ProductPRODUCT
Featured products
Contact Us
- Schneider
- ATS480D17Y
- Soft Starter
- France
- 275 × 160 × 203 mm
- 4.9 kg
- Xiamen, China
- New & In Stock
- T/T, PayPal, Western Union
- 1 Year
- 1-3 Working Days
- DHL, UPS, TNT, FedEx and EMS.
- 24-Hour Service
- COO
- 21
Our advantage
Global Logistics
We have a 10-year logistics and express cooperation agreement, so our products can be shipped to any place in the world.
Brand new and original
Our products are imported in bulk from the place of origin. Because of the cooperative relationship, our products are all original and 100% new.
24-hour service
We provide 7*24 hours service to our customers. We will be there whenever you need us.
Price advantage
All our products are priced very favorably because we have our own warehouse and supply.
| Company Information | |||
| [email protected] | |||
| Mobile | +8615980777398 | ||
| +8615980777398 | |||
| 15980777398 |
Product Overview
The Schneider ATS480D17Y Soft Starter is an industrial motor control device designed to provide controlled acceleration and deceleration for three-phase AC induction motors. Instead of applying full supply voltage to a motor immediately, the soft starter progressively controls the motor’s starting process to reduce electrical inrush current and mechanical shock.
This controlled starting method is particularly valuable for equipment where sudden torque can cause excessive stress on shafts, couplings, gearboxes, belts, pumps, compressors, fans, and conveyors. By managing the transition from standstill to normal operating speed, the ATS480D17Y can contribute to smoother machine operation and reduced mechanical wear.
The soft starter can also provide controlled stopping. For applications involving pumps or other high-inertia loads, controlled deceleration can reduce abrupt process changes and improve overall equipment behavior.
The supplied product information specifies dimensions of 275 × 160 × 203 mm and a weight of 4.9 kg for the Schneider ATS480D17Y.
Product Information
- Manufacturer: Schneider Electric
- Model: ATS480D17Y
- Product Type: Soft Starter
- Dimensions: 275 × 160 × 203 mm
- Weight: 4.9 kg
- Application: Industrial Motor Control
- Motor Type: Three-Phase AC Induction Motor
- Starting Function: Controlled Soft Start
- Stopping Function: Controlled Soft Stop
- Installation: Industrial Control Cabinet / Motor Control Panel
- Primary Function: Controlled Motor Acceleration and Deceleration
Technical Specifications
| Parameter | Specification |
|---|---|
| Manufacturer | Schneider Electric |
| Model | ATS480D17Y |
| Product Type | Soft Starter |
| Dimensions | 275 × 160 × 203 mm |
| Weight | 4.9 kg |
| Motor Type | Three-Phase AC Induction Motor |
| Starting Method | Soft Start |
| Stopping Method | Soft Stop |
| Mounting | Panel / Cabinet Installation |
| Application | Industrial Motor Control |
| Typical Loads | Pumps, Fans, Compressors, Conveyors, Mixers |
The dimensions and weight above are based on the information supplied for this product. Motor ratings, electrical characteristics, protection requirements, and application compatibility should be confirmed against the actual installation before commissioning.
How the ATS480D17Y Works
The ATS480D17Y controls the electrical power supplied to the motor during the starting and stopping process.
A simplified system arrangement is:
Three-Phase AC Supply
↓
ATS480D17Y Soft Starter
↓
Three-Phase Motor
↓
Mechanical Load
↓
Normal Operation
During startup, the soft starter progressively controls the voltage delivered to the motor.
This can help achieve:
- Lower starting current
- Smooth acceleration
- Reduced torque shock
- Reduced mechanical stress
- Lower electrical disturbance
During stopping, the output can be controlled to allow a more gradual reduction in motor speed when the application requires it.
Benefits of Soft Starting
Reduced Inrush Current
Direct-on-line motor starting can result in a substantial temporary current demand. Controlled starting helps limit the impact of this current on the electrical distribution system.
Reduced Mechanical Shock
A controlled torque increase reduces stress on:
- Motor shafts
- Couplings
- Gearboxes
- Bearings
- Belts
- Chains
- Pump assemblies
Improved Process Stability
Smooth acceleration can improve the behavior of rotating machinery and reduce abrupt movement within production systems.
Reduced Maintenance Stress
Lower mechanical impact during starting can contribute to reduced wear on motors and driven equipment.
