High-Voltage Direct Current Transmission Industry Overview | Umbrex (2024)

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This overview of the High-Voltage Direct Current (HVDC) industry covers the segment of industry participants, customer segments, suppliers, value chain, industry concentration, competitive strategies, trends, and a list of companies in the industry.

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Introduction

The High-Voltage Direct Current (HVDC) transmission industry is responsible for the transportation of electricity over long distances from power plants to distribution networks and large industrial consumers. This industry ensures that the generated electricity reaches end-users efficiently and reliably. High-voltage transmission involves the use of transmission lines and substations to manage the flow of electricity and maintain stability within the power grid. The industry provides the backbone infrastructure essential for delivering electricity to homes, businesses, and industries.

Main Segments Within the Industry

The high-voltage transmission industry is primarily categorized into two main segments: transmission lines and substations.

Transmission Lines

Transmission lines are high-voltage power lines that transport electricity over long distances.

Overhead Transmission Lines

  • Objective: Transport electricity across long distances using overhead power lines.
  • Process: Electricity generated at power plants is transmitted through high-voltage overhead lines supported by transmission towers. These lines can span hundreds of miles and are crucial for connecting remote power generation sites with urban and industrial centers.
  • Example: The Pacific DC Intertie in the United States, which transmits electricity between Oregon and California.

Underground Transmission Lines

  • Objective: Transport electricity in densely populated or environmentally sensitive areas.
  • Process: High-voltage cables are buried underground to transport electricity where overhead lines are impractical. These lines are often used in urban areas to reduce visual impact and minimize land use.
  • Example: The London Power Tunnels project, which involves extensive underground transmission infrastructure in the UK.

Substations

Substations are facilities that step down high-voltage electricity for distribution.

Step-Down Substations

  • Objective: Reduce high-voltage electricity to lower voltages suitable for distribution networks.
  • Process: High-voltage electricity from transmission lines is received at substations, where transformers reduce the voltage to levels suitable for local distribution. The electricity is then sent to smaller substations or directly to consumers.
  • Example: The North Bergen Substation in New Jersey, which steps down high-voltage electricity for distribution in the surrounding area.

Switching Substations

  • Objective: Manage the routing of electricity within the transmission network.
  • Process: Switching substations do not change the voltage but instead direct the flow of electricity between different transmission lines. They play a critical role in maintaining grid stability and reliability.
  • Example: The Desert Star Energy Center Switching Station in Nevada, which connects various transmission lines in the region.

Customer Segments Served

Utilities and Power Companies

  • Description: Companies generating and distributing electricity.
  • Needs: Reliable and efficient transmission infrastructure to transport electricity from power plants to distribution networks and end-users.

Industrial Customers

  • Description: Large industries with significant energy consumption.
  • Needs: Direct high-voltage connections to ensure a stable and cost-effective power supply for continuous production processes.

Government and Public Sector

  • Description: Municipalities, public utilities, and government agencies.
  • Needs: Infrastructure to support public services, grid stability, and regional development plans.

Renewable Energy Developers

  • Description: Companies developing renewable energy projects such as wind farms and solar parks.
  • Needs: Transmission infrastructure to connect remote renewable energy sites to the main grid.

Energy Traders and Marketers

  • Description: Firms involved in buying and selling electricity on the wholesale market.
  • Needs: Reliable transmission networks to facilitate the efficient trade and movement of electricity across regions.

Suppliers to the Industry

Equipment Manufacturers

  • Description: Companies producing transformers, switchgear, insulators, and other transmission equipment.
  • Importance: Essential for the construction and operation of transmission lines and substations.

Construction and Engineering Firms

  • Description: Companies specializing in the design, construction, and installation of transmission infrastructure.
  • Importance: Critical for building and deploying transmission lines and substations.

Maintenance and Service Providers

  • Description: Firms offering maintenance, repair, and operational support services.
  • Importance: Ensure the reliable and efficient operation of transmission infrastructure.

Raw Material Suppliers

  • Description: Providers of steel, aluminum, copper, and other materials used in transmission infrastructure.
  • Importance: Essential for manufacturing transmission towers, conductors, and other components.

Technology and Software Providers

  • Description: Companies offering grid management software, SCADA systems, and other technological solutions.
  • Importance: Enhance the monitoring, control, and optimization of transmission networks.

Value Chain of the Industry

Raw Material Extraction and Processing

  • Description: Extraction and processing of raw materials such as steel, aluminum, and copper for transmission infrastructure.
  • Key Activities: Mining, refining, and material fabrication.

