P01
Optimize the complete cut
A tool cannot be evaluated separately from the machine, spindle, holder, material, operation, workholding, extraction, program, parameters, finish target, and downstream requirement.
Tooling Optimization
Titan Tooling Systems HandbookOptimization · Edition 01
Cross-industry tooling optimization
Build a tooling program around the work your machines actually perform.
Titan tooling optimization connects cutting tools, saws, drills, profile systems, abrasives, holders, collets, arbors, aggregates, consumables, parameters, maintenance, digital tool data, service, and replenishment to the real machines, materials, industries, and production risks inside the operation.
01Tools · Holders · Materials · LifecycleHandbook
Beyond the consumable
The cutting edge is only one part of the result. The complete tooling system creates the process.
The same tool can perform differently when the machine, spindle, holder, overhang, runout, material, workholding, program, extraction, coolant or lubrication, operator sequence, and quality target change. Tooling optimization therefore begins with the application and the production system rather than a catalog comparison.
Titan uses the current tooling environment as evidence: finished parts, worn tools, holders, abrasives, sharpening history, programs, parameters, failure reports, purchasing records, machine lists, materials, output, and operator observations. The objective is a controlled program that improves stable production while protecting the machine and making purchasing, setup, service, and replenishment easier to manage.
P02
Treat runout as a system problem
Runout can originate in the cutting tool, collet, nut, holder, taper, spindle interface, arbor, mounting surface, contamination, damage, or incorrect clamping.
P03
Use chip formation as feedback
Chip size, shape, temperature, dust, loading, burning, burr formation, and re-cutting provide clues about geometry, parameters, evacuation, sharpness, and stability.
P04
Define tool life by quality
A cutting edge should be replaced, indexed, serviced, or sharpened when it leaves the approved process window—not only after catastrophic failure.
P05
Standardize where repetition pays
High-volume applications benefit from approved tool families, holder standards, tool IDs, alternates, preset lengths, quality limits, and replenishment rules.
P06
Keep exceptions visible
Special materials, oversize profiles, short-run tools, prototypes, rework, and customer-specific finishes need clear status so they do not silently become the shop standard.
P07
Measure total production cost
Tool price is only one cost. Changes, setup, scrap, rework, sharpening, downtime, machine stress, emergency freight, storage, and lost capacity belong in the comparison.
P08
Control the machine-tool interface
Cleanliness, minimum clamping length, torque, overhang, balance, holder condition, storage, and manufacturer-defined limits directly affect stability and repeatability.
Tooling strategies change with the industry, material, and production route.
The page is deliberately broader than cabinet-shop routing. Titan’s tooling review can support furniture and housing production, timber construction, door and window manufacturing, panel processing, solid wood, plastics, composites, metal-rated applications, sanding, finishing, and connected production cells.
INDUSTRY 01
Cabinetry & casework
Panel nesting, drilling, edgebanding, high-volume sheet processing, assembly-ready accuracy, and predictable replenishment for repeat production.
INDUSTRY 02
Architectural millwork
Mixed materials, custom profiles, short runs, finish-sensitive parts, specialty routing, moulding, shaping, and flexible tool libraries.
INDUSTRY 03
Furniture manufacturing
Solid wood, panels, curved components, drilling, profile machining, sanding, joinery, repeatable finish, and product-family standardization.
INDUSTRY 04
Door manufacturing
Interior doors, entry systems, jambs, stiles, rails, lock preparation, sizing, profiling, drilling, sanding, and matched tool-set control.
INDUSTRY 05
Window & fenestration
Wood, wood-aluminium, aluminium, plastic, composite, and insulated profiles requiring controlled routing, boring, profiling, and finish quality.
INDUSTRY 06
Panel processing
Melamine, TFL, MDF, veneer, plywood, high-gloss, matte, PET, compact laminate, and other finish-sensitive sheet materials.
INDUSTRY 07
Solid wood & moulding
Planing, jointing, profiling, tenoning, moulding, ripping, crosscutting, grain-sensitive machining, and resharpenable systems.
INDUSTRY 08
Timber construction
Glulam, CLT, mass timber, beams, deep drilling, large-section routing, joinery, high chip volume, and robust tool-management programs.
INDUSTRY 09
Metal & non-ferrous
Aluminium, mild steel, stainless, and other rated applications requiring correct grades, coatings, rigidity, chip control, coolant or lubrication, and wear monitoring.
