Connection method
D-SUB plug board series: usually connected by directly inserting the plug board into the corresponding socket or slot. The connection process is relatively simple and quick, without welding operation, strong pluggability, and convenient for installation, commissioning and disassembly and replacement during maintenance of the equipment.
D-SUB welding wire series: the wire is connected to the pin or terminal of the connector by welding. After welding, the connection is relatively firm and not easy to loosen, but the welding process requires certain techniques and tools, and once welding is completed, if it needs to be changed or repaired, it is relatively difficult to disassemble.
Electrical performance
D-SUB plug board series: because its connection method mainly relies on the contact between the metal pin and the socket, in the long-term use process, the contact resistance may gradually increase due to oxidation, wear and other factors, thereby affecting the signal transmission quality. However, under normal use conditions, general signal transmission requirements can usually be met.
D-SUB welding wire series: welding connection can provide a more stable and reliable electrical connection, reduce signal attenuation and interference caused by poor contact, and has certain advantages in transmitting large current and high-frequency signals, which can ensure the integrity and accuracy of the signal.
Mechanical strength and stability
D-SUB plug board series: The connection between the plug board and the socket mainly relies on the coordination of the mechanical structure. When subjected to external forces such as vibration and impact, it may become loose, have poor contact or even fall off, affecting the normal operation of the equipment. However, some plug board series connectors are equipped with locking devices to enhance the stability of the connection.
D-SUB solder wire series: The connection points after welding have high mechanical strength, can withstand a certain degree of external force pulling and vibration, are not prone to loosening or disconnection, and have better stability in some harsh working environments.
Applicable scenarios
D-SUB plug board series: Suitable for occasions that require frequent plugging and unplugging and high requirements for the maintainability and flexibility of the equipment, such as serial and parallel port connections of computers, as well as some temporary connections or test environments that require frequent equipment replacement.
D-SUB solder wire series: Commonly used in equipment that requires extremely high reliability and stability of electrical connections, such as industrial automation control systems, aerospace electronic equipment, military communication equipment, etc., as well as some occasions that require the transmission of large currents or high-frequency signals.

The sensor line is a cable used to connect sensors and other devices to achieve signal transmission. The following is a detailed introduction:
Classification
Classification by sensor type:
Temperature sensor line: used to connect temperature sensors, such as PT100 temperature sensors, etc. Its material usually has good temperature resistance and can stably transmit signals under different temperature environments to ensure the accuracy of temperature measurement.
Pressure sensor line: used in conjunction with pressure sensors. According to the different wiring methods of pressure sensors, such as two-wire system, three-wire system, four-wire system, etc., the connection method of pressure sensor line is also different, and it needs to have good insulation performance and anti-interference ability.
Displacement sensor line: used for displacement sensors. Since displacement sensors have high requirements for signal accuracy and stability, displacement sensor lines usually use shielded wires to reduce the impact of external electromagnetic interference on signals.
Flow sensor line: connected to flow sensor, according to the working principle and signal output type of flow sensor, select the appropriate sensor line, such as some electromagnetic flow sensors need to use special shielded cables to transmit weak electrical signals.
Classification by signal type:
Analog sensor line: transmits analog signals, such as voltage, current and other continuously changing signals. Analog sensor lines need to ensure the linearity and accuracy of the signal, and are usually made of materials with good conductivity and low noise to reduce signal distortion.
Digital sensor lines: Transmit digital signals, such as 0 and 1 signals represented by high and low levels. Digital sensor lines have the advantages of strong anti-interference ability and fast transmission speed, and are often used in some sensor systems with high requirements for signal accuracy and real-time performance.
Features
Adaptability: It needs to be compatible with different types of sensors to meet the sensor’s requirements for signal transmission, including signal type, transmission rate, accuracy, etc.
Anti-interference: In a complex electromagnetic environment, it can effectively shield external interference and ensure the accurate transmission of sensor signals. Shielding layers, twisted pairs and other structures are usually used to reduce electromagnetic interference.
Flexibility and durability: It has good flexibility to facilitate wiring and bending in different installation environments. At the same time, it also needs to have a certain durability to withstand long-term use and different environmental conditions.
Application areas
Industrial automation: On the production line, various sensors such as position sensors, force sensors, temperature sensors, etc. are connected to the control system through sensor lines to achieve precise control and monitoring of the production process. For example, in the automobile manufacturing process, displacement sensors transmit the position information of body parts to robots through sensor lines to ensure the accuracy of welding, assembly and other processes.
Automotive electronics: Cars are equipped with a large number of sensors, such as oxygen sensors, tire pressure sensors, ABS sensors, etc. Sensor lines connect these sensors to the car’s electronic control unit (ECU) to achieve real-time monitoring and control of the car engine, braking system, tires, etc., to improve the safety and performance of the car.
Medical equipment: In the medical field, sensors such as blood oxygen sensors, ECG leads, and body temperature probes transmit human physiological signals to monitors, electrocardiographs and other equipment through sensor lines for medical staff to diagnose and monitor. Sensor lines need to comply with medical safety standards and have good biocompatibility and anti-interference capabilities.
Smart home: Smart home sensors such as temperature sensors, humidity sensors, door and window sensors, and smoke sensors are connected to smart home control systems through sensor lines or wireless sensor networks to achieve intelligent monitoring and control of the home environment. For example, the indoor temperature information is transmitted to the air conditioning system through the temperature sensor line to achieve automatic room temperature adjustment.