Industrial Applications
The Schneider ATS480D17Y can be applied to many industrial motor-driven systems.
Pump Systems
Typical applications include:
- Water pumps
- Wastewater pumps
- Cooling pumps
- Process pumps
- Circulation systems
Controlled starting and stopping can help reduce mechanical and hydraulic disturbances.
Fans and Blowers
Industrial ventilation systems can benefit from gradual motor acceleration, particularly when large rotating assemblies have significant inertia.
Compressors
Controlled startup can reduce electrical and mechanical stress on compressor motor systems.
Conveyors
A controlled acceleration profile can reduce sudden belt tension and mechanical impact.
Mixers
Mixing systems may require smooth acceleration to avoid sudden torque loads.
General Industrial Machinery
The ATS480D17Y can be integrated into automated motor-control systems where predictable starting and stopping are required.
Installation Guide
1. Confirm Product Identification
Before installation, verify:
Schneider ATS480D17Y
Inspect the unit for:
- Shipping damage
- Damaged terminals
- Cracks
- Loose hardware
- Contamination
- Signs of moisture
Do not install equipment that has visible damage.
2. Verify the Motor
Collect the motor’s relevant information:
- Rated voltage
- Rated current
- Rated frequency
- Motor power
- Connection method
- Starting characteristics
- Driven-load characteristics
The soft starter should be matched to the actual motor and application.
3. Prepare the Control Cabinet
The supplied dimensions of the ATS480D17Y are:
275 × 160 × 203 mm
The cabinet should provide enough space for:
- Soft starter installation
- Power wiring
- Control wiring
- Protection equipment
- Ventilation
- Maintenance access
Do not install the device where airflow is obstructed.
4. Check the Installation Environment
Select a clean and properly ventilated location.
Avoid exposure to:
- Water
- Condensation
- Excessive dust
- Corrosive gases
- Oil mist
- Excessive vibration
- High ambient temperature
- Direct heat sources
Environmental conditions can directly affect electrical equipment reliability.
5. Electrical Safety
Before beginning installation:
- Disconnect the incoming power.
- Apply lockout/tagout procedures.
- Verify the absence of voltage.
- Isolate the motor.
- Confirm stored energy has been safely discharged.
- Use appropriate electrical PPE.
Electrical installation should be performed by qualified personnel.
6. Mount the ATS480D17Y
Secure the soft starter firmly to the control panel.
Check:
- Mounting orientation
- Mechanical stability
- Ventilation clearance
- Cable access
- Maintenance accessibility
The supplied unit weighs 4.9 kg, so the mounting structure should be suitable for continuous industrial vibration and operating conditions.
7. Connect the Power Circuit
Connect the incoming three-phase supply and motor circuit according to the application design.
Before energizing, verify:
- Correct phase connections
- Cable sizing
- Terminal tightness
- Protective grounding
- Insulation
- Short-circuit protection
- Cable routing
All power connections should be inspected before startup.
8. Connect Control Wiring
Typical control signals may include:
- Start
- Stop
- Reset
- Fault status
- Run status
- External interlocks
- PLC control signals
Keep low-level control wiring properly separated from high-current power conductors.
9. Configure Operating Parameters
The soft starter should be configured according to the motor and mechanical load.
Relevant settings can include:
- Motor rated current
- Starting voltage
- Acceleration time
- Deceleration time
- Current limitation
- Protection settings
- Stop mode
Incorrect parameter values may result in poor acceleration or nuisance faults.
10. Inspect the Driven Equipment
Before commissioning, inspect the mechanical system.
Check:
- Shaft alignment
- Coupling
- Bearings
- Gearbox
- Belts
- Pumps
- Fans
- Conveyors
- Mechanical guards
Make sure the motor can rotate without unexpected mechanical obstruction.
Commissioning Procedure
Initial Inspection
Before energization:
- Check power wiring.
- Check control wiring.
- Verify grounding.
- Inspect protection devices.
- Confirm motor parameters.
- Check mechanical connections.
- Verify cabinet ventilation.
Initial Energization
- Energize the control system.
- Observe the soft starter status.
- Confirm there are no abnormal alarms.
- Verify control inputs.
Motor Startup
- Issue the start command.
- Observe acceleration.
- Monitor motor current.
- Listen for abnormal noise.
- Check vibration.
- Confirm normal operating speed.