INDUSTRY 10
Plastics & composites
Acrylic, PVC, fibre-reinforced products, aluminium composite material, thermoplastics, solid surface, and heat-sensitive cutting applications.
INDUSTRY 11
Sanding & finishing
Wide-belt sanding, calibration, deburring, brush sanding, edge finishing, abrasive sequencing, belt condition, storage, and finish consistency.
INDUSTRY 12
Packaging & secondary operations
Cutting, trimming, drilling, hardware insertion, fixtures, consumables, support tooling, and repeatable changeover for downstream cells.
Panel processing and routing
Tool geometry, hold-down, evacuation, material surface, and machine strategy must work as one system.
Panel-processing optimization connects compression strategy, flute count, chip load, finish direction, vacuum zones, spoilboard condition, pocketing, grooving, drilling, tool length, holder condition, and replenishment to the materials and panel volume actually running through the cell.
Machine-by-machine tooling questions.
SCM’s current technology range spans CNC machining, edgebanding, beam saws, drilling, automation, timber construction, moulding, windows and doors, profiling, sanding, finishing, presses, assembly, packaging, joinery, and classical machines. Titan’s tooling program connects the appropriate tool, holder, abrasive, consumable, and lifecycle plan to each machine family.
M01
CNC routers and nesters
Router geometry, flute count, compression strategy, pocketing, grooving, spoilboard surfacing, hold-down, tool length, runout, HSK or collet strategy, and tool-life tracking.
M02
Point-to-point CNC and drilling centres
Drill-bank condition, boring geometry, through-hole and blind-hole requirements, aggregate tooling, tool identification, depth control, and repeatability.
M03
Beam, panel, and sliding-table saws
Main and scoring blade pairing, tooth geometry, plate stability, arbor condition, kerf, material stack, finish class, sharpening, and blade rotation.
M04
Edgebanders and squaring lines
Pre-mill heads, trimming cutters, corner-rounding tools, scrapers, buffing wheels, glue and cleaning consumables, extraction, and finish verification.
M05
Shapers, moulders, and tenoners
Profile-system design, bore or hydro clamping, tool-set diameter control, balance, insert strategy, resharpening, setup repeatability, and profile documentation.
M06
Planers, jointers, and multiblades
Cutterhead condition, cutting-edge material, finish and stock-removal stages, constant diameter, chip evacuation, saw spacing, and production sharpening cycles.
M07
Door and window machining systems
Matched profile sets, corner joints, rebates, lock and hardware preparation, left/right orientation, flexible systems, and controlled tool-set changeover.
M08
Timber construction CNC
Large-diameter cutters, long-reach tools, deep drills, beam joinery, high feed, high chip volume, resharpenable systems, robust holders, and planned spare capacity.
M09
Wide-belt and brush sanders
Abrasive mineral, backing, grit sequence, belt dimensions, tracking, storage, loading, contact drum or platen condition, brush selection, and finish targets.
M10
Metal deburring and finishing
Abrasive type, contact pressure, belt or brush condition, edge-break requirement, heat, loading, coolant compatibility, part support, and finish classification.
M11
Doweling, insertion, and assembly equipment
Drills, insertion tooling, glue delivery consumables, nozzles, fixtures, wear points, depth control, cleanliness, and spare-part readiness.
M12
Automation and material-handling cells
Tool availability at the constraint, automated identification, tool-change readiness, fixture repeatability, exception recovery, and planned consumable replenishment.
The optimization objective
The lowest tool price is not the same as the lowest cost of accepted production.
Tooling economicsA sound program balances cut quality, tool life, machine protection, setup, availability, service, sharpening, inventory, changeover, scrap, rework, labour, downstream performance, and the production value of dependable capacity.
01
Define the optimization scope
Start with the production problem rather than a preferred tool brand. Clarify the industries, product families, machines, shifts, materials, quality requirements, output targets, recurring defects, capacity losses, and purchasing concerns included in the review. Establish whether the project is focused on one operation, one cell, one department, or a company-wide tooling program.
QuestionsWhat must improve: finish, tool life, throughput, stability, changeover, inventory, cost, or machine protection?
BoundariesMachines, materials, operations, sites, shifts, and product families included or excluded.
SuccessThe measures and acceptance conditions that will show the program is working.
