Joint flexibility
Pitch can be variable or fixed
Joint center-to-center can be programmed as variable or fixed.
Omec 750
750 CN-C Two-axis automatic numerical-control joint milling machine
OMEC’s flexible two-axis joint-milling platform for drawer and furniture components. The 750 CN-C machines dovetail and parallel joints with variable or fixed pitch and lets the numerical control change joint spacing, joint count, joint depth, workpiece dimensions, cutting/tool-feed parameters and tool-size compensation inside the machine’s working limits.
2-axis automatic millingvariable or fixed pitchmale / female / simultaneous18,000 rpm spindle60 drawers/hour machine reference0.7 MPa air
Production problem
Drawer programs can require more than one fixed pitch. The 750 CN-C is built for a wider joint mix where spacing, count, depth and workpiece dimensions need to move with the product.
Machine mechanism
A two-axis numerical-control system manages the machining variables while one 18,000-rpm electrospindle carries the OMEC cutter.
Process value
Single male, single female or simultaneous male/female machining stays in one platform while the control expands setup flexibility beyond a two-pitch fixed program.
Dovetail + parallel joints
Two-axis automatic milling
Flexible numerical control
18,000 rpm electrospindle
60 drawers/hour
530 mm max width
Start with the manufacturing problem
When the drawer family changes, the joint program needs to move with it.
The 750 CN-C is not simply a faster fixed-pitch dovetail machine. Its purpose is a broader product mix: joint pitch, count, depth and workpiece dimensions can be changed within the machine’s working limits, making it a stronger route when drawer construction cannot be reduced to one or two permanent spacing programs.
Program flexibility
Joint count and depth are programmable
The numerical-control description lists both the number of joints and the joint depth among the variables the machine can change.
Workpiece flexibility
Part dimensions belong in the program
OMEC lists workpiece dimensions among the variables controlled through the machine software.
Production basis
Use the machine-rate reference in context
The machine reference is 60 drawers/hour. Finished-line output still depends on the complete production process.
Application fit
For drawer and furniture programs that need more joint flexibility without leaving a dedicated two-axis platform.
The 750 CN-C is strongest where dovetail or parallel joints vary by drawer family and where joint spacing, count, depth or part size need software-guided adjustment. The base 750 CN-C remains a straight-front machine unless a separate curved-front configuration is ordered.
Strong fit
Variable product mix
A strong fit where drawer construction changes enough that a fixed-pitch-only machine would create unnecessary limits.
Strong fit
Male / female flexibility
Single male, single female or male/female workpieces can be machined simultaneously.
Strong fit
Wider drawer components
Workpiece width extends to 530 mm while length remains 200–1500 mm.
Separate variant
Curved drawer fronts
Curved-front work is assigned by OMEC to the separate 750 CN-I version and its dedicated equipment/tooling. Do not treat that as standard 750 CN-C capability.
Automation boundary
Fully automatic material handling
Clamping and release are manually actuated through pneumatic valves. The machine is automatic in machining, not a fully automatic material-flow line.
System fit
High-volume line balancing
The 60-drawers/hour machine reference only becomes finished-drawer output when upstream preparation and downstream glue/assembly can support it.
Select the process from the part backwards
Define the joint program before selecting the machine configuration.
The 750 CN-C decision starts with the actual drawer joint, workpiece envelope and required flexibility, then closes tooling, utilities and line integration.
Define joint type
Confirm dovetail or parallel joint and the required male/female workpiece arrangement.
Define pitch / count / depth
Use the numerical-control flexibility only where the product actually requires changing joint geometry.
Check workpiece range
Validate length, width, joint height, front thickness and side thickness against the machine limits.
Select the cutter package
Choose integral-HM/Widia or diamond tooling around the exact joint and material requirement.
Balance the line
Map operator loading, air, dust extraction and downstream gluing/assembly against the desired drawer output.
Machine architecture / work cycle
Two-axis numerical control around one 18,000-rpm electrospindle.
OMEC describes an automatic two-axis milling machine with one spindle/cutter group capable of producing joints at different heights. Workpieces are loaded and clamped by the operator, then the control executes the programmed machining variables.
Motion
Two controlled axes
The 750 CN-C is explicitly described as an automatic two-axis numerical-control milling machine.
Cutting unit
One electrospindle
The machine uses one electrospindle operating at 18,000 rpm.
