esc Figure 1 Submit 1 of 1 Part C (10 V) cos wt ww 200 Ω What is VR if Express your ►View Availal F1 @ 12 100 nF VR = Val HH Submit Copyright 2024 Pearson Education Inc. All rights reserve F2 80 a F3 F4 0 F5 # 3 Q W E A S $ 4 % ol 50 Λ 6 & R T Y D LL F G &key=140171644883017936312024#/ What is VR if the emf frequency in (Figure 1) is 4.0 kHz? Express your answer with the appropriate units. ▸ View Available Hint(s) ΜΑ VR = Value Units Submit Part B ? What is Vc if the emf frequency in (Figure 1) is 4.0 kHz? Express your answer with the appropriate units. ▸ View Available Hint(s) ? Vc = Value Units Submit 1 of 1 Part C ww 200 Ω What is VR if the emf frequency in (Figure 1) is 25 kHz? Express your answer with the appropriate units. ▸ View Available Hint(s) a F5 5 96 ΜΑ বর DII 44 F7 F8 F9 F10 & ( ) 6 7 8 9 0 F11 ☆ Finish update T Y U I 0 P [ C H F12 == delete

The distance from earth to the nearest star is about 4 x 1016 meters. How long would it take a radio signal traveling at the speed of light, 3.0 x 108 m/s, to make a one-way trip to this star?

A solar flare occurs in the surface of the sun on Monday morning at 11:45 AM. The sun is 1.496 x 108 kilometers away and light travels at 300 000 km per second. A. How long thereafter will the light beam reach the earth? B. What time of the day will the beam of light reach occurred at 11:45? C. If the solar flare re occurred at 1:30 pm when will the light from the flare reach earth?

Given: a = 2.51 m, |Q| = 67 µC My Question: How can I find E1 and E2 in N/C?

loads/PHY%202201%20Homework%201-2%20(4).pdf MDECA Home ▸ YouTube me E 20, $ 4 R F F4 % 5 T 1/1 - | MetroPCS G PHY 2201-N01 General Physics I MetroPCS EDGE www.edgemetrop... MetroPCS 100% + F5 Homework 1-2 Kinematic Equations 2-D 1. The motion of the particle is described by the system of the equations (two degrees of freedom, r(t)- horizontal, y(t)- vertical): 6 (a) Derive the components of the velocity (v and vy) and the accelera- tion (az and ay). Y (b) Determine the initial position, the initial velocity, the acceleration, and the magnitudes of the initial velocity of the particle. H [x(t) = 4t-8, [m] y(t) = -3t²6t+ 45, [m] (c) Determine the position, the velocity, and the magnitude of the ve- locity of the particle at t = 2 s (d) Calculate the horizontal position r(t) of the particle, when the par- ticle falls on the ground, such that y(t) = 0. F6 (e) Calculate the velocity (components and magnitude) of the particle, when the particle falls on the ground (terminal velocity). 887 &…