Multi-Stage Completions
Angling the Perforation Tunnel Geometry of Constant Entry Hole Perforating Charges Results in Further Improvements in Hydraulic Fracturing Efficiency– David Cuthill, GeoDynamics
Redefining Pump Down Perforating– Sharif Aboelnaga, Schlumberger
Intelligent Pumping Down Perforating and Plug method for Upward Shale Gas Well– Dengbo Yang, China National Petroleum Corporation
Productivity Improvement Case Study
An Integrated Scientific Workflow Enables Successful Perforating Operations in Offshore Southeast Asia– Rajani Satti, Baker Hughes
Evaluating Consistent Hole Charges vs DP Charges in Unconventional PNP– Cam Le, Shell
P&A Operations and the Emerging US Domestic Market – Justin Coker, Owen Oil Tools
Discussion and Application of aftereffect perforating technology– Guanghua Mu, China National Petroleum Corporation
Perforating Dynamics
Proppant Erosion During Fracturing: From Wellhead to Perforations–George King, Apache
Autonomous Initiation Systems – Development Update and Field Trial Planning –Adam Dyess, Hunting Titan
Environmental Parameters for Cutters & Severing Tools – A Case for Industry Action–John Carminati, Shell
Perforation Modeling
High-Fidelity Finite Element Analysis of Deepwater Gun-Parting Failures– John Rodgers, Starboard Innovations
Perforation Damage, Cleanup, and Inflow Performance; Advances in Diagnostics and Characterization– Brenden Grove, Halliburton
Collapse Testing and Modeling of Perforating Guns Carriers– Thomas Turkalj, Tenaris
Finite Element Analysis of Perforation Patterns in Production Liners Exposed to Subsidence– Greg Bailey, Shell
Novel Perforating Concepts
A New Concept For Perforating That Integrates Propellant and Shaped Charges–Nadir Nery, Allied-Horizontal Wireline Services
Perforating for Hydraulic Fracturing: Next-Generation Technologies for Unconventional Well Completions–Jim Gilliat, Baker Hughes
Measuring In-Situ Perforation Performance Using Downhole Video Images– Glyn Roberts, EV
Perforation Testing
Matching Field Conditions in the Perforation Laboratory: How Close is Close Enough?–Phil Crabtree, Chevron ETC
A Flow Laboratory Study of an Enhanced Perforating System Designed for Well Stimulation– Tim Sampson, Baker Hughes
RDX vs HMX Performance in Modern Perforating– Shaun Geerts, Owen Oil Tools
Lifetime extension of HMX under demanding time-temperature conditions– David Skyler, Schlumberger
Operational Efficiency Improvements
Oriented Perforating System for Sand Prevention in Vertical Wells – Jason Cook, Halliburton
Setting a New Pace in Perforating– Dave Austin, Schlumberger
Perforation Testing
Shaped Charge Performance Evaluation Section IV – What is the best method for post shot flow evaluation? – Liam McNelis, DynaEnergetics
Pore-Scale Analysis of Crushed Zone Damage in Indiana Limestone– Andrew Seagraves, Schlumberger
Laboratory Observations of Dynamic Effective Stress Associated with Dynamic Underbalance on Lower Strength Formations– Dennis Haggerty, Halliburton
Consistent Entry Hole Perforators, Know The Difference– James Kinsey, Owen Oil Tools
Opening Session
Malaysia Production Enhancement Landscape and Key Challenges Wan A Aziz Wan Razali, Head of Production Technology, PETRONAS Malaysia Petroleum Management (MPM)
Productivity Improvement Case Studies
Selection of perforation technique for brown fields: A novel approach Vikash Kumar, Expro
Propellant-Assisted stimulation treatment to overcome near wellbore damage, successfully executed in INDIA, a Case Study Aditee Kulkarni, Baker Hughes a GE Company
Explosives Safety
Recovery of Perforating Guns where the Explosives are Thermally Overexposed Alphie Wright, Hunting Titan
Carbon Monoxide Hazards from Perforating During Plug and Abandonment Operations Brenden Grove, Halliburton
Is Shelf Life a Safety Consideration? A Case History Related to recent TCP Problem Incidents Kerry Daly, Expro
Novel Perforating Concepts
Perforating Vertical Smart Well Completions Using Tubing-Conveyed Perforating Gun Assemblies: Case History Josh Lavery, Halliburton
Autonomous Initiation Systems – Eliminating the Risks Associated with Downhole Conveyance Adam Dyess, Hunting Titan
Real-time telemetric activation of slickline deployed perforating guns John Creighton, Paradigm
Perforation Testing
Shaped Charge Performance Evaluation Section IV – What is better Axial or Radial Flow? Joern Loehken, DynaEnergetics
Successful use of API Section-IV Testing to Select between Zinc and Steel Case Shaped Charges in a Dual Zone Cased Hole Gravel Pack Tubing-Conveyed Perforating Operation for a Gas Well: Case Study Mandeep Singh, Halliburton
Operational Efficiency Improvements
Advances in Detection of External Casing Cables During Perforating Operations Iain Maxted, Guardian Global Technologies Ltd
Perforate or Stimulate? Izura Aripin, Petronas Carigali Sdn Bhd
Crossflow May HIT Your Back! Cheryl Perng, Murphy Oil Corp
Perforation Modeling
Improving Existing Perforation Efficiency via Thru-Tubing Dynamic Underbalance Application in Offshore Field Malaysia Lester Tugung Michael, Schlumberger
Validation and Application of a Next-Generation Dynamic Event Simulator for Perforated Completions Jim Gilliat, Baker Hughes a GE Company
- IPSF 17-02 Experience with calculation of the RF Exclusion Zones
- IPSF 17-03 A Review of System Safety in Wireline Perforating
- IPSF 17-04 Ideal Perforating System_2017-May
- IPSF 17-05 Unintentional Detonation of Switched Guns
- IPSF 17-06 API RP 67
- IPSF 17-07_DoNotDropLiveGunsDownhole-PreventPerforatingShockUPOs
- IPSF 17-08 A Brief Study on the Potential Hazards of a Misfired Perf Gun
Session 1: Explosives Safety.
