ili un ciment. 1) (10 pts) Determine the hydraulic capacity (gpm) of the reactor feed system. Assume the reactor pressure control system is capable of maintaining the reactor outlet pressure at the design operating value at any reactor feed rate. In addition to your calculations, include a plot of the required and available pump differential pressure (psi) at pump flow rates of 90, 105, 120, 135, and 150 gpm. Construct the required Ap curve from the individual components as discussed in class. The intersection of the two curves is the hydraulic capacity of the system. Note that the curve associated with required differential pressure is frequently referenced as the "system curve." Reeder Fred Sypken Ruder Palut R-101 24 P-101 E-10 Elevations measured from conterine of pump suchen Flenge. pump performance curve for Piol wla 6. / oD impeller slowa below. The 400 3807 TOH POWER NPSH EFF 320 1 T 2801 FOT H240 200 83/16 1600 1207 10 80 412 40 224 1000 20 16 TUZ 80 4 60 3 12 THE 40 ra 2 -4 20 0 0 SEFF hp 86 & R 150 180 210 240 120 Flow (opm) Reactor Feed System Design Design Feed Rate: 35,700 lb/hr Fluid Density: 42.41 lben' at D-101 39.92 lbmit' at outlet of E-101 D-101 Pressure (in vapor space above liquid) R-101 Outlet Pressure 49.0 psig 56.0 psig System pressure drops at design feed rate: Suction line to P-101 Line loss between P-101 and E-101 Line loss between E-101 and R-101 . 0.2 psi 1.3 psi 3.0 psi 1.7 psi (includes measurement orifice) 2.0 psi Reactor For hydraulic analysis purposes, the reactor behaves as an adiabatic, isothermal packed bed Reactor feed flow control valve 35.4 gpips