Master HVDC Transmission: Design, Components, & Applications

Name: A Training Course on High Voltage Direct Current Transmission ( HVDC)
Availability: InStock

Master HVDC transmission design, converter station engineering, protection schemes, and grid integration for high-capacity power systems.

Master HVDC Transmission: Design, Components, & Applications

At a glance

Duration: 5 days
Format: Classroom
Cities: Toronto, Dubai, Trabzon, Cairo, Abu Dhabi, Al Jubail and more
Next session: 11 – 15 October 2026, Toronto
Average fee: 7,150 €

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A Training Course on High Voltage Direct Current Transmission ( HVDC)

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Overview

Integrating large-scale renewable generation and bulk power transmission over long distances requires robust direct current infrastructure. This course examines the engineering, configuration, and operational principles governing high voltage direct current transmission systems. Participants explore converter configurations, line dynamics, station equipment specifications, and protective schemes essential for maintaining grid stability. Practical models, design calculations, and fault management methods equip professionals to deliver high-capacity transmission infrastructure. This course is delivered by Agile Leaders Training Center.

Who Should Attend

Transmission design engineers responsible for substation layout, converter sizing, and line specifications.
Grid planning engineers responsible for interconnecting utility networks and evaluating power flow stability.
Substation maintenance managers responsible for converter station reliability and high-voltage asset integrity.
Renewable project engineers responsible for integrating offshore wind generation into mainland grids.
Power systems protection analysts responsible for fault detection schemes, arresters, and switchgear coordination.

Departments and Industries

This programme serves infrastructure, engineering, and utility specialists involved in long-distance electrical interconnection.

Grid Planning and Substation Engineering Units in Power Transmission Utilities
Renewable Energy Systems Divisions in Offshore Wind Development
High-Voltage Equipment Groups in Heavy Electrical Equipment Manufacturing
Power Systems Consulting Practices in Industrial Infrastructure Engineering
Operations and System Protection Teams in National Grid Operators

Learning Objectives

By the end of this course, participants will be able to:

Evaluate the technical trade-offs between AC and DC transmission for bulk energy corridors.
Specify core converter station components including thyristor valves, converter transformers, and smoothing reactors.
Design AC and DC harmonic filter systems to minimize grid distortion.
Develop fault management strategies for line disruptions, converter misoperation, and voltage surges.
Configure earth electrodes and return pathways for bipolar and monopolar transmission configurations.
Execute digital simulation studies to validate power flow dynamics and transient system performance.

Course Agenda

Day 1: Fundamentals of HVDC Transmission Schemes

Line capacity and loss analysis comparing high voltage direct current transmission with alternating current systems
Topologies of direct current schemes: point-to-point, back-to-back, and multi-terminal systems
Operating principles of line-commutated converter bridges and switching sequences
Layout specifications for high-voltage direct current converter terminal yards
Long-distance transmission economics and break-even distance determination
Offshore collector platform arrangements and grid interconnection considerations

Day 2: Converter Station Equipment and Filter Design

Thyristor valve rating, firing angle control, and liquid cooling configurations
Converter transformer design requirements, insulation stresses, and tap changer mechanics
Smoothing reactor functions in limiting fault current rate-of-rise and DC ripple
Tuned AC harmonic filters and high-pass damping configurations
DC filter configurations for eliminating telephone influence factor and harmonic interference
Active filtering technologies and dynamic power quality compensation

Day 3: DC Transmission Lines, Cables, and Grounding

Overhead direct current transmission line corona loss, field effects, and conductor bundling
High-voltage subsea and underground DC extruded and mass-impregnated cable technologies
High-speed direct current circuit breakers and isolation switchgear
Earth electrode site selection, soil resistivity surveys, and design calculations
Overvoltage protection using metal-oxide surge arresters across station terminals
Metallic return configuration vs ground return operational constraints

Day 4: Control Strategies, Protection, and System Modeling

Converter firing angle regulation, current margin control, and extinction angle maintenance
Protection schemes against AC system faults, commutation failure, and converter short circuits
Direct current line fault detection, de-energization, and rapid restart sequences
Digital electromagnetic transient modeling for system dynamic studies
AC/DC grid interactions, voltage stability, and weak AC network support
Design documentation protocols and procurement specifications for HVDC equipment

Day 5: Maintenance, Reliability, and Project Delivery

Converter station planned outage management and thyristor testing schedules
Reliability, availability, and forced outage rate tracking methodologies
Offshore wind integration practical challenges and HVDC export cable management
HVDC project execution stages: engineering studies, procurement, and site commissioning
HVDC power transmission efficiency analysis and operational loss mitigation
Long-term asset management protocols for converter transformers and cooling plant

Practical Exercises

Participants apply system parameters and engineering calculations to solve operational scenarios.