RIPS-17-01 API RP67 Oilfield Explosive Safety: Development of Proposed Changes to the 4th Edition Martin Rylance (BP Russia)
RIPS-17-02 Carbon Monoxide Hazards from Perforating During Plug and Abandonment Operations Andrey Kunitsyn (Halliburton)
RIPS-17-03 Perforation Safety – Priority or Nuisance? Or…why isn’t the industry demanding more? Rustam Aliyev (DynaEnergetics)
Session 2: Perforating Dynamics.
RIPS-17-04 Dual-Gradient Drilling: The future of offshore drilling Maria Alexandra Rojas Mikheeva (Gubkin University)
RIPS-17-05 Configuring Dynamic Underbalance to Achieve Perforation Tunnel Cleanup in a Gas Well at High Static Overbalance Andrey Kunitsyn (Halliburton)
RIPS-17-06 Combining Extreme Overbalance and Dynamic-Underbalance Perforating Techniques in Ecuador. Kamil Mirzayev (Halliburton)
Session 3: Solution to challenges.
RIPS-17-07 Cost reduction for well abandonment by using slotted charges for cement squeeze Liam McNelis (DynaEnergetics)
RIPS-17-08 The role of perforating systems in the development of TRIZ of Western Siberia Vasily Morozov (ZabSib NIIGG)
RIPS-17-09 Opposite-Paired cumulative perforation with sparing effect to the cement stone Mikhail Krylov (Promperforator)
Session 4: Perforating Equipment Selection. Explosives Safety.
RIPS-17-10 Cold Forged cases of shaped charge for perforation system Amit Prаkash (Arya Super Auto Forge)
RIPS-17-11 TOP detonators for TCP jobs Amir Arismetov (Promperforator)
RIPS-17-12 An Adaptive Shock Absorber for Perforating Gun Shock Vladimir Polukhin (Schlumberger)
Session 5: Perforator testing.
RIPS-17-13 Perforating with the Deep Well Pump Kamil Hamzin (Permneftegeophizik)
RIPS-17-14 Development of ultra-high strength seamless pipes for perforating guns Maurizio Bellingardi (Tenaris)
RIPS-17-15 Influence of formation parameters on the perforating result in dependence of the shaped charge type
Edwin Reek (DynaEnergetics)
Session 6: Production Cases.
RIPS-17-16 Maximize Efficiency of Coiled Tubing Conveyed Perforation with Advanced Gun Deployment System and Real-Time Correlation in High-H2S/High Pressure Wells Timur Gafiyatullin (Schlumberger)
RIPS-17-17 Technological aspects of increasing of oil recovery efficiency in Russia Igor Shpurov (Russia State Commission on Mineral Reserves)
Andrey Yakuba (BVT)
Session 7: Quality control.
RIPS-17-19 Optimizing the Gun Building process by using special of Track & Trace software Frank Hirthammer (TTE Europe)
RIPS-17-20 Detocord comparing by the explosive material form and density. Mikhail Konovalov (Detotex)
RIPS-17-21 Methods of perforating system shaped charges testing: CC-05 vs. API RR 19b Andrey Yakuba (BVT)
- IPSF 17-02 Experience with calculation of the RF Exclusion Zones
- IPSF 17-03 A Review of System Safety in Wireline Perforating
- IPSF 17-04 Ideal Perforating System_2017-May
- IPSF 17-05 Unintentional Detonation of Switched Guns
- IPSF 17-06 API RP 67
- IPSF 17-07_DoNotDropLiveGunsDownhole-PreventPerforatingShockUPOs
- IPSF 17-08 A Brief Study on the Potential Hazards of a Misfired Perf Gun
SESSION I
- MENAPS-2016-01_Improving Entry Hole Consistency for Shaped Charges in Sequentially-Phased Perforating Carriers
- MENAPS-2016-02_Rapid Response Perforating Testing Provides Solutions for Challenging Multi String Perforation Applications
- MENAPS-2016-03_The Importance of Testing Perforators in Stressed Rock Conditions for Performance Consistency
SESSION II
- MENAPS-2016-04_An Experimental Technique to Quantify Jet Penetration Efficiency
- MENAPS-2016-05_Influence of Shaped Charge Design on Target Penetration – Evaluation of the Ballistic Indicator Function Model: Rock versus Concrete Performance
- MENAPS-2016-06_Multi-Scale Modeling for Predicting the Productivity of Perforated Completions
SESSION III
- MENAPS-2016-7_PERFORATING STRATEGY ENHACEMENT FOR FRACTURING DEEP EXPLORATION AND GAS WELLS WITH VERY TIGHT FORMATIONS IN OMAN
- MENAPS-2016-8_Improved Hydraulic Fracturing Perforation Efficiency Observed with Constant Entry Hole and Constant Penetration Perforating System
- MENAPS-2016-9_Novel Coiled Tubing Perforation Approach Avoids Overflushing in Multistage Hydraulic Fracturing Operations in a Horizontal Well
SESSION IV
- MENAPS-2016-10_Perforation Strategy – Managing Uncertainties Through Integrated Subsurface Characterization Platform
- MENAPS-2016-11_Beginning with the End in Mind: Shaped Charges Designed for Reservoir Conditions
- MENAPS-2016-12_Reactive Liner Charges True or False!!
