Product Details
Place of Origin: France as original
Brand Name: ELAU
Certification: CE UL cURus E360421
Model Number: SM-070/60/010/P0/45/M1/B0
Payment & Shipping Terms
Minimum Order Quantity: 1 piece
Price: USD 2000-6000 piece as depend on booking price
Packaging Details: 100*550*35 CM
Delivery Time: 3-70 working days
Payment Terms: D/A, D/P, T/T, Western Union
Supply Ability: 5 sets 10 days
Product Name: |
Servo Motor |
Series: |
Pacdrive SM Servo Motor |
Material: |
Iron Casting |
Warranty: |
1 Year |
Color: |
Black |
Voltage: |
3-phases AC 400V |
Motor Speed: |
6000/rpm |
Height: |
11.5 Cm |
Width: |
19.0 Cm |
Length: |
39.5 Cm |
Net Weight: |
3.2 Kg |
Product Name: |
Servo Motor |
Series: |
Pacdrive SM Servo Motor |
Material: |
Iron Casting |
Warranty: |
1 Year |
Color: |
Black |
Voltage: |
3-phases AC 400V |
Motor Speed: |
6000/rpm |
Height: |
11.5 Cm |
Width: |
19.0 Cm |
Length: |
39.5 Cm |
Net Weight: |
3.2 Kg |
In the intricate choreography of modern industrial automation, where microseconds matter and microns define quality, the selection of a servo motor transcends mere power specification. It becomes a strategic decision impacting throughput, precision, energy efficiency, and machine design flexibility. The SM-070/60/010/P0/45/M1/B0 S servo motor emerges as a specialist – a high‑performance, unbraked dynamo optimised for applications demanding maximum acceleration, speed stability, and uncompromising positioning accuracy, particularly where inherent system mechanics or operational logic negate the need for an integrated holding brake. This comprehensive introduction explores the distinct advantages, technical prowess, and ideal operating domains of this precision motion component.
The model number provides a precise roadmap to the motor’s configuration, adhering to a systematic nomenclature:
SM-070 – Identifies the servo motor family, frame size, and power class. "SM" denotes Servo Motor, while "070" signifies a nominal power output around 700W (0.7 kW) and defines the physical dimensions and mounting interfaces.
60 – Specifies the nominal supply voltage requirement. "60" indicates operation with a 600V AC (3‑phase) servo drive.
010 – Defines the specific winding variant. This critical code dictates the motor’s fundamental electrical characteristics – primarily its torque constant (Kt) and voltage constant (Ke) – ensuring optimal matching to the drive controller and the dynamic requirements of the application within the 700W power envelope.
P0 – Denotes the feedback system. "P0" unequivocally identifies a single‑turn absolute encoder, a cornerstone of precision closed‑loop control, providing exact rotor position data instantly upon power‑up.
45 – Details the shaft configuration. "45" typically specifies a keyed shaft end with standardised dimensions and tolerances for secure coupling attachment and torque transmission.
M1 – Indicates the mechanical mounting standard. "M1" universally represents a standard flange mount (commonly IEC B14 / B5 or equivalent), offering a robust and universally compatible interface for integration into machinery.
B0 – Signifies the brake configuration. Crucially, "B0" means the motor is supplied WITHOUT an integrated holding brake. This is the defining differentiator from braked variants.
S – Designates the sealing and ingress protection level. "S" consistently translates to a high degree of environmental sealing, achieving an IP65 rating (dust‑tight and protected against low‑pressure water jets from any direction), essential for resilience in demanding industrial settings.