Industrial network cables are widely used in many industrial fields and have many advantages. The following is a detailed introduction:
Application fields
Industrial automation field: In automated production lines, PLCs, sensors, actuators and other devices are connected to realize command transmission and data interaction between devices to ensure efficient and stable operation of the production line. For example, in automobile manufacturing production lines, the communication between various robotic arms, welding equipment, conveying equipment, etc. relies on industrial network cables.
Industrial robot field: Industrial robots need to transmit a large amount of data with controllers, visual systems, etc. during work, such as robot action instructions, position feedback, image recognition results, etc. Industrial network cables can meet their high-speed and stable data transmission requirements and ensure the precise operation and efficient work of robots.
Transportation field: In the ETC toll collection system of highways, traffic light control systems, signal systems and monitoring systems of rail transit, industrial network cables can ensure stable communication between devices and improve the safety and operation efficiency of transportation systems.
Energy and power field: In power plants, substations and other places, they are used to connect monitoring equipment, protection devices, smart meters, etc. to realize real-time monitoring and control of power systems and ensure safe and reliable power supply.
Chemical and petroleum industry: In the process of chemical production and oil extraction and processing, industrial network cables can be used to connect sensors, instruments, controllers and other equipment on site, ensure the stability and security of data transmission in harsh environments such as high temperature and strong corrosion, and realize precise control and monitoring of the production process.
Advantages
Strong anti-interference ability: There are a large number of electromagnetic interference sources in industrial environments, such as motors, inverters, welding machines and other equipment. Industrial network cables usually use shielding technology, such as shielded twisted pair cables. The metal shielding layer inside can effectively block external electromagnetic interference from entering the network cable, and also prevent internal signals from radiating outward to interfere with other equipment, ensuring the accuracy and stability of data transmission. For example, in strong electromagnetic interference environments such as steel mills, the use of shielded industrial network cables can prevent interference between devices.
Adapt to harsh environments: It can work normally in a wide temperature range, generally can withstand temperature changes from -40℃ to +75℃ or even wider, and can operate stably in the cold northern outdoors or the hot southern factory workshops. Some industrial network cables also have the characteristics of waterproof, moisture-proof, dust-proof, oil-proof, and corrosion-resistant, and can adapt to harsh environments such as humid mines and chemical workshops with chemical corrosion.
High mechanical strength: It has high tensile strength and wear resistance, and can withstand mechanical stresses such as stretching, twisting, and extrusion in industrial sites. For example, near frequently moving parts of automated production lines, such as drag chains, using highly flexible and high-strength industrial network cables can avoid communication failures caused by damage to the network cables.
Stable transmission performance: The use of high-quality conductor materials and advanced production processes ensures low signal transmission attenuation and distortion, and can support higher data transmission rates, such as Gigabit Ethernet and even 10 Gigabit Ethernet, to meet the needs of rapid transmission of large amounts of data in industrial production. At the same time, the transmission delay of industrial network cables is low, and for industrial control applications with high real-time requirements, such as real-time control of robots and synchronous control of automated production lines, it can ensure timely transmission and processing of data.
High reliability and safety: The quality and performance of industrial network cables have been strictly tested and certified, and they comply with relevant industrial standards and specifications, such as Ethernet/IP, PROFINET, DeviceNet, etc., and have high reliability and compatibility. Some industrial network cables also have flame retardant, low smoke and halogen-free properties. In the event of fire or other unexpected situations, they can reduce the spread of fire and the generation of toxic smoke, and improve the safety of industrial sites.

