Core Flooding Experiments are essential laboratory techniques within petroleum engineering, reservoir characterisation and core analysis. The Core Flooding Experiments and Laboratory Testing Training Course by Institute For Oil & Gas Training develops the technical capabilities required to design, conduct, evaluate and interpret laboratory fluid displacement experiments under controlled reservoir conditions. The course focuses on understanding fluid movement through porous rock formations and translating laboratory measurements into reliable information for reservoir engineering, enhanced oil recovery and production optimisation.
Oil and gas organisations depend on accurate laboratory measurements to understand reservoir behaviour, evaluate formation properties and establish effective production strategies. Core flooding experiments provide practical evidence of how reservoir fluids interact with rock samples under controlled pressure, temperature and flow conditions. These experiments support the investigation of permeability, fluid saturation, displacement efficiency, relative permeability and multiphase flow behaviour. The quality of laboratory procedures and the interpretation of experimental results directly influence the reliability of reservoir simulation models and engineering decisions.
The course addresses the technical skills gap between routine core analysis and the advanced laboratory procedures required to investigate fluid flow through reservoir rocks. It examines core sample preparation, experimental equipment, fluid injection systems, pressure monitoring, saturation measurement and laboratory flooding analysis. Participants develop a structured understanding of how to conduct core flooding procedures, monitor fluid displacement and identify experimental factors that influence measurement accuracy.
Particular attention is given to fluid-rock interaction and the behaviour of different fluid systems during laboratory testing. Participants examine single-phase and multiphase flow testing, including the relationship between injection rates, pressure differentials, fluid properties and core permeability. The course also addresses experimental considerations associated with water flooding, oil displacement, gas injection and other reservoir engineering applications.
Institute For Oil & Gas Training connects laboratory procedures with practical petroleum engineering requirements. The programme explores how experimental observations support reservoir characterisation, production forecasting, water injection planning and enhanced oil recovery evaluations. Participants learn to distinguish between actual reservoir behaviour and experimental effects caused by sample preparation, equipment configuration, fluid properties or measurement limitations.
Another important focus is the reliability and repeatability of laboratory measurements. Core flooding experiments require controlled experimental conditions, appropriate instrumentation and consistent data recording. Errors in fluid injection, pressure measurement, temperature control or saturation determination affect the interpretation of displacement behaviour. The course therefore examines laboratory quality practices, equipment calibration, experimental documentation and procedures for identifying unreliable results.
The programme also considers the operational value of laboratory testing for organisations managing complex reservoirs, mature fields, water injection programmes and enhanced oil recovery projects. Reliable core flooding data supports better understanding of fluid movement, reservoir connectivity, displacement mechanisms and potential production constraints. These insights help engineering teams evaluate development options and improve the technical basis of reservoir management decisions.
By completing this course, participants gain practical knowledge of core flooding procedures, fluid displacement experiments, injection pressure measurement and laboratory flooding analysis. They develop the ability to evaluate experimental results, identify limitations and communicate relevant findings to reservoir engineers, production teams and laboratory specialists. Institute For Oil & Gas Training delivers a professionally focused programme that strengthens the connection between laboratory testing and effective reservoir management.
Explain the fundamental principles of fluid flow through porous reservoir rocks and their relevance to petroleum engineering.
Understand the purpose, applications and limitations of core flooding experiments in reservoir characterisation and production optimisation.
Apply the fundamental principles governing core flooding procedures and laboratory fluid displacement experiments.
Identify appropriate core samples and understand the requirements for sample preparation and preservation.
Explain the operation and configuration of laboratory core flooding equipment and associated instrumentation.
Evaluate the influence of porosity, permeability, fluid properties and saturation on experimental results.
Understand single-phase and multiphase flow testing under controlled laboratory conditions.
Interpret injection pressure measurement and pressure differential behaviour during fluid displacement.
Examine water flooding, oil displacement and gas injection experiments.
Understand the principles of relative permeability and displacement efficiency evaluation.