02
Inventory the current tooling environment
Create a working inventory of cutting tools, saws, drills, profile systems, inserts, abrasives, holders, collets, nuts, arbors, hydro systems, aggregates, measurement tools, cleaning equipment, lubricants, coolants, glue-related consumables, and machine-specific support items. Record condition, location, ownership, use, criticality, supplier, lead time, and whether the item is active, backup, obsolete, or unidentified.
Physical inventoryTool ID, description, dimensions, condition, storage location, and machine compatibility.
Usage statusActive standard, approved alternate, emergency backup, trial, obsolete, or unknown.
RiskSingle-source items, long lead times, unsupported tools, and missing critical spares.
03
Audit the machine and holder interface
Inspect the complete connection between machine and cutting edge. Review spindle or arbor type, taper condition, pull-stud or clamping requirements where applicable, holder class, collet and nut condition, hydraulic or shrink systems, bore-mounted tooling, balance requirements, maximum tool dimensions, gauge length, minimum clamping length, overhang, torque practice, storage, and cleaning. Confirm that the system is rated for the machine, speed, operation, and material.
InterfaceHSK, ISO, collet, hydro, shrink, arbor, bore, flange, aggregate, or machine-specific connection.
ConditionContamination, fretting, corrosion, dents, wear, damaged threads, clamping loss, and storage damage.
ControlApproved torque, cleaning tools, measurement method, inspection frequency, and replacement rule.
04
Map materials and product families
Connect every recurring material to its machining behaviour and finish requirement. Separate solid wood by species and moisture range; sheet goods by core and surface; timber by section and adhesive system; plastics and composites by heat, reinforcement, and brittleness; and metals by alloy family, hardness, chip behaviour, coating, coolant or lubrication requirement, and machine compatibility. Record the visible surface, edge class, tolerance, and downstream process.
Material familyCore, surface, grain, coating, reinforcement, alloy, hardness, moisture, or density.
Quality targetRoughing, semi-finishing, finish-ready, edge-visible, paint-ready, glue-ready, or assembly-critical.
Downstream effectEdgebanding, coating, welding, pressing, assembly, finishing, inspection, or customer-visible use.
05
Map tools to operations
Build an operation matrix that connects each machine cycle to the required tool geometry, holder, material, entry and exit condition, depth, engagement, orientation, finish target, chip evacuation, coolant or lubricant strategy, and expected volume. Include routing, nesting, drilling, boring, sawing, profiling, planing, moulding, tenoning, edgebanding, sanding, deburring, engraving, surfacing, and specialty applications.
OperationMachine, station, spindle, tool position, cut type, depth, engagement, and orientation.
Tool packageCutting tool, holder, insert or edge, fasteners, preset data, and approved alternate.
Process supportWorkholding, extraction, coolant, air, lubrication, brushes, belts, fixtures, and inspection.
06
Capture the current process window
Record the parameters actually used, not only the values stored in a supplier chart. Depending on the process, this may include spindle speed, feed rate, chip load, feed per tooth, depth and width of cut, number of passes, direction, ramp or entry method, tooth count, saw projection, coolant or lubrication, abrasive speed, contact pressure, grit sequence, tool length, vacuum setting, and changeover method. Compare observed conditions with machine and tooling manufacturer guidance.
Programmed valuesSpeeds, feeds, stepdown, stepover, tooth count, passes, offsets, pressure, and sequence.
Observed resultChip form, dust, sound, vibration, heat, finish, burr, tear-out, loading, and machine load.
LimitsManufacturer ratings, spindle power, holder capacity, workholding, extraction, and quality boundaries.
07
Diagnose wear and failure modes
Review removed tools, inserts, saws, abrasives, holders, and finished parts. Classify the visible symptom before recommending a change. Common patterns include uniform wear, edge chipping, built-up edge, burning, resin loading, glazing, burr formation, tear-out, delamination, vibration marks, uneven wear, tool pullout, slippage, tooth damage, abrasive loading, tracking damage, corrosion, and holder fretting. Link the symptom to likely causes across geometry, grade, parameters, runout, rigidity, chip evacuation, workholding, maintenance, and material variation.
EvidencePhotographs, wear location, failed-part samples, machine alarms, operator notes, and tool history.
Cause familiesTool selection, connection, parameters, programming, workholding, material, evacuation, or maintenance.
ActionContainment, test condition, responsible owner, and proof required before standardizing.