Workholding
Manual pneumatic clamping
Workpieces are clamped and released manually using pneumatic valves.
Operator interface
Software-led adjustment
Machine adjustments follow software instructions displayed on the monitor.
Joint capability
The 750 CN-C’s value is the program range between one joint and the next.
The 750 CN-C supports a broad range of dovetail and parallel-joint programs. Numerical control can change pitch, joint count, joint depth, workpiece dimensions, cutting/tool-feed parameters and tool-size compensation within the working limits.
Cutter area / joint programs
Flexible pitch does not mean tool-independent geometry.
The closeup shows the cutting zone where the qualified workpiece meets the selected OMEC cutter. Numerical control expands what can be programmed, but the finished joint still depends on the correct cutter, material, part thickness and workpiece setup. The tooling family includes multiple integral-HM dovetail and cylindrical diameters plus diamond options.
Curved-front machining belongs to the separate 750 CN-I version and is not part of the base 750 CN-C scope.
Technical configuration
750 CN-C technical data.
Core machine specifications are shown below. Metric values remain primary, with useful North American conversions in brackets.
| Field | Machine value | North American reference |
|---|---|---|
| Machine type | Automatic two-axis milling machine with numerical control | Dovetail / parallel-joint machining |
| Installed power | 2.7 kW | ~3.62 hp |
| Working pressure | 0.7 MPa | ~101.5 psi |
| Electrospindle | 1 | Single-spindle architecture |
| Electrospindle speed | 18,000 rpm | 18,000 rpm |
| Joint center-to-center | Variable or fixed | Program-dependent |
| Drawer production | 60 n/h | 60 drawers/hour machine reference machine reference |
| Machine weight | 312 kg | ~688 lb |
| Packed machine weight | 400 kg | ~882 lb |
| Overall dimensions L × W × H | 112 × 80 × 120 cm | ~44.1 × 31.5 × 47.2 in |
| Packing dimensions | 135 × 97 × 145 cm | ~53.1 × 38.2 × 57.1 in |
Dimensional range / workpiece envelope
The 750 CN-C adds width and joint-height range while keeping a defined part envelope.
The base machine uses five dimensional limits. Every drawer application must fit all five before joint-program flexibility becomes relevant.
200–1500 mmLength
[7.87–59.06 in]
[7.87–59.06 in]
60–530 mmWidth
[2.36–20.87 in]
[2.36–20.87 in]
6–20 mmJoint / indent height
[0.236–0.787 in]
[0.236–0.787 in]
8–50 mmFront thickness
[0.315–1.969 in]
[0.315–1.969 in]
8–40 mmSide thickness
[0.315–1.575 in]
[0.315–1.575 in]
Controls / automation / operator workflow
The numerical control changes the machining variables that matter to the drawer program.
The numerical control addresses the machining variables that define each drawer-joint program.
Control panel
Six machining variables define the program.
The supplied control closeup shows the operator interface used to manage the joint program. The control can modify joint pitch, number of joints, joint depth, workpiece dimensions, cutting speed/tool feed and compensation for tool-radius variation. Adjustments are guided by machine-software instructions displayed on the monitor.
Workpiece loading and pneumatic clamp/release remain operator actions; material handling is not fully automatic.
Tooling architecture
Tooling options support the 750 CN-C’s broader program range.
The machine uses original OMEC integral-HM cutter tooling, with one integral-HM cutter included in the standard configuration. Optional cutter diameters cover multiple dovetail and cylindrical ranges plus diamond alternatives.
Standard
Standard installed cutter
The standard configuration includes an integral-HM cutter mounted on the machine, plus adjustment/maintenance tools and the user manual.
HM options
A24 / A25 Ø14 HM
A24 is the standard Ø14 integral-HM cutter option; A25 adds the deburring-tool configuration.
Dovetail options
A26 dovetail cutter family
A26/01 through A26/04 cover Ø6–8, Ø9–10, Ø11–13 and Ø15–18 integral-HM dovetail cutter ranges.
Cylindrical options
A27 cylindrical cutter family
A27/01 through A27/04 cover Ø6–8, Ø9–10, Ø11–12 and Ø13–14 cylindrical integral-HM cutter ranges.
Toolholding option
A28 spindle clamp
A28 is the spindle clamp for Ø6–14 cutters.
