15mm DC Geared Motor with Dual Shaft and Encoder JGY-370DC6V 10RPM

Welcome to our shop! Discover our DC helical gear motor, a product designed for performance and durability. This motor features a double D-type shaft, offering high hardness, excellent stability, and superior thermal conductivity for reliable operation. The gearbox is made entirely of metal, making it wear- and rust-resistant, thus significantly extending the motor's lifespan. The encoder is protected by three layers of high-density molecular paint, effectively insulating against dust and increasing its longevity. Furthermore, the copper coil ensures exceptional electrical conductivity, allowing for a smoother and more stable power output. This versatile motor finds application in numerous fields: household appliances, office equipment, automotive automation systems, intelligent systems, automated control, and other industrial drive devices. **Product Details:** **Item Type:** DC Helical Gear Motor** **Material:** Zinc Alloy, Copper** **Output Shaft Diameter:** Approx. 6 mm / 0.2 inch** **Output Shaft Length:** Approx. 15 mm / 0.6 inch** **Shaft Type:** Type D** **Speed Adjustment:** Adjustable** **Rotation Direction:** Clockwise and Counterclockwise** **Cable Length:** Approx. 230 mm / 9.1 inches** **Quantity:** 1 x Gear Motor** **Technical Parameters (DC 6V and DC 12V):** The motor is available with different supply voltages. The main parameters for each reduction ratio (from 40:1 to 1000:1) are as follows: * **No-load current:** ≤100 mA (6V) or ≤60 mA (12V) * **No-load speed (rpm):** Varies from 150 to 6 rpm depending on the ratio. * **Rated torque (kg.cm):** Varies from 0.2 to 26.5 kg.cm depending on the ratio. * **Rated speed (rpm):** Varies from 120 to 4 rpm depending on the ratio. * **Rated current:** ≤0.6 A for all ratios. * **Maximum torque (kg.cm):** Varies from 0.9 to 45 kg.cm depending on the ratio. * **Standby current:** 3.3 A (6V) or 1.7 A (12V) for all ratios. ratios. Please refer to the table provided for the specific values corresponding to each reduction ratio.