Equipment Manufacturing

  • Description: Production of transmission equipment, including transformers, switchgear, insulators, and conductors.
  • Key Activities: Component design, manufacturing, and quality control.

System Design and Engineering

  • Description: Design and engineering of transmission systems tailored to specific site conditions and customer needs.
  • Key Activities: System design, engineering assessments, and customization.

Construction and Installation

  • Description: Construction of transmission lines and substations, followed by the installation of equipment.
  • Key Activities: Site preparation, infrastructure construction, equipment installation, and commissioning.

Operation and Maintenance

  • Description: Ongoing operation and maintenance of transmission systems to ensure optimal performance.
  • Key Activities: Monitoring, maintenance, repairs, and system upgrades.

Electricity Transmission

  • Description: Transportation of electricity from power plants to distribution networks and large industrial consumers.
  • Key Activities: High-voltage transmission, switching, and voltage regulation.

Grid Management and Optimization

  • Description: Management and optimization of the transmission grid to ensure reliability and efficiency.
  • Key Activities: Grid monitoring, load balancing, and emergency response.

Level of Fragmentation or Concentration in the Industry

The high-voltage transmission industry exhibits varying levels of fragmentation and concentration across different geographic regions. These dynamics are influenced by factors such as market size, regulatory environment, infrastructure development, and technological capabilities.

United States

  • Market Concentration: Moderately Concentrated
  • Characteristics: The U.S. high-voltage transmission industry is moderately concentrated, with a mix of large utility companies and numerous regional transmission organizations (RTOs). Major players include companies like NextEra Energy, Duke Energy, and Pacific Gas and Electric Company (PG&E). The industry is regulated by the Federal Energy Regulatory Commission (FERC), which oversees interstate transmission and market operations.

Canada

  • Market Concentration: Concentrated
  • Characteristics: Canada’s high-voltage transmission industry is more concentrated, with a few large entities such as Hydro-Québec, BC Hydro, and Manitoba Hydro controlling the majority of the market. These entities are often publicly owned and play a significant role in the national energy landscape.

Western Europe

  • Market Concentration: Highly Concentrated
  • Characteristics: Western Europe’s high-voltage transmission industry is highly concentrated, dominated by a few large transmission system operators (TSOs) such as National Grid (UK), RTE (France), and TenneT (Netherlands/Germany). The industry benefits from strong regulatory frameworks and significant investments in cross-border interconnections to enhance grid stability and integration.

Eastern Europe

  • Market Concentration: Moderately Fragmented
  • Characteristics: Eastern Europe’s high-voltage transmission industry is more fragmented, with a mix of state-owned and private companies. Countries like Poland, Hungary, and Romania have diverse operators, and there is ongoing development to modernize and integrate with the wider European grid.

China

  • Market Concentration: Highly Concentrated
  • Characteristics: China’s high-voltage transmission industry is highly concentrated, dominated by state-owned enterprises such as State Grid Corporation of China (SGCC) and China Southern Power Grid (CSG). These companies are responsible for extensive transmission networks and significant infrastructure projects, including ultra-high-voltage (UHV) transmission lines.

India

  • Market Concentration: Moderately Concentrated
  • Characteristics: India’s high-voltage transmission industry is moderately concentrated, with key players like Power Grid Corporation of India Limited (PGCIL) and state transmission utilities. The industry is supported by government initiatives to expand and modernize the transmission infrastructure to meet growing energy demand.

Japan

  • Market Concentration: Moderately Concentrated
  • Characteristics: Japan’s high-voltage transmission industry is moderately concentrated, with major companies like Tokyo Electric Power Company (TEPCO) and Kansai Electric Power Company (KEPCO) leading the market. The industry is focused on enhancing grid resilience and integrating renewable energy sources.

Middle East

  • Market Concentration: Moderately Fragmented
  • Characteristics: The high-voltage transmission industry in the Middle East is moderately fragmented, with significant investment from government-owned entities and private sector involvement. Countries like Saudi Arabia, UAE, and Egypt are developing extensive transmission networks to support economic growth and energy diversification.

Africa

  • Market Concentration: Fragmented
  • Characteristics: Africa’s high-voltage transmission industry is fragmented, with numerous regional and national operators. Countries like South Africa, Nigeria, and Kenya are investing in transmission infrastructure to improve grid reliability and access to electricity. There is a strong focus on regional interconnections to enhance energy trade.