Diamond options
A47 / A48 diamond Ø14
A47 is the Ø14 diamond cutter; A48 is the Ø14 diamond cutter with deburring tool.
Pneumatics / extraction / utilities
Compressed air and installed power are defined. The installation package closes the rest.
Installed power is 2.7 kW and pneumatic working pressure is 0.7 MPa. Final electrical supply and dust-system interface are completed for the configured installation.
Compressed air
0.7 MPa working pressure
Working pressure is 0.7 MPa—approximately 101.5 psi.
Installed power
2.7 kW installed power
The 2.7 kW value is installed machine power.
Complete at quotation
Electrical supply
Final voltage, phase, frequency and protection are completed for the actual machine/install package.
Extraction
Dust extraction
A covered 750 CN-C configuration is available for noise and dust reduction. Final dust-system interface remains project-specific.
Layout
Operator work zone
Plan for loading, clamping, control access, unloading and service access around the actual supplied guarding/enclosure.
Deployment
Commissioning
Final machine setup, guarding, control verification and operator training belong to the qualified commissioning scope.
Production-rate framework
Use the 60-drawers-per-hour machine reference in the context of the complete process.
The machine reference is 60 drawers/hour. Actual factory output remains dependent on workpiece handling, program, joint count, cutter, material and the capacity of the downstream drawer process.
Manufacturer reference
Machine reference
60 drawers/hour is the machine-reference rate.
Program context
Joint program matters
A drawer with a different joint count or depth is not assumed to have the same cycle behavior as another program.
Operator context
Operator handling matters
Manual load, clamp/release and unload actions remain part of the real production cycle.
Line context
Downstream process matters
Glue, pressing and final drawer assembly can become the line bottleneck even when the milling machine has capacity available.
Ownership / service / changeover
Program flexibility only pays when tooling, clamping and setup discipline stay under control.
The machine’s numerical flexibility reduces the need to treat every drawer as a completely different mechanical setup, but production consistency still depends on qualified cutter condition, stable pneumatic clamping, clean extraction and disciplined program selection.
Control discipline
Protect the program library
Keep joint pitch/count/depth programs tied to the intended drawer construction and approved cutter.
Tooling
Protect cutter condition
The 18,000-rpm electrospindle makes cutter condition and correct tooling central to the machining process.
Pneumatics
Keep workholding consistent
Stable pneumatic supply and correct part presentation support repeatable clamping before machining.
Ownership
Preserve service access
Maintain access to the control, work zone, spindle area and cabinet for qualified inspection and maintenance.
Production-line integration
A flexible joint machine should feed a flexible drawer process.
The 750 CN-C belongs between prepared components upstream and gluing/assembly downstream. Its broader program range is most valuable when the rest of the line can handle the same drawer mix without creating a new bottleneck.
Prepare components
Bring front, side and mating parts to the required dimensions and material condition.
Select program / tooling
Set the required pitch, count, depth and part dimensions around the qualified OMEC cutter.
Machine the joint
Clamp, execute the numerical-control cycle and unload the verified male/female workpiece combination.
Glue / assemble
Move machined parts into the qualified adhesive and drawer-clamping process.
Balance product mix
Compare milling capacity with actual changeover, loading and downstream assembly across the drawer family.
Valid configurations / options
Base 750 CN-C, covered configuration and curved-front 750 CN-I are not the same scope.
The base 750 CN-C is kept separate from the 750 CN-I curved-front version. A covered 750 CN-C configuration is available for noise and dust reduction.
Base machine
Base 750 CN-C
Base model: two-axis numerical-control joint milling for straight drawer/furniture components inside the defined workpiece envelope.
Covered configuration
750 CN-C covered configuration
A covered 750 CN-C configuration is available for noise and dust reduction. Confirm the exact guarding/enclosure supplied on the quotation.
Separate version
750 CN-I curved-front version
The 750 CN-I is the version for machining curved front pieces and remains separate from base 750 CN-C workpiece claims.
750 CN-I option
A89 curved-front equipment
A89 is equipment for machining curved front pieces on the 750 CN-I route.
750 CN-I tooling
A94 curved-front cutter
A94 is the cutter for machining curved front pieces on the 750 CN-I route.
Option — range at quotation
A05 small-piece equipment
A05 is available for small-piece machining. Its exact working range is confirmed at quotation.
