| 
          
            a. A house             | 
        ||
| 
          
            b. A physical property of a system that is independent of the system size and mass             | 
        ||
| 
          
            c. An extensive property             | 
        ||
| 
          
            d. A product of two extensive properties             | 
        
| 
          
            a. A traditional unit of energy equal to 1055 J             | 
        ||
| 
          
            b. A traditional unit of energy equal to 1055 N             | 
        ||
| 
          
            c. A unit of energy that stand for British Transition Unit             | 
        ||
| 
          
            d. A unit of energy that stands for British Thermal Union             | 
        
| 
          
            a. In a closed system, no mass may be transferred in or out of the system boundaries.             | 
        ||
| 
          
            b. In a closed system, no energy may be transferred in or out of the system boundaries.             | 
        ||
| 
          
            c. In a closed system, both mass and energy cannot be transferred in or out of the system boundaries.             | 
        ||
| 
          
            d. In a closed system, no work may be transferred in or out of the system boundaries.             | 
        
| 
          
            a. A specific property             | 
        ||
| 
          
            b. A physical property of a system that depends on the system size and mass             | 
        ||
| 
          
            c. An intensive property             | 
        ||
| 
          
            d. A product of two intensive properties             | 
        
| 
          
            a. 203°K             | 
        ||
| 
          
            b. 294°K             | 
        ||
| 
          
            c. 270°K             | 
        ||
| 
          
            d. 343°K             | 
        
| 
          
            a. 303°K             | 
        ||
| 
          
            b. 260°K             | 
        ||
| 
          
            c. 533°K             | 
        ||
| 
          
            d. 500°K             | 
        
| 
          
            a. A series of identical thermodynamic processes             | 
        ||
| 
          
            b. A thermodynamic process             | 
        ||
| 
          
            c. A system in equilibrium             | 
        ||
| 
          
            d. A series of thermodynamic processes that return to the first state of the first process             | 
        
| 
          
            a. Internal energy             | 
        ||
| 
          
            b. Temperature             | 
        ||
| 
          
            c. Heat capacity             | 
        ||
| 
          
            d. Entropy             | 
        
| 
          
            a. kg/m             | 
        ||
| 
          
            b. inch/lb             | 
        ||
| 
          
            c. kg             | 
        ||
| 
          
            d. m             | 
        
| 
          
            a. Boyle's law             | 
        ||
| 
          
            b. Ideal gas law             | 
        ||
| 
          
            c. Newton’s second law             | 
        ||
| 
          
            d. f(P,V,T) = 0             | 
        
| 
          
            a. 1.5 m3             | 
        ||
| 
          
            b. 1.1 m3             | 
        ||
| 
          
            c. 0.1 m3             | 
        ||
| 
          
            d. 1.9 m3             | 
        
| 
          
            a. Vapor             | 
        ||
| 
          
            b. Liquid-vapor mixture             | 
        ||
| 
          
            c. Liquid             | 
        ||
| 
          
            d. Solid             | 
        
| 
          
            a. Vapor             | 
        ||
| 
          
            b. Liquid-vapor mixture             | 
        ||
| 
          
            c. Liquid             | 
        ||
| 
          
            d. Solid             | 
        
| 
          
            a. 0.52 kg/s             | 
        ||
| 
          
            b. 0.152 kg/s             | 
        ||
| 
          
            c. 0.258 kg/s             | 
        ||
| 
          
            d. 1.65 kg/s             | 
        
| 
          
            a. 280°C             | 
        ||
| 
          
            b. 100°C             | 
        ||
| 
          
            c. 300°C             | 
        ||
| 
          
            d. 250°C             | 
        
| 
          
            a. 300°C             | 
        ||
| 
          
            b. 30°K             | 
        ||
| 
          
            c. 30°C             | 
        ||
| 
          
            d. 300°K             | 
        
| 
          
            a. 150°C             | 
        ||
| 
          
            b. 200°K             | 
        ||
| 
          
            c. 202°C             | 
        ||
| 
          
            d. 100°K             | 
        
| 
          
            a. 3.25 MPa             | 
        ||
| 
          
            b. 4.76 MPa             | 
        ||
| 
          
            c. 1.76 bar             | 
        ||
| 
          
            d. 15 atm             | 
        
| 
          
            a. 2 T             | 
        ||
| 
          
            b. 1.5 T             | 
        ||
| 
          
            c. 0.6 T             | 
        ||
| 
          
            d. 0.5 T             | 
        
| 
          
            a. 100°C and 1 atm             | 
        ||
| 
          
            b. 0°K and 611 Pa             | 
        ||
| 
          
            c. 273°K and 1 MPa             | 
        ||
| 
          
            d. 273°K and 611 Pa             | 
        
| 
          
            a. A process in which the system is perfectly insulated and heat transfer is zero             | 
        ||
| 
          