Brazil

  • Market Concentration: Moderately Concentrated
  • Characteristics: Brazil’s high-voltage transmission industry is moderately concentrated, with major companies such as Eletrobras and ISA CTEEP leading the market. The industry is characterized by significant government involvement and investment in transmission expansion projects.

Other Latin American Countries

  • Market Concentration: Fragmented
  • Characteristics: In other Latin American countries, the high-voltage transmission industry is generally fragmented. Countries like Mexico, Argentina, and Chile have diverse operators and are focused on expanding and modernizing their transmission networks to support renewable energy integration and economic development.

Global Market Concentration

  • Market Concentration: Moderately Concentrated
  • Characteristics: On a global scale, the high-voltage transmission industry is moderately concentrated with a few dominant global companies such as National Grid, State Grid Corporation of China, and Siemens Energy. These companies have significant market shares and operate across multiple regions, driving global transmission infrastructure development.

Strategies for Gaining Competitive Advantage in the Industry

Investment in Advanced Technologies

  • Objective: Improve efficiency, reliability, and capacity of transmission infrastructure.
  • Strategy: Investing in research and development (R&D) to develop advanced technologies such as ultra-high-voltage (UHV) transmission, smart grids, and energy storage integration.
  • Example: State Grid Corporation of China’s significant investments in UHV transmission technology to improve long-distance power transmission efficiency.
  • Impact: Enhanced transmission capacity, reduced energy losses, and improved grid stability.

Geographic Expansion

  • Objective: Capture growth opportunities and diversify revenue streams.
  • Strategy: Expanding operations into emerging markets with high demand for new transmission infrastructure.
  • Example: National Grid’s investments in interconnection projects linking the UK with mainland Europe to facilitate energy trade and grid stability.
  • Impact: Increased market presence, diversified revenue streams, and reduced exposure to market fluctuations in established regions.

Strategic Partnerships and Alliances

  • Objective: Share risks, leverage complementary strengths, and accelerate project development.
  • Strategy: Forming strategic partnerships with other companies, governments, and research institutions to co-develop projects and share technological advancements.
  • Example: Siemens Energy’s collaborations with local utilities and governments to develop and deploy smart grid technologies.
  • Impact: Shared investment costs, enhanced innovation capabilities, and accelerated development timelines.

Focus on Environmental Sustainability

  • Objective: Minimize environmental impact and comply with regulatory requirements.
  • Strategy: Implementing environmentally friendly practices and technologies to reduce the ecological footprint of transmission projects.
  • Example: National Grid’s initiatives to reduce greenhouse gas emissions and improve biodiversity around transmission infrastructure.
  • Impact: Enhanced public perception, compliance with environmental regulations, and support for sustainable practices.

Customer-Centric Approaches

  • Objective: Build strong customer relationships, enhance customer satisfaction, and differentiate from competitors.
  • Strategy: Developing customer-centric approaches, such as offering flexible financing options, comprehensive maintenance services, and exceptional customer service.
  • Example: Duke Energy’s customized service agreements tailored to the specific needs of its industrial customers.
  • Impact: Increased customer retention, higher sales, and stronger brand loyalty.

Leveraging Digital Technologies

  • Objective: Enhance operational efficiency, optimize performance, and improve grid management.
  • Strategy: Utilizing digital technologies such as IoT, AI, and data analytics to monitor and optimize transmission systems.
  • Example: ABB’s use of AI for predictive maintenance and optimization of transmission assets.
  • Impact: Improved system performance, reduced maintenance costs, and enhanced grid reliability.

Cost Leadership

  • Objective: Maintain competitiveness through cost reduction and operational efficiency.
  • Strategy: Implementing lean manufacturing practices, optimizing supply chains, and achieving economies of scale.
  • Example: Siemens Energy’s focus on large-scale production and vertical integration to reduce manufacturing costs and offer competitively priced transmission solutions.
  • Impact: Lower production costs, improved margins, and enhanced competitiveness in price-sensitive markets.

Innovation in Financing Models

  • Objective: Make transmission projects more accessible and affordable for a wider range of customers.
  • Strategy: Developing innovative financing models such as power purchase agreements (PPAs), green bonds, and public-private partnerships.
  • Example: The issuance of green bonds by TenneT to finance the development of new transmission projects, attracting institutional investors interested in sustainable energy investments.
  • Impact: Increased adoption of transmission solutions, expanded customer base, and steady revenue streams.

Building a Strong Brand and Marketing

  • Objective: Differentiate from competitors and build a loyal customer base.
  • Strategy: Investing in brand building, marketing, and public relations to promote the benefits of advanced transmission technologies and the company’s unique value proposition.
  • Example: National Grid’s strong brand and marketing efforts to promote its commitment to innovation and sustainability.
  • Impact: Increased brand recognition, higher customer trust, and a competitive edge in the marketplace.

