| The Engineering
Approach to Horizontal Drilling
Douglas Gust 4 days
Who Should Attend
Drilling Engineers, Superintendents, Foremen or Managers involved in
planning and/or drilling horizontal wells.
Contents
Economic Evaluation Drilling Applications: development, exploration;
remedial. Com-pletion techniques. Drilling Considerations Well Profiles.
Well-Planning Bottom Hole Assemblies. Drilling Fluids. Hole cleaning.
Hydraulics. Directional Survey Tech-niques. Logging. Drilling: building
the curve; getting back to bottom; short trips. Drilling projections
(software models). Completion Methods. Case Histories. Regional experts
from Sperry-Sun Drilling Services will be available in some locations
to address specific local conditions and problems pertinent to the region.
|
Reserves Estimation
Chapman Cronquist 5 days
Who Should Attend
Reservoir engineers and geologists familiar with basic principles of
reservoir behavior and reservoir characterization.
Contents
Includes lectures and practical problem-solving (students should bring
calculators). Covers estimating reserves from reservoirs with wide ranges
of fluid compositions and drive mechanisms, of all stages of reservoir
maturity. Emphasizes reserves attributable to primary recovery.
Reasons for and uncertainties in reserves estimation; reserves classification.
Anal-ogy/statistical methods: the log normal distribution. Volumetric
Methods: sources and analyses of data, initial conditions, volumetric
mapping, estimating primary recovery for various fluids and drive mechanisms;
reservoir heterogeneity; reserves allocation. Material Balance Methods:
expanded material balance equation, Havlena-Odeh methodology, prediction
methods, volumetric gas reservoirs, reconciliating material balance
and volumetric methods. Performance/Decline Trend Analysis: performance
indicators, production decline equations, the hyperbolic equation and
its special cases, type curve analysis. Special Problems: remote/frontier
areas, heavy and extra heavy crudes, fractured/vugular reservoirs, tight
gas reservoirs.
|
| Applied Drilling
Technology: A Workshop Approach
Donald J. Zimmer 10 days
Who Should Attend
Engineers at all levels, and operating personnel, (drillers, drilling
foremen, drilling superintendents, and drilling managers). Non-drilling
personnel with a "need to know" requirement.
Contents
Rig Math Review; Drill String Design; Pre-Spud Consider-ations; Spudding
the Well; Drilling the Top Hole; Hydraulics; Solids Control; Lost Circulation;
Stuck Pipe; Corrosion, Washouts and Twist-Offs; Care and Handling of
Tubulars; Drill Bits; Tripping; Casing and Cementing Operations; Nippling
Up and Testing BOPE; Evaluating the Cement Job; Drilling Out; Leak-Off/
Formation Capability Tests; Mud Practices; Shales; Abnormal Pressures;
Well Control and Simulation; Diamond and PCD Bit Practices; Drilling
the Gas Cap/Hydrocarbon Zone; Cement Plugs; Liners and Liner Cementing;
Hydrogen Sulfide.
|
The Practice
of Reservoir Engineering
5 days
Who Should Attend
Practicing reservoir engineers, but as the course is more descriptive
than mathematical, it can also be fully appreciated by geologists, geophysicists,
petrophysicists, production engineers and technical managers.
Contents
Appraisal: Fluid sampling, PVT analysis and correlations; fluid
pressure regimes, overpressured reservoirs, estimation of hydrocarbons
in place. The concept of field unitization. Reservoir engineering aspects
of equity determination; the significance of material balance, depletion
of oil and gas fields, Darcy's Law. Well Testing: purpose, basic theory
and assumptions, critical review of testing methods; traditional versus
modern methods; oil versus gas well testing; rationalization of analysis
techniques; pressure buildup versus multi-rate testing; interference
and pulse testing, use of the RFT. Development. Secondary Recovery:
significance of water drive, design concepts, basic mechanics, review
of analytical methods for describing waterdrive; developing production
profiles; planning and constructing of a 3-D numerical simulator; essentials
of history matching; efficiency of gas drive versus water drive; monitoring
water drive performance, the development of gas and gas condensate fields.
