|
LAPT
London Academy of Professional Training
Certificate
ISO 17268 — Gaseous Hydrogen Land Vehicle Refuelling Connection Devices
ISO Certification Programme
REF: ENG-HYD-17268
• ISO Energy
• Hydrogen
|
| 6Subjects | 30Chapters | 180Classes | 425Total Marks | 60%Pass Mark | LifetimeValidity |
At a Glance
| Reference | ENG-HYD-17268 |
| Award | Certificate |
| Assessment | 425 marks — 255 to pass (60%) |
| Prerequisites | None |
| Validity | Lifetime |
| Awarding Body | LAPT — London Academy of Professional Training |
Curriculum
| 1 | Innovation in Hydrogen Refuelling | 5 chapters · 30 classes 45 marks |
• 1 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
• 2 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
• 3 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
• 4 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
• 5 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
| 2 | Introduction to Hydrogen Technologies | 5 chapters · 30 classes 85 marks |
• 1 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
• 2 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
• 3 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
• 4 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
• 5 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
| 3 | ISO Standards and Compliance | 5 chapters · 30 classes 125 marks |
• 1 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
• 2 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
• 3 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
• 4 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
• 5 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
| 4 | Leadership and Team Management | 5 chapters · 30 classes 20 marks |
• 1 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
• 2 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
• 3 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
• 4 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
• 5 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
| 5 | Operational Procedures and Management | 5 chapters · 30 classes 65 marks |
• 1 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
• 2 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
• 3 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
• 4 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
• 5 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
| 6 | Safety and Risk Management | 5 chapters · 30 classes 85 marks |
• 1 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
• 2 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
• 3 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
• 4 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
• 5 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
| LAPT — 85 Great Portland Street, W1W 7LT, London, United Kingdom info@lapt.org • +44 7513 283044 • lapt.org |
UKPRN 10067351 • Company 4984798 Curriculum current at the date of issue. |