Blog

Welcome to the XCM Blog—your hub for insights, expertise, and the latest developments in modern manufacturing. Our blog is designed to help engineers, product designers, and innovators stay informed on the technologies, materials, and strategies that shape today’s product development landscape.

 

Here, we share deep dives into CNC machining, 3D printing, sheet metal fabrication, injection molding, surface finishing, and rapid prototyping. From practical design tips and material selection guides to case studies, industry trends, and manufacturing best practices, every article is written to provide real value and actionable knowledge. Whether you're optimizing a part for production, exploring new manufacturing techniques, or looking to reduce cost and lead time, our content offers clear, engineering-focused insights.

Our articles

Energy CNC machining process for high-precision industrial cavity components

Energy CNC Machining: Guides, Materials, and Costs

Comprehensive guide to CNC machining for the energy industry, covering processes, materials, tolerances, design guidelines, quality standards, and detailed cost factors for oil & gas, power generation, and renewable energy components.

Custom CNC marine machining for offshore engineering projects

CNC Marine Machining: Features, Materials and Costs

Comprehensive guide to CNC marine machining, covering machining features, suitable materials, dimensional tolerances, surface finishes, corrosion protection, production workflows, and cost factors for marine components.

4135 / 34CrMo4 alloy steel bars and forged stock

4135 / 34CrMo4 Alloy Steel: Properties, Machining, Uses

Comprehensive guide to 4135 / 34CrMo4 alloy steel: chemical composition, mechanical properties, heat treatment, machinability, welding, surface hardening, and typical engineering applications for shafts, gears, and critical components.

Precision machining process for high-tolerance metal parts

Precision Machining: Types, Materials, and Applications

In-depth guide to precision machining processes, materials, tolerances, surface finishes, and industrial applications. Learn how CNC, EDM, grinding, turning, and milling support tight-tolerance metal and plastic components for aerospace, medical, automotive, and more.

precision vs accuracy

CNC Machining Precision vs. Accuracy

Understand the real difference between precision and accuracy in CNC machining. Learn how they affect tolerances, process capability, quality control, and part performance to make better manufacturing decisions.

Precision CNC machining achieving micron-level tight tolerances

How Precision CNC Machining Achieves Tight Tolerances

Learn how precision CNC machining consistently achieves tight tolerances and high accuracy. Understand key factors including machine design, thermal stability, tooling, fixturing, programming, process control, metrology, and quality assurance for critical components.

On-demand CNC machined components with high precision and quality

On-Demand Custom CNC Machined Parts Manufacturing

Comprehensive overview of on-demand custom CNC machined parts manufacturing, covering processes, tolerances, materials, equipment, quality control, and how to efficiently source precision parts for prototypes and production runs.

China CNC machined parts manufacturing

China vs Global Manufacturing of CNC Machined Parts

In-depth comparison of CNC machined parts manufacturing in China vs other global regions, covering costs, quality systems, materials, lead times, communication, logistics, IP protection, and supplier selection criteria.

CNC machining thin-wall aluminum parts with high dimensional accuracy

Thin-Wall Aluminum Machining Best Practices

Comprehensive best practices for thin-wall aluminum machining, including fixturing, toolpath strategies, tooling selection, cutting parameters, and process control to increase accuracy, surface quality, and productivity.

Precision aluminum machining process focused on reducing production costs

Cost-Effective Aluminum Machining Strategies

Learn practical, highly actionable strategies to reduce cost in aluminum machining, from material selection and tool choice to cutting parameters, setup optimization, chip control, and quality control, while maintaining stable productivity and dimensional accuracy.