An air bubble of volume `1.0cm^(3)` rises from the bottom of a lake 40 m deep at a temperature of `12^(@)C`. To what volume does it grow when it reaches the surface which is at a temperature of `35^(@)C`?

An air bubble of volume 1.0 cm^(3) rises from the bottom of a take 40 m deep at a temperature of 12^(@) C . To what volume does it grow when it reaches the surface, which is at a temperature of 35^(@) C . ? Given 1 atm = 1.01 xx 10^(5) Pa .

An air bubble of 20 cm^3 volume is at the bottom of a lake 40 m deep where the temperature is 4^@ C . The bubble rises to the surface which is at a temperature of 20 ^@ C . Take the temperature to be the same as that of the surrounding water and find its volume just before it reaches the surface.

A bubble rises from the bottom of a lake 90m deep on reaching the surface, its volume becomes (take atmospheric pressure equals to 10 m of water)

A small bubble rises from the bottom of a lake, where the temperature and pressure are 8^(@)C and 6.0 atm , to the water's surface, where the temperature is 25^(@)C and pressure is 1.0 atm . Calculate the final volume of the bubble if its initial volume was 2mL .

A house has a volume of 600 m^(3) . If the temperature rises to 25^(@)C , what mass of air enters or leaves the house?

A spherical air bubble is rising from the depth of a lake when pressure is P atm and temperature is T K . The percentage increase in the radius when it comes to the surface of a lake will be (Assume temperature and pressure at the surface to be, respectively, 2T K and P//4 .)

A spherical air bubble is rising from the depth of a lake when pressure is P atm and temperature is T K. The percentage increase in its radius when it comes to the surface of lake will be: (Assume temperature and pressure at the surface to be respectively 2 TK and (P)/(4) )