SESSION V
- MENAPS-2016-13_Reducing Human Error When Select Fire Perforating
- MENAPS-2016-14_Unfavourable Trade-Off: High Temp Explosives vs Performance Sacrifice
- MENAPS-2016-15_The Fragmenting Gun – An Entirely New Gun System
- MENAPS-2016-16_Limited entry cluster perforating system improves fracturing efficiency in horizontal wells
SESSION VI
- MENAPS-2016-17_Orienting Perforations for Permanent Fiber Optics Deployment
- MENAPS-2016-18_Why are Conventional Perforating Systems Deployed on Unconventional Reservoirs ?
- MENAPS-2016-19_The value of Perforation Pressure Recording in TCP Operations
SESSION VII
- MENAPS-2016-20_Conveying Long Guns on Electric Wireline
- MENAPS-2016-21_Integrated approach to mitigate gun blown uphole when perforating high pressure gas wells
- MENAPS-2016-22_Optimizing Rig Time with Long, Large Diameter Gun Strings Run on Wireline Cable for the First Time in the UAE
SESSION VIII
- MENAPS-2016-23_Perforating issues and Lessons Learned
- MENAPS-2016-24_Wellbore Implosion: Case Study of Perforation Enhancement
- MENAPS-2016-25_Advances in Computational Modeling for Underbalanced Perforating: From Lab to Field
SESSION I
- SLAP-16-06_Converging-Perforating
- SLAP-16-20-Consistent-Hole-Charge-technology
- SLAP-16-25 Hall Surge Chambers logo tapado
SESSION II
SESSION III
- SLAP-16-08 Optimizing Fracturing Design
- SLAP-16-23_Advances-in-the-modeling-of-perforation-entrance-hole-diameter-and-rock-penetration-improves
- SLAP-16-19 Engineered Perforating Design
SESSION IV
- SLAP-16-21-Mitigating the Problems in Select-Fire Perforating
- SLAP-16-03 Improving efficiency and safety in multistage perforating
- SLAP-16-29 Punzados de Extremo Sobre Balance
SESSION VI
- SLAP-16-33 Perforation-Design-for-Increased-FRAC-Efficiencies-in-Shale-Formations
- SLAP-16-34_Aplication of Geomechanical Concepts in Oriented Perforating Design
- SLAP-16-31 JITP Aplication with Biodegradable Mechanical Diverting Agent
SESSION V – POSTERS
- SLAP-16-10_Implementing a Scientific
- SLAP-16-26 Dynamic Underbalance Applied With Gun Hanger
- SLAP-16-30 Evaluación de Operación de Terminación
- SLAP-16-40 POSTER Development of Ultra high Strain Seamless Pipes for Perforating Gun
SESSION VII
- SLAP-16-01-API-19B-Section-2 esp
- SLAP-16-22 High Strain Rate Mechanical and Fracto-Mechanical Steel Characterization For Perforating Gun Simulation Model
- SLAPS-16-24_A review of the methods and modeling for dynamic underbalance perforating
SESSION VIII
TO DOWNLOAD THE PRESENTATIONS PLEASE DOWNLOAD THE IPS 2016 AGENDA AND CLICK ON THE TITLE YOU ARE INTERESTED IN.
SESSION O
- Ballistic Timed Delay Fuse Streamlines CT Perforating with Improving Safety and Reliability- Steven Henderson (Schlumberger)
- Successful Deployments of an Electro Hydraulic Firing Head in Norway – Jim Gilliat (Baker Hughes)
- Unfavorable Trade-Off: High Temp Explosives vs Performance Sacrifice-Liam McNelis (DynaEnergetics
SESSION I
- API RP67 Oilfield Explosive Safety – Proposed Changes for the 4th Edition. David Ayre (BP)
- Thermal Decomposition Progress with HMX Explosives-Christopher Sokolove (Hunting Titan)
- Agitating Explosives in Extended Reach Wells – A Good Idea? Kerry Daly (Expro)
SESSION II
- IPS-16-43 Penetration Performance of a Shaped Charge Perforator in Sandstone and Limestone Targets at Extreme Pore Pressures and Constant Effective Stress. Dennis Haggerty (Halliburton)
- IPS-16-44 API RP 19B Section 2 Perforation Tests Conducted at Multiple Facilities to Guide Latest Section 2 Revision. David Ayre (BP)
- IPS-16-45 Developing Shaped Charges to Perform in Reservoir Rock. Jim Gilliat (Baker Hughes)
- IPS-16-46 Consideration and Testing in Support of a Potential Standardized Perforator Hole Size Test. Shaun Geerts (Owen Oil Tools)
SESSION III
- IPS-16-21 A Step Change in Multistage Perforating. Pedro Hernandez (Schlumberger)
- IPS-16-22 Mitigating the Problems in Select-Fire Perforating Operations. Josh Howk (Hunting Titan)
- IPS-16-23 Lowering Total Cost of Operations Through Higher Perforating Efficiency while simultaneously enhancing safety. JW Segura (Weatherford)
SESSION IV
- IPS-16-32 Numerical and experimental study on the high strain rate deformation of tubes for perforating gun applications Maurizio Bellingardi (Tenaris)
- IPS-16-39 Plastic Collapse Behaviors of Perforating Guns with Scallops.Haifeng Zhao (Schlumberger)
SESSION V – POSTERS
- IPS-16-06 Exposure of Time and Temperature Effects on HMX Explosive Powders Shaun Geerts (Owen Oil Tools)
- IPS-16-07 Institute of Makers of Explosives Safety Analysis for Risk (IMESAFR): A Quantitative Risk Analysis Tool for Analyzing Perforating Gun Safety. Ronald Thomas (Institute of Makers of Explosives)
- IPS-16-12 Purpose-Designed Perforating Charge Delivers Superior and Consistent Performance in Hydraulic Stimulation Operations in the Williston Basin. John Pinkett (Halliburton)
- IPS-16-13 Improved Frac Efficiency Using Focused Perforating. Hema Prapoo (Allied Horizontal Wireline)
- IPS-16-18 The Development and Deployment of and Ultra High Pressure TCP System in the Gulf of Mexico. Charlie McClean (Baker Hughes)
- IPS-16-19 A Method Of Mapping And Perforating Wells With Fiber Optics Outside Casing On Wireline. Guy Hadsall (Hunting Titan)
- IPS-16-20 6 -3/4-in. Industry Leading Gun System for HP Sand Control Applications. David Suire (Halliburton)
- IPS-16-24 Field Trial Results from a Pumpdown Tension Tool. Cort Peavy (Impact Selector International)
- IPS-16-25 Innovative Pump Down Solutions Reduce Nonproductive Time by Eliminating Coil Tubing Perforation and Helping Reduce Pump Down Fluid Requirements. Jim Hill (Halliburton)
- IPS-16-26 Field Application Study of Zinc Based, Low Debris Perforating Charges. Steven Zuklic (Baker Hughes)
- IPS-16-32 Numerical and experimental study on the high strain rate deformation of tubes for perforating gun applications. Maurizio Bellingardi (Tenaris Dalmine S.p.A.)
