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Match the complete marking
Include the complete 6SL3320-1TE33-1AA3 reference, hardware state, motor duty and installed Line Module / Control Unit arrangement.
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Check the offered item before ordering
Request nameplate, power-terminal and fan-transformer photographs. Compare the offered 6SL3320-1TE33-1AA3 with the retained drive configuration and applicable GX chassis instructions.
Technical specifications for 6SL3320-1TE33-1AA3
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Manufacturer:Siemens
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Product Category:PLC Systems
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Spare Part Number:6SL3320-1TE33-1AA3
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Weight:5.1 kg
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Tariff Code:8537101190
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Drive topology:Single Motor Module; shared DC-link input
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Rated output current:310 A
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Low-overload base current IL:302 A
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High-overload base current IH:277 A
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S6 intermittent current:340 A at 40% duty
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Maximum output current:453 A; duty limits apply
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Low-overload power reference:160 kW at 400 V / 50 Hz
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High-overload power reference:132 kW at 400 V / 50 Hz
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Low / high-overload power at 460 V:250 / 200 hp, 60 Hz
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DC-link range, GH3 technical table:510–750 V DC, including stated overshoot
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Motor-output voltage:0 to 0.72 × DC-link voltage, three-phase AC
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Electronics supply:24 V DC; 20.4–28.8 V
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Electronics current, exact-model table:0.9 A
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Rated DC input, Basic/Smart Line Module:372 A
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Rated DC input, Active Line Module:335 A
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Low-overload DC input, Basic/Smart / Active:362 / 326 A
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High-overload DC input, Basic/Smart / Active:331 / 298 A
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Rated pulse frequency:2 kHz
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Maximum pulse frequency:8 kHz with derating
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DC-link capacitance:6300 µF
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Fan supply reference:2 AC 400 V; transformer tap matched to feeder
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Fan current at 50 / 60 Hz:1.8 / 2.7 A
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Power loss at 400 V / 50 Hz:2.96 kW, rated-duty reference
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Power loss at 460 V / 60 Hz:3.1 kW, rated-duty reference
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Cooling-air demand:0.36 m³/s
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Un-derated / derated ambient ceiling:40 / 55 °C
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Motor cable length, shielded / unshielded:300 / 450 m maximum
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DC-link / motor / PE connection:M10; 25 N·m with specified cable lugs
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Power connection capacity:2 × 240 mm² maximum
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Temperature-sensor inputs:KTY84-1C130 / PTC / PT100
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DRIVE-CLiQ connections:X400, X401, X402
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Enclosure protection:IP20; GX frame
Information
- Siemens 6SL3320-1TE33-1AA3 supports coordinated motor operation within a common-bus drive installation. Its selection depends on the load cycle, cooling path and companion drive equipment, while commissioning must reconcile power connections, thermal feedback and the retained control configuration.
Duty-based selection: Continuous, high-overload and intermittent requirements must be assessed as different load cases.
System diagnostics: Power-stage status and temperature feedback are evaluated with the Control Unit and installed drive functions.
The GX assembly uses internal forced-air cooling and a fan transformer whose tapping must match the actual fan-supply voltage. Incorrect tapping can reduce cooling or operate the fan fuses even when the electronics appear ready. Cabinet airflow, ambient temperature, switching frequency and the selected overload duty therefore belong to the same thermal assessment.
The control interface separates motor-temperature sensing, pulse-enable functions, auxiliary supply and brake-adapter connections. Sensor insulation and polarity must suit the connected motor circuit, while Safety Integrated functions require the appropriate configuration and acceptance. An extinguished DC-link indicator is not evidence that stored energy has dissipated; isolation and voltage verification remain separate from ordinary status checks.
6SL3320-1TE33-1AA3 Official Motor Module Technical Excerpt
Original English Siemens GX-frame motor-module ratings, power connections, fan-transformer selection, sensor interfaces and diagnostic limits. PDF · 10 pages.6SL3320-1TE33-1AA3 Installation & Verification Guide
Apter Power drive-restoration workbook covering isolation, GX power connections, fan-tap selection, temperature feedback and controlled drive acceptance. PDF · 5 pages.