            b. A process in which the temperature stays constant             | 
        ||
| 
          
            c. A process in which the pressure stays constant             | 
        ||
| 
          
            d. A process in which the volume of the system stays constant             | 
        
| 
          
            a. 29.5 kJ             | 
        ||
| 
          
            b. 19.5 kJ             | 
        ||
| 
          
            c. 49.5 kJ             | 
        ||
| 
          
            d. 89.5 kJ             | 
        
| 
          
            a. Heat             | 
        ||
| 
          
            b. Work             | 
        ||
| 
          
            c. Potential energy             | 
        ||
| 
          
            d. Entropy             | 
        
| 
          
            a. The transfer of thermal energy between regions of matter due to a temperature gradient             | 
        ||
| 
          
            b. The transfer of energy due to bulk movement of liquids             | 
        ||
| 
          
            c. The transfer of electrical energy from one object to another             | 
        ||
| 
          
            d. The transfer of kinetic energy due to collision             | 
        
| 
          
            a. Radiation, friction, and convection             | 
        ||
| 
          
            b. Convection, isobaric, and radiation             | 
        ||
| 
          
            c. Conduction, isothermal, and isentropic             | 
        ||
| 
          
            d. Conduction, convection, and radiation             | 
        
| 
          
            a. 70°C             | 
        ||
| 
          
            b. 50°C             | 
        ||
| 
          
            c. 30°C             | 
        ||
| 
          
            d. 20°C             | 
        
| 
          
            a. 35.9°C             | 
        ||
| 
          
            b. 75.2°C             | 
        ||
| 
          
            c. 125.6°C             | 
        ||
| 
          
            d. 25.4°C             | 
        
| 
          
            a. 219 kg             | 
        ||
| 
          
            b. 299 kg             | 
        ||
| 
          
            c. 179 kg             | 
        ||
| 
          
            d. 359 kg             | 
        
| 
          
            a. 1223 kg             | 
        ||
| 
          
            b. 142 kg             | 
        ||
| 
          
            c. 697 kg             | 
        ||
| 
          
            d. 47 kg             | 
        
| 
          
            a. Exergy             | 
        ||
| 
          
            b. Entropy             | 
        ||
| 
          
            c. Energy             | 
        ||
| 
          
            d. Enthalpy             | 
        
| 
          
            a. 256 kJ             | 
        ||
| 
          
            b. 22 kJ             | 
        ||
| 
          
            c. 742 kJ             | 
        ||
| 
          
            d. 1920 kJ             | 
        
| 
          
            a. -2.31 kJ             | 
        ||
| 
          
            b. 4.52 kJ             | 
        ||
| 
          
            c. -6.53 kJ             | 
        ||
| 
          
            d. -3.55 kJ             | 
        
| 
          
            a. 610 kJ/kg             | 
        ||
| 
          
            b. 510 kJ/kg             | 
        ||
| 
          
            c. 710 kJ/kg             | 
        ||
| 
          
            d. 210 kJ/kg             | 
        
| 
          
            a. Heat conduction happens only on solid materials.             | 
        ||
| 
          
            b. Heat convection is independent of fluid velocity.             | 
        ||
| 
          
            c. Heat transfer due to radiation increases linearly with temperature.             | 
        ||
| 
          
            d. None of the above             | 
        
| 
          
            a. The first law of thermodynamics is an expression of the principle of conservation of energy.             | 
        ||
| 
          
            b. The first law of thermodynamics states that energy can be transformed but cannot be created nor destroyed.             | 
        ||
| 
          
            c. The internal energy of an isolated system is not constant.             | 
        ||
| 
          
            d. Changes in internal energy (U) are due to a combination of heat (Q) added to the system and work done by the system (W).             | 
        
