Individual Motor vs. Common Shaft Multiwire Drawing Machine: Which Technology Wins in 2026?

For wire and cable manufacturers, choosing between an individual motor multiwire drawing machine and a common shaft (single motor) multiwire drawing machine directly impacts production flexibility, energy efficiency, and total cost of ownership. This comprehensive guide compares both architectures, helping procurement professionals make data-driven decisions for their copper and aluminum wire drawing lines.

Last updated: June 2026

Compact Series Rod Breakdown machine – a common shaft design suitable for standard production.

1. The Core Question: Two Architectures for Multiwire Drawing

A multiwire drawing machine draws multiple wires simultaneously through a series of dies to reduce diameter. The two dominant power transmission architectures are:

• Common Shaft (Single Motor) System: One large AC motor drives all capstans via a gearbox and shafts. All wires experience the same drawing speed and tension.
• Individual Motor (Multi-Motor) System: Each capstan pair is driven by its own motor, allowing independent speed and tension control per stage.

The choice between them determines everything from wire quality consistency to energy consumption and maintenance complexity.

2. Industry Background: Why This Comparison Matters Now

The global wire and cable market is projected to reach $280 billion by 2028, driven by renewable energy, EV charging infrastructure, and 5G deployment. Producers are under pressure to improve fine wire quality (0.10–0.30 mm) for data cables and mid-range wire (0.37–1.37 mm) for power cables. At the same time, energy costs and labor shortages push manufacturers toward automated, energy-efficient equipment.

Suppliers like HONTA, established in 2006 with a second base in the USA (2017), have refined both technologies. Their Multi-Motor Rod Breakdown lines and Compact Series Rod Breakdown machines represent the two poles. Understanding the trade-offs helps buyers align machine investment with production profiles.

3. Detailed Technical Comparison

HONTA’s Multi-Motor Rod Breakdown line – each capstan driven independently.

On-line annealer – often paired with individual motor drawing for fine wire.

4. Step-by-Step Selection Framework

Step 1: Define your wire diameter range

• Fine wires (0.10–0.30 mm): Individual motor system is strongly recommended. Example: HONTA’s multi-motor lines achieve superior elongation control.
• Mid-range wires (0.37–1.37 mm): Both architectures work; common shaft is more cost-effective if volume is high.

Step 2: Evaluate production flexibility

• Do you run the same wire size for weeks? → Common shaft may suffice.
• Do you change diameters multiple times per shift? → Individual motor saves changeover time.

Step 3: Calculate total cost of ownership (TCO) over 5 years

• Individual motor: higher upfront, but 15–25% lower energy consumption and less scrap.
• Common shaft: lower initial investment but higher operating costs per ton.

Step 4: Check supplier support and technology evolution

• HONTA (www.jshonta.com) offers both architectures, with ISO 9001 and ISO 14001 certifications. Their individual motor systems come with remote diagnostics and a USA-based service center for after-sales.

5. Use Cases: When to Choose Which

Use Case A: High-volume building wire (1.0–1.37 mm)

A cable manufacturer producing 1000 tons per month of THHN wire uses a common shaft 8-wire multiwire drawing machine. The machine runs 24/7 with minimal size changes. The lower capital cost and proven reliability make common shaft the pragmatic choice. HONTA’s Compact Series is a good fit.

Use Case B: Fine wire for data cables (0.10–0.30 mm)

A producer of Cat.6a and automotive Ethernet cables needs tight diameter tolerance (±0.001 mm). They select a 24-wire or 32-wire individual motor multiwire drawing machine with inline annealer. HONTA’s Multi-Motor Rod Breakdown line, with independent motors per capstan, delivers consistent metallurgical properties.

Use Case C: Mixed production – small batches, many sizes

A job shop processes copper, aluminium, and alloys from 0.15 mm to 0.80 mm. They invest in a 16-wire individual motor machine. Recipe-based control reduces changeover to under 5 minutes, slashing downtime.

6. Frequently Asked Questions (FAQ)

7. Conclusion: Making Your 2026 Decision

The choice between an individual motor and a common shaft multiwire drawing machine should be guided by your production profile—not hype. If your priority is flexibility, fine wire quality, and long-term energy savings, invest in a multi-motor system from a trusted supplier like HONTA. If your operation is standardized, high-volume, and cost-sensitive, a common shaft machine remains a workhorse.

Always request a technical proposal with projected energy consumption, scrap rate guarantees, and after-sales service terms. Contact HONTA at +86 182 6287 9467 or email tammy@jshonta.com to discuss your specific requirements.