Does water take a long time to lose heat compared to metal? what is this called

Physics

2 answers:

Mariulka [41]4 years ago

6 0

Explanation:

It is called thermodynamics which is based on specific heat capacity of the substance

Finger [1]4 years ago

5 0

Answer:

The correct answer is

Explanation:

Yes, water takes a longer time to lose heat compared to metal because water heats up faster than metal. The process is called thermodynamics or can also be called evaporation.

Hope this helps....

Have a nice day!!!!

You might be interested in

Heat always flows from a _________ object to a __________ one.

satela [25.4K]

Heat always flows from a B. hotter object to a colder one.

Heat transfers always from hotter to colder.

6 0

3 years ago

Read 2 more answers

Which statement is true about the element shown here? A) This element tends to gain electrons to become stable. B) This element

Ierofanga [76]

ITS C

This element tends to lose 2 electrons to become a 2+ ion, is the correct statement regarding the element calcium. Calcium has 2 electrons in its outer shell and it is easier to lose them than it is to gain enough to become stable. When stable it has 2 more protons than electrons forming a 2+ ion.

5 0

3 years ago

Read 2 more answers

In the mobile m1=0.42 kg and m2=0.47 kg. What must the unknown distance to the nearest tenth of a cm be if the masses are to be

LuckyWell [14K]

Complete Question

The complete question is shown on the first uploaded image

Answer:

Explanation:

From he question we are told that

The first mass is $m_1 = 0.42kg$

The second mass is $m_2 = 0.47kg$

From the question we can see that at equilibrium the moment about the point where the string holding the bar (where $m_1 \ and \ m_2$ are hanged ) is attached is zero

Therefore we can say that

$m_1 * 15cm = m_2 * xcm$

Making x the subject of the formula

$x = \frac{m_1 * 15}{m_2}$

$= \frac{0.42 * 15}{0.47}$

$x = 13.4 cm$

Looking at the diagram we can see that the tension T on the string holding the bar where $m_1 \ and \ m_2$ are hanged is as a result of the masses ( $m_1 + m_2$ )