Assess fluid-rock interaction and its influence on laboratory flooding behaviour.
Identify experimental errors associated with fluid injection, pressure monitoring, equipment configuration and sample preparation.
Evaluate laboratory data and identify inconsistencies that affect experimental reliability.
Apply appropriate laboratory quality management and documentation practices.
Interpret laboratory flooding analysis results for reservoir engineering and enhanced oil recovery applications.
Communicate experimental findings and technical limitations to relevant engineering and operational teams.
Institute For Oil & Gas Training uses an applied, industry-focused training methodology that combines technical presentations, laboratory testing principles, engineering case studies, experimental demonstrations, group exercises and scenario-based discussions. The delivery approach connects the scientific principles of fluid flow through porous media with the operational requirements of reservoir engineering, core analysis and enhanced oil recovery.
The methodology emphasises the practical application of experimental procedures rather than theoretical knowledge alone. Participants examine the complete workflow of core flooding experiments, from selecting and preparing representative core samples to configuring laboratory equipment, conducting fluid injection and interpreting the resulting measurements.
Technical presentations establish the fundamental principles governing fluid movement through porous rock formations. These sessions examine permeability, porosity, capillary pressure, fluid saturation, pressure differentials and multiphase flow behaviour. Participants explore how rock properties and fluid characteristics influence laboratory displacement results and their relevance to reservoir conditions.
Laboratory-oriented demonstrations introduce the principal components of core flooding systems, including core holders, pumps, pressure transducers, flow measurement devices, fluid containers and data acquisition equipment. Participants examine equipment configurations, operational considerations and the importance of maintaining controlled experimental conditions.
Engineering case studies provide opportunities to evaluate real-world laboratory testing scenarios. These include water injection experiments, oil displacement studies, gas injection investigations and relative permeability evaluations. Participants examine experimental data, identify important trends and assess how laboratory findings contribute to reservoir engineering decisions.
Group exercises focus on interpreting injection pressure measurements, analysing fluid production profiles and understanding changes in pressure differential during displacement experiments. Participants discuss the causes of unexpected pressure behaviour, identify potential experimental errors and evaluate appropriate troubleshooting approaches.
Scenario-based activities also address laboratory quality management. Participants consider sample preparation inconsistencies, equipment calibration problems, fluid contamination, leakage, unstable injection rates and measurement uncertainty. These exercises strengthen their ability to recognise experimental limitations and maintain reliable laboratory procedures.
The course incorporates structured discussions on the relationship between laboratory measurements and field-scale reservoir behaviour. Participants examine the limitations of translating core-scale experimental results directly into reservoir models and consider the additional geological, petrophysical and operational information required for sound interpretation.
Through this combination of technical instruction and applied exercises, Institute For Oil & Gas Training develops participants' confidence in understanding core flooding systems, evaluating experimental quality and applying laboratory findings to petroleum engineering activities.
Organisations operating in the oil and gas sector require reliable laboratory data to support reservoir evaluation, production planning and field development. Improved understanding of core flooding experiments strengthens the technical capabilities of laboratory and engineering personnel while supporting more consistent interpretation of fluid flow behaviour.
A stronger understanding of laboratory flooding results enables engineering teams to evaluate the relationship between rock properties, fluid characteristics and displacement behaviour. This improves the technical basis for reservoir characterisation and supports more informed assessments of reservoir performance.
Core flooding experiments provide valuable information about water displacement through reservoir samples. Improved interpretation of injection pressure, fluid production and displacement behaviour supports water injection assessments and helps engineering teams evaluate potential flow restrictions and reservoir response.
Consistent sample preparation, equipment configuration, measurement procedures and experimental documentation improve the quality of laboratory work. Personnel gain a better understanding of the factors affecting repeatability, measurement uncertainty and experimental validity.
Understanding fluid displacement and multiphase flow behaviour supports the technical evaluation of enhanced oil recovery processes. Laboratory findings provide engineering teams with important information for assessing displacement mechanisms and comparing potential recovery approaches.
