Omec Srl
Plan OMEC around the joint geometry, the drawer family, and the complete assembly cell.
OMEC dovetail equipment gives cabinet, furniture, and millwork shops a controlled path from manual layout and operator-dependent setup to repeatable joint machining. Titan can frame the cell around pitch, indent count, depth, part dimensions, cutter compensation, pneumatic clamping, male/female part pairing, glue application, drawer squareness, sanding, inspection, and production tracking.
OMEC turns dovetailing from a craft bottleneck into a repeatable production step.
Drawer-box work often becomes a hidden labour leak. Operators lay out joints manually, adjust by feel, re-cut parts, compensate during assembly, and depend on one experienced person to keep fit consistent. OMEC changes that conversation by controlling the geometry and giving the shop a better platform for standard work.
Programmed Setup
Numerical control provides a repeatable basis for pitch, indent count, depth, cutting speed, feed, dimensions, and tool compensation.
Programs should be organized around real drawer families instead of one-off operator memory.
Consistent Workholding
Pneumatic clamping and controlled part reference help keep workpieces stable so joint geometry remains consistent across the batch.
Clamping discipline also protects operators from improvised holding methods.
Tool Condition
Cutter condition, spindle speed, feed, chip evacuation, and radius compensation directly affect fit and visible surface quality.
Tooling standards should be part of the production routine, not emergency troubleshooting.
Cell Integration
The dovetail station should feed a planned sequence for pairing, glue application, squaring, sanding, inspection, and packaging.
Machine output only matters when downstream work can absorb it cleanly.
A dovetail machine creates the joint. The cell creates the drawer.
Good dovetail geometry can still be lost through poor part sorting, excessive glue, rushed assembly, inconsistent squaring, careless sanding, or mixed drawer components. OMEC should be planned with the complete job sequence so accurate machining becomes accurate finished work.
The strongest cell defines drawer families, material thickness, pitch logic, male and female references, cutter standards, part labels, glue quantity, assembly time, inspection points, and remake handling before volume increases.
Think about OMEC in three production roles.
The model decision is easier when the shop first decides how much programming flexibility, drawer variation, and cell-level control it actually needs.
650A Fixed-Pitch Role
The 650A fits shops where fixed 25 mm and 50 mm pitch options cover the main drawer program and repeatability matters more than broad programming variation.
- Two-axis controlled dovetail and parallel-indent machining
- Practical path for stable drawer families
- Strong first step away from manual setup
750 CN-C Flexible Role
The 750 CN-C fits operations needing wider control over pitch, indent quantity, depth, dimensions, cutting speed, feed, and tool-radius compensation.
- Better fit for changing drawer sizes and specifications
- Supports male, female, or simultaneous workpiece machining
- Stronger platform for higher-output cells
Complete Cell Role
At production volume, the machine must be supported by part sizing, labeling, glue application, squaring, sanding, inspection, and packaging standards.
- Balances machining output with assembly capacity
- Reduces mix-ups and fit correction
- Creates measurable drawer-production discipline
Move from manual joinery to a repeatable drawer-production system.
The strongest OMEC implementation is not just a machine purchase. It is a sequence of decisions that stabilize geometry, parts, tooling, assembly, and quality.
Define the Drawer Families
Document material thickness, drawer sizes, joint styles, pitch requirements, finish expectations, and the real number of changeovers.
Standardize Programs
Build controlled settings for pitch, depth, dimensions, feed, cutting speed, and compensation instead of relying on memory.
Control the Machining Process
Set rules for tool condition, clamping, reference surfaces, chip extraction, first-piece approval, and in-process checks.
Balance Glue-Up and Assembly
Pair components, control adhesive, establish squaring methods, and prevent machine output from overwhelming assembly.
Measure the Finished Result
Track fit issues, remakes, setup time, output, glue cleanup, squareness, sanding correction, and customer-facing quality.
Where OMEC fits in real woodworking production.
OMEC equipment belongs anywhere dovetail or parallel-indent joinery needs to move from occasional craft work into controlled repeat production.
Cabinet & Drawer Manufacturing
Support kitchen, vanity, closet, casework, and custom cabinetry with repeatable drawer-box joints and a more predictable path to assembly.
Furniture & Millwork
Machine dovetails and parallel indents for furniture elements, display fixtures, reception work, specialty boxes, and repeat architectural components.
High-Mix Batch Production
Use numerical setup standards to manage changing drawer sizes, materials, job-specific details, and batch-one work with less variation.
Questions Titan should ask before quoting OMEC.
The model and cell design should be based on drawer volume, pitch flexibility, material thickness, part variation, operator workflow, and the process immediately after machining.
Which joint styles are required?
Clarify dovetails, parallel indents, male/female machining, visual expectations, joint tightness, and glue allowance before selecting the process.
Is fixed pitch sufficient?
Stable 25 mm and 50 mm production points toward the 650A role; variable pitch and broader control point toward the 750 CN-C role.
What output is actually required?
Use drawers per hour, drawers per shift, batch size, changeover frequency, and assembly capacity rather than machine speed alone.
How much variation exists?
Part dimensions, material thickness, drawer styles, customer standards, and job-specific changes influence the value of programming flexibility.
What happens after machining?
Glue application, component pairing, clamping, squaring, sanding, finishing, and packaging should be planned with machine output.
Who owns setup and quality?
Programming, loading, clamping, first-piece approval, tool checks, fit inspection, and remake decisions need clear ownership.
Plan OMEC around the complete drawer cell.
Tell Titan what drawers or furniture components are being produced, which joint standards are required, how often sizes change, and where the current workflow loses time. That creates a stronger starting point for model selection, programming flexibility, tooling, clamping, glue-up, assembly, and quality control.
- Fixed-pitch or variable-pitch dovetail production
- Drawer-family, material-thickness, and part-pairing review
- Tooling, clamping, chip extraction, and first-piece standards
- Glue application, squaring, sanding, inspection, and downstream flow