Os materiais de alta resistência e simultaneamente leves são especialmente importantes no setor aeroespacial. Graças às inovadoras combinações de materiais, o peso pode ser reduzido ainda mais, a resistência geral e à corrosão podem ser aumentadas, e é possível simplificar a montagem com um design integrativo. Enquanto componentes estruturais de alumínio, titânio ou aços de alta resistência são processados em centros de usinagem ou máquinas tipo gantry, a usinagem na montagem final é realizada por máquinas conduzidas manualmente, por unidades de avanço de perfuração ou robôs.
Programa de ferramentas para a usinagem de titânio
Fresamento com arestas de corte fixas
OptiMill-Titan-HPC
Fresa de esquadrejamento
Fresas de esquadrejamento com quatro arestas de corte para desbaste e acabamento de titânio
A preparação especial das arestas de corte produz superfícies ideais
Máxima estabilidade da ferramenta devido ao diâmetro máximo e elevação do núcleo ao eixo
Vários números de raios de canto disponíveis
Faixa de Ø: 6,00 – 25,00 mm
OptiMill-Tro-Titan
Fresa trocoidal
Fresas trocoidais com cinco arestas de corte
Taxa máxima de remoção do material com alta qualidade simultânea da superfície
Passo diferenciado otimizado
Parte da aresta de corte submetida a balanceamento fino para o funcionamento suave do fuso da máquina e maior durabilidade
Profundidades de corte até 3xD
Faixa de Ø: 6,00 – 25,00 mm
Fresamento com arestas de corte intercambiáveis
NeoMill-Titan-2-Corner
Fresa de esquadrejamento
Fresas de esquadrejamento com pastilhas intercambiáveis radiais
Forma básica positiva para componentes susceptíveis à vibração
Profundidades de corte de até 10 mm
Faixa de Ø: 40,00 a 100,00 mm
NeoMill-Titan-2-Shell
Fresa frontal de cilindro
Fresa tipo abacaxi com pastilhas intercambiáveis radiais com duas arestas de corte
Ideal para fresamento 90° e para recortar com profundidades de corte altas de até 57 mm
Faixa de Ø: 32,00 a 80,00 mm
NeoMill-2/4-HiFeed90
Fresa de alto avanço/fresa de esquadrejamento de 90°
Sistema de ferramentas universal para elevada produtividade
Faixa de Ø: 16,00 a 200,00 mm
Furação
MEGA-Speed-Drill-Titan
Broca de metal duro inteiriço
Brocas de alta velocidade com duas arestas de corte
Quatro guias para precisão exata da superfície e cilindricidade (classe de tolerância IT9, IT8 atingível)
Aresta de corte convexa com chanfro de canto para máxima estabilidade
Inovador perfil tipo corda para proteção das guias
Máxima resistência ao calor e ao desgaste
Faixa de Ø: 3,00 – 20,00 mm
Reaming and fine boring
FixReam-FXR
High-performance reamers with a cylindrical shank
High-performance reamer made from solid carbide
Straight-fluted for through and blind bores
Left-hand fluted for through bores
Ideal for implementing short cycle times
Variety of cutting materials and coatings available
Ø area: 2.80 – 20.20 mm
HPR replaceable head reamer
Replaceable head reamers with HFS connection
High-precision replaceable head system in a fixed design with brazed cutting edges
Precise radial run-out and changeover accuracy of <3 μm
Highest degree of economic efficiency due to modular system
Suitable for minimum quantity lubrication (MQL)
Ø area: 7.00 – 65.00 mm
Boring
Boring in titanium
Boring tools with tangential technology
Component-specific custom tools for highest productivity, economic processes and stable machining concepts
CTHQ and FTHQ tangential indexable inserts
Special arc shaped land for optimal machining results at a length-to-diameter ratio >3.5xD
Titanium and titanium alloys are predestined for use in aerospace. High demands are placed on workpiece material strength and corrosion resistance in relation to their specific weight. This results in a wide range of applications extending from small mechanically processed structural parts to load-bearing parts in the fuselage or blades in the engine.
Machining example torsion link
1 / 5
Fine boring tool
Arrangement of the cutting edges
Perfect concentricity of the bores
Optimal surface roughness
Perfect bore geometry
Stable machining thanks to guide pads
High accuracy of repetition and easy tool setting
2 / 5
NeoMill-Titan-2-Shell
Maximum machining rates
Optimum chip removal
Very quiet running
Variable cooling concept
Cutting edges with various corner radii can be deployed
Variety of cutting materials available
3 / 5
MEGA-Speed-Drill-Titan
140° point angle
Little development of built-up edge due to extremely smooth coating
Four margin lands (best roundness values)
Convex cutting edge
Internal coolant supply
Newly designed chip flute (optimal chip removal)
Efficient coolant flow (avoids friction and heat at the cutting edge)
4 / 5
OptiMill-Titan-HPC
Special edge preparation (stable cutting edge)
Optimal pitch (stable cut, smooth running)
Core rise for more stability
5 / 5
FixReam
Solid carbide or brazed design
Bore quality: H7
DLC coating for optimal performance
Configurable diameter
Design for through or blind bores
Suitable for minimum quantity lubrication (MQL)
Machining example hingeline
1 / 6
Deburring tools made from solid carbide
With these custom tools in a special spherical shape, the bore entrance and exit of the main bore as well as the fixing bore are deburred through circilar milling.
