13/3 Corrugated Machine Technical Data Sheet | Complete Specifications Guide

Full Technical Data Sheet for 13/3 Corrugated Machines

Complete Engineering and Technical Specification Guide for 13/3 Corrugated Roofing Machines

The 13/3 corrugated roof sheet machine remains one of the most widely used roll forming machines in the global roofing industry. From agricultural buildings in Africa and South America to industrial warehouses in Asia, commercial facilities in the Middle East, and residential roofing projects throughout Europe and North America, the traditional 13/3 corrugated profile continues to be one of the most recognized and trusted roofing systems available.

When evaluating a machine, buyers often request a technical data sheet because it provides the factual engineering specifications needed for comparison, budgeting, factory planning, electrical installation, production forecasting, and return-on-investment calculations. However, many machine quotations provide only a basic list of specifications without explaining what the numbers actually mean or how they affect long-term production performance.

A professional roofing manufacturer should understand not only the machine specifications but also how those specifications influence:

  • Roofing sheet quality
  • Production speed
  • Material compatibility
  • Machine lifespan
  • Maintenance requirements
  • Labor efficiency
  • Expansion potential
  • Operating costs

This guide serves as a complete technical data sheet for 13/3 corrugated machines, explaining each specification in detail and helping buyers understand what should be included when evaluating equipment from different suppliers.

What Is a 13/3 Corrugated Profile?

The 13/3 corrugated profile is one of the oldest and most widely accepted corrugated roofing designs in the world.

Typical characteristics include:

  • 13 corrugations across sheet width
  • Traditional sinusoidal wave shape
  • Excellent water drainage
  • Good structural performance
  • Simple installation
  • Efficient manufacturing process

The profile is commonly used for:

  • Residential roofing
  • Agricultural buildings
  • Warehouses
  • Workshops
  • Schools
  • Industrial roofing
  • Mining facilities
  • Commercial construction

Because of its widespread acceptance, demand exists in almost every major roofing market globally.

Machine Overview

Machine Type

13/3 Corrugated Roof Sheet Roll Forming Machine

Production Method

Cold roll forming

Finished Product

13/3 corrugated roofing sheets

Industry Applications

  • Roofing manufacturers
  • Building material suppliers
  • Steel service centers
  • Construction material distributors
  • Agricultural roofing producers
  • Industrial roofing manufacturers

Material Specifications

The first section of any technical data sheet should define material compatibility.

Suitable Materials

Galvanized Steel (GI)

Most commonly processed material worldwide.

Galvalume Steel (GL)

Offers improved corrosion resistance.

Prepainted Galvanized Steel (PPGI)

Used extensively for colored roofing systems.

Prepainted Galvalume Steel (PPGL)

Common in premium roofing markets.

Aluminum Coil

Popular in coastal regions.

Stainless Steel

Used for specialized applications.

Material compatibility affects tooling design, machine configuration, and production settings.

Material Thickness Range

Standard Thickness Capacity

0.20 mm – 0.80 mm

Most commonly processed range:

0.25 mm – 0.50 mm

This covers the majority of global roofing requirements.

Typical applications:

0.25–0.35 mm

  • Residential roofing
  • Agricultural buildings

0.40–0.50 mm

  • Commercial roofing
  • Warehouses

0.50–0.80 mm

  • Industrial facilities
  • Heavy-duty roofing projects

Material Width Specifications

Coil Width

Common coil widths:

914 mm

1000 mm

1200 mm

1220 mm

1250 mm

The required width depends on the finished roofing sheet dimensions.

Proper coil width selection minimizes scrap and improves profitability.

Production Specifications

Production capability is one of the most important sections of a technical data sheet.

Production Speed

Entry-Level Machines

8–15 m/min

Standard Production Machines

15–25 m/min

High-Speed Machines

25–40 m/min

Industrial Production Lines

40–60+ m/min

Actual production speed depends on:

  • Material thickness
  • Sheet length
  • Cutting system
  • Operator efficiency

Production Capacity

Production capacity varies significantly.

Example:

20 m/min

Can produce:

  • Approximately 1,200 meters per hour

Actual output depends on:

  • Shift patterns
  • Downtime
  • Material handling
  • Factory efficiency

Roll Forming Specifications

Number of Roll Forming Stations

Standard Configuration

14–18 stations

Industrial Configuration

18–24 stations

Station count depends on:

  • Material thickness
  • Production speed
  • Profile design

Additional stations generally improve material flow and reduce forming stress.

Roller Material

Common roller materials include:

45# Steel

Widely used in standard machines.

GCr15 Bearing Steel

Preferred for higher wear resistance.

Tool Steel

Used in premium production equipment.

Roller Hardness

Typical hardness:

HRC 58–62

Harder rollers generally provide:

  • Longer service life
  • Improved wear resistance
  • Better profile consistency

Roller Surface Treatment

Most modern machines use:

Hard Chrome Plating

Benefits include:

  • Corrosion protection
  • Reduced wear
  • Improved surface finish

Chrome thickness typically ranges between:

0.03 mm–0.05 mm

Shaft Specifications

The shafts support the tooling and absorb forming loads.

Shaft Diameter

Standard Machines

70–75 mm

Industrial Machines

80–90 mm

Larger shafts provide:

  • Improved rigidity
  • Better profile consistency
  • Reduced deflection

Shaft Material

Typically:

High-Grade Alloy Steel

Often heat treated for increased durability.

Frame Specifications

The frame forms the structural backbone of the machine.

Frame Type

Welded Steel Frame

Most common configuration.

Heavy-Duty Box Construction

Used for industrial production.