- IPS-16-33 An Adaptive Shock Absorber for Perforating Gun Shock. Haifeng Zhao and Alex Lee (Schlumberger)
- IPS-16-34 Computations of the Stress on a Fluid-filled Gun for Survival. Stuart Wood (Halliburton)
- IPS-16-39 Plastic Collapse Behaviors of Perforating Guns with Scallops. Haifeng Zhao (Schlumberger)
- IPS-16-40 TCP Debris Sub Ultimate Strength for Recovery Operation. Haifeng Zhao (Schlumberger)
- IPS-16-41 A New FEA Model to Understand Perforating Structural Failure. Gerald Craddock (Halliburton)
- IPS-16-42 Underbalance Optimization using a Laboratory-Based Fast Computational Model. Derek Bale (Baker Hughes)
- IPS-16-47 Operator Uses Advanced Perforation Flow Laboratory to Support HMX Perforating by Coiled Tubing in HP/HT Field. Dennis Haggerty and Jacob McGregor (Halliburton)
- IPS-16-48 The Effects of Hydrostatic Pressure on Limited Penetration Perforating Systems. James Kinsey (Owen Oil Tools)
- IPS-16-49 New Insights into Optimizing Perforation Clean Up and Enhancing Productivity with Zinc-Case Shaped Charges. Rajani Satti (Baker Hughes)
- IPS-16-50 Testing to Optimize Perforating Strategy in Shallow, High Viscosity Oil Wells – Through Enhanced API RP 19B Section IV Data and Results. Kevin Harive (Halliburton)
SESSION VI
- IPS-16-05 Improved Process Yields Extreme Temperature Detonators. Jonathon Bragg (Pacific Scientific)
- IPS-16-14 Innovative Solution Delivers First Ever Acoustically Initiated TCP Firing Head. Kevin Harive (Halliburton)
- IPS-16-16 Acoustic Firing for Selective Reservoir Connection. Jose Escudero (Schlumberger)
SESSION VII
- IPS-16-28 Economical & repeatable method of obtaining dynamic under balance. David Cuthill (GEODynamics)
- IPS-16-29 Simulating Perforating Shock on an Intelligent Completions Interval Control Valve. James Wight (Halliburton)
- IPS-16-31 Physics of under balance in TCP operation. Hanaey Ibrahim (PDO)
- IPS-16-30 Automatic Release Anchored Gun String Dynamics under Perforating Shock. Haifeng Zhao and Mohamed Mehdi (Schlumberger)
SESSION VIII
- IPS-16-36 Next-Generation Dynamic Event Model for Perforated Completions. Derek Bale (Baker Hughes)
- IPS-16-37 A new method for predicting perforation entrance hole diameter. David Cuthill (GEODynamics)
SESSION IX
- IPS-16-08 Statistics Based System Design for Perforated Clusters. John Hardesty (GEODynamics)
- IPS-16-09 A Novel Frac-Optimized Perforating System for Unconventional Wells: Development and Field-Trial. Rajani Satti (Baker Hughes)
- IPS-16-10 Advancing Consistent Hole Charge Technology to Improve Well Productivity. Christopher Sokolove (Hunting Titan)
- IPS-16-11 Perforating Charges Engineered to Optimize Hydraulic Stimulation Outperform Industry Standard and Reactive Liner Technology. John Pinkett (Halliburton)
- 2015 European Perforation Symposium Invitation Final Program with frontp…
- 2015 European Perforation Symposium Invitation Final Program
- IPS-15-3 Europe-Pushing HMX Thermal Limit_Rev 02
- IPS-15-4 Case Study_Live Well Deployment System in Brunei_Challenges and learnings
- IPS-15-5 Fast-physics Computational model
- IPS-15-8 Beyond Penetration
- IPS-15-9 Planning & Executing a Sucessful CT Deployment of Long TCP Assm
- IPS-15-10 Integrated Testing & Modelling Approach
- IPS-15-11 Safety Device to Prohibit VID IPS-15-13 Accurate Shock-capturing
- IPS-15-15 Modern Slickline Perforating Appliacations in the North Sea
- IPS-15-17 Unholster Well Potential Uisng Converging Shockwaves
- IPS-15-18_Expro_Kerry Daly_Agitating Explosives in Ext Reach Wells
- IPS-15-19 Prod Flow Modelling of Perf Tunnels
- IPS-15-21 Innovative Flow Through Perf System
- IPS-15-22 Benefits of Phased Limited Penetration Perforator
- IPS-15-23 Ultra High Pressure Gun System
- IPS-15-24 Perforating Weak Sands A Review of Techniques
- IPS-15-25 Introducing a game changing select fire system
- IPS-15-28 Laboratory Assessment of Perf Tunnel Stabiliy & Sanding (2)
- IPS-15-29 Propellant Stimulatio Tool for mature oil well
- IPS-15-30 Europe-Misfire Retrieval_Rev 01
- IPS-15-33 Thermal decompostion effects on Perf Performance & Safety
- IPS-15-38 – Innovative Solution Delivers First Ever Acoustically Initiated TCP Firing Head – Copy
- IPS-15-7 Penetration of high density tungsten
- IPS 14-03 New Shock Sensing Sub Permits Greater Understanding of the Dynamic Response of Perforating Gun Strings_J Wight
