Full Specifications
Transcription
Full Specifications
Horizontal WellProjects and Artificial Lift Projects Fluid Flow Modified 2-in. Horizontal Well Experimental Facility for End of Tubing (EOT) Research Key Specifications This facility is the modification of TUHWALP’s 2-in. flow facility that operates with compressed air and tap water to study the effects of different EOT locations on multiphase flow behavior and determine the optimum EOT. Fluids Gas: Compressed Air Water: Tap Water Operating Conditions1 Maximum Pressure: Temperature: Gas Flow Rate: Water Flow Rate: 30 psig Ambient 0 – 0.1 MMSCFD (Superficial Gas Velocity 0 – 49.21 ft/s) 0 – 82 STBD (Superficial Liquid Velocity 0 – 0.246 ft/s) 1 Operating conditions are for the current project and are subject to change depending upon the project Test Section • Tubing Pipe Material: Diameter of Pipe: Total pipe length: Inclination Angles: Maximum Pressure: • Clear PVC Schedule 40 1-in. 23 ft – 56.4 ft (276D – 676.8D) 0˚ – 90˚ 220 Psi Casing Pipe Material: Diameter of Pipe: Total pipe length: Inclination Angles: Maximum Pressure: Acrylic 2-in. 96 ft (576D) 0˚ – 90˚ 220 Psi TU Horizontal Well and Artificial Lift Projects University of Tulsa 2450 East Marshall, Tulsa, Oklahoma 74110 http://tuhwalp.ens.utulsa.edu/ Phone: (918) 631-5110 E-Mail: [email protected] Horizontal WellProjects and Artificial Lift Projects Fluid Flow Developing Region: 23.8 ft (143 D) at the toe of the well Inclination Angles: -3 to 3 degree Maximum number of undulations: 2 Instrumentation and Flow Characteristics Measured Parameters Liquid Holdup Flow Pattern Pressure Gradient Pressure Temperature Mass Flow Rate Data Acquisition System Instrumentation • • • • • Quick Closing Valves Conductivity Probes Surveillance Cameras Hi-speed Camera Differential Pressure Transducer • • • • Pressure Transducer Temperature Transducer Coriolis Flowmeter LabView System Detailed Specifications on Liquid and Gas Supply Systems Air Compressor Model: Power: Flow Rate: Discharge Pressure: Suction Pressure: Gas Flow Meter Model: Max. Mass Flow Rate: Measurement Uncertainty: (Single stage) Sundyne BMC-343 EF 298 kW (400 HP) supplied by Kohler power generator 19 MMSCFD 500 psig 400 psig Promass 83 (83F08) 42.3 kg/h (calculated using gas density at standard conditions) ±0.35% of Flow Rate TU Horizontal Well and Artificial Lift Projects University of Tulsa 2450 East Marshall, Tulsa, Oklahoma 74110 http://tuhwalp.ens.utulsa.edu/ Phone: (918) 631-5110 E-Mail: [email protected] Horizontal WellProjects and Artificial Lift Projects Fluid Flow Water Pump Model: Suction Diameter: Discharge Diameter: Max. Discharge Pressure: Min. Discharge Pressure: Leroy Somer Centrifugal Pump 1-1/2 inches 2 inches 100 psi 10 psi Water Flow Meter Model: Max. Mass Flow Rate: Measurement Uncertainty: Promass 83 (83F25) 18000 kg/h ±0.15% of Flow Rate TU Horizontal Well and Artificial Lift Projects University of Tulsa 2450 East Marshall, Tulsa, Oklahoma 74110 http://tuhwalp.ens.utulsa.edu/ Phone: (918) 631-5110 E-Mail: [email protected] Horizontal WellProjects and Artificial Lift Projects Fluid Flow Figure 1. Schematic of Modified 2-in. Horizontal Well Experimental Facility. TU Horizontal Well and Artificial Lift Projects University of Tulsa 2450 East Marshall, Tulsa, Oklahoma 74110 http://tuhwalp.ens.utulsa.edu/ Phone: (918) 631-5110 E-Mail: [email protected] Horizontal WellProjects and Artificial Lift Projects Fluid Flow Figure 2. Vertical Section of Modified 2-in. Horizontal Well Experimental Facility. TU Horizontal Well and Artificial Lift Projects University of Tulsa 2450 East Marshall, Tulsa, Oklahoma 74110 http://tuhwalp.ens.utulsa.edu/ Phone: (918) 631-5110 E-Mail: [email protected] Horizontal WellProjects and Artificial Lift Projects Fluid Flow Figure 3. Lateral Section of Modified 2-in. Horizontal Well Experimental Facility. Figure 4. Lateral Section of Modified 2-in. Horizontal Well Experimental Facility. TU Horizontal Well and Artificial Lift Projects University of Tulsa 2450 East Marshall, Tulsa, Oklahoma 74110 http://tuhwalp.ens.utulsa.edu/ Phone: (918) 631-5110 E-Mail: [email protected]