STAR SHIELD 500. Ultra Low Invasion Additive and Wellbore Stabiliser

Similar documents
Cornish Institute of Engineers Conference th October 2013

AADE-06-DF-HO-15. A. Arbizu, P Reid and H Santos, Impact Solutions Group

AADE-04-DF-HO-21. A Unique Technical Solution to Barite Sag in Drilling Fluids Jarrod Massam, Andy Popplestone, and Andrew Burn, M-I SWACO

AGENDA. Criteria for Fluid Selection Controlling Cost Continuously Improving Performance

RHELIANT PLUS Superior performance, thermal stability and cost savings from the next generation flat rheology invert emulsion system for deepwater

The Effect of High Pressures and High Temperatures on the Properties of Water Based Drilling Fluids

J.V. Herwanger* (Ikon Science), A. Bottrill (Ikon Science) & P. Popov (Ikon Science)

Ensuring integrity of shale gas wells in Europe

Hydraulic Fracturing Unlocking Danish North Sea Chalks

Energy Chemicals Product Guide

Bridgesal-Ultra System

Coring and Core Analysis Reading Assignment

Activated creeping shale to remove the open annulus

ractical Geomechanics for Oil & Gas Industry

Sand Control Rock Failure

COPYRIGHT PETROSKILLS LLC

TOM HEINZ M-I SWACO SANTOSH PRABHU M-I SWACO DONNY VANVRANKEN M-I SWACO

Analysis of stress variations with depth in the Permian Basin Spraberry/Dean/Wolfcamp Shale

Development of Film Forming Agent HN-1 and Its Application in Drilling Fluid

AADE-10-DF-HO-18. Fluid Loss as a Function of Position around the Wellbore. f f. Arunesh Kumar, Halliburton

Abstracts ESG Solutions

Shale Development and Hydraulic Fracturing or Frac ing (Fracking) What is it?

Preventing Differential Sticking and Mud Losses in Highly Depleted Sands

EGYPT: SILDRIL Gives Top Performance in Nile Delta Well

WARP: An Advance Drilling Fluid

Enhanced Geothermal Systems The Technical Challenge

Explorative Study of NMR Drilling Fluids Measurement

The State of the Industry of Drillbit Geomechanics

SPE DISTINGUISHED LECTURER SERIES is funded principally through a grant of the SPE FOUNDATION

Well Construction and Cementing Practices in Shale and Salt Water Disposal Wells

Rheology Predictions for Drilling Fluids after Incorporating Lost Circulation Material Garima Misra, Dale E. Jamison, Donald L. Whitfill, Halliburton

Fractures and fluid flow in petroleum reservoirs

Can Geomechanics Improve Your Drilling and Completions?

6. THE BOREHOLE ENVIRONMENT. 6.1 Introduction. 6.2 Overburden Pressures

ractical Geomechanics for Unconventional Resources

Gas Shale Hydraulic Fracturing, Enhancement. Ahmad Ghassemi

A Field Case Example of Wellbore Strengthening Design and Verification Process

EVALUATION OF KEY FACTORS AFFECTING SUCCESSFUL OIL PRODUCTION IN THE BAKKEN FORMATION, NORTH DAKOTA. Technology Status Assessment.

MASTER S THESIS. Faculty of Science and Technology. Study program/ Specialization: Spring semester, 2013

Reservoir Rock Properties COPYRIGHT. Sources and Seals Porosity and Permeability. This section will cover the following learning objectives:

Lab-scale Investigation of a Multi Well Enhanced Geothermal Reservoir

Applying Stimulation Technology to Improve Production in Mature Assets. Society of Petroleum Engineers

SPE DISTINGUISHED LECTURER SERIES is funded principally through a grant of the SPE FOUNDATION

Application of Pressure Data Analysis in Tapping the Potential of Complex Fault Block Oilfield

Production-induced stress change in and above a reservoir pierced by two salt domes: A geomechanical model and its applications