Improved knowledge of laboratory procedures helps personnel recognise problems associated with pressure measurement, fluid injection, sample integrity and equipment operation. Early identification of these issues reduces avoidable testing errors, repeated experiments and unnecessary laboratory resource consumption.
Reliable core flooding measurements contribute to the evaluation of relative permeability and other flow-related reservoir properties. Improved laboratory data interpretation supports more consistent input selection and technical review during reservoir simulation studies.
The course establishes a common understanding of laboratory flooding principles among core analysis specialists, reservoir engineers, petrophysicists and production personnel. This improves communication between technical departments and strengthens the integration of laboratory findings into engineering workflows.
Personnel who understand experimental requirements and equipment limitations are better positioned to plan testing activities, monitor equipment performance and maintain appropriate laboratory records. This supports more efficient utilisation of laboratory facilities and technical resources.
A clearer understanding of experimental results and their limitations enables organisations to evaluate laboratory evidence more effectively. Engineering decisions become better supported by reliable measurements, documented procedures and technically sound interpretations.
Participants develop specialised technical knowledge of core flooding experiments and their applications across petroleum engineering and reservoir management. The course strengthens their ability to understand laboratory workflows, evaluate fluid displacement behaviour and interpret experimental measurements.
Participants develop a stronger understanding of core flooding procedures and the relationship between rock properties, fluid characteristics and flow behaviour. They become more familiar with the laboratory methods used to investigate reservoir fluid displacement.
The programme strengthens participants' knowledge of core sample preparation, equipment configuration, fluid injection systems and experimental monitoring. They gain a clearer understanding of the technical requirements involved in conducting reliable laboratory flooding experiments.
Participants improve their ability to examine injection pressure measurements, pressure differentials, flow rates and fluid production data. This supports more effective identification of experimental trends and unusual pressure behaviour.
The course develops knowledge of single-phase and multiphase flow testing, relative permeability and displacement mechanisms. Participants understand how these concepts contribute to reservoir characterisation and production performance evaluation.
Participants strengthen their ability to identify experimental inconsistencies, recognise equipment-related problems and assess factors affecting laboratory measurements. This supports more systematic troubleshooting and technical investigation.
The programme develops awareness of calibration, measurement uncertainty, repeatability, experimental documentation and laboratory quality management. Participants become better equipped to contribute to consistent laboratory practices.
Participants learn how laboratory flooding analysis contributes to water injection studies, reservoir simulation, enhanced oil recovery evaluations and production optimisation. They gain a stronger understanding of the connection between experimental findings and engineering decisions.
The specialised knowledge gained through the course strengthens participants' professional capabilities in core analysis, reservoir engineering and laboratory testing. It also supports effective collaboration with multidisciplinary technical teams and improves their contribution to reservoir-related projects.
Core Analysis Engineers: To strengthen their understanding of laboratory flooding procedures, core sample evaluation and fluid displacement measurements.
Core Laboratory Technicians: To improve their knowledge of experimental equipment, sample preparation, fluid injection and pressure monitoring.
Reservoir Engineers: To understand how core flooding results support reservoir characterisation, relative permeability evaluation and simulation studies.
Petroleum Engineers: To develop practical knowledge of fluid flow through porous formations and its relevance to production performance.
Petrophysicists: To understand the relationship between core measurements, rock properties and reservoir fluid behaviour.
Enhanced Oil Recovery Specialists: To evaluate laboratory displacement mechanisms and understand the experimental basis of recovery process assessments.
Production Engineers: To strengthen their understanding of water injection, fluid displacement and reservoir flow behaviour.
Research and Development Engineers: To develop technical knowledge of experimental design, laboratory measurements and interpretation of flooding results.
Laboratory Supervisors and Managers: To improve oversight of testing procedures, equipment utilisation, experimental quality and technical documentation.
Reservoir Studies Professionals: To understand how laboratory flooding measurements contribute to integrated reservoir evaluation.
Technical Services Managers: To strengthen the coordination of laboratory testing activities and the application of experimental findings across engineering departments.