Field examples and methods are used.
|
| Cementing Practices:
Planning, Execution and Evaluation Control
Donald J. Zimmer 3 days
Who Should Attend
Drilling engineers with 3-5 years of experience who are involved with
the planning, execution and evaluation of cementing jobs.
Contents
Introduction: Basic rig math. Overview of casing design considerations,
tubular connections and thread compounds. Cement and cement slurry design:
water requirements; temperature and pressure; sulfate attacks; strength
retrogression; pre-job testing; cement additives; special purpose cements;
mixers and density measurement. Before Reaching Casing Point: Casing
inspection and transportation; cementing equipment and materials; tools
and running equipment; wellhead considerations; hole and mud conditioning
practices. After Reaching Casing Point: Running casing and associated
equipment; circulating before cementing; pre-flushes, scavenger slurries,
spacers; mixing and displacing rates; casing wiper plugs; gas intrusion
in annulus after cementing; pressure testing and landing the casing;
nippling up and testing BOPE; evaluating the cement job; drilling out;
leak-off tests; formation capability tests; open hole plugs; running
and cementing liners; squeeze cementing.
|
Reservoir Engineering
of Underground Gas Storage Fields: A Workshop Program
James W. Fairchild & Kenneth L. Ancell or John A. Wells 5 days
Who Should Attend
Technical and management specialists who seek an understanding of the
design, development and operation of underground gas storage reservoirs.
Contents
Strategic use of underground gas storage reservoirs; geological environments
that may be used for the storage of gas; variables controlling storage
reservoir design; technical aspects of storage field design; estimating
the capital and operating costs of facilities, optimizing the final
design and estimating the cost of service; regulatory considerations;
project development and start-up; field operations and monitoring; inventory
verification; analysis and discussion of several recently developed
underground gas storage facilities. This is a workshop program in which
the participants, with two instructors, solve reservoir design problems
using PCs and appropriate software. Problem sessions will include individual
well performance, volumetric and water-drive gas reservoir performance,
aquifer storage performance and integrated performance of the reservoir,
wellbore and surface facility system.
|
| Well Completions
and Workovers Design
R. M. Pearson 5 days
Who Should Attend
Production, completion and drilling engineers and super-visors with
at least five years experience; also suitable for cross training of
reservoir engineers.
Contents
Application of Alternative Completion Concepts: to vertical and
horizontal wells; factors affecting completion productivity. Equipment
Selection and Application: packer options and selection considerations;
elastomers and materials corrosion; tubing design and stress analysis.
Perforation Planning: gun selection; benefits of underbalance perforation;
effects of perforation policy and methods on well performance and skin
factors in sandstones. Stimulation Techniques: options and selection
criteria; effects on productivity and skin fracture stimulation, acidizing
and diversion. Avoiding Production Problems: formation damage; sand
production; downhole hydrates; scale; and wax. Workover Techniques:
cement evaluation and remedial cementing; workover planning and methods;
revised completion concepts.
|
Reservoir Engineering
of Fractured Reservoirs
Dr. Theodore van Golf-Racht 3 days
Who Should Attend
Reservoir engineers who want an introductory course to fracture/matrix
evaluation and characterization from cores, logs, well testing, and
so forth; evaluation of reservoir production mechanism from past reservoir
behavior; and review of management of future reservoir behavior.
Contents
Introduction to fractured reservoir geology: evaluation and description
of fractures; basic properties; field examples and critical discussion.
Dynamic characterization of the reservoir through pressure transient
testing: correlation between global results and direct measurements;
field examples and critical discussion; examination of dynamic processes
which take place between single matrix block and surrounding fracture
network. Global fractured reservoir evaluation related to reservoir
behavior and specific production mechanisms: simple expansion, pseudo-solution
gas drive, gas gravity drainage, water imbibition in case of water drive.
Use of material balance method for past history of reservoir. Use of
reservoir simulation. Field cases and calculation examples are included.
|
| Completion
Design of Ultra-Deep, High-Temperature and High-Pressure Sour Gas Wells
Manuel E. Gonzalez 5 days
Who Should Attend
Engineers involved with ultra-deep wells in hostile environments. May
also be of interest to explorationists working in these areas.