Fluids, Hole Cleaning and Tripping Optimization

Pressure Regimes in Deep Water Areas: Cost and Exploration Significance Richard Swarbrick and Colleagues Ikon GeoPressure, Durham, England

New challenges in drilling fluid selection and formation damage reduction in Algerian fields

A new anti-slough drilling fluid study and application

Introduction to Formation Evaluation Abiodun Matthew Amao

MicroScope. Resistivity- and imagingwhile-drilling

Estimation of Pore Pressure from Well logs: A theoretical analysis and Case Study from an Offshore Basin, North Sea

THE FIRST SUCSESSFUL MULTI STAGED FRACTURING IN A DEEP VOLCANIC GAS RESERVOIR IN JAPAN

COPYRIGHT PETROSKILLS LLC

Reservoir Geomechanics and Faults

ADVANCED RESERVOIR CHARACTERIZATION AND EVALUATION OF CO, GRAVITY DRAINAGE IN T H E NATU RALLY FRACTU RED S P RABERRY RES ERVOl R

Nano Graphene Application Improving Drilling Fluids Performance

Halliburton Engineering for Success in Developing Shale Assets

Colorado s Underground Injection Control Program: Prevention and Mitigation of Induced Seismicity

CADE/CAODC DRILLING CONFERENCE October 20 & 22, 2003 Calgary, Alberta, Canada

Heterogeneity Type Porosity. Connected Conductive Spot. Fracture Connected. Conductive Spot. Isolated Conductive Spot. Matrix.

Simplified In-Situ Stress Properties in Fractured Reservoir Models. Tim Wynn AGR-TRACS

Plumbing the Depths of the Pelican Field

MUDLOGGING, CORING, AND CASED HOLE LOGGING BASICS COPYRIGHT. Coring Operations Basics. By the end of this lesson, you will be able to:

Considerations for Infill Well Development in Low Permeability Reservoirs

SpringerBriefs in Petroleum Geoscience & Engineering

X,800. X,850 ft. X,900 ft. X,950 ft. X,000 ft. GeoSphere. Reservoir Mapping-While-Drilling Service

COPYRIGHT. Optimization During the Reservoir Life Cycle. Case Study: San Andres Reservoirs Permian Basin, USA

ECS Elemental Capture Spectroscopy Sonde. Fast, accurate lithology evaluation

Yongcun Feng, The University of Texas at Austin; John F. Jones, Marathon Oil Company; K. E. Gray, The University of Texas at Austin

Introduction to Well Stimulation

CHAPTER III. METHODOLOGY

StackFRAC HD system outperforms cased hole in vertical wells

Polymer flooding improved sweep efficiency for utilizing IOR potential Force seminar April April 2016

CORING TO CONSERVE RESIDUAL WATER SATURATION AND ITS USE WHEN INTERPRETING ELECTRICAL LOGS

X-CELL Analytical. Petroleum Fluids Analysis. St. Francis Xavier University Analytical Services Lab. Equipment Specification Brochure

MULTIPLE CHOICE QUESTIONS OIL, GAS, AND PETROCHEMICALS. The Energy and Resources Institute

AADE-02-DFWM-HO-35. Pre-Planning and Product Selection

Module for: Resistivity Theory (adapted/modified from lectures in PETE 321 (Jensen/Ayers))

Enhancing Rheology in Invert Emulsion Fluids: Application of the Concept of Synergism in Chemicals

WELL TESTING COURSE. Authors: Enzo Beretta ENI E&P. Francesca Verga Politecnico di Torino

PART I Hot Dry Rock Geothermal Energy: History and Potential of the Newest and Largest Renewable Energy Resource

Petrophysical Data Acquisition Basics. Coring Operations Basics

Core Technology for Evaluating the Bakken

Rate Transient Analysis COPYRIGHT. Introduction. This section will cover the following learning objectives:

AADE-05-NTCE-28 [1, 2, 3]

The SPE Foundation through member donations and a contribution from Offshore Europe

DESIGN OF AN ULTRA-SPEED LAB-SCALE DRILLING RIG FOR SIMULATION OF HIGH SPEED DRILLING OPERATIONS IN HARD ROCKS. *V. Rasouli, B.