New energy storage cables are key components used to transmit power, signals and data in new energy storage systems. Here is a detailed introduction to them:
Main types
Classification by material:
XLPE (cross-linked polyethylene): has excellent electrical properties, such as high insulation resistance and low dielectric loss, which can effectively reduce the loss during power transmission. At the same time, it has good heat resistance and aging resistance, can operate stably for a long time in a wide temperature range, and is suitable for energy storage systems used outdoors for a long time.
Silicone: has good flexibility and high and low temperature resistance, and can maintain elasticity and stable electrical properties in a temperature range of -40℃ to +200℃. In addition, silicone also has good chemical corrosion resistance and waterproof properties, and can be used in harsh environmental conditions.
Classification by use:
High-voltage energy storage cables: mainly used to connect energy storage battery packs with high-voltage equipment such as energy storage converters to transmit high voltage and high current. Generally has a higher voltage rating and current carrying capacity, such as a voltage rating between 1000V and 1500V, and can carry a current of 60A to 400A.
Low-voltage energy storage line: used to connect low-voltage equipment such as battery management systems, monitoring systems, and control systems to transmit control signals and data. It is characterized by a relatively small wire diameter and high requirements for the accuracy and stability of signal transmission.
Performance requirements
Electrical performance:
High current carrying capacity: It needs to be able to carry large currents in the energy storage system to ensure efficient transmission of electric energy. For example, in some large energy storage power stations, the energy storage wiring harness needs to withstand hundreds of amperes of current.
Low resistance: In order to reduce losses during power transmission and improve the efficiency of the energy storage system, the resistance of the new energy storage line should be as low as possible.
Good insulation performance: It has high insulation resistance and voltage resistance to prevent leakage and short circuit accidents. Generally, the insulation layer is required to withstand thousands of volts.
Safety performance:
Flame retardancy: Since there may be fires caused by battery overheating and short circuit in the energy storage system, the sheath and insulation materials of the new energy storage line must have good flame retardant properties and be able to prevent the spread of flames for a certain period of time.
Waterproof and dustproof: In outdoor energy storage systems, energy storage harnesses need to prevent moisture and dust from entering the interior to avoid equipment failures due to short circuits, corrosion and other problems. Connectors with good sealing performance and wires with waterproof coatings are usually used to meet this requirement.
Mechanical properties:
Tensile strength: During the installation and use of the energy storage system, the energy storage harness may be subjected to tensile forces, so it is necessary to have a certain tensile strength to prevent the wire from breaking.
Anti-bending: The energy storage harness may need to be bent during the wiring process, so it is necessary to have good anti-bending performance to prevent damage to the internal structure of the wire.
Application scenarios
Power energy storage system: used to connect battery modules, energy storage converters, battery management systems and other equipment to achieve the storage and release of electric energy. For example, in the grid-side energy storage system, the energy storage harness transmits the electric energy stored in the battery to the grid, which plays a role in regulating the power of the grid and stabilizing the voltage of the grid.
New energy power generation: In solar power stations and wind power stations, energy storage harnesses are used to connect energy storage systems and power generation equipment to store excess electric energy for use when power generation is insufficient or when grid demand is peak.
Electric vehicles: It is an important component that connects the battery, motor and electronic control system of electric vehicles, responsible for transmitting power and control signals to ensure the normal operation of electric vehicles.
Smart grid: In smart grids, energy storage harnesses can realize the access and management of distributed energy, and improve the flexibility and reliability of the power grid.
Production standards
International standards: Such as the relevant standards formulated by the International Electrotechnical Commission (IEC), which have strict regulations on the electrical performance, safety performance, mechanical performance and other aspects of energy storage harnesses. For example, the IEC 62893 series of standards specifically regulates the requirements for high-voltage harnesses for electric vehicles.
National standards: China has formulated a series of national standards, such as GB/T 31485-2015 “Safety Requirements and Test Methods for Power Batteries for Electric Vehicles”, GB/T 31467.3-2015 “Lithium-ion Power Battery Packs and Systems for Electric Vehicles Part 3: Safety Requirements and Test Methods”, etc., which put forward clear requirements for the application of new energy storage cables in the field of electric vehicles.
Industry standards: Some industry associations and organizations have also formulated relevant industry standards, such as the “Technical Specifications for High-Voltage Wiring Harnesses for Electric Vehicles” formulated by the China Association of Automobile Manufacturers, which regulates the production, testing and use of energy storage wiring harnesses.

