Factory-direct OEM motor assembly units manufactured in our certified workshops. Built for tight-tolerance, low-maintenance batch runs across commercial and heavy-duty industrial electric motors.
Simultaneous dual-end needle penetration, multi-axis servo tension control, and programmable slot-skipping suited for high-density slot architectures.
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Rigid vertical force distribution guaranteeing concentric tolerance retention and zero journal damage across motor core shaft insertions.
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Equipped with flyer winding flyers and programmable wire guide traverse mechanism for copper and enameled aluminum wire groups.
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Precision edge-cuffing, shearing, and rapid slot-to-slot indexer eliminating ground insulation short circuits in high-duty cycle motors.
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Handles 0.10mm to 1.20mm magnet wire with magnetic tensioners, eliminating micro-cracking and wire stretch during rapid cyclic winds.
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Compact footprint configuration engineered for localized motor winding workshops, secondary leads binding, and small batch batch modifications.
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Integrated spindle cutting and flood coolant system establishing ultra-precise radial air gaps to reduce harmonic hum and magnetic drag.
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Continuous 6-station rotary indexing setup built for multi-pole BLDC and permanent magnet stators delivering maximum volume output.
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In modern induction and permanent magnet synchronous motors (PMSM), the stator end-turn bundle represents one of the most mechanically vulnerable segments of the electromagnetic circuit. During high-inrush start sequences, inverter switching frequencies (PWM transients), and rapid directional reversals, electromagnetic Lorentz forces exert high mechanical stress across unconstrained copper end-turns. The automatic double side stator coil lacing machine solves this failure vector by tensioning, bundling, and locking both the drive-end (DE) and non-drive-end (NDE) coil extensions simultaneously.
Unlike single-sided manual or semi-automated tying methods that produce asymmetrical wire compression, our servo-driven dual-needle synchronization ensures exact, balanced geometric form factors. By lacing slot-by-slot, interval-slot, or custom programmable segment loops, the machine tightly binds the copper coils against phase-insulation barriers. This uniform compaction maximizes heat transfer into the laminated stator core, eliminates intra-slot air voids, and prevents high-frequency vibration that degrades enamel coating—effectively eliminating early turn-to-turn dielectric breakdown.
Utilizes dual independent servo drives coordinated through high-speed PLC bus systems. Both top and bottom needle mechanisms plunge and loop in perfect tandem, eliminating lacing needle deflection and providing precision cycle times of 0.5 to 0.7 seconds per stitch.
Uniform double-sided lacing controls the coil projection profile, guaranteeing that coil extensions clear motor end-shields, bearing brackets, and cast-iron frame walls without dangerous manual reforming or hammer adjustments on the line.
Equipped with closed-loop lacing cord tensioning that automatically compensates for thread friction and reel unwinding variations. This prevents cord snapped lines or loose end-bindings, operating flawlessly with nylon, polyester, and Nomex lacing tapes.
Tailoring manufacturing capabilities to the unique engineering, logistical, and climatic demands of Ontario's advanced industrial corridor.
From Brampton to Markham and Windsor, Tier-1 automotive motor suppliers require rapid tooling changeovers for low-voltage auxiliary pumps, cooling fans, and high-torque steering actuators. Our programmable double-side lacing accommodates variable stack lengths from 15mm to 160mm in minutes.
Ontario's seasonal extremes demand heat pump compressors and air handling motors that withstand wide thermal swings. Mechanically uniform double-sided lacing prevents end-turn micro-movement caused by thermal expansion during winter sub-zero continuous cycling.
Heavy motor fabrication in Cambridge, Mississauga, and Burlington serving municipal fluid handling relies on rigorous dielectric insulation. Rigid double lacing ensures potting resins and varnishes penetrate completely through cleanly tensioned coils without air bridging.
Supplying motor overhaul shops in the Greater Toronto Area (GTA) that build severe-duty industrial blowers for Northern Ontario mines. Dual lacing stabilizes winding bundles against 3G+ mechanical vibration and persistent shock loading in underground operations.
Navigating the transition toward high-efficiency motors, domestic supply security, and Canadian electrical compliance.
The manufacturing corridor stretching from Oshawa across the GTA to Kitchener-Waterloo is currently undergoing the most aggressive re-tooling in half a century. Central to this transformation is the rapid phase-out of sub-standard efficiency industrial motors. The Ontario energy grid incentives, coupled with Natural Resources Canada (NRCan) Energy Efficiency Regulations, have made NEMA Premium / IE3 and super-premium IE4 efficiency standards mandatory across municipal and commercial infrastructure.
