HEPROP™ Technology
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- HEPROPTM
- Technology
- Contents
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Leading Technology for Unconventional Oil and Gas Stimulation

- Leading Technology for Unconventional Oil and Gas Stimulation
- Modified fiber
- Structural stabilizer
- What is HEPROPTM?
- US patent
- HEP fiber, combined with the structural stabilizer, forms a lattice porous network much like a “spiderweb.”
- Proppant
- Slick water
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Leading Technology for Unconventional Oil and Gas Stimulation

- Leading Technology for Unconventional Oil and Gas Stimulation
- HEP can increase the proppant spacing 6-10 times than traditional technology.
- Core Mechanism
- What is HEPROPTM?
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Leading Technology for Unconventional Oil and Gas Stimulation
- Leading Technology for Unconventional Oil and Gas Stimulation
- Significantly reduces flow pressure difference and enhances artificial fracture permeability. At 2,175.6 psi closure pressure and the same displacement rate, HEP cuts flow pressure by over 90% and boosts permeability by 6–10 times compared to pure sand.
- Outlet
- Placement Status Inside the Fracture
- Comparison of Flowing Pressure Difference and Permeability
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Leading Technology for Unconventional Oil and Gas Stimulation

- Leading Technology for Unconventional Oil and Gas Stimulation
- Carrying Distance: 0.5% modified fiber + 0.3% structure stabilizer increases effective fracture length by 30%.
- Stacking Height: 0.5% modified fiber + 0.3% stabilizer increases placement height by 100%;
- Increase the proppant carry distance by 30%
- Device : fracture width 0.2in * length 9.84ft * height 1.3ftm
- Experimental conditions: 70-140 mesh quartz sand, 10% sand ratio, 5mPa.s slickwater
- Pure sand
- HEP: 0.5% modified fiber + 0.3% stabilizer
- Increases placement height 100%
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Leading Technology for Unconventional Oil and Gas Stimulation

- Leading Technology for Unconventional Oil and Gas Stimulation
- Structured support has better geometric stability, maintaining the stability and integrity of the sand pack, and improving long-term production stability. Increase the critical sand production flow rate.
- Plate Dynamic Simulation — Comparison of Different Processes, Backward Displacement, and Proppant Placement Patterns
- Comparison of Critical Sand Production Flow Rates with Different Fiber Additions in 70-140 Quartz Sand
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Leading Technology for Unconventional Oil and Gas Stimulation

- Leading Technology for Unconventional Oil and Gas Stimulation
- With HEP viscosity of 9-12 mPa·s can achieve full suspension transport of proppant, and the placement height is 4 times than the liquid with viscosity of 24 mPa·s traditional fractrue.
- Reduce friction reducer usage volume and formation damage;
- HEP: 11.7 mPa·s + 70-140 Mesh Quartz Sand 15% + 0.5% Modified fiber+ 0.3% Stabilizer
- Loosening proppant in 60 minutes after pump shutdown
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Leading Technology for Unconventional Oil and Gas Stimulation

- Leading Technology for Unconventional Oil and Gas Stimulation
- Equipment & Operation Procedure
- Integrated Injection Skip
- The modified fiber and structural stabilizer are mixed and well-dispersed through an integrated injection skid.
- The mixture is then transferred to the blender truck’s mixing tank combined with the proppant and injecte to the wellbore.
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Leading Technology for Unconventional Oil and Gas Stimulation
- Leading Technology for Unconventional Oil and Gas Stimulation
- Equipment & Operation Procedure
- Integrated Injection Skip
- Without altering the original fracturing injection process.
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Leading Technology for Unconventional Oil and Gas Stimulation

- Leading Technology for Unconventional Oil and Gas Stimulation
- High-efficiency propping technical materials
- Modified fracturing emulsion fluid
- Fracturing design for single well
- Fracturing skid-mounted equipment
- On-site construction technical guidance
- Other required chemicals
- What we can offer
- HEPROPTM
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LEPS

- LEPS
- FOR STIMULATION OF OIL AND GAS
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