E-LAM Laminated Busbar

E-LAM Laminated Busbar is a customer specific power distribution system formed by the lamination of copper or aluminium conductive layers with thin dielectric insulating materials. With its compact design, high current carrying capacity, and customizable structure, it ensures the safe and efficient distribution of high current loads up to thousands of amperes. It offers reliable and modular solutions tailored to application requirements, system configurations, and customer specific demands.

E-LAM Laminated Busbar is a custom-designed power electronics system component formed by laminating one or more conductive layers (copper or aluminium), separated by thin insulating layers, into a single unified structure. It provides reliable and modular solutions tailored to a wide range of application requirements.

Advantages of Laminated Busbar

E-LAM Laminated Busbar Systems provide superior electrical and mechanical performance compared to traditional power distribution cabling systems such as cable harnesses.

Laminated busbar advantages: high current capacity, thermal performance, reliability
  • High Current Carrying Capacity
  • High Electrical Insulation
  • High Short Circuit Resistance
  • High Capacitance Values
  • Low Switching Losses
  • Low Inductance Values
  • Modular Structure and Compact Design
  • Wide Range of Applications
  • Reliable Structure
  • Reduced Installation Time
  • Thermal Performance

E-LAM Laminated Busbar Solutions

E-LAM Laminated Busbar is custom manufactured in accordance with the intended application, system requirements, and specific customer demands. As a result of detailed optimization studies, it is designed to deliver low resistance and inductance values while providing high current carrying capacity.

Design and Manufacturing Process

E-LAM Laminated Busbars are created through an integrated process that begins with the collection of customer requirements and continues through simulation-based current, magnetic, and thermal design, followed by prototyping and mass production. At every stage, the design is validated using finite element analysis.

All verification processes, including partial discharge tests and inductance measurements, are carried out within EAE facilities.

  • Electric Vehicle and Transportation Solutions: E-LAM meets all power transmission requirements in wide-range of sectors from electric vehicles to railway, maritime and aviation transportation systems. It is built on reliability and high performance in efficiently distributing power from battery connections to motor drives, inverters, and onboard systems. By ensuring optimal power transfer, it reduces energy losses and increases overall system efficiency.
  • Power Electronics Solutions: In power electronics applications requiring high switching speeds, E-LAM reduces switching losses in Insulated Gate Bipolar Transistor (IGBT) and Silicon Carbide (SiC) modules thanks to its low inductance values. It also delivers stable and reliable performance in DC-link capacitor and inverter connections.
  • Renewable Energy Solutions: In solar, wind, and energy storage systems, it provides the safest and most optimized solutions by taking environmental conditions and physical factors into consideration. With its compact design optimized for harsh operating environments, E-LAM enhances the efficiency and reliability of your renewable energy infrastructure.
  • Industrial Solutions: Across a wide industrial range from converters to automation systems, E-LAM delivers consistent performance and is specifically designed to minimize unwanted voltage spikes caused by the high-switching nature of Silicon Carbide (SiC) semiconductor applications.
  • Defence Industry Solutions: In defence industry applications requiring high reliability and durability, E-LAM provides a robust solution for power distribution systems with its compact structure and stable, reliable performance under harsh environmental conditions.

Electrical Design of Laminated Busbars

The electrical performance of a laminated busbar is determined by three fundamental properties: resistance, inductance, and capacitance. As performance requirements for electronic equipment and components become increasingly stringent, these properties gain greater importance; minimizing resistive losses and electromagnetic noise in power distribution systems has become a primary objective for designers.

A laminated busbar, thanks to its structure based on parallel conductive plates separated by insulating materials, provides significantly lower inductance values compared to cable harnesses. While a cable with the same size and current-carrying capacity may have an inductance of 250nH, a laminated busbar can reduce this value to as low as 25nH. Low inductance means lower characteristic impedance and more effective noise suppression. Additionally, copper or aluminium plates with large surface areas ensure uniform thermal distribution, thereby reducing power losses.

Inductance comparison: laminated busbar 25nH vs cable 250nH

Laminated busbars can be manufactured with various types and structures of insulation layers. E-LAM is designed with different insulation alternatives capable of withstanding high temperature and pollution levels. It eliminates dielectric issues through partial discharge control. In this way, the system ensures stable power transmission at consistent values over many years of operation.

Laminated busbar structure: conductors separated by insulation material

EAE E-LAM Laminated Busbar

EAE E-LAM Laminated Busbars are custom designed for each customer and application, validated through multi-physics simulations by experienced engineers, and manufactured in compliance with international standards including CE, IEC, ISO and UL.

With a Türkiye based local manufacturing infrastructure and export capability to more than 150 countries, EAE offers rapid prototyping and flexible mass production processes. By combining over 50 years of experience in the electrical industry with the requirements of laminated busbar technology, EAE manages the entire process from design to delivery under one roof.