ISO 17268 — Gaseous Hydrogen Land Vehicle Refuelling Connection Devices

LAPT

London Academy of Professional Training

Master Certificate Level 6-7 Leadership ISO Energy

REF: ENG-HYD-17268

Subjects

500

Total Marks

65%

Pass Mark

Lifetime

Validity

Who Is It For

This certification is intended for professionals in leadership roles within the hydrogen industry, such as project managers, operations managers, and compliance officers, who possess a minimum of five years' experience in energy systems and require an advanced understanding of hydrogen refuelling technology and safety standards.

Prerequisites

None

Awarding Body: LAPT — London Academy of Professional Training

Curriculum Overview

1 Leadership and Team Management 5 chapters · 30 classes · 25 marks

Understanding Leadership Styles in Hydrogen Energy Contexts 6 classes

1.1 Define Leadership Styles Relevant to Hydrogen Energy

1.2 Identify Key Traits of Effective Leaders in Sustainable Energy

1.3 Analyze Case Studies on Leadership in Hydrogen Initiatives

1.4 Evaluate the Impact of Leadership Styles on Team Performance

1.5 Develop a Personal Leadership Philosophy for the Hydrogen Sector

1.6 Apply Leadership Styles to Real-World Hydrogen Project Scenarios

Building Effective Teams for Hydrogen Refuelling Innovation 6 classes

2.1 Identify Key Roles in Hydrogen Refuelling Teams

2.2 Foster Collaboration Among Diverse Team Members

2.3 Develop Communication Strategies for Innovation

2.4 Implement Problem-Solving Techniques for Team Challenges

2.5 Evaluate Team Performance in Hydrogen Projects

2.6 Create Action Plans for Continuous Team Improvement

Communication and Collaboration in Hydrogen Projects 6 classes

3.1 Understand the Importance of Effective Communication in Hydrogen Projects

3.2 Identify Key Stakeholders and Their Communication Needs

3.3 Develop Active Listening Skills for Team Collaboration

3.4 Utilize Digital Tools for Enhancing Team Communication

3.5 Facilitate Team Meetings to Foster Collaborative Decision-Making

3.6 Evaluate Communication Strategies for Continuous Improvement

Problem-Solving and Decision-Making in Leadership 6 classes

4.1 Identify Common Leadership Challenges in Decision-Making

4.2 Analyze Problem-Solving Models and Their Applications

4.3 Evaluate the Role of Team Dynamics in Effective Decision-Making

4.4 Develop Strategies for Collaborative Problem Solving

4.5 Implement Decision-Making Tools for Leadership Scenarios

4.6 Reflect on Case Studies of Leadership Decision-Making

Leading Change: Implementing ISO 17268 Standards 6 classes

5.1 Establishing the Need for ISO 17268 Adoption

5.2 Identifying Stakeholders and Their Roles in Implementation

5.3 Developing a Change Management Strategy for ISO Standards

5.4 Communicating Change Effectively to the Team

5.5 Training and Empowering Teams for Compliance with ISO 17268

5.6 Evaluating the Success of ISO 17268 Implementation

2 Innovation in Hydrogen Refuelling 5 chapters · 30 classes · 50 marks

Fundamentals of Hydrogen Fuel and Refuelling Technologies 6 classes

1.1 Explore the Properties of Hydrogen as a Fuel

1.2 Identify Key Components of Hydrogen Refuelling Systems

1.3 Examine the Safety Protocols in Hydrogen Refuelling

1.4 Compare Hydrogen Refuelling Technologies with Conventional Fuels

1.5 Assess the Environmental Impact of Hydrogen Fuel Utilization

1.6 Design a Basic Hydrogen Refuelling Station Layout

Standards and Regulations in Hydrogen Refuelling Systems 6 classes

2.1 Explore ISO 17268 Standards for Hydrogen Refuelling Devices

2.2 Analyze the Importance of Compliance in Hydrogen Refuelling

2.3 Identify Key Regulations Affecting Hydrogen Refuelling Systems

