1 / 7

Boiling Water Test Loop

Adam Leschber , ME Andrew Dahlke , ME Dakota Nickerson, ME Kyle Pflueger , ME. Problem Statement:

ashton
Download Presentation

Boiling Water Test Loop

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript

  1. Adam Leschber, ME Andrew Dahlke, ME Dakota Nickerson, ME Kyle Pflueger, ME Problem Statement: Design and build a boiling water test loop that recreates the conditions seen in a commercial boiling water reactor, by changing the flow and thermal inputs. Boiling Water Test Loop Sponsor: Dr. Akira Tokuhiro Core Flux Designers Boiling Water Test Loop with B9-Position

  2. Specifications: Piping and Control Specifications: Condensate Pump: AC motor driven centrifugal pump, self cooled Design Flow Rate – 25 gpm; Inlet pressure – 2 psig; Outlet pressure – 160 psig Booster Pump: AC motor driven centrifugal pump, self cooled Design Flow Rate – 25 gpm; Inlet pressure – 160 psig; Outlet pressure – 600 psig Feedwater Pump: AC motor driven centrifugal pump, self cooled Design Flow Rate – 25 gpm; Inlet pressure – 600 psig; Outlet pressure – 1100 psig Isolation Valve-1 Manually operated globe valve Size -TBD Isolation Valve-2 Manually operated globe valve Size -TBD Pressure Control Valve-1 Solenoid operated control valve Size -TBD Pressure Relief Valve-1 Spring loaded/self actuated Size -TBD Radiation Detector Ion Chamber Radiation Monitor TBD Demineralizer Bed Resin Size -TBD Quench Tank TBD Line heater-1 Electric inline heating element Voltage – TBD; Power – TBD; Inlet Temperature – 400F; Outlet Temperature – 530F Line heater-2 Electric inline heating element Voltage – TBD; Power – TBD; Inlet Temperature – 120F; Outlet Temperature – 400F In Tube Heater element Electric inline heating element Voltage – TBD; Power – TBD; Inlet Temperature – 530F; Outlet Temperature – 545F Flow Element-1 Venturi Tube Flow Element-2 Venturi Tube or Untrasonic Pressure Indicator-1 TBD Range - 2-200 psig Pressure Indicator-2 TBD Range - 100-800 psig Pressure Indicator-3 TBD Range - 100-1200 psig Pressure Indicator-4 TBD Range - 100-1200 psig Temperature Element-1 RTD Range - 80-150 F Temperature Element-2 RTD Range - 80-600 F Temperature Element-3 RTD Range - 80-600 F Temperature Element-4 RTD Range - 400-600 F Temperature Element-5 RTD Range - 400-600 F Temperature Element-6 RTD Range - 400-600 F Temperature Element-7 RTD Range - 400-600 F Pipe Stainless Steel Size -TBD • Reactor Specifications: • From BWTL Preliminary Analysis document, the reactor portion will be in the B position. This means that the following specs should be true. • From Final Presentation, the dimensions of the pipes in the tube are. Pressure tube, schedule 5-1”, Outer Flow tube schedule 5-0.75” and Inner flow tube schedule 5-0.5” with the OD machined to 0.79” and ID bored out to 0.72”. •   Outer Section Inner Section  Units • Density • 47.547.5 lbm/ft3 • Dynamic Viscosity • 6.4E-56.4E-5lbm/ft s • Flow Rate • 0.00148 0.00148 ft3/s • Flow Area • 0.00121 0.00146 ft2 • Hydraulic Diameter • 0.0183 0.0108 ft • Velocity • 1.011 1.220 ft/s • Reynolds # • 13754 9896

  3. 304L SS

More Related