 36 36 36
Parameter freq = 82.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 37 37 37
Parameter freq = 84.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 38 38 38
Parameter freq = 86.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 39 39 39
Parameter freq = 88.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 40 40 40
Parameter freq = 90.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 41 41 41
Parameter freq = 92.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 42 42 42
Parameter freq = 94.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 43 43 43
Parameter freq = 96.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 44 44 44
Parameter freq = 98.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 45 45 45
Parameter freq = 100.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 46 46 46
Parameter freq = 102.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 47 47 47
Parameter freq = 104.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 48 48 48
Parameter freq = 106.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 49 49 49
Parameter freq = 108.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 50 50 50
Parameter freq = 110.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 51 51 51
Parameter freq = 112.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 52 52 52
Parameter freq = 114.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 53 53 53
Parameter freq = 116.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 54 54 54
Parameter freq = 118.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 55 55 55
Parameter freq = 120.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 56 56 56
Parameter freq = 122.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 57 57 57
Parameter freq = 124.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 58 58 58
Parameter freq = 126.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 59 59 59
Parameter freq = 128.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 60 60 60
Parameter freq = 130.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 61 61 61
Parameter freq = 132.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 62 62 62
Parameter freq = 134.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 63 63 63
Parameter freq = 136.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 64 64 64
Parameter freq = 138.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 65 65 65
Parameter freq = 140.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 66 66 66
Parameter freq = 142.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 67 67 67
Parameter freq = 144.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 68 68 68
Parameter freq = 146.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 69 69 69
Parameter freq = 148.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 70 70 70
Parameter freq = 150.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 71 71 71
Parameter freq = 152.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 72 72 72
Parameter freq = 154.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 73 73 73
Parameter freq = 156.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 74 74 74
Parameter freq = 158.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 75 75 75
Parameter freq = 160.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 76 76 76
Parameter freq = 162.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 77 77 77
Parameter freq = 164.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 78 78 78
Parameter freq = 166.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 79 79 79
Parameter freq = 168.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 80 80 80
Parameter freq = 170.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 81 81 81
Parameter freq = 172.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 82 82 82
Parameter freq = 174.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 83 83 83
Parameter freq = 176.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 84 84 84
Parameter freq = 178.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 85 85 85
Parameter freq = 180.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 86 86 86
Parameter freq = 182.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 87 87 87
Parameter freq = 184.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 88 88 88
Parameter freq = 186.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 89 89 89
Parameter freq = 188.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 90 90 90
Parameter freq = 190.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 91 91 91
Parameter freq = 192.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 92 92 92
Parameter freq = 194.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 93 93 93
Parameter freq = 196.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 94 94 94
Parameter freq = 198.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 95 95 95
Parameter freq = 200.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 96 96 96
Parameter freq = 202.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 97 97 97
Parameter freq = 204.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 98 98 98
Parameter freq = 206.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 99 99 99
Parameter freq = 208.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 100 100 100
Parameter freq = 210.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 101 101 101
Parameter freq = 212.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 102 102 102
Parameter freq = 214.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 103 103 103
Parameter freq = 216.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 104 104 104
Parameter freq = 218.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 105 105 105
Parameter freq = 220.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 106 106 106
Parameter freq = 222.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 107 107 107
Parameter freq = 224.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 108 108 108
Parameter freq = 226.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 109 109 109
Parameter freq = 228.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 110 110 110
Parameter freq = 230.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 111 111 111
Parameter freq = 232.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 112 112 112
Parameter freq = 234.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 113 113 113
Parameter freq = 236.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 114 114 114
Parameter freq = 238.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 115 115 115
Parameter freq = 240.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 116 116 116
Parameter freq = 242.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 117 117 117
Parameter freq = 244.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 118 118 118
Parameter freq = 246.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 119 119 119
Parameter freq = 248.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 120 120 120
Parameter freq = 250.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 121 121 121
Parameter freq = 252.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 122 122 122
Parameter freq = 254.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 123 123 123
Parameter freq = 256.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 124 124 124
Parameter freq = 258.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 125 125 125
Parameter freq = 260.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 126 126 126
Parameter freq = 262.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 127 127 127
Parameter freq = 264.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 128 128 128
Parameter freq = 266.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 129 129 129
Parameter freq = 268.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 130 130 130
Parameter freq = 270.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 131 131 131
Parameter freq = 272.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 132 132 132
Parameter freq = 274.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 133 133 133
Parameter freq = 276.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 134 134 134
Parameter freq = 278.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 135 135 135
Parameter freq = 280.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 136 136 136
Parameter freq = 282.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 137 137 137
Parameter freq = 284.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 138 138 138
Parameter freq = 286.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 139 139 139
Parameter freq = 288.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 140 140 140
Parameter freq = 290.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 141 141 141
Parameter freq = 292.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 142 142 142
Parameter freq = 294.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 143 143 143
Parameter freq = 296.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 144 144 144
Parameter freq = 298.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 145 145 145
Parameter freq = 300.
Iter Damping Stepsize #Res #Jac #Sol
1 1.0000000 1 146 146 146
Stationary Solver 1 in Solver 1: Solution time: 94 s. (1 minute, 34 seconds)
General
Name
|
Value
|
Allow complex-valued output from functions with real input
|
On
|
General
Name
|
Value
|
Defined by study step
|
Frequency Domain
|
Parameter value list
|
range(10, 2, 300)
|
General
Name
|
Value
|
Linear solver
|
Direct
|
Selection
Geometric entity level
|
Domain
|
Selection
|
Geometry geom1
|
Solution
Name
|
Value
|
Solution
|
Solver 1
|
Model
|
Save Point Geometry 1
|
Interactive 3D values
freq(82)=172 Slice: Total acoustic pressure field (Pa)
freq(56)=120 Surface: Sound pressure level (dB)
Global: Point Graph: Total acoustic pressure field (Pa)
freq(1)=10 Streamline: Intensity (RMS)
freq(1)=10 Isosurface: Total acoustic pressure field (Pa)