F01
Best fit outranks highest specification
A machine earns its place by solving the customer's production problem. Extra speed, automation, axes, stations, width, or tooling capacity only matter when the shop can use them.
Machine Comparisons
Titan Machine Fit Comparison Guide
CNC · Sawing · Edgebanding · Sanding · Pressing · Solid Wood · Support Systems
Compare Titan machines by customer application
We do not sell the biggest machine by default. We select the machine that fits the work.
Titan compares machinery within the equipment families we represent. The goal is not to push every customer toward the highest specification or the highest purchase price. The goal is to match the machine, supporting systems, and expansion path to the customer’s products, production volume, quality requirements, available people, facility, service plan, and measurable business objective.
Application firstProducts, materials, volume, quality, labour, workflow, layout, and customer delivery.
Right-sized capacityDependable accepted output after setup, mix, handling, maintenance, staffing, and downstream limits.
Complete systemMachine, tooling, software, dust, utilities, handling, training, service, and ramp-up.
Honest recommendationThe answer may be a smaller model, a different machine class, support equipment, or no machine yet.
Titan machine-selection position
The best machine is not automatically the most machine.
A higher specification only becomes a better recommendation when the customer can use it. Titan compares the smallest viable option, the right-sized production option, and the justified growth option. We then show what each choice changes in capacity, labour, quality, tooling, infrastructure, handling, software, maintenance, and future expansion.
Smaller can be smarterLower complexity, easier staffing, faster adoption, smaller footprint, and sufficient capacity may create the strongest result.
Larger must be justifiedAdded size, axes, stations, width, speed, automation, and tooling capacity need a defined production use.
Support may come firstTooling, dust, software, maintenance, handling, training, or scheduling may unlock existing capacity before another machine is needed.
Expansion must stay balancedThe recommendation includes what becomes the next constraint and how the shop will absorb the new output.
Twelve principles behind every Titan machine comparison.
These principles keep the conversation centered on customer application, dependable production, implementation risk, and complete ownership—not the pressure to move toward a larger or more expensive model.
F02
Application comes before model
We start with parts, materials, finish, volume, routing, quality, labour, layout, and delivery requirements before narrowing the machine family.
F03
The bottleneck sets the priority
The next purchase should address the constraint limiting complete customer output—not the machine that is easiest to quote or most impressive to demonstrate.
F04
Capacity must be dependable
Brochure speed is not shop capacity. We compare good output after setup, handling, product mix, tool changes, maintenance, staffing, and downstream limits.
F05
A smaller machine can be the stronger choice
A compact machine may produce better returns when it fits the footprint, skills, work mix, service plan, and realistic demand without creating unused overhead.
F06
A larger machine must have a job to do
Larger tables, more stations, automated loading, higher feed rates, and heavier construction should be connected to measurable requirements and future demand.
F07
The complete system is compared
Tooling, software, dust collection, vacuum, air, power, handling, labels, training, maintenance, service access, and ramp-up are part of the recommendation.
F08
Expansion should remove the next constraint
A successful upgrade changes the flow. We check what becomes the new bottleneck after the machine is installed and include the surrounding work needed to absorb the gain.
F09
Operator reality matters
The recommendation must fit available skills, staffing, shift structure, setup discipline, programming support, maintenance capability, and the time available for training.
F10
Quality is part of capacity
Output that requires sorting, rework, remakes, hand finishing, or repeated adjustments is not dependable production capacity.
F11
Ownership cost matters more than purchase price
Tooling, abrasives, extraction, maintenance, software, service, labour, energy, consumables, and downtime belong in the comparison.
F12
The final recommendation can be no machine
If layout, data, tooling, maintenance, training, scheduling, dust, or material handling is the real issue, Titan can recommend fixing that first.
Sixteen dimensions used to compare machines fairly.
Each machine family is reviewed against the same operating data. This prevents a comparison from becoming a list of isolated specifications that are disconnected from the shop.
D01
Product family
Cabinet parts, doors, windows, frames, mouldings, panels, furniture components, timber members, or mixed custom work.
D02
Material and finish
Melamine, MDF, plywood, veneer, hardwood, softwood, HPL, painted panels, high-gloss surfaces, or specialty materials.