Contents
Throughout the world, large oil and gas reserves are being found in
deeper horizons and more hostile environments. Although the opportunities
can be very profitable, completion techniques can be complex and expensive.
Unknown factors and minor details can lead to significant hurdles, and
sometimes, failures. This course looks at technological breakthroughs
developed for 26,000' wells in high temperatures, high pressure, sour
gas environments.
Completion design analysis; Metallurgical material properties testing,
selecting and using corrosion resistant alloys; Mechanical material
properties; Temperature and pressure load analysis; New method for running
CRA tubing; Testing and selecting tubing connections; Pressure-testing
tubing connections; Field testing and perforating wells in hostile environments;
Why seal leaks occur in hostile environments; Fracture stimulation treatments;
Field procedure for well completion.
|
Natural Gas
Production Operations
Dr. Chi U. Ikoku 5 days
Who Should Attend
Gas, petroleum, reservoir, and production engineers; technicians; service
personnel; and others involved in oil and gas production, transportation,
or storage.
Contents
The design of a development plan for a natural gas field always depends
on the reservoir and well characteristics, tubing and flowline performance,
and compressor and processing equipment characteristics. This course
emphasizes a systems approach to natural gas production, since change
in each component will affect the performance of the other components.
The course presents a comprehensive and rigorous treatment of oil and
gas separation and processing, compression and metering of natural gas,
gas gathering and transportation, and gas well performance. Specific
contents include: Fundamentals of natural gas; Gas properties and phase
behavior; Gas and liquid separation; Dehydration of natural gas; Processing
of natural gas; Compression of natural gas; Natural gas measurement;
Gas gathering and transportation; Gas well performance; Auxiliary process
equipment.
|
| Prediction
and Control of Sand Problems
R. M. Pearson 3 or 5 days
Who Should Attend
Production, completion and drilling engineers and supervisors with at
least five years experience.
Contents
Sand Failure Predictions: understanding sand production; basic rock
mechanics; sand failure prediction. Sand Control Methods: improved completion
efficiency; rate control and arching; selective perforation; plain screens;
prepacked screens; gravel packing; consolidation, other methods. Gravel
Pack Design and Procedures: type of gravel pack and their effect on
well performance; gravel selection; screen and liner considerations;
packer and liner equipment; perforation and cleaning methods; gravel
placement; gravel pack fluids; formation damage; special considerations.
Horizontal Well Completions: completion options; design considerations;
drilling fluid selection; completion procedures. Discussion of case
histories and local situations.
|
Natural Gas
Reservoir Management
Dr. Chi U. Ikoku 5 days
Who Should Attend
Reservoir, petroleum, production, and operations engineers; technicians;
geologists; managers; supervisors; and service personnel.
Contents
This is a one-week course designed to enable participants to better
understand, manage, and optimize producing gas reservoirs. Practical
techniques are presented to predict future performance and estimate
reserves. Modifications to conventional analysis techniques are discussed
for gas condensate reservoirs and fields with water influx. Specific
contents include: Properties of natural gases; Rock properties; Flow
in wellbores, pipes, and restrictions; Gas well testing; Estimation
of gas reserves; Production decline curve analysis; Gas field development;
Storage of natural gas.
|
| Reservoir Stimulation
Dr. Michael J. Economides 5 days
Who Should Attend
This program is ideal for production engineers and superintendents who
wish to learn the full and practical aspects of reservoir stimulation.
Contents
Introduction; Reservoir Justification of Stimulation Treatments; Fundamentals
of Pressure Transient Analysis; Reservoir Screening and Choice of Methods;
Well and Reservoir Analysis; Pretreat-ment Well Analysis; Elements of
Rock Mechanics; Laboratory Equipment and Measurement; Fracturing Fluids;
Matrix Treatments; Principles of Acid Fracturing; Pre-Treatment Data
Gathering; Fracture Height Prediction; Pressure Analysis During Fracturing;
Mini-Frac Interpretation; Design of Propped Fractures; Design of Fractures
in Horizontal Wells; Fractured Well Analysis; Post-Treatment Evaluation.
|
Fluid Sampling
and PVT Analysis Concepts for Reservoir Engineers
John M. Williams 5 days
Who Should Attend
Reservoir and production engineers, and others concerned with collecting
valid samples, obtaining reliable PVT properties, and interpreting laboratory
measurements.