The push-pull self-locking circular connector is a connector widely used in the field of electronic equipment connection.
1. Structural features
Circular design
The circular shell gives it good mechanical strength and sealing. Compared with other shapes, the circle can withstand external pressure more evenly. For example, in some environments that require waterproofing and dustproofing, the circular shell can better fit the sealing gasket to prevent liquid and dust from entering.
Push-pull self-locking mechanism
The core features of this connector are the push-pull connection and self-locking functions. When inserted, it can be firmly connected to the socket by simply pushing the plug part. After the connection is in place, the internal self-locking device will automatically lock to ensure the stability of the connection. For example, in some equipment testing environments that require frequent plugging and unplugging, the operator only needs to push or pull the connector easily to complete the connection or disconnection operation without worrying about the loose connection.
The self-locking device is generally implemented by a mechanical structure, such as a spring-loaded locking ball or locking clip. These structures automatically lock the plug when the plug is inserted into the socket to a certain depth to prevent accidental detachment. When the connection needs to be disconnected, it is usually necessary to press a release button or perform a specific pulling operation to release the lock.
2. Performance Advantages
High Reliability
Due to its self-locking function, the push-pull self-locking circular connector can maintain a stable connection in harsh mechanical environments such as vibration and impact. For example, in aerospace equipment, aircraft will experience severe vibration and acceleration changes during flight. This connector can ensure that the signal transmission between onboard electronic equipment will not be interrupted due to loose connections.
Quick connection and separation
Compared with traditional threaded connectors, the push-pull self-locking circular connector is easier and faster to operate. Operators can complete the connection and separation of multiple connectors in a short time, greatly improving the assembly and maintenance efficiency of equipment. For example, during the equipment maintenance process of industrial automation production lines, technicians can quickly plug and unplug connectors, replace faulty modules, and reduce equipment downtime.
Good electrical performance
It can provide stable electrical connections with low contact resistance. This makes the signal transmission loss smaller and can effectively transmit high-frequency signals and large currents. For example, in communication base station equipment, this connector can ensure the efficient transmission of radio frequency signals and improve communication quality.
3. Application Fields
Military Field
Widely used in military communication equipment, radar systems, missile guidance systems, etc. In these military equipment, the reliability, waterproofness and anti-electromagnetic interference capabilities of connectors are extremely high. Push-pull self-locking circular connectors can meet these requirements and ensure the normal operation of military equipment in complex battlefield environments.
Industrial field
Such as automated production lines, industrial robots, power equipment, etc. In automated production lines, it is used to connect various sensors, controllers and actuators to ensure the stable transmission of automated control signals in the production process. In industrial robots, it can ensure the reliable connection between the motor and the sensor at the joints of the robot, so that the robot can accurately complete various actions.
Medical equipment field
Like medical imaging equipment (such as CT, MRI), patient monitoring equipment, etc. In medical imaging equipment, connectors need to transmit a large amount of image data and control signals, and ensure stable connection during frequent movement and angle adjustment of the equipment. The stability and high data transmission performance of push-pull self-locking circular connectors make them very suitable for the application of these medical devices.

The characteristics of CoaXPress cables are as follows:

Transmission performance

• High rate: CXP 1.0 and 1.1 standard single cable can reach 6.25Gbit/s, CXP 2.0 standard single cable can reach 12.5Gbit/s, multiple cables can be stacked to provide higher bandwidth, such as 8 cables can provide a maximum image data rate of about 4.8Gb/s.

• Low-latency real-time transmission: It can meet the requirements of high-resolution image acquisition at high frequency, and can achieve low-latency real-time data transmission, which is crucial for applications such as machine vision that require rapid acquisition and processing of image data, ensuring timely response and accurate control of the system.

Transmission distance

• Long-distance transmission: The transmission distance is long, and there are different typical transmission distances at different rates, such as 212m or 130m using specific cables in CXP-1 mode, 60m or 40m in CXP-6 mode, etc. Without the use of hubs and repeaters, the transmission distance can exceed 100 meters.

• Optional distance and rate configuration: Different transmission distance and transmission volume combinations can be selected according to actual needs, ranging from 50m@6.25Gbit/s to 170m@1.25Gbit/s and other modes are available.

Cable function

• Integrated multi-signal transmission: Video transmission, serial communication control and power supply can be realized on one cable, reducing wiring complexity and cost. The host can provide 24V voltage to the device through coaxial cable, and the power of each cable can reach 13W.