Structural Steel Construction

Common in premium equipment.

Frame Thickness

Typically:

18 mm–30 mm+

depending on machine capacity.

A stronger frame improves:

  • Stability
  • Alignment
  • Long-term reliability

Drive System Specifications

Chain Drive Systems

Advantages:

  • Lower cost
  • Easy maintenance

Common on:

  • Entry-level machines
  • Standard production lines

Gearbox Drive Systems

Advantages:

  • Improved precision
  • Higher efficiency
  • Better durability

Common on:

  • Industrial equipment
  • High-speed lines

Main Drive Motor Specifications

Motor size varies according to production requirements.

Entry-Level Machines

5.5–7.5 kW

Standard Machines

11–15 kW

Industrial Machines

18.5–30 kW+

Proper motor sizing improves:

  • Reliability
  • Productivity
  • Machine lifespan

Hydraulic System Specifications

Hydraulic systems typically operate:

  • Cutoff systems
  • Decoilers
  • Coil cars

Hydraulic Motor

3–7.5 kW

depending on machine configuration.

Hydraulic Pressure

Typically:

8–20 MPa

depending on cutting requirements.

Cutting System Specifications

Hydraulic Post Cut

Most common worldwide.

Advantages:

  • Cost effective
  • Reliable

Flying Hydraulic Cut

Supports higher production speeds.

Advantages:

  • Continuous production
  • Improved throughput

Servo Flying Cut

Premium option.

Advantages:

  • Maximum productivity
  • Exceptional accuracy

Length Accuracy

Typical accuracy:

±2 mm

High-precision systems:

±1 mm

Accurate cutting reduces waste and improves customer satisfaction.

Electrical Specifications

Voltage Options

380V / 50Hz / 3 Phase

400V / 50Hz / 3 Phase

415V / 50Hz / 3 Phase

480V / 60Hz / 3 Phase

Configured according to customer requirements.

Control Voltage

Typically:

24V DC

for safety and control systems.

PLC System

Popular options include:

Mitsubishi

Siemens

Delta

Schneider Electric

PLC systems control:

  • Length settings
  • Production monitoring
  • Diagnostics
  • Speed control

Human Machine Interface (HMI)

Common features include:

  • Touchscreen operation
  • Production monitoring
  • Job storage
  • Fault diagnostics

HMI systems improve usability and operator efficiency.

Decoiler Specifications

Manual Decoiler Capacity

3–5 Ton

Hydraulic Decoiler Capacity

5–10 Ton

Industrial Decoiler Capacity

10–20 Ton+

Decoiler selection should match production requirements.

Optional Equipment

Modern corrugated production lines often include:

Hydraulic Decoilers

Coil Cars

Automatic Stackers

Sheet Counters

Remote Diagnostics

Production Monitoring Software

Industry 4.0 Integration

Safety Guards

Automatic Packaging Systems

These upgrades improve productivity and reduce labor requirements.

Machine Dimensions

Dimensions vary significantly.

Typical examples:

Machine Length

10–18 meters

Machine Width

1.5–2.5 meters

Machine Height

1.5–2.0 meters

Factory planning should allow sufficient space for:

  • Production
  • Coil storage
  • Maintenance access

Machine Weight

Typical weights include:

Small Machines

4–8 Tons

Standard Machines

8–15 Tons

Industrial Machines

15–30+ Tons

Machine weight often reflects structural strength.

Safety Specifications

Modern machines should include:

Emergency Stop Systems

Safety Guards

Hydraulic Protection Systems

Electrical Overload Protection

Lockout/Tagout Compatibility

Safety systems protect both operators and equipment.

Recommended Factory Requirements

For efficient production, manufacturers should plan for:

Three-Phase Electrical Supply

Adequate Transformer Capacity

Coil Storage Area

Finished Product Storage

Forklift Access

Maintenance Space

Proper factory planning improves productivity and workflow.

How to Compare Technical Data Sheets

When comparing machines, buyers should evaluate:

  • Thickness capacity
  • Production speed
  • Roller quality
  • Shaft size
  • Frame construction
  • Drive system
  • Motor size
  • Automation level
  • Supplier support

The strongest machine is not always the machine with the largest numbers.

Overall engineering quality matters most.

Conclusion

A comprehensive 13/3 corrugated machine technical data sheet provides much more than a list of specifications. It serves as the foundation for machine selection, production planning, budgeting, factory design, and long-term operational success. By understanding how each specification affects production quality, speed, maintenance, and profitability, buyers can make informed decisions and invest in equipment that supports reliable roofing sheet manufacturing for many years.

Frequently Asked Questions

What thickness can a 13/3 corrugated machine process?

Most machines process between 0.20 mm and 0.80 mm depending on design.

How many stations does a typical machine have?

Most use between 14 and 24 stations.

What production speed is common?

Most machines operate between 15 and 40 meters per minute.

What motor size is typically used?

Most machines use motors ranging from 5.5 kW to 30 kW.

What shaft size is recommended?

75–80 mm shafts are common for high-quality production lines.

Can the machine process aluminum?

Yes, many machines can process aluminum, galvanized steel, Galvalume, and pre-painted materials.

What electrical supply is required?

Most machines require three-phase power at 380V, 400V, 415V, or 480V.

Is an automatic stacker necessary?

Not always, but it improves productivity and reduces labor requirements.

What cutting systems are available?

Hydraulic post-cut, flying hydraulic cut, and servo flying cut systems are common.

How long should a quality 13/3 machine last?

A properly maintained machine can remain productive for 15–25 years or more.

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