Nous faisons confiance à notre usinage CNC, which benefits our clients' perfect control of 0.01mm accuracy and 8 jours ouvrables.
TOPS Precision vous propose les derniers services d'usinage CNC 4 axes qui offrent des résultats précis et efficaces pour votre pièce.. Nous avons réuni un groupe d'experts en fabrication dotés de l'équipement approprié pour aider les industries du monde entier..
N'attendez pas : commandez votre devis personnalisé CNC 4 axes ici aujourd'hui!
Nous faisons confiance à notre usinage CNC, which benefits our clients' perfect control of 0.01mm accuracy and 8 jours ouvrables.
4-L'usinage CNC sur axe est une commande numérique informatique sophistiquée qui étend le mouvement de rotation de l'axe A dans l'usinage à 3 axes conventionnel à l'origine.. Cette machine peut manipuler une pièce sur quatre axes: X, Oui, Z, et un A (ou B) axe pour offrir une polyvalence accrue pour les applications qui impliquent la découpe de formes et de géométries complexes et difficiles à réaliser dans une pièce.
Ici dans une machine CNC 4 axes, l'axe A est généralement l'axe de rotation qui se trouve dans un plan avec l'axe X. Cela signifie qu'avec cette rotation supplémentaire, la pièce peut être usinée sur toutes ses surfaces sans nécessiter l'intervention de l'opérateur. Cette configuration apporte de la précision, fait gagner du temps, et offre également la possibilité de gérer des conceptions plus complexes. Here’s a step-by-step breakdown of the working process:
Here are the different kinds of 4-axis CNC Machines we use:
With this, the tool operates on all four axes during the machining process especially when working on hard 3D designs that require consistent contouring. This method is frequently applied in aerospace and power industries especially when working with hard-to-machine materials such as turbine blades and impellers which need multiple inclined cutting edges. Integrated continuous machining further improves surface finish and shortens the machining time because all axes can move in concert without breaks to make a single cross-cutting movement across the desired surface.
Ici, the workpiece is rotated in small steps on the A-axis and then it remains aligned only at certain angles for machining. This approach is often adopted as the cutter is not required to turn often for multi-sided parts that are non-rotational such as box or prismatic shaped workparts. That is a more efficient solution with high accuracy for basic geometries, which allows it to be applied to molds, logements, and other simple mechanical parts. Some models are machined on one side of the workpiece as the other, to have standardization of the various parts.
It can turn the workpiece on the A-axis while the cutting tool is unaffected on other axes. This technique is particularly ideal when the shaped parts are round or cylindrical such as shafts, rollers, or gears that require a highly finish surface. Rotary machining reduces the time taken to reposition the workpiece and results in evenly distributed cutting on the circumference of cylindrical parts which makes the process efficient for use in cutting symmetrical features on cylindrical workpieces.
Ici, the cutting tool surrounds the cylindrical contour of the workpiece through the A-axis rotation and can perform sequential engraving or develop any uneven figure on cylinders. It is mostly employed while carving text or other patterns on circular items that include pipes for cigarettes or artistic jewelry.
Like continuing machining but again more focused on producing types of molds for the complex shapes where controlling each tool past four-axis adjustment is necessary. It is used in machining parts with compound fringes that have very random appearances and require smooth and consistent adjustment of all the axes to acquire certain geometry.
This technique is characterized by fast and continuous tool movement and a high cutting speed on all four axes, while operation time is maximized and geometric accuracy is minimized. Its use is best suited for mass production where the highest precision is necessary for successful manufacturing of products, c'est à dire. automobile engines, electronics casing, et bien d'autres.
Its intended application is to generate intricate forms of contouring on the workpieces. This may be a combination of flat and cylindrical surfaces and employed when a part has some curved as well as straight edges or features thus the cutting tool can adapt to contour change along the A-axis.
Some of the latest 4-axe CNC machines are developed with twin-spindle systems in which two spindles work on different parts of the workpiece at a time. This setup enhances efficiency and is preferred under high-production processes because it is possible to work on the various sides or sections at once.
Matériel | Propriétés | Applications | Avantages |
Aluminium | Poids léger, high strength-to-weight ratio | Aérospatial, automobile, électronique | Affordable, usinable |
Acier | Haute résistance, durable | Pièces structurelles, machinerie, moules | Polyvalent, available in grades |
Acier inoxydable | Résistant à la corrosion, high durability | Médical, transformation des aliments, marine parts | Withstands harsh environments |
Laiton | Faible frottement, conducteur | Plomberie, connecteurs électriques | Recyclable, esthétique |
Titane | High strength-to-weight, biocompatible | Implants médicaux, aérospatial | Poids léger, durable |
Cuivre | High thermal/electrical conductivity | Electrical parts, heat sinks | Excellent for thermal uses |
Plastiques (abdos, POM) | Poids léger, résistant aux produits chimiques | Prototypage, consumer goods | Facile à usiner, rentable |
Fibre de carbone | Haute résistance, rigid | Aérospatial, automobile, sports gear | Poids léger, force avancée |
Magnésium | Very lightweight, force modérée | Aérospatial, électronique | Ideal for weight-sensitive |
Acier à outils | Haute dureté, résistant à l'usure | Cutting tools, moules | Précision, high durability |
Inconel | Heat-resistant, résistance à la traction | Turbines, high-temp parts | Extreme durability in heat |
Chez TOPS Précision, we offer quality 4-axis CNC machining services whose features are variable to ensure they meet the needs of the project. Here’s why clients trust us for their machining needs:
Encore, the decision about the use of 3-axis or 4-axis CNC depends on the complexity of the workpiece and the application. For simple and flat products, a simple 3-axis CNC may be enough. But for complex shapes that provide multi-faceted geometries then 4-Axis cnc machines are far more accurate and efficient than using time and money.
Give us a call today to discuss how TOPS Precision can custom build your 4-axis CNC machining needs, or to consult on how TOPS would like to become your go-to CNC precision machining service provider.
We also offer 4-axis CNC machining which means that in addition to the conventional 3-axis. It has the ability to move in X, Oui, et Z, whole circular movements are possible through rotary axes affecting the speed of the overall process. Donc, it can create complicated parts rotated at various angles.
Several industries like aerospace, automobile, medicine, and electronics get a lot of benefits from 4-axis machining because of the speed and high accuracy along with the complexity of geometries through 4-axis rotary tables.
Oui, 4-axis CNC machining is capable of meeting high tolerance demands commonly within ± 0.005mm. Donc, it can be used where detailed and complicated part designs are used.
4-axis machining offers increased precision and throughput for disks with steep edge inclines, lowers the risk of part shifting, and permits effective milling in one clamping operation.
Continuous 4-axis machining enables all four axes to move at once freely for complicated structures like the blade head. The indexing rotates the workpiece in the desired step sizes to perform simple, sequential operations on the multi-faceted bluff.