LTI MOTION LSC-192-2-20-560-P6B0R1PM0 Replacement for LSC-192
LSC-192-2-20-560-P6B0R1PM0LTI MOTION LSC-192-2-20-560-P6B0R1PM0 AC Servo Motor replacement & upgrade. Compatible wiring, protocol & mounting. 12-month warranty. Fast global shipping.
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The LTI Motion LSC-096-2-30-560-P5B0H2MM0 is an original AC brushless servo motor from LTI Motion’s LSC Series, engineered for demanding industrial automation environments where precision motion control, system uptime, and long-term reliability are non-negotiable. Rated at 3.0 Nm continuous torque, 560V DC bus voltage, and protected to IP65, this motor is a direct-fit replacement for aging or failed units in servo-driven axes across CNC machining centers, packaging lines, press feeders, material handling systems, and process automation cells.
In modern industrial facilities, servo motor failure is one of the leading causes of unplanned downtime. A single failed axis can halt an entire production line for hours or days while a replacement is sourced. Stocking the LSC-096-2-30-560-P5B0H2MM0 as a certified spare eliminates that risk. Because this is an original LTI Motion component—not a counterfeit or grey-market substitute—it maintains full compatibility with the existing servo drive, encoder feedback loop, and motion controller parameters without requiring re-commissioning or parameter recalibration.
Maintenance engineers and procurement teams working with LTI Motion LSC Series drives will recognize the importance of keeping this motor paired with its matched servo drive. The LSC Series motor is typically paired with LTI Motion’s LUST CDA Series servo drives or compatible CDD Series digital servo controllers, and the encoder interface—typically a Hiperface or EnDat 2.1 absolute encoder—must be preserved during replacement to avoid loss of position reference. When replacing this motor, it is best practice to simultaneously inspect the motor power cable and feedback cable assembly, as connector wear and insulation degradation are common failure co-factors in high-cycle servo axes.
| Parameter | Specification |
|---|---|
| Part Number / SKU | LSC-096-2-30-560-P5B0H2MM0 |
| Brand | LTI Motion (formerly LUST Antriebstechnik) |
| Series | LSC Series — AC Brushless Servo Motor |
| Continuous Torque | 3.0 Nm |
| DC Bus Voltage | 560 V |
| Motor Frame Size | 096 (96 mm flange) |
| Protection Rating | IP65 (dust-tight, water jet protected) |
| Encoder Type | Absolute encoder (Hiperface / EnDat 2.1, inferred from P5 code) |
| Shaft Configuration | Smooth shaft with key (inferred from H2 code) |
| Mounting | Flange mount, IEC standard |
| Winding / Pole Pairs | 2 pole pairs (inferred from -2- designation) |
| Cooling | Natural convection (self-cooled) |
| Weight (approx.) | 5.3 kg |
| Country of Origin | Germany |
| Compatibility | LTI Motion LUST CDA / CDD Series servo drives; LSC Series matched pairs |
| Application Environment | CNC, packaging, press feed, material handling, process automation |
| Maintenance Recommendation | Inspect encoder cable, power connector, and bearing condition at each scheduled PM interval |
| Warranty | 12 Months — tested before shipment |
A servo motor replacement event is the ideal trigger for a broader axis health audit. When a technician is already on-site performing a motor swap, the incremental labor cost of inspecting adjacent components is minimal compared to the cost of a second unplanned shutdown weeks later. For axes running the LSC-096-2-30-560-P5B0H2MM0, the following components should be evaluated as part of a structured preventive maintenance (PM) cycle:
Servo Drive Inspection: The matched LTI Motion CDA or CDD Series servo drive should be checked for DC bus capacitor aging, fault history logs, and firmware version. Capacitor degradation in the drive is a common cause of intermittent torque ripple and position errors that are often misdiagnosed as motor faults. If the drive is more than 8–10 years old, stocking a spare drive alongside the motor is strongly recommended.
Encoder Feedback Cable: The Hiperface or EnDat encoder cable connecting the motor to the drive is a high-flex, shielded cable that degrades with repeated axis movement. Inspect for micro-fractures in the outer jacket, connector pin corrosion, and shield continuity. A degraded feedback cable can cause position errors, E-stop faults, and in worst cases, runaway axis events. Keeping a spare cable assembly in stock eliminates a common single-point-of-failure.
