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Institute For Oil & Gas Training
OGI-1400 New

Sidewall Coring and Core Analysis Training Course

Duration
5 days
CPD hours
15
Language
English
Next date
16 Nov 2026
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Overview

The Sidewall Coring and Core Analysis Training Course by Institute For Oil & Gas Training develops the technical capabilities required to obtain, prepare and evaluate representative subsurface rock samples for reliable reservoir characterisation. Focused on Sidewall Coring and Core Analysis, this professional programme examines sidewall core sampling techniques, percussion coring, rotary sidewall coring, core sample recovery and laboratory analysis methods used throughout the oil and gas industry.

Accurate formation evaluation depends on the quality and representativeness of subsurface data. While wireline logging, logging while drilling and other formation evaluation technologies provide extensive information about reservoir properties, physical rock samples remain essential for validating petrophysical interpretations, investigating lithological characteristics and understanding reservoir behaviour. Sidewall coring provides a practical method of obtaining formation samples from selected intervals in an existing wellbore, supporting geological and petrophysical investigations without relying exclusively on conventional full-diameter core acquisition.

The reliability of reservoir evaluation depends on selecting appropriate sampling techniques, maintaining sample integrity and applying suitable analytical procedures. Poor core sample recovery, inappropriate handling, contamination and inadequate preparation introduce uncertainty into laboratory measurements. These limitations affect the interpretation of porosity, permeability, fluid saturation, lithology and other properties that influence reservoir development decisions. This course addresses these technical challenges through an integrated examination of sampling operations and core analysis workflows.

Institute For Oil & Gas Training structures the programme around the operational and analytical requirements of exploration, drilling, petrophysics, reservoir engineering and geological teams. Participants examine the differences between percussion coring and rotary sidewall coring, including their operating principles, applications, advantages and technical limitations. They also develop an understanding of tool selection, formation conditions, sampling strategies and the factors that influence sample quality.

The programme places particular emphasis on the relationship between sidewall core acquisition and subsequent laboratory evaluation. Participants explore sidewall core preparation, sample preservation, cleaning, drying, measurement and the interpretation of laboratory results. The technical content connects sample acquisition with reservoir sample evaluation, enabling participants to understand how physical measurements contribute to formation characterisation and reservoir performance assessment.

An important element of the course is the evaluation of sample representativeness. Sidewall samples provide valuable information about selected formation intervals, but their dimensions, recovery conditions and acquisition methods influence the interpretation of analytical results. Understanding these limitations allows technical teams to assess the reliability of measurements and integrate core-derived information with wireline logs, geological descriptions and other subsurface datasets.

The training also addresses the coordination required between wellsite personnel, wireline contractors, laboratory specialists, petrophysicists and reservoir engineers. Consistent sampling procedures, accurate sample identification, traceable documentation and effective communication strengthen the quality of information transferred between operational and technical teams.

For organisations involved in exploration, field development and reservoir management, improved sidewall coring and core analysis capabilities support better-informed technical decisions. Reliable sample acquisition and laboratory evaluation strengthen formation interpretation, improve confidence in petrophysical models and provide important evidence for reservoir characterisation. The Sidewall Coring and Core Analysis Training Course equips industry professionals with an integrated understanding of these processes, helping organisations improve the technical quality of subsurface evaluation and the effectiveness of reservoir development activities.

Objectives

  • Explain the fundamental principles of sidewall coring and its importance in subsurface formation evaluation.

  • Differentiate between percussion coring and rotary sidewall coring systems, including their operating characteristics and applications.

  • Evaluate formation conditions and geological objectives when selecting appropriate sidewall core sampling techniques.

  • Identify the principal components and operating mechanisms of sidewall coring tools.

  • Understand the operational sequence involved in planning, acquiring and recovering sidewall core samples.

  • Assess the factors influencing core sample recovery, sample quality and representativeness.

  • Recognise common sampling problems, including fragmentation, contamination, incomplete recovery and mechanical damage.

  • Apply appropriate principles for sidewall core handling, identification, preservation and transportation.

  • Explain the procedures involved in sidewall core preparation before laboratory analysis.

  • Understand the importance of cleaning, drying, weighing and preparing samples for physical property measurements.

  • Interpret the principles of porosity, permeability and fluid saturation measurements.

  • Evaluate the influence of sample characteristics and laboratory procedures on analytical results.

  • Understand the application of core-derived measurements in petrophysical interpretation and reservoir characterisation.