D03
Part envelope
Maximum and minimum length, width, thickness, weight, geometry, edge condition, workholding area, and handling clearance.
D04
Required operations
Cutting, routing, drilling, boring, profiling, sanding, calibrating, edging, pressing, clamping, insertion, packaging, or recovery.
D05
Production volume
Custom one-off, low-volume repeat, mixed production, high-volume cells, multi-shift operation, and seasonal demand.
D06
Product mix
How often the shop changes materials, dimensions, edge types, programs, tooling, finish requirements, and order sequence.
D07
Quality standard
Dimensional tolerance, edge appearance, finish quality, profile consistency, chip control, sanding pattern, and first-pass acceptance.
D08
Labour model
Operators per shift, loading and unloading, programming, setup, sorting, inspection, maintenance, and downstream staffing.
D09
Software and data
Design source, CAM, posts, labels, nesting, optimization, ERP or MES handoff, revision control, and backup procedures.
D10
Tooling and consumables
Cutters, holders, collets, blades, scoring, drills, abrasives, glue, filters, lubrication, and service intervals.
D11
Infrastructure
Footprint, floor, access, power, air, vacuum, dust extraction, network, heat, lighting, fire requirements, and rigging.
D12
Material handling
Sheet storage, carts, conveyors, return systems, lifts, robots, buffers, offcuts, finished-part protection, and traffic flow.
D13
Maintenance and service
Operator care, preventive maintenance, critical spares, remote support, technician access, planned downtime, and recovery.
D14
Growth horizon
Current demand, approved sales growth, new products, second shift, automation readiness, expansion space, and replacement timing.
D15
Financial boundary
Complete installed cost, operating cost, working capital, training, ramp-up, contingency, and acceptable payment or payback range.
D16
Acceptance proof
Representative materials, products, programs, operators, cycle mix, quality checks, output target, and signed completion criteria.
MC-01
CNC routing and machining centres
Compare CNC platforms by part type, workholding, drilling, tool capacity, axes, table format, loading strategy, software flow, and the production rate the rest of the shop can absorb.
Titan model families represented in this comparison
SCM Startech CN K · Morbidelli X50 · X100 · X200/X400 · Morbidelli M100/200 · Accord NST · Ergon NT
Entry and focused CNCBest when the work is controlled, the part mix is known, and the shop needs reliable CNC capability without a larger automated cell.
Nesting and flexible panel CNCBest for cabinet, casework, furniture, and mixed panel production where sheet optimization, labels, drilling, routing, and part identity matter.
Pod-and-rail and component machiningBest for doors, windows, frames, shaped components, solid wood, edge work, and parts requiring access beyond a flat nesting strategy.
Higher automation and cell integrationBest when loading, unloading, storage, sorting, parallel operations, multi-shift demand, and software supervision are justified by volume.
Questions that determine the fit
- Is the primary unit a sheet, finished component, door, frame, window part, or mixed part family?
- Does the shop need nesting, pod-and-rail workholding, vertical drilling, five-axis movement, or a combination?
- How many tools, drills, aggregates, and recurring setups are truly required?
- Can downstream edgebanding, assembly, sanding, and packaging absorb the proposed CNC output?
- Will the operator program, load, unload, label, inspect, and maintain the machine, or are those roles separated?
MC-02
Boring, drilling, and vertical machining
A focused boring or vertical CNC can outperform a larger router when the shop mainly needs accurate holes, grooves, hardware patterns, cabinet sides, and repetitive secondary machining.
Titan model families represented in this comparison
SCM Morbidelli CX210/CX220 · Startech 27 · Startech CN · Startech CN V · Minimax AD21
Manual and guided boringBest for controlled custom work, cabinet assembly drilling, and shops that do not need automatic program-driven routing.
Compact CNC boringBest where repetitive cabinet and furniture parts need programmable drilling with a smaller footprint.
Vertical CNC machiningBest where panels move through a compact vertical route and floor space, handling, and part identity are critical.
Dedicated secondary cellBest when boring is starving assembly or slowing a nesting cell and deserves its own controlled production route.
Questions that determine the fit
- Are routing operations actually required, or is the work primarily drilling and grooving?
