Duration:

20 to 40 hours.

Introduction:

This course teaches how Machine Learning enhances unconventional reservoir management, offering practical workflows and real examples to improve production and completion efficiency.

Objectives:

Develop Machine Learning workflows to optimize production and completion in unconventional reservoirs, applying advanced techniques and real cases with performance metrics.

Target Audience:

Engineers, geologists, and petrophysicists interested in optimizing unconventional reservoirs with Machine Learning.

Course Program:

1. Machine Learning Intro – Basics and applications.
2. Unconventional Reservoirs – Features and challenges.
3. E&P Data – Sources in exploration and production.
4. Data Preparation – Cleaning complex datasets.
5. Supervised Models – Predicting production.
6. Unsupervised Models – Reservoir clustering.
7. Basic Deep Learning – Use in advanced analysis.
8. CompletionOptimization-ML-driven strategies.
9. Result Visualization – Graphics for decisions.
10. Real Cases – Shale and tight oil examples.
11.  Performance Metrics – Evaluating ML models.
12. Operational Implementation – Integration into workflows.

Duration:

20 to 40 hours.

Introduction:

This course trains drilling engineers in Data Science and AI with Python, focusing on operational data analysis and optimization with practical examples and modern tools.

Objectives:

Teach Data Science and AI with Python to analyze drilling data, detect anomalies, and predict parameters, optimizing operations with practical tools and visualizations.

Target Audience:

Drilling engineers interested in analyzing operational data with Python and Data Science/AI.

Course Program:

1. Drilling Data – Operational sources and types.
2. Basic Python – Fundamentals for data analysis.
3. Data Cleaning – Preparing drilling datasets.
4. Initial Statistics – Descriptive parameter analysis.
5. Visualization with Seaborn – Clear operational graphics.
6. Anomaly Detection – Spotting key events.
7. Predictive Models – Forecasting drilling parameters.
8. Simple Regression – Applying to real data.
9. Interactive Dashboards – Building visual tools.
10. Practical Cases – Field operation examples.
11. Drilling Optimization – Using derived insights.
12. Final Review – Assessing practical outcomes.

Duration:

20 to 40 hours.

Introduction:

This hands-on course teaches engineers to use Data Science for optimizing artificial lift and production, applying workflows with real data and modern tools.

Objectives:

Train participants in Data Science workflows to analyze artificial lift and production data, solving problems with scripts and real field data.

Target Audience:

Production, reservoir engineers, and operators interested in Data Science for artificial lift and facilities.

Course Program:

1. Basic Data Science – Introduction to operation alanalysis.
2. Artificial Lift – Key data and challenges.
3. Production Data – Sources and initial prep.
4. Practical Scripts – Using predefined code.
5. Operational Analysis – Techniques for field datasets.
6. Process Optimization – Solving common issues.
7. Practical Visualization – Graphics for quick decisions.
8. FieldCases – Applications in real facilities.
9. Value Extraction – Insights from operational data.
10. Workflows – Integration into daily operations.
11. Hands-On Exercises – Solving real cases.
12. Impact Assessment – Reviewing operational results.

Duration:

20 to 40 hours.

Introduction:

This course teaches how Data Science predicts unconventional well performance, blending predictive models, real cases, and ethical considerations to optimize outcomes.

Objectives:

Provide Data Science techniques to predict well performance, using advanced models while addressing ethics and future trends with practical examples.

Target Audience:

Reservoir and production engineers, and data scientists interested in predicting unconventional well performance.

Course Program:

1. Well performance – Key factors to predict
2. Introduction to Data Science – Basics of predictive analysis
3. Production data – Dataset preparation
4. Basic models – Building initial predictions
5. Advanced techniques – Modern algorithms for well analysis
6. Model validation – Accuracy assessment
7. Practical cases – Real well examples
8. Data visualization – Decision-support plots
9. Data Science ethics – Responsible use of predictions
10. Future trends – Advances in well performance forecasting
11. Applied exercises – Solving real-world problems
12. Operational integration – Use in daily workflows

Duration:

20 to 40 hours.

Introduction:

This advanced course trains engineers to interpret complex unconventional reservoir data, enhancing decision-making with integration methodologies and real-world analysis examples.

Objectives:

Teach advanced techniques to integrate pressure, rate, and formation data in unconventional reservoirs, optimizing analysis and performance with practical cases and interactive sessions.

Target Audience:

Reservoir engineers and geoscientists focused on analyzing complex data from unconventional reservoirs.

Course Program:

1. Reservoir data
2. Pressure integration
3. Rate interpretation – Production evaluation
4. Formation data – Key geological properties
5. Advanced methods – Combining complex datasets
6. Unconventional reservoirs
7. Data visualization – Plots for analytical insight
8. Real-world cases – Practical integration examples
9. Performance optimization – Data-driven strategies
10. Interactive sessions
11. Current tools – Reservoir software
12. Decision-making – Operational application of insights

Duration:

20 to 40 hours.

Introduction:

This course bridges Data Science and AI with geophysics, teaching scientists to analyze seismic and non-seismic data for optimized exploration with advanced techniques and practical examples.

Objectives:

Train participants in Data Science and AI to process geophysical data, predict lithologies, and enhance collaboration with geosciences using tools like TensorFlow and Keras.

Target Audience:

Data scientists and geophysicists interested in applying Data Science and AI to hydrocarbon and resource exploration.

Course Program:

1. Geophysical concepts – Fundamentals for data scientists
2. Data acquisition – Seismic and non-seismic methods
3. Basic processing – Cleaning geophysical data
4. Introduction to TensorFlow – Applications in geophysical analysis
5. Lithology classification – Prediction using AI
6. Data clustering – Geophysical segmentation
7. Deep Learning – CNNs for seismic interpretation
8. AVO/AVA analysis – Quantitative interpretation
9. Advanced visualization – Mapping with ScikitLearn
10. Practical cases – Applications in exploration
11. Collaboration with geosciences – Interdisciplinary teamwork
12. Future trends – Advances in geophysics through AI

Duration:

20 to 40 hours.

Introduction:

This course introduces petrophysicists to Python and Data Science/AI for well log analysis, offering practical tools and advanced techniques to optimize data interpretation.

Objectives:

Build skills in Python and Data Science/AI to process petrophysical data, predict properties, and apply machine learning in real cases using specialized libraries.

Target Audience:

Geologists, petrophysicists, and log analysts interested in analyzing well data with Python and Data Science/AI.

Course Program:

1. Introductory Python
2. Petrophysical data – Sources and initial handling
3. LASIO/WELLY libraries – Well log processing
4. Data cleaning – Preparation of petrophysical datasets
5. Visualization with Seaborn – Well log plotting
6. Basic statistics – Descriptive analysis of data
7. Event detection – Anomaly identification
8. Predictive models – Estimation of petrophysical properties
9. Introduction to AI – Applied to petrophysics
10. Introductory Machine Learning
11. Field cases – Exercises with real data
12. Workflows – Integration in petrophysical analysis
13. AI ethics – Considerations for predictive modeling

Duration:

20 to 40 hours.

Introduction:

This course explores how Machine Learning transforms geosciences, training professionals to analyze geophysical data and enhance exploration with modern tools and real examples.

Objectives:

Teach Machine Learning fundamentals and applications in geosciences, using open- source software to process geophysical data and optimize workflows with practical cases.

Target Audience:

Geologists, geophysicists, and petroleum engineers interested in applying Machine Learning to hydrocarbon exploration and development.

Course Program:

1. Machine Learning concepts – Introduction and geological relevance
2. Geophysical data – Sources and main characteristics
3. Weka software – Tool for ML analysis
4. Supervised learning – Predictions in geosciences
5. Unsupervised learning – Clustering of geological data
6. Seismic processing – Signal analysis using ML
7. Data interpolation – Completing geophysical traces
8. Fluid substitution – Reservoir modeling
9. Geological visualization – Maps with processed data
10. Real-world cases – Applications in exploration
11.  Workflow integration – ML in geophysical workflows
12. Practical exercises – Solving geological problems

Duration:

20 to 40 hours.

Introduction:

This practical course introduces Data Science, AI, and Machine Learning to oil and gas professionals, focusing on data analysis and operational optimization with Python and real- world cases.

Objectives:

Equip participants with Data Science, AI, and Machine Learning skills to analyze oil and gas data, optimize operations, and predict failures using Python and advanced techniques.

Target Audience:

Oil and gas engineers in operations, design, and monitoring interested in predictive analytics and optimization.

Course Program:

1. Introduction to Data Science and AI applied to the energy sector
2. Fundamentals of Machine Learning
3. Basic Python for operational data analysis
4. Data preparation
5. Descriptive statistics for preliminary analysis of field data
6. Predictive modeling to estimate critical parameters
7. Classification of processes and operational patterns
8. Data visualization with Matplotlib
9. Model evaluation using performance metrics
10. Industrial AI applications: real-world cases in oil and gas
11. Data-driven operations optimization
12. Automated failure detection in equipment

Duration:

20 to 40 hours.

