© Copyright 2016 OGF - Review – Fluid Statics and Dynamics Thermodynamics Fluid Statics/Dynamics.

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© Copyright 2016 OGF - Review – Fluid Statics and Dynamics Thermodynamics Fluid Statics/Dynamics

© Copyright 2016 OGF - Review – Fluid Statics and Dynamics 1.Which one of the following methods will increase the possibility and/or severity of water hammer? A.Opening and closing system valves slowly. B.Venting fluid systems prior to starting a pump. C.Starting a centrifugal pump with the discharge valve fully open. D.Starting a centrifugal pump with the discharge valve fully closed.

© Copyright 2016 OGF - Review – Fluid Statics and Dynamics 2.A 55 gpm leak to atmosphere has developed from a cooling water system that is operating at 100 psig. Which one of the following will be the approximate leak rate when system pressure has decreased to 50 psig? A.28 gpm B.32 gpm C.39 gpm D.45 gpm

© Copyright 2016 OGF - Review – Fluid Statics and Dynamics 3.Which one of the following describes the relationship between the main steam mass flow rate leaving a steam generator and the main feedwater mass flow rate entering the same steam generator at steady-state power operation? (Assume no other addition/removal of steam generator inventory.) A.The mass flow rates will be the same only if downcomer level is constant. B.The mass flow rates will be the same only if the reactor is operating near rated power. C.The main steam mass flow rate is smaller than the main feedwater mass flow rate by the amount of moisture removed by the steam generator moisture separators. D.The main steam mass flow rate is greater than the main feedwater mass flow rate by the amount of moisture removed by the steam generator moisture separators.

© Copyright 2016 OGF - Review – Fluid Statics and Dynamics 4.Reactor coolant system (RCS) hot leg temperature is constant at 538°F while RCS pressure is decreasing due to a small reactor coolant leak. Which one of the following RCS pressure ranges includes the pressure at which two-phase flow will first occur in the hot leg? A.1,100 to 1,151 psig B.1,050 to 1,001 psig C.1,000 to 951 psig D.950 to 901 psig

© Copyright 2016 OGF - Review – Fluid Statics and Dynamics 5.A centrifugal water pump is being returned to service after maintenance. However, the operator failed to vent the pump. Compared to normal pump operating conditions, after the pump is started the operator will see a __________ flow rate and a __________ discharge head. A.higher; lower B.higher; higher C.lower; lower D.lower; higher

© Copyright 2016 OGF - Review – Fluid Statics and Dynamics 6.Cavitation of a centrifugal pump in an open system is indicated by __________ discharge pressure and __________ flow rate. A.low; low B.high; high C.low; high D.high; low

© Copyright 2016 OGF - Review – Fluid Statics and Dynamics 7.A condensate pump is taking suction on a main condenser hotwell, containing water at 100°F, and discharging the water at a volumetric flow rate of 100,000 gpm to the main feedwater system. The main feedwater system heats the water to 400°F before it enters the steam generators. Assume there is no leakage, and no bypass or recirculation flow paths are in use. What is the approximate volumetric flow rate of the feedwater entering the steam generators? A.100,000 gpm B.105,000 gpm C.109,000 gpm D.115,000 gpm

© Copyright 2016 OGF - Review – Fluid Statics and Dynamics 8.A length of pipe in a cooling water system uses a reducer fitting to decrease the pipe diameter from 6 inches to 4 inches. The flow rate in the 6-inch diameter section of pipe is 200 gpm. What is the flow rate in the 4-inch diameter section of pipe? A.133 gpm B.200 gpm C.300 gpm D.450 gpm

© Copyright 2016 OGF - Review – Fluid Statics and Dynamics 9.An ideal positive displacement pump is operating in an open system with the following initial parameters: - Suction pressure = 10 psig - Discharge pressure = 25 psig - Flow rate = 100 gpm If the pump discharge pressure increases to 40 psig, the pump flow rate will... A.remain constant. B.decrease in direct proportion to the change in pump differential pressure. C.decrease in direct proportion to the square of the change in pump differential pressure. D.decrease in direct proportion to the square root of the change in pump differential pressure.

© Copyright 2016 OGF - Review – Fluid Statics and Dynamics 10.Which one of the following will decrease the head loss occurring in an operating cooling water system? A.Shifting two heat exchangers from parallel to series operation. B.Increasing the flow rate in the system by positioning a flow control valve more open. C.Replacing a 10 foot length of 10-inch diameter pipe with a 20 foot length of 10-inch diameter pipe. D.Replacing a 20 foot length of 12-inch diameter pipe with a 20 foot length of 10-inch diameter pipe.