2.4 Evaluate Safety Protocols in Hydrogen Refuelling Operations

2.5 Discuss Innovations Driven by Regulatory Standards in Hydrogen Technology

2.6 Develop a Compliance Checklist for Hydrogen Refuelling Stations

Design and Engineering of Refuelling Connection Devices 6 classes

3.1 Explore Principles of Hydrogen Refuelling Connection Design

3.2 Analyze Key Components of Refuelling Connection Devices

3.3 Evaluate Safety Standards for Gaseous Hydrogen Connections

3.4 Identify Innovations in Refuelling Connection Technology

3.5 Develop Prototypes for Hydrogen Refuelling Devices

3.6 Implement Testing Procedures for Design Validation

Innovation and Emerging Technologies in Hydrogen Refuelling 6 classes

4.1 Explore Current Innovations in Hydrogen Refuelling Technologies

4.2 Analyze the Role of Emerging Materials in Hydrogen Storage

4.3 Investigate Safety Protocols for Hydrogen Refuelling Systems

4.4 Evaluate Efficiency Improvements through Automation in Refuelling

4.5 Design a Prototype for an Advanced Refuelling Connection Device

4.6 Present a Strategic Plan for Implementing Innovative Refuelling Solutions

Future Trends and Sustainability in Hydrogen Refuelling Infrastructure 6 classes

5.1 Analyze Future Trends in Hydrogen Refuelling Technology

5.2 Explore Sustainable Practices in Hydrogen Infrastructure Development

5.3 Assess the Impact of Policy Changes on Hydrogen Refuelling Projects

5.4 Evaluate Current Economic Models for Hydrogen Refuelling Hubs

5.5 Design a Conceptual Framework for Future Refuelling Stations

5.6 Propose Innovations for Enhancing Hydrogen Refuelling Efficiency

3 Operational Procedures and Management 5 chapters · 30 classes · 75 marks

Understanding ISO 17268 Standards and Applications 6 classes

1.1 Explore ISO 17268 Standards for Hydrogen Refuelling

1.2 Identify Key Components of Gaseous Hydrogen Connection Devices

1.3 Understand Safety Protocols in Hydrogen Refuelling Operations

1.4 Examine Testing and Compliance Requirements for Refuelling Devices

1.5 Analyze Case Studies of ISO 17268 Implementation in the Field

1.6 Develop Best Practices for Managing Refuelling Operations

Design and Functionality of Hydrogen Refuelling Connection Devices 6 classes

2.1 Analyze the Design Principles of Hydrogen Refuelling Connection Devices

2.2 Examine the Safety Features Integrated into Refuelling Connection Devices

2.3 Identify the Key Functional Components of Hydrogen Refuelling Connectors

2.4 Assess the Performance Standards for Gaseous Hydrogen Refuelling Devices

2.5 Compare Different Types of Hydrogen Refuelling Connection Devices

2.6 Implement Best Practices for Operating Hydrogen Refuelling Connection Devices

Operational Procedures for Safe Refuelling Practices 6 classes

3.1 Identify Safety Protocols for Hydrogen Refuelling

3.2 Understand Equipment Requirements for Safe Connections

3.3 Demonstrate Proper Refuelling Techniques

3.4 Assess Risks and Hazards in Refuelling Operations

3.5 Implement Emergency Response Strategies during Refuelling

3.6 Evaluate and Improve Refuelling Procedures for Safety

Management of Hydrogen Refuelling Systems 6 classes

4.1 Understand the Principles of Hydrogen Refuelling Systems

4.2 Identify Key Components of Refuelling Connection Devices

4.3 Explain the Safety Protocols for Hydrogen Refuelling

4.4 Analyze Operational Procedures for Refuelling Management

4.5 Assess Compliance with ISO 17268 Standards

4.6 Implement Best Practices for Refuelling System Maintenance

Quality Assurance and Continuous Improvement in Refuelling Operations 6 classes

5.1 Identify Key Quality Assurance Principles in Refuelling Operations

5.2 Assess Current Quality Control Measures in Hydrogen Refuelling

5.3 Develop Standard Operating Procedures for Enhanced Safety