Introduction:

Safe industrial maintenance is key to avoiding accidents and improving equipment reliability. This course provides strategies to reduce risks during maintenance tasks.

Objectives:

To train participants in safe maintenance practices, work planning, and asset management to reduce equipment failures and accidents.

Target Audience:

Maintenance technicians, reliability engineers, safety supervisors, and plant operators.

Course Program:

1. Fundamentals of safety in industrial maintenance
2. Applicable OSHA, ISO 55000, and NFPA standards
3. Asset management and its link to safety
4. LOTO procedures in maintenance activities
5. Risk identification in maintenance tasks
6. Safety in electrical, mechanical, and instrumentation maintenance
7. Inspection and monitoring of operational conditions
8. Digital tools for safe maintenance
9. Safe handling of lubricants and fluids
10. Protocols in high-risk areas
11. Preventive and predictive maintenance
12. Incident evaluation related to maintenance activities
13. Safety audits in maintenance operations
14. Failure cases due to poor practices
15. Practical workshop on safe maintenance planning

Duration:

20 to 40 hours.

Introduction:

Compliance with safety regulations is essential to reduce industrial risks. This course covers key international process safety regulations.

Objectives:

To train participants in the application and compliance of international standards, ensuring safe design and efficient operation of industrial processes.

Target Audience:

Safety managers, process engineers, auditors, and plant supervisors.

Course Program:

1. Introduction to process safety regulations
2. OSHA 1910.119: safe handling of hazardous substances
3. API 754: process safety performance indicators
4. NFPA 30 and 70: flammables and electrical systems
5. ANSIZ10 and ISO45001: safety and health management
6. Safe storage of chemical substances
7. Risk assessment according to regulatory frameworks
8. Emergency response and preparedness plans
9. Safety audits and certification
10. Monitoring using regulatory indicators
11. Management of change (MOC) under regulation
12. Real cases of non-compliance
13. Best practices for implementation
14. Regulatory audit workshop
15. Practical application in process safety

Duration:

20 to 40 hours.

Introduction:

Green hydrogen is a promising energy alternative, but it involves specific risks. This course teaches how to safely manage its production, storage, and transportation.

Objectives:

To train participants in the safe handling of green hydrogen and fuel cells, ensuring regulatory compliance and incident prevention.

Target Audience:

Renewable energy engineers, maintenance technicians, safety supervisors, and hydrogen plant operators.

Course Program:

1. Basic principles of first aid
2. Rapid assessment of victims in industrial environments
3. Cardiopulmonary resuscitation (CPR) techniques
4. Use of automated external defibrillators (AED)
5. Bleeding control and workplace wound management
6. Treatment of burns and chemical injuries
7. Management of fractures and sprains
8. Emergency procedures for choking
9. Handling exposure to toxic substances
10. Assessment and response to unconscious workers
11. Shock prevention and vital signs monitoring
12. Coordination with emergency services
13. Industrial emergency drills
14. OSHA and ANSI first aid standards
15. Practical workshop on CPR and AED

Duration: 

20 to 40 hours.

Introduction:

The use of ionizing and non-ionizing radiation in industry poses serious health risks. This course provides tools for protection and control of exposure.

Objectives:

To train participants in identifying radiation risks, safe use of radiation sources, and implementation of protection measures in industrial environments.

Target Audience:

Safety engineers, radiation protection technicians, industrial plant operators, and occupational medical personnel.

Course Program: Course Program:

1. Types of radiation and health effects
2. Industrial and medical sources of radiation
3. International regulations (ICRP, OSHA, ANSI)
4. Risk assessment for radiation exposure
5. Protection against ionizing radiation
6. Safety with X-rays and gamma radiation
7. Handling of radioactive materials
8. Safety in telecommunications and microwaves
9. Use of dosimeters and monitoring devices
10. Response to accidental exposure
11. Control of radioactive contamination
12. Evaluation of shielding barriers
13. Radiation incident case studies
14. Radiation protection programs
15. Practical workshop on measurement and control

Duration:

20 to 40 hours.

Introduction:

First aid and cardiopulmonary resuscitation (CPR) are essential in high-risk industrial environments. This course teaches how to respond to medical emergencies at the workplace.

Objectives:

To train participants in first aid techniques, CPR, and the use of automated external defibrillators (AED) to improve emergency response.

Target Audience:

Emergency response teams, operators, safety supervisors, and plant personnel.

Course Program:

1. Basic principles of first aid
2. Rapid victim assessment in industrial settings
3. Cardiopulmonary resuscitation (CPR) techniques
4. Use of automated external defibrillators (AED)
5. Bleeding control and workplace wound care
6. Treatment of burns and chemical injuries
7. Management of fractures and sprains
8. Emergency procedures for choking
9. Handling exposure to toxic substances
10. Assessment and response to unconscious workers
11. Shock prevention and vital signs monitoring
12. Coordination with emergency services
13. Industrial emergency drills
14. OSHA and ANSI first aid standards
15. Practical workshop on CPR and AED

Duration:

20 to 40 hours.

Introduction:

Improper industrial waste management can lead to severe environmental and health risks. This course addresses regulations and strategies for the proper handling and disposal of waste.

Objectives:

To train participants in safe segregation, transportation, and disposal of industrial and hazardous waste, ensuring regulatory compliance and environmental protection.

Target Audience:

Environmental engineers, safety supervisors, plant operators, and logistics personnel.

Course Program:

1. Management and classification of industrial waste
2. Key regulations: EPA, Basel, OSHA
3. Safe storage, labeling, and transportation
4. Physical, chemical, and biological treatment
5. Environmental impact and emission control
6. Safety in handling toxic waste
7. Contingency plans and emergency response
8. Technologies for treatment and recycling
9. Carbon footprint reduction
10. Audits and certifications
11. Real-world cases and lessons learned
12. Recycling and reduction programs
13. Environmental risk assessment
14. Regulatory compliance
15. Practical workshop on safe handling

Duration:

20 to 40 hours.

Introduction:

The food and beverage industry faces unique challenges in industrial safety. This course provides tools to minimize risks in the production, storage, and distribution of food products.

Objectives:

To train participants in hazard identification, implementation of Good Manufacturing Practices (GMP), and compliance with food safety regulations.

Target Audience:

Plant supervisors, quality control technicians, operators, and safety personnel in the food industry.

Course Program:

1. Introduction to safety in the food industry
2. Physical, chemical, and biological hazards in food
3. Key standards: ISO 22000, HACCP, FDA
4. Good Manufacturing Practices (GMP) and hygiene
5. Safe handling of raw materials and finished products
6. Prevention of cross-contamination and allergens
7. Safety in the use of food processing machinery
8. Ergonomics in production processes
9. Safe handling of chemicals and sanitizers
10. Emergency response in food plants
11. Fire and explosion prevention in the industry
12. Audits and certifications in food safety
13. Real-world contamination case analysis
14. In-plant food safety programs
15. Practical workshop on hygienic inspection and control

Duration:

20 to 40 hours.

Introduction:

Musculoskeletal injuries are one of the leading causes of workplace absenteeism. This course teaches ergonomic strategies to reduce risk and improve occupational health.

Objectives:

To train participants in ergonomic workplace design, prevention of musculoskeletal disorders, and safe manual handling techniques.

Target Audience:

Safety supervisors, occupational health professionals, ergonomists, and workers in industrial and office environments.

Course Program:

1. Basic principles of ergonomics applied to workplace safety
2. Identification of ergonomic risks in daily tasks
3. Factors causing musculoskeletal injuries
4. Proper design of workstations
5. Safe techniques for lifting and moving loads
6. Prevention of work-related musculoskeletal disorders
7. Assessment of posture and repetitive movements
8. Ergonomic tools and their application
9. Active breaks and preventive exercises
10. .Organizational ergonomic programs
11. Workplace audits from an ergonomic perspective
12. Technology supporting workplace well-being
13. Impact of stress and psychosocial factors
14. Practical cases of ergonomic improvement
15. Practical field workshop on ergonomic assessment

Duration:

20 to 40 hours.

Introduction:

The operation of pressure equipment and industrial piping requires strict safety measures to prevent explosions and hazardous leaks. This course covers standards, inspection, and safe maintenance practices.

Objectives:

To train participants in identifying risks in pressure systems, applying safety regulations, and implementing preventive and corrective maintenance strategies.

Target Audience:

Maintenance engineers, plant operators, safety supervisors, and inspection technicians.

