AER 403 Lecture Notes - Lecture 1: Acceleration, Angular Acceleration, Dot Product

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orangeminnow913

3 Jan 2018

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Mechanisms & vibrations: acceleration analysis, acceleration analysis, normal and tangential acceleration relative acceleration, coriolis acceleration. Course outline: acceleration analysis, normal and tangential acceleration relative acceleration, coriolis acceleration. Mechanism assignment #4: acceleration analysis text: sections 4. 1 - 4. 4. Loop (position) equation using complex numbers r r r r rej180 rej 2 rej 3 rej( 4 180) 0 12341234. Velocity equation (1st derivative) j rej 2 j rej 3 j rej 4 note:ej90 j; ej180. Remember r v r. v = 0 acceleration equation (2nd derivative) j rej 2. At an at an at an b b cb cb c c. R. at = 0 note = d /dt, j2 = -1. Taking dot product of e j 3 both sides becomes (j rej 2. 2r j 3 ). ej 3 (j rej 4. ) 22 2322 2333 3333 33 r cos(90. Taking dot product of e j 4 on both sides becomes (j rej 2. 2r j 3 ). ej 4 (j rej 4.

Related Questions

Why did you only titrate the aqueous layer during the experiment? (my experiment about the extraction)

Could you have titrated the organic layer to figure out the distribution coefficients and other data? Why or why not?

Discuss how successful you were in this experiment. e.g., did you obtain the results you expected? Were you efficient? yes

Is there anything you would you do differently? How might you improve your technique?

my experiment is about the extraction and i got obtain the results I expected

please do all part :(

1. Be sure to include all the calculations and comparisons requested during the in-lab portion of the experiment.

a. Initial [HOAc]: Show your calculation

b. Calculate KD after simple extraction with diethyl ether, KD = Show your calculation

c. Calculate KD after simple extraction with dicholoromethane, KD = Show your calculation

d. Based on the calculated KD values in parts b and c, explain which solvent was more efficient at extracting HOAc in terms of the intermolecular forces (H-bonding, dipoledipole, Van der Waals, ion paring) of attraction between the solvent and HOAc.