Block A in the figure (Figure 1) has a mass of 5.00 kg, and block B has mass 15.0 kg. The coefficient of kinetic iction between block B and the horizontal surface is 0.30. What is the mass of block C if block B is moving to the right and speeding up with an acceleration 2.70 m/s²? Express your answer in kilograms. gure A >> B C mc Ο ΑΣΦ Submit Request Answer Part B kg What is the tension in each cord when block B has this acceleration? Express your answer in newtons. TAB ΜΕ ΑΣΦ Submit Previous Answers Request Answer × Incorrect; Try Again; 5 attempts remaining 1 of 1 > Part C Express your answer in newtons. ΜΕ ΑΣΦ THC- Submit Request Answer Provide Feedback N N

can someone answer part E please

1. The block in the figure to the right remains motionless against the wall because of an applied force and the force of static friction between the block and the wall. The coefficient of static friction is μs. Which equation correctly describes the magnitude of the frictional force between the wall and the block?a. Ff=(mgcosθ)μsb. Ff= (Fasinθ–mg) μsc. Ff= (Facosθ – mg) μsd. Ff= Facosθμse. Ff= (Facosθ + mg) μs

he FBD of the block should have looked like this.       1.    A contestant in a winter sporting event pushes a block of ice  of mass m across a frozen lake as shown in the figure. The coefficient of static friction between the block and ice is μs, and the coefficient of kinetic friction is μk. θ is the angle the force makes with the x-axis. In this part, we are going to set-up Newton's second Law equations for the cases(1) when the ice block just starts moving, and(2) when it is accelerating to the right with an acceleration a. All answers are symbolic. ALL ANSWERS ARE CASE-SENSITIVE.         Subpart 1: Newton's Second Law along the y-axis  (i) Write Newton's Second Law along the y-axis by adding all forces in the y-direction taking into account their signs (forces pointing upwards are positive and downward are negative) in terms of the normal force N, weight mg, F and θ. In both scenarios, there is no acceleration along the y-direction, therefore, ay=0.…

ew T Co Stants Consider the system shown in the figure (Figure 1). Block A weighs 43.7 N and block B weighs 24.2 N. Once block B is set into downward motion, it descends at a constant speed. A cat, also of weight 43.7 N, falls asleep on top of block A. If block B is now set into downward motion, what is its acceleration magnitude? Express your answer in meters per second squared. m/s? a = Submit Request Answer Figure 1 of 1 Part C A cat, also of weight 43.7 N, falls asleep on top of block A. If block B is now set into downward motion, what is its acceleration direction? A upwards downwards Submit Request Answer

HW1.4. 2D Moment resultant Two forces lying in the x-y plane are defined by their magnitudes and direction angles, as shown in the figure below. Force F₁ has a magnitude F₁ = 360 N, an angle 0₁ = 109°, and acts at point A (310, 0) mm. Force F₂ has a magnitude F₂ = 270 N, an angle 02 = 56°, and acts at point B = (0,385) mm. Determine the total moment about point O due to these two forces. Remember to follow the standard sign convention for clockwise (-) and counter-clockwise (+) moments. y B 10 02 F₂ F₁ A 0₁ X TEGINGEN

Part A What is the value of Fmax, the maximum value of the contact force during the collision? Express your answer to two significant figures and include the appropriate units. Fmax = HÅ Value N www ?

M Support Cable 37° M As shown in the diagram above, a rigid rod of mass M is hinged at its left end against a wall. A block of mass M hangs on the right edge of the rod. A support cable attached to the right end of the rod forms an angle of 37 degrees with horizontal. The tension in the string is 1,057 N. Calculate the mass M of the rod and the block. Express your answer in kilograms and round to the nearest tenth (1 decimal).

Part A - Finding the Cartesian components of a force described by direction angles Find the Cartesian components of force P acting in the x, y, and z directions given P = 50.0 N, a = 110.0°, B= 29.5°, and y=69.3°. Recall that is the angle between the vector and the x axis, ß is the angle between the vector and the y axis, and y is the angle between the vector and the z axis. Express your answers, separated by commas, to three significant figures.

Needs Complete typed solution with 100 % accuracy.