Course Program:

1. Key safety concepts for pressure equipment and piping
2. Applicable standards (ASME, API 570, OSHA)
3. Common risks in boilers and pressure vessels
4. Basic inspection and monitoring methods
5. Safe operation and maintenance
6. Leak and failure prevention
7. Application of the LOTO procedure
8. Corrosion and fatigue detection
9. Safe use of valves and fittings
10. Emergency response to failures
11. Explosion prevention in tanks
12. Real accident analysis
13. Key audits and certifications
14. Practical industry cases
15. Practical workshop on safe inspection

Duration:

20 to 40 hours.

Introduction:

Industrial safety audits are essential for regulatory compliance. This course teaches how to conduct inspections and manage occupational safety certification processes.

Objectives:

To train participants in the planning, execution, and documentation of safety audits, ensuring continuous improvement and adherence to international standards.

Target Audience:

Safety auditors, quality managers, safety supervisors, and consultants.

Course Program:

1. Fundamentals of industrial safety audits
2. Applicable international standards (OSHA, ISO 45001, NFPA)
3. Types and scope of audits in industrial environments
4. Audit planning and preparation
5. Checklists and control questionnaires
6. Hazard identification and risk assessment
7. Interview techniques and evidence collection
8. Detection of non-conformities and reporting
9. Corrective and preventive action plans
10. Audits in industrial plants and refineries
11. Requirements and processes for safety certifications
12. Audit performance evaluation
13. Digital tools for monitoring and documentation
14. Success stories in industrial audits
15. Practical workshop on audit simulation

Duration:

20 to 40 hours.

Introduction:

Behavior-Based Safety (BBS) is an effective strategy to prevent workplace accidents. This course teaches how to influence attitudes and reinforce safe behaviors.

Objectives:

To train participants in identifying unsafe behaviors and applying strategies to improve the safety culture through observation and positive reinforcement.

Target Audience:

Safety managers, supervisors, team leaders, and HR personnel.

Course Program:

1. Fundamentals and principles of Behavior- Based Safety (BBS)
2. Role of the human factor in incident prevention
3. Observation and correction of unsafe behaviors
4. Behavioral psychology applied to safety
5. Designing BBS programs in industrial environments
6. Effective communication and feedback
7. Incident analysis linked to behavior
8. Barriers to changing unsafe habits
9. Positive reinforcement and behavioral incentives
10. Leadership and training in BBS safety
11. Indicators and evaluation of BBS programs
12. Reporting and managing risk behaviors
13. Organizational culture and its impact on BBS
14. Success stories in BBS implementation
15. Practical workshop on field application

Duration:

20 to 40 hours.

Introduction:

Transporting hazardous substances carries environmental and health risks. This course provides training on regulations and best practices for safe handling and transport.

Objectives:

To train participants in the safe handling of hazardous chemicals, ensuring regulatory compliance and reducing incidents in transport and storage.

Target Audience:

Hazardous goods drivers, cargo operators, safety supervisors, and logistics personnel.

Course Program:

1. UN identification and classification of hazardous substances
2. International regulations (ADR, DOT, IMDG)
3. Risk assessment in chemical transportation
4. Safe storage and segregation
5. Use of PPE when handling substances
6. Packaging inspection and labeling
7. Loading and unloading procedures
8. Safe transport of flammable and toxic gases
9. Response to leaks or spills
10. Fire prevention during transport
11. Monitoring and control of conditions
12. Regulatory compliance and audits
13. Accident analysis in chemical logistics
14. Emergency response simulations
15. Practical workshop on safe transportation

Duration:

20 to 40 hours.

Introduction:

Renewable energy systems pose specific industrial safety challenges. This course addresses the risks and controls involved in wind farms, solar plants, and green hydrogen production.

Objectives:

To train participants in hazard identification and the application of safety measures in the operation and maintenance of renewable energy facilities.

Target Audience:

Engineers, maintenance technicians, safety supervisors, and operational personnel in the renewable energy sector.

Course Program:

1. Safety in wind and solar energy
2. Hazards in renewable energy parks
3. Installation and maintenance of wind turbines
4. Electrical risks in solar systems and batteries
5. OSHA, IEC, and NFPA regulations
6. Falls during work at heights
7. Green hydrogen and lithium batteries
8. Fire control in renewable facilities
9. Safe operation of solar panels
10. Hazardous waste management
11. Rescue from elevated structures
12. Weather-related operational risks
13. On-site safety audits
14. Real-world cases and lessons learned
15. Practical workshop on prevention and control

Duration: 

20 to 40 hours.

Introduction:

Measuring the impact of safety training is essential to ensure the effectiveness of training programs. This course teaches methodologies to evaluate ROI in safety training.

Objectives:

To provide tools to measure the actual impact of safety training using key performance indicators and evaluation methodologies.

Target Audience:

Safety managers, training coordinators, safety auditors, and plant supervisors.

Course Program:

1. Importance of measuring safety impact
2. Evaluation methods for training programs
3. Key Performance Indicators (KPIs) in safety training
4. Models: Kirkpatrick, Phillips, and applied ROI
5. Data collection and post-training analysis
6. Evaluation of behavioral change
7. Surveys and audits to assess effectiveness
8. Link between training and incident reduction
9. Benchmarking against industry standards
10. Digital tools for impact measurement
11. Factors affecting learning effectiveness
12. Presenting results to management
13. Real-world cases of impact measurement
14. Strategies for continuous improvement
15. Practical workshop on impact evaluation

Duration:

20 to 40 hours.

Introduction:

Arc flashes are one of the leading causes of electrical accidents in industry. This course equips participants with tools to identify, prevent, and mitigate arc flash hazards.

Objectives:

To train in the identification of electrical hazards, use of appropriate protective equipment, and application of safety standards to prevent arc flash incidents.

Target Audience:

Electrical engineers, maintenance technicians, plant operators, and safety supervisors.

Course Program:

1. Introduction to arc flash and its hazards
2. Factors causing arc flash events
3. NFPA 70E, IEEE 1584, and OSHA regulations
4. Prevention methods for electrical work
5. Classification of electrical hazard zones
6. Use of PPE for arc flash protection
7. Electrical hazard analysis and modeling
8. Safe procedures for energized systems
9. Inspection of panels and transformers
10. Overcurrent protection and fast disconnection
11.  Evaluation of electrical incidents and failures
12. Response to arc flash accidents
13. Electrical safety audits and certification
14. Real-world cases and lessons learned
15. Practical workshop with specialized protective equipment

Duration:

20 to 40 hours.

Introduction:

Industrial operations may involve dangerous conditions where effective evacuation and rescue procedures are essential. This course provides advanced strategies for these scenarios.

Objectives:

To train participants in the planning and execution of safe evacuations, as well as in rescue techniques across various industrial environments.

Target Audience: 

Emergency brigades, safety supervisors, high- risk area operators, and emergency response personnel.

Course Program: 

1. Principles of industrial evacuation and rescue
2. Emergencies requiring evacuation
3. Procedures in industrial plants
4. Factors affecting safety during evacuations
5. Escape routes and assembly points
6. Evacuation from heights and confined spaces
7. Rescue equipment and assisted evacuation
8. Coordination with emergency services
9. Rescue in high-risk situations
10. Response time evaluation
11. Planning effective evacuation drills
12. Psychological factors during evacuation
13. Audit and improvement of existing plans
14. Real incident analysis and lessons learned
15. Practical workshop on evacuation and rescue

Duration:

20 to 40 hours.

Introduction:

Emergency brigades play a key role in responding to incidents in industrial facilities. This course provides training on the organization, equipment, and performance of response teams.

Objectives:

To train highly skilled emergency brigades capable of acting in fires, chemical spills, rescues, and other critical events in the industry.

Target Audience:

Emergency brigade members, safety supervisors, maintenance staff, and industrial operators.

Course Program:

1. Role and importance of emergency response teams
2. Applicable OSHA, NFPA, and local regulations
3. Organization and roles within the emergency team
4. Types of emergencies in industrial plants
5. Personal protective equipment (PPE) for responders
6. Evacuation and rescue procedures
7. Safe intervention during fires
8. Handling of hazardous substances and spills
9. Coordination with firefighters and civil defense
10. Use of communication equipment during crises
11. Leadership in emergency situations
12. Simulation of critical scenarios
13. Auditing and ongoing training
14. Emergency performance evaluation
15. Practical workshop on intervention and rescue

Duration:

20 to 40 hours.

Introduction:

Emergency preparedness is essential in industrial safety management. This course teaches how to plan, execute, and evaluate effective emergency drills.

Objectives:

To train participants in organizing emergency drills to ensure personnel respond effectively

during critical incidents.

Target Audience:

Emergency brigades, safety managers, supervisors, and operations staff.

