# data[].attributes.body
65= (x-4) x5
0.65= x-4/24-4
13= x-4
x= 17 cm

# data[].attributes.body
15-12/20-12x 100
=37.5 °C

# data[].attributes.body
120+273=393 K

# data[].attributes.body
use a thinner-walled glass bulb

# data[].attributes.body
can expand and contract uniformly due to heat

# data[].attributes.body
1) put the thermometer in boiling water until it reaches 100 °C and mark the temperature
2) place in ice and mark 0 °C
3) divide by 100

# data[].attributes.body
the use of thermometer

# data[].attributes.body
achieved when the rate of net of heat had transfer is zero and both object has the same temperature

# data[].attributes.body
a) the degree of hotness of a body
b) Kelvin ( K or °C )
c) thermometer

# data[].attributes.body
a) a form of energy that can be transfer from hot to cold body
b) Joule (J)
c) Joulemeter

# data[].attributes.body
65=(x-4/24-4) times 100
0.65=x-4/24-4
13=x-4
x=17 cm

# data[].attributes.headline
mercury can expand can contracts due to heat

# data[].attributes.subject
mercury can expand can contracts due to heat

# data[].attributes.headline
1.put the thermometer in a hot water until achieved 100'C 2.put the thermometer in a ice water until reaches 0'C 3.divide and mark the thermometer to 100 parts

# data[].attributes.subject
1.put the thermometer in a hot water until achieved 100'C 2.put the thermometer in a ice water until reaches 0'C 3.divide and mark the thermometer to 100 parts

# data[].attributes.headline
thermal equilibrium achieved when the rate of net of heat had transfer is zero and both object has the same temperature 

# data[].attributes.subject
thermal equilibrium achieved when the rate of net of heat had transfer is zero and both object has the same temperature 

# data[].attributes.headline
1.the degree of hotness of a body 2.Kelvin (K) 3.thermometer

# data[].attributes.subject
1.the degree of hotness of a body 2.Kelvin (K) 3.thermometer

# data[].attributes.headline
1.form of energy that can be transfer from hot to cold body 2.Joule (J) 3.Joulemeter

# data[].attributes.subject
1.form of energy that can be transfer from hot to cold body 2.Joule (J) 3.Joulemeter

# data[].attributes.body
65° = (L-4)/(24-4) x 100°
L-4 = 0.65(20)
L = 13+4
L = 17cm

# data[].attributes.body
(15-12)/(20-12)x100°
= 37.5°C

# data[].attributes.body
120+273=393K

# data[].attributes.body
use a thinner-walled glass bulb

# data[].attributes.body
mercury can expand and contract uniformly due to heat

# data[].attributes.body
1) put thermometer in boiling water, and mark the level as 100°C
2) put thermometer in bowl of ice, mark the level as 0°C
3) divide the length from 0°C to 100°C by 100 to determine the scale

# data[].attributes.body
120 + 273 = 393 K

# data[].attributes.body
by using a thinner walled glass bulb

# data[].attributes.body
it is because mercury can expand and contract uniformly due to the heat energy.

# data[].attributes.body
1.Put the thermometer in a boiling water and mark at the thermometer.
2.Put the thermometer in a cold water and mark on the thermometer.
3.Divide 0°-100° by 100 to get the scale.

# data[].attributes.body
the use of thermometer

# data[].attributes.body
thermal equilibrium achieved when the rate of net heat transfer is zero and both objects has the same temperature.

# data[].attributes.body
0.65(20)+4=x
17cm=x

# data[].attributes.body
65 = (x-4/24-4) x 100
0.65 = x-4/20
13 = x-4
x = 17cm

# data[].attributes.body
(15-12)/(20-12) x 100
= 37.5°C

# data[].attributes.body
120 + 273 = 393K

# data[].attributes.body
By using a thinner-walled glass bulb or reduce the diameter of the capillary tube.

# data[].attributes.body
Because mercury expands and contracts uniformly

# data[].attributes.body
1) Put the thermometer in the boiling water, then mark 100°C
2) Put the thermometer in ice cubes, the mark 0°C
3) The divide equally into 100 parts

# data[].attributes.body
The usage of thermometer

# data[].attributes.body
Thermal equilibrium is achieved when rate of net heat is zero and both object has the same temperature.