  • Integrate sidewall core information with wireline logging, geological descriptions and other formation evaluation datasets.

  • Recognise quality assurance requirements and documentation practices supporting reliable core analysis.

Training methodology

Institute For Oil & Gas Training delivers the Sidewall Coring and Core Analysis Training Course through an industry-focused methodology combining technical presentations, operational case studies, sample evaluation exercises, group discussions and practical interpretation scenarios. The delivery approach connects the principles of sidewall core acquisition with the laboratory procedures and reservoir engineering applications that determine the value of recovered samples.

The methodology follows the sequence of activities involved in obtaining and evaluating sidewall core samples. Participants examine the requirements established before sampling, the selection of appropriate coring techniques, the operational considerations associated with sample acquisition and the procedures required to preserve sample integrity. This structured approach helps participants understand how decisions at each stage influence the reliability of subsequent analytical results.

Technical presentations introduce the operating principles of percussion and rotary sidewall coring systems. Participants explore the mechanical processes involved in sample acquisition, the characteristics of different tools and the formation conditions that influence sampling performance. Comparisons between the two techniques establish a practical basis for selecting appropriate methods according to geological objectives, well conditions and operational requirements.

Case studies examine common challenges associated with sidewall core sampling, including incomplete recovery, sample fragmentation, contamination, formation damage and inconsistent sample identification. Participants investigate the causes of these problems and consider their implications for laboratory analysis and reservoir interpretation. These discussions connect operational performance with the quality of information ultimately available to geological and petrophysical teams.

Practical interpretation exercises focus on core sample recovery, sample description and laboratory evaluation. Participants examine the characteristics of representative rock samples, identify important geological features and review the relationship between sample preparation and analytical accuracy. Exercises also address porosity and permeability measurements, fluid saturation assessment and the interpretation of laboratory data in reservoir evaluation.

Group exercises strengthen the ability to assess sampling strategies and communicate technical requirements across multidisciplinary teams. Participants consider different formation scenarios, establish sampling priorities and discuss the information required to support reservoir characterisation. These activities reflect the coordination between drilling, wireline logging, petrophysics, laboratory operations and reservoir engineering functions.

Real-world operational scenarios provide opportunities to evaluate the effects of tool selection, sampling intervals, formation characteristics and handling procedures on recovered sample quality. Participants assess how operational decisions influence the representativeness of samples and identify appropriate measures for maintaining sample integrity.

The methodology also incorporates structured discussions around laboratory quality assurance, documentation and the integration of core-derived measurements with other formation evaluation data. Participants examine how analytical results are checked, interpreted and communicated to support technical decisions.

Through this combination of technical instruction and practical application, Institute For Oil & Gas Training ensures that participants develop an integrated understanding of sidewall coring and core analysis. The programme focuses on operational relevance, analytical reliability and the effective use of subsurface sample information in oil and gas projects.

Organisational impact

Effective sidewall coring and core analysis improve the quality of subsurface information used in exploration, reservoir development and production planning. The Sidewall Coring and Core Analysis Training Course strengthens organisational capabilities by improving technical knowledge of sample acquisition, preparation, laboratory evaluation and data interpretation.

Improved Formation Evaluation

Reliable sidewall core sampling provides physical evidence for interpreting geological and petrophysical data. Organisations benefit from a better understanding of formation characteristics, lithological variations and reservoir properties. Integrating physical sample measurements with wireline logging results strengthens formation evaluation and supports more reliable subsurface assessments.

Better Sampling Decisions

Understanding percussion coring and rotary sidewall coring enables technical teams to select appropriate acquisition techniques according to geological conditions and sampling objectives. Improved knowledge of sampling limitations supports effective programme planning, suitable tool selection and accurate identification of target intervals, strengthening the quality of information obtained from well evaluation programmes.

Improved Core Sample Recovery

A stronger understanding of sampling operations helps personnel identify factors affecting recovery efficiency and sample integrity. Organisations benefit from better operational preparation, informed sampling decisions and improved recognition of conditions that cause sample fragmentation or incomplete recovery. This supports more effective utilisation of wireline sampling operations and laboratory resources.

Greater Reliability of Laboratory Results

Consistent sidewall core preparation, handling and preservation improve the reliability of laboratory measurements. Better awareness of sample contamination, moisture changes, mechanical damage and preparation limitations helps organisations reduce avoidable analytical inconsistencies. More reliable measurements strengthen the interpretation of porosity, permeability and fluid saturation.

