EO: 1.1 – 1.9 FUN 1 EO: 1.1 FUN 1 EO: 1.2 FUN 1 EO: 1.3 FUN 1 EO: 1.4 FUN 1 EO: 1.5 FUN 1 EO: 1.6 FUN 1 EO: 1.7 & 1.8 FUN 1 EO: 1.9 EO: 1.10 – 1.19 FUN 1 EO: 1.10 FUN 1 EO: 1.11 FUN 1 EO: 1.12 FUN 1 EO: 1.13 FUN 1 EO: 1.14 FUN 1 EO: 1.15 FUN 1 EO: 1.16 FUN 1 EO: 1.17 FUN 1 EO: 1.18 FUN 1 EO: 1.19 EO: 1.20- 1.30 FUN 1 EO: 1.20 FUN 1 EO: 1.21 & 1.22 FUN 1 EO: 1.23 & 1.24 FUN 1 EO: 1.25 FUN 1 EO: 1.26 FUN 1 EO: 1.27 FUN 1 EO: 1.28 FUN 1 EO: 1.29 & 1.30 EO: 1.31- 1.39 FUN 1 EO: 1.31 & 1.32 FUN 1 EO: 1.33 & 1.34 FUN 1 EO: 1.35 & 1.36 FUN 1 EO: 1.37 FUN 1 EO: 1.38 FUN 1 EO: 1.39 EO: 1.40- 1.49 FUN 1 EO: 1.40 FUN 1 EO: 1.41 FUN 1 EO: 1.42 FUN 1 EO: 1.43 FUN 1 EO: 1.44 FUN 1 EO: 1.45 & 1.46 FUN 1 EO: 1.47 FUN 1 EO: 1.48 FUN 1 EO: 1.49 EO: 1.50- 1.62 FUN 1 EO: 1.50 FUN 1 EO: 1.51 FUN 1 EO: 1.52 FUN 1 EO: 1.53 FUN 1 EO: 1.54 FUN 1 EO: 1.55 FUN 1 EO: 1.56 FUN 1 EO: 1.57 FUN 1 EO: 1.58 FUN 1 EO: 1.59 FUN 1 EO: 1.60 FUN 1 EO: 1.61 FUN 1 EO: 1.62 Menu EO: 1.1 – 1.9 FUN 1 EO: 1.1 FUN 1 EO: 1.2 FUN 1 EO: 1.3 FUN 1 EO: 1.4 FUN 1 EO: 1.5 FUN 1 EO: 1.6 FUN 1 EO: 1.7 & 1.8 FUN 1 EO: 1.9 EO: 1.10 – 1.19 FUN 1 EO: 1.10 FUN 1 EO: 1.11 FUN 1 EO: 1.12 FUN 1 EO: 1.13 FUN 1 EO: 1.14 FUN 1 EO: 1.15 FUN 1 EO: 1.16 FUN 1 EO: 1.17 FUN 1 EO: 1.18 FUN 1 EO: 1.19 EO: 1.20- 1.30 FUN 1 EO: 1.20 FUN 1 EO: 1.21 & 1.22 FUN 1 EO: 1.23 & 1.24 FUN 1 EO: 1.25 FUN 1 EO: 1.26 FUN 1 EO: 1.27 FUN 1 EO: 1.28 FUN 1 EO: 1.29 & 1.30 EO: 1.31- 1.39 FUN 1 EO: 1.31 & 1.32 FUN 1 EO: 1.33 & 1.34 FUN 1 EO: 1.35 & 1.36 FUN 1 EO: 1.37 FUN 1 EO: 1.38 FUN 1 EO: 1.39 EO: 1.40- 1.49 FUN 1 EO: 1.40 FUN 1 EO: 1.41 FUN 1 EO: 1.42 FUN 1 EO: 1.43 FUN 1 EO: 1.44 FUN 1 EO: 1.45 & 1.46 FUN 1 EO: 1.47 FUN 1 EO: 1.48 FUN 1 EO: 1.49 EO: 1.50- 1.62 FUN 1 EO: 1.50 FUN 1 EO: 1.51 FUN 1 EO: 1.52 FUN 1 EO: 1.53 FUN 1 EO: 1.54 FUN 1 EO: 1.55 FUN 1 EO: 1.56 FUN 1 EO: 1.57 FUN 1 EO: 1.58 FUN 1 EO: 1.59 FUN 1 EO: 1.60 FUN 1 EO: 1.61 FUN 1 EO: 1.62 EO: 1.1 – 1.3 FUN 2 EO: 1.1 FUN 2 EO: 1.2 FUN 2 EO: 1.3 EO: 1.4a – 1.4d FUN 2 EO: 1.4-a FUN 2 EO: 1.4-b FUN 2 EO: 1.4-c FUN 2 EO: 1.4-d EO: 1.4e – 1.4h FUN 2 EO: 1.4-e FUN 2 EO: 1.4-f FUN 2 EO: 1.4-g FUN 2 EO: 1.4-h EO: 1.4i – 1.5 FUN 2 EO: 1.4-i FUN 2 EO: 1.4-j FUN 2 EO: 1.4-k FUN 2 EO: 1.4-l FUN 2 EO: 1.5 Menu EO: 1.1 – 1.3 FUN 2 EO: 1.1 FUN 2 EO: 1.2 FUN 2 EO: 1.3 EO: 1.4a – 1.4d FUN 2 EO: 1.4-a FUN 2 EO: 1.4-b FUN 2 EO: 1.4-c FUN 2 EO: 1.4-d EO: 1.4e – 1.4h FUN 2 EO: 1.4-e FUN 2 EO: 1.4-f FUN 2 EO: 1.4-g FUN 2 EO: 1.4-h EO: 1.4i – 1.5 FUN 2 EO: 1.4-i FUN 2 EO: 1.4-j FUN 2 EO: 1.4-k FUN 2 EO: 1.4-l FUN 2 EO: 1.5 FUN 2 EO: 1.4-c 1 / 15 What is the primary purpose of the Steam Generators (S/Gs)? To regulate the pressure inside the reactor To cool down the primary system To generate steam for turbine operation To transfer the heat from the primary system to the secondary system 2 / 15 Which radiological precaution is associated with PZR insulation removal/install? High Radiation Area only High Radiation Area, high contamination levels, and the potential for > 1 DAC airborne High contamination levels only Potential for > 1 DAC airborne only 3 / 15 In the pressurizer, how is pressure increased when it starts to decrease? Cold water is sprayed into the steam space The pressurizer relief valves open and dump steam to the pressurizer relief