# data[].attributes.body
a) The degree of hotness of a body
b) The SI unit Kelvin (K) or Celsius (°C)
c) Measured by thermometer

# data[].attributes.body
a) A form of energy that can transfer from hot to cold body
b) The SI unit is Joule (J)

c) Measured by Joulemeter

# data[].attributes.body
65=x-4/24-4x100°
0.65=x-4/20
13=x-4
17cm=x

# data[].attributes.body
15-12/20-12 x 100°

=37.5°C

# data[].attributes.body
120+ 273= 393K

# data[].attributes.body
use a thinner walled glass bulb

# data[].attributes.body
1) put the thermometer in boling water and mark at the thermometer
2) put the thermometer in the cold water and mark at the thermometer
3) divide 0°-100° by 100 to get the scale

# data[].attributes.body
The use of thermometer

# data[].attributes.body
65 = x - 4 / 24 - 4 x 100
65 x 20 = x - 4 x 100
1300 / 100 = x - 4
13 + 4 = x
x = 17cm

# data[].attributes.body
(15 - 12 / 20 - 12) x 100 = 38°C

# data[].attributes.body
65 x20 = x-4 x 100%

1300/100 = x-4

13+4 = x

x = 17

# data[].attributes.body
15-12/20-12 x 100 = 38’C

# data[].attributes.body
65=(x-4/24-4)x100
0.65=x-4/24-4
13=x-4
x=17

# data[].attributes.body
120 + 273 = 393K

# data[].attributes.body
use a thinner walled glass bulb

# data[].attributes.body
(15-12/20-12)X100=37.5C

# data[].attributes.body
Mercury can expand and contract uniformly due to heat

# data[].attributes.body
120+273=393K

# data[].attributes.body
1. Put the thermometer in boiling water and mark the reading

2. Put the thermometer in a cold water and mark the reading

3. Divide into equally 100 parts

# data[].attributes.body
use a thinner walled glass bulb

# data[].attributes.body
The use of thermometer

# data[].attributes.body
Thermal equilibrium is achieved when the net heat movement is zero and the temperature is the same

# data[].attributes.body
has a higher boiling point and does not stick to the glass

# data[].attributes.body
a) Temperature is the degree of the hotness of a body
b) Kelvin (K)
c) Thermometer

# data[].attributes.body
1)put the thermometer in the boiling water,100*C then mark
2) put the thermometer in tthe ice cubes,0*C then mark it
3) divide in equal part

# data[].attributes.body
a) Heat is a form of energy that can transfer from hot to cold body
b) Joule (J)
c) Joulemeter

# data[].attributes.body
the use of thermometer

# data[].attributes.body
thermal equilibrium achieved when its reach the same temperature and the net rate of heat transfer between the two bodies is zero

# data[].attributes.body
a) the degree of hotness of a body
b) Kelvin (K)
c)thermometer

# data[].attributes.body
H

# data[].attributes.body
a) Heat is a form of energy that can transfer from hot to cold body
b) Joule (J)
c) Joulemeter

# data[].attributes.body
a) form of energy that can be transfered from hoot to cold
b) Joule (J)
c) joulemeter

# data[].attributes.body
120 + 273 = 393 K

# data[].attributes.body
Use a thinner-walled glass bulb

# data[].attributes.body
It is beacuse the mercury can expand and contract uniformly due to the heat

# data[].attributes.body
1. Put the thermometer in boiling water and mark the reading
2. Put the thermometer in a cold water and mark the reading
3. Divide into equally 100 parts

# data[].attributes.body
The use of thermometer

# data[].attributes.body
Thermal equilibrium achieved when the rate of net of heat had transfer is zero and both object has the same tenperature

# data[].attributes.body
a) Temperature is the degree of the hotness of a body
b) SI unit: Kelvin (K)
c) Thermometer

# data[].attributes.body
a) Heat is a form of energy that can transfer from hot to cold body
b) SI unit : Joule (J)
c) Joulemeter

# data[].attributes.body
65=(x-4/24-4)x100
0.65=x-4/24-4
13=x-4
x=17 cm

# data[].attributes.body
a)temperature is the degree of hotness of a body

b)K or °C

c)thermometer

# data[].attributes.body
(15-12/20-12)x100= 37.5 C

# data[].attributes.body
a) energy that can be transfer from hot to cold body

b) Joule

c) Joulemeter

# data[].attributes.body
120+293=393K

# data[].attributes.body
use a thinner walled glass bulb

# data[].attributes.body
because mercury can contract and expand uniformly

# data[].attributes.body
thermal equilibrium is achieved when rate of net had transfer is zero and both object has same temperature

# data[].attributes.body
65=(x-4/24-4)x 100
0.65(20) =x -4
13+4=x
17cm=x

# data[].attributes.body
the use of thermometer

# data[].attributes.body
1) first put the thermometer in boiling point until it reached 100’c and mark it

2)put in ice water and mark at 0’c

3)put in the solution that want to measure and divide between 0’c and 100’c to get the scale