Stop Test
Test the configured stopping behavior and observe:
- Deceleration
- Motor current
- Mechanical vibration
- Process response
- Fault indications
Troubleshooting Guide
Problem 1 – Soft Starter Does Not Power On
Possible causes:
- No input power
- Open protective device
- Incorrect wiring
- Control power problem
- Internal fault
Diagnostic Steps
- Verify incoming voltage.
- Inspect circuit protection.
- Check power connections.
- Verify control power.
- Review the device status.
Problem 2 – Motor Does Not Start
Possible causes:
- Missing start command
- Incorrect control wiring
- Active interlock
- Incorrect configuration
- Motor problem
- Mechanical obstruction
Check the entire control path before replacing the soft starter.
Problem 3 – Motor Starts Too Slowly
Possible causes:
- Acceleration ramp too long
- Starting voltage too low
- Current limitation too restrictive
- Excessive mechanical load
- Mechanical resistance
Monitor current and acceleration behavior to determine whether the problem is electrical or mechanical.
Problem 4 – High Starting Current
Possible causes:
- Incorrect current limitation
- Acceleration time too short
- Heavy load
- Incorrect motor parameters
- Motor fault
Review the motor data and starting configuration.
Problem 5 – Soft Starter Trips During Startup
Possible causes:
- Motor overload
- Phase loss
- Wiring problem
- Incorrect parameters
- Excessive load
- Mechanical obstruction
Avoid repeated resets until the root cause is identified.
Problem 6 – Soft Starter Overheats
Possible causes:
- Poor cabinet ventilation
- Blocked airflow
- High ambient temperature
- Excessive operating cycles
- Overload
- Cooling problem
- Dust buildup
Inspect the complete cooling system and cabinet environment.
Problem 7 – Motor Vibrates During Startup
Possible causes:
- Shaft misalignment
- Loose coupling
- Bearing wear
- Unbalanced load
- Incorrect acceleration profile
- Mechanical resonance
Inspect the mechanical drive system as well as the electrical settings.
Problem 8 – Motor Stops Too Quickly
Possible causes:
- Incorrect deceleration configuration
- External stop command
- Control logic problem
- Incorrect stopping parameters
- Load characteristics
Review the control command and stopping configuration.
Problem 9 – Motor Does Not Stop
Possible causes:
- Incorrect stop signal
- PLC logic problem
- Control wiring fault
- External interlock
- Configuration error
Trace the complete stop-command circuit.
Problem 10 – Repeated Overload Faults
Repeated overload conditions can indicate:
- Excessive mechanical load
- Mechanical obstruction
- Bearing problems
- Incorrect motor parameters
- Incorrect soft-starter configuration
- Excessive starting frequency
- Abnormal process conditions
Treat repeated overloads as a system-level issue rather than simply resetting the device.
Fault Diagnosis Flow
A practical diagnostic sequence is:
Incoming Power
↓
Protection Devices
↓
ATS480D17Y Status
↓
Control Signals
↓
Power Connections
↓
Motor
↓
Mechanical Load
↓
Operating Parameters
↓
Controlled Restart
This approach helps separate electrical faults from control, motor, and mechanical problems.
Preventive Maintenance
Electrical Inspection
Inspect:
- Power terminals
- Control terminals
- Ground connections
- Cable insulation
- Signs of overheating
- Loose connections
Cooling Inspection
Check:
- Ventilation
- Cooling airflow
- Fans
- Cabinet filters
- Air passages
- Dust accumulation
Mechanical Inspection
Check:
- Mounting hardware
- Cable supports
- Cabinet structure
- Motor alignment
- Vibration
Operational Monitoring
Record:
- Motor current
- Starting time
- Operating temperature
- Fault history
- Number of starts
- Abnormal noise
- Mechanical vibration
Preventive Maintenance Schedule
| Maintenance Item | Recommended Action |
|---|---|
| Power Terminals | Inspect for looseness and heating |
| Control Wiring | Check connection integrity |
| Cooling System | Inspect and clean |
| Ventilation Paths | Keep unobstructed |
| Cabinet Filters | Clean or replace as required |
| Grounding | Verify continuity |
| Motor Current | Monitor during operation |
| Fault History | Review regularly |
| Mounting Hardware | Inspect periodically |
| Cable Insulation | Check condition |
| Cabinet Interior | Remove dust and contamination |
| Mechanical Load | Inspect alignment and vibration |
Common Installation Errors
Incorrect Motor Parameters
Incorrect motor information can lead to unstable acceleration or unnecessary protection trips.
