Produced Water and Associated Issues
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بسمهللا الرحمن الرحيم Squeeze Cement Volume Estimation ﺣﺟم
بسم هللا الرحمن الرحيم Sudan University of Science and Technology College of Petroleum and Mining Engineering Department of Petroleum Engineering Project title: Squeeze Cement Volume Estimation (Case Study Hamra Field – Sudan) تقدير حجم اﻻسمنت المضغوط )دراسة حالة حقل هجليج النفطي -السودان( Submitted in Partial Fulfillment of the Requirements of the Degree of B.Sc. in Petroleum Engineering Prepared by: Ahmed Rashad Mustafa Awad Awadelkarim Elkheir Alamein Youssif Mohammed Seaed Abbass Mohamed Moataz Osman Alrayah Edries Supervised by: Eng. Mohamed Abd Alkhalig Joubara Bakheit November 2020 بسم هللا الرحمن الرحيم Sudan University of Science and Technology College of Petroleum and Mining Engineering Department of Petroleum Engineering Project title: Squeeze Cement Volume Estimation (Case Study Hamra Field – Sudan) تقدير حجم اﻻسمنت المضغوط )دراسة حالة حقل هجليج النفطي- السودان( This project is accepted by college petroleum engineering and technology department of petroleum engineering Prepared by: Ahmed Rashad Mustafa Awad Awadelkarim Elkheir Alamein Youssif Mohammed Seaed Abbass Mohamed Moataz Osman Alrayah Edries Project Supervisor: Eng. Mohamed Abd Alkhalig Joubara Signature…….……………………………………………………… Head of Department: Eng. Abdelwhab Mohammed Fadoul. Signature ……………………………………………….................... Dean of College: Dr. Elham Mohammed Mohammed Khair. Signature ……………………………………………....................... Date: / / 2020 اﻹستهﻻل I Dedication We would like to donate this unpretentious effort to Our Parents; Who have endless presence and for the never ending love and encouragement Our brothers and sisters; Who sustained us in our life and still Our teachers; Who lighted candle in our ways and provided us with light of knowledge Finally; our best friends; Our Classmates Researchers… II Acknowledgements Thanking to Allah before and after... First and foremost; the greatest thanking to our teachers for their continuous support.. -
Railroad Commission of Texas Oil Well Potential Test
RAILROAD COMMISSION OF TEXAS Form W-2 1701 N. Congress Status: Approved P.O. Box 12967 Date: 01/10/2018 Austin, Texas 78701-2967 Tracking No.: 179641 OIL WELL POTENTIAL TEST, COMPLETION OR RECOMPLETION REPORT, AND LOG OPERATOR INFORMATION Operator Name: PERISCOPE OPERATING LLC Operator No.: 653787 Operator Address: 115 E VIRGINIA ST SUITE 201 MCKINNEY, TX 75069-0000 WELL INFORMATION API No.: 42-371-38886 County: PECOS Well No.: 601 RRC District No.: 08 Lease Name: CUNNING WOLF UL Field Name: WOLFBONE (TREND AREA) RRC Lease No.: 43061 Field No.: 98359800 Location: Section: 6, Block: 23, Survey: UL, Abstract: Latitude: Longitude: This well is located 9 miles in a E direction from FORT STOCKTON, which is the nearest town in the county. FILING INFORMATION Purpose of filing: Reclass Producing to Injection Type of completion: Other/Recompletion Well Type: Active UIC Completion or Recompletion Date: 06/07/2017 Type of Permit Date Permit No. Permit to Drill, Plug Back, or Deepen 05/04/2012 732016 Rule 37 Exception Fluid Injection Permit O&G Waste Disposal Permit 15288 Other: COMPLETION INFORMATION Spud date: 05/17/2017 Date of first production after rig released: 06/07/2017 Date plug back, deepening, recompletion, or Date plug back, deepening, recompletion, or drilling operation commenced: 05/17/2017 drilling operation ended: 06/07/2017 Number of producing wells on this lease in Distance to nearest well in lease & this field (reservoir) including this well: 0 reservoir (ft.): 0.0 Total number of acres in lease: 640.00 Elevation (ft.): 2920 GL -
Summary of Produced Water Management Practices