- Can a focused boring machine free the main CNC from low-value secondary work?
- What are the minimum panel dimensions, support requirements, and handling method?
- How are programs, revisions, hardware patterns, and labels transferred?
- Does the cell need one operator, pass-through flow, or batch staging?
MC-03
Panel cutting, beam saws, and sliding table saws
Cutting systems are compared by material mix, book height, optimization, scoring quality, finished-part control, custom flexibility, labour, offcuts, and the required relationship with CNC and edgebanding.
Titan model families represented in this comparison
SCM Minimax SI X · Nova SI 300 S / SI 300 / SI 400 · Class SI 400EP / SI X · L’invincibile SI 3 / SI 5 / SI X · Gabbiani S / ST / PT / P / VSI / VS / V / VK · Formula S440P–S940P · Minimax S45N
Sliding table sawBest for custom cutting, mixed materials, flexible manual work, prototypes, solid wood, and low-volume panel production.
Vertical or compact panel sawBest where footprint, simple panel sizing, and safe sheet handling matter more than high automation.
Beam sawBest for repeat panel cutting, optimized books, label-driven production, high sheet volume, and controlled cut quality.
Integrated cutting cellBest when storage, optimization, offcut return, labels, conveyors, and downstream sequencing justify a connected system.
Questions that determine the fit
- Is the shop cutting single sheets, books, mixed materials, solid wood, or high-value decorative panels?
- Does the customer require flexible manual cutting or production optimization and automatic labels?
- What scoring quality, finished dimension, and edge condition are required before edgebanding?
- How will sheets arrive, offcuts return, parts be sorted, and complete jobs remain together?
- Would a nesting CNC eliminate the need for a larger saw, or would a beam saw protect CNC capacity?
MC-04
Edgebanders and edge-processing cells
Edgebanders are compared by edge material, glue strategy, panel size, finish standard, station package, changeover, return flow, operator load, service access, and the upstream rate feeding the machine.
Titan model families represented in this comparison
SCM Me 20 / Me 25 / Me 28T / Me 35 / Me 40 · K 100 Evo · Olimpic 300 / 500 / 500plus · Stefani KD / MD / M / S · Easy Cart · Easy Store
Compact manual-feed edgebandingBest for lower volume, custom work, controlled edge types, and shops where flexibility matters more than continuous production.
Professional single-sided productionBest for repeat cabinet and furniture parts requiring pre-mill, trimming, scraping, buffing, and dependable finish.
Higher-output and flexible edge cellsBest where rapid changeover, multiple glue or edge requirements, returns, automation, and mixed production drive the decision.
Integrated storage and return supportBest when panel presentation, operator walking, recirculation, sorting, and work-in-process are limiting the edgebander.
Questions that determine the fit
- Which edge materials, thicknesses, glue systems, panel coatings, and finish standards must be supported?
- Is the constraint machine speed, changeover, operator handling, returns, glue cleanup, or upstream part quality?
- Which stations are required on day one, and which are only optional future capability?
- How will narrow, short, large, delicate, or high-gloss parts be protected and returned?
- What is the accepted panel-per-shift target after gaps, changeovers, cleaning, and inspection?
MC-05
Wide-belt, profile, edge, and brush sanding
The correct sanding machine depends on whether the work is flat, profiled, painted, veneered, calibrated, rounded, edge-focused, solid wood, or prepared for finishing.
Titan model families represented in this comparison
SCM Formula STR 32–STR 62 · Formula DG60 · Formula Unilev 150 · DMC SD 10 / 30 / 60 / 70 / 90 · DMC Eurosystem · DMC MB90 · MB Maschinenbau Roba Profi
Edge and profile sandingBest for long edges, shaped pieces, angled work, profiles, components, and manual flexibility.
Compact wide-belt sandingBest for calibration and repeat flat sanding where footprint, simplicity, and controlled production matter.
Configurable wide-belt finishingBest for veneer, solid wood, MDF, painted panels, higher finish standards, sectional pressure, and multiple heads.
Brush and profiled-panel finishingBest for routed MDF, assembled doors, profiles, edge breaking, denibbing, and surfaces a conventional wide belt cannot follow.
