38323

An Optimum Limited Entry for Multiple Zone Stimulation by Hydraulic Fracturing

Article

Last updated: 04 Jan 2025

Subjects

-

Tags

Petroleum Engineering

Abstract

 
In hydraulic fracturing, various diversion methods have been used to treat multiple zones with greater or lesser degree of effectiveness. Limited entry fracturing “LEF" is one of them. LEF could be very effective and can result in considerable savings in well completion costs. The process is not difficult to apply. The technique of limited entry perforations is used to achieve large frictional pressure drop across certain perforations to ensure fluid injection through each perforation in each interval. This study presents a new development in LEF. New relations were developed to optimize the perforations number that could not only increase the bottomhole pressure, but also, could result in the optimum fracture geometry in each zone which leading to several increase in post-fracture productivity. The validation of these relations was checked by hydraulic fracturing simulator “Frac-CADE™" utilizing data of a well which was treated before with hydraulic fracturing using an expensive isolation method. This study is the first-of-its-kind up to the author knowledge that considers the perforations erosion by proppant corrosive action in the design of this technique in order to prevent the perforation friction pressure loss and keep successful diversionof the fracturing fluid between different zones to the end of the treatment.








Abstract
In hydraulic fracturing, various diversion methods have been used to treat multiple zones with greater or lesser degree of effectiveness. Limited entry fracturing “LEF" is one of them. LEF could be very effective and can result in considerable savings in well completion costs. The process is not difficult to apply. The technique of limited entry perforations is used to achieve large frictional pressure drop across certain perforations to ensure fluid injection through each perforation in each interval. This study presents a new development in LEF. New relations were developed to optimize the perforations number that could not only increase the bottomhole pressure, but also, could result in the optimum fracture geometry in each zone which leading to several increase in post-fracture productivity. The validation of these relations was checked by hydraulic fracturing simulator “Frac-CADE™" utilizing data of a well which was treated before with hydraulic fracturing using an expensive isolation method. This study is the first-of-its-kind up to the author knowledge that considers the perforations erosion by proppant corrosive action in the design of this technique in order to prevent the perforation friction pressure loss and keep successful diversionof the fracturing fluid between different zones to the end of the treatment.

DOI

10.21608/jpme.2016.38323

Keywords

Limited Entry, Stimulation, Hydraulic Fracture, Fracture geometry, Perforation Friction

Authors

First Name

Ahmed

Last Name

Elgibaly

MiddleName

A.

Affiliation

Faculty of Petroleum and Mining Engineering, Suez University, Egypt

Email

gib@g.com

City

-

Orcid

-

First Name

Mohamed

Last Name

Farhat

MiddleName

-

Affiliation

Faculty of Petroleum and Mining Engineering, Suez University, Egypt

Email

-

City

-

Orcid

-

First Name

Mohamed

Last Name

Othman

MiddleName

-

Affiliation

Qarun Company., Egypt.

Email

-

City

-

Orcid

-

Volume

18

Article Issue

1

Related Issue

5948

Issue Date

2016-12-01

Receive Date

2016-08-01

Publish Date

2016-12-01

Page Start

84

Page End

93

Print ISSN

1110-6506

Online ISSN

2682-3292

Link

https://jpme.journals.ekb.eg/article_38323.html

Detail API

https://jpme.journals.ekb.eg/service?article_code=38323

Order

10

Type

Original Article

Type Code

805

Publication Type

Journal

Publication Title

Journal of Petroleum and Mining Engineering

Publication Link

https://jpme.journals.ekb.eg/

MainTitle

An Optimum Limited Entry for Multiple Zone Stimulation by Hydraulic Fracturing

Details

Type

Article

Created At

22 Jan 2023