Press BrakesFiber Laser CuttingPanel BendersAutomation

Press brakes

Press brakes

From individual bends to automated production. Explore NC, CNC, electric and tandem press brakes for your material and part geometry.

CNC Press Brake

Selection comparison

Which press brake fits your work?

Shortlist by the production task, then use the model cards below for the machine specifications.

Your priority

Start with

What separates the route

Programmed bending across varied parts

What separates the route

Compare controller workflow, positioning axes and each series’ published model table.

Defined, straightforward bending work

What separates the route

Torsion-bar synchronization with positioning and tooling matched to the bend plan.

A servo-electric production cycle

What separates the route

Check the required force, stroke, drive duty and tooling against the WADG model.

Long workpieces or a demanding load case

What separates the route

Tandem coordinates matched hosts; a large press brake uses a single heavy-duty machine. Compare length, load, support and installation.

Automated loading, regripping and bending

What separates the route

The press brake, robot, handling stations and recovery sequence form one engineered cell.

These routes can overlap. Final selection follows part geometry, material, calculated force, tooling and the complete working envelope.

Machine range

Explore press brake types

Control architecture

WAD and WADE CNC series

Compare WAD and WADE by controller workflow, model range, axes, tooling, safeguarding and acceptance.

Compare WAD and WADE
ADH WAD CNC press brake with front tooling and control panel

WAD · Independent Y1/Y2 control

WAD: Y1/Y2 and CNC crowning

Independent ram control, configurable axes and crowning for programmed bending sequences.

Standard models: 50T–5000T

WADE electro-hydraulic servo CNC press brake

WADE · ACS controller options

WADE: ACS controllers

ACS controllers with axis, tooling and electrical options for your bending workflow.

Model range: 50T-300T

More ways to configure your bending work

Explore NC for straightforward work, tandem or large machines for long or heavy parts, robotic cells for repeat production, and electric models for suitable loads and cycles.

WC67K/E torsion-bar NC press brake

NC · Straightforward bending

NC press brake: torsion-bar synchronization

Torsion-bar synchronization and straightforward positioning for defined bending tasks.

Model range: 30T-400T

WADG all-electric servo CNC press brake

Electric · Servo-driven bending

Electric press brake: servo-electric drive

Servo-electric bending with force, stroke, tooling and duty matched to your parts.

Model range: 10T-160T

2-WAD tandem CNC press brake system

Tandem · Long-part bending

Tandem press brake: matched machines

Coordinate two matched machines, controls, tooling and supports for long workpieces.

Requires a dedicated tandem specification

WAD heavy-duty CNC press brake

Large · Heavy-duty bending

Large press brake: reinforced force path

Engineer the frame, force, compensation, tooling and handling together for long or thick plate.

Model range: 400T-1200T

ADH robotic bending cell with press brake, handling robot and part stations

Robotic cell · Automated handling

Press brake bending cell: integrated handling

Automate loading, regripping, bending and stacking for compatible, repeatable part families.

Machine and complete-cell specifications remain separate

WADH dual-pump hybrid press brake

Hybrid · Dual servo pumps

WADH Hybrid Press Brake

Compare 19 WADH hybrid configurations from 70 to 300 tonnes by working length, bending force, ram stroke and open height.

Detailed selection checklist
Selection factor
What to provide
How it changes the route

Selection factor

Bend length and part envelope

What to provide

Maximum bend length, flange and box geometry, bend sequence, part weight, stroke/open-height needs and support points.

How it changes the route

Use one exact NC, WAD, WADE or Electric model only when its published envelope fits; review Tandem or Large for long or higher-load work.

Selection factor

Material and force

What to provide

Material grade and strength, thickness range, bend length, bending method, die opening and calculated force or line load.

How it changes the route

Select from the exact model row and tooling limits; use the Large route when frame, force, compensation, foundation and handling require a project specification.

Selection factor

Control and positioning

What to provide

Programming workflow, bend sequence, ram feedback, backgauge axes, crowning or angle control and data connections.

How it changes the route

NC covers defined torsion-bar work; WAD and WADE are separate CNC series and must be compared by controller, axes, tooling, safeguarding and acceptance.

Selection factor

Tooling and compensation

What to provide

Punch and die profiles, clamping, allowable line load, crowning method, changeover and tool-clearance checks.

How it changes the route

Confirm ordered tooling with the selected host; Tandem, Large and Cell tooling must be scoped with supports, interfaces and sample validation.

Selection factor

Handling and part support

What to provide

Part weight, rotation or regripping, front or follower support, loading/unloading, operator tasks and floor access.

How it changes the route

Standalone support may suit NC, CNC or Electric; Tandem, Large or Bending Cell needs the full handling and recovery path defined.

Selection factor

Automation and duty

What to provide

Part mix, batch size, output target, changeover, duty cycle, staffing and upstream/downstream handoffs.