Trends in the Industry

Technological Advancements

  • Trend Overview: Continuous innovation in transmission technology is enhancing efficiency, reliability, and capacity.
  • Impact: Improvements in ultra-high-voltage (UHV) transmission, smart grids, and advanced materials are making transmission systems more efficient and capable of handling higher loads.
  • Example: The deployment of UHV transmission lines in China to transmit electricity over long distances with minimal losses.

Integration with Renewable Energy Sources

  • Trend Overview: The integration of renewable energy sources such as wind and solar into the transmission grid is gaining momentum.
  • Impact: Transmission networks are being upgraded and expanded to accommodate the intermittent nature of renewable energy and ensure grid stability.
  • Example: Europe’s development of interconnections to integrate offshore wind farms into the continental grid.

Digitalization and Smart Grid Technologies

  • Trend Overview: The adoption of digital technologies and smart grid solutions is transforming the high-voltage transmission industry.
  • Impact: Digitalization enhances the monitoring, control, and optimization of transmission networks, improving reliability and efficiency.
  • Example: The use of advanced sensors, IoT, and AI by utilities like National Grid to manage grid operations and predict maintenance needs.

Investment in Grid Resilience

  • Trend Overview: Increasing focus on enhancing the resilience of transmission networks to withstand extreme weather events and cyber threats.
  • Impact: Investments in grid hardening, cybersecurity measures, and disaster recovery plans are becoming more prevalent.
  • Example: Utilities in the United States investing in infrastructure upgrades to protect against hurricanes, wildfires, and cyberattacks.

Regulatory and Policy Support

  • Trend Overview: Governments and regulatory bodies worldwide are implementing policies and incentives to support the expansion and modernization of transmission infrastructure.
  • Impact: Regulatory frameworks, financial incentives, and streamlined permitting processes are driving investment in transmission projects.
  • Example: The European Union’s TEN-E regulation, which prioritizes and funds key cross-border energy infrastructure projects.

Decentralization and Distributed Energy Resources (DERs)

  • Trend Overview: The rise of decentralized energy systems and distributed energy resources (DERs) is influencing the design and operation of transmission networks.
  • Impact: Transmission systems are being adapted to accommodate decentralized generation, storage, and consumption patterns.
  • Example: Integration of rooftop solar, community batteries, and microgrids into the main transmission network in regions like California.

Global Interconnections and Energy Trade

  • Trend Overview: Increasing development of international interconnections to facilitate energy trade and improve grid stability across regions.
  • Impact: Cross-border transmission projects are enhancing energy security, enabling the sharing of renewable energy, and balancing supply and demand.
  • Example: The planned HVDC interconnection between the UK and Norway, which will enable the exchange of hydropower and wind energy.

Focus on Environmental Sustainability

  • Trend Overview: There is a growing emphasis on minimizing the environmental impact of transmission projects.
  • Impact: Companies are adopting sustainable practices, such as undergrounding transmission lines in sensitive areas and using environmentally friendly materials.
  • Example: Efforts to reduce the visual and ecological impact of transmission infrastructure in national parks and wildlife reserves.

Economic and Market Dynamics

  • Trend Overview: Economic factors and market dynamics are influencing the planning and execution of transmission projects.
  • Impact: Factors such as fluctuating energy prices, financing availability, and evolving market structures are affecting investment decisions and project timelines.
  • Example: The impact of global economic conditions on the financing and development of large-scale transmission projects.

Representative Companies

North America

Europe

Asia-Pacific

Middle East & Africa

Latin America

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High-Voltage Direct Current Transmission Industry Overview | Umbrex (2024)

FAQs

What is a high voltage DC transmission system? ›

High-voltage direct current (HVDC) lines are used as links in AC transmission systems for several reasons such as stability, economy, and corona loss. It is possible to control the current on the HVDC side by use of firing circuits of the thyristors used in both rectifiers and inverters.

Does the US use HVDC? ›

Currently, there are only five HVDC transmission lines in the United States, the oldest of which was completed in 1970. Historically, DC transmission was more cost-prohibitive and technically complex than HVAC lines, particularly for shorter lines of less than a few hundred miles.

What are the applications for high voltage direct current transmission technologies? ›

Applications
  • Transferring Bulk Power Over Long distances.
  • Interconnecting Grids.
  • Connecting Offshore Wind.
  • Infeed Urban Areas.
  • Connecting Renewable Generation.
  • Multi-terminal HVDC systems and DC Grids.