Course Program:

1. Fundamentals of emergency planning
2. Risk identification and critical scenarios
3. Drill regulations (OSHA, NFPA, ISO)
4. Types of drills and industrial applications
5. Development of contingency plans
6. Response time and performance evaluation
7. Crisis communication strategies
8. Use of protective and rescue equipment
9. Coordination with external agencies
10. Drills in confined spaces and critical areas
11. Strategies to improve effectiveness
12. Post-drill analysis and corrective improvements
13. Application in oil, chemical, and mining industries
14. Real-world emergency management cases
15. Practical workshop on plant emergency drills

Duration:

20 to 40 hours.

Introduction:

The storage and processing of natural gas and LNG present specific risks requiring rigorous controls. This course covers safety measures to minimize incidents in gas facilities.

Objectives:

To train participants in hazard identification in gas and LNG plants, ensuring regulatory compliance and implementing fire and explosion prevention strategies.

Target Audience:

Process engineers, safety technicians, gas plant operators, and maintenance personnel.

Course Program:

1. Properties of natural gas and LNG
2. Storage and transportation risks
3. International regulations (NFPA, API, OSHA)
4. Containment and tank safety
5. Evaluation of explosive atmospheres
6. Safe loading and unloading of LNG
7. Handling and transport of compressed gas
8. Leak detection and monitoring
9. Fire suppression in gas facilities
10. Safety in cryogenic equipment
11. Emergency management in gas installations
12. Audits and regulatory compliance
13. Incident analysis in gas and LNG plants
14. Contingency response plans
15. Practical workshop on leak and explosion simulation

Duration:

20 to 40 hours.

Introduction:

The use of explosives in mining and oil drilling requires strict safety controls. This course teaches proper procedures for storage, handling, and safe detonation.

Objectives: 

To train participants in identifying risks related to explosive handling, ensuring regulatory compliance, and applying control measures in industrial operations.

Target Audience:

Mining engineers, drillers, explosives technicians, safety supervisors, and emergency response teams.

Course Program:

1. Types of explosives in industry
2. International regulations: OSHA, ATF, MSHA
3. Safe storage and transportation
4. Controlled loading and detonation
5. Risk assessment in blasting operations
6. Use of electronic and conventional detonators
7. Personal protective equipment (PPE)
8. Mitigation of vibrations and shock waves
9. Safety in tunnels and confined spaces
10. Response to detonation failures
11. Incident analysis due to mishandling
12. Evacuation and contingency plans
13. Explosive operations audits
14. Best practices in mining and oil industries
15. Practical workshop on blasting simulation

Duration:

20 to 40 hours.

Introduction:

Personnel transportation in industrial and oilfield environments involves risks that require proper management. This course addresses safety measures to minimize accidents during worker transport.

Objectives:

To train participants in the safe operation of vehicles under adverse conditions, regulatory compliance, and implementation of controls to reduce road incidents.

Target Audience:

Industrial drivers, safety supervisors, logistics personnel, and transport operators.

Course Program:

1. Risk factors in personnel transportation
2. International regulations: DOT, OSHA, ISO 39001
3. Safety requirements by vehicle type
4. Safe driving in industrial and oilfield zones
5. Route and journey risk assessment
6. Fleet inspection and preventive maintenance
7. Use of seatbelts and restraint systems
8. Fatigue management and driver distraction prevention
9. Safe transport of hazardous materials 
10. Procedures for road accidents
11. Emergency plans for industrial routes
12. Incident analysis and lessons learned
13. Fleet audits and corporate control
14. Driver training simulations
15. Practical workshop on safe driving and emergency response

Duration:

20 to 40 hours.

Introduction:

Improper handling of hazardous waste and toxic substances can lead to environmental and health risks. This course addresses safe management and regulatory compliance.

Objectives:

To train participants in the correct segregation, storage, transportation, and disposal of hazardous waste, minimizing health and environmental impacts.

Target Audience:

Environmental engineers, safety supervisors, industrial plant operators, and logistics personnel.

Course Program:

1. Introduction to hazardous waste management
2. Waste classification according to hazard level
3. International regulations: EPA, OSHA, Basel Convention
4. Segregation and safe storage
5. Transport and traceability of waste
6. Treatment techniques and final disposal
7. Safe handling of toxic substances
8. Environmental impact and mitigation strategies
9. Emission control and environmental monitoring
10. Risk assessment in waste handling
11. Spill and leak response
12. Audits and regulatory compliance
13. Management plans in industrial settings
14. Real-world cases of mismanagement and consequences
15. Practical workshop on safe handling and

Duration:

20 to 40 hours.

Introduction:

Chemical and petrochemical plants handle hazardous substances that require specific safety protocols. This course covers risks and prevention strategies in these environments.

Objectives:

To train participants in the safe handling of chemicals, risk identification, and application of regulations to protect personnel and the environment.

Target Audience:

Process engineers, safety supervisors, plant operators, and emergency response teams.

Course Program:

1. Introduction to safety in the chemical and petrochemical industry
2. Hazard identification and risk assessment
3. Safe handling and storage of chemicals
4. Transport of hazardous substances
5. Spill containment and prevention
6. Atmosphere evaluation and gas monitoring
7. Fire and explosion prevention
8. Proper use of chemical PPE
9. Emergency response to chemical incidents
10. Safety in facility maintenance
11. Control of emissions and hazardous waste
12. Applicable OSHA, EPA, and NFPA regulations
13. Safety inspections and audits
14. Real-world accident cases and lessons learned
15. Practical workshop on chemical incident response

Duration: 20 to 40 hours.

Introduction:

Industrial construction and assembly involve significant risks. This course provides strategies to ensure safety in these environments.

Objectives:

To provide tools for accident prevention in construction and assembly projects, in compliance with regulations and best safety practices.

Target Audience: 

Construction supervisors, safety engineers, construction workers, and industrial maintenance personnel.

Course Program:

1. Introduction to construction and assembly safety
2. OSHA and NFPA regulations in industrial worksites
3. Risk assessment in construction projects
4. Proper use of PPE in construction
5. Scaffold and platform safety
6. Fall prevention on elevated structures
7. Safe handling of hand and power tools
8. Traffic control and on-site signage
9. Lifting and handling of heavy loads
10. Excavation and trenching safety
11. Safe handling of chemicals and flammable materials
12. Emergency and evacuation plans for construction sites
13. Waste management and environmental control
14. Accident cases and prevention strategies
15. Practical workshop on industrial assembly safety

Duration:

20 to 40 hours.

Introduction:

Working at heights poses serious fall risks. This course provides techniques and regulations to prevent accidents during elevated tasks.

Objectives:

To train participants in risk identification, correct selection and use of fall protection equipment, and the application of safe procedures for working at heights.

Target Audience:

Construction workers, maintenance technicians, safety supervisors, and rescue brigades.

Course Program:

1. 1. Fundamentals of working-at-height safety
   2. Applicable OSHA, ANSI, and NFPA standards
   3. Risk assessment for elevated work
   4. Fall protection systems
   5. Proper use of harnesses and lifelines
   6. Inspection and maintenance of PPE
   7. Safety on lifts and ladders
   8. Fall prevention in industrial structures
   9. Anchoring procedures and lifeline systems
   10. Safety on roofs, scaffolding, and towers
   11. Rescue protocols in the event of a fall
   12. Working-at-height simulations
   13. Incident analysis and lessons learned
   14. Height work audits and certifications
   15. Practical workshop on personal protective equipment use

Duration:

20 to 40 hours.

Introduction:

Lockout/Tagout (LOTO) is a critical procedure to prevent accidents during operation and maintenance of industrial equipment. This course covers its proper implementation.

Objectives:

To train participants in identifying hazardous energy sources and applying lockout/tagout procedures to protect workers from unexpected equipment startup.

Target Audience:

Maintenance technicians, plant operators, safety supervisors, and electrical personnel.

Course Program:

1. Introduction to hazardous energies
2. Importance of the LOTO procedure
3. OSHA 1910.147 and NFPA regulations
4. Identification of energy sources (electrical, mechanical, etc.)
5. Lockout devices and their proper use
6. Step-by-step lockout/tagout procedures
7. Roles and responsibilities of personnel
8. LOTO training and certification
9. Controlling multiple energy sources in team operations
10. Audits and inspections of LOTO procedures
11. Checklists for safe task execution
12. Promoting a safety culture in LOTO practices
13. Real-world failures and accident cases
14. Simulations and incident response
15. Practical lockout/tagout workshop

Duration:

20 to 40 hours.

Introduction:

Working in confined spaces involves risks such as asphyxiation, intoxication, and entrapment. This course provides tools for hazard identification and the application of safe work procedures.

Objectives:

To train participants in confined space risk management, including gas monitoring, work permits, and emergency rescue.

Target Audience:

Maintenance technicians, emergency brigades, safety supervisors, and industrial operators.