2 / 6
NeoMill-Titan-2-Corner
High machining rates
Very quiet running
Cutting edges with various corner radii can be deployed
Variety of cutting materials available
3 / 6
MEGA-Speed-Drill-Titan
Extends tool life by 30% compared to previous solutions
Drilling specialist for high cutting speeds and feed rates
Short cycle times
4 / 6
TTD replaceable head drill, custom drill, boring bar
TTD replaceable head drill for piloting the first lug
Custom drill with additional guide element at the neck for medium machining of lugs from both sides
Bearing-guided boring bar for precise finishing of the main bore from one side
5 / 6
OptiMill-Titan-HPC
Increases tool life by 35%
Perfect solution for roughing, medium machining and finishing
Excellent price-performance ratio
Fits Mill Chuck, System HB
Optimal pitch (stable cut, smooth running)
Core rise for more stability
6 / 6
OptiMill-Tro-Titan
Extends tool life by 10% compared to previous solutions
High removal rates possible
Unequal spacing of the cutting edges
Special coating to avoid deposits
Specially designed chip flute for optimum chip removal
Machining example valve housing
1 / 7
Solid carbide drill
For difficult drilling applications
Innovative lead geometry for good chip removal and low cutting pressure
Significantly more performance, up to twice the feed rate compared to previous solutions
2 / 7
Boring tool with interchangeable blades
Three-stage boring tool for medium machining
No setting of cutting edges necessary
Economical tool concept for roughing bores
High machining rates possible
Indexable inserts with excellent thermal stability
3 / 7
Boring tool made of solid carbide with four edges
Long tool life thanks to special coating
Coating protects the cutting edges against high temperatures and excessive wear and tear
The internal coolant supply and chip channel geometries ensure efficient chip removal
4 / 7
HPR replaceable head reamer with six edges
Perfect concentricity of the bores
High feed rate possible and therefore less machining time
Adjustable adapter enables precise tool settings and eliminates spindle errors
Complete finishing in a single step
5 / 7
Solid carbide drill with three edges
Special triple-edge geometry
Perfect positioning of the drill
Highly suitable for inclined bore entrances or cross bores
6 / 7
Boring tool made of solid carbide with four edges
Special geometry
Stable machining
Optimal guide into the bore
Four cutting edges ensure the right geometry of the bore prior to finishing
7 / 7
HPR reamer with six edges
Can be repaired by desoldering/soldering the blades
Perfect roundness of the bore due to the matching multi-cutting edge geometry
Lower weight means lower fuel consumption resulting in fewer emissions. Therefore, many different applications for titanium materials can be found in automotive engineering. Starting with engine components, through to transmission parts and suspension elements as well as exhausts. The automotive manufacturers’ objective is to make vehicles lighter and therefore more environmentally friendly.
Machining example control arm
1 / 4
MEGA-Speed-Drill-Titan
Extends tool life by 30% compared to previous solutions
Drilling specialist for high cutting speeds and feed rates
Short cycle times
2 / 4
OptiMill-Titan-HPC
Four-edge roughing milling cutter
Polished chip flute
Heat-resistant high-performance coating
Unequal cutting edge (smooth cut)
3 / 4
HPR replaceable head reamer
Radial run-out and changeover accuracy less than 3 μm
Easy to handle
Maximum precision and productivity
Internal coolant supply to directly cool the cutting edges
Particularly economical (replaceable head)
4 / 4
NeoMill-Titan-2-Shell
Maximum machining rates
Optimum chip removal
Very quiet running
Variable cooling concept
Cutting edges with various corner radii can be deployed
Titanium is practically the perfect workpiece material for medical technology as it can be implemented extensively due to its bio-compatibility (i.e. its stability in biological surrounding – anti-allergenic), low thermal conductivity and anti-magnetic behaviour.
Machining example hip joint
1 / 1
OptiMill-Tro-Titan
Heat-resistant high-performance coating
Specially designed chip flute for optimum chip removal
Heat reduction in the cutting zone
Machining example bone plates
1 / 2
OptiMill-Tro-Titan
Heat-resistant high-performance coating
Specially designed chip flute for optimum chip removal
Heat reduction in the cutting zone
2 / 2
MEGA-Speed-Drill-Titan
Extends tool life by 30% compared to previous solutions
Drilling specialist for high cutting speeds and feed rates