- IPS 14-04 Perforating Gunshock Loads Simulation and Optimization in 2014_M Brinsden
- IPS 14-05 Advances in Numerical Modeling of Downhole Dynamics for Perforated Well Completions_D Bale
- IPS 14-06 Simulation of the Dynamics of Perforating for a Selected Charge Analysis of Tunnel Cleanup Based on the Direction of Gravity_G Craddock
- IPS 14-09 HNS Time Temperature Curves Derived from Ampule Testing
- IPS 14-10 Perforation Flow Laboratory An Engineering Workflow to Design and Optimize Perforated Completions
- IPS 14-11 More Than Just Penetration- Perforation Design for Naturally Completed and Stimulated Wells_J Hardesty
- IPS 14-12 Using a Perforation Flow Lab to select Shaped Charges and the Proper Underbalance Technique for Deepwater Subsea Wells Offshore Africa_N Osarumwense
- IPS 14-13 -Stressed Rock Penetration Modelling and Section II Testing for Shaped Charges_L McNelis IPS 14-14 Effect of Initiation Train Configuration on Single Shaped Charge Testing_S Geerts
- IPS 14-15 API Section 1 Data Food for Thought_A Martin
- IPS 14-16 Laboratory perforation and flow testing with reservoir wellcore_B Grove
- IPS 14-17 Preliminary results – Ultrasonic Tomography of Stressed Rock Targets_T Scott
- IPS 14-18 Long Gun Deployment
- IPS 14-19 Perforating In The Direction of Maximum Stress
- IPS 14-20 Customized Dynamic Underbalance Perforations yield much higher productivities than Conventional
- IPS 14-21 Dynamic Underbalance Perforating Practice in Western Siberia Russia_I Savchenko 2
- IPS 14-22 Wireline Perforating Technology Maximizes Well Productivity and Minimizes Operational Risks_R Rahman
- IPS 14-23 Best Practices for Plug and Perf in Acid Fractured Stimulation wells_Z Zaouali
- IPS 14-25 Tripling Well Productivity by applying new perforating job design & Combined perforation technologies
- IPS 14-27 Lead Free (Green Energetic) Time Delay Fuse for TCP Applications
- IPS 14-28 Lead Free (Green Energetic) RF Safe Detonator
- IPS 14-29 Introducing a Game Changing Select Fire System for Wireline and Coiled Tubing
- IPS 14-30 Successful Integrated Investigation process for TCP Partial Misfire_Hanaey Ibrahim
- IPS 14-31 Retrieval of Misfired Perforating System_J. Davidson & J. Barker
- IPS 14-32 Deepwater GoM Propellant Assisted Perforating Incident Review_K. Folse
- IPS 14-33 Innovative Multilateral Technology Eliminates the Need for Perforating While Providing Stimulation with Accuracy
- IPS 14-34 Flow Through Perforating System_S Hilligiest
- IPS 14-35 Stand-alone Wireline Oriented Perforating System Delivers New Production in Multi-Casing Well_A Salsman
- IPS 14-36 Development and Implementation of Side Mounted Gun (SMG) Systems for Intelligent Completions to Perforate Natural Gas Cap
- IPS 14-37 Pump Down Perforating Efficiency Improvements with New Technology_K Harive
- IPS 14-38 Completion evolution The role of perforating in horizontal shale wells_K Daly
- IPS 14-39 Perforating for Hydraulic Diversion Efficiency in Perforation Cluster_G King
- IPS 14-40 P-M Aspects Affect Oil Charges Penetration IPS 14-41 Propellant Disappearing Gun – Concept Trials
- IPS 14-01 The Importance of Pre-Job Shock Modeling as a Risk Mitigation Tool in TCP Operations
- IPS 14-02 Fracture Initiation from Perforations_A Martin
- CPA-14-003 Impact on Shaped Charge Performance Due to Explosive Loading Distribution Chinese version only
- CPA-14-004 Multi Cluster Perforation Design Parameters Optimization Chinese version
- CPA-14-004 Multi Cluster Perforation Design Parameters Optimization English version
- CPA-14-008 Oriented Perforation Technology Application in Deviated Well Chinese version
- CPA-14-008 Oriented Perforation Technology Application in Deviated Well English version
- CPA-14-009 Triple-Jet Perforating Technology and Its Application Chinese version
- CPA-14-009 Triple-Jet Perforating Technology and Its Application English version
- Dinner Presentation by Dr Baum CIPS English and Chinese version
- CIPS-14-002 The Impact of Perforating on Hydraulic Fracture Initiation Chinese version
- CIPS-14-002 The Impact of Perforating on Hydraulic Fracture Initiation English version
- CIPS-14-003 New Perforating Shaped Charge Design Improves Fracture Efficiency and Performance both English and Chinese