Petroleum Engineering Consultants: To expand their technical understanding of core flooding applications and laboratory data interpretation.
This module introduces the fundamental principles of core flooding experiments and their applications in petroleum engineering. Participants examine the physical properties of reservoir rocks and understand how porosity, permeability, pore structure and fluid characteristics influence fluid movement through porous media.
The module also establishes the relationship between routine core analysis and advanced laboratory flooding investigations. Participants explore core sample selection, preservation, preparation and the importance of representative samples when conducting laboratory experiments.
Provides a historical reference for recommended practices associated with the acquisition, handling and analysis of reservoir core samples.
Covers important principles of core sample preparation, preservation and laboratory evaluation.
Provides background for understanding conventional core analysis procedures and their application in petroleum engineering.
API RP 40 was withdrawn in 2021 and is included as a historical technical reference rather than a current governing standard.
Explain the fundamental principles and applications of core flooding experiments.
Identify the main physical properties influencing fluid movement through reservoir rocks.
Understand the relationship between porosity, permeability and pore structure.
Evaluate the importance of representative core samples.
Explain core preparation and preservation requirements.
Distinguish between routine core analysis and advanced flooding investigations.
Recognise the limitations of laboratory measurements when interpreting reservoir behaviour.
This module examines the preparation of core samples and the equipment required to conduct controlled laboratory flooding experiments. Participants explore the importance of sample dimensions, surface condition, cleaning procedures, drying requirements and initial fluid saturation when preparing representative specimens.
The module also introduces the principal components of core flooding systems and their operational functions. Particular attention is given to core holders, injection pumps, pressure transducers, flow measurement devices, fluid storage systems and data acquisition arrangements. Participants examine how equipment configuration and measurement accuracy influence experimental reliability.
Establishes practices for preparing rock core specimens and determining dimensional and shape tolerances.
Addresses specimen geometry and physical preparation requirements.
Supports consistent preparation of rock samples for laboratory testing.
Provides a recognised reference for evaluating the physical suitability of core specimens before experimental work.
Understand the requirements for preparing representative core samples.
Identify factors affecting sample integrity and experimental suitability.
Explain the functions of major core flooding equipment components.
Understand the configuration of injection and pressure monitoring systems.
Recognise the importance of equipment inspection and calibration.
Identify common equipment-related experimental problems.
Evaluate how sample preparation and equipment configuration influence laboratory results.
This module focuses on the practical principles governing core flooding procedures and controlled fluid displacement experiments. Participants examine how laboratory flooding systems are operated to investigate fluid movement through porous rock samples under specified experimental conditions.
The module explores single-phase flow, fluid injection, pressure stabilisation, flow monitoring and the interpretation of experimental observations. It also introduces water flooding and oil displacement investigations, providing an understanding of how injection rates, fluid properties and core characteristics influence displacement behaviour.
Establishes laboratory test methods for measuring hydraulic conductivity of saturated porous materials using a flexible-wall permeameter.
Addresses controlled fluid flow through porous specimens under laboratory conditions.
Provides relevant background for understanding pressure, flow and hydraulic conductivity measurements.
Its application is specific to the materials and procedures covered by the standard and does not replace petroleum-specific core flooding procedures.
Explain the sequence of controlled core flooding procedures.
Understand the principles of single-phase fluid flow testing.
Describe the requirements for conducting fluid displacement experiments.
Evaluate the relationship between injection rates and pressure response.
Interpret basic pressure differential and flow measurements.
Understand the operational principles of water flooding experiments.
Recognise factors affecting fluid displacement efficiency.
Identify common procedural errors during laboratory flooding operations.
This module examines multiphase flow testing and the interaction between reservoir fluids and porous rock formations. Participants explore how different fluid phases move through interconnected pore systems and how their interactions influence displacement behaviour, pressure response and fluid recovery.