Potential for Beneficial Use of Oil and Gas Produced Water David B. Burnett1 Abstract Technology advancements and the increasing need for fresh water resources have created the potential for desalination of oil field brine to be a cost-effective fresh water resource for the citizens of Texas. In our state and in other mature oil and gas production areas, the majority of wells produce brine water along with gas and oil. Many of these wells produce less than 10 barrels of oil a day (bbl/day) along with substantial amounts of water. Transporting water from these stripper wells is expensive, so much so that in many cases the produced water can be treated on site, including desalination, for less cost than hauling it away. One key that makes desalination affordable is that the contaminants removed from the brine can be injected back into the oil and gas producing formation without having to have an EPA Class I hazardous injection permit. The salts removed from the brine originally came from the formation into which it is being re-injected and environmental regulations permit a Class II well to contain the salt “concentrate”. This chapter discusses key issues driving this new technology. Primary are the costs (economic and environmental) of current produced water management and the potential for desalination in Texas. In addition the cost effectiveness of new water treatment technology and the changes in environmental and institutional conditions are encouraging innovative new technology to address potential future water shortages in Texas. Introduction Who in their right mind would ever try to purify and re-use oil field brine? The very nature of the material produced along with oil and gas would seem to make such practices uneconomical. -
I Subsurface Waste Disposal by Means of Wells a Selective Annotated Bibliography
I Subsurface Waste Disposal By Means of Wells A Selective Annotated Bibliography By DONALD R. RIMA, EDITH B. CHASE, and BEVERLY M. MYERS GEOLOGICAL SURVEY WATER-SUPPLY PAPER 2020 UNITED STATES GOVERNMENT PRINTING OFFICE, WASHINGTON: 1971 UNITED STATES DEPARTMENT OF THE INTERIOR ROGERS G. B. MORTON, Secretary GEOLOGICAL SURVEY W. A. Radlinski, Acting Director Library of Congress catalog-card No. 77-179486 For sale by the Superintendent of Documents, U.S. Government Printing Office Washington, D.C. 20402 - Price $1.50 (paper cover) Stock Number 2401-1229 FOREWORD Subsurface waste disposal or injection is looked upon by many waste managers as an economically attractive alternative to providing the sometimes costly surface treatment that would otherwise be required by modern pollution-control law. The impetus for subsurface injection is the apparent success of the petroleum industry over the past several decades in the use of injection wells to dispose of large quantities of oil-field brines. This experience coupled with the oversimplification and glowing generalities with which the injection capabilities of the subsurface have been described in the technical and commercial literature have led to a growing acceptance of deep wells as a means of "getting rid of" the ever-increasing quantities of wastes. As the volume and diversity of wastes entering the subsurface continues to grow, the risk of serious damage to the environment is certain to increase. Admittedly, injecting liquid wastes deep beneath the land surface is a potential means for alleviating some forms of surface pollution. But in view of the wide range in the character and concentrations of wastes from our industrialized society and the equally diverse geologic and hydrologic con ditions to be found in the subsurface, injection cannot be accepted as a universal panacea to resolve all variants of the waste-disposal problem. -
Pressure Control During Oil Well Drilling
Pressure Control During Oil Well Drilling Pål Skalle Download free books at Pål Skalle Pressure control 2 Download free eBooks at bookboon.com Pressure control 6th edition © 2015 Pål Skalle & bookboon.com ISBN 978-87-403-1140-2 3 Download free eBooks at bookboon.com Pressure control Contents Contents 1 Introduction 7 1.1 Scope of this book 7 1.2 The drilling process 7 1.3 Geological sediments 9 1.4 About Pressure Control in sedimentary rocks 10 1.5 Principle of barriers and safety aspects 13 2 Pressure in the sediments 14 2.1 Predictive models 14 2.2 Quantifying formation pressure 25 2.3 Fracture pressure 36 3 Well Control Equipment 39 3.1 BOP stack and associated equipment 41 3.2 Remote control of the BOP 46 3.3 Volumetric unstable well (kicking well) 47 www.sylvania.com We do not reinvent the wheel we reinvent light. Fascinating lighting offers an infinite spectrum of possibilities: Innovative technologies and new markets provide both opportunities and challenges. An environment in which your expertise is in high demand. Enjoy the supportive working atmosphere within our global group and benefit from international career paths. Implement sustainable ideas in close cooperation with other specialists and contribute to