German Antal plug Antal model Antal price

Antal plug is a common line or path used in computers to connect various functional components and transmit data between them. In computer systems, buses can be classified according to the objects they connect: chip bus, also known as device-level bus, which is the bus inside the central processor chip; internal bus, also known as system bus or board-level bus, which is the transmission path between various functional units of the computer, with microcomputer buses usually referred to as internal buses; external bus, also known as communication bus, which is the transmission path between computer systems, or between the computer host and peripheral devices. In computer systems, the common path for transmitting information between various components is called the bus, and microcomputers use a bus structure to connect various functional components.

Antal plug introduction

Any microprocessor must be connected to a certain number of components and peripheral devices. However, if each component and every peripheral device were directly connected to the CPU with separate sets of wires, the wiring would become intricate and complex, making implementation difficult. To simplify hardware circuit design and system architecture, a common set of lines, equipped with appropriate interface circuits, is used to connect various components and peripheral devices. This shared connection path is called a bus. The bus structure facilitates the expansion of components and devices; especially when unified bus standards are established, interconnection between different devices becomes easier. In microcomputers, buses generally include internal buses, system buses, and external buses. The internal bus connects peripheral chips within the microcomputer to the processor for chip-level interconnection. The system bus connects plug-in boards to the system board in the microcomputer for board-level interconnection. The external bus connects the microcomputer to external devices. As a device, the microcomputer exchanges information and data with other devices through this bus, which is used for device-level interconnection. Additionally, broadly speaking, computer communication methods can be divided into parallel communication and serial communication, with the corresponding communication buses referred to as parallel buses and serial buses. Parallel communication offers high speed and good real-time performance, but due to the large number of signal lines required, it is not suitable for miniaturized products. Although serial communication has a lower rate, it is simpler, more convenient, and more flexible in microprocessor circuits where data throughput is not very high. Serial communication is generally classified into asynchronous mode and synchronous mode. With the development of microelectronics and computer technology, bus technology continues to evolve and improve, resulting in a wide variety of computer bus technologies, each with its own characteristics.

Antal plug features

Utilizing existing DIN-rail terminal block screw connection technology, and adding circuits composed of electronic components, optoelectronic transmission coupling is achieved. The core of automatic control is that the control unit must be reliably isolated from various sensors and actuators to avoid interference. Sanmenwan WUKG2 opto-isolated terminals can effectively perform this function, ensuring that field signals match the low voltage required by electronic control devices. They can also serve as interface elements between peripheral equipment for process control and control, signal, and regulator devices, and are suitable for different voltage and power ranges. Opto-isolated terminals have advantages such as low signal loss at the control end, high switching frequency, no mechanical contact bounce, wear-free switching, high insulation voltage, resistance to vibration, independence from position, and long service life, thus being widely used in the field of automatic control.

Antal plug main parameters

1) Rated Voltage: Rated voltage, also known as operating voltage, mainly depends on the insulating materials used in the connector and the spacing between contact pairs. Certain components or devices may fail to perform their intended functions when operated below their rated voltage. The rated voltage of a connector should effectively be understood as the maximum operating voltage recommended by the manufacturer. In principle, connectors can operate normally at voltages below the rated voltage. The author prefers to select the rated voltage reasonably based on the connector's withstand voltage (dielectric strength) specifications, according to the application environment and safety level requirements. This means that with the same withstand voltage specification, different maximum operating voltages can be applied depending on the usage environment and safety requirements. This approach aligns better with actual usage conditions. 2) Rated Current: Also known as operating current. Similar to rated voltage, connectors generally operate normally when the current is below the rated current. During the connector design process, thermal design is employed to meet rated current requirements because current flowing through contact pairs generates heat due to conductor resistance and contact resistance. When the temperature rise exceeds a certain limit, it can damage the connector's insulation and cause softening of the contact pair surface plating, leading to failures. Therefore, limiting the rated current effectively means limiting the internal temperature rise of the connector to not exceed the designed specified value. An important consideration during selection is that for multi-core connectors, the rated current must be derated. This requires greater attention in high-current applications. For example, for φ3.5mm contact pairs, the rated current is generally specified as 50A, but for 5 cores, it must be derated by 33%, meaning the rated current per core is only 38A. The greater the number of cores, the larger the derating margin. 3) Contact Resistance: Contact resistance refers to the resistance generated at the contact interface between two conductive contacts. Two issues should be noted during selection. First, the contact resistance specification of a connector actually refers to the contact pair resistance, which includes both the contact resistance and the conductor resistance of the contact pair. Since conductor resistance is usually small, the contact pair resistance is often referred to as contact resistance in many technical specifications. Second, in circuits handling small signals, pay attention to the conditions under which the given contact resistance specification was tested, because oxide layers, oil stains, or other contaminants on the contact surfaces can create film resistance. As the film thickness increases, the resistance rises rapidly, turning the film into a poor conductor. However, the film can undergo mechanical breakdown under high contact pressure, or electrical breakdown under high voltage and high current. For some small-volume connectors, the designed contact pressure is quite low, and the application levels are only in the range of mA and mV, making it difficult for the film resistance to break down, which may affect signal transmission. One of the contact resistance test methods in GB5095 "Basic Test Procedures and Measurement Methods for Electromechanical Components Used in Electrical Equipment," specifically the "Contact Resistance - Millivolt Method," stipulates that to prevent breakdown of the insulating film on the contacts, the open-circuit electromotive force (DC or AC peak) of the test circuit shall not exceed 20mV, and the DC or AC test current shall not exceed 100mA. 4) Shielding: In modern electrical and electronic equipment, the increasing density of components and their related functions impose strict limits on electromagnetic interference. Therefore, connectors are often enclosed in metal housings to prevent internal electromagnetic radiation or interference from external electromagnetic fields. At low frequencies, only magnetic materials provide significant shielding against magnetic fields. In such cases, there are specific requirements for the electrical continuity of the metal housing, which relates to the housing contact resistance.

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