• Uplink: There is a low-rate uplink, the standard rate of CXP 1.0 and 1.1 versions is 20.833Mbit/s, and the 2.0 version is 41.667Mbit/s, which can be used for device control, triggering and firmware updates.

Cable characteristics

• Standard coaxial cable: 75Ω coaxial cable is used as the transmission medium. Common coaxial cables such as RG59 and RG6 can be used. It is easy to obtain and install, and the existing coaxial cable can be reused when the analog camera system is upgraded to a digital camera system.

• Strong anti-interference ability: Some cables have a braiding coverage of more than 90% and an aluminum foil double shielding design, which has excellent anti-electromagnetic interference ability and can ensure the reliability and integrity of the signal.

• High flexibility: There are two series: fixed type and high-flexible type. After 5 million drag chain tests, the high-flexible type still has stable and reliable data transmission, which is suitable for connecting devices that need to be frequently moved or bent.

• Miniaturization: The special coaxial cable design is adopted, the product is miniaturized, the cable outer diameter is small, and the bending radius is small, which can save space for devices such as cameras, and supports multiple interfaces such as BNC, HD-BNC, and DIN.

Use and cost

• Support hot plugging: It is convenient to connect and replace equipment without turning off the system power, which improves the maintainability and flexibility of the system.

• Cost-effectiveness: The use of standard coaxial cable has low material prices, which reduces the overall cost. At the same time, there is no authorization fee for this standard, which further saves the cost of use.

Basic Concepts
Definition: USB to 232 serial port cable DR9 female is a cable used to convert the USB interface of a computer to an RS-232 serial port interface, where “DR9 female” refers to a 9-pin D-Sub female connector on the serial port end.
Function: To realize data transmission and communication between modern devices with USB interface and old devices using RS-232 serial communication, such as connecting serial printers, serial cameras, serial GPS and other devices.
Performance Parameters
Electrical characteristics: The electrical characteristics that meet the RS-232 standard can usually convert the level signal of the USB interface to the level signal of the RS-232 standard, such as + 5V~+12V for low level (binary 0), -12V~-5V for high level (binary 1).
Baud rate: Common baud rates include 1200, 2400, 4800, 9600, 19200, 38400, 57600, 115200 (bps), etc., which can be configured according to the communication requirements of the device.
Data format: Generally 10 bits, including 1 start bit, 8 data bits, and 1 stop bit.
Internal wiring method
The wiring of the USB to 232 serial port cable DR9 female is generally cross-connected, that is, the RXD and TXD lines are cross-connected, which is to ensure that data can be correctly transmitted between different devices.
Instructions
Install the driver: Before use, you need to install the appropriate driver. These drivers can be obtained from the supplier’s official website or the Internet.
Connect the device: Insert the USB end of the USB to 232 serial port cable into the USB port of the computer, and connect the DR9 female end to the serial port device.
Configuration parameters: Configure the number of data bits, parity, baud rate, flow control and other parameters according to actual needs to ensure that the communication parameters between the computer and the serial port device are consistent.
Application scenarios
Industrial automation: Used to connect PLC, sensors and other automation equipment to achieve remote monitoring and control.
Medical equipment: Many medical monitoring and diagnostic equipment use serial lines for data output and equipment control. These devices can be connected to the computer through USB to 232 serial line.
Data acquisition system: In the data acquisition and monitoring system, field data can be transmitted to the central database.
Telecommunications equipment: Used to connect telecommunications equipment such as modems and routers for configuration and maintenance.
On-board diagnostics: Automobile diagnostic tools often communicate with the vehicle’s OBD-II interface through serial lines to read vehicle status information.

Performance characteristics
High-speed data transmission: Using advanced interface standards and full-duplex mode, the theoretical transmission speed can reach 5Gbps, which is about 500MB/s. Compared with the 1.5Mbps, 12Mbps or 480Mbps of USB2.0, it is significantly improved and can ensure a large amount of data. Or efficient and accurate transmission of real-time data.
Stable and reliable: Usually high-quality materials and manufacturing processes are used, such as oxygen-free tinned copper conductors, and the cable outer cover may be made of strong materials such as nylon braid, which can resist mechanical shock and vibration, reduce failure rates, and can operate at – 20°C Stable operation over temperature range to +80°C.
Strong power supply capability: The power supply voltage of the USB3.0 interface is 5V, and the power supply current can reach 900mA, which can provide larger current to meet the power needs of high-power-consuming devices, allowing the connected devices to operate stably without the need for additional power supply.
Broad compatibility: It has broad compatibility and can connect to a variety of devices, such as cameras, sensors, storage devices, printers, etc., and is backward compatible with USB2.0 and USB1.1 devices.
Appearance design
Cable thickness: Since the USB3.0 data cable has 4 more internal wires than USB2.0, the overall cable will be thicker, usually around 4-5mm in diameter.
Interface color: The color of the plastic piece in the middle of the interface is usually blue, while the USB2.0 interface is usually black, but there are also cases where the color distinction of some devices is not standardized.
Interface pins: Taking the Type-A interface as an example, the USB3.0 interface has 5 more pins than USB2.0; the Type-B interface has an extra pin on the top and the number of pins has also increased.