influencing our future. Come and join us in reinventing light every day. Light is OSRAM 4 Click on the ad to read more Download free eBooks at bookboon.com Pressure control Contents 3.4 Closing procedure during drilling operations 48 3.5 Well integrity during drilling operations 49 4 Standard killing methods 51 4.1 Surface and bottom pressure of a shut-in well 53 4.2 Hydraulic friction during killing 59 4.3 Killing by means of Driller’s Method 60 4.4 Engineer’s Method 65 4.5 Killing when unable to circulate from bottom 67 4.6 Pressure control during Underbalanced Drilling 69 4.7 Killing operations 79 360° 5 Modification of the standard killing method 81 5.1 Modification due to narrow pressure window 81 thinking 5.2 Killing with irregular drill string geometry360° 86 . -
Sandven, Sondre.Pdf
Faculty of Science and Technology MASTER’S THESIS Study program/ Specialization: Petroleum Engineering/ Spring semester, 2010 Drilling Open / Restricted access Writer: Sondre Sandven ………………………………………… (Writer’s signature) Faculty supervisor: Bernt S. Aadnøy External supervisor: Jofrid Marie Hegreberg Title of thesis: Evaluation of a method of placing cross-sectional barriers during permanent plugging of wells Credits (ECTS): 30 Key words: Pages: 61 Plug and abandonment, Squeeze cementing, + enclosure: 10 Slot recovery, Cement plugs Stavanger, 14th of June 2010 Date/year Abstract When oil and gas wells reach the end of their production life, they need to be permanently plugged and abandoned. The requirements for a permanent barrier state that it must cover the entire cross-section of the wellbore, including all annuli. This thesis evaluates a new method of establishing a cross-sectional barrier in areas with poor, non-sealing annular cement. The traditional method is to mill away the section with poor cement and set an open hole cement plug, but due to the ECD effect of milling fluids, this is not always desirable. In some formations on the Gullfaks field, the operational pressure window is too small for section milling. An alternative solution was therefore tried out on a well that needed plugging. This method, referred to as punch and squeeze, consisted of perforating the section of poorly cemented casing and squeezing cement into the annulus. In this thesis, the equipment and techniques used are presented and evaluated, along with general theory relevant to plugging and abandonment. On Gullfaks, two punch and squeeze techniques were used. In the first, cement was pumped through a packer plug and squeezed into the perforations. -
REFERENCE GUIDE to Treatment Technologies for Mining-Influenced Water
REFERENCE GUIDE to Treatment Technologies for Mining-Influenced Water March 2014 U.S. Environmental Protection Agency Office of Superfund Remediation and Technology Innovation EPA 542-R-14-001 Contents Contents .......................................................................................................................................... 2 Acronyms and Abbreviations ......................................................................................................... 5 Notice and Disclaimer..................................................................................................................... 7 Introduction ..................................................................................................................................... 8 Methodology ................................................................................................................................... 9 Passive Technologies Technology: Anoxic Limestone Drains ........................................................................................ 11 Technology: Successive Alkalinity Producing Systems (SAPS).................................................. 16 Technology: Aluminator© ............................................................................................................ 19 Technology: Constructed Wetlands .............................................................................................. 23 Technology: Biochemical Reactors ............................................................................................. -
Water and Sewage Management Issues in Rural Poland