08
Develop candidate tooling strategies
Select candidate tools as systems rather than isolated catalog numbers. Compare geometry, flute or tooth count, cutting-edge material, coating, body design, replaceable or resharpenable construction, balance class, holder type, gauge length, chip space, coolant delivery, profile flexibility, sharpening support, lead time, and machine compatibility. Include a practical standard, an approved alternate, and a contingency strategy where production risk justifies it.
Primary candidateBest overall fit for quality, stability, throughput, availability, and lifecycle support.
AlternateValidated substitute that protects production without changing the approved outcome.
Special caseTooling reserved for difficult materials, unusual profiles, rework, or short-run requirements.
09
Run a controlled tooling test
Create a test plan that changes as few variables as practical and uses representative material, machine condition, programs, workholding, operators, and inspection methods. Establish the baseline, candidate condition, sample quantity, quality limits, stop conditions, inspection frequency, tool-life endpoint, and data to be recorded. Follow machine and tooling manufacturer procedures for installation, clamping, offsets, balancing, coolant, lubrication, guards, extraction, and safe prove-out.
BaselineCurrent tool, holder, parameters, quality, tool life, cycle time, and known issues.
CandidateExactly what changes and which conditions must remain constant for a fair comparison.
AcceptanceFinish, tolerance, throughput, wear, stability, cost, and downstream performance required.
10
Validate process capability
Do not approve a tool on one good part. Confirm that the result remains stable across representative batches, material lots, common operators, normal changeovers, and the expected range of product conditions. Evaluate dimensional performance, visible finish, edge integrity, hole quality, profile accuracy, burr or fuzz, sanding consistency, machine load, vibration, noise, chip evacuation, tool temperature, and downstream fit. Define the approved operating window and the signs that the process has left it.
QualityDimensions, edge condition, surface finish, profile, drilling, burr, tear-out, and downstream fit.
StabilityRepeatability through normal volume, changeover, material variation, and operator sequence.
Control planInspection points, frequency, wear limit, adjustment authority, and escalation trigger.
11
Build the tooling economics model
Compare the total cost required to produce accepted work. Include purchase price, inserts or cutting edges, sharpening, recoating where applicable, holders, collets, setup and presetting, changeover time, inspection, scrap, rework, machine downtime, emergency freight, inventory, storage, disposal, and the value of capacity gained or lost. A higher-priced tool may be the lower-cost program when it extends stable production or eliminates downstream repair.
Direct costTool, holder, inserts, sharpening, abrasives, consumables, freight, and inventory.
Production costChanges, setup, downtime, slower feed, rework, scrap, inspection, and machine stress.
Decision unitCost per good part, per panel, per linear metre, per shift, per profile set, or per production campaign.
12
Standardize the approved program
Create a controlled standard for each approved application. The standard can include tool ID, description, supplier and alternate, machine and position, holder, collet or arbor, gauge length, preset dimensions, cutting-edge grade, material range, operation, approved parameters, expected tool life, inspection criteria, sharpening or indexing route, cleaning method, storage, reorder point, and revision history. Standardization should simplify normal work without hiding valid exceptions.
IdentificationUnique tool, holder, insert, saw, belt, brush, abrasive, and consumable IDs.
Approved setupMachine position, assembly, preset, offset, program reference, and process window.
Revision controlOwner, approval date, change reason, obsolete version, and communication method.
13
Create the replenishment and service plan
Translate usage and production risk into reorder points, minimum and maximum quantities, safety stock, sharpening rotation, backup holders, emergency alternatives, and supplier lead-time controls. Separate high-frequency production items from expensive strategic spares and rare specialty tools. Include abrasive storage, coolant or lubricant control, cutting-edge indexing, saw and profile-tool service, holder inspection, and return logistics so the program remains operational after the initial audit.
Demand modelAverage use, peak use, campaigns, expected tool life, sharpening cycles, and scrap allowance.
Supply riskLead time, minimum order, service turnaround, single source, seasonal demand, and freight.
OwnershipWho counts, orders, receives, inspects, updates inventory, and responds to shortages.
14
Train, audit, and continuously improve
Train operators, programmers, maintenance personnel, supervisors, and purchasing staff on the parts of the tooling system they control. Use visual standards, cleaning stations, torque tools, storage locations, preset procedures, wear examples, approved alternates, and escalation rules. Review tool life, quality, downtime, inventory accuracy, failures, and supplier performance at a defined cadence. Update the standard when evidence supports a better method.
