ULTRASONIC WELDING OF AUTOMOTIVE BUSBARS

Welding Technology for Tubular Busbars

Welding Technology for Tubular Busbars

Tungsten Inert Gas (TIG) welding, or Gas Tungsten Arc Welding (GTAW), is preferred for welding copper busbars because of its precision and control. Weld your busbars with ultrasonics to permanently benefit from strong connections without contact resistance — even with different metals like aluminum and copper. Discover the benefits of our innovative welding technology for more output, control, and efficiency in your production! to 12 s per. Although the technology behind electric vehicles (EVs) has been around for some time, the last decade as has seen a significant increase in the sale of EVs and hybrid electric vehicles (HEVs) as private motor vehicles. Especially in the manufacture of busbars, which are used in power distribution systems, electric vehicles and other high-current-carrying applications, choosing the right joining technology is crucial for. Busbars are flat conductors that are becoming part of the architecture of electric vehicles. Busbars are typically installed inside switchgear, distribution boards, and busway enclosures for localized high-current power distribution.

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Fiber Optic Ultrasonic Sensor Chip

Fiber Optic Ultrasonic Sensor Chip

This fiber-tip ultrasonic sensor features compact dimensions, broad bandwidth, and elevated sensitivity, which demonstrate significant potential for diverse applications in ultrasonic wave-based sensing, imaging, and nondestructive testing. Here, we demonstrate an optomechanical ultrasonic sensor integrated into a photonic platform, which comprises a suspended SiO2 membrane embedded with a high- Q Si3N4 microring resonator. Typically, such sensors rely on optically resonant structures, such as Fabry–Perot cavities, that.

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Standards for 10kV Copper Busbars

Standards for 10kV Copper Busbars

ASTM B187 is the definitive specification for Copper, Bus Bar, Rod, and Shapes. However, the application of the busbar falls under Underwriters Laboratories (UL). In this new edition the calculation of current-carrying capacity has been greatly simplified by the provision of exact formulae for some common busbar configurations and graphical methods for others. This material is renowned for its excellent electrical conductivity, typically rated at 100% or 101% IACS (International Annealed Copper Standard). The IEC standard for busbar sizing provides detailed guidelines to help engineers select appropriate busbar dimensions. This ensures that systems operate reliably without overheating or causing electrical hazards.

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The standard for 10KV busbars is

The standard for 10KV busbars is

IEC 61439 is a standard developed by the International Electrotechnical Commission (IEC) that covers design verification for low-voltage electrical products and assemblies. The IEC standard for busbar sizing provides detailed guidelines to help engineers select appropriate busbar dimensions. The table, in addition to giving specifications regarding the maximum thickness of the busbar, the maximum current and the maximum nominal voltage, distinguishes between busbars mounted in a "Face to Face" or "Edge to Edge" arrangement. The association has a strong track record in the development and implementation of standards to promote safety and product performance for the benefit of manufacturers and their customers. The design of busbars in Medium Voltage (MV) switchgear must strictly adhere to a series of industry standards.

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Calculation of Low-voltage Busbars

Calculation of Low-voltage Busbars

Busbar voltage drop is calculated using Vd = I x Z x L, where I is the current, Z is the impedance per unit length (R + jX), and L is the busbar length. For a rectangular copper busbar, DC resistance per metre is R = rho / (width x thickness) in micro-ohms/m. IEC 61439 is a standard developed by the International Electrotechnical Commission (IEC) that covers design verification for low-voltage electrical products and assemblies. This is the case of low voltage (LV) switchboards and of prefabricated transformer-switchboard connections. This quest for dependability requires studies in order to master, from the design stage, the behaviour of their components in the light of their environment and of possible operating. Department of Electrical Engineering, Power Electronics and Automation, University of Warmia and Mazury in Olsztyn, ul. Michała Oczapowskiego 2, 10-719 Olsztyn, Poland Author to whom correspondence should be addressed.

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