5.4 Implement Continuous Improvement Strategies for Refuelling Efficiency

5.5 Utilize Data Analysis to Monitor Quality Assurance Metrics

5.6 Evaluate and Revise Operational Procedures for Optimal Performance

4 Safety and Risk Management 5 chapters · 30 classes · 100 marks

Introduction to Gaseous Hydrogen Safety Standards 6 classes

1.1 Understand Key Gaseous Hydrogen Safety Standards

1.2 Identify Risks Associated with Gaseous Hydrogen

1.3 Explore the ISO 17268 Certification Process

1.4 Analyze Case Studies on Gaseous Hydrogen Incidents

1.5 Develop Emergency Response Plans for Hydrogen Incidents

1.6 Implement Best Practices in Hydrogen Refuelling Safety

Identifying Hazards in Hydrogen Refuelling Systems 6 classes

2.1 Recognize Common Hazards in Hydrogen Refuelling Systems

2.2 Analyze Potential Risks Associated with Hydrogen Exposure

2.3 Assess the Impact of Equipment Failures on Safety

2.4 Evaluate Emergency Scenarios in Hydrogen Refuelling Operations

2.5 Implement Safety Protocols for Hazard Mitigation

2.6 Develop a Risk Management Plan for Hydrogen Refuelling Sites

Risk Assessment Methodologies for Hydrogen Safety 6 classes

3.1 Identify Key Hazards in Hydrogen Refuelling Systems

3.2 Evaluate Existing Risk Assessment Methodologies for Hydrogen Safety

3.3 Analyze Potential Consequences of Hydrogen Release

3.4 Develop Risk Mitigation Strategies for Hydrogen Refuelling Operations

3.5 Implement Safe Practices in Hydrogen Refuelling Scenarios

3.6 Review and Adapt Risk Assessment Protocols for Continuous Improvement

Implementing Safety Measures and Controls 6 classes

4.1 Identify Key Safety Standards for Hydrogen Refuelling

4.2 Analyze Risks Associated with Gaseous Hydrogen Use

4.3 Develop Safety Protocols for Refuelling Operations

4.4 Implement Control Measures for Hazard Mitigation

4.5 Evaluate the Effectiveness of Established Safety Measures

4.6 Communicate Safety Procedures to Stakeholders

Emergency Response and Incident Management in Hydrogen Systems 6 classes

5.1 Identify Potential Emergency Scenarios in Hydrogen Systems

5.2 Assess Risks Associated with Hydrogen Incidents

5.3 Develop Emergency Response Procedures for Hydrogen Leaks

5.4 Train Personnel on Personal Protective Equipment for Hydrogen Emergencies

5.5 Implement Communication Strategies During Hydrogen Incidents

5.6 Review Case Studies of Emergency Responses in Hydrogen Systems

5 ISO Standards and Compliance 5 chapters · 30 classes · 150 marks

Understanding ISO 17268: Scope and Purpose 6 classes

1.1 Explore the Importance of ISO Standards in the Automotive Industry

1.2 Identify Key Components of ISO 17268 and Their Functions

1.3 Analyze the Scope of ISO 17268: Applications and Limitations

1.4 Examine Compliance Requirements for Gaseous Hydrogen Refuelling

1.5 Discuss the Implications of Non-Compliance with ISO 17268

1.6 Apply Knowledge of ISO 17268 to Develop a Refuelling Device Strategy

Key Terminology and Definitions in ISO Standards 6 classes

2.1 Identify and Define Key Terms in ISO 17268

2.2 Explore the Importance of Standardization in Gaseous Hydrogen Technology

2.3 Differentiate Between Types of Refuelling Connection Devices

2.4 Analyze Compliance Requirements within ISO 17268

2.5 Examine Case Studies on ISO Standards Implementation

2.6 Apply Key Terminology to Real-world Scenarios in Hydrogen Refuelling

Requirements and Specifications for Refuelling Devices 6 classes

3.1 Explore the Purpose and Scope of ISO 17268 Standards

3.2 Identify Key Requirements for Refuelling Connection Devices

3.3 Analyze Technical Specifications for Gaseous Hydrogen Systems

3.4 Compare International Standards Related to Refuelling Devices