tank The water is heated by the reactor coolant pump The electrical heaters are energized to boil more water into steam 4 / 15 What atmosphere does the pressurizer relief tank contain to prevent potential explosions due to hydrogen? Helium atmosphere Nitrogen atmosphere Argon atmosphere Oxygen atmosphere 5 / 15 What happens in the pressurizer when reactor coolant system temperature decreases? The water density increases, causing a pressure increase The water density decreases, causing a pressure decrease The water density increases, causing a pressure decrease The water density remains constant, and pressure remains unaffected 6 / 15 What is the purpose of the pressurizer relief tank? To condense any steam discharged by the safety or relief valves To maintain the temperature of the pressurizer To act as a backup for the pressurizer To control the flow of the reactor coolant 7 / 15 Where does the reactor coolant enter the reactor coolant pump from? The outlet of the steam generator The inlet of the steam generator The hot leg side of the reactor vessel The cold leg side of the reactor vessel 8 / 15 What is the primary purpose of the reactor coolant pump? To initiate natural circulation flow through the reactor To provide forced primary coolant flow to remove the heat generated by the fission process To filter impurities from the reactor coolant To maintain the water level inside the reactor 9 / 15 If the reactor coolant pump fails, which kind of flow is sufficient for heat removal when the plant is shutdown? Passive circulation flow Reverse circulation flow Natural circulation flow Forced circulation flow 10 / 15 In Steam Generators, where is the primary coolant located? Between the moisture separators and dryers Inside the tubes In the steam space Outside the tubes 11 / 15 The Steam Generators act as a barrier between which two systems? Secondary and tertiary systems Primary and tertiary systems Radioactive and non-radioactive systems Reactor and coolant systems 12 / 15 How does the pressurizer control the system pressure? Using temperature sensors and surge tanks Using electrical heaters and reactor coolant flow Using electrical heaters, pressurizer spray, power operated relief valves, and safety valves Using coolant pumps and safety valves 13 / 15 Which radiological precaution is associated with reactor coolant pump seal replacement? High contamination levels only Potential for > 1 DAC airborne only High Radiation Area, high contamination levels and potential for > 1 DAC airborne High Radiation Area only 14 / 15 What is the purpose of the seal package in the reactor coolant pump? It prevents any water from leaking up the shaft into the containment atmosphere It helps increase the velocity of the reactor coolant It detects the temperature of the coolant It reduces the pressure in the reactor coolant 15 / 15 If the reactor coolant system temperature starts to increase, what happens to the density of the reactor coolant? The density of the reactor coolant decreases The density remains the same The density varies unpredictably The density of the reactor coolant increases Your score is Share your results with your friends!! LinkedIn Facebook Twitter VKontakte Restart quiz PreviousFUN 2 EO: 1.4-cNext