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ProblemCourse & topicStatus
Ctrl Sensitivity Complementary MapsCtrl Actuator Measurement Step Finals
Dynamic models, linearization, and feedback structureControl Systems · Mixed review
—Ctrl Armature Motor TransfersCtrl Underdamped Speed Step
Dynamic models, linearization, and feedback structureControl Systems · Mixed review
—Ctrl Rhp Zero Inverse ResponseCtrl Undershoot Time And Depth
Time response and stability criteriaControl Systems · Mixed review
—Ctrl Type Two Routh GainCtrl Acceleration Constant Parabola
Time response and stability criteriaControl Systems · Mixed review
—Ctrl Quadratic Lyapunov IdentityCtrl Rotation Semigroup Norm
Time response and stability criteriaControl Systems · Mixed review
—Ctrl Evans Real Axis AsymptotesCtrl Breakaway JW Crossing
Root-locus and frequency-response designControl Systems · Mixed review
—Ctrl Lead Midband Phase MagnitudeCtrl Unity Crossover Phase Margin
Root-locus and frequency-response designControl Systems · Mixed review
—Ctrl Quadratic Closed Loop StabilityCtrl Nyquist OL Rhp Encirclement
Root-locus and frequency-response designControl Systems · Mixed review
—Ctrl Minimal Realization Pbh DetsCtrl Rosenbrock Invariant Zero
State-space, controllability, and observabilityControl Systems · Mixed review
—Ctrl Scalar Are CompletionCtrl Lqr Stabilizing Root Cost
State feedback and observersControl Systems · Mixed review
—Ctrl Integral Augmented CharacteristicCtrl Constant Disturbance Equilibrium
State feedback and observersControl Systems · Mixed review
—Ctrl Reduced Order Q CoordinateCtrl Observer Error Decay NO Ydot
State feedback and observersControl Systems · Mixed review
—Ctrl Exact Zoh Matrix ExponentialCtrl Pulse Transfer Discrete Zero
Digital control and robustness foundationsControl Systems · Mixed review
—Ctrl Discrete Closed Loop PolynomialCtrl Jury Quadratic Gain Interval
Digital control and robustness foundationsControl Systems · Mixed review
—Ctrl Sensitivity Complementary CS MapsCtrl Additive Small Gain Radius
Digital control and robustness foundationsControl Systems · Mixed review
—CTRL:9927001Mathematical problem title
Models FeedbackControl Systems Problem Solving
Dynamic models, linearization, and feedback structureControl Systems · Calculation
—Models FeedbackControl Systems Problem Solving
Dynamic models, linearization, and feedback structureControl Systems · Calculation
—Models FeedbackControl Systems Problem Solving
Dynamic models, linearization, and feedback structureControl Systems · Calculation
—Models FeedbackControl Systems Problem Solving
Dynamic models, linearization, and feedback structureControl Systems · Calculation
—Models FeedbackControl Systems Problem Solving
Dynamic models, linearization, and feedback structureControl Systems · Calculation
—Models FeedbackControl Systems Problem Solving
Dynamic models, linearization, and feedback structureControl Systems · Calculation
—Models FeedbackControl Systems Problem Solving
Dynamic models, linearization, and feedback structureControl Systems · Calculation
—Models FeedbackControl Systems Problem Solving
Dynamic models, linearization, and feedback structureControl Systems · Calculation
—Models FeedbackControl Systems Problem Solving
Dynamic models, linearization, and feedback structureControl Systems · Calculation
—Showing 24 of 315 matching problems.
With P=2/(s+1) and C=3 the step finals through T, PS, and -T are 6/7, 2/7, and -6/7
The unity DC motor has Omega/V=1/(s2+2s+2), poles -1±j, and step speed (1/2)[1−e−t(cos t+sin t)] The map 2(1-s)/[(s+1)(s+2)] undershoots to -1/3 at ln(3/2) before finishing at 1
L=K(s+2)/[s2(s+5)] is type 2, stable iff K>0, and the t2/2 error is 5/(2K) P=I/2 solves the Lyapunov equation for A=[[-1,1],[-1,-1]] and the state norm decays as e−t The K/[s(s+2)(s+4)] locus breaks away at -2+2sqrt(3)/3 and crosses at K=48
The lead of z=1/sqrt(3), p=sqrt(3) makes |L(j)|=1 with phase -105 and PM 75
For L=K/[(s-1)(s+2)] the full Nyquist image encircles -1 once CCW when K>2
The pair (A,B,C) is minimal with G=-s/[(s+1)(s+2)] and Rosenbrock kernel ((2,1),2)
The ARE 2P−P2+1=0 has stabilizing root 1+sqrt(2), pole -sqrt(2), and J*=(1+sqrt(2)) x02 Integral action holds x=r and rejects a constant d; the homogeneous poles are -2 and -3
The reduced-order observer with ell=3 runs on q=xhat2-3y and never differentiates y
Exact ZOH of the double integrator at T=1 is Ad=[[1,1],[0,1]], Bd=(1/2,1), Gd=(z+1)/(2(z−1)2) Jury on K(z+1/2)/((z-1)(z-1/2)) forces 0<K<1; the endpoints hit z=1 and a unit-circle conjugate pair
Additive small-gain on P0=1/(s+1), C=2 guarantees every stable Delta only for rho<1/2
A single-loop unity-feedback architecture is defined as follows.
A non-unity feedback loop is assembled from the strictly proper plant…
A translational plant consists of a mass m=2.00kg, a viscous damper b=6.00N⋅s/m… A block diagram contains exactly three dynamic blocks and two summing junctions, with all initial conditions zero…
A nested block diagram is specified by the following equations, which already include every summing-junction sign.
A forward path consists of three blocks in cascade…
Block-diagram algebra is to be used to move a summing junction and a pickoff without changing the map from R to Y.
A unity-feedback loop contains a plant with a parallel inner structure.
A signal-flow graph has five nodes x1,x2,x3,x4,x5.