RPSEA Research Project Overview

Technology of Production from Shale

Drilling Fluids! 09 An Overview!

Introduction to Oil and Gas Production

Title: Application and use of near-wellbore mechanical rock property information to model stimulation and completion operations

Acid Types and Reactions with Different Rocks

Drillworks. DecisionSpace Geomechanics DATA SHEET

SCAL, Inc. Services & Capabilities

A Brief Guide to Geothermal Wells

UNTAPPING TIGHT GAS RESERVOIRS

FRACTURE REORIENTATION IN HORIZONTAL WELL WITH MULTISTAGE HYDRAULIC FRACTURING

Fault Rocks. EARS5136 slide 1

Transcription:

STAR SHIELD 500 Ultra Low Invasion Additive and Wellbore Stabiliser

Sealing Capacity and Key Benefits STAR SHIELD 500 An Expansion of Impact s FLC 2000 Technology 2

STAR SHIELD 500 Seals up to 500um fractures Fast effective barrier laid down across highly permeable formations or microfractures whether induced or in situ. Preventative approach rather than curative: it s already active in the fluid circulating system at the start of the hole section. Quick effective wellbore isolation minimize whole mud, or spurt, and pressure invasion Seals a broad range of pore throats (matrix) and microfractures Bridge at neck of pore throats or fractures Seal is robust, flexible and will withstand high pressure differential Whole mud additive which is: o Dispersed throughout the active system o Constantly laid down o Self-repairing filter cake o Not being depleted by drilling action 3

STAR SHIELD 500 Key Benefits The only additive that truly provides preventative formation deformation control and available in the industry today. Products are in the circulating system continuously treating the formation Functions in both OBM & WBM Functions in all lithology's including reservoir Seals up to 500um fractures at high differential pressure (over 3,000psi) Low additive loading o Easier to mud engineer o Less complex solids control o Minimal impact on basic mud properties o Product is robust not shear degraded 4

STAR SHIELD 500 Key Benefits Let s design a reservoir fluid that can be compliant in the field not just the lab! Use at 4-8ppb rather than the 30-50ppb required for stress caging No adjustments to the basic mud formulation required Thermally stable to 400 degf Product is robust not shear degraded Does not require specialist solids control equipment (no LCM recovery system) Makes fluids more tolerant field engineering wise o Managing solids loading & psd for Carbonate / graphite mixes? Tolerant to contaminants Makes fluid compliant to wellbore geology heterogeneity. o Covers low permeability represented by API & HTHP filter-paper through to 500um micro-fractures 5

STAR SHIELD 500 Conventional bridging solutions Filtrate & pressure invasion creates two time dependencies Short term pressure dominated [sec/mins] Long term filtrate dominated [hours] Influenced by Δρ, geology & mud chemistry API products provide bridging allowing pressure and fluid invasion into the geological matrix 6

STAR SHIELD 500 - Conventional bridging solutions The same invasion control process is relevant to both wellbore stability and formation damage. 7

STAR SHIELD 500 Seal 500um fractures 8

STAR SHIELD 500 at 6ppb Before Hot Rolling; Test Pressure: 1,000 psi Initial Spurt after 1minute Total Fluid Loss: 1 minute volume + 15minute volume 9

STAR SHIELD 500 - Effect of screening on PSD. How much STAR SHIELD 500 is lost when screened over a #40 mesh screen? How will the losses affect consumption rates? Notes: theoretical calculations. In practice, amount of depletion in field conditions is likely to vary due to screen condition, flow rate & mud rheology etc X025 Referred to above is the R&D name of STAR SHIELD 500 10