Contents
Hydrocarbon phase behavior: reservoir types; limitations of surface
production data; compositional variation; fluid properties. Importance
of valid sampling: design; procedures; safety; back-up samples; sample
quantities; latest developments. Data Vali-dation: on-site, laboratory
checks; optimum selection of samples; data interpolation and correction.
PVT Measure-ments: basic equipment; traditional versus mercury-free
techniques; recombination; constant mass study; differential vaporization;
depletion study; viscosity measurements; separator tests; quality assurance;
special measurements; on-site PVT. Compositional Analysis: flash separation;
distillation; gas and liquid chromatography; cryometry; GC-MS; "plus"
fractions and pseudo components; sample storage effects; on-site analyses.
Interpretation and Use of PVT Data: equation of state modeling; well
test interpretation; reserve calculations; material balance; recovery
estimation; facility design.
|
| Well Stimulation:
Acidizing and Hydraulic Fracturing
William K. Ott 5 days
Who Should Attend
Completion and production engineers; valuable for supervising engineers
and geologists interested in well performance; also for operations personnel
or anyone who wishes to become familiar with these well stimulation
methods.
Contents
Presents the latest in well stimulation technology, focusing on acidizing
and hydraulic fracturing. Provides an overview of formation damage problems,
and suggests ways of overcoming or minimizing their affects. Gives insight
into maximizing production and well performance by describing relationships
between production and formation damage. Teaches proper selection and
design of stimulation treatments, based on specific acidizing and hydraulic
fracturing examples. Covers choice of treatment additives, peripheral
materials, and equipment. Addresses acidizing objectives; Acid Types;
Use of additives; Formation Analysis; Wellbore cleanout; Matrix Acidizing
- sandstone and carbonate formations; Diverting Materials and Techniques;
Gas Assist; Scale Removal and Control; Paraffin Removal and Control;
Treatment Execution; Guidelines for on-site supervisors. Hydraulic Fracturing:
well selection guideline; Concepts and Terminology; Mechanics of Fracturing.
Fracture Geometry; Fracturing Fluids, Additives; Proppant Selection;
Production Increases.
|
Well Performance
and Artificial Lift
R. M. Pearson 3 or 5 days
Who Should Attend
Petroleum Engineers and Production supervisors with at least 5 years
experience involved with well performance optimization.
Contents
Well Performance Predic-tions: overview and importance; inflow performance
relationships for oil and gaswells; skin effects; fractured well performance;
multiphase flow including concerns of friction and liquid hold-up. Well
Performance Analysis: application of techniques to production optimization;
well design; production forecasting; artificial lift selection; gaswell
dewatering and identification of workover candidates. Artificial Lift
Methods: review options; areas of application and selection methods
spending additional time on systems most applicable to the area. Beam
Pumping: pumping units; rods; pumps; additional downhole equipment;
system design; optimization and problem diagnosis; common pump problems
and solutions. Gas Lift: valves; types of installations; continuous
gas lift design and analysis; intermittent gas lift systems. Electrical
Submersible Pumps (ESP): components; design procedure; failure and problem
analysis. Hydraulic Pumping: power fluid; downhole completion. Surface
pumps: piston pumps; jet pumps; (Weir) turbine pumps. Other Lift Systems:
progressive cavity pumps and plunger lifts.
|
| Horizontal
Wells: Performance, Completions and Stimulation
Dr. Michael J. Economides 5 days
Who Should Attend
Production and reservoir engineers seeking an understanding of horizontal
wells and their role in reservoir management, particularly with respect
to formation evaluation, completion and stimulation practices.
Contents
Horizontal well performance: selecting horizontal well candidates;
challenges involved in stimulating horizontal wells. Formation evaluation
for horizontal well planning: modern reservoir testing; reservoir characterization
from horizontal well data; horizontal well completions. Matrix stimulation
of horizontal wells: characterizing and removing formation damage; optimizing
completions and stimulations. Hydraulic fracturing of horizontal wells:
longitudinal versus transverse fractures; multiple treatments. Case
Studies: review of important publications on the issues of production,
logging and testing of horizontal wells.
|
Cased Hole
and Production Logging
Dr. James J. Smolen 5 days
Who Should Attend
Reservoir and production engineers, petrophysicists, log analysts and
others involved in maximizing recovery or planning workover operations.
