Answer:
The change in the density of the air inside the syringe is due to the change in temperature. When the air inside the syringe is cooled, it contracts, causing the density to increase.
The principle that explains this phenomenon is known as Charles's Law, which states that the volume of a gas is directly proportional to its temperature, provided the pressure and the amount of gas remain constant.
In this case, the density of the air doubles when the syringe is cooled, implying that the volume of the air inside the syringe is halved. Therefore, if the density of the air when cooled is 2.4 kg/m³, the density of the air at room temperature (when the volume is twice as much) would have been half of this value, or 1.2 kg/m³.
So, the density of the air at room temperature was 1.2 kg/m³.
b. reverberation.
c. refraction.
d. diffraction.
Answer:
10N each
Explanation:
Doing a little math here to make it balanced. 10+10=20 therefore you have the same on both sides.
Hope this helps!
7.89 x 10-8 N force when it moves
2090 m/s at a 29.4° angle to a
magnetic field. How strong is the field?
[?] 10'?'T
The answer is 9.33x10^-5.
This is correct on Acellus.
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large solar panels are expensive
the energy it collects is 100% clean and renewable
doesn't create energy under certain weather conditions