RVVP 2/3/4/5/6/7/8 Core 0.2mm 0.3mm 0.5mm 1mm 1.5mm Shielded Cable 2 3 4 5 6 8 10 Core 24 22 20 18 AWG Flexible Control Cable​ RVVP shielded flexible control cables, available in 2 to 10 cores with conductor sizes from 0.2mm² to 1.5mm² (24 to 18 AWG), are engineered for precise signal and control transmission in industrial automation, instrumentation, and building management systems. These cables combine robust shielding with exceptional flexibility, making them ideal for environments where electromagnetic interference (EMI) and frequent movement are common.​ The tinned copper braid shielding provides reliable protection against EMI and radio frequency interference (RFI), ensuring signal integrity in noisy industrial settings with motors, transformers, or power lines. Conductors, stranded for enhanced flexibility, handle low-voltage control signals efficiently, with core counts (2 to 10) accommodating diverse needs—from simple on/off controls to complex multi-sensor networks. The PVC insulation and sheath offer resistance to oil, moisture, and abrasion, suitable for both indoor and protected outdoor installations.​ With 24 to 18 AWG 规格 (corresponding to 0.2mm² to 1.5mm²), these cables balance current-carrying capacity and slim design, fitting into tight spaces in control panels or machinery. Their flexibility allows repeated bending in dynamic applications like robotic arms or moving conveyor systems, ensuring long-term durability without signal degradation. Compliant with industry standards, RVVP cables deliver consistent performance in critical control loops, making them a trusted choice for automation and instrumentation projects.

The 10 Core 1.5mm² Flexible Control Cable 300/500V is a signal transmission and control cable specifically designed for industrial automation systems and mechanical equipment. Leveraging its multi-core structure, excellent flexibility, weather resistance, and compatibility with a rated voltage of 300/500V, it serves as a key component connecting sensors, actuators, controllers, and mechanical equipment. Its core value lies in meeting the requirements of high-frequency bending, complex wiring, and stable signal transmission in industrial scenarios. It is widely used in CNC machine tools, robotic production lines, intelligent warehousing equipment, textile machinery, printing machinery, and other fields, providing reliable "neural conduction" support for the precise operation and efficient collaboration of industrial automation equipment. It is a mainstream cable option in the current industrial control field that combines practicality and durability.​ In terms of specifications and parameters, the cable's design accurately matches the technical needs of industrial control scenarios: the 10-core multi-core structure adopts a four-layer composite design of "conductor + insulation layer + shielding layer + sheath". Each conductor has a cross-sectional area of 1.5mm², and the long-term safe current-carrying capacity of a single core is approximately 8-12A (when laid in air at an ambient temperature of 30℃). When 10 cores transmit in parallel, they can simultaneously carry multiple sets of control signals and low-voltage power, adapting to the signal transmission of sensors (such as photoelectric sensors and proximity switches) in industrial equipment (current usually ≤5A), the transmission of control commands for actuators (such as small relays and solenoid valves), and the power supply for low-voltage components inside the equipment (such as indicator lights and small motors). Its rated voltage is 300/500V (complying with GB/T 5023 or IEC 60227 standards), which not only meets the low-voltage requirements of industrial control circuits (most control signal voltages are 24V DC or 220V AC) but also resists transient voltage fluctuations in the industrial power grid, avoiding signal interference or cable damage. In addition, the DC resistance of the cable conductor is strictly controlled at ≤12.1Ω/km (at 20℃, single-core copper conductor), which is much lower than the industry average, effectively reducing signal attenuation during transmission and ensuring the accurate delivery of control commands and data signals; at the same time, the insulation resistance is ≥100MΩ·km (at 20℃), and the voltage resistance performance reaches 1500V AC/1min without breakdown, further ensuring electrical safety in industrial environments.​ In terms of application scenarios, the "flexible" characteristics and multi-core structure of the cable give it strong scenario adaptability: in the CNC machine tool field, it can be used for the control signal transmission of spindle motors and feed axis motors, as well as the sensor signal connection of the turret tool change mechanism. CNC machine tools need to perform frequent axis movements during operation, and the cable must bend at high frequencies with the mechanical arm or slide (the number of bends can reach more than 1 million times, and the bending radius is 6-8 times the cable outer diameter). The flexible structure of this cable can avoid conductor breakage or insulation layer cracking caused by bending fatigue; in the industrial robot field, it is suitable for wiring at the robot joints. Robot joints rotate 360° and swing at multiple angles during operation, so the cable must have excellent torsion resistance (torsion angle ±180°/m). Its multi-core stranding process and elastic sheath material can reduce stress concentration during torsion, ensuring uninterrupted signal transmission; in