More Effective Reservoir Characterisation

Accurate reservoir sample evaluation supports representative geological and petrophysical interpretations. Organisations gain stronger technical foundations for assessing reservoir quality, identifying formation variations and evaluating potential production intervals. Integrating core-derived information with logging and other subsurface datasets improves reservoir characterisation and strengthens the understanding of formation properties.

Improved Technical Coordination

Sidewall coring programmes involve several operational and technical functions. Understanding the complete workflow strengthens communication between drilling teams, wireline specialists, laboratory personnel, geologists, petrophysicists and reservoir engineers. Clearer technical requirements and consistent documentation improve information transfer and coordination between departments.

Better Utilisation of Technical Resources

Poor sampling strategies and inadequate sample handling can produce unsuitable specimens and unreliable analytical results. Improved technical knowledge helps organisations establish sampling priorities, assess sample suitability and select appropriate analytical procedures. This supports more efficient utilisation of laboratory capacity, specialist equipment and operational resources.

Stronger Quality Assurance

Consistent procedures for sample identification, preservation, preparation and reporting strengthen the traceability of analytical information. Organisations benefit from improved documentation, clearer sample histories and better recognition of analytical limitations. These practices support internal technical assurance and more defensible reservoir evaluation decisions.

More Informed Reservoir Development Decisions

Reliable core analysis information supports reservoir property assessments and the calibration of petrophysical interpretations. A better understanding of sample limitations and measurement reliability enables technical teams to evaluate subsurface uncertainty more effectively. This contributes to informed decisions concerning reservoir development, well planning and production strategies.

Personal impact

The Sidewall Coring and Core Analysis Training Course develops practical technical knowledge for professionals involved in wellsite operations, formation evaluation, geological interpretation and reservoir engineering. Participants strengthen their understanding of the complete process, from sampling programme planning to laboratory analysis and the application of results in reservoir evaluation.

Technical Knowledge of Sidewall Coring

Participants develop a clear understanding of sidewall coring principles, equipment configurations and sampling methods. They learn to distinguish between percussion and rotary sidewall coring and understand the operational factors influencing their applications. This knowledge strengthens their ability to contribute to technical discussions, equipment selection and sampling programme decisions.

Improved Sampling Assessment Skills

Participants strengthen their ability to assess formation conditions, sampling objectives and the factors affecting core sample recovery. They develop a better understanding of sample representativeness, recovery limitations and the relationship between acquisition methods and recovered material quality. These capabilities support more effective involvement in coring operations and formation evaluation activities.

Enhanced Laboratory Awareness

The programme develops participants' understanding of sidewall core preparation, preservation and laboratory evaluation. They become familiar with the principles of porosity, permeability and fluid saturation measurements, improving their ability to understand laboratory procedures and assess the significance of reported results.

Stronger Petrophysical Interpretation

Participants improve their understanding of how physical core measurements contribute to reservoir characterisation. They develop greater confidence in relating core-derived properties to wireline logging responses and identifying potential differences between laboratory measurements and log-based interpretations. This strengthens their contribution to integrated formation evaluation.

Improved Problem-Solving Capabilities

Through operational scenarios and case studies, participants learn to recognise common sampling and analytical challenges. They strengthen their ability to investigate sample quality problems, identify potential sources of measurement uncertainty and evaluate appropriate corrective actions. This improves their technical approach to resolving issues associated with sample recovery and laboratory evaluation.

Better Multidisciplinary Communication

Participants gain a broader understanding of the responsibilities and technical requirements of different functions involved in coring and core analysis. This improves their ability to communicate effectively with drilling engineers, wireline specialists, geologists, laboratory technicians and reservoir engineers. Better technical communication supports collaboration across operational and subsurface teams.

Greater Professional Confidence

A comprehensive understanding of sidewall coring and reservoir sample evaluation strengthens participants' ability to contribute to operational planning, technical reviews and formation evaluation activities. They develop a stronger foundation for undertaking responsibilities associated with core acquisition, laboratory coordination and subsurface data interpretation.

Career Development

The programme supports professional development for personnel working in exploration, drilling, wireline logging, petrophysics and reservoir engineering. Its integrated technical coverage strengthens participants' understanding of an important area of subsurface evaluation and provides a foundation for progression towards specialised technical, operational and supervisory responsibilities.