Course Program:

1. 1. Introduction to confined spaces and their risks
   2. Key regulations: OSHA 1910.146 and NFPA
   3. Identification and classification of confined spaces
   4. Hazardous atmosphere assessment (gas monitoring)
   5. Permit-to-work systems in confined spaces
   6. Proper use of PPE
   7. Ventilation and atmosphere control
   8. Safe entry and exit procedures
   9. Safety in the presence of liquids and gases
   10. Communication and supervision in critical tasks
   11. Prevention of entrapments and collapses
   12. Rescue and evacuation procedures
   13. Rescue equipment and first aid
   14. Real-world cases and lessons learned
   15. Practical workshop on entry and rescue

Duration:

20 to 40 hours.

Introduction:

Lifting operations and heavy load handling require strict safety measures. This course covers the selection, inspection, and safe use of cranes and lifting equipment.

Objectives: 

To train participants in the safe operation of cranes and lifting systems, minimizing the risk of accidents and ensuring regulatory compliance.

Target Audience:

Crane operators, safety supervisors, maintenance personnel, and logistics staff.

Course Program: 

1. Fundamentals of lifting safety
2. Types of lifting equipment and their uses
3. Applicable OSHA and ANSI regulations
4. Load capacity calculation and safety factors
5. Crane inspection and maintenance
6. Risk assessment prior to lifting operations
7. Proper use of slings, hooks, and accessories
8. Communication and hand signals in lifting
9. Load balance and stability control
10. Safety near power lines
11. Accident prevention for tip-over or dropped loads
12. Emergency response for lifting failures
13. Real-world incident cases and lessons learned
14. Best practices in lift planning
15. Practical workshop on safe crane operations

Duration:

20 to 40 hours.

Introduction:

Welding and cutting operations pose fire and explosion hazards. This course teaches safe procedures to minimize these risks and comply with international standards.

Objectives:

To train participants in risk identification and the application of safety protocols in hot work, ensuring the protection of personnel and facilities.

Target Audience:

Welders, maintenance technicians, safety supervisors, and industrial operators.

Course Program:

1. Introduction to hot work and associated risks
2.  Safety regulations in welding and cutting (OSHA, NFPA)
3. Hot Work Permits
4. Control of ignition sources in industrial areas
5. Safety procedures before, during, and after hot work
6. Use of personal protective equipment (PPE) for hot work
7. Safe handling and storage of gas cylinders
8. Ventilation systems and fume control
9. Fire and explosion prevention methods
10. Protection against sparks and molten material
11. Risk evaluation in confined spaces with hot work
12. Emergency procedures in case of incidents
13. Case studies of hot work failures and lessons learned
14. Inspection and maintenance of welding and cutting equipment
15. Practical workshop on safe hot work operations

Duration:

20 to 40 hours.

Introduction:

The use of lithium batteries and energy storage systems requires safe handling to prevent fires, explosions, and electrical failures. This course addresses related risks and control measures.

Objectives:

To train participants in the safe handling, storage, and maintenance of lithium batteries and energy systems, minimizing the risks of overheating and fires.

Target Audience:

Electrical engineers, maintenance staff, warehouse operators, renewable energy specialists, and industrial safety personnel.

Course Program:

1. Introduction to lithium batteries and their uses
2. Risks associated with handling and operation
3. Applicable international safety regulations
4. Safe storage of lithium batteries
5. Fire protection in battery storage facilities
6. Safe transport and handling of batteries
7. Safe use in industrial systems and renewable energy
8. Charging and discharging with safe practices
9. PPE and safety measures for operators
10. Environmental management and waste disposal
11. Monitoring and fault diagnosis
12. Real-world failure cases and key lessons
13. Incident response involving batteries
14. Safety audits in facilities
15. Practical workshop on handling and failure response

Duration:

20 to 40 hours.

Introduction:

Lightning protection and grounding systems are essential for safety in industrial facilities. This course covers international regulations and best practices.

Objectives:

To train participants in the design, installation,

and maintenance of grounding and lightning protection systems in accordance with international standards.

Target Audience: 

Electrical engineers, maintenance technicians, industrial safety specialists, and operators in electrically hazardous environments.

Course Program:

1. Introduction to lightning protection
2. Standards: NFPA 780, IEEE 80, IEC 62305
3. Components of the protection system
4. Risk assessment and facility classification
5. Methods: lightning rods, cages, and meshes
6. Grounding system design and installation
7. Measurement with ground resistance testers
8. Surge protection
9. Standards for electronic and telecommunications equipment
10. Inspection and maintenance of protection systems
11. Safety in installation and operation
12. Real-world cases of grounding system failures
13. Prevention in industrial environments
14. Certification and compliance
15. Practical workshop on measurement and evaluation

Duration: 

20 to 40 hours.

Introduction:

Proper hazardous area classification is essential to prevent explosions in industrial environments. This course covers ATEX regulations and their application across industries.

Objectives: 

To train participants in identifying, classifying, and controlling explosive risk areas, ensuring compliance with ATEX and IEC 60079 standards.

Target Audience: 

Electrical engineers, maintenance technicians, safety personnel, and operators working in explosive risk environments.

Course Program:

1. Introduction to ATEX regulations
2. Differences between ATEX 137 and ATEX 95
3. Classification of hazardous zones (0, 1, 2, 20, 21, 22)
4. Ignition sources and prevention
5. Electrical and mechanical equipment in ATEX areas
6. Protection methods: intrinsic safety, encapsulation, etc.
7. Inspection and maintenance in explosive zones
8. Risk assessment in classified areas
9. Complementary standards (IEC 60079, NFPA 70, NEC)
10. Explosion prevention and control
11. Audits and regulatory compliance
12. Emergency procedures in ATEX zones
13.  Real-world cases and incident analysis
14. ATEX safety in risk management
15. Practical workshop on hazardous area classification

Duration:

20 to 40 hours.

Introduction:

Continuous improvement is essential in safety management. This course provides tools to identify optimization opportunities and maintain high standards in industrial safe

Objectives:

To train participants in the application of continuous improvement methodologies in safety, promoting a proactive approach to accident prevention and regulatory compliance.

Target Audience:

Safety managers, plant supervisors, process engineers, and safety auditors.

Course Program:

1. Fundamentals of continuous improvement in safety
2. Identifying improvement opportunities
3. Tools such as PDCA, Kaizen, and Lean Safety
4. Integrating safety into operational management
5. Root cause analysis to reduce risks
6. Use of KPIs in continuous improvement processes
7. Audits and reviews for optimization
8. Training and staff awareness
9. Employee engagement in improvement initiatives
10. Innovation and technology in industrial safety
11. Change management in safety initiatives
12. Successful cases of continuous improvement
13. Human factor impact on improvement
14. Evaluation of implemented results
15. Practical workshop to develop an improvement plan

Duration:

20 to 40 hours.

Introduction:

Industrial safety requires leadership and effective communication. This course develops skills to foster a safety culture within organizations.

Objectives:

To train participants in safety leadership, strengthening their ability to influence teams and promote a risk prevention culture.

Target Audience:

Safety managers, supervisors, operations leaders, and team leaders.

Course Program:

1. Introduction to safety leadership
2. .Importance of safety culture in organizations
3. Characteristics of a safety leader
4. Effective communication in safety management
5. Methods to foster team commitment
6. Strategy development for improving safety culture
7. How to influence safe behavior among workers
8. Conflict resolution in safety management
9. Use of story telling in industrial safety
10. Coaching and mentoring for safety leadership
11. Measuring the impact of safety leadership
12. Implementation of recognition and motivation programs
13. Evaluation of organizational safety climate
14. Case studies of successful safety leadership
15. Practical workshop on effective communication and safety leadership

Duration:

20 to 40 hours.

Introduction:

Safety audits and inspections are essential tools for accident prevention. This course provides methodologies for evaluating compliance with safety regulations and standards.

Objectives:

To train participants in planning, executing, and analyzing safety audits and inspections, ensuring regulatory compliance and continuous improvement.

Target Audience:

Safety auditors, plant supervisors, process engineers, and compliance officers.

Course Program:

1. Introduction to safety audits and inspections
2. Differences between internal and external audits
3. Applicable regulations and standards (OSHA, API, NFPA)
4. Planning and preparation for safety audits
5. Checklists and inspection tools
6. Hazard identification and risk assessment
7. Findings analysis and reporting non- conformities
8. Implementation of corrective action plans
9. Best practices for conducting audits
10. Use of technology in audits and inspections
11. Human factors in safety evaluations
12. Follow-up and verification of implemented improvements
13. Case studies of successful audits
14. Safety audit simulations in industrial environments
15. Practical workshop on inspections in industrial settings

Duration:

20 to 40 hours.

Introduction:

Behavior-Based Safety (BBS) is a key strategy to reduce incidents. This course teaches how to develop effective programs that promote a strong safety culture.

