Four months into a six month deployment, you are a solo pilot returning to home base after an uneventful overwatch mission to a non-disclosed desert location. Your mission was extended 90 minutes requiring at least one additional aerial refuel. The moon has now set. A shift in prevailing winds causes an infrequently used runway to be active. You are less familiar with the approach to this runway and have only used it during VFR conditions. The instrument approach plate reveals you will fly a prolonged DME arc taking you out over the unlit desert away from the dimly lit base. While flying the above instrument approach, you take another look at the approach plate. When you look up again the airfield lights are visible through the upper portion of your canopy. You did not sense any change in your aircraft attitude. Which of the following best describes what happened while you looked at the approach plate? OA. The black hole effect has amplified the normal reflection of the airfield lights inside your canopy OB. G-excess illusion has caused you to see the horizon higher than it really is OC. The prolonged turn has caused the leans and you are compensating for the illusion OD. While looking at the approach plate you experienced a sub-threshold roll

Is this Correct?

Part 1. Using the simulator "Explore 2D option". Activities. 1.1) Using the simulator, Explore 2D, and given the value for vectors a, b and c, represent all vectors in the simulator and complete the data table 1, show all formulas and calculations. 1.2) Attach the diagram to the lab report with three vectors and their components. 1.3) In which quadrant are the vectors a, b and c. Describe the signs of its components. Could you establish some rule about their signs? Explain. Table 1.EXPLORE 2D Vector a Vector b Magnitude Direction Magnitude Direction 23.3 59° 25 143.1° Component X Component y Vector c Magnitude 13.9 Direction -159

► C Remaining Time: 2 hours, 29 minutes, 07 seconds. Blackboard Question Completion Status: 1 QUESTION 14 cavitation for water? O 60 ft below the reservoir surface O Cavitation is independent of the pump inlet being placed O Z₁ =-34.4 ft, below the reservoir surface O Z₁ = 34.4 ft, above the reservoir surface QUESTION 15 Q In a heat exchanger, If the hot fluid is a condensing vapor, then the heat capacity rate: O Ch> Cc, Ch→∞ O Ch<< Cc. Cc →∞ O Ch = Cc O The temperature is not constant during the condensation At 200 °F (Py 11.52 lbf/in2 absolute, p*g = 60.1 lbf/ft3) where should the pump inlet be placed to avoid QUESTION 16 Click Save and Submit to save and submit. Click Save All Answers to save all answers. 2 W S # 3 E D $ 4 R F % 5 T G 6 MacBook Pro C Y H & 7 U 8 J I ( 9 K O

dear eng pls ans quickly  thanks

I need these 3 parts answered TRUE or FALSE.

what is material support in aviation maintenance?

a. There are plenty of things in the air you may want to remove-smoke, odors, pollen, allergens, etc. I’ll collectively refer to these as “dust” going forward. Typically, we aim to keep these levels low-in the μg/m3 range. Outdoor air may have 100–300 μg/m3, whereas we strive for much lower values indoors. To do that, we use air filters. A standard air filter is 4 in. (100 mm) thick, 20 x 25 in. cross section, D = 8 × 10-11 m2/s, with no dust in it when it’s new (Co = 0 kg/m3). Suppose the outdoor air has 100 μg/m3 of dust, whereas the indoor we want the indoor air to be less than 20 μg/m3. How long will it take (in years) for the far side of the filter to reach this value? (We will refer to this as the baseline case going forward).