What is the purpose of high voltage transmission? ›

We transfer electricity at such high voltages out of necessity; this is to enable large quantities of power to be transported across long distances without incurring excessive power losses as a result of resistance in electrical conductors.

Is HVDC better than HVAC? ›

HVAC vs HVDC – Comparison in terms of Application:

HVDC is much more expensive as compared to HVAC at small distance power transmission. But for long-distance transmission, HVDC is the best option because transmission losses are very less as compared to HVAC.

What are the problems with HVDC? ›

Disadvantages. The disadvantages of HVDC are in conversion, switching, control, availability, and maintenance. HVDC is less reliable and has lower availability than alternating current (AC) systems, mainly due to the extra conversion equipment.

What is the largest HVDC system in the world? ›

The highest-capacity HVDC transmission in the world, which has now been put into operation in China, has a capacity of twelve gigawatts, more than six times the capacity of a modern nuclear power plant.

What are the HVDC projects in the US? ›

Hitachi Energy's HVDC projects in the US and Canada include the Pacific Intertie1, connecting California and Oregon, to several projects currently under execution, including Champlain Hudson Power Express2, to bring hydropower from Canada to New York City, SunZia Transmission3, which will transport wind power from New ...

What are the risks of HVDC? ›

The main dangers when working on HVDC Equipment and their associated components are electric shock, burns and / or other injuries arising from: Inadvertently infringing Safety Distance. The mistaking of Equipment on which it is unsafe to work, from that which it is safe to work.

How much does a HVDC converter station cost? ›

Converter station costs –which are required to convert DC power to AC– have fallen from $300 million per GW per converter down to a conservatively estimated $200 million per GW per converter. Installed cable costs have fallen from over $3 million per GW-mile to $1-2 million per GW-mile.

What are the losses of HVDC? ›

Over long distances, HVDC losses can be up to 30-50% lower than comparable HVAC systems, reducing long-term costs.

What are the disadvantages of DC transmission? ›

DC voltage cannot be directly step-up or step-down for transmitting the power at high voltages and for distributing it at low voltages. It requires extra equipment such rectifier and inverter, etc. which increases the cost of transmission.

What are the dangers of high voltage transmission? ›

Electrical shock hazards can occur when touching transmission towers or metallic objects such as vehicles, fences, metal buildings or roofs and nearby irrigation systems near the high voltage power line.

What is the necessity of high voltage DC transmission? ›

The main advantage of HVDC is that it solves the problem of reactive power consumption for line charging, which occurs particularly on cable lines HVAC. The main advantages of the HVDC system include: interconnection of energy systems - is one of the most important reasons for using HVDC.

Why do we use AC instead of DC? ›

Following are the advantages of alternating current over direct current: AC is less expensive and easy to generate than DC. AC can be transmitted across long distances without much energy loss, unlike DC. The power loss during transmission in AC is less when compared to DC.

HVDC - High Voltage Direct Current Power ...Electrical Technologyhttps://www.electricaltechnology.org ›

Components of HVDC Transmission Line · Converter Transformer · Converters · Filters · Smoothing Reactor · Earth Electrodes an...
High voltage direct current (HVDC) power systems used d.c current for transmission of bulk power over long distances. For long distance power transmission, HVDC...
It is also named as a power superhighway or an electrical superhighway. It uses DC for the bulk transmission of electrical power unlike the conventional systems...

What are the disadvantages of HVDC transmission? ›

Disadvantages of HVDC transmission:
  • Converter substations are required at both the sending and the receiving end of the transmission lines, which result in increasing the cost.
  • Inverter and rectifier terminals generate harmonics which is reduced using active filters which are also very expensive.

What is considered high voltage DC? ›

define high voltage as above 1000 V for alternating current, and at least 1500 V for direct current. In the United States, the American National Standards Institute (ANSI) establishes nominal voltage ratings for 60 Hz electric power systems over 100 V.

What is the difference between high voltage and low voltage transmission? ›

High voltage is typically used to power large devices, while low voltage is usually used to power smaller devices. High voltage can be dangerous if not handled correctly, while low voltage is less dangerous. Finally, high voltage is more expensive to produce than low voltage.

Is High Voltage DC safe? ›

For DC voltages, currents above 25 mA at 50 V are considered hazardous under normal conditions. For common AC outlets (60 Hz, 120 V), current above 10 mA is considered hazardous under normal conditions.

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