Objectives:

To train participants in identifying and modifying risky behaviors through the implementation of BBS programs in the workplace.

Target Audience:

Safety managers, plant supervisors, safety auditors, and team leaders.

Course Program:

1. Introduction to behavior-based safety
2. Principles of psychology applied to safety
3. Identification of at-risk behaviors in the workplace
4. Observation methodologies and positive feedback
5. Development of BBS safety programs
6. Implementation of behavioral intervention strategies
7. Organizational factors influencing safety
8. Staff training and awareness in BBS
9. Measuring the impact of safety programs
10. Use of technology in behavior-based safety
11. Integration of BBS into safety management systems
12. Evaluation of BBS program effectiveness
13. Best practices for BBS implementation
14. Case studies of successful BBS programs
15. Practical workshop on observation and correction of unsafe behaviors

Duration:

20 to 40 hours.

Introduction:

Hydrocarbon and chemical spills can cause serious environmental and economic damage. This course trains participants in effective response strategies to such incidents.

Objectives:

To provide knowledge on the prevention, control, and response to hydrocarbon spills, applying environmental regulations and impact mitigation strategies.

Target Audience:

Personnel in safety, environment, operations, emergency response teams, and supervisors in the oil and chemical industries.

Course Program:

1. Introduction to major incident management
2. Types of spills and their environmental impacts
3. Risk assessment for hydrocarbon spills
4. Emergency response plans for environmental incidents
5. Containment and recovery techniques
6. Equipment and materials for spill response
7. International environmental regulations (OSHA, EPA, MARPOL)
8. Soil and water cleanup and recovery methods
9. Hazardous waste management after a spill
10. Coordination with regulatory authorities and agencies
11. Human and organizational factors in crisis management
12. Case studies: historical spills and lessons learned
13. Contingency plan audits and inspections
14. Spill response scenario simulations
15. Practical workshop on barrier deployment and containment

Duration:

20 to 40 hours.

Introduction:

Lightning strikes can cause electrical failures and fire hazards in industrial and energy facilities. This course teaches how to design and implement effective lightning protection systems.

Objectives:

To train participants in identifying and mitigating the effects of lightning using applicable protection standards and methods.

Target Audience:

Electrical engineers, maintenance technicians, industrial safety personnel, and workers in high-risk facilities.

Course Program:

1. Introduction to lightning and associated risks
2. Impact of lightning on industrial infrastructures
3. Design of lightning protection systems(LPS)
4. NFPA 780, IEC 62305, and IEEE Std 80 standards
5. Protection methods: lightning rods, meshes, and Faraday cages
6. Risk assessment and facility categorization
7. Protection of sensitive electrical and electronic equipment
8. Mitigation of transient over voltage
9. Grounding system design and installation
10. Ground resistance measurement and monitoring techniques
11. Safety in explosive atmospheres and lightning events
12. Case studies of lightning protection failures
13. Inspection and maintenance of protection systems
14. Testing and certification of grounding and lightning systems
15. Practical workshop on protection system design and evaluation

Duration:

20 to 40 hours.

Introduction:

Working in explosive atmospheres requires certified equipment and specific safety procedures. This course covers proper handling and operation in these environments.

Objectives:

To train participants in the safe handling of electrical and mechanical equipment in ATEX zones, minimizing ignition and explosion risks.

Target Audience:

Electrical engineers, maintenance technicians, safety supervisors, and operators in explosion-risk zones.

Course Program:

1. Introduction to explosive atmospheres
2. Classification of ATEX zones (0, 1, 2, 20, 21, 22)
3. Hazards of flammable gases and combustible dusts
4. Equipment protection methods in explosive atmospheres
5. ATEX, IEC 60079, and NFPA 70 (NEC) standards
6. Installation and maintenance of ATEX electrical equipment
7. Protection against static and electric discharges
8. Work procedures in explosive environments
9. Safe handling of flammable substances
10. Ventilation and dilution of flammable gases
11. Personal protective equipment (PPE) in ATEX zones
12.  Inspection and safety audits in hazardous areas
13. Emergency management in explosive atmospheres
14. Real case studies and lessons learned
15. Practical workshop on safe operation in explosive atmospheres

Duration:

20 to 40 hours.

Introduction:

Water and industrial waste treatment plants handle hazardous substances requiring strict safety protocols. This course provides tools for the safe management of these processes.

Objectives:

To train participants in the safe handling of chemicals, incident prevention, and regulatory compliance in water and waste treatment facilities.

Target Audience:

Environmental engineers, treatment plant operators, safety supervisors, and maintenance technicians.

Course Program:

1. Introduction to safety in treatment plants
2. Risks in water treatment processes
3. Safe handling of chemical products
4. Spill and contamination prevention
5. Safety in the use of chlorine, ammonia, and disinfectants
6. Storage and segregation of chemical substances
7. PPE for plant operators
8. Toxic gas control in treatment processes
9. Safety in confined spaces
10. Environmental and safety regulations
11. Risks in handling sludge and solid waste
12. Safe operation of pumps, valves, and pipelines
13. Audits and safety condition monitoring
14. Real-world cases and preventive measures
15. Practical workshop on safety protocols

Duration:

20 to 40 hours.

Introduction:

Mining operations pose unique risks requiring specialized safety measures. This course covers accident prevention in surface and underground mining environments.

Objectives:

To provide knowledge for identifying and mitigating mining-related risks, including explosives handling, hazardous atmospheres, and collapse protection.

Target Audience:

Mining engineers, safety supervisors, machinery operators, and maintenance personnel.

Course Program:

1. Introduction to mining safety
2. Risks in surface and underground mining operations
3. Personal protective equipment (PPE) in mining
4. Safety in handling and use of explosives
5. Collapse prevention and slope stability
6. Fire prevention in mines
7. Ventilation and control of hazardous atmospheres
8. Safe handling of heavy equipment and mining machinery
9. Evacuation and rescue procedures in mines
10. Fuel and lubricant storage safety
11. Mining safety regulations and standards
12. Waste management and environmental protection in mining
13. Vibration monitoring and geotechnical risk assessment
14. Case studies of mining accidents and lessons learned
15. Practical workshop on mining safety measures

Duration:

20 to 40 hours.

Introduction:

The use of industrial gases requires strict safety controls. This course addresses best practices for the safe handling and storage of these substances.

Objectives:

To teach proper techniques for handling industrial gases, leak prevention, and emergency response to minimize explosion and toxicity risks.

Target Audience:

Plant operators, maintenance technicians, safety personnel, and industrial logistics staff.

Course Program:

1. Types and characteristics of industrial gases
2. Hazard identification for each gas type
3. Safety regulations for gas handling
4. Safe transportation and storage of gas cylinders
5. Cylinder connection and disconnection procedures
6. Leak detection and hazardous gas monitoring
7. Ventilation and risk mitigation in storage areas
8. Personal protective equipment (PPE)and safety measures
9. Emergency protocols for leaks and spills
10. Fire suppression and control in storage areas
11. Chemical compatibility and gas segregation
12. Safety in the use of cryogenic and pressurized gases
13. Incident analysis from improper gas handling
14. Audits and regulatory compliance in industrial facilities
15. Practical workshop on gas detection and safe handling

Duration:

20 to 40 hours.

Introduction:

Safety Integrity Level (SIL) is a key factor in the implementation of Safety Instrumented Systems (SIS). This course covers the evaluation, design, and certification of functional safety systems.

Objectives:

To train participants in the assessment and application of SIL standards, ensuring that control and protection systems meet industrial safety requirements.

Target Audience:

Control, instrumentation, process, safety, and industrial maintenance engineers.

Course Program:

1. Introduction to functional safety and SIL
2. IEC 61508 and IEC 61511 standards for process safety
3. Safety Instrumented Systems (SIS)
4. Risk assessment and determination of required SIL
5. Risk analysis methods (LOPA, HAZOP, HAZID)
6. Control system architectures with SIL
7. Calculation of Probability of Failure on Demand (PFD)
8. Testing and maintenance of SIL-rated systems
9. Human factors in SIL implementation
10. Validation and certification of SIS
11. Mechanical integrity and reliability of critical equipment
12. Performance evaluation of safety systems
13. Best practices in SIL instrumentation selection
14. Real case studies of SIL system failures and lessons learned
15. Practical workshop on SIL assessment in control systems

Duration: 

20 to 40 hours.

Introduction: 

Hydrogen sulfide (H₂S) is highly toxic and lethal even at low concentrations. This course provides essential knowledge for the prevention, detection, and response to exposure to H₂S and other hazardous gases.

Objectives: 

To teach how to identify risks associated with H₂S and other toxic gases, apply control measures, and use proper personal protective equipment.