The module introduces relative permeability, fluid saturation, capillary pressure and displacement mechanisms. It also considers the effects of rock wettability, fluid properties and injection conditions on laboratory flooding results. Participants develop an understanding of how these measurements support reservoir characterisation and enhanced oil recovery assessments.
Establishes procedures for measuring the properties of proppants used in hydraulic fracturing and gravel-packing operations.
Addresses laboratory evaluation of materials used in these petroleum engineering applications.
Provides a recognised reference for the characterisation of proppant materials where relevant to laboratory fluid flow studies.
It is not a direct standard for relative permeability or multiphase core flooding measurements.
Explain the fundamental principles of multiphase flow through porous rock.
Understand the significance of fluid saturation and relative permeability.
Evaluate the influence of wettability and capillary pressure on displacement behaviour.
Explain fluid-rock interaction during laboratory flooding.
Understand the differences between single-phase and multiphase flow testing.
Identify the principal mechanisms involved in oil-water and gas-liquid displacement.
Interpret the relationship between fluid properties and laboratory flow behaviour.
Understand how multiphase flow measurements contribute to reservoir engineering studies.
This module focuses on the analysis and interpretation of laboratory flooding results and their application to reservoir engineering decisions. Participants examine how experimental measurements are converted into meaningful technical information through the evaluation of pressure differentials, injection rates, fluid production, saturation changes and displacement performance.
The module also addresses laboratory quality management, experimental uncertainty, data validation and technical reporting. Participants explore how reliable laboratory flooding analysis supports reservoir simulation, water injection evaluation, enhanced oil recovery assessments and production optimisation.
Specifies general requirements for the competence, impartiality and consistent operation of testing and calibration laboratories.
Addresses laboratory personnel competence, equipment management and measurement traceability.
Covers technical procedures, method validation and the evaluation of measurement uncertainty.
Establishes requirements for reporting results and maintaining appropriate laboratory records.
Provides a recognised framework for supporting confidence in laboratory testing and measurement activities.
Interpret core flooding experimental data and identify important flow trends.
Evaluate injection pressure measurements and fluid production profiles.
Understand the interpretation of displacement efficiency and recovery behaviour.
Assess the quality and consistency of laboratory measurements.
Identify experimental uncertainty and potential sources of error.
Understand the importance of equipment calibration and measurement traceability.
Apply laboratory quality management principles to experimental activities.
Prepare and communicate clear technical interpretations of laboratory findings.
Explain how core flooding results support reservoir simulation and engineering evaluations.
Relate laboratory flooding analysis to water injection and enhanced oil recovery assessments.
Upon successful completion of the course, attendees receive a Certificate of Completion from Institute For Oil & Gas Training.
The certificate recognises participation in the Core Flooding Experiments and Laboratory Testing Training Course and the professional development undertaken during the programme.
Attendees are required to maintain a minimum attendance of 80 percent of the total course duration to qualify for the Certificate of Completion.
Fees include tuition, course materials and refreshments. Need different dates or a different city? Ask about your preferred date.
The course develops participants' understanding of laboratory fluid displacement experiments through porous reservoir rocks. It covers core sample preparation, flooding equipment, injection pressure measurement, multiphase flow testing, fluid-rock interaction and laboratory data interpretation.
The course is suitable for core analysis engineers, laboratory technicians, reservoir engineers, petrophysicists, petroleum engineers, production engineers, enhanced oil recovery specialists and laboratory supervisors.
The programme covers five modules: fundamentals of core flooding and reservoir rock properties, core sample preparation and laboratory equipment, core flooding procedures and fluid displacement experiments, multiphase flow testing and fluid-rock interaction, and laboratory flooding analysis, quality control and reservoir applications.
Yes. Participants examine injection pressure measurement, pressure differentials, flow rates, fluid saturation, relative permeability and multiphase displacement behaviour. These subjects help develop an understanding of fluid movement through porous reservoir rocks.
Participants receive a Certificate of Completion from Institute For Oil & Gas Training upon finishing the course, subject to meeting the minimum attendance requirement of 80 percent of the total course duration.
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Next: 23 Nov 2026
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