Problem 7 (3+3 points, without calculator) The concentration change of two specific chemical rengents is described...
Problem 4: SpaceTime diagrams (25 points) Consider the two points labeled 1 and 2 in this spacetime diagram. Notice that in the Lorentz frame represented by this diagram, both events are in the future: ti > 0 and t2 > 0. (The diagonal lines with 45° slope represent the light cone.) ct (a) Prove that, regardless of the value of ß-u/c, when you boost to a different Lorentz frame, the event 1 remains in the future, that is, 0 always....
Problem 7 (15 points). Let X be random variable with the binomial distribution with parameters n and 0 <p<1. (1) Show that **- 1 = 2* for any 1 Sxsn. (2) Show that when 0 < x < (n + 1)p, P(X = x) is an increasing function x and for (n + 1)p <x Sn, P(X = x) is a decreasing function x. (3) A certain basketball player makes a foul shot with probability 0.80. Determine for whal value...
Problem 4: (20 Points) X is a uniform random variable with parameters -5 and 5. Given the event B-VI > 3) 1. (5 points) What is the probability of the event B, P(B)? 2. (5 points) What is the conditional PDF, fxB()7 3. (5 points) Find the conditional expected value, E[X |B]. 4. (5 points) Find the conditional variance, var[X]B].
Week 1 Assignment: Chemical Kinetics Introduction to Integrated Rate Laws 7 of 28> solve for concentration. The rate constant for a certain reaction is k = 9.00x10-3 s-1 、 If the initial reactant concentration was 0.200 M, what will the concentration be after 19.0 minutes? A car starts at mile marker 145 on a highway and drives at 55 mi/hr in the direction of decreasing marker numbers. What mile marker will the car reach after 2 hours? Express your answer...
Problem 7 (20 Points Fully developed flow between two, flate, infinite, parallel plates can be described using the boundary layer equation in nondimensional terms where Note that D is the separation distance between the plates and V is the velocity of the upper plate. There are two very important simplifications that can be made to this equation in fully developed internal flow. Make these simplifications and solve for u* as a function of y* (get me the equation of u'...
7. (20 points) Let 0-1 5 3 A -2 34 2 -3-5 (a) ( 15 points) Solve the linear system Ax = b by Gaussian elimination and express the general solution in vector form. (b) (5 points) Write down the corresponding homogenous system Ax-0 explicitly and determine all non-trivial solutions from (a) without resolving the system
7. (20 points) Let 0-1 5 3 A -2 34 2 -3-5 (a) ( 15 points) Solve the linear system Ax = b by...
Problem 3. Consider the following system of two equations, in terms of the parameter 7, which describes the respective populations of two species: 1 = *(- zv- ) yz ( +x). y' 2 (a.) List all critical points and discuss the stability at the points in relation to the parameter 7. (b.) What values of the parameter y will allow a stable solution in which both species have positive populations.
Reinforcement Problem # 4 (20 pts.) A) Given A state-space system is described: (39)+(7 933) (195) y = (0 - 1)(**) +(1) B) Determine Step 1: The block diagram representation with x1(0) = x2(0) = 0. Step 2: The transfer function Y(S)/F(s) through block diagram reduction. Step 3: The output value of y(t) due to input f(t) = u(t). Evaluation Criteria Rubric for Reinforcement Problem # 4 Gained Activities Step 1. Step 2. Step 3 Describe the techniques and procedures...
Problem 3 (25 points A linear time-invariant filter is described by the difference equation a. (5) Write an expression for the frequency response of the system, H(e/). b. (5) Sketch the magnitude response of the system as a function of frequency over Nyquist interval. (5) Determine the output when the input is xln] 5+2cos(0.5 sequence e. (5) Determine the output when the input is the unit-step sequence uln.
Problem 3. (15 points) Consider the feedback system in Figure 3, where G(s)1 (s -1)3 Ge(s) G(s) Figure 3: Problem 3 1. Let the compensator be given by a pure gain, ie, Ge(s)-K, K 0 (a) Draw the root locus of the compensated system (b) Is it possible to stabilize the systems by selecting K appropriately? If so, find the range for K such that the closed-loop system is BIBO stable. If not, explain. 2. This time, let the compensator...