Target Audience: 

Workers in the oil, chemical, and mining industries, emergency response teams, and industrial safety personnel.

Course Program:

1. Properties and hazards of hydrogen sulfide (H₂S)
2. Health effects and toxicity levels
3. Exposure limits according to OSHA, ACGIH, and NIOSH
4. Detection and monitoring of H₂S and toxic gases
5. Respiratory protective equipment (SCBA, filters)
6. Evacuation procedures in case of H₂S leaks
7. Safety in areas with potential H₂S presence
8. Ventilation and mitigation of toxic gases
9. Emergency plans and response to exposure
10. Applicable H₂S regulations and standards
11. Safety in confined spaces with H₂S
12. Neutralization methods in industrial processes
13. Use of fixed and portable gas detectors
14.  Evacuation and rescue drills

15. Duración:

    8 a 16 horas.

    Practical workshop on detection and respiratory PPE use

Duration:

20 to 40 hours.

Introduction:

Lightning strikes and inadequate grounding can lead to catastrophic risks in industrial facilities. This course covers principles, regulations, and best practices for grounding and lightning protection systems.

Objectives:

To train participants in the design, inspection, and maintenance of grounding and lightning protection systems, minimizing electrical risks and infrastructure damage.

Target Audience:

Electrical engineers, maintenance technicians, safety specialists, and industrial plant supervisors.

Course Program:

1. Introduction to lightning and associated risks
2. Impact of lightning on industrial facilities
3. International standards for lightning protection (NFPA 780, IEC 62305)
4. Components of a Lightning Protection System (LPS)
5. Risk assessment and facility categorization
6. Protection methods: lightning rods, grids, Faraday cages
7. Grounding system design and installation (IEEE Std 80)
8. Ground resistance measurement and use of ground testers
9. Protection against transient and steady overvoltages
10. Inspection and maintenance of grounding systems
11. Protection of electronic and telecommunications equipment
12. Safety in explosive atmospheres and lightning
13. Case studies: failures in grounding systems
14. Testing and certification of lightning protection systems

15. Duración:

    8 a 16 horas.

    Introducción:

    Las descargas atmosféricas y la falta de una correcta puesta a tierra pueden generar riesgos catastróficos en instalaciones industriales. Este curso cubre los principios, normativas y buenas prácticas en estos sistemas.

    Objetivos del curso:

    Capacitar a los participantes en el diseño, inspección y mantenimiento de sistemas de puesta a tierra y protección contra rayos, minimizando riesgos eléctricos e impactos en la infraestructura.

    Dirigido a:

    Ingenieros eléctricos, técnicos de mantenimiento, especialistas en seguridad y supervisores de plantas industriales.

    Programa:

    1. 1.Introducción a las descargas atmosféricas y sus riesgos
    2. 2.Efectos de rayos en instalaciones industriales
    3. 3.Normativasinternacionales(NFPA780, IEC

    62305)

    1. Elementos clave de un sistema de protección contra rayos (SPL)
    2. 5.Evaluaciónderiesgosyclasificaciónde instalaciones
    3. 6.Métodosdeprotección:pararrayos,mallas, jaulas de Faraday
    4. Diseño e instalación de puesta a tierra (IEEE Std 80)
    5. 8.Mediciónderesistenciacontelurómetrosy controldesobretensiones
    6. 9.Inspecciónymantenimientodesistemasde tierra
    7. 10.Protección de equipos electrónicos y de telecomunicaciones
    8. 11.SeguridadenzonasATEXantedescargas atmosféricas
    9. 12.Casosrealesdefallasensistemasdepuesta atierra
    10. 13.Pruebasycertificacióndesistemasde protección
    11. Taller práctico: instalación y medición de puesta a tierra

    Practical workshop on grounding installation andmeasurement

Duration:

20 to 40 hours.

Introduction:

Explosive atmospheres are a latent hazard in many industries. This course provides tools to prevent and control these risks through international standards and mitigation strategies.

Objectives:

To teach how to identify, classify, and control explosive risk zones in accordance with international standards, ensuring safety in industrial operations.

Target Audience:

Electrical engineers, maintenance personnel, safety supervisors, and industrial facility designers.

Course Program:

1. Introduction to explosive atmospheres
2. ATEX zone classification (0, 1, 2, 20, 21, 22)
3. Ignition sources in industrial environments
4. ATEX, IEC 60079, and NFPA 70 standards
5. Safe design of Ex electrical equipment
6. Protection methods (Ex d, e, i)
7. Risk assessment and mitigation
8. Inspection and maintenance in ATEX zones
9. Ventilation and control of flammable gases
10. Safe handling of flammable substances
11. Protection against static electricity and lightning
12. Emergency plans for explosion scenarios
13. Audits and regulatory compliance
14. Real-world cases and key learnings
15. Practical ATEX classification workshop

Duration:

20 to 40 hours.

Introduction:

Fires and explosions represent critical threats in industry. This course covers prevention, detection, and control strategies to minimize risks and respond effectively to such events.

Objectives:

To train participants in the identification of fire and explosion hazards, applying regulations and best practices for their control and mitigation.

Target Audience:

Process engineers, safety supervisors, maintenance personnel, and emergency response teams.

Course Program:

1. Fire fundamentals: theory and propagation
2. Types of industrial fires and explosions
3. Fire risk assessment in industrial plants
4. Hazardous area classification (ATEX, NFPA 70)
5. Fire detection and alarm systems
6. Fire and explosion prevention methods
7. Fire suppression systems (water, foam, CO₂)
8. Fire safety standards and regulations (NFPA, API)
9. Safe handling and storage of flammable materials
10. Ignition source control in hazardous areas
11. Fire and explosion emergency response procedures
12. Personal protective equipment for emergencies
13. Evacuation plans and emergency team training
14. Fire control simulations and drills
15. Real case studies of fires and explosions in industry

Duration:

20 to 40 hours.

Introduction:

This course provides tools to model risk scenarios in industrial processes, evaluating the consequences of hazardous events such as explosions, fires, and toxic releases.

Objectives:

To develop the ability to assess the impact of hazardous events through modeling tools, supporting risk management decision- making.

Target Audience:

Process, safety, and environmental engineers, and risk management specialists.

Course Program:

1. Introduction to consequence analysis in process safety
2. Main risk modeling methodologies
3. Modeling of toxic and flammable gas dispersion
4. Analysis of industrial fires and their effects
5. Explosion modeling in industrial processes
6. Evaluation of spills and leak impacts
7. Use of risk modeling software (ALOHA, PHAST)
8. Assessment of affected areas and safety distances
9. Comparison of modeling methodologies
10. Integration of risk modeling into operations
11. Estimation of damage to people, infrastructure, and environment
12. Historical incident analysis and lessons learned
13. Human and organizational factors in consequence management
14. Applicable international standards and regulations
15. Practical exercise in modeling risk scenarios

Duration:

20 to 40 hours.

Introduction:

Management of Change (MOC) is a key element in process safety. This course teaches how to implement effective controls to prevent incidents resulting from changes in facilities, procedures, and personnel.

Objectives:

To provide tools for safely evaluating and managing change, ensuring regulatory compliance and minimizing risks in industrial processes.

Target Audience:

Supervisors, plant managers, process engineers, and safety personnel.

Course Program:

1. Introduction to Management of Change (MOC)
2. Importance of MOC in process safety
3. Regulations and standards on change management (OSHA 1910.119)
4. Types of changes requiring MOC control
5. Procedures to assess change impact
6. Risk analysis during the change process
7. Roles and responsibilities in MOC
8. Documentation and approval of changes
9. Control of design and operational changes
10. Changes in operating and maintenance procedures
11. Evaluation of changes in organizational structure
12. Auditing and monitoring MOC effectiveness
13. Case studies on change management failures
14. Best practices for MOC implementation
15. Practical workshop on real-world MOC scenarios

Duration:

20 to 40 hours.

Introduction:

This course covers structured methodologies for identifying, assessing, and controlling risks in industrial processes, including widely adopted techniques in the industry.

Objectives:

To train participants in tools such as PHA, HAZOP, HAZID, and LOPA for evaluating risk scenarios and proposing effective mitigation measures.

Target Audience:

Process, safety and operations engineers, plant managers, and safety auditors.

Course Program:

1. Introduction to risk management in processes
2. Main risk analysis methodologies
3. Preliminary Hazard Analysis (PHA)
4. HAZOP methodology: principles and application
5. Practical HAZOP analysis workshop
6. HAZID analysis: early hazard identification
7. LOPA methodology: layers of protection
8. Risk assessment and mitigation measures
9. Risk matrix application
10. Applicable standards and regulations (IEC 61882, OSHA, API 752)
11. Documentation and reporting of risk studies
12. Consequence analysis and event modeling
13.  Integration of risk analysis in operational management
14. Case studies of industrial implementation
15. Best practices for continuous safety improvement

Duration:

20 to 40 hours.

