No BSD License
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Zi =filteric(B,A,X,Y)
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acosd(alpha)
ACOSD arc cos, in degrees, of the elements of alpha.
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ayrton(range, amp, resist)
AYRTON calculates resistances for an Ayrton multirange ammeter.
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bending1(s, d, F1, F2)
BENDING1 bending moments caused vehicle moving on beam.
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conic(phi, param)
CONIC.M generates a conic section whose equation is given in polar form.
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dcmot(t,om);
this function represents the model of a DC motor
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dervabk(t,x);
this function returns the derivatives of the unit feedback system
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divide(x, y)
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eulangle(psi, theta, phi)
EULANGLE matrix of rotations by Euler's angles.
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evalpol2(c, x)
EVALPOL2 Polynomial evaluation by Horner's scheme.
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fact(x)
FACT factorial by a recursive procedure.
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gcd1(x, y, tol)
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gcd2(x, y)
GCD2 greatest common divisor by a recursive procedure.
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pend(t,w);
This m-file describes the motion of a pendulum subject to gravity,
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pliny(t,h);
This function respresents the model of the Pliny's intermittent fountain
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rndprm1(X);
RNDPRM1 random permutation of row vector using FOR loop.
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rndprm2(X);
RNDPRM2 random permutation of row vector using WHILE loop.
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rndprm3(X);
RNDPRM3 random permutation of row vector using recursion.
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rtate(theta)
RTATE(THETA) rotates theta degrees counterclockwise
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scale(alpha, beta)
SCALE scaling matrix.
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segment(A,r)
SEGMENT angle subtended by a circular segment.
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segment1(A,r)
SEGMENT1 angle of circular segment, plot of iterations.
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simp(x, y)
SIMP(X, Y) Simpson integration of tabular data y(x).
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sind(alpha)
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sind(alpha)
COSD(ALPHA) cosine of the elements of ALPHA, angle measured in degrees.
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spipe(Re)
LAMBDA smooth-pipe frictional coefficient.
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tankv(M, V0, tol)
TANKV(M, V0, tol) tank volume by iterative method
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trlate(dx, dy)
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uramp(t, t0)
URAMP(t, t0) unit ramp function beginning at t0.
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ustep(t, t0)
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vprod(A, B)
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wd =doga(t,w);
This function represents the model of the dog chasing problem,
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wd =dogb(t,w);
This function represents the model of the dog chasing problem,
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wd=derv2a(t,w);
example of linear differential equation
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wd=derv2b(t,w);
example of linear differential equation
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wd=derv3a(t,w);
example of linear differential equation
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wd=derv3b(t,w);
example of linear differential equation
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wd=invp(t,w);
inverted pendulum on a cart.
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wd=spring(t,w);
This function defines the differential equation relative to
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wd=stiff(t,w);
This function defines the differential equation of a stiff system
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xd=cspring(t,x);
This function defines the spring system. It is written in the format
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alias.m
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atmpres.m
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bolind1.m
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br1.m
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br2.m
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br3.m
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ch14ex10.m
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ch14ex12.m
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ch14ex2a.m
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ch14ex2b.m
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ch14ex3a.m
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ch14ex3b.m
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ch14ex4a.m
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ch14ex4b.m
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ch14ex7.m
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ch15ex11.m
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ch15ex14.m
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ch15ex16.m
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ch15ex3.m
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ch15ex5.m
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ch15ex7.m
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ch15ex8.m
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ch15ex9.m
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ch16ex10.m
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ch16ex12.m
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ch16ex2.m
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ch16ex3.m
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ch16ex7.m
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complext.m
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crane.m
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diode.m
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door.m
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evalpol.m
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evalpol1.m
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exa2_05.m
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exa3_05.m
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exa3_06.m
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exam04_1.m
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exam09_2.m
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exam09_3.m
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exe10_02.m
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exe10_06.m
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exe10_09.m
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exe11_12.m
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exe11_13.m
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exe17_04.m
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exer2_03.m
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exer2_04.m
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exer2_06.m
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exer2_09.m
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exer2_11.m
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exer3_03.m
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exer3_07.m
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exer3_10.m
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exer3_13.m
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exer3_14.m
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exer4_05.m
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exer4_06.m
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exer4_10.m
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exer5_07.m
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exer6_05.m
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exer6_06.m
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exer6_08.m
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exer7_03.m
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exer8_02.m
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exer8_05.m
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exer9_05.m
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exer9_11.m
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fig04_06.m
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fig04_09.m
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fig05_08.m
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fig06_01.m
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fig06_02.m
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fig10_03.m
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fig10_04.m
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fig10_12.m
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fig11_01.m
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fig11_02.m
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fig1_11.m
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fndwmal.m
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hello.m
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hi_lo.m
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itermenu.m
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kvisc.m
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newton.m
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ospring.m
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pipe.m
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raphson.m
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rectify.m
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rod1.m
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rod2.m
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s_couple.m
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scissor.m
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supsteam.m
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turbot.m
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ultim.m
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vecrot.m
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yellow.m
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yellow1.m
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View all files
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| bolind1.m |
% BOLIND1.M test-basin data of a BOLINDER-type fishing vessel.
% Data published by the Rome test basin.
% The meaning of the columns [ V RT 1000*CT ] where
% V is measured in m/s and RT in kgf.
% See book, Example 9.6.
bolind1 = [ 0.655 0.230 4.969
0.666 0.250 5.232
0.846 0.420 5.348
0.855 0.465 5.903
1.065 0.780 6.381
1.077 0.805 6.433
1.262 1.200 6.987
1.277 1.245 7.083
1.408 1.650 7.718
1.476 1.900 8.085
1.575 2.330 8.711
1.697 3.090 9.953
1.778 3.910 11.475
1.821 4.600 12.869
1.900 6.00 15.423 ]
% The next array contains [ (speed) (total effective power) ]
% where the speed is measured in knots and the power in metric hp.
bolind2 = [ 3 0.76
4 2.1
5 4.7
6 9.2
7 17.3
8 32.0
9 74.0 ]
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