Questions that determine the fit
- Is the customer removing stock, calibrating thickness, creating finish, denibbing, rounding edges, or following profiles?
- Are parts flat, assembled, shaped, painted, veneered, high-gloss, or mixed?
- What finish must leave the machine without hand correction?
- How are abrasive life, grit sequence, pressure, dust extraction, and changeover controlled?
- Would a profile or brush machine remove more labour than a wider or faster flat sander?
MC-06
Pressing, laminating, clamping, and assembly
Press and clamping systems are matched to the product, adhesive, pressure, heat, daylight, loading method, cure time, changeover, assembly sequence, and daily output.
Titan model families represented in this comparison
SCM Sergiani GS / GS-A / GS-F · GSL-A / GSL-KL · 3D Form / 3D Form HP · LAS · Action M / M CNC / H / TF / P / E · Formula Clamp 2500
General flat pressingBest for veneer, laminate, panels, doors, and glued assemblies requiring controlled pressure and repeatable flatness.
Automated or multi-daylight pressingBest when loading time, repeated recipes, production volume, and consistent cycle control justify automation.
Three-dimensional formingBest for membrane, vacuum, shaped fronts, decorative doors, and formed components.
Cabinet and frame clampingBest when assembly squareness, labour, repeatability, fixture time, and complete-unit flow are the primary constraints.
Questions that determine the fit
- What product is pressed or clamped, and what defines an accepted result?
- What adhesive, open time, pressure, temperature, cure cycle, and cleanup method are required?
- Is the constraint pressing force, cycle time, loading, unloading, fixture change, or upstream preparation?
- How many daylights, recipes, part sizes, and product changes are needed?
- Does the shop need a press, a clamp, a glue-delivery improvement, or a better assembly cell?
MC-07
Solid-wood preparation, shaping, moulding, and crosscutting
Solid-wood equipment is compared as a connected route from rough stock through crosscutting, jointing, planing, shaping, moulding, sanding, defect removal, optimization, and finished component flow.
Titan model families represented in this comparison
SCM Minimax S 41 ES · Nova S 520/630 · Class S 520/630 · L’invincibile S 7 · Minimax / Class / L’invincibile jointers · Minimax / Nova / Class / L’invincibile shapers · Profiset 40 / 60 · Superset NT / TM · Topset XXL · Salvamac Legend 400–650 · SalvaPush 2000 · SalvaCut 3000 / 5000 · UltraCut 7000 · SalvaStop
Craft and professional preparationBest for custom solid-wood work where flexibility, finish, repeatability, and controlled manual operation matter.
Higher-capacity planing and shapingBest when width, stock removal, repeat settings, tooling, and daily component demand justify a larger machine.
Moulding and multi-side processingBest when repeat profiles, multiple faces, feed consistency, tool management, and lineal production are required.
Optimizing crosscut and automated feedingBest when defect removal, length optimization, repetitive cutting, labour, marking, and downstream sorting drive the project.
Questions that determine the fit
- What condition does material enter the route, and what finished geometry must leave it?
- Where are yield, setup, feeding, sorting, marking, defect removal, or profile changes creating the loss?
- Is the work custom and varied or repeat lineal production?
- What tooling, spindle arrangement, feed, extraction, and operator skill are required?
- Would optimization and handling improve yield more than a larger planer or moulder?
MC-08
Door, window, hardware, dowel, and specialty joinery
Door and window production is compared by component family, profile system, hardware, drilling, shaping, sanding, pressing, assembly, part identity, and the balance between flexible and dedicated equipment.
Titan model families represented in this comparison
SCM Windor Flex CP · Windor Flex 1 · Windor NT1 · Formula Ten 400 / Ten 400E · Connexus FF / MD · Omal HG2 · Omal Jolly Colla · HBD 1300 1H · Velox 1300
Flexible door and window machiningBest for mixed products, custom profiles, hardware preparation, and shops that need adaptable CNC-driven processing.
Dedicated joinery productionBest where repeat door or window systems, profile families, tooling packages, and higher component output justify specialization.
Dowel and glue constructionBest where boring, glue delivery, dowel insertion, cycle consistency, and assembly preparation are limiting output.
Hardware insertion and specialty operationsBest when repetitive hardware work, operator consistency, and downstream assembly quality justify a focused cell.