water Article Water and Sewage Management Issues in Rural Poland Adam Piasecki Faculty of Earth Sciences, Nicolaus Copernicus University, 87-100 Torun, Poland; [email protected] Received: 19 December 2018; Accepted: 22 March 2019; Published: 26 March 2019 Abstract: Water and sewage management in Poland has systematically been transformed in terms of quality and quantity since the 1990s. Currently, the most important problem in this matter is posed by areas where buildings are spread out across rural areas. The present work aims to analyse the process of changes and the current state of water and sewage management in rural areas of Poland. The author intended to present the issues in their broader context, paying attention to local specificity as well as natural and economic conditions. The analysis led to the conclusion that there have been significant positive changes in water and sewage infrastructure in rural Poland. A several-fold increase in the length of sewage and water supply networks and number of sewage treatment plants was identified. There has been an increase in the use of water and treated sewage, while raw sewage has been minimised. Tap-water quality and wastewater treatment standards have improved. At the same time, areas requiring further improvement—primarily wastewater management—were indicated. It was identified that having only 42% of the rural population connected to a collective sewerage system is unsatisfactory. All the more so, in light of the fact that more than twice as many consumers are connected to the water supply network (85%). The major ecological threat that closed-system septic sewage tanks pose is highlighted. -
Assessment of Risks and Benefits for Pennsylvania Water Sources When Utilizing Acid Mine Drainage for Hydraulic Fracturing Frederick R
The University of San Francisco USF Scholarship: a digital repository @ Gleeson Library | Geschke Center Master's Projects and Capstones Theses, Dissertations, Capstones and Projects Spring 5-22-2015 Assessment of Risks and Benefits for Pennsylvania Water Sources When Utilizing Acid Mine Drainage for Hydraulic Fracturing frederick r. davis University of San Francisco, [email protected] Follow this and additional works at: https://repository.usfca.edu/capstone Part of the Environmental Health and Protection Commons, Environmental Indicators and Impact Assessment Commons, Natural Resources Management and Policy Commons, Oil, Gas, and Energy Commons, and the Water Resource Management Commons Recommended Citation davis, frederick r., "Assessment of Risks and Benefits for eP nnsylvania Water Sources When Utilizing Acid Mine Drainage for Hydraulic Fracturing" (2015). Master's Projects and Capstones. 135. https://repository.usfca.edu/capstone/135 This Project/Capstone is brought to you for free and open access by the Theses, Dissertations, Capstones and Projects at USF Scholarship: a digital repository @ Gleeson Library | Geschke Center. It has been accepted for inclusion in Master's Projects and Capstones by an authorized administrator of USF Scholarship: a digital repository @ Gleeson Library | Geschke Center. For more information, please contact [email protected]. Davis 0 This Master’s Project Assessment of Risks and Benefits for Pennsylvania Water Sources When Utilizing Acid Mine Drainage for Hydraulic Fracturing by Frederick R. Davis Is submitted in partial fulfillment of the requirements for the degree of: Master’s of Science in Environmental Management at the University of San Francisco Submitted by: Received By: Frederick R. Davis 5/21/2015 Kathleen Jennings 5/21/2015 Davis 1 Table of Contents Chapter 1: Introduction ............................................................................................................... -
Wastewater an Arab Perspective E/ESCWA/SDPD/2017/BOOKLET.1
Wastewater An Arab Perspective E/ESCWA/SDPD/2017/BOOKLET.1 Economic and Social Commission for Western Asia Wastewater An Arab Perspective @ 2017 United Nations All rights reserved worldwide Requests to reproduce excerpts or photocopy should be addressed to the United Nations Economic and Social Commission for Western Asia (ESCWA). All other queries on rights and licenses, including subsidiary rights, should be addressed to: ESCWA, United Nations House, Riad El Solh Square, P.O. Box: 11- 8575, Beirut, Lebanon. E-mail: [email protected]; website: www.unescwa.org United Nations publication issued by ESCWA. The designations employed and the presentation of the material in this booklet do not imply the expression of any opinion whatsoever on the part of the secretariat of the United Nations concerning the legal status of any country, territory, city or area or of its authorities, or concerning the delimitation of its frontiers or boundaries. Mention of commercial names and products does not imply the endorsement of the United Nations. The document is issued without formal editing. 