A ball is thrown upwards and it goes to the height 100 m and comes down 1) What is the net displacement?

Answers

Answer 1

Answer:

Answer:

o m

Explanation:

The net displacement is 0 because it returns to its original position. The final position and initial position are the same, so displacement is 0.

Related Questions

A kayaker paddles at 4.0 m/s in a direction 30° south of west. He then turns and paddles at 3.7 m/s in a direction 20° west of south.What is the magnitude of the kayaker’s resultant velocity? Round your answer to the nearest tenth. ___m/s What is the direction of the kayaker’s resultant velocity? ___ ° south of west please help
In a free market economy, the decisions made by buyers and sellers push the price of a good or service toward the _____. price ceiling equilibrium price price floor
A bicyclist steadily speeds up from rest to 11.0m/s in 3.40s. How far did she travel during this time?
what organ absorbs excess water from undigested food prior to its release from the body as a solid waste
A 70 kilogram mountaineer is standing on the summit of Mt. Everest. The distance between the mountaineer and the center of Earth is 6.39 × 106 meters. What is the magnitude of the force of gravity acting on the mountaineer? (The value of G is 6.673 × 10-11 newton meter2/kilogram2. The mass of Earth is 5.98 × 1024 kilograms.)90.50 newtons111.5 newtons684.1 newtons4041.7 newtons

A particle moves along a straight line with equation of motion s = f(t), where s is measured in meters and t in seconds. find the velocity and speed when t = 6. f(t) = 100 + 60t − 4.5t2

Answers

As the particle moves along a straight line, the magnitude of the velocity is equal to the speed and the direction is along the direction of motion.

To find out the speed of the particle, we have to differentiate the given equation of motion. That is,

Speed = $(d(s))/(dt) \n =(d(100+60t-4.5t^(2)))/(dt) \n =0+60-9t$

For t=6 s, we get

Speed = 60₋ 9 × 6 = 60₋54=6 m/s

The speed of the particle at t=6 s is 6 m/s.

What is the magnitude of g at a height above Earth’s surface where free- fall acceleration equals 6.5 m/s2 ?

Answers

Well, the "magnitude of g" in a place is always described as the
free-fall acceleration there. So your ' 6.5 m/s² ' is the answer to
the question.

The material through which a mechanical wave travels is

Answers

A mechanical wave is a disturbance in matter that transfers energy through the matter.

Final answer:

Mechanical waves require a medium to travel through, such as a solid, liquid, or gas.

Explanation:

Mechanical waves require a medium through which they can travel. The medium can be a solid, liquid, or gas. Examples of mechanical waves include water waves, sound waves, and seismic waves.

Learn more about Mechanical waves here:

brainly.com/question/24459019

#SPJ6

How do geologist locate the epicenter of an earthquake?

Answers

by taking measurements from 3 seismograms.

What are minerals made of a single element called?

Answers

Minerals of a single element are called Native elements. These include gold, silver, copper, etc. They can be divided into three groups such as metals, semi-metals, and nonmetals. Hope this helped.

Which force is always pulling but never pushes and is directly influenced by mass

Answers

Answer: I know when it comes to magnetic objects the magnet always pulls not push.

Answer:

i believe it is gravity

Explanation:

the gravitational force is a force that attracts any two objects with mass. it pulls things together does not pushes them.

Other Questions

A 1200-nF capacitor with circular parallel plates 2.0 cm in diameter is accumulating charge at the rate of 35 mC/s at some instant in time. (A) What will be the magnitude of the induced magnetic field 10.0 cm radially outward from the center of the plates?

What is air pressure?

A quantity has a measured value of 8.4126. which number value has the uncertainty?

The Greeks rejected the notion that the Earth orbits the Sun. Why? A.) They believed that the Sun is a God.B.) They weren't as smart as we are. C.) They could not measure a change in stars' positions on the sky. D.) They could not measure how big the Earth was.