Who should attend

  • Petrophysicists: Professionals responsible for formation evaluation who require a stronger understanding of core-derived measurements and their integration with wireline logging data.

  • Reservoir Engineers: Engineers involved in reservoir characterisation, property assessment and development planning who use core analysis information in technical evaluations.

  • Geologists and Development Geologists: Specialists responsible for geological interpretation who need to understand sidewall sample acquisition, lithological identification and sample representativeness.

  • Wireline Logging Engineers: Professionals involved in wireline operations who require technical knowledge of percussion and rotary sidewall coring equipment and acquisition procedures.

  • Drilling Engineers: Engineers responsible for well operations who need to understand the relationship between well conditions, sampling objectives and sidewall coring performance.

  • Core Analysis Laboratory Technicians: Laboratory personnel involved in sample preparation, preservation, physical property measurements and analytical reporting.

  • Formation Evaluation Specialists: Professionals responsible for integrating geological, petrophysical and laboratory information to evaluate subsurface formations.

  • Wellsite Geologists: Personnel involved in wellsite geological operations who require an understanding of sample recovery, identification, handling and documentation.

  • Reservoir Characterisation Specialists: Technical professionals responsible for evaluating reservoir heterogeneity, lithology and rock properties using subsurface datasets.

  • Exploration Engineers and Geoscientists: Specialists involved in evaluating exploration wells and establishing the geological and petrophysical characteristics of prospective formations.

  • Wireline Operations Supervisors: Supervisors responsible for coordinating wireline activities who need improved understanding of sampling equipment, operational requirements and recovery considerations.

  • Petroleum Engineering Managers: Managers overseeing technical teams involved in drilling, formation evaluation and reservoir development who require a broader understanding of sidewall coring workflows.

  • Technical Services Managers: Professionals responsible for coordinating specialist services, laboratory activities and subsurface evaluation programmes.

  • Senior Technical Personnel and Department Heads: Decision-makers responsible for approving sampling programmes, evaluating technical deliverables and improving the quality of reservoir information.

Course outline

This module introduces the principles, applications and operational importance of sidewall coring in oil and gas formation evaluation. Participants examine how sidewall core samples provide physical information about selected formation intervals and support geological interpretation, petrophysical assessment and reservoir characterisation.

The module explores the differences between conventional coring and sidewall core acquisition, including the objectives, operational considerations and limitations associated with different sampling approaches. Participants also examine sampling programme planning, target interval selection, geological requirements and the importance of obtaining representative samples for subsequent laboratory evaluation.

  1. API RP 40

    • API RP 40, Recommended Practices for Core Analysis, provides historical industry guidance on core acquisition planning, sample handling, preservation, preparation and laboratory analysis.

    • Its technical coverage includes core screening, fluid saturation, porosity determination and permeability determination.

    • The document provides useful historical reference material for understanding established core analysis practices.

    • API RP 40 was withdrawn on 19 February 2021 and is not a current active standard. Its procedures should therefore be treated as historical technical guidance rather than a current compliance requirement.

    Learning Outcomes

    • Explain the purpose and applications of sidewall coring in oil and gas formation evaluation.

    • Differentiate between conventional coring and sidewall core acquisition.

    • Identify geological and petrophysical objectives for sidewall sampling.

    • Evaluate the factors influencing sampling programme design.

    • Understand the importance of selecting representative formation intervals.

    • Recognise the limitations of sidewall core data in reservoir characterisation.

    • Explain the relationship between sample acquisition and subsequent laboratory analysis.

    • Identify the principal technical requirements for planning a sidewall coring programme.

This module examines the operating principles, equipment configurations and practical applications of the two principal sidewall coring approaches: percussion coring and rotary sidewall coring. Participants explore how each technique obtains formation samples and how equipment characteristics, geological conditions and wellbore requirements influence sampling performance.

The module focuses on the differences in sample acquisition mechanisms, formation interaction, recovery characteristics and potential sample disturbance. Participants examine the selection of suitable coring technologies according to formation strength, lithology, sampling objectives and the intended use of recovered material. Particular attention is given to understanding the limitations of each method when samples are required for petrophysical and laboratory measurements.

  1. ASTM D2113

    • ASTM D2113, Standard Practice for Rock Core Drilling and Sampling of Rock for Site Investigation, provides recognised guidance on rock drilling, coring and sampling procedures.

    • It addresses considerations associated with obtaining rock samples from different borehole orientations and geological conditions.