SkillsSelection, assembly, cleaning, presetting, inspection, indexing, storage, and troubleshooting.
Daily controlTool shortages, early wear, defects, breakage, machine load, and open corrective actions.
Review cycleScheduled audit of standards, holders, tools, inventory, service history, and improvement trials.
Diagnostic patterns: start with the symptom, then test the cause.
Public-facing troubleshooting should avoid guessing. A visible defect or failed tool is evidence, but the root cause may sit in selection, holder condition, machine condition, parameters, programming, workholding, material variation, extraction, coolant or lubrication, maintenance, or the definition of acceptable wear.
D01
Chipping or breakout
Review geometry direction, cutting-edge sharpness, material surface, entry and exit, support, runout, vibration, tooth or flute count, and the approved finishing allowance.
D02
Burning or heat
Review sharpness, feed relative to speed, rubbing, tooth or flute loading, chip evacuation, resin or material buildup, coolant or lubrication where applicable, and excessive dwell.
D03
Short tool life
Review grade or cutting material, coating, runout, holder condition, balance, overhang, material contamination, parameters, chip re-cutting, heat, and the tool-life endpoint being used.
D04
Vibration or chatter
Review workholding, machine condition, spindle interface, holder, balance, overhang, cutter pitch, engagement, geometry, support, and whether the cutting forces match the setup.
D05
Burrs or built-up edge
Review material tendency, edge geometry, sharpness, cutting speed, feed, coating, lubrication or coolant strategy, chip evacuation, and whether the tool is rubbing.
D06
Poor hole quality
Review drill geometry, point condition, runout, depth, entry and exit support, chip evacuation, retract strategy, material, drill-bank condition, and spindle or chuck condition.
D07
Saw marks or scoring mismatch
Review main and scoring blade pairing, arbor cleanliness, flange condition, plate stability, runout, projection, tooth geometry, sharpening condition, feed, and material support.
D08
Edgebander finish defects
Review pre-mill condition, trim and scrape tools, glue and panel condition, pressure, extraction, buffing, material orientation, machine setup, and contamination.
D09
Sanding lines or uneven finish
Review grit sequence, belt condition, splice, tracking, contact drum or platen, pressure, feed, loading, storage, dust extraction, part calibration, and previous-process defects.
D10
Tool pullout or slippage
Stop and review the complete clamping system, shank condition, collet or chuck wear, contamination, minimum clamping length, torque, overhang, load, and manufacturer instructions.
D11
Uneven profile or diameter shift
Review tool-set assembly, insert seating, sharpening history, constant-diameter requirements, axial and radial runout, spacers, hydro or bore clamping, and preset data.
D12
Unpredictable consumption
Review tool identification, mixed applications, unrecorded parameter changes, material variation, uncontrolled regrinds, inconsistent quality limits, inventory transactions, and premature disposal.
Core tooling economics and planning formulas.
These formulas are planning aids. The units should match the process, and the assumptions should be recorded so comparisons remain useful.
FORMULA 01
Router or end-mill feed
A common starting relationship connects spindle speed, number of cutting edges, and target chip load.
Feed rate = RPM × cutting edges × chip loadFORMULA 02
Cost per good unit
Include direct tooling and the production effects required to create accepted output.
Total tooling-related cost ÷ accepted production unitsFORMULA 03
Reorder point
Protect planned demand during supplier or service lead time and include justified safety stock.
Expected lead-time demand + safety stockFORMULA 04
Tool-life improvement
Compare accepted production before and after the controlled change using the same endpoint.
(New life − baseline life) ÷ baseline lifeFORMULA 05
Changeover burden
Tool price comparisons should include the labour and machine time used by replacement and approval.
Changes per period × average change-and-approval timeFORMULA 06
Inventory exposure
Separate active standard items, strategic spares, service rotation, trials, obsolete stock, and unidentified items.
Quantity × landed or service value × risk classA tooling program must remain available after the audit is finished.
Replenishment, service, storage, and identification determine whether the optimized condition survives real production pressure.
Consumption planning
Use actual demand and service history rather than memory.
- Production and campaign demand
- Tool-life and sharpening cycles
- Material and shift variation
- Lead-time demand
- Safety stock by production risk
Storage and condition control
Protect tools and holders between uses.
- Clean, dry, identified locations
- Protected tapers, bores, shanks, and edges
- Abrasive storage and handling
- Inspection and quarantine areas
- Separate serviceable and approved stock
Digital tool library
Keep approved tooling data searchable and transferable.