STAR SHIELD 500 PPA 12ppg XC Polymer Mud 12ppg 80:20 OBM Disk PPA Testing Product Initial Spurt (ml) Total Fluid Loss (ml) Initial Spurt (ml) Total Fluid Loss (ml) 120 Base 36.8 129.5 2.6 9.0 120 6ppb STAR SHIELD 500 11.2 45.4 0.3 2.4 150 Base TFL (Pressure not held) 150 6ppb STAR SHIELD 500 14 56.1 5.0 16.3 190 Base TFL (Pressure not held) 190 6ppb STAR SHIELD 500 20 70.5 17.2 52.5 OBM Conditioned 250 F 16 hours Test temperature: 250 F(WBM), 300 F(OBM),Test Pressure:2000psi 11

STAR SHIELD 500 vs FLC 2000 - SBT 12ppg XC Polymer Mud 12ppg 80:20 OBM 4ppb STAR SHIELD 500 6ppb STAR SHIELD 500 Initial Invasion (cm) Final Invasion (cm) Initial Invasion (cm) Final Invasion (cm) 1.3 1.4 2.3 2.3 1.3 1.6 1.9 1.9 OBM Conditioned 250 F 16 hours Test Pressure: 100 psi, 20/40 Frac Sand 12

STAR SHIELD 500 HP SBT - 8.5ppg OBM 8.5ppg OBM 8.5ppg 80:20 OBM Conditioned 250 F 16 hours, modified PPA Test Pressure: 1,000psi (gas), 30 minute test duration Test media as shown on chart. 13

STAR SHIELD 500 HP SBT -12ppg OBM 12ppg OBM 12ppg 80:20 OBM Conditioned 250 F 16 hours, modified PPA Test Pressure: 1,000psi (gas), 30 minute test duration Test media as shown on chart. 14

STAR SHIELD 500 12ppg WBM Rheology 12ppg WBM Test Temperature( F) 600 300 200 100 6 3 10s/10m PV/YP Base Only 120 75 52 42 29 9 6 8/9 23/29 6ppb STAR SHIELD 500 (sieved 425µ screen) 120 73 53 42 30 8 6 7/8 20/33 Base Only 150 61 43 35 25 7 5 7/7 18/25 6ppb STAR SHIELD 500 (sieved 425µ screen) 150 54 40 33 23 6 4 5/6 14/26 15

STAR SHIELD 500 12ppg 80:20 OBM Rheology 12ppg OBM Test Temperatu re( F) 600 300 200 100 6 3 10s/10m PV/YP ES Base Only 120 83 59 49 37 19 17 18/21 24/35 848 6ppb STAR SHIELD 500 (sieved 425µ screen) 120 87 62 52 40 21 19 19/23 25/37 798 Base Only 150 75 55 43 33 17 15 17/18 20/35 868 6ppb STAR SHIELD 500 (sieved 425µ screen) 150 82 60 49 38 20 18 19/21 22/38 682 OBM Conditioned 250 F 16 hours. 16

STAR SHIELD 500 Formation Damage WBM 17

STAR SHIELD 500 Formation Damage OBM 12ppg 80:20 invert emulsion OBM (IFS), mineral oil for drawdown Dynamic flow across core faces 18

Case history 19

Permian Wolfberry Well Name: Pool A3 Location: Ector County, TX Midland Basin Interval drilled: Upper Spraberry HZ - 4 3 4 hole, 7,796ft -10,095ft MD No wellbore instability or wash-out 3 ½ in liner was run & cemented in upper Spraberry without any downhole losses 20

Summary 21

STAR SHIELD 500 500um fractures Product data indicates it performs very well across a broader fracture size o 6ppb works well across all slot sizes. o Product works well up to 500µm. LC50 at 15ppb is 255Kppm. Plonor classification for Eastern Hemisphere This product would work well with shakers up to 60 mesh but consumption will be aggressive after that. Lab test phase complete; we now require field-trial partners to validate initial testing o Product available on trial commercial terms o Requirement to share all pre job data to identify suitable candidate well(s) o Requirement to share all post job data to build case histories 22

Impact Fluid Solutions Ltd Ella Court, Truro Business Park, Threemilestone, Truro, Cornwall, England TR4 9NH United Kingdom +44 1872 261 613 www.impactfluids.net