Application scenarios
Storage device connection: Used to connect computers with storage devices such as mobile hard disks and USB flash drives. It can quickly transmit large amounts of data, such as high-definition videos, large files, etc., greatly saving transmission time.
Digital device data transmission: Digital devices such as cameras and camcorders can be connected to the computer to quickly export photos and video materials and improve work efficiency.
External device expansion: Used with a USB3.0 hub or docking station, it can connect multiple USB devices, such as keyboards, mice, printers, scanners, etc., to meet the diverse needs of users in office or home environments.
Precautions for use
Confirm device support: Although USB3.0 cables have downward compatibility, to achieve the high-speed transmission function of USB3.0, devices (such as computer motherboards, storage devices, etc.) need to also support the USB3.0 standard, otherwise they can only be Transfer data at low USB2.0 or USB1.1 speed.
Impact of cable length: Generally speaking, the length of the USB3.0 cable has a certain impact on the transmission speed. A longer cable may cause signal attenuation and affect the transmission performance. It is recommended to choose a shorter cable when high-speed transmission is required. .
Correct plugging and unplugging: When plugging and unplugging USB3.0 cables, pay attention to the correct direction and force to avoid damage to the interface caused by forced plugging and unplugging. At the same time, try to avoid frequent plugging and unplugging to extend the service life of cables and interfaces.

Machine vision cables are the “nerves” of machine vision systems, responsible for transmitting signals between industrial cameras, lenses, data acquisition cards, industrial PCs and other devices to ensure the normal operation of the system and realize functions such as automated detection, identification and processing of products on the production line.
Performance requirements
High-speed data transmission: Machine vision systems need to collect, process and analyze large amounts of image data in real time or near real time, so cables must have high-speed data transmission capabilities. For example, CoaXPress single core can achieve 6.25G and 12.5G transmission rate.
Low latency and high accuracy: Data transmission delay will affect the accuracy of machine analysis results. Cables must ensure low latency and high accuracy of signal transmission to ensure timely and accurate transmission of image data.
Strong anti-interference ability: There is a lot of electromagnetic interference in the industrial environment. Cables must have good anti-interference ability and adopt shielding design, such as metal braided mesh, aluminum foil and other shielding layers to prevent signal distortion.
High flexibility: In applications such as robot vision, cables must bend frequently with the joints and arms of the equipment. They must have high flexibility and use special insulation and sheath materials, such as polyurethane and thermoplastic elastomers, to withstand multiple bends without breaking or damage.
Good environmental resistance: In different industrial environments, cables must be resistant to oil, corrosion, high temperature, and low temperature to extend their service life. For example, the oil pollution and cutting fluid in the automobile manufacturing workshop require oil resistance of cables.
Common types
Camera Link cable: It has high-speed and high-resolution image transmission capabilities and high data transmission rate. It can meet the needs of high frame rate and high-resolution cameras and is suitable for occasions with high requirements for image quality and transmission speed.
GigE Vision cable: Based on Ethernet technology, it can achieve long-distance transmission, theoretically up to 100 meters, widely used, and supports POE Ethernet power supply, which can reduce the complexity of wiring.
CoaXPress cable: ultra-high speed, coaxial cable design with small outer diameter, small interface size, can achieve miniaturization and high density, suitable for occasions with limited space and high transmission rate requirements.
USB cable: common and easy to use, high speed can meet 5Gbps, low CPU load, low signal delay, low power consumption, some can also be powered by USB cable, but long-distance transmission requires high-cost solutions.
IEEE 1394 cable: interface types are divided into 1394a and 1394b, which were widely used in early machine vision systems and are gradually replaced by other high-speed interfaces, but are still used in some specific devices.