Water is being boiled in the flat bottom kettle placed on a stove. The area of the bottom is 3000 cm² and the thickness is 2 mm. If the amount of heat produced is 1gm/min, Calculate the temperature difference between inner and outer surface of the water.(k=0.5 cal/°C m s, L=540 cal/gm)
Answers
Answer
Let the temperature difference be t,
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m l
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m l
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m l =1gm min
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m l =1gm min −1
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m l =1gm min −1 , so heat absorption rate is 1×540/60=9cals
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m l =1gm min −1 , so heat absorption rate is 1×540/60=9cals −1
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m l =1gm min −1 , so heat absorption rate is 1×540/60=9cals −1
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m l =1gm min −1 , so heat absorption rate is 1×540/60=9cals −1 Equating the heat rate, we get 0.5×300×t/0.2=9⇒t=0.012
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m l =1gm min −1 , so heat absorption rate is 1×540/60=9cals −1 Equating the heat rate, we get 0.5×300×t/0.2=9⇒t=0.012 o
Let the temperature difference be t, so the rate of heat conduction is given as Q/t=KAt/l where K=0.5cal is the thermal conductivity, A=300cm 2 is the area of surface, l=0.2cm is the thickness.Now rate of vaporization is m l =1gm min −1 , so heat absorption rate is 1×540/60=9cals −1 Equating the heat rate, we get 0.5×300×t/0.2=9⇒t=0.012 o C