| 
          
            a. 3.6 kJ             | 
        ||
| 
          
            b. 9.6 kJ             | 
        ||
| 
          
            c. 6.4 kJ             | 
        ||
| 
          
            d. 5.1 kJ             | 
        
| 
          
            a. The temperature of the system increases.             | 
        ||
| 
          
            b. The temperature of the system decreases.             | 
        ||
| 
          
            c. The internal energy of the system stays constant.             | 
        ||
| 
          
            d. No energy is exchanged between the system and the surrounding.             | 
        
| 
          
            a. For any spontaneous process, the entropy of the universe increases.             | 
        ||
| 
          
            b. Entropy cannot be created or destroyed.             | 
        ||
| 
          
            c. Energy cannot be created or destroyed.             | 
        ||
| 
          
            d. Energy = internal energy + kinetic energy + potential energy.             | 
        
| 
          
            a. Heat is always transferred from a hot object to a colder object.             | 
        ||
| 
          
            b. Heat transfer occurs when the temperature of a system is different from the temperature of its surroundings.             | 
        ||
| 
          
            c. The three major modes of heat transfer are conduction, convection, and radiation.             | 
        ||
| 
          
            d. Internal energy of a system can only be changed due to heat transfer.             | 
        
| 
          
            a. It is not possible to build Carnot power cycle in practice.             | 
        ||
| 
          
            b. A Carnot power cycle consists of 2 isentropic processes and 2 isothermal processes.             | 
        ||
| 
          
            c. No engine operating between two heat reservoirs can be more efficient than a Carnot engine operating between those same reservoirs.             | 
        ||
| 
          
            d. The thermal efficiency of a Rankine cycle can be made to be equal to that of a Carnot power cycle operating between the same cold and hot reservoirs.             | 
        
| 
          
            a. 0.13             | 
        ||
| 
          
            b. 0.52             | 
        ||
| 
          
            c. 0.22             | 
        ||
| 
          
            d. 0.76             | 
        
| 
          
            a. Exergy is the minimum useful work possible during a process that brings the system into equilibrium with a heat reservoir.             | 
        ||
| 
          
            b. Exergy is always destroyed in a process involving a temperature change.             | 
        ||
| 
          
            c. Exergy is equivalent to entropy.             | 
        ||
| 
          
            d. Exergy never reaches zero even after the system and surroundings reach equilibrium.             | 
        
| 
          
            a. For any spontaneous process, the entropy of the universe increases.             | 
        ||
| 
          
            b. Entropy cannot be created or destroyed.             | 
        ||
| 
          
            c. Energy cannot be created or destroyed.             | 
        ||
| 
          
            d. Energy = internal energy + kinetic energy + potential energy.             | 
        
| 
          
            a. Two reversible isothermal processes and two adiabatic processes             | 
        ||
| 
          
            b. Two irreversible isothermal processes and two adiabatic processes             | 
        ||
| 
          
            c. Two isobaric processes and two adiabatic processes             | 
        ||
| 
          
            d. Two reversible isentropic processes and two adiabatic processes             | 
        
| 
          
            a. T(s1 + s2)/2             | 
        ||
| 
          
            b. T (s2 - s1)             | 
        ||
| 
          
            c. T (s1 - s2)             | 
        ||
| 
          
            d. T s1/s2             | 
        
| 
          
            a. Entropy expresses the degree of disorder in a system.             | 
        ||
| 
          
            b. Entropy of an isolated system never decreases.             | 
        ||
| 
          
            c. Entropy has the dimension of energy divided by temperature and a unit of joules per kelvin (J/K).             | 
        ||
| 
          
            d. Entropy measures the energy available for useful work in a thermodynamic process.             | 
        