the intelligent warehousing equipment field (such as stackers and AGV unmanned carts), it can be used for the control signal and positioning signal transmission of the equipment's walking mechanism. The wiring space in the warehousing environment is narrow, and the cable must be frequently dragged with the equipment movement. The lightweight design of this cable (weight per kilometer is about 18-22kg) and wear-resistant sheath (wear resistance complies with IEC 60811-2-1 standards) can reduce drag resistance, reduce sheath wear, and extend service life; in the continuous production machinery field such as textile and printing machinery, it can be used for signal transmission such as tension control and speed regulation of the equipment. Such machinery usually operates continuously for 24 hours, and the cable must withstand an ambient temperature of 80-100℃ (short-term overload temperature can reach 120℃). Its high-temperature resistant insulation material and sheath can ensure long-term stable operation, avoiding signal interruption caused by high-temperature aging.​ Material characteristics are the core support for the cable to adapt to industrial scenarios: the conductor is made of high-purity oxygen-free copper (purity ≥99.99%), using a multi-strand fine copper wire stranding process (each copper wire has a diameter of about 0.15mm, and a single core is composed of 70-80 strands of fine copper wire). Compared with single-strand hard conductors, the multi-strand stranding structure greatly improves the flexibility and fatigue resistance of the cable, which can withstand high-frequency bending and torsion without breaking; at the same time, oxygen-free copper has excellent electrical conductivity (conductivity ≥101%IACS), which can reduce loss and interference during signal transmission. The insulation layer wrapped around each conductor is made of temperature-resistant polyvinyl chloride (PVC) or cross-linked polyethylene (XLPE) material, with a temperature resistance grade of 80℃ or 105℃. The insulation thickness is uniformly controlled at 0.6-0.8mm, which not only ensures insulation performance but also avoids reducing cable flexibility due to excessive thickness. Some high-end models are also equipped with tinned copper wire braided shielding layers (shielding density ≥85%), which can effectively resist electromagnetic interference in industrial environments (such as electromagnetic radiation generated by frequency converters and high-power motors), ensure the signal-to-noise ratio of control signals, and avoid equipment misoperation caused by signal interference. For example, in a robotic production line, multiple devices operate simultaneously, creating a complex electromagnetic environment. The shielding layer can attenuate interference signals by ≥40dB, ensuring accurate signal transmission between sensors and controllers. The outer sheath is made of flexible polyvinyl chloride (PVC) or thermoplastic elastomer (TPE) material. The TPE material version has better flexibility (Shore hardness 60-70A) and is oil-resistant and chemical corrosion-resistant (can withstand the erosion of engine oil, cutting fluid, and weak acid-base solutions), suitable for scenarios with more oil pollution such as machine tool cutting and automobile manufacturing; the PVC material version has better cost-effectiveness, suitable for dry and clean automated workshop environments.​ In addition, the cable also has a number of industrial-grade value-added characteristics: first, strong weather resistance, which can work stably in an ambient temperature range of -20℃ to 80℃ (the TPE sheath version can be extended to -40℃ to 105℃), adapting to temperature and humidity changes in industrial plants in different regions; second, compliant flame retardancy, the insulation layer and sheath are made of flame-retardant materials, meeting the flame retardant grade (ZC grade) in GB/T 18380.1-2008, which can self-extinguish quickly when exposed to fire without producing toxic and harmful gases, providing a guarantee for the fire safety of industrial plants; third, convenient wiring, the cable outer diameter is about 8-10mm (slightly different depending on the sheath material and the presence of a shielding layer), which can be easily threaded into the wire pipes or wire troughs inside the equipment, adapting to the compact internal structure of industrial equipment; fourth, clear identification, the cable surface is printed with continuous product information (model, number of cores, cross-sectional area, rated voltage, execution standard, production batch number), using wear-resistant ink, which remains clearly visible after oil pollution and friction in industrial environments, facilitating construction personnel to check and maintain.​ Overall, the 10 Core 1.5mm² Flexible Control Cable 300/500V solves the core pain points of "unstable signal transmission, easy damage due to high-frequency bending, and difficulty adapting to complex environments" in the industrial automation and machinery field through precise specification design, material selection suitable for multiple scenarios, and industrial-grade durability. Whether it is the precise control of high-precision CNC machine tools or the flexible operation of high-flexibility industrial robots, this cable can serve as a reliable control signal carrier, helping industrial equipment achieve efficient, stable, and safe operation, and providing a basic guarantee for the intelligent manufacturing upgrade in the Industry 4.0 era.