The SM-070/60/010/P0/45/M1/B0 S is architected for exceptional dynamic performance and efficiency within its compact 070 frame. Its specifications reflect a focus on unencumbered motion:
| Feature Category | Specification | Significance & Impact |
|---|---|---|
| Motor Type | Permanent Magnet Synchronous Servo Motor (PMSM) | Superior efficiency, high power density, minimal torque ripple, excellent dynamics |
| Nominal Power (Pn) | ~ 700 W (0.7 kW) | Continuous mechanical output power under rated conditions |
| Peak Power | ~ 2100 W (2.1 kW) | Maximum short‑duration power (typically seconds) for acceleration |
| Nominal Torque (Tn) | ~ 2.4 Nm | Continuous torque available at rated conditions |
| Peak Torque (Tp) | ~ 7.2 Nm | Maximum short‑term torque (typically 3× Tn), vital for rapid acceleration |
| Nominal Speed (Nn) | ~ 3000 rpm | Speed at which nominal power is delivered |
| Maximum Speed (Nmax) | ~ 6000 rpm | Absolute maximum permissible rotational speed |
| Rotor Inertia (J) | ~ 0.42 × 10⁻⁴ kg·m² | Lower inertia than braked equivalents; enhances dynamic response and efficiency |
| Nominal Voltage (Un) | 3 × 600V AC | Required input voltage for the associated servo drive |
| Feedback System | Single‑Turn Absolute Encoder (P0) | Instant exact rotor position on power‑up; eliminates homing routines |
| Resolution | Very High (e.g., 20‑bit / 1,048,576 CPR) | Enables micro‑positioning and ultra‑smooth velocity control |
| Shaft Configuration | Keyed Shaft ("45") | Positive torque transmission without slippage |
| Mounting | Standard Flange Mount (M1, e.g., IEC B5/B14) | Robust, standardised mechanical interface |
| Brake | None (B0) | Reduced weight, lower inertia, lower cost, simpler wiring, no brake drag |
| Protection Class | IP65 (Sealed – "S") | Dust‑tight and protected against low‑pressure water jets |
| Insulation Class | Class F (155°C) | High thermal endurance; typically operated within Class B (130°C) limits |
| Cooling Method | Natural Convection (IC 410) | No fan required; reduces complexity and maintenance |
| Ambient Temperature | 0°C to +40°C (derating above 40°C) | Standard operational range for industrial settings |
| Connections | Flying Leads or Connector | Terminations for motor power (U/V/W), encoder feedback, thermistor (PTC) |
| Compliance | CE, UL, cULus | Conforms to major international safety and EMC standards |
| Approx. Weight | Lower than equivalent braked model | Reduced moving mass, benefiting high‑dynamics applications |
Note: Precise values for torque, power, inertia, etc., are determined by the specific "010" winding and final motor validation. Always consult the official data sheet for definitive specifications.
The deliberate omission of the integrated brake (B0) is not a limitation but a strategic optimisation for specific application needs:
Enhanced Dynamic Response – The lower rotor inertia (J) compared to a braked equivalent is a critical advantage. Inertia directly impacts acceleration and deceleration capability (τ = J × α). A lower J allows for faster speed changes, crucial for high‑throughput applications like pick‑and‑place, rapid indexing, or flying shears.
Reduced Power Consumption – Accelerating and decelerating inertia consumes energy. A lower J motor requires less energy to achieve the same acceleration profile, improving overall system energy efficiency. The absence of brake drag (friction when the brake is disengaged in braked models) further reduces parasitic losses.
Lower Weight – Removing the brake assembly significantly reduces the motor’s weight. This benefits moving axes (e.g., gantries, robot arms) where minimising moving mass improves dynamics, reduces structural loads, and can allow for lighter supporting structures.
Simplified Integration & Cost – Fewer components (no brake coil, no brake wiring) mean simpler installation, reduced wiring complexity, and lower initial component cost.
Application Suitability – Ideal for horizontal axes where gravity does not cause unintended movement, systems with inherent mechanical brakes (e.g., on gearboxes), or applications where controlled stops are managed by the servo drive’s deceleration profile and holding torque, and fail‑safe holding is not a safety requirement.
The heart of the motor’s precision lies in its integrated single‑turn absolute encoder (P0):
Instant Absolute Positioning – Provides the exact shaft angle within one revolution immediately upon power application. Eliminates time‑consuming and potentially inaccurate homing sequences after power cycles or brief interruptions, maximising machine uptime.
Ultra‑High Resolution – Delivers position feedback with exceptional granularity (typically 1,048,576 counts per revolution or higher). This enables micro‑radian level positioning accuracy, extremely smooth velocity control (even at very low speeds, <1 rpm), and superior control loop stability.
Sinusoidal Commutation – Outputs high‑fidelity sine and cosine signals essential for field‑oriented control (FOC) algorithms used by modern servo drives. This minimises torque ripple and ensures exceptionally smooth rotation and precise torque control.
Reliability & Diagnostics – Built for industrial longevity, often incorporating diagnostics for internal health monitoring.
The "S" suffix guarantees resilience:
IP65 Certification – "6" signifies complete protection against dust ingress (dust‑tight). "5" ensures protection against water jets projected by a nozzle (6.3 mm) from any direction. This robust sealing allows reliable operation in environments with airborne dust, moisture, splashes, occasional washdown procedures, and general industrial grime or coolant mist.
Durable Construction – Achieved through sealed bearings, specialised shaft seals, protective conformal coatings on electronics, and a robust housing design.
Designed for flawless integration within modern control systems (servo drives and motion controllers):
Optimised Drive Pairing – Pre‑engineered compatibility with servo drives ensures maximum performance, stability, and efficiency from the outset. The drive is precisely tuned for the motor’s electrical characteristics (winding "010").
