A) its specific heat capacity B) its mass C) The temperature difference between the body and the surroundings D) its volume
A) surface area B) steam temperature C) standard temperature D) surrounding temperature
A) large temperature differences B) Absolute zero C) small temperature differences D) Melting processes
A) 40°C B) 60°C C) 50°C D) 20°C
A) Larger temperature difference B) smaller surface area C) vacuum surroundings D) lower emissivity
A) Thermometers are inaccurate B) Heat is gained from the surroundings C) Heat is lost to the surrounding D) Water changes mass
A) Air movement increases B) Mass increases C) Air movement increases D) Surface area decreases
A) 1.5 J/s B) 150 J/s C) 600 J/s D) 2.5 J/s
A) 5°C B) 10°C C) 2°C D) 15°C
A) 4°C/s B) 1°C/s C) 2°C/s D) 3°C/s
A) Mass of the calorimeter B) Lowest temperature C) Room temperature D) Actual quantity of heat exchanged
A) Heat is lost to the surroundings during the experiment B) Water evaporates completely C) The thermometer expands D) The calorimeter changes colour
A) Subtracted from the observed temperature rise B) Subtracted from the observed temperature rise C) Added to the observed temperature rise D) Multiplied by mass
A) Compression B) Radiation and convection C) Reflection D) Magnetism
A) 15% B) 6.7% C) 5% D) 10%
A) Pressure B) Volume C) Density D) Quantity of Heat accurately
A) The calorimeter melts B) Water gains mass C) Temperature becomes constant immediately D) Heat escapes to the surrounding
A) Pascal B) Newton C) Joule D) Watt
A) 47.7°C B) 48.0°C C) 49.2°C D) 48.7°C
A) 35°C B) 25°C C) 30°C D) 45°C
A) The constant temperature of the surrounding environment (surroundings) B) The specific heat capacity of the material C) The time taken to reach thermal equilibrium D) The starting temperature of the object
A) The time it takes for the temperature to drop to 0 degrees Celsius B) The temperature of the object at any specific time t C) The total heat energy lost by the system D) The melting point of the polymer sample
A) 25 degree Celcius B) 180 degree Celcius C) 205 degree Celcius D) 155 degree Celcius
A) 36.8 degree Celcius B) 61.8 degree Celcius C) 75.2 degree Celcius D) 25.0 degree Celcius
A) Linear decay B) Logarithmic growth C) Quadratic decay D) Exponential decay
A) Common Logarithm B) Integration by parts C) Natural Logarithm ln D) Square root
A) It doubles its value B) It drops to absolute zero C) It equals T(s) D) At zero degrees
A) 0.050 B) 0.125 C) 0.500 D) 0.0625
A) 40 degree Celcius B) 70 degree Celcius C) 30 degree Celcius D) 100 degree Celcius
A) 100 degree Celcius B) 70 degree Celcius C) 30 degree Celcius D) 0 degree Celcius |