Contents
Introduction: This is a modern up-to-date course that overviews
virtually all cased hole logging tools as an introduction. Evaluation
of formation through casing starts with gamma ray applications, then
emphasizes pulsed neutron capture logging for saturation, monitoring,
and bypassed production. It also covers natural and induced (carbonoxygen-C/O)
spectral gamma logging, CNL, and modern pulsed neutron measurements
based on oxygen activation, borehole sigma, and inelastic counts. Well
integrity is evaluated using both casing and cement evaluation techniques.
For cement evaluation, the traditional CBL/VDL logs are covered, followed
by the newer borehole compensated, pulse echo, pad type, and Ultra Sonic
Imager (USI) tools. Casing inspection includes mechanical, electromagnetic,
acoustic, and video techniques. Fluid movement in both injection and
producing wells is evaluated using spinners, tracers, temperature and
noise surveys. A variety of fluid identification devices are used to
evaluate phase flow. Special considerations for deviated and horizontal
wells discussed.
|
| Reservoir Engineering
Dr. Zaki Bassiouni 5 days
Who Should Attend
For novice geologists and petroleum engineers.
Contents
Reservoir Fluid Properties. Reservoir Rock Properties. Hydrocarbons
Reserves - Volu-metric Method: structural contour maps; isopach maps;
bulk and pore volumes; oil and gas in place; reserves and recovery factors.
Hydrocarbon Reserves - Material Balance Equation: reservoir types; general
material balance equation; reduced forms; graphical solutions; water
influx; pressure maintenance. Reservoir Fluid Flow: classification of
flow systems; Darcy's law; permeability variations; productivity index;
diffusivity equation. Pressure and Flow Tests: buildup test; drawdown
test; gas well testing; production forecasting for gas wells. Displacement
of Oil by Water: general concepts; Piston displacement mechanism; Buckley-Leverett
displacement mechanism; displacement efficiency.
|
Petroleum Production
Engineering
Dr. Michael J. Economides 5 days
Who Should Attend
Production engineers who need a review of inflow performance relationships
and vertical lift performance, along with an understanding of how to
improve well deliverability by applying matrix stimulation techniques
and artificial lift methods.
Contents
Inflow performance relationships: oil, two-phase and gas flow; vertical
and horizontal wells; the near wellbore re-gion; skin effects and damage
characterization. Vertical lift performance: gradient curves, two-phase
flow correlations; well deliverability. Modern well testing for well
diagnosis: well test design for production engineers; production logging.
Matrix stimulation: sandstone acidizing; carbonate acidizing; hydraulic
fracturing. Artificial lift: gas lift, pump-assisted; systems analysis;
environmental concerns.
|
| Waterflooding
Dr. Zaki Bassiouni 5 days
Who Should Attend
Petroleum engineers and geoscientists interested in the reservoir mechanics
of oil displacement by water. A basic knowledge of reservoir engineering
is required.
Contents
Introduction: Primary, secondary, enhanced recovery processes. Examples
of Secondary Production History. General Concepts: Relative Permeability;
Water Cut and Water Oil Ratio; Mobility Ratio; Determination of Effective
and Relative Permeabilities. Displacement Efficiency: Piston-Like Dis-placement;
Buckley-Leverett Displacement. Sweep Efficiency: Flooding Patterns;
Design Charts; Hurst Method. Invasion Efficiency: Dykstra-Parson's Method.
Injection Rates and Pressures: Injection Rates for Enclosed Well Patterns.
Waterflooding Performance Calculations: Perfect Method; Numerical Simulation.
Planning A Waterflood: Data requirements; Economic Factors; "Rules
of Thumb"; Laboratory Tests. Improved Water Flooding Methods: polymer
flooding; alkaline flooding; Pilot Flood. Monitoring Flood Progress.