Streamlined Commissioning – Standard automation software tools offer intuitive wizards for motor setup, auto‑tuning of control loops (gains, filters), and comprehensive diagnostics, significantly reducing commissioning time.
Advanced Motion Control – Easily integrates into sophisticated multi‑axis coordinated motion systems, enabling complex trajectories, electronic gearing, and camming.
Comprehensive Diagnostics – Real‑time monitoring of motor temperature (via integrated PTC thermistor), drive status, and performance metrics enables predictive maintenance and rapid fault resolution.
Scalability & Future‑Proofing – Part of a broad portfolio of motors and drives, simplifying future upgrades or system expansions.
Exceptional Acceleration/Deceleration – The combination of high peak torque (Tp ≈ 7.2 Nm) and low rotor inertia enables blistering acceleration and deceleration rates, minimising cycle times in repetitive motion tasks.
Superb Speed Regulation – Advanced drive algorithms leveraging the high‑resolution encoder feedback maintain consistent speed with minimal deviation, even under fluctuating load conditions – critical for processes like web handling or spindle control.
Micro‑Positioning Accuracy & Repeatability – The absolute encoder’s resolution and the motor’s inherent precision deliver positioning accuracy and repeatability measured in arc‑seconds or micrometres, depending on the mechanical transmission.
High Overload Capacity – The substantial peak torque reserve (3× nominal) provides ample margin for handling inertial loads during rapid starts/stops and overcoming stiction or unexpected resistance.
Efficient Thermal Design – Natural convection cooling (IC 410) combined with Class F insulation ensures reliable operation at continuous rated torque. The integrated positive temperature coefficient (PTC) thermistor provides reliable thermal protection.
This motor excels where speed, precision dynamics, and environmental sealing are paramount, and an integrated brake is unnecessary or undesirable:
High‑Speed Horizontal Conveying & Indexing – Driving belts, chains, or rollers in packaging, assembly, and material transfer where rapid starts/stops and precise positioning are key.
Printing & Converting Drives – Powering impression cylinders, chill rolls, nip rolls, and web guide actuators requiring exact speed synchronisation and registration control.
Precision Spindles – Driving tool spindles in light‑duty machining, grinding, polishing, or laser cutting applications demanding high rotational accuracy and speed stability.
Robotic Joints (Articulated/Cartesian) – Providing motion for smaller payload robots where weight minimisation and high acceleration in horizontal planes are critical.
Automated Assembly – Fastening (screwdriving), precision dispensing, light press‑fitting, and component insertion requiring rapid point‑to‑point moves and micro‑adjustments.
Flying Operations – Applications like flying cutters, saws, or shears synchronised to a moving web.
Semiconductor & Electronics Handling – Precision stages (X/Y/Z), wafer handlers, and component feeders operating in controlled environments.
Test & Measurement Equipment – Driving axes in coordinate measuring machines (CMMs), functional testers, or precision positioning stages.
Textile Machinery – High‑speed winding heads, precision feed rolls, and tension control dancers.
Agile Material Handling – Horizontal axes in pick‑and‑place units, sorters, and palletising/depalletising systems.
Peak Dynamic Performance – Unmatched acceleration/deceleration due to low inertia and high peak torque.
Absolute Positioning Precision – Instant high‑resolution feedback enables micro‑positioning and eliminates homing delays.
Enhanced Energy Efficiency – Lower inertia and absence of brake drag reduce power consumption during motion cycles.
Reduced Moving Mass – Lighter weight benefits dynamic systems and structural design.
Industrial Durability – IP65 rating ensures reliable operation in harsh, dirty, or damp conditions.
Simplified Integration & Lower Cost – No brake wiring or control simplifies installation and reduces component expense.
System Synergy – Seamless integration and optimised performance with modern servo drives and motion controllers.
Reliability & Long Service Life – Robust construction, high‑quality components, and effective thermal management.
The SM-070/60/010/P0/45/M1/B0 S servo motor represents a focused engineering solution for the high‑speed, high‑precision segment of industrial automation. By forgoing the integrated brake, it achieves superior dynamic performance, lower inertia, reduced weight, and enhanced energy efficiency compared to its braked counterpart. Coupled with the critical advantages of an ultra‑high‑resolution absolute encoder (P0) and rugged IP65 sealing (S), this motor is the unbraked dynamo of choice for engineers designing horizontal conveyors, precision spindles, robotic joints, printing drives, and any application demanding blistering accelerations, micron‑level accuracy, and resilience in challenging environments. When cycle time, precision under speed, and operational efficiency are paramount, and fail‑safe holding is managed otherwise, the SM-070/60/010/P0/45/M1/B0 S delivers uncompromising motion performance. Specify the dynamo for your high‑speed, high‑precision challenges.
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