Insufficient Ventilation
Restricted airflow can increase operating temperature and reduce equipment reliability.
Loose Power Terminals
Loose connections can create localized heating and intermittent operation.
Poor Cable Routing
Control wiring routed alongside high-current conductors may be more susceptible to electrical interference.
Improper Grounding
A reliable protective grounding system is essential for safe industrial operation.
Incorrect Mounting
The ATS480D17Y should be firmly mounted to prevent vibration-related connection problems.
Repeated Fault Resetting
Repeatedly resetting the unit without diagnosing the root cause can increase equipment stress and prolong downtime.
Integration Into Industrial Automation
The ATS480D17Y can be used as the motor-control layer within an industrial automation architecture.
A typical arrangement is:
PLC / DCS / Control System
↓
Start / Stop / Interlock Commands
↓
ATS480D17Y
↓
Three-Phase Motor
↓
Pump / Fan / Compressor / Conveyor
↓
Process Feedback
This arrangement allows the automation system to coordinate motor operation with other process equipment while the soft starter manages acceleration and stopping.
Compatible Supporting Equipment
A complete motor-control system may include:
- Circuit protection devices
- Disconnect switches
- Fuses
- Contactors
- Motor protection devices
- PLC controllers
- HMI systems
- Control relays
- Emergency-stop circuits
- Current monitoring equipment
- Motor sensors
- Process feedback devices
The exact combination should be selected according to the motor, application, electrical architecture, and applicable installation requirements.
Key Advantages
- Industrial soft-starting solution
- Controlled motor acceleration
- Controlled motor deceleration
- Reduced starting current
- Reduced mechanical shock
- Improved motor starting stability
- Reduced stress on driven equipment
- Suitable for pumps, fans, compressors, conveyors, and mixers
- Compact industrial form factor
- Dimensions: 275 × 160 × 203 mm
- Weight: 4.9 kg
Technical FAQs
What is the Schneider ATS480D17Y?
The ATS480D17Y is an industrial soft starter designed to control the acceleration and deceleration of three-phase AC induction motors.
What are the dimensions of the ATS480D17Y?
The supplied dimensions are 275 × 160 × 203 mm.
What is the weight?
The supplied weight is 4.9 kg.
What is the main purpose of the ATS480D17Y?
It provides controlled motor starting and stopping to reduce starting current and mechanical stress.
Why does a motor draw high current during startup?
An induction motor normally requires a significantly higher current during acceleration than during steady-state operation. A soft starter helps control this starting demand.
Why does the motor accelerate too slowly?
Possible causes include excessive acceleration time, low starting voltage, restrictive current limitation, heavy load, or mechanical resistance.
Why does the soft starter overheat?
Possible causes include poor ventilation, blocked airflow, high ambient temperature, excessive starting cycles, overload, or cooling problems.
Why does the motor trip during acceleration?
Possible causes include overload, phase loss, incorrect motor parameters, unsuitable starting settings, or mechanical obstruction.
What should be checked after installation?
Power wiring, control wiring, grounding, motor parameters, protection devices, cabinet ventilation, mechanical connections, and motor startup behavior should all be verified.
Is preventive maintenance necessary?
Yes. Regular inspection of terminals, cooling systems, wiring, motor current, fault history, and mechanical equipment helps identify developing problems before they cause unexpected downtime.
Conclusion
The Schneider ATS480D17Y Soft Starter provides controlled motor starting and stopping for industrial three-phase AC applications. By managing the motor’s acceleration and deceleration, it can reduce electrical inrush, mechanical shock, and stress on connected equipment.
With supplied dimensions of 275 × 160 × 203 mm and a weight of 4.9 kg, the ATS480D17Y is suitable for integration into appropriately designed industrial control cabinets and motor-control panels.
Successful operation depends on correct motor selection, proper power and control wiring, appropriate grounding, adequate ventilation, and accurate parameter configuration. During commissioning, technicians should observe starting current, acceleration behavior, vibration, temperature, and fault indications.
For long-term reliability, preventive maintenance should include inspection of electrical connections, cooling conditions, cabinet cleanliness, motor behavior, and mechanical equipment. If a fault occurs, troubleshooting should proceed systematically from the incoming power and control circuit through the soft starter, motor, and mechanical load. This approach helps minimize unnecessary component replacement and supports reliable operation of the complete industrial automation system.