Index for this Document

3D sound : 13.8.5

acceleration due to gravity : 13.1.4

acoustic

echo simulation : 3.2.7

energy density : 13.7.8

intensity : 13.7.7

wave simulation : 3.2

acoustic guitars : 10.2

acoustic tube

nonuniform : 14.18

waveguide model : 7.2

acoustical ohms : 14.7.3

acoustics : 13

action : 13.4

action force : 10.3.1

adaptor : 17.2

parallel, reflection free, binary connection tree : 17.2.3

parallel, three-port, one-multiply : 17.2.3.1

series, reflection free : 17.2.5.4

series, reflection free, binary connection tree : 17.2.6

series, three-port, one-multiply : 17.2.6.1

two-port parallel : 17.2.1

unit element : 17.1.7

additive synthesis : 2.4.3

adiabatic gas constant : 13.7.12

admittance : 8.1

aerofoil : 13.7.5

air absorption : 4.1.1 | 13.7.15

frequency-dependent : 3.3.2

frequency-independent : 3.3.1

air jets : 13.7.6

air pressure : 13.7.3

airfoil : 13.7.5

aliasing : 7.13.1.6

allpass comb filter : 3.8.1

allpass condition

equivalence to losslessness : 3.8.3

allpass filter : 3.8 | 3.8.1

examples : 3.8.4

general case : 3.8.3

Gerzon nested MIMO : 3.8.5

maximally flat group delay : 5.3

nested : 3.8.2 | 4.4.3

Thiran : 5.3

waveguide : 3.9

allpass phase shifter : 9.10.1

second-order case : 9.10.2

allpass reflectance : 14.11.1

alpha parameters : 17.2.2.1 | 17.2.2.1

amplification factor : 15.4

amplifier

cabinet filter : 10.1.8

distortion : 10.1.10

feedback simulation : 10.1.7

amplitude complementary : 10.5.1.1

amplitude envelopes : 7.11.1

analog circuit : 2.5.10

angular acceleration : 13.4.19

angular momentum : 13.4.13

general case : 13.4.20.2

vector : 13.4.14

angular velocity vector : 13.4.11

arctangent nonlinearity : 7.13.1.2

area moment of inertia : 13.4.8

artificial reverberation : 4.5

backward difference : 2.5.5 | 8.3.1

backward Euler method : 8.4.3

bandlimited interpolation : 5.4

Bark scale : 9.7.2

beaded strings : 10.4.3

bell models : 10.7.2

Bernoulli effect : 13.7.5

Bernoulli equation : 10.7.1 | 13.7.4

Bessel filter : 5.3

beta parameters : 17.2.5.1

beta parameters (WDF) : 17.2.5.1

bidirectional delay line : 3.4

bilinear transform : 8.3.2

bilinear transform vs. finite differences : 8.3.2.1

Bode plot : 9.10.1.1

body factoring : 9.9

by sinusoidal modeling : 9.9.1.4

example : 9.9.6

resonator extraction : 9.9

body-fixed frame : 13.4.10.2 | 13.4.20.1 | 13.4.20.1

Boltzmann's constant : 13.7.10

boundary conditions : 13.8.4

boundary element method : 14.18.1.1

boundary losses : 13.7.15

bowed strings : 10.6

bow-string junction : 10.6.2

linear commuted synthesis of : 10.6.4

brass instruments : 10.7

brass mouthpiece : 10.7.1

break frequency : 9.10.1.1 | 9.10.1.1

bridge power splitting : 14.11.1.2

bridge velocity transmittance : 14.11.1.1

butterflies : 4.7.9

cabinet filtering : 10.1.8

capacitor : 8.1.3

cardinal sine : 5.4.1

causal : 3.5.4 | 3.8.3

center of gravity : 13.4.1

center of mass : 13.4.1

center of mass, momentum : 13.4.1.1

center-of-mass frame : 13.4.10.2

centered finite difference : 8.3.1.2 | 12.5.2 | 16.1.1

centroid : 13.4.1

cepstral method : 9.7.4.3

chain rule : 14.3.2 | 14.3.2

change of coordinates: : 2.5.9.3

characteristic impedance : see wave impedancetextbf

characteristic polynomial equation : 15.2.2.1 | 15.3

Chebyshev optimality : 5.2.3

chorus effect : 3 | 6.8

clarinet tonehole two-port junction : 10.5.4.1

classical mechanics : 13.4

clipping distortion : 10.1.6.3 | 10.1.6.4

clipping nonlinearity : 7.13.1.1

closed waveguide networks : 3.9

coefficient of inharmonicity : 7.11.4.3 | 10.4.1.3

collision detection : 10.3.3.2

comb filter : 3.6

amplitude response : 3.6.3 | 3.6.4

feedback : 3.6.2

feedforward : 3.6.1

filtered feedback : 3.6.5

lowpass feedback : 4.6.2

Schroeder-Moorer : 3.6.5 | 4.6.2

commuted waveguide synthesis : 9.8

bowed strings : 10.6.4

excitation synthesis : 10.4.4.6

piano : 10.4.4

compatible port connection : 17.2.1.1

complete response : 2.5.7.2

compliance of springs : 8.1.3

compression velocity : 8.1.3

cone wave impedance : 14.18.4

cone-cylinder intersection : 14.18.8

conformal map interpretation of damping : 4.7.4.1

conical acoustic tubes : 14.18.2

conical cap reflectance : 14.18.8.2

conical diffuser : 6.9.1

conical tube junction : 14.18.8.1

conservation of energy : 13.2.6

conservation of momentum : 13.1.1 | 13.3.1 | 13.3.1

conservative forces : 13.2

consistency of finite differences : 15.2.1

convergence of finite-difference schemes : 15.2

Coulomb force : 13.1.4

coupled strings : 7.12 | 14.13

coupled strings eigenanalysis : 14.13.2

coupling of horizontal and vertical transverse waves : 7.12.2

coupling of two ideal strings : 14.13.1

crests : 13.8.1

cubic nonlinearity : 10.1.6.4

cubic soft clipper : 7.13.1.3

cylinder with conical cap : 14.18.8

damping filter design : 7.11.1 | 7.11.2

damping, plectrum : 10.3.3.4

dashpot : 2.5.3 | 8.1.1 | 8.1.1

degree of freedom : 2.5.6.4

delay effects : 3 | 6 | 6

delay line : 3.1 | 3.1

bidirectional : 3.4

interpolation : 5.1

software : 3.1.1

tapped : 3.5

time varying : 6.1

time-varying reads : 6.7.2

delay loop expansion : 9.6.2

delay operator notation : 8.3.1.2

delay-line lengths, reverberation : 4.7.3

diatomic gas : 13.7.12

difference equation : 2.5.2

differential equation : 13.1.5

differentiator : 8.1.3 | 9.7.1

diffuse field : 4.2.1 | 4.3 | 4.7.3.1

diffuse reflection : 3.2.6

diffusers : 4.5

digital waveguide

mesh : 10.8.3

digital sinusoid generators : 14.17.2

digital state variable filter : 14.17.2

digital waveguide : 3.4

animation : 7.4.2

equivalent forms : 7.10.1

history : 12.9

mesh : 4.7.11.4 | see mesh

synthesis : see waveguide synthesis

digital waveguide filter : 12.6.3 | 14.9

digitization of lumped models : 8.3

digitizing systems : 2.5.2

directional derivative : 13.8.2

dispersion : 3.3.3 | 3.4

dispersion filter design : 7.11.3 | 10.4.1.3

dispersion filtering : 7.9.1