Author name: mold7

1. Understand: the characteristics and classification of stainless steel materials The core difficulty of stainless steel milling is rooted in its unique material properties. Common stainless steels are mainly divided into four categories: austenitic stainless steels (such as 304, 316, accounting for more than 70% of the market consumption), martensitic stainless steels (such as 420, high hardness suitable for […]

1. Project start-up: do a good job in planning and management to lay the foundation for success The success of any machining project is inseparable from careful project feasibility analysis and system management in the early stage. First, the project boundaries should be clarified through three-dimensional requirements clarification (technology, business, risk), such as drawing a product structure

1. Introduction to Brass Machining: How Do Material Properties Influence Machining Choices? If you want to do brass processing well, the first step is to find out the "temper" of the material itself. As a copper-zinc alloy, the distinction between different brass alloy types and brass grades directly determines the processing difficulty and applicable scenarios. For example, common H62

1. Basic concept and classification of machining center: how to choose different scenarios? As the core equipment of intelligent manufacturing, the classification of machining centers directly determines production efficiency and processing accuracy. Among the common types, vertical machining centers are suitable for vertical machining of small and medium-sized parts, accounting for more than 60% of the market

1. Basic cognition of steel turning: core concepts and principles What is steel turning? In short, it is the basic process of metal cutting to achieve material removal through lathe processing steel, and the core is to use the relative movement of the tool and the workpiece to remove excess metal and obtain the desired shape and precision. The essence of the

Introduction: Why has abrasive waterjet machining become the "all-round cutting hand" of modern manufacturing? In the fields of metal processing, stone carving, aerospace component manufacturing, etc., do you often encounter these problems: hard materials cannot be cut, thin materials are easy to deform, and precision parts are afraid of heat effects? Abrasive Water Jet Machining, as

If you’ve ever wondered how metal parts for cars, airplanes, or even household tools are shaped with such precision, you’re probably thinking about mechanical machining. It’s the backbone of manufacturing, turning raw materials like metal, plastic, and wood into functional, accurate components. Whether you’re a hobbyist just starting out or a seasoned engineer looking to

If you’ve ever struggled to machine hard metals like titanium or Inconel, or needed to create complex shapes with tight tolerances, you’re not alone. Traditional machining methods often hit limits with these challenges—but the electrical discharge machining process (EDM) offers a powerful solution. In this guide, we’ll break down everything you need to know about

If you’ve ever wondered how manufacturers produce complex aerospace parts in record time or achieve mirror-like finishes on mold components, the answer often lies in High Speed Machining (HSM). Unlike traditional machining, HSM isn’t just about “going fast”—it’s a precise, science-backed process that balances speed, tooling, and control to boost productivity and quality. Whether you’re

If you’ve ever wondered how precision parts for cars, medical devices, or even smartphones are made, machining technologies are the answer. From simple manual lathes to advanced robotic systems, these technologies shape raw materials like metal, plastic, and wood into functional components we rely on every day. Whether you’re a student exploring manufacturing careers, a

If you’ve ever worked with metal, wood, or plastic fabrication, you’ve probably heard of milling—but do you know the different types and when to use each? Whether you’re a hobbyist setting up a home workshop or a professional machinist looking to optimize your processes, understanding the various milling types is key to getting precise, efficient

If you’ve ever needed precision parts for aerospace, medical devices, or automotive projects, you’ve probably searched for CNC companies—but not all providers are created equal. In 2026, the global CNC market hits $108.63 billion and is projected to grow at 7.79% annually through 2030 , making it critical to know how these firms operate and how

If you’ve ever stood in a machine shop wondering which milling cutter to pick for a project, you’re not alone. Choosing the right milling cutter type can make or break your workpiece—whether you’re aiming for a smooth finish on a metal part or roughing out a large block of material. In this guide, we’ll walk

If you’ve ever struggled with delayed production, unexpected costs, or parts that don’t meet specs, you know engineering machining is equal parts art and science. Whether you’re a designer, production manager, or engineer, this guide breaks down the core pillars of successful machining—from design to advanced tech—with real-world solutions you can apply today. 1. Design

If you’ve ever struggled with getting clean cuts or avoiding burrs when turning copper, you’re not alone. Copper’s unique properties—like its softness and tendency to stick to tools—make it trickier to machine than harder metals like steel. But with the right knowledge of materials, tools, parameters, and problem-solving tips, you can master copper turning. This

If you’ve ever worked on a project that requires custom metal or plastic components—whether for a prototype, an automotive repair, or an aerospace application—you’ve likely encountered machining parts. But turning a concept into a functional, precise part isn’t as simple as hitting “start” on a machine. From initial design choices that impact manufacturability to final

If you’re searching for a precision machining shop, you likely need parts that meet strict standards—whether for aerospace engines, medical implants, or semiconductor equipment. But not all shops are equal. This guide breaks down what makes a top shop, their core strengths, and how to choose one that fits your needs. 1. Core Precision Capabilities: What

If you’re in manufacturing, aerospace, or medical device production, you’ve probably asked: How do we make complex parts faster, more precisely, and with fewer errors? The answer often lies in advanced machining—a set of technologies that’s revolutionizing how we shape materials from titanium alloys to delicate ceramics. This guide isn’t just a list of terms.