Business-case framework
Value the 750 CN-C on product-mix flexibility as well as output.
The economic case should compare existing setup time, joint-program variation, operator handling, cutter inventory, reject/rework experience and downstream drawer capacity—not just machine-reference drawer rates.
Flexibility
Program variation
Quantify how many drawer families need different pitch, joint count, depth or workpiece setup.
Labour / time
Existing handling time
Measure current loading, clamping, machining and part-transfer effort.
Tooling
Tooling strategy
Build the cutter package around the actual joint library instead of selecting every available tooling option by default.
System value
Line balance
Compare joint machining against glue application, pressing, squaring and final drawer flow.
Application data package
Bring the complete drawer family—not one sample joint.
The 750 CN-C earns its place when the range of products actually uses the flexibility it provides. Qualification should therefore include the extremes and recurring programs, not only one nominal drawer.
Dimensions
Drawer geometry
Length, width, front thickness, side thickness, joint height and whether fronts are straight or curved.
Joint
Joint library
Dovetail or parallel joint, pitch range, joint count, depth, male/female arrangement and finished appearance.
Output
Production requirement
Existing drawer output, target output, batch sizes, product mix and frequency of program changes.
Installation
Site utilities
Electrical service, compressed-air supply, dust collection, available floor space and upstream/downstream equipment.
Complete at quotation
Close the exact 750 CN-C configuration, cutter library and enclosure scope.
Your complete OMEC 750 CN-C proposal defines the exact machine configuration, variable/fixed joint programs, workpiece dimensions, male/female machining arrangement, cutter package, standard and optional tooling, electrical configuration, 0.7 MPa compressed-air interface, dust-extraction connection, guarding/enclosure, machine/packing dimensions, commissioning and expected role in the drawer-production process.
If curved-front components are required, the proposal moves to the documented 750 CN-I route with the appropriate special equipment and cutter rather than representing that capability as standard 750 CN-C scope.
Exact 750 CN-C configuration
Variable / fixed joint programs
Workpiece dimensional envelope
Male / female arrangement
HM / diamond cutter package
Electrical configuration
0.7 MPa air interface
Dust / enclosure interface
Commissioning / training
750 CN-I only if curved fronts
The 750 CN-C contains high-speed cutting equipment, pneumatic workholding and industrial electrical systems. Operation, setup, tooling changes, commissioning and service are performed using applicable OMEC documentation and appropriately trained/qualified personnel.
750 CN-C FAQ
Questions that decide whether the flexible numerical-control machine is the right route.
The strongest reasons to choose this model are the variable/fixed pitch architecture, broader workpiece envelope and explicit control over joint-program variables.
What is the model designation?
The model designation is 750 CN-C.
Which joints can the 750 CN-C machine?
OMEC identifies dovetail joints and parallel joints for drawers and various furniture components.
Is the joint pitch fixed or variable?
Joint center-to-center can be variable or fixed.
What can the numerical control change?
The numerical control covers joint pitch, joint count, joint depth, workpiece dimensions, cutting/tool-feed parameters and compensation for tool-radius variation.
Can it machine male and female parts together?
Yes. Single male, single female or male/female workpieces can be machined simultaneously.
What is the machine-reference drawer rate?
The machine-reference rate is 60 drawers/hour.
What is the workpiece range?
Length 200–1500 mm, width 60–530 mm, joint height 6–20 mm, front thickness 8–50 mm and side thickness 8–40 mm.
What spindle does it use?
The machine uses one electrospindle at 18,000 rpm.
Can the base 750 CN-C machine curved fronts?
Curved-front machining belongs to the separate 750 CN-I version with dedicated equipment/tooling.
Is a covered version available?
A covered 750 CN-C configuration is available for noise and dust reduction. The exact enclosure supplied is confirmed in the quotation.
OMEC 750 CN-C application review
Send the drawer family and the joint programs.
Titan can qualify the 750 CN-C against the complete workpiece envelope, variable/fixed pitch requirements, joint count/depth changes, male/female arrangement, target drawer output, tooling, utilities and downstream assembly process.
Useful inputs: minimum/maximum drawer dimensions, front/side thicknesses, joint heights, dovetail or parallel programs, pitch range, joint count/depth changes, current output, target output, straight/curved fronts, electrical service, compressed air, dust collection and downstream gluing/pressing.