Answer:
Speed = 0.866c
Where c is speed of light
Explanation:
We want to find the speed at which it run at a rate that is one-half the rate of a clock at rest.
Thus, we will use time dilation equation to solve it.
Thus;
t_o/√[1 - (v²/c²)] = 2t_o
Where:
t_o is time at rest
v is the speed at which it runs
c is the speed of light.
t_o will cancel out to give;
1/√[1 - (v²/c²)] = 2
Rearranging, we have;
√[1 - (v²/c²)] = ½
Let's make v the subject of the formula;
Let's square both sides to get;
1 - (v²/c²) = ½²
1 - (v²/c²) = ¼
Rearrange to get;
1 - ¼ = v²/c²
¾ = v²/c²
Take square root of both sides to get;
v/c = √¾
v = c × 0.866
v = 0.866c
Answer:
Less than 45 centimeters, as the ball transforms some of its potential energy into thermal energy and sound energy.
Explanation:
Although the initial energy (potential energy is preserved), the energy of deformation as the ball strikes a surface creates energy dissipation in the form of frictional heat and audible sound energy.
Every time the ball bounces, its height will be less than its previous height.
Answer:
Yes, computerization improves the efficiency of patient management in medical centers.
Explanation:
In the past, hospitals or medical could only attend to patients that are present in the premises of the institution. The filing of patients was all done manually and on paper, which needed lots of paper and physical storage for the patient files.
Now, patient files are digitalized and stored in remote web servers, from which a patient's record can be pulled from any location, and medical consultation can be done remotely using computer devices and its designated applications, for doctor-patient communication.
This provides patients with the needed treatment they need where ever they are, even with no physical access to health consultation.
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