Suggested activity: Calculate break-even transmission distances comparing high-voltage alternating and direct current links.
Suggested activity: Determine harmonic current frequencies and specify LC filter values for a 12-pulse converter terminal.
Suggested activity: Formulate an electrode resistance and current distribution model based on soil resistivity data.
Suggested activity: Develop a commutation failure recovery sequence under symmetrical and asymmetrical AC voltage dips.

FAQs

How does high voltage direct current transmission compare economically with alternating current?

HVDC transmission incurs higher initial terminal converter costs but requires significantly less capital expenditure and lower line losses per kilometre. Beyond a specific break-even distance, typically around six hundred to eight hundred kilometres for overhead lines and fifty kilometres for underground or subsea cables, direct current delivers lower overall lifecycle expenditure.

What converter technologies are examined in this syllabus?

The syllabus provides comprehensive coverage of line-commutated thyristor converter bridge topologies, firing control mechanisms, converter transformer design considerations, and filtering equipment essential for bulk power transfer.

How are fault scenarios and commutation failures evaluated?

Sessions examine protection coordination, surge arrester allocation, high-speed DC switching, and control system responses designed to detect line faults, arrest commutation failure, and restore normal power transfer without grid destabilization.

Conclusion

Engineers and technical planners conclude this programme prepared to evaluate, specify, and manage direct current transmission assets. Equipped with precise design calculations, protection protocols, and equipment sizing techniques, participants ensure high transmission reliability and power quality across high-capacity interconnections.

credits: 5 credit per day

Course Mode: full-time

Provider: Agile Leaders Training Center

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Showing 1-20 of 66 events

Location	Dates	Duration	Mode	Price
Toronto	Week 41, 2026 11 – 15 October 2026	5 Days	Onsite	€16,000
Dubai	Week 42, 2026 18 – 22 October 2026	5 Days	Onsite	€4,500
Zoom	Week 43, 2026 19 – 23 October 2026	5 Days	Online	€3,000
Trabzon	Week 43, 2026 25 – 29 October 2026	5 Days	Onsite	€8,000
Cairo	Week 44, 2026 1 – 5 November 2026	5 Days	Onsite	€4,100
Dubai	Week 45, 2026 2 – 6 November 2026	5 Days	Onsite	€4,500
Abu Dhabi	Week 45, 2026 2 – 6 November 2026	5 Days	Onsite	€6,500
Al Jubail	Week 45, 2026 8 – 12 November 2026	5 Days	Onsite	€7,500
Bali	Week 47, 2026 22 – 26 November 2026	5 Days	Onsite	€6,500
Istanbul	Week 49, 2026 30 November – 4 December 2026	5 Days	Onsite	€6,000
Amsterdam	Week 50, 2026 7 – 11 December 2026	5 Days	Onsite	€6,500
Berlin	Week 51, 2026 14 – 18 December 2026	5 Days	Onsite	€6,500
Tbilisi	Week 53, 2026 28 December 2026 – 1 January 2027	5 Days	Onsite	€5,700
Dubai	Week 01, 2027 4 – 8 January 2027	5 Days	Onsite	€6,500
Frankfurt	Week 01, 2027 4 – 8 January 2027	5 Days	Onsite	€6,500
Sharm El-Sheikh	Week 02, 2027 11 – 15 January 2027	5 Days	Onsite	€5,200
Jakarta	Week 03, 2027 18 – 22 January 2027	5 Days	Onsite	€8,000
Zoom	Week 04, 2027 25 – 29 January 2027	5 Days	Online	€3,000
Singapore	Week 04, 2027 25 – 29 January 2027	5 Days	Onsite	€6,500
Seoul	Week 05, 2027 1 – 5 February 2027	5 Days	Onsite	€12,000

Frequently asked questions

What does this course cover?

OverviewIntegrating large-scale renewable generation and bulk power transmission over long distances requires robust direct current infrastructure. This course examines the engineering, configuration, and operational principles governing high voltage direct current transmission systems. Participants explore converter configurations, line dynamics, station…

Are training dates available?

Yes. Available dates and destinations are listed in the course dates section on this page.

How can I register?

Choose an available date on this page and complete the registration form, or send a programme enquiry.

Can I download the course brochure?

Yes. Use the brochure download link provided on this page.

Master HVDC Transmission: Design, Components, & Applications