How it changes the route

Electric fits only a verified servo-electric duty; Bending Cell fits a repeatable automated part family; neither follows from headline speed alone.

Selection factor

Acceptance and project boundary

What to provide

Representative part, angle/dimensional method, production window, guarding, training, installation and destination requirements.

How it changes the route

Record the exact model, options, exclusions and sample checks in the quotation; Tandem and Cell remain project-system specifications.

Applications

Press brake applications: choose around the bend

The same tonnage can serve very different parts. Shape, access and the way the operator handles the work help determine the right bending setup.

Folded sheet-metal cabinets, trays and enclosures

01

Cabinets, trays and enclosures

Return flanges and box sides make tooling access and bend order important. Review the flat pattern and finished shape together, including the final bends.

Selection focus: tooling clearance, daylight and part rotation.

Examples of folded metal brackets and small sheet-metal parts

02

Brackets and mixed small batches

Frequent changes in material and geometry make program recall, tool changes and backgauge references part of the purchasing decision.

Selection focus: setup time, usable axes and operator workflow.

Bent metal channel and flanged fabrication components

03

Long channels and heavy fabrications

Long or heavy workpieces require support along the bend line and enough room to load, turn and unload the part.

Selection focus: working length, force distribution and handling.

Related equipment

Related systems and configuration options

Compare machines, then confirm controls, positioning, handling, safeguarding and drive options in the quotation.

Buying guide

What affects the cost of a press brake project?

Compare quotations for the same working task. The machine price is only one part of a usable bending installation.

01

Tooling and setup

Include the punch and die profiles, clamping system and software you need for the part mix. Review which functions are included and which are optional.

02

Handling and workshop fit

Budget for sheet support, lifting, delivery access and any foundation or electrical work identified for the selected machine.

03

Production over time

Compare setup, bending and handling time together. Include operator training, routine service and replacement tooling in the operating plan.

Plan your project

From your part to the right machine

A clear brief makes it easier to compare options, prepare a quotation and plan the next step.

01 / YOUR APPLICATION

Start with the part

Share drawings, material, thickness and production volume. Tell us where the current process needs to improve.

02 / YOUR MACHINE

Compare the configuration

Review the machine, controls, tooling and handling together. Agree the sample parts and checks for your application.

03 / YOUR PRODUCTION

Plan the handover

Coordinate delivery, site preparation, installation and training, with the support your team will need in operation.

Your quotation or contract confirms the supplied equipment, delivery schedule, acceptance criteria, warranty and service scope.

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FAQs

Press brake buying questions

Resolve the machine type, tooling and bend requirements before choosing a model.

How do I choose between an NC and a CNC press brake?

NC uses torsion-bar synchronization and simpler positioning. CNC uses independent Y1/Y2 control with more programming, axis and compensation options. Compare both on your bend sequences and job changes.

Compare CNC press brake platforms
How do I select tonnage and working length?

Use the material grade and strength, thickness, bend length, bending method and die opening to assess force. Then check tooling load limits, flange access, daylight and part support. A force calculator helps with an initial estimate; the selected machine and tooling still need to suit the complete part.

Estimate bending force
When should I consider an all-electric press brake?

Consider the WADG route when its published force, working length, stroke and duty suit the intended work. Its servo motors and screws provide forming motion without a hydraulic power unit. Compare setup, bending and handling together when assessing it against a hydraulic machine.

Review the electric press brake
Do long parts need a large press brake or a tandem system?

Compare the part length, load distribution, tooling and handling plan. A single heavy-duty machine and two matched tandem machines create different installation and operating requirements. A tandem project needs its own complete specification; its capacity cannot be established by simply doubling a single-machine row.

Can I use my existing punches, dies and clamps?

Possibly, after checking the tool interface, clamping method, tool height, load rating and clearance through the bend sequence. Send tooling drawings or clear identification details with the part drawing. Tooling that physically fits a holder may still be unsuitable for the required load or geometry.

When does robotic bending make sense?

It is worth evaluating when a repeatable part family can be gripped, referenced, turned and stacked reliably. Include programming, gripper changes, loading, inspection and recovery in the cycle study. The robot, press brake and surrounding stations need to be assessed as one working cell.

Explore robotic bending cells
How can I check bend quality before ordering?

Agree representative parts, actual material, tooling and a measurement method. Review angle, flange dimensions, straightness and repeatability through the full bend sequence. Include both regular work and difficult parts so the acceptance checks reflect the production you intend to run.

Explore applications in your industry

See equipment options for the parts your industry produces.

Project enquiry

Discuss your project

Tell us what you want to make or improve. Technical details and drawings can follow.

  • Material, thickness and part size
  • Drawings and production volume
  • Location and project timing

Contact ADH

Start a machine enquiry

Name, email and a short description are enough to begin.

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