From Casting to CNC: How Turbine Blades Are Made Today

Turbine blades relate to the electricity generating apparatus for various important means. Turbine blade, used to spin turbines to produce energy in power plant. O.B.T turbine blade has compiled a look at how turbine blades are currently made, from casting to CNC technology. 

EVOLUTION OF TURBINE BLADE MANUFACTURING TECHNOLOGY

Previously turbine blades were handmade by craftsmen skilled in hand carving and forging. However, when technology began to improve so were other methods of manufacturing second stage turbine blade which allowed for a more efficient and precise construction process. 

The Modern Production Process

The two primary methods used for manufacturing turbine blades today are casting and machining via CNC (Computer Numerical Control). In turn, these new techniques have radically transformed the production process, enabling much more accurate and intricate designs for turbine blade design. 

Casting and CNC Technology—The Power Couple That Changed the Way We Manufacture Turbine Blades

Casting is the process of pouring molten metal into a mold to form a particular shape. Complex turbine blade designs may be intricately performed with precision on this process. CNC, on the other hand, is a precision-machining process that utilizes computer-controlled machinery to cut and shape material. 

How to Design a High-Performance Turbine Blade — A Combination of Art and Science

Turbine blades are a blend of science and artfulness. Earlier superconducting magnets enable these innovative blade designs lifted from the learning clutches of engineers and designers. Turbine blades are manufactured from materials that are chosen for their strength and good resistance to high-temperature, or, at the very least, transient thermal conditions including thermal shock. 

Breaking down the innovation when casting and CNC machining turbine blades

Casting and CNC technology have revolutionised the way in which turbine blades are produced. These modern techniques can create high-grade blades at a much faster and economically sensible rate than previous methods. For both the environment and consumers, this means a better and more sustainable production process.