Xiamen F&Q Technology Co., Ltd.

20/01/2026

CNC Machining Material Range (Three Main Categories + Typical Examples)
I. Metallic Materials (Mainstay of CNC Machining, Accounting for 80%+)
1. Ferrous Metals: Carbon Steel, Alloy Steel, Stainless Steel, etc.
2. Non-ferrous Metals: Aluminum Alloys 6061, 7075; Copper and Alloys; Titanium Alloys; Magnesium Alloys, etc.
II. Non-metallic Materials (Commonly Used for Prototypes/Lightweight/Insulation Components)
1. General-purpose Plastics: ABS, PC, PA66 (Nylon), POM (Polyoxymethylene), PMMA (Acrylic), etc.
2. Engineering Plastics: PEEK, PPS, PET, PTFE (Teflon)
3. Composite Materials: Carbon Fiber Reinforced Plastics (CFRP), Glass Fiber Reinforced Plastics (GFRP)
4. Other Non-metallic Materials: Bakelite (Phenolic Resin), Silicone, Rigid PVC, Epoxy Board
III. Specialty Materials (High-end Precision/ (For special working conditions only)
Hard alloys: YG8, YT15, YW2
Ceramic materials: Alumina ceramics (Al₂O₃), Zirconia ceramics (ZrO₂)
High-temperature alloys: Inconel 718, GH4169, Hastelloy C276
Graphite materials: Isostatic graphite, high-purity graphite
Precious metals: Gold, silver, platinum (small quantities for precision decorative/conductive components)

10/01/2026

1. Understanding 5-Axis Simultaneous
Motion
The fundamental advantage of 5-axis CNC machining lies in its ability to move a cutting tool or workpiece along five different axes simultaneously. This is a significant leap beyond conventional 3-axis machining. which is limited to linear movements along the X, Y, and Z axes.
2. Optimizing Tool-Path Planning for Speed & Precision
While the hardware provides physical capability, it is the software that orchestrates motion. Advanced CAM software translates 3D CAD models into optimized G-code, using:
● Vector-field-based planning for smooth tool-angle transitions
● Automatic feature recognition (planes, pockets, free-form curves)
● Real-time feed & speed adjustment to maintain constant chip load
● Look-ahead algorithms to avoid sharp direction changes
3. Specialized Machining Strategies
3.1 Swarf (Flank) Milling
3.2 Dynamic Combo Machining
3.3 Adaptive Clearing + Rest Machining
4. Our Advanced Equipment & Workflow
● Machine Fleet: 100+ simultaneous 5-axis centers
● Spindle Speed: Up to 15,000 rpm, HSK-A63 interface
● Rotary Accuracy: ±0.005 mm positioning
● Tool Changer: 20+ pockets, 3-second chip-to-chip
● Software: Integrated CAM + digital-twin verification

25/12/2025

Dear customers: Merry Christmas and Happy New Year in advance! 🎄🎄🎄Wishing you happiness and success in the future！😀😀😀

18/12/2025

We can analyze this from three core dimensions: delivery, quality, and cost.

1.Delivery-related: The precision and stability of small-batch prototypes and the precision consistency of mass production directly affect the delivery schedule and quality of prototyping or mass production.

2.Quality-related: Machining residue/overcutting issues in complex structural parts, tool wear and part cracks in machining special hard materials, affect part assembly and lifespan.

3.Cost-related: Excessive tool wear and spindle/guide rail wear due to inadequate equipment maintenance increase the cost of consumables and equipment repair.

01/12/2025

15/11/2025

1. Core Differences in Movement
- Turning: The workpiece rotates at high speed around its own axis, and the cutting tool performs a feed movement along the axial/radial direction of the workpiece.
- Milling: The cutting tool rotates at high speed around its own axis, and the workpiece performs a feed movement along with the worktable.

2. Machining Objects and Shapes
- Turning: Suitable for machining rotational parts. It can complete the machining of outer circles, inner holes , threads , and end faces.
- Milling: More suitable for machining non-rotational parts. It can also machine local features of rotational parts, such as keyways on shaft parts and flat surfaces on disk parts.

3. Machining Efficiency and Precision
- Turning: It has high efficiency in machining rotational parts, achieves good control over surface roughness , and is suitable for mass continuous machining.
- Milling: It offers strong flexibility in machining complex-shaped parts. With multi-edge cutting tools, the cutting process is more uniform; however, its efficiency is lower than that of turning when machining rotational parts in batches.

07/11/2025

The main differences between five-axis CNC machine tools and ordinary CNC machine tools are as follows:
Number of axes and motion: Ordinary machine tools generally have 3 axes and move along straight lines; five-axis machine tools have 5 motion axes and can rotate around two rotation axes in addition to moving linearly.
Machining complexity: Ordinary machine tools are suitable for simple shapes; five-axis machine tools can machine complex curved surfaces and special-shaped parts.
Machining efficiency: Ordinary machine tools need multiple setups to machine complex parts; five-axis machine tools can complete multi-face machining with one setup, resulting in higher efficiency.
Machining accuracy: Multiple setups of ordinary machine tools will cause errors; five-axis machine tools reduce the number of setups and thus have higher accuracy.
Programming difficulty: Programming for ordinary machine tools is relatively simple; five-axis machine tools require professional software and technicians.
Equipment cost: Five-axis machine tools have a complex structure, and their price and maintenance cost are higher.

31/10/2025

Trick or Treat! Halloween is here! F&Q company wishes you a harvest full of surprises and good luck! Thank you to our global partners for walking with us all the way. May our cooperation be as sweet as Halloween candies and our business burn brighter like jack-o'-lanterns! Happy Halloween!