| 
          
            a. 75%             | 
        ||
| 
          
            b. 40%             | 
        ||
| 
          
            c. 65%             | 
        ||
| 
          
            d. 50%             | 
        
| 
          
            a. Energy             | 
        ||
| 
          
            b. Entropy             | 
        ||
| 
          
            c. Work             | 
        ||
| 
          
            d. Exergy             | 
        
| 
          
            a. 0.123             | 
        ||
| 
          
            b. 0.232             | 
        ||
| 
          
            c. 0.517             | 
        ||
| 
          
            d. 0.721             | 
        
| 
          
            a. 75%             | 
        ||
| 
          
            b. 35%             | 
        ||
| 
          
            c. 45%             | 
        ||
| 
          
            d. 25%             | 
        
| 
          
            a. Isobaric             | 
        ||
| 
          
            b. Isothermal             | 
        ||
| 
          
            c. Adiabatic expansion             | 
        ||
| 
          
            d. Isochoric             | 
        
| 
          
            a. 76%             | 
        ||
| 
          
            b. 46%             | 
        ||
| 
          
            c. 5%             | 
        ||
| 
          
            d. 29%             | 
        
| 
          
            a. 0.31             | 
        ||
| 
          
            b. 0.71             | 
        ||
| 
          
            c. 0.41             | 
        ||
| 
          
            d. 0.61             | 
        
| 
          
            a. Carnot             | 
        ||
| 
          
            b. Brayton             | 
        ||
| 
          
            c. Diesel             | 
        ||
| 
          
            d. Otto             | 
        
| 
          
            a. Carnot             | 
        ||
| 
          
            b. Brayton             | 
        ||
| 
          
            c. Diesel             | 
        ||
| 
          
            d. Otto             | 
        
| 
          
            a. Rankine             | 
        ||
| 
          
            b. Lenoir             | 
        ||
| 
          
            c. Diesel             | 
        ||
| 
          
            d. Otto             | 
        
| 
          
            a. 6.3%             | 
        ||
| 
          
            b. 17.2%             | 
        ||
| 
          
            c. 15.3%             | 
        ||
| 
          
            d. 20.2%             | 
        
| 
          
            a. 1             | 
        ||
| 
          
            b. 0.5             | 
        ||
| 
          
            c. 2             | 
        ||
| 
          
            d. 4             | 
        
| 
          
            a. 1.693 kJ/kg-K             | 
        ||
| 
          
            b. 2.693 kJ/kg-K             | 
        ||
| 
          
            c. 3.693 kJ/kg-K             | 
        ||
| 
          
            d. 0.693 kJ/kg-K             | 
        
| 
          
            a. 30%             | 
        ||
| 
          
            b. 50%             | 
        ||
| 
          
            c. 71%             | 
        ||
| 
          
            d. 60%             | 
        
| 
          
            a. 2.0 MJ             | 
        ||
| 
          
            b. 1.5 MJ             | 
        ||
| 
          
            c. 25.3 MJ             | 
        ||
| 
          
            d. 2.8 MJ             | 
        
| 
          
            a. 2.4%             | 
        ||
| 
          
            b. 25%             | 
        ||
| 
          
            c. 3.8%             | 
        ||
| 
          
            d. 5.2%             | 
        
| 
          
            a. 3.5 kJ             | 
        ||
| 
          
            b. 20 kJ             | 
        ||
| 
          
            c. 38 kJ             | 
        ||
| 
          
            d. 336 kJ             | 
        
| 
          
            a. 1.36 kW             | 
        ||
| 
          
            b. 2.25 kW             | 
        ||
| 
          
            c. 3.10 kW             | 
        ||
| 
          
            d. 0.53 kW             | 
        
| 
          
            a. 0.5 m3             | 
        ||
| 
          
            b. 2 m3             | 
        ||
| 
          
            c. 1 m3             | 
        ||
| 
          
            d. 0.1 m3             | 
        
| 
          
            a. 24%             | 
        ||
| 
          
            b. 5%             | 
        ||
| 
          
            c. 72%             | 
        ||
| 
          
            d. 10%             | 
        
| 
          
            a. 394 kJ/kmol K             | 
        ||
| 
          
            b. 19 kJ/kmol K             | 
        ||
| 
          
            c. 1.5 kJ/kmol K             | 
        ||
| 
          
            d. 80 kJ/kmol K             | 
        
| 
          
            a. 1113 kJ             | 
        ||
| 
          
            b. 2312 kJ             | 
        ||
| 
          
            c. 52 kJ             | 
        ||
| 
          
            d. 4905 kJ             | 
        
| 
          
            a. 6 kJ             | 
        ||
| 
          
            b. 600 kJ             | 
        ||
| 
          
            c. 0.6 kJ             | 
        ||
| 
          
            d. 6000 kJ             |