Introduction:

This course provides essential concepts on industrial process safety, focusing on the prevention of major accidents and risk management in high-hazard environments.

Objectives:

To offer a comprehensive understanding of process safety by identifying hazards, minimizing risks, and applying international standards to ensure operational integrity.

Target Audience:

Engineers, operations supervisors, maintenance personnel, and industrial safety professionals.

Course Program:

1. Introduction to Process Safety
2. Differences between Occupational Safety and Process Safety
3. Major industrial accidents and their causes
4. Regulatory framework (OSHA 1910.119, API 754, NFPA, ANSI)
5. Process risk assessment and management
6. Hazard and Operability Analysis (HAZOP)
7. Concepts of inherently safer process design
8. Mechanical integrity and equipment reliability
9. Management of Change (MOC) in industrial facilities
10. Safety during shutdowns and plant maintenance
11. Fire and explosion protection
12. Incident analysis and lessons learned
13. Implementation of a safety culture
14. Monitoring of key performance indicators (KPIs)
15. Continuous improvement strategies in process safety

Duration:

20 to 40 hours.

Introduction:

This course presents current trends and technological advances in the development of Shale and Tight Gas, focusing on innovation and sustainability. Participants will explore the future of the unconventional industry through transformative solutions.

Objectives:

To update knowledge on innovations in Shale and Tight Gas. To provide tools to implement advanced technologies and sustainable strategies, leading the future of unconventional reservoir development.

Target Audience:

Strategic and innovation-driven energy professionals.

Course Program:

1. Advances in hydraulic fracturing
2. Advanced digitalization
3. Operational automation
4. Energy sustainability
5. Renewable integration
6. Water management
7. Advanced materials
8. Economic impact
9. Pioneering projects
10. Strategic vision

Duration: 

20 to 40 hours.

Introduction:

This course integrates theoretical and practical knowledge through case studies and field simulations in Shale and Tight Gas. Participants will apply competencies to real- world projects, facing technical and operational challenges specific to unconventional reservoirs.

Objectives:

To develop practical skills in Shale and Tight Gas management. To train participants in solving real problems through case analysis and hands-on work in unconventional environments.

Target Audience:

Multidisciplinary professionals in unconventional hydrocarbons.

Course Program:

1. Practical methodology
2. Vaca Muerta
3. Marcellus Shale
4. Tight Gas in Texas
5. Drilling simulation
6. Practical stimulation
7. Production analysis
8. Operational management
9. Economic evaluation
10. Capstone project
11. Technical review

Duration:

20 to 40 hours.

Introduction:

This course examines economic and project management aspects of Shale and Tight Gas development, covering financial analysis and strategic planning. It prepares participants to assess feasibility and lead profitable initiatives in the unconventional energy sector.

Objectives:

To provide training in economic analysis and project management for Shale and Tight Gas. To develop skills for evaluating costs, risks, and financing to optimize the profitability of unconventional projects.

Target Audience:

Project managers and energy economics analysts.

Course Program:

1. Cost structure
2. Financial indicators
3. Economic risks
4. Market dynamics
5. Financing models
6. Strategic planning
7. Cost reduction
8. Sensitivity analysis
9. Fiscal aspects
10. Applied studies
11. Market trends

Duration: 

20 to 40 hours.

Introduction:

This course evaluates the safety, environmental, and sustainability aspects involved in the development of Shale and Tight Gas reservoirs. Participants will gain tools to comply with regulations and manage impacts, promoting responsible practices in the unconventional industry.

Objectives: 

To train professionals in environmental and safety management for Shale and Tight Gas. To teach sustainable strategies and regulatory compliance to minimize impacts and ensure safe operations in unconventional reservoirs.

Target Audience:

Environmental safety and sustainability specialists.

Course Program:

1. Environmental impacts
2. Water management
3. Waste treatment
4. Emission control
5. Local regulations
6. Global standards
7. Operational safety
8. Environmental monitoring
9. Site rehabilitation
10. Applied studies
11. Sustainable approaches

Duration:

20 to 40 hours.

Introduction:

This course analyzes the operations and technologies used in the development of Shale and Tight Gas, highlighting equipment integration and digitalization. Participants will learn to efficiently and safely manage field processes in unconventional environments.

Objectives:

To train professionals in operational and technological management of Shale and Tight Gas. To provide knowledge to implement digital solutions and advanced equipment, optimizing productivity in unconventional reservoirs.

Target Audience:

Operations engineers and technology specialists.

Course Program:

1. Surface infrastructure
2. Automated systems
3. Specialized equipment
4. Operational digitalization
5. Remote supervision
6. Logistics coordination
7. Technical maintenance
8. Energy efficiency
9. Operational safety
10. Applied innovations
11. Field studies
12. Technological outlook

Duration: 

20 to 40 hours.

Introduction:

This course examines reservoir engineering and production strategies in Shale and Tight Gas, integrating modeling and performance analysis. It prepares participants to optimize hydrocarbon recovery through advanced techniques in unconventional reservoirs.

Objectives:

Develop skills in modeling and simulation of Shale and Tight Gas. Train participants in production analysis and strategy design to maximize recovery in low-permeability reservoirs.

Target Audience:

Reservoir and production engineers specialized in unconventional resources.

Course Program:

1. Dynamic models
2. Numerical simulation
3. Multiphase flow
4. Decline curve analysis
5. Recovery factors
6. Well optimization
7. Pressure testing
8. Well interference
9. Initial production
10. Long-term forecasting
11. Integrated studies
12. Technical trends

Duration:

20 to 40 hours.

Introduction:

This course delves into advanced principles and techniques of hydraulic stimulation for Shale and Tight Gas, essential for maximizing productivity in low-permeability reservoirs.

Participants will gain knowledge to design efficient and sustainable treatments in unconventional environments.

Objectives:

To provide technical training in the design and execution of hydraulic fracturing in Shale and Tight Gas. To develop skills for optimizing fluids, proppants, and fracture geometry to improve operational efficiency.

Target Audience:

Completion engineers and reservoir specialists.

Course Program:

1. Fracture mechanics
2. Treatment design
3. Specialized fluids
4. Proppants
5. Advanced simulation
6. Fracture geometry
7. Microseismic monitoring
8. Operational optimization
9. Pressure management
10. Environmental considerations
11. Applied studies
12. Technological advancements

Duration:

20 to 40 hours.

Introduction:

This course covers the principles of geomechanics applied to Shale and Tight Gas reservoirs, essential for understanding the mechanical behavior of rocks during drilling and hydraulic fracturing. It prepares participants to optimize operations through stress and stability analysis.

Objectives:

To develop geomechanical skills for Shale and Tight Gas applications. To train in stress evaluation, wellbore stability, and fracture design to improve efficiency and safety in unconventional reservoirs.

Target Audience:

Geologists, reservoir engineers, and geomechanics specialists.

Course Program:

1. Geomechanics fundamentals
2. Mechanical properties
3. Stress state
4. Geomechanical models
5. Wellbore stability
6. Fracturability
7. Failure analysis
8. Laboratory testing
9. Geomechanical simulation
10. Integration with fracturing
11. Real-time monitoring
12. Practical cases

Duration:

20 to 40 hours.

Introduction:

This course offers advanced training in drilling and well construction techniques for Shale and Tight Gas, with a strong emphasis on horizontal drilling. Participants will develop skills to design and execute safe and efficient operations in unconventional settings.

Objectives:

To train professionals in the design and

execution of drilling operations for Shale and Tight Gas. To provide the technical knowledge necessary to overcome operational challenges and ensure well integrity.

Target Audience:

Drilling engineers and specialized field personnel.

Course Program:

1. Horizontal drilling
2. Trajectory planning
3. Drilling technology
4. Drilling fluids
5. Advanced cementing
6. Pressure management
7. Response to heterogeneity
8. Operational efficiency
9. Safety protocols
10. Applied studies
11. Structural maintenance
12. Technological advancements

Duration: 

20 to 40 hours.

Introduction:

This course addresses advanced methodologies for exploration and resource evaluation in Shale and Tight Gas. Participants will learn to integrate seismic data, well logs, and reserve estimates to identify prospective zones and assess economic viability.

Objectives: 

To provide skills in exploration and assessment techniques for Shale and Tight Gas. To train in the interpretation of geophysical and petrophysical data for technically and normatively accurate resource estimation.

Target Audience:

Geophysicists, engineers, and energy resource analysts.

Course Program:

1. Exploration methodologies
2. Seismic data acquisition
3. Seismic analysis
4. Petrophysical logging
5. Prospect mapping
6. Core analysis
7. Volumetric estimation
8. Probabilistic approaches
9. International standards
10. Digital tools
11. Case studies
12. Risk management