Frequent problem solving exercises are included.
|
Corrosion Engineering
Dr. Bruce Craig 3 days
Who Should Attend
Those individuals not familiar with this subject, but who desire a fundamental
understanding of corrosion mechanisms and methods used for corrosion
control; and those who have a working knowledge of math, chemistry,
and general science.
Contents
Corrosion Fundamentals: Electrochemical nature; Thermodynamics,
Kinetics of Aqueous Corrosion. Principles of Metallurgy: Crystal Structure;
Alloying; Mechanical Properties of Metals; Heat Treating; Cold Working.
Forms of Corrosion: General Corrosion; Localized Corrosion; Metallurgically
Influenced Corrosion; Mechanically Assisted Degradation; Environmentally
Induced Cracking. Corrosion Protection Methods: Principles of Corrosion
Protection; Coatings and Linings; Non-Metallic; Organic; Inorganic;
Metallic; Inhibitors; Anodic and Cathodic Protection; Alloys. Corrosion
in Oil and Gas Operations: Drilling, production; Corrosion by CO2 and
H2S; Water-formed scales; Waterflooding. Corrosion Monitoring: Indirect
Methods; Direct Methods. Problem solving exercises and case histories
are included.
|
| Well Test Interpretation
Louis Mattar 5 days
Who Should Attend
Petroleum, reservoir, and production engineers and senior technologists
involved in conducting well tests and pressure transient analysis.
Contents
Introduction: Purpose of testing; equations, theory and assumptions;
derivatives, time functions, superposition, detection of boundaries,
reservoir limits. Pressure transient analysis: Drawdown and buildup;
pseudo pressures. Analysis techniques: Type curves, radial, linear,
bilinear, history matching. Deliverability tests: Types of tests, methods
of analysis and diagnosing problems. Practical aspects and examples:
Theory versus practice; test limitations; problem diagnosis; forecasting
future performance. IHRDC Video Library modules used in this course:
PE401, PE402, PE403, PE404. The course is a combination of lectures,
exercises, workshops and case studies.
|
Oil Desalting
and Dehydration
John Van Meter 5 days
Who Should Attend
Project managers, project engineers, facilities engineers with one to
five years of experience, and engineering generalists with oil and water
treating concerns.
Contents
This course is designed to help engineers understand oil and water treating
systems and learn the relative merits of various design strategies and
equipment types. More specifically, participants learn to develop system
flowsheets, size separators and treaters, specify water treating equipment,
and understand Lease Automatic Custody Transfer (LACT) unit operations.
Example problems are included, and solutions to each problem are discussed
in class. The following topics are discussed in detail: fluid properties;
flowsheets; oil and water process selection; separating oil and water;
emulsion treating; desalting; produced water treating; water injection
equipment; LACT units; storage tanks.
|
| Reserves and
Probabilities: Synergism or Anachronism?
Chapman Cronquist 3 days
Who Should Attend
Engineers or managers involved in preparing or utilizing reserve estimates,
especially in situations involving a high degree of uncertainty. Recommended
background includes basic reservoir engineering.
Contents
The statistical and probabilistic concepts which are the bases for estimation
and classification of oil and gas reserves characterized by a high degree
of uncertainty. Reserve definitions: USGS, SPE, World Petroleum Congress.
High risk prospects: Low permeability gas fields, fractured reservoirs,
coalbed methane, offshore prospects. Statistical Concepts: Frequency
distributions, distributions in nature, Monte Carlo simulation. Probabilistic
methods: Example calculations, deterministic vs. probabilistic methods.
|
Piping Design
and Fabrication
John Van Meter 5 days
Who Should Attend
Project managers, project engineers, facilities engineers with one to
five years of experience, and engineering generalists with piping and
process safety concerns.
Contents
This course is designed to help engineers design piping systems and
understand relevant aspects of these systems' fabrication. Example problems
are included, and solutions to each problem are discussed in class.
The following topics are discussed in detail: pressure drop in piping;
choosing line diameters and wall thicknesses; pressure ratings and determining
pressure breaks; pipe, valve, and fitting specifications; pipe expansion
and support; facility piping details; pipeline and gathering system
design; pipeline pigging; inspection; mechanical design of pressure
vessels; relief valves and relief systems; gas disposal; safety shutdown
systems; process hazards analysis methods.
|