Answer:
A
Explanation:
the slinky particles move from the hand down the wave to the block
the slinky particles move side to side
the slinky particles move up and down
The characteristics of the traveling waves we can find the correct answer for the movement of the particles in the transverse wave is:
The traveling wave movement is a way of transmitting energy without mass movement, it is formed by two movements united, an oscillatory movement and a displacement movement, there are two possibilities:
In both cases, the matter particles are oscillating around their equilibriumposition and the wave is the one that has a displacement movement.
Let's review the claims:
a) False. The particle has an oscillatory motion, it does not have a net displacement
b) False. The movement is oscillatory
c) True. As the wave is transversal, the oscillatory movement from top to bottom.
In conclusion using the characteristics of the traveling waves we can find the correct answer for the motion of the particles in the transverse wave is:
Learn more here: brainly.com/question/14106293
Answer:
C.) The slinky particles move up and down
Explanation:
Transverse Wave-
A wave that has a disturbance perpendicular to the wave motion
Hello! This is the correct answer! Have a blessed day! :)
If you are in K12, please review the lesson! :) It will give you some very helpful definitions! I hope this helped!
The IV bag should be placed approximately 10.19 meters above the entry point to ensure that the fluid just enters the vein, considering the blood pressure in the vein and assuming atmospheric pressure is applied.
Given:
Density of the fluid being administered = 1,020 kg/m³
Blood pressure in the vein = 2.7 × 10³ Pa above atmospheric pressure
Since the fluid is administered using gravitational force, the pressure at the entry point of the vein should be higher than the pressure at the IV bag.
The pressure difference can be calculated using the formula:
Pressure difference = density × gravitational acceleration × h
The pressure difference should be equal to the sum of the blood pressure in the vein and the atmospheric pressure:
Pressure difference = (blood pressure in the vein) + (atmospheric pressure)
h = (pressure difference) / (density × gravitational acceleration)
h = [(2.7 × 10³) + (101,325)] / (1,020 × 9.8)
h ≈ 10.19 meters
Therefore, the IV bag should be placed approximately 10.19 meters above the entry point to ensure that the fluid just enters the vein, considering the blood pressure in the vein and assuming atmospheric pressure is applicable throughout the situation.
To know more about atmospheric pressure:
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Part A
In this experiment, you will place the container in the freezer. What do you think will happen?
Hypothesis: When the container with the balloon and plaster of Paris is placed in the freezer, the water inside the balloon will freeze and expand as it turns into ice. As the water freezes, it will exert pressure on the plaster, causing the plaster to crack or deform. The extent of cracking or deformation may depend on the strength and thickness of the plaster.
Part B of the experiment would typically involve conducting the experiment and observing the actual outcome to confirm or reject the hypothesis.
Answer:
Convection is the transfer of thermal energy from one place to another by the movement of gas or liquid particles. How does this happen? As a gas or liquid is heated, the substance expands. This is because the particles in liquids and gases gain kinetic energy when they are heated and start to move faster.
Answer:Convection is the transfer of thermal energy from one place to another by the movement of gas or liquid particles. How does this happen? As a gas or liquid is heated, the substance expands. This is because the particles in liquids and gases gain kinetic energy when they are heated and start to move faster.
Using Newton's second law of motion, if the net force on a sled is tripled and the mass halved, the new acceleration would be 12 m/s².
The subject of this question is derived from the principle of Newton's second law of motion, which states that the acceleration of an object is directly proportional to the net force acting on it and inversely proportional to its mass. This can be represented as: F=ma (Force = mass * acceleration).
Given that the original acceleration 'a' is 2 m/s², the force 'F' acting on the sled can be calculated as F=ma. But since the net force is being tripled and the mass halved, the new force would be 3F, and the new mass would be m/2.
Now we need to determine the new acceleration, which can be calculated as a = F/m. Plugging in our new values, we get a = (3F)/(m/2). This equates to a = 6F/m. Since the original force is calculated as F=ma, we can substitute this in the above equation. Hence the new acceleration is 6*2 m/s² = 12 m/s².
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