CNC (Computer Numerical Control) software allows computer systems to control machine tools such as mills, lathes, and routers. This type of software is used in the manufacturing industry for rapid prototyping and production of parts. CNC machines are programmed using G-code, which is a set of instructions that tell the
Setting zero return position in Fanuc control Fanuc zero return position and gridshift parameter Setting Zero Return on any machine can sometimes be difficult. Some builders have their own way to set zero return through their own side of the control. So, double check with the machine tool builder if
A lathe tool setter is a precision device used in machining (particularly on lathes) to quickly and accurately set the position of cutting tools relative to the workpiece or spindle. It ensures that each tool is properly aligned, both in the Z-axis (lengthwise) and X-axis (radial), which is essential for
CNC (Computer Numerical Control) machining is a cornerstone of modern manufacturing, enabling precise and repeatable cuts across a wide range of materials. However, achieving that precision requires more than just following a toolpath it demands an understanding of how the cutting tool interacts with the material. One of the most
In the world of CNC machining, precision is everything. Whether you’re cutting aerospace components or crafting intricate molds, accurate tool positioning is crucial for producing quality parts. One of the most important aspects of achieving that accuracy is tool length compensation, which ensures that each tool reaches the correct depth
Computer Numerical Control (CNC) machining has revolutionized manufacturing by enabling precise, automated control of machine tools. At the heart of this technology lies the CNC program a set of coded instructions that dictate every movement, speed, and operation of the machine. Understanding the structure of a CNC program is essential
Here’s a structured table of FANUC CNC control series, including launch years : Series Name Launch Year Key Features/Applications 30i/31i/32i-B Plus Series Recent High-speed, multi-axis machining (e.g., 5-axis), IoT integration, enhanced CPU power, αi-D servo compatibility. 0i-F Plus Series Recent Optimized for small/medium shops, faster block processing, iHMI2 interface compatibility.
Introduction In CNC programming, precision is paramount. A single misplaced decimal point or an incorrect unit of measurement can lead to costly errors, scrapped parts, or even machine damage. Two critical G-codes G20 and G21 form the foundation of dimensional accuracy by defining the unit system used throughout a CNC
CNC milling machine and CNC router are both automated machining tools that have revolutionized modern manufacturing. Although they share some similarities, they differ significantly in design, functionality, and application scenarios. Below is a detailed comparison of the differences between CNC milling machines and CNC routers: Basic Concepts and Working Principles
Pattern repeating cycles are indispensable tools in CNC machining, enabling programmers to replicate complex features—like grooves, threads, or contours—across a workpiece with precision and efficiency. By automating repetitive tool paths, these cycles reduce programming time, minimize errors, and ensure consistency. In this blog, we’ll explore how pattern repeating cycles function
Rough turning is a foundational process in CNC machining, where excess material is rapidly removed to shape a workpiece close to its final dimensions. Efficient rough turning minimizes cycle time, reduces tool wear, and prepares the part for finishing. Central to this process is the rough turning cycle, a programmed
In CNC turning, grooving cycle isessential for creating precise recesses on cylindrical parts. The cycle automates repetitive operations, saving time and ensuring consistency. While the core concept remains the same across CNC controls, the syntax and programming structure vary between Fanuc, Sinumerik, and Heidenhain systems. This blog breaks down the