    • Its principles provide a useful general reference for understanding drilling operations, sample recovery and the handling of recovered rock material.

    • Its formal scope concerns site investigation rather than petroleum sidewall coring specifically. It should be used as supplementary technical guidance, not as an oilfield-specific sidewall coring requirement.

    Learning Outcomes

    • Explain the operating principles of percussion and rotary sidewall coring.

    • Identify the main components of different sidewall coring systems.

    • Compare the technical characteristics of percussion and rotary coring methods.

    • Assess the suitability of different coring technologies for specific formation conditions.

    • Understand how formation hardness and lithology influence sample acquisition.

    • Recognise the causes of sample fragmentation and mechanical disturbance.

    • Identify operational factors that affect tool performance and sample recovery.

    • Understand the importance of equipment selection and sampling interval planning.

    • Evaluate the advantages and limitations of different sidewall coring technologies.

This module focuses on the operational and technical procedures required to recover, identify, handle and preserve sidewall core samples. Participants examine how sample recovery conditions and subsequent handling practices influence the physical condition and analytical suitability of recovered material.

The module explores the relationship between sample integrity and the reliability of laboratory results. Participants examine recovery problems, sample contamination, moisture changes, mechanical damage and preservation requirements. They also consider the importance of accurate labelling, depth identification, sample documentation and controlled transportation between wellsite operations and laboratory facilities.

  1. ASTM D5079-25

    • ASTM D5079-25, Standard Practices for Preserving and Transporting Rock Core Samples, provides guidance on preserving, transporting, storing, cataloguing and retrieving rock core samples.

    • It addresses the importance of preventing mechanical damage and changes in moisture, temperature and chemical conditions during sample handling.

    • It highlights the relationship between geological characteristics, intended testing requirements and appropriate preservation procedures.

    • Its scope covers geotechnical rock core samples rather than petroleum sidewall coring specifically. Its preservation and transportation principles provide useful supplementary guidance when adapted to the requirements of oil and gas samples.

    Learning Outcomes

    • Explain the procedures involved in recovering sidewall core samples.

    • Identify factors affecting the quality and completeness of recovered samples.

    • Assess sample condition and recognise common recovery problems.

    • Understand the effects of mechanical damage and contamination on sample integrity.

    • Apply appropriate principles for sample identification and depth documentation.

    • Explain the importance of preserving moisture and other relevant sample characteristics.

    • Understand appropriate sample storage and transportation considerations.

    • Identify preservation requirements according to the intended laboratory analysis.

    • Recognise the importance of traceability and accurate recovery records.

    • Evaluate the implications of sample damage and alteration for subsequent analysis.

This module examines the preparation procedures and laboratory techniques used to assess the physical and petrophysical characteristics of recovered sidewall core samples. Participants explore the importance of suitable sample preparation in obtaining reliable measurements and understanding the limitations associated with small or irregular rock specimens.

The module covers sample inspection, cleaning, drying, weighing and preparation for laboratory measurements. It also introduces the principles of porosity determination, permeability testing, fluid saturation assessment and other routine core analysis procedures. Participants examine how laboratory conditions, sample geometry, preparation methods and rock characteristics influence the quality and interpretation of analytical results.

  1. ASTM D4543-19

    • ASTM D4543-19, Standard Practices for Preparing Rock Core as Cylindrical Test Specimens and Verifying Conformance to Dimensional and Shape Tolerances, provides guidance on preparing rock specimens for laboratory testing.

    • It addresses specimen dimensions, geometry and shape tolerances required for relevant physical testing procedures.

    • It recognises the difficulties associated with preparing specimens from weak, porous, fractured and poorly cemented rock.

    • Its principles help laboratory personnel understand the relationship between specimen preparation and the reliability of physical test results.

    • The standard concerns cylindrical rock specimens, so its dimensional requirements should not automatically be applied to irregular sidewall samples without considering the intended analytical method.

    Learning Outcomes

    • Explain the importance of appropriate sidewall core preparation.

    • Identify the main stages involved in preparing samples for laboratory testing.

    • Understand cleaning, drying, weighing and measurement procedures.

    • Recognise the influence of sample dimensions and geometry on laboratory suitability.

    • Explain the fundamental principles of porosity measurement.

    • Understand the principles of permeability determination.

    • Identify the purpose of fluid saturation measurements.

    • Recognise the effects of sample disturbance and preparation errors on analytical results.

    • Evaluate the suitability of different samples for specific laboratory tests.