Application scope: Apply the unit to a motor duty supported by its current/time capability and the installed cooling conditions. The motor-power references depend on the stated voltage and overload basis; they do not replace a load-cycle calculation.
Common-bus multi-axis drives
Connect a compatible motor axis to a coordinated DC link, allowing energy exchange between simultaneously motoring and regenerating axes.High-demand motor duties
Select the appropriate overload basis and assess acceleration, process loading and recovery intervals against the drive duty.Integrated drive supervision
Use the Control Unit, DRIVE-CLiQ status and configured thermal feedback to supervise the motor power path.Chassis cabinet integration
Coordinate the GX fan supply, airflow, protective conductors and fitted output options within the complete cabinet design.
Isolate all supplies, wait at least five minutes and measure DCP-to-DCN voltage before work; LEDs do not prove absence of hazardous voltage.
Check the actual supply and -T10 tapping before operation, including the installed fan fuses and airflow path.
Keep the DC bus, motor output, protective earth and electronics supply on their designated terminals.
Use suitably isolated sensors, shield their leads and retain KTY polarity; use the appropriate external sensor module where safe separation is unavailable.
Apply current derating and the required recovery intervals instead of combining incompatible peak ratings.
Confirm enabled functions and brake-adapter wiring through the approved acceptance procedure before production release.
Alternative Names
Technical notes
Fan-supply routing: On GX hardware the fan supply connects directly to fuse holders -F10 and -F11. The X9 L1/L2 fan connection shown for larger HX/JX frames must not be transferred to GX.
Auxiliary output boundary: X42 supports designated Control Unit, Sensor Module and Terminal Module loads. It is not a general-purpose 24 V cabinet distribution source.
Stored-energy indication: DC LINK and POWER OK indications describe component state, not a verified isolation condition. Check all supply paths and measure the bus after the prescribed discharge interval.
Load-basis comparison: Input-current and motor-power values change with Line Module type and overload duty. Keep those qualifiers attached when sizing the shared supply and motor branch.
FAQ View All FAQ
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Why can the fan fuses of 6SL3320-1TE33-1AA3 operate even when the drive-control electronics start normally?The fan transformer is a separate supply path. Compare the actual feeder with the selected -T10 tap and inspect the fan circuit; incorrect tapping can cause fuse operation or inadequate cooling without preventing electronics startup.
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Can a dark DC LINK indicator on 6SL3320-1TE33-1AA3 be used as the release condition for maintenance?No. Hazardous voltage may remain irrespective of that LED. Isolate every supply, wait at least five minutes and measure the DC-link voltage before work; the isolation procedure must also account for other modules connected to the shared bus.
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Why must the motor power assigned to 6SL3320-1TE33-1AA3 be checked against the overload basis?The low-overload and high-overload references reserve different current capacity for the duty cycle. Compare the actual torque/current profile and recovery periods rather than choosing the higher power figure independently of the application.
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Does the shared DC link of 6SL3320-1TE33-1AA3 automatically guarantee that regenerated energy can always be absorbed?No. Other motoring axes can use returned energy, but that demand may disappear. Check the selected Line Module, braking arrangement and complete energy balance for the actual operating sequence.
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May the X42 supply on 6SL3320-1TE33-1AA3 power arbitrary external cabinet loads?No. It supports the designated drive-control and interface components. Additional cabinet loads can overload the control-interface supply; provide a separately assessed distribution circuit instead of treating this connector as a spare power outlet.
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What could prevent a connected KTY sensor from protecting the motor through 6SL3320-1TE33-1AA3?Incorrect sensor polarity, shielding, isolation or configuration can invalidate temperature supervision. Check the selected sensor type and signal response under the approved procedure; a connected lead alone does not demonstrate working overtemperature protection.
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Why does increasing the pulse frequency of 6SL3320-1TE33-1AA3 require a new current assessment?Higher switching frequency raises power-stage losses and reduces available output current. Apply the appropriate derating and reassess cabinet heat removal rather than retaining the full base-frequency current rating.
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Can the EP terminals of 6SL3320-1TE33-1AA3 be assumed to provide pulse inhibition without a configuration check?No. Their pulse-inhibit function depends on enabled Safety Integrated Basic Functions. Confirm the actual safety configuration, wiring and acceptance results; a terminal connection by itself does not establish a validated safety function.
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