1) (25 pts) Given the following table of velocity data t (s) v(m/s) a) (6 pts)...
Given the following table of velocity data 1, 0 05 10 15 20 25 3.0 3.5 4.0 V m/s 0 12 16 1.4 2.0 2.0 1.8 1.6 1.3 a) Estimate the position of the vehicle at 1.5 seconds, as accurately as possible b) Estimate the acceleration of the vehicle at 1.5 seconds, as accurately as c) Estimate the position of the vehicle at 4 seconds, as accurately as possible d) Estimate the acceleration of the vehicle at 4 seconds, as...
Numerical methods(a) Use the following data to find the velocity and acceleration at t = 10 seconds:Time (s):0246810121416Position (m):00.71.83.45.16.37.38.08.4Use second-order correct (i) centered finite-difference, and (ii) backward finite-difference methods. (b) Use the Taylor expansions for f(x +h), f(x+2h), f(x +3h) and derive the following forward finite-difference formulas for the second derivative. Write down the error term$$ f^{\prime \prime}(x) \approx \frac{-f(x+3 h)+4 f(x+2 h)-5 f(x+h)+2 f(x)}{h^{2}} $$
3 a)The table below gives the velocity v of a moving particle at time t seconds. Find the distance covered by the particle in 12 seconds using Trapezoidal rule and Simpson's a third rule. Find also the acceleration at t-2 seconds t (sec) V mls 2 4 6 8 10 12 16 34 60 94 136 (6marks)
For the following velocity graph, velocity is in m/s and time is in s. For the interval t 2s to t = 5s, find (a)[4 pts] the average acceleration, and (b)4 pts] the displacement Aæ. t 5 2 4 1 For the following described motion, draw a position-time, a velocity-time, and an acceleration-time graph on the grids provided: 1. Standing still at the 0.6 meter position for 1 second. 2. Walking away from the detector speeding up slowly and steadily...
v=(4 + + 2) m/s 1. The particle is moving with a velocity of v = (4 + 2) m/s, where t is in seconds. When t = 1 s, determine: (1) the magnitude of velocity, (2) the magnitude of acceleration, and (3) the position of the particle. (15 points) va (4+²+2) t= ls racom 6 m
Question 4 1 pts Problem 4: Interpolation, least squares, and finite difference Consider the following data table: 0 2 11 co 2 = 0.2 2.018 f(a) = 0.4 2.104 0.6] 2.306) In order to apply clamped conditions on a cubic spline interpolation over these data there arises the need to specify the derivatives at the endpoints. Use a first-order accurate finite difference to estimate the first derivative at #1 = 0. the value is estimated as (Chop after 2 decimal...
The following data Is given: 3.25 5.5 4.5 7 9.5 10 2 8 T, min V, m/s 8.5 5 6 7 6 7 5 value: 10.00 points Determine the distance traveled using the best combination of the trapezoldal and Simpson's rules. 3,596.25 m 3,654.22 m 3,570.95 m 3,622.5 m CO CO LO.
Problem 6. (10 pts) The velocity of an object v(t) at several data points is given in the table below. t (8) 0 10 20 30 40 v(t) (m/s) 6 26 37 42 44 MORE QUESTIONS ON BACK I (a) Approximate the net distance the object travels between t = 0 and ta 40 using the left rectangle rule with n = 4 rectangles. Include appropriate units for your final answer. (b) Assuming that v'(t) does not change sign, will...
6. (10 pts) Let a be a positive integer Evaluate the following limit. If you use L'Hospital's Rule, be sure to give indeterminate type and mention when you invoke it. a' lim1+ t-00 04 7. (10 pts) The widths (in meters) of a kidney shaped swimming pool were measured at 2 meter intervals as indicated in the figure below. Use Simpson's Rule to estimate the area of the pool. Round answer to two decimal places. 5.0 72
6 Mass 10 (x 1025 kg ) 5.5 5 4.5 Velocity 5 (x 10 m/s) 4 3.5 3 Charge 0.9 (x 10-16 C) 2.5 2 (T) 1.5 Magnetic Field Strength 1 1 0.5 (mm) -0.5 -1 -1.5 Start Reset -2 -2.5 -3 Clear Trace -3.5 -4 -4.5 -5 1. [3pts] Set the following values: 1T, 10-25 kg, 5x109 m/s , and 0.9 x 10-16C. Shoot the particle and measure the radius of deflection. You can measure the radius by observing...