- CIPS-14-004 Changes in API RP 19B and How This Can Improve Performance English version only
- CIPS-14-005 Shaped Charge Sensitivity Presentation English version only
- CIPS-14-006 Perforating Gunshock Loads – Chinese and English version
- CIPS-14-007 Optimizing Treating Pressure Through Implementation of Consistent Through Hole Charge Chinese version
- CIPS-14-007 Optimizing Treating Pressure Through Implementation of Consistent Through Hole Charge English version
- CIPS-14-008 Development of Selective Perforating Systems English version only
- CIPS-14-009 Perforating Modelling on Stressed Rock English version only
- CIPS-14-010 Perforation Safety Chinese Version
- CIPS-14-010 Perforation Safety English Version
- CPA-14-001 Dropping Electrical Bar Perforation (DEBP) Chinese version
- CPA-14-001 Dropping Electrical Bar Perforation (DEBP) English version
- SLAP_01_Tecnicas_de_Completamiento_sin_matar_el pozo_incrementan_la_productividad_en_formaciones_sensibles_al_dano_por_fluidos_de_completamiento (2)
- SLAP_02_Controlled_Implosions SLAP_05_SurePerf
- SLAP_06_Long_Gun_Strings_Deployment
- SLAP_07_Aplicaciones_del_Sistema_de_Canoneo_Tipo_ Ancla_BES_Campo_Sacha
- SLAP_07_Aplicaciones_del_Sistema_de_CaÒoneo_Tipo_ Ancla_BES_Campo_Sacha
- SLAP_09_La Hocha_Arenamiento
- SLAP_10_Sand_Jetting
- SLAP_11_Cargas_de_Ultima_Generacion_Incrementan_Productividad
- SLAP_12_Modelamiento en operaciones de canoneo en ambientes de alta Presion
- SLAP_12_Modelamiento en operaciones de caÒoneo en ambientes de alta Presion
- SLAP_12_Modelamiento en operaciones de caÒoneo en ambientes de alta PresiÛn
- SLAP_13 Perforating with Propellants – Brazil Case
- SLAP_14_StimPRO
- SLAP_15_Predicting_Perforation_Events
- SLAP_17_HPHT_Jobs SLAP_19_A historical overview of methods to evaluate gun performance_A. Fayard
- SLAP_20_Estudio_de_Factibilidad_Tecnico_ Economica_para_la_Aplicacion_del_Canoneo_con_Gas
- SLAP_20_Estudio_de_Factibilidad_TÈcnico_ EconÛmica_para_la_AplicaciÛn_del_CaÒoneo_con_Gas
- SLAP_21 Perforation_Laboratory_Six_Decades SLAP_22_Advanced Modeling of Perforating System Performance
- SLAP_23_Perforating_Options_Available_Today_in_Horizontal_Shale_Oil
- SLAP_24_Bajo_Balance_Dinamico_Venezuela
- SLAP_25_Abandonment_Slotted_Charge
- SLAP_26_Rock_Optimized_Shaped_Charges
- SLAP_27_Adecuacion de la Tecnica de Canoneo para Exitosos Gravel Packs en Caracara
- SLAP_27_AdecuaciÛn de la Tecnica de Canoneo para Exitosos Gravel Packs en Caracara
- SLAP_27_AdecuaciÛn de la TÈcnica de CaÒoneo para Exitosos Gravel Packs en Caracara
- SLAP_28_GasGun SLAP_29 Perforating For Shales
- SLAP_31_Operators_approach_additional_resresves_multiple_strings
- SLAP_32_Efficient_Sand_Control_West_Africa
- SLAP_33_ Adaptation on Section IV
- SLAP_36_Perforating_como_estrategia_de_estimulacion_en_pozos_inyectores
- SLAP_36_Perforating_como_estrategia_de_estimulaciÛn_en_pozos_inyectores
- SLAP_37_ Propelentes incremento de la productividad en pozos productores aceite
- SLAP_38_Canoneos_Extremos_GEC SLAP_38_CaÒoneos_Extremos_GEC
- SLAP_39_Efire_Deep_Water
- SLAP_40_Linea_de_Acero_Digital
- SLAP_41_Perforating_Gunshock_Loads_Prediction-Mitigation_PDF
- SLAP_42_Integracion_Modelos_Geomecanicos
- SLAP_44_Resumen historico de operaciones de canoneo para campos en el Piedemonte Colombiano
- SLAP_44_Resumen histÛrico de operaciones de caÒoneo para campos en el Piedemonte Colombiano
- SLAP_45_Completamiento_Permanente
- SLAP_46_Disparos_con_Tuberia_Flexible_Fibra_Optica
- SLAP_47_Wireline_Efficiency_Unconventional_Plays
- SLAP_48_Operaciones_de_Canoneo_CT_Fibra_Optica_Corcel
- 1-menaps-13-24-perforating-safety-priority-or-nuisance-f-preiss
- 2-menaps-13-23-near-surface-tcp-detonation-lessons-learned-j-segura
- 3-menaps-13-09-tractor-ballistics-and-api-rp-67-b-schwanitz
- 4-menaps-13-22-new-perforating-incident-database-f-preiss
- 5-menaps-13-01-api-rp-19b-update-m-brinsden
- 6-menaps-13-06-perforation-modelling-testing-the-curves-shafie
- 7-menaps-13-07-rock-optimized-charges-and-section-iv-testing-l-mcnelis
- 8-menaps-13-08-novel-perforating-charges-maximize-oil-production-m-al-kalbani
- 9-menaps-13-02-perforating-carbonates-a-martin
- 10-menaps-13-13-carbonate-perforating-and-acid-h-ibrahim
- 11-menaps-13-12-perforating-four-casings-for-squeeze-s-kutty