Questions that determine the fit
- Are products custom, standardized, code-driven, profile-driven, or mixed?
- Which operations must remain flexible, and which repeat often enough for dedicated equipment?
- How are left/right, inside/outside, hardware, profile, finish, and job identity controlled?
- What sanding, pressing, gluing, insertion, assembly, and inspection must follow machining?
- Would a flexible machining centre, dedicated line, or combination create the strongest production route?
MC-09
Dust collection, material handling, packaging, and recovery
Support equipment is compared by the production loss it removes: poor extraction, excessive travel, unsafe lifting, damaged parts, uncontrolled work-in-process, inefficient loading, packaging delays, or waste handling.
Titan model families represented in this comparison
Belfab dust-collection systems · Nederman extraction systems · SCM Easy Store / Easy Cart · Doucet handling and return solutions · SCM Cut C 50 / Cut 100 / Cut C 200 · waste and recovery systems represented by Titan
Machine-level extractionBest when chip evacuation, cut quality, tool heat, cleanup, or machine reliability is being lost at specific sources.
Central dust collectionBest when multiple machines, airflow balance, filtration, discharge, future expansion, and maintenance require a coordinated system.
Handling and return systemsBest when operator walking, lifting, recirculation, sorting, staging, and part protection limit machine output.
Packaging and recoveryBest when completed products wait for protection, waste interrupts flow, or material recovery can improve operating control.
Questions that determine the fit
- Is the loss at the machine, in the duct system, at filtration, during discharge, or in maintenance?
- How many touches, metres of travel, lifts, rotations, and staging decisions occur per accepted unit?
- Are finished parts damaged or mixed while waiting for the next process?
- What expansion, airflow, filter, fire, makeup-air, discharge, and service requirements must be included?
- Would handling or extraction allow existing machines to produce more before another machine is purchased?
Smallest viable, right-sized, and growth option
Every recommendation should show why the next model up is—or is not—needed.
Titan can compare the focused option, the balanced production option, and the growth option against the same product matrix and production target. The customer sees what capability is gained, what complexity is added, what support is required, and whether the extra investment has a real job to do.
Focused optionMeets the defined requirement with the least unnecessary complexity and the clearest operating plan.
Balanced optionProvides dependable capacity, required quality, workable changeover, and a realistic path through the rest of the shop.
Growth optionAdds capability tied to approved demand, new products, automation, a second shift, or an identified expansion milestone.
Rejected optionThe final comparison explains why another class or model was not selected, including unused features and hidden support requirements.
The comparison changes with the shop and product.
Two customers can consider the same machine and require different recommendations because their products, material flow, finish standards, labour, software, layout, and growth plans are different.
Cabinet manufacturing
Nesting or beam-saw route, boring, edgebanding, labels, whole-piece flow, assembly, dust, handling, tooling, and output by complete cabinet.
Commercial millwork
Flexible CNC, panel and solid-wood cutting, veneer, pressing, sanding, custom components, tooling, data control, and project-by-project flow.
Furniture manufacturing
Component machining, solid-wood preparation, moulding, profile sanding, pressing, assembly, repeatability, and mixed-model production.
Door manufacturing
CNC or dedicated machining, MDF routing, hardware, dowels, pressing, profile sanding, brush finishing, identity, and doors per shift.
Window and joinery
Component profiling, hardware machining, workholding, tooling systems, alternating work zones, assembly, finish, and skilled programming.
Panel processing
Storage, beam saw or nesting, offcuts, labels, edgebanding, sanding, return systems, dust, sorting, and sheet-to-finished-panel flow.
Solid-wood production
Crosscut optimization, ripping, jointing, planing, moulding, shaping, sanding, yield, tooling, extraction, and lineal output.
Growing mixed shop
Right-sized first machine, infrastructure, software, tooling, training, maintenance, handling, financing, and an expansion path that avoids stranded capacity.
01
Define the customer outcome
State the product, customer requirement, delivery need, quality standard, capacity target, labour concern, or growth objective.
02
Describe the current process
Map how material, data, tooling, people, parts, and completed units move from release to shipment.
