AS3-10BAI Yako AC Servo Drive AS3 Series

Stepper drive auto-setup measures motor parameters and configures motor current control and anti-resonance gain settings. The high voltage drive uses ac input 90 to 240 Vac and output current is selectable from 0.6 to 2.5 A/phase (peak of sine).

YKD2305M is high performance digital step driver based on YAKO’s new 32-bit DSP technology. It’s designed for various models of two phase 42~60mm (NEMA 17~24) hybrid stepper motors which current are below 3A.

86mm Series 3 Phase Close-loop Stepper Motor  Step accuracy: 5% Temperature: 80℃Max Ambient temperature: -20℃-+50℃ Insulation resistance: 100MΩ Min 500VDC Pressure resistance: 500VAC 1 minute Radial runout: Maximum 0.02mm (450g load) Axial runout: Maximum 0.08mm (450g load) Specification Model Step Angle (°） Motor Lenth (L) Holding Torque (N.m) Rated Current (A) Resistance (Ω） Inductance (mH) Rotor Inertia (g.cm²） Weight (kg) Motor Leads YK385EC127A1 1.2 147 7.5 4.5 2.6 17 3960 4.26 3 YK385EC156A1 1.2 176 12 3.0 2.34 18.33 4500 6.5 3 Suitable drive model: MS-L3 Dimensions Dimensions Model Shaft Diameter D (mm) Shaft Type (mm) Shaft Length L1 (mm)  YK385EC127A1 14 Key 5*5*25 40 YK385EC156A1 14 Key 5*5*25 40 Encoder Wiring Black GND Red +5V Blue/White EA- Blue EA+ Orange/White EB- Orange EB+ *Motor / Encoder cable: 0.3m Encoder standard cable: 2m (optional 8m/10m) No more motor cable needed Motor connection

Transmission rate: 2x100Mbps (full-duplex), refresh time: 100 axes x 1µs/axis transmission delay = 0.1ms

Supports 1ms synchronization cycle. For synchronization cycles less than 1ms, it can support synchronization in multiples of 250µs. This makes it suitable for real-time-critical applications such as engraving and milling machines and printing presses.

Through precise adjustment of the EtherCAT distributed clock, 300 nodes can be connected over a distance of 120m with 15ns synchronization error and ±20ns synchronization jitter.

Using an RJ45 industrial Ethernet cable, the system allows for quick connection, significantly reducing wiring workload.

YKE2405M-2A-IO Features: New-generation 32-bit DSP control technology, high cost performance A single driver controls two stepper motors of the same model simultaneously, achieving synchronized movement Triple optocoupler isolated digital signal input with one output, compatible with 5V/24V signals, supporting common cathode and common anode wiring methods Employing the latest resonance suppression algorithm, it delivers exceptional stability at medium and low speeds. The current control is smooth, precise, and results in minimal motor heating It features 8 current levels and 16 speed options The start-stop control supports two modes The operating current, speed, and acceleration/deceleration can all be set through the host computer debugging software The lock motor current can be set via the host computer, with the default being 50% of the set current It features overvoltage, undervoltage, overcurrent, and phase sequence protection functions Typical applications: Mainly used for speed control, loading and unloading machines, connecting stations, logistics transportation, transfer equipment, electronic devices, lithium battery equipment, etc. Brief Introduction: YKE2405M-2A-IO is a high-performance one to two stepper drive based on the new generation 32-bit DSP technology. The driving voltage is DC 20-50V, equipped with two motor inputs, which can simultaneously adapt to current continuous output within 4.0A (effective value). The flange is a 42/57mm two-phase open-loop stepper motor, and the drive can set the current and speed by dialing when adapting to different motors. The control mode of this drive is spontaneous pulse speed control, with 4 dials available for 16 speed segments, and can also be set to any speed range through the upper computer; Equipped with three optoelectronic isolated digital inputs and one alarm output; Internally, a servo like control principle, unique circuit design, and superior software algorithm processing are used to ensure smooth low-speed operation of the motor. Precise current control technology greatly reduces motor heating, making it highly effective in devices where users expect low heating, low noise, high stability, and high precision.