Higher efficiency grades demand substantially increased slot fill factors—often packing stator slots to 75-80% capacity with thicker wire cross-sections. Manual lacing and insertion of these dense copper sets are not only ergonomically hazardous for operators, driving up Workplace Safety and Insurance Board (WSIB) claims, but also lead to high defect rates. Machine-automated double-sided lacing exerts exact mechanical pressure, shaping and binding heavy wire gauges with zero operator strain and zero process drift.
| Evaluation Parameter | Manual Hand Lacing | Single-Sided Rotary Lacing | Automatic Double-Side Servo Lacing |
|---|---|---|---|
| Cycle Time (48-Slot Core) | 12 to 18 Minutes | 3.5 to 5.0 Minutes (2 steps) | 45 to 65 Seconds (Concurrent) |
| Tension Uniformity (DE vs NDE) | Highly variable (±35%) | Moderate variation (±15%) | Servo Regulated (±2%) |
| Vibration Resistance (ISO 10816-3) | Inconsistent knot locking | Fair binding stability | Continuous Lock-Stitch Stability |
| Slot Fill Factor Feasibility | Limited to <65% fill | Up to 72% fill | Up to 82% Slot Compaction |
| Operating Ergonomics (WSIB Risk) | High repetitive strain risk | Manual stator flipping required | Hands-Free Guarded Operation |
17 years of specialized manufacturing experience delivering bespoke motor automation machines directly to global factories.
Every lacing station, former, and needle set is individually CNC-machined from hardened SKD11 or Cr12MoV tool steel based on your actual stator lamination blueprints or physical test stators sent to our workshop.
We build our electrical panels with internationally available industrial automation hardware: Siemens, Omron, Delta, Mitsubishi, and Schneider Electric components, ensuring your plant technicians in Ontario can source spares locally.
We design matched cycle times across all stator processes: slot insulation inserting, wire coil winding, coil & wedge inserting, end-turn forming, double lacing, and fine rotor turning to eliminate bottlenecks.
Full 1-year equipment warranty, continuous remote engineering diagnostics via high-resolution video telemetry, and complete export compliance including crating to ISPM 15 phytosanitary requirements.
Detailed answers addressing Canadian voltage ratings, electrical inspections, tooling delivery, and freight clearing through the Port of Montreal.
Yes. While our standard domestic machines run on 220V/380V 50Hz, we routinely engineer power transformer modules and servo power systems for Canadian standard voltages: 575V / 60Hz 3-phase, 480V / 60Hz, or 208V/120V single-phase control circuits. Please inform our engineering team during the drawing review stage to incorporate the correct step-down components and high-interrupt circuit breakers.
Our electrical panels are constructed using CE-marked and UL-listed industrial automation control components (Siemens, Schneider, Omron, Delta). We design control enclosures strictly following the wiring, grounding, and clearance guidelines specified under CSA C22.2 No. 73 and SPE-1000. When requested, we pre-align panel wiring diagrams to streamline quick, smooth passing of your local Ontario ESA or CSA field evaluation inspector upon factory arrival.
We do not ship based on guesswork. After receiving your 2D/3D stator CAD models (stack height, bore ID, core OD, slot opening, wire gauge, and turn configuration), we manufacture custom lacing needles and holding jaws. We strongly recommend sending 2-3 sample un-laced stators to our Dongguan facility. We perform actual full-speed production trials and return an unedited 4K running video and precision measurement report for your engineering sign-off prior to dispatch.
Standard machine manufacturing and custom tooling lead time takes 25 to 35 business days. Ocean freight typically routes from Shenzhen/Yantian Port across the Pacific to the Port of Vancouver or through the Panama Canal to the Port of Montreal, transferring directly via CN or CP Rail intermodal networks into the Toronto logistics hub (Brampton/Vaughan terminals). Total door-to-door transit time generally averages 28 to 38 calendar days.
Yes. The machine incorporates adjustable vertical spindle tooling. Stator stack heights within a 15mm to 160mm span can be adjusted via precision leadscrew dials in under 10 minutes. For different slot counts (e.g., changing from a 24-slot fan motor to a 36-slot pump stator), the changeover is executed directly on the touchscreen HMI via stored recipe programs without mechanical machining changes.
Every machine comes with an export spare parts pack including extra needles, hooked knives, lacing tubes, pneumatic seals, and drive belts. In the event of tooling wear or new motor product line launches, we machine replacement tools from archived CAD files and dispatch via DHL Express directly to Toronto in 3-5 business days. Our software engineers provide immediate remote assistance via direct video diagnostic links.
Submit your stator parameters (Bore ID, Outer OD, Stack Height, Wire Gauge) to get custom tooling specifications and factory-direct pricing within 9 hours.