03
Choose the production unit
Use complete cabinets, doors, windows, rooms, orders, panels, components, or lineal output—not vague machine activity.
04
Measure the baseline
Record accepted output, lead time, work-in-process, labour, setup, downtime, yield, remakes, travel, and delivery.
05
Find the active constraint
Identify the machine, skill, software handoff, material route, quality issue, maintenance loss, handling step, or schedule rule limiting output.
06
Build the part and product matrix
Document sizes, weights, materials, profiles, edge types, operations, finishes, tolerances, and order mix.
07
Separate required capability from attractive options
Mark each feature as required now, justified growth, useful option, or unnecessary complexity.
08
Select the machine class
Narrow the project to CNC, boring, cutting, edgebanding, sanding, pressing, solid wood, joinery, extraction, handling, or a combined cell.
09
Compare Titan model families
Compare only machines Titan represents, using the same project data, acceptance target, and installed-system boundary.
10
Right-size dependable capacity
Model good output after product mix, setup, handling, staffing, maintenance, quality, and downstream absorption.
11
Test the smallest viable option
Confirm whether a compact or focused machine can meet the requirement without unacceptable labour, risk, or growth restriction.
12
Test the larger option honestly
Require a measurable use for added size, stations, automation, tooling, speed, width, or integration.
13
Design the software and information route
Define job identity, revision, programs, labels, tooling data, optimization, reports, backups, and exception control.
14
Build the tooling and consumables package
Specify holders, cutters, blades, drills, abrasives, glue, filters, gauges, setup tools, initial spares, and replenishment.
15
Confirm infrastructure
Verify footprint, access, floor, electrical, air, vacuum, dust, network, heat, lighting, fire, rigging, and service zones.
16
Design loading, unloading, and buffers
Plan storage, carts, conveyors, return flow, lifting, robots, offcuts, part protection, staging, and work-in-process limits.
17
Plan staffing and training
Assign operator, programmer, maintenance, material handling, supervision, backup coverage, and role-based training.
18
Build the maintenance and support plan
Define operator care, preventive work, service access, critical spares, remote support, escalation, and planned downtime.
19
Calculate complete installed cost
Include machine, options, tooling, software, freight, rigging, trades, dust, handling, training, ramp-up, maintenance, and contingency.
20
Run expected and downside cases
Test slower ramp, lower demand, higher mix, labour gaps, reduced yield, delayed installation, and additional support cost.
21
Write the acceptance test
Use real material, representative products, approved programs, target quality, required output, and documented recovery checks.
22
Plan installation and ramp-up
Coordinate site readiness, delivery, commissioning, old-process contingency, training, first-good production, and staged release.
23
Issue the best-fit recommendation
State the selected machine, rejected alternatives, supporting systems, assumptions, risks, and reasons the recommendation fits.
24
Measure the result after launch
Track accepted output, quality, labour, uptime, lead time, work-in-process, tooling, handling, maintenance, and customer delivery.
Red flags in a weak machine comparison.
These signals usually mean the conversation has drifted away from the customer’s actual production requirement and toward an unsupported equipment decision.
The quote starts with a model before the product and process are understood.
The recommendation depends mainly on maximum speed, horsepower, axis count, width, or station count.
No one can state the current bottleneck in a customer-facing production unit.
The larger machine is justified only by the phrase “future-proof.”
Tooling, software, dust collection, handling, training, maintenance, and ramp-up are outside the comparison.
The proposed output exceeds what upstream or downstream processes can absorb.
A compact machine is rejected without testing whether it meets dependable demand.
The acceptance test uses demonstration parts instead of the customer’s real materials and products.
The shop has no operator, programmer, maintenance owner, or training time assigned.
The site is not ready for power, air, vacuum, dust, access, rigging, or service clearances.
The proposal does not show what becomes the next constraint after installation.
The decision is driven by purchase price alone instead of complete ownership and production impact.
The right machine for the actual customer application
Titan does not recommend the most machine. Titan recommends the machine the production system can use.
Bring the products, materials, current process, machine list, layout, production volume, bottleneck, quality target, labour plan, software, tooling, dust collection, handling, maintenance requirements, and growth objective. Titan can compare the equipment families we represent and build a recommendation around the customer’s real work.