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NAME: ARASHAD, CMS ID: 14154 ARTIFICIAL LIFT TECHNOLOGY

Artificial lift method

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Page 1: Artificial lift method

NAME: ARASHAD,CMS ID: 14154

ARTIFICIAL LIFT TECHNOLOGY

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The use of artificial means to increase the flow of liquids, such as Cruid oil or water from production well. Generally this is achieved by the use of mechanical device inside the well known as pump or velocity string.

Artificial lift is needed in wells when there is insufficient pressure the reservoir to lift the produced fluids to the surface.

ARTIFICIAL LIFT:

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Reciprocating Rod Lift Systems Progressing Cavity Pumping Systems Hydraulic Lift Systems Gas Lift Systems Plunger Lift Systems Electric Submersible Pumping Systems

MODES OF ARTIFICIAL LIFT

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Well Completion & profile Geographical & Environmental

conditions Reservoir characteristics Reservoir pressure & Well productivity Characteristics of fluids Surface Constraints Services available Economic considerations Operating ease

Selection Parameters

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Pumping Units Motors & Controls Continuous & Threaded Sucker Rods Rod Pumps &Accessories Pumping Unit Services

Reciprocating Rod Lift Systems

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RECIPROCATING ROD LIFT SYSTEM

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High System Efficiency Optimization Controls Available Economical to Repair and Service Positive Displacement/Strong Drawdown Upgraded Materials Reduce Corrosion

Concerns Flexibility -Adjust Production Through

Stroke Length and Speed High Salvage Value for Surface &

Downhole Equipment Sucker

Reciprocating Rod Lift System Advantages

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Maximum*Operating Depth100 -11,000’ TVD16,000’ TVDO peratingVolume5 -1500 BPD5000 BPD Operating Temperature100° -350° F550° F Wellbore0 -20° Landed 0 -90° Landed Deviation Pump Pump -<15°/100’Build Angle Corrosion Handling Good to Excellent w/ Upgraded Materials Gas Handling Fair to Good Solids Handling Fair to Good Fluid Gravity>8° API Servicing : Work over or Pulling Rig Prime Mover Type Gas or Electric

Offshore Application Limited System Efficiency 45%-60%

Rod Lift System Application Considerations

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Wellhead Surface Drives Continuous & Threaded Sucker Rods Subsurface PC Pumps & Accessories

Progressing Cavity Pumping Systems

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Low Capital Cost Low Surface Profile for Visual & Height

Sensitive Areas High System Efficiency Simple Installation, Quiet Operation Pumps Oils and Waters with Solids Low Power Consumption Portable Surface Equipment Low Maintenance Costs Use In Horizontal/Directional Wells

Progressing Cavity Pumping System Advantages

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Limited Depth Capability Temperature Sensitivity to Produced Fluids Low Volumetric Efficiencies in High-Gas Environments Potential for Tubing and Rod Coupling Wear Requires Constant Fluid Level above

pump

Progressing Cavity Pumping System Limitations

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OperatingDepth2,000 --4,500’ TVD6,000’ TVDO peratingVolume5 -2,200 BPD4,500 BPD OperatingTemperature75 -150° F250° F Well bore N/A 0 -90° Landed Deviation Pump -

<15°/100’Build Angle Corrosion Handling Fair Gas Handling Good Solids Handling Excellent

Fluid Gravity<35° API Servicing Work over or Pulling Rig Prime Mover Type Gas or Electric Offshore

Application Good (ES/PCP)System Efficiency40%-70%

Progressing Cavity System Application Considerations

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Gas Lift Valves Mandrels Latches Kick over Tools Surface Controls Coiled-Tubing Gas Lift Equipment Pack-Off Equipment

Gas Lift Systems

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BASIC COMPONENTS OF GAS LIFT SYSTEM

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High Degree of Flexibility and Design Rates Wire line Retrievable Handles Sandy Conditions Well Allows For Full Bore Tubing Drift Surface Wellhead Equipment Requires

Minimal Space Multi-Well Production From Single

Compressor Multiple or Slim hole Completion Produced

ADVANTAGES OF GAS LIFT SYSTEM

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Needs High-Pressure Gas Well or Compressor

One Well Leases May Be Uneconomical Fluid Viscosity Bottom hole Pressure High Back-Pressure

GAS LIFT SYSTEM LIMITATIONS

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OperatingDepth5,000 -10,000’ TVD15,000’ TVD OperatingVolume100 -10,000 BPD30,000 BPD OperatingTemperature100 -250° F400° F Wellbore 0-50° 70°Deviation Short to Medium Radius Corrosion Handling is Good to Excellent with Upgraded

Materials Gas Handling

Gravity Best in >15° API Servicing : Wireline or Work over Rig Prime Mover Type: Compressor Offshore Application: Excellent System Efficiency10% -30%

Gas Lift System Application Considerations

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Hydraulic Lift Systems

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ADVANTAGES OF HYDRAULIC LIFT SYSTEM:

No Moving Parts High Volume Capability “Free” Pump Deviated Wells Multi-Well Production from Single

Surface Package Low Pump Maintenance Production Casing High

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Producing Rate Relative to Bottom hole Pressure

Some Require Specific Bottom hole Assemblies

Lower Horsepower Efficiency High-Pressure Surface Line

Requirements

Hydraulic Jet Lift System Limitations

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ESP consists of a down hole pump ( a series of centrifugal pumps) an electrical motor which transforms the electrical power into kinetic energy to turn the pump, a separator or protector to prevent produced fluids from entering the electrical motor and an electric power cable that connects the motor to the surface control panel. ESP can handle a very wide range of flow rates from 200-90000 barrels.

ELECTRIC SUBMERSSIBLE PUMPS

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THANK YOU.

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