- Unique tool and assembly IDs
- Geometry, holder, gauge, and preset data
- Machine and material compatibility
- Parameters and quality limits
- Service, revision, and alternate status
G0
Scope accepted
Industries, machines, materials, operations, goals, constraints, participants, and decision timing are agreed.
G1
Current state verified
Inventory, machine interfaces, parameters, wear evidence, quality issues, consumption, and replenishment risks are documented.
G2
Candidate strategy approved
Primary, alternate, and special-case tooling concepts are compatible with the machine, material, holder, and required outcome.
G3
Controlled test ready
Baseline, variables, sample material, safe prove-out method, inspection, acceptance limits, and stop conditions are prepared.
G4
Process validated
Quality, stability, tool life, machine load, downstream fit, and economic assumptions meet the agreed criteria.
G5
Standard and supply plan ready
Tool IDs, setup data, alternates, service, storage, inventory, reorder points, and ownership are documented.
G6
Program handed off
Training, daily controls, open actions, review cadence, and improvement ownership are established.
K01
Cost per good unit
Total tooling-related cost divided by accepted output for the chosen production unit.
K02
Tool life to quality limit
Good parts, panels, linear metres, machine hours, or cycles completed before the approved wear endpoint.
K03
Unplanned tooling downtime
Production time lost to breakage, shortages, wrong tools, holder problems, emergency setup, or unavailable service items.
K04
First-pass yield
Accepted output without re-machining, repair, sorting, relabeling, or finish correction.
K05
Changeover time
Time from the last approved unit of one tooling condition to the first approved unit of the next.
K06
Inventory accuracy
Physical quantity and condition compared with the tooling system record.
K07
Sharpening or service turnaround
Elapsed time from removal to inspected return-to-stock condition.
K08
Holder and collet exceptions
Count of wear, contamination, damage, corrosion, fretting, clamping, or runout issues found during inspection.
K09
Emergency purchase rate
Tooling orders made outside the planned replenishment process.
K10
Standard-tool coverage
Share of recurring applications using documented and approved tooling packages.
Useful tooling facts and conversation starters.
These notes help clients and Titan staff discuss why tooling decisions affect quality, machine health, flow, purchasing, and production capacity.
01
The holder is part of the cutting tool
A premium cutting edge cannot compensate for a contaminated, damaged, worn, incorrectly torqued, or poorly matched holder system.
02
More flutes or teeth are not automatically faster
The correct count depends on chip space, engagement, material, machine power, feed capability, finish, and evacuation.
03
A sharp tool can still cut poorly
Runout, vibration, incorrect geometry, wrong direction, poor workholding, bad chip evacuation, and unstable parameters can defeat a new edge.
04
Abrasives have a process window too
Mineral, backing, grit, pressure, speed, storage, tracking, loading, and machine condition all affect cut rate and finish.
05
Standardization can reduce buying without reducing capability
A controlled core library with approved alternates often supports more applications than a large collection of unidentified one-off tools.
06
Resharpening changes more than sharpness
Diameter, profile, balance, edge geometry, coating, and preset data may need to be controlled after service.
07
Metal and wood failure modes can look similar for different reasons
Heat, built-up edge, burrs, burning, tear-out, and vibration require material-specific diagnosis rather than one universal correction.
08
Tool data is production data
Tool IDs, geometry, offsets, holders, parameters, service history, and approval status belong in a controlled digital system.
A
Optimization package
Possible deliverables
Current tooling and holder inventory
Material and application matrix
Wear, failure, and risk assessment
Primary and alternate tooling strategies
Controlled test and approval plan
Approved tooling standards and tool IDs
Replenishment and service rotation
Tooling economics and control metrics
B
Titan service connection
Next-stage support
Machine and equipment consultation
CNC workflow and process planning
Holder, collet, arbor, and clamping review
Abrasive and finishing optimization
Startup and controlled prove-out support
Operator, programmer, and purchasing training
Scheduled replenishment coordination
Production review and continuous improvement
Stop treating tooling as disconnected purchases
Build a tooling system that supports quality, uptime, machines, people, and production risk.
Send Titan your machine list, current tooling, recurring defects, materials, production volumes, holder systems, service history, inventory concerns, or high-cost applications. The optimization scope can then be built around the industries and processes that matter most to the operation.