17-00174 3 Preface This World Water Day booklet builds on the Arab Chapter included in the 2017 World Water Development Report, Wastewater: the untapped resource. The World Water Development Report is published annually by the World Water Assessment Programme of the United Nations Educational, Scientific and Cultural Organization (UNESCO/WWAP) with the substantive support of other United Nations organizations through UN-Water. The Arab Chapter (Chapter 10) of the 2017 World Water Development Report was contributed by the United Nations Economic and Social Commission for Western Asia (ESCWA). -
A White Paper Describing Produced Water from Production of Crude Oil
AAA WWWhhhiiittteee PPPaaapppeeerrr DDDeeessscccrrriiibbbiiinnnggg PPPrrroooddduuuccceeeddd WWWaaattteeerrr fffrrrooommm PPPrrroooddduuuccctttiiiooonnn ooofff CCCrrruuudddeee OOOiiilll,,, NNNaaatttuuurrraaalll GGGaaasss,,, aaannnddd CCCoooaaalll BBBeeeddd MMMeeettthhhaaannneee Prepared for: U.S. Department of Energy National Energy Technology Laboratory Under Contract W-31-109-Eng-38 Prepared by: Argonne National Laboratory John A. Veil Markus G. Puder Deborah Elcock Robert J. Redweik, Jr. January 2004 Produced Water White Paper i TABLE OF CONTENT Executive Summary............................................................................................................ v 1 Introduction............................................................................................................. 1 1.1 What Is Produced Water? ................................................................................... 1 1.2 Purpose................................................................................................................ 1 1.3 Layout of White Paper........................................................................................ 2 1.4 Acknowledgments .............................................................................................. 2 2 Produced Water Characteristics.............................................................................. 3 2.1 Major Components of Produced Water .............................................................. 3 2.1.1 Produced Water from Oil Production ............................................................ -
The Defining Series: Introductino to Well Completions
THE DEFINING SERIES Introduction to Well Completions Rick von Flatern Senior Editor Once a well has been drilled to total depth (TD), evaluated, cased and that the cement sheath between the casing and the borehole wall is without cemented, engineers complete it by inserting equipment, designed to opti- flaws (below left). If gaps exist, engineers remedy the problem by injecting mize production, into the hole. The driver behind every well completion cement through holes made in the casing at the appropriate depths. This is strategy, whether for a complex or basic well, is to recover, at a reasonable referred to as a cement squeeze job. cost, as large a percentage of the original oil in place (OOIP) as possible. Engineers then perforate through the casing and cement sheath into The decision to case and cement a well for production or plug and aban- sections of the formation where FE analysis indicates conditions are favor- don it as a dry hole relies heavily on formation evaluation (FE) using open- able for hydrocarbon flow. Perforations are holes made in the casing, usually hole logs. For the purposes of this article, completion refers to all operations using small, shaped charges fired from perforating guns. The guns may be following the placement of cement behind the production casing, which is lowered into the hole on wireline, tubing or coiled tubing. performed after FE. Often, these operations leave debris in the well and in the perforations Once FE log analysis indicates the existence and depth of formations themselves, which may hamper the flow of formation fluids into the bore- likely to produce commercial volumes of hydrocarbons, steel casing is run in hole.