3.5 Evaluate Compliance Measures for Safety and Reliability

3.6 Implement Best Practices for Refuelling Device Installation

Testing Protocols and Compliance Assessment 6 classes

4.1 Identify Key Testing Protocols for Hydrogen Refuelling Devices

4.2 Analyze Compliance Requirements for ISO 17268

4.3 Evaluate Testing Methods for Gaseous Hydrogen Systems

4.4 Develop Compliance Assessment Criteria for Refuelling Equipment

4.5 Implement Quality Control Measures in Testing Procedures

4.6 Review Case Studies of ISO 17268 Compliance Failures

Implications of Non-Compliance and Case Studies 6 classes

5.1 Identify the Consequences of Non-Compliance with ISO 17268

5.2 Analyze the Financial Impact of Non-Compliance in the Hydrogen Sector

5.3 Assess Legal Implications and Case Studies Related to Non-Compliance

5.4 Explore Health and Safety Risks Associated with Non-Compliance

5.5 Review Real-World Case Studies of Non-Compliance Outcomes

5.6 Develop a Compliance Improvement Action Plan Based on Case Analysis

6 Introduction to Hydrogen Technologies 5 chapters · 30 classes · 100 marks

Fundamentals of Hydrogen as an Energy Carrier 6 classes

1.1 Define Hydrogen as an Energy Carrier

1.2 Explore the Properties of Hydrogen: Understanding Its Characteristics

1.3 Compare Hydrogen with Other Energy Carriers: Advantages and Disadvantages

1.4 Identify Methods of Hydrogen Production: From Electrolysis to Reforming

1.5 Analyze the Role of Hydrogen in Sustainable Energy Systems

1.6 Evaluate the Applications of Hydrogen in Transportation Technologies

Hydrogen Production Methods and Technologies 6 classes

2.1 Explore the Fundamentals of Hydrogen Production

2.2 Identify Key Methods for Producing Hydrogen

2.3 Analyze the Benefits and Challenges of Electrolysis

2.4 Evaluate the Role of Steam Methane Reforming in Hydrogen Production

2.5 Investigate Biomass and Its Potential for Hydrogen Generation

2.6 Discuss Future Trends and Innovations in Hydrogen Production Technologies

Hydrogen Storage and Transportation Solutions 6 classes

3.1 Explore the Fundamentals of Hydrogen Storage Methods

3.2 Identify Key Materials Used in Hydrogen Tanks

3.3 Evaluate the Safety Standards in Hydrogen Storage Systems

3.4 Analyze Transportation Techniques for Gaseous Hydrogen

3.5 Compare the Efficiency of Different Hydrogen Transport Solutions

3.6 Design a Safe Refuelling Connection for Hydrogen Vehicles

Hydrogen Refuelling Infrastructure and Technologies 6 classes

4.1 Explore the Fundamentals of Hydrogen Refuelling Infrastructure

4.2 Identify Key Components of Hydrogen Refuelling Systems

4.3 Examine Safety Standards and Regulations for Hydrogen Refuelling

4.4 Analyze the Operational Principles of Refuelling Connection Devices

4.5 Evaluate the Impact of Hydrogen Infrastructure on Automotive Technology

4.6 Propose Innovations for Enhancing Hydrogen Refuelling Efficiency

Regulatory Framework and Future of Hydrogen Technologies 6 classes

5.1 Explore Key Regulations Impacting Hydrogen Technologies

5.2 Identify Standards for Gaseous Hydrogen Vehicle Refuelling

5.3 Analyze Current Compliance Challenges in Hydrogen Systems

5.4 Discuss the Role of ISO Standards in Advancing Hydrogen Technology

5.5 Evaluate Future Trends in Hydrogen Regulation and Compliance

5.6 Propose Strategies for Implementing Hydrogen Regulations in Practice

Assessment Breakdown

50%

Theory

35%

Practical

15%

Project

Passing Mark: 325 / 500 (65%)

Methods: Written Examination, Practical Assignment, Portfolio Assessment

How to Enrol

Website: lapt.org

Email: info@lapt.org

Phone: +44 7513 283044

Address: 85 Great Portland Street, W1W 7LT, United Kingdom

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