Motor Power Cable and Connector: The motor power cable (U/V/W + PE) and its mating connector at the motor terminal box should be inspected for insulation resistance, connector seating, and pin burn marks. On IP65-rated motors, the connector seal condition is critical—a compromised seal allows moisture ingress that accelerates winding insulation breakdown.
Brake Module (if equipped): If the axis uses a holding brake, the 24VDC brake module or brake relay in the control cabinet should be tested for response time and coil resistance. Brake wear is often overlooked until a vertical axis drops unexpectedly during an E-stop.
I/O Module and Drive Enable Circuit: The digital I/O module providing the drive enable, fault reset, and ready signals should be checked for contact wear and signal integrity. In Siemens S7 or similar PLC architectures, the output module driving the servo enable relay is a common wear item that can cause intermittent drive faults.
Terminal Block and Wiring Loom: Spring-clamp or screw-type terminal blocks in the servo cabinet should be inspected for loose connections, especially on high-vibration machines. Loose terminals cause voltage drops and intermittent faults that are notoriously difficult to diagnose under load.
24VDC Power Supply Module: The 24VDC SMPS (switched-mode power supply) feeding the drive control board, encoder, and I/O should be load-tested. A sagging 24V rail is a frequent root cause of unexplained drive resets and communication errors.
EMC Filter and Line Reactor: The input EMC filter and AC line reactor upstream of the servo drive protect against mains-borne interference and reduce harmonic distortion. These passive components are often overlooked but degrade over time, particularly in environments with frequent switching loads.
By addressing these components during a planned motor replacement, maintenance teams can extend the mean time between failures (MTBF) of the entire servo axis and avoid the cascading failures that result from deferred maintenance on interdependent components.
The LSC-096-2-30-560-P5B0H2MM0 is a direct replacement for the same part number in any installed base where LTI Motion (formerly LUST Antriebstechnik) LSC Series motors are deployed. Because LTI Motion has maintained backward compatibility within the LSC Series across production generations, a new original unit will accept the same encoder parameters, motor data set (MDS), and drive configuration without requiring re-tuning of the velocity or position control loops—provided the replacement unit carries the same order code.
For facilities managing aging servo systems originally commissioned in the 2000s or early 2010s, the availability of original spare motors is a critical factor in the decision to extend system life versus undertake a full drive-and-motor retrofit. Stocking one or two LSC-096-2-30-560-P5B0H2MM0 units as insurance spares is a cost-effective strategy that defers capital expenditure on system upgrades while maintaining production reliability. The total cost of a planned spare—including procurement, incoming inspection, and storage—is typically a fraction of the cost of a single unplanned production stoppage.
For maintenance planners operating under a reliability-centered maintenance (RCM) or total productive maintenance (TPM) framework, the LSC Series motor’s well-documented specifications and stable supply chain make it an ideal candidate for a min/max inventory policy. Setting a minimum stock level of one unit per critical axis ensures that a replacement is always available within the facility, eliminating lead-time risk entirely.
All units supplied by TOPNLMS are original LTI Motion components, sourced through verified industrial supply channels. Each unit undergoes pre-shipment functional testing and is shipped with full documentation. A 12-month warranty covers defects in materials and workmanship from the date of delivery, providing procurement teams with the confidence needed to approve stocking purchases.
Q1: Is this an original LTI Motion part or a compatible substitute?
This is an original LTI Motion LSC-096-2-30-560-P5B0H2MM0—not a copy, remanufactured unit, or compatible substitute. All units are sourced from verified industrial supply channels and carry the original LTI Motion part number and labeling.
Q2: What is the warranty coverage and what does pre-shipment testing include?
All units are covered by a 12-month warranty from the date of delivery. Pre-shipment testing includes visual inspection, encoder signal verification, winding resistance check, and insulation resistance test. A test report is available upon request.
Q3: Can I install this motor without re-commissioning the servo drive?
Yes, provided the replacement unit carries the identical order code (LSC-096-2-30-560-P5B0H2MM0). The motor data set stored in the drive remains valid. If the encoder type or winding configuration differs, re-commissioning will be required. Always verify the full order code before installation.
Q4: What is the recommended inventory strategy for critical servo axes?
For axes where downtime cost exceeds the cost of a spare motor, a minimum stock of one unit per axis is recommended. For high-utilization or multi-shift operations, two units per axis type is a common best practice. TOPNLMS supports bulk procurement with volume pricing—contact us for a quotation tailored to your spare parts program.
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