- 12-menaps-13-17-perf-options-horizontal-shale-oil-ands-gas-k
- 13-menaps-13-11-perf-deployment-in-horizontal-well-in-harsh-environment-a-jahdhami
- 14-menaps-13-04-dub-clean-up-north-kuwait-koc-s-anany
- 15-menaps-13-03-prediction-of-perforating-shock-loads-a-salsman-compatibility-mode
- 16-menaps-13-25-geodynamics-acidizing-j-hardisty
- 17-menaps-13-26-halco-aramco-engineered-perforating-b-derouen_1
- 18-menaps-13-18-geodynamics-more-than-just-penetration-j-hardisty
- 19-menaps-13-19-propellant-assisted-perforation-malampaya-n-rao
- 20-menaps-13-20-gasgun-propellant-improving-well-productivity-h-al-saadi
- 21-menaps-13-21-perfo-followed-by-propellant-in-tight-zone-a-salsman
- 22-menaps-13-10-post-perforating-dub-improves-production-kuwait-e-anthony
- 23-menaps-13-14-extreme-overbalanced-perforation-r-araimi
- 24-menaps-13-15-deployment-of-long-gun-string-via-coiled-tubing-p-hillis
- 25-menaps-13-16-efire-detonation-system-m-taiwani
- 26-menaps-13-05-game-changing-technology-full-connect-j-gilliat
- APPS-13-20-Multipulse-Hybrid-Perforating-in-Low-Perm-and-tight-reservoirs
- APPS-13-23-Penetration-Not-a-Factor-for-Hydraulic-Fracturing
- APPS-13-25-A-Comparative-Study-of-Carbonate-Matrix-Acidizing-after-Perforation-with-Reactive-and-Non-Reactive-Shaped-Charges
- APPS-13-27-Chrage-Testing-for-Well-Concept-Selection
- APPS-13-28-Shaped-Charge-Perforator-Engineering-for-Targeted-Applications
- APPS-13-29-Propellant-Technologies-Sucesses-in-West-Texas
- APPS-13-AGENDA APPS-13-KEYNOTE
- APPS-13-2-Predicting-Gun-Jump
- APPS-13-3-Live-Well-Deployment-System
- APPS-13-4-The-Application-of-API-Section-4-Testing-to-a-Wide-Spectrum-of-Downhole-Perforating-Scenarios
- APPS-13-5-Pump-Down-Visualization-Service-with-a-Downhole-Tension-Tool
- APPS-13-7-Ultra-High-Temperature-Explosive-System-An-Engineered-Solution-for-an-Operator-in-Malaysia
- APPS-13-8-Maximizing-TT-Gun-Performance-in-Dual-Tubing-Completion
- APPS-13-9-Rock-Optimised-Shaped-Charges-and-Section-IV-Testing
- APPS-13-10-Utilising-Acoustic-Communication-to-Create-Great-TCP-Technology
- APPS-13-12-The-Imporatnce-of-Charge-Testing-in-Delivering-Well-Performance
- APPS-13-15-Unique-Intelligent-Select-Fire-system APPS-13-16-Long-Gun-Deployment
- APPS-13-17-Rigless-TCP-Deployment-Techniques
- APPS-13-19-Effective-Perforating-Methodology-for-a-Multi-Sand-Zone-Producer
- 02-EWAPS-12-32
- 03-EWAPS-12-11-Perf-design-for-HPHT-completoipns
- 04-EWAPS-12-2-ppt2007
- 05-EWAPS-12-6-Charge-testing-for-concept-selection_ewaps
- 06-EWAPS-12-18-Predicting-perf-system-performance-EWAPS
- 07-EWAPS-12-12
- 08-EWAPS-12-13
- 09-Final-EWAPS-Presentations-and-Posters-review
- 10-EWAPS-12-30
- 11-EWAPS-12-9-Minimizing-NPT-in-Deepwater
- 12-EWAPS-12-21-Gun-shock-modeling-and-mitigation-EWAPS
- 14-EWAPS-12-27
- 15-EWAPS-12-17-Perf-cleanup-prediction-EWAPS
- 16-EWAPS-12-19
- 17-EWAPS-12-22
- 18-EWAPS-12-34
- 19-EWAPS-12-25
- 20-EWAPS-12-16
- 2012-EWAPS-Agenda
- EWAPS-12-1-Adaptation-on-Section-IV
- EWAPS-12-2-Application-of-Reactive-Charge-Technology-to-High-Strength-Formation-&-High-Overbalance
- EWAPS-12-4-Dynamic-Underbalance-to-meet-the-customers-Needs
- EWAPS-12-6-Charge-Testing-for-Well-Concept-Selection
- EWAPS-12-8-Introduction-to-API-19B-test-methods EWAPS-12-9-Dynamic-Shock-Modeling
- EWAPS-12-10-Operators-approach-for-reaching-additional-resresves-trapped-behind-multiple-strings-of-casing
- EWAPS-12-11-Perforating-Design-for-HPHT-Completion
- EWAPS-12-12-Increased-Operational-Efficiency-in-Low-Angle-Orientated-Perforating
- EWAPS-12-13-Efficient-Sand-Control-in-West-Africa
- EWAPS-12-15-Perforating-For-Shales
- EWAPS-12-16-Perforating-Requirements-for-Fracture-Stimulation
- EWAPS-12-17-Perf-cleanup-prediction EWAPS-12-18-Predicting-perf-system-performance
- EWAPS-12-19-Propellants-Rejuvenate-Injection-in-West-Texas
- EWAPS-12-20-Pushing-the-Limits-of-High-Temp-Explosives
- EWAPS-12-21-Gun-shock-modeling-and-mitigation
- EWAPS-12-22-Selective-Gun-Perforation—a-game-changer-in-perforating-technology
- EWAPS-12-23-Set-Firing-Angle-Orientated-Perforating
- EWAPS-12-25-Well-COmpletion-Design-for-a-Subsea-Infill-Oil-Producer
- EWAPS-12-27-Evaluation-&-design-of-shaped-charge-perforators-and-translation-to-field-applications
- EWAPS-12-28-Well-Abondonment-Proceedures-and-Perforation-with-a-Slotted-Charge-for-Cement-Squeeze-Applications