    • Understand the importance of laboratory documentation and quality assurance.

This module focuses on interpreting sidewall core analysis results and applying the resulting information to reservoir characterisation and formation evaluation. Participants examine how laboratory measurements provide insight into lithology, pore structure, porosity, permeability and fluid distribution, supporting a more comprehensive understanding of reservoir properties.

The module also examines the integration of core-derived information with wireline logging measurements, geological descriptions and other subsurface datasets. Participants explore sample representativeness, data validation, interpretation limitations and the use of laboratory results in petrophysical evaluation. The emphasis is on translating physical sample measurements into meaningful technical information for reservoir assessment and development decisions.

  1. ASTM D7012-14

    • ASTM D7012, Standard Test Methods for Compressive Strength and Elastic Moduli of Intact Rock Core Specimens under Varying States of Stress and Temperatures, addresses laboratory testing of intact rock specimens.

    • It provides recognised test methods for evaluating compressive strength and elastic properties under specified testing conditions.

    • Its technical principles support the understanding of rock mechanical properties and the relationship between specimen characteristics and laboratory measurements.

    • These methods provide supplementary information for reservoir rock evaluation where mechanical properties are relevant to the investigation.

    • The standard addresses mechanical testing rather than routine petroleum porosity and permeability analysis. Its application should therefore be distinguished from conventional petrophysical core analysis.

    Learning Outcomes

    • Interpret basic sidewall core analysis results for reservoir evaluation.

    • Evaluate lithological characteristics and their relationship with reservoir properties.

    • Understand the significance of porosity and permeability measurements.

    • Assess fluid saturation information in the context of reservoir characterisation.

    • Recognise the influence of geological heterogeneity on sample representativeness.

    • Integrate core-derived information with wireline logging measurements.

    • Identify potential inconsistencies between laboratory and log-based measurements.

    • Understand the limitations of small sidewall samples in reservoir-wide interpretation.

    • Evaluate the contribution of core analysis data to petrophysical models.

    • Communicate reservoir sample evaluation findings through technical reports.

    • Apply core analysis information to support reservoir development and formation evaluation decisions.

Certificate

Upon successful completion of the Sidewall Coring and Core Analysis Training Course, attendees will receive a Certificate of Completion from Institute For Oil & Gas Training.

The certificate recognises participation in the professional training programme and the completion of its scheduled learning activities. Attendees are required to meet the institute's attendance requirement of at least 80 percent of the total course duration to qualify for the Certificate of Completion.

Course dates

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £3,800

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £3,800

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £3,800

  • Europe

    Middle East

    Asia

    Africa

    North America

    Online

    Fee: £3,800

Fees include tuition, course materials and refreshments. Need different dates or a different city? Ask about your preferred date.

Frequently asked questions

What is the Sidewall Coring and Core Analysis Training Course about?

The course provides comprehensive technical knowledge of sidewall core acquisition, sample recovery, preparation and laboratory evaluation. It covers percussion coring, rotary sidewall coring, sample preservation, porosity and permeability measurements, fluid saturation and the application of core analysis data in reservoir characterisation.

What is the difference between percussion coring and rotary sidewall coring?

Percussion coring uses an impact-driven mechanism to collect formation samples from the borehole wall. Rotary sidewall coring uses a rotating cutting mechanism to obtain cylindrical rock specimens. Both techniques provide physical samples for formation evaluation, but their operating principles, sample characteristics and suitability vary according to formation conditions and analytical requirements.

Who should attend this sidewall coring training course?

The course is suitable for petrophysicists, reservoir engineers, geologists, drilling engineers, wireline logging specialists, wellsite geologists, laboratory technicians and formation evaluation professionals. It also benefits technical supervisors and managers responsible for coring operations, laboratory coordination and reservoir characterisation.

What laboratory techniques are covered during the course?

The programme introduces sample cleaning, drying, weighing, dimensional assessment and preparation for laboratory testing. Participants also examine the principles of porosity determination, permeability measurement, fluid saturation assessment and the interpretation of laboratory results for reservoir evaluation.

How does this course improve reservoir evaluation capabilities?

The course develops participants' ability to understand sample acquisition, assess sample quality and interpret laboratory measurements. They learn how to integrate sidewall core analysis results with wireline logging and geological information, supporting more reliable formation evaluation, reservoir characterisation and technical decision-making.

Next: 16 Nov 2026

4 dates available

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