Feed rate refers to how quickly the tool advances along the workpiece. It’s usually measured in millimeters per minute (mm/min) or inches per minute (IPM). Cutting speed, on the other hand, describes how fast the cutting tool moves relative to the surface of the workpiece. It’s measured in surface feet per minute (SFM) or meters per minute (m/min). While both impact the overall efficiency of the process, they influence different aspects of the machining operation.

Profile milling refers to a process in which a rotating cutting tool shapes the surface of a material along a predefined path. This allows for the creation of complex profiles and shapes. It is typically carried out using CNC machines, which allow precise control of the tool’s movement along the material.

Broaching is a machining process that removes material from a workpiece using a special tool called a broach. The broach has a series of cutting edges, each slightly larger than the last, to remove material in steps. It is used for precision tasks, such as shaping, sizing, and creating detailed features.

CNC routing is a computer-driven cutting process. It uses a spinning bit to cut materials along a precise path. The machine reads a digital design file and then follows the programmed toolpath to shape the part.

This method works best for flat and 2.5D parts. It handles plastics, wood, aluminum, foam, and more. It’s used for signs, panels, enclosures, and prototypes. The machine can repeat the same job over and over with little variation.

Plain milling is a machining process in which a rotating cutter moves across a workpiece to remove material and create a flat surface. This operation is mostly done using horizontal milling machines, but vertical machines can also be used in some cases. The main goal of plain milling is to smooth the surface or cut grooves.

Swiss machining is a type of CNC that produces small, high-precision parts. It supports the workpiece with a sliding headstock and guide bushing, reducing vibration and allowing for tighter tolerances. 

Swiss machining gets its name from its origins in Swiss watch manufacturing. The process was created to make the tiny, precise watch parts.

In traditional lathes, the material is only held at one end, which can cause bending when cutting forces are applied. Swiss machines solve this problem by supporting the material at the cutting point.

Face milling is a machining technique where a multi-toothed cutter removes material from the surface of a workpiece. The cutting tool moves perpendicular to the workpiece, creating a flat and smooth surface in a single pass. Manufacturers use this method to make precise, clean surfaces with tight tolerances across various materials.

Brass CNC machining is where computer-controlled machines shape brass into precise parts. It involves cutting, drilling, and milling brass based on digital designs. This method ensures high accuracy and consistency, making it ideal for custom components.

A CNC shop has computer-controlled machines cutting, shaping, and finishing materials into parts. These shops handle everything from prototypes to large-scale production and are used in industries such as aerospace, automotive, and electronics.

CNC machine shops rely on skilled operators and engineers. They ensure the machines run smoothly and produce high-quality parts. Combining technology and expertise makes these shops a key part of manufacturing.

CNC-milled parts are manufactured using computer-controlled cutting machines. They can include anything from simple brackets to complex aerospace components.

Most CNC-milled parts feature precise dimensions, tight tolerances, and excellent surface finishes. The process creates parts with features like holes, slots, pockets, threads, and contoured surfaces that would be difficult to produce manually.

To design CNC machining successfully, consider material selection, geometry, tolerances, and part orientation. Keep designs simple, focus on ease of manufacturing, and reduce unnecessary complexity. Also, the machining process, tooling, and the number of parts produced should be considered to optimize efficiency and cost-effectiveness.

Precision machined parts are components crafted with exceptional accuracy and tight tolerances. These parts are created using advanced machining techniques, ensuring each piece fits perfectly into its intended function. The process involves removing material from a workpiece to create a desired shape, size, and finish.

Deep hole drilling is a method for creating holes that are much deeper than their diameter. Typically, the depth of the hole is at least ten times greater than the diameter. This process works on various materials, from soft aluminum to strong super alloys, making it suitable for many industries.

Side milling is a process where a rotating cutter removes material from the side of a workpiece. The cutter has teeth on its sides, which cut into the material as it moves along the edges. This creates flat surfaces, slots, or complex profiles. It’s commonly used for large or irregularly shaped parts that need precise dimensions and smooth finishes.

CNC machining offers higher precision, faster production speeds, and consistency, while manual machining provides flexibility and is ideal for simpler, small-scale jobs. The best technique depends on the project’s needs, budget, and desired outcomes.

Stainless steel CNC machining involves using computer-controlled machinery to cut, shape, and finish stainless steel into precise components. Techniques like milling, turning, and drilling achieve intricate designs and tight tolerances. The process leverages the strength and versatility of stainless steel while overcoming challenges like work hardening and heat buildup.