- EWAPS-12-30-Dynamic-Underbalance-Perofrations-Bring-Higher-Productivities-Than-Conventional-Perforations
- EWAPS-12-32-API-19-B-Update
- EWAPS-12-34-Digital-Trigger-Perforating-on-SLickline 01-EWAPS-12-28
- 3_IPS-12-Dynamics Underbalance in Mature Fields pdf
- 4_IPS-12-Extreme Hard Rock Perforating
- 5_IPS-12-Perforating High Stress Environments
- IPS-12-06-Perforation Shaped Carge Design for Shale Produces Improved Tunnel Geometrypdf
- IPS-12-09-Presentation of a completion method of shale demonstrated through an example of the Marcellus Shale
- IPS-12-10-Improving Well Performance Using Acoustic Radial Velocities
- IPS-12-11-Perforation Design for Novel P&A Method
- IPS-12-12-Single Zone Completion
- IPS-12-13-RF Hazards to Oilfield Electric Detonators. pdf
- IPS-12-14-HPHT Perforating Practices
- IPS-12-15-Perforation Cleanup by Dynamic Underbalance
- IPS-12-16-Evaluating Perforators Under Stress Conditions
- IPS-12-17-Slotted-Charge Perforating Gun System for Cement Squeeze Applications
- IPS-12-19_Modeling and Testing of Sand Jet Perforation as a Safer Alternative to Conventional Tubing Conveyed or E-line Explosives Techniques
- IPS-12-20_Water Injector Wells the Importantce of Perforating IPS12-21-A Cost Effective Functional Analogue Rock Target Material For Charge Testing and Developent
- IPS-12-23-Ballistics on tractor Conveyance
- IPS-12-24_Perforation Flow Laboratory
- IPS-12-25-Visualization of Fluid Flow into a Perforation Tunnel
- IPS-12-26-A Laboratory Correlation for Dynamic Underbalance Core Flow Efficiency
- IPS-12-27-Design and Qualification of an Ultra-High Pressure Perforating System
- IPS-12-28-Long Gun Deployment Systems
- IPS-12-30-A Consideration of Realistic Perforation Geometry and Well Performance Modelling. pdf
- IPS-12-31-An Evaluation of the Impact of Reactive Perforating Charges on Acid Wormholing in Carbonates
- IPS-12-32-Successful Dynamic Underbalance Perforating Trial in the West Salym Oil Field
- IPS-12-33-Charge Testing for Well Concept Selection
- IPS-12-34-Charge testing for Frac Operations optimization. pdf
- IPS-12-35- Perforating Requirements for Fracture Stimulation. pdf
- IPS-12-36-Perforating Success Using StimGun Assembly and StimTube Tool in West Texas. pdf
- IPS-12-37-Game Changer Dissapearing Gun. pdf IPS-2012-agenda_v6
- 1_IPS-12_Perforating and Remedial Services Global Domain Champion Slickline Services
- 1 API RP19B for MENAPS 2011 Brinsden
- 2 MENAPS 11 02 GEODynamics Design to Field
- 3 MENAPS-11 12 A New Direction for Predicting Gun Performance
- 4 MENAPS-11 04 Recommended Practice for Oilfield Explosive Safety
- 5 MENAPS-11 03 Gun Loading Facility (GLF)
- 6 MENAPS 11 26 Live Gun Stuck Case Study
- 7 MENAPS 11 19 Horizontal Multi Stage Perforating
- 8 MENAPS 11 05 Ballistic Conveyance Services Tractor
- 9 MENAPS-11 15_Combining and Customizing Technologies for Perforating HZ wells in Algeria_final1
- 10 MENAPS 11 22 Laboratory Simulation of Flow Through a Perforation
- 11 MENAPS 11 23 Section IV to Field observed DUB
- 12 MENAPS 11-07 Stimulation Technology StimGun
- 13 MENAPS 11 01 Evaluation of Impact of Reactive Perforating Charges on Acid Wormholing in Carbonates
- 14 MENAPS-11 21 Dynamic Underbalance Perforating Cam Le
- 15 MENAPS 11 13 Acid Diversion Technique and Perforation Job Improves Injection Profile in Carbonate Reservoir 15e MENAPS 11 24 extra Charge Design for Shale Frac
- 16 MENAPS-11 14 Gun Shock Prediction Andy Martin
- 17 MEANAPS 11 08 Gun Shock Jim Gilliat 18 MENAPS-11
- 18 Predicting Wellbore Dynamic-Shock Loads Prior to Perforating
- 19 MENAPS 11 06 Slotted Charge Perforation System
- 20 MENAPS 11 20 Perforation Design for Novel P and A Method
- 21 MENAPS-11 16 CORE AND PETROPHYSICAL ANALYSIS TO DESIGN A PROPER PERFORATION TECHNIQUE FOR PRODUCTION ENHANCEMENT
- 22 MENAPS 11 27 Retrieving Debris Design to Clean out hole MENAPS 11-11 Poster – Mechanical Pipe Cutter
- 01_Oilfield-Explosives-Safety-and-Security-Forum-Agenda
- 02_Explosive-Safety-Forum-Opening
- 05_Code-of-Practice
- 06_Changes-in-Safety-and-Security-Practices
- 08_PSAC-Hazard-Classification-Testing
- 11_New-and-Safe-Detonators
- 13_Slickline-Firing-Systems-Safety
- 14_HMX-stability
- 15_Risk-Based-Explosives-Safety-Modeling
- 16_FMECA-processs-Schlumberger 17_ALASKA-ACCIDENT