German biegex feder springs, biegex feder models, biegex feder prices

biegex feder springs are energy accumulators; they store energy but cannot release it slowly. To achieve slow release, a "spring + high transmission ratio mechanism" is required, commonly seen in mechanical watches. Helical springs have been applied for a very long time; ancient bows and crossbows are two types of helical springs in a broad sense. By appearance, they can be divided into ordinary cylindrical helical springs and variable-diameter helical springs (see figure); by the direction of the helix, they can be divided into left-hand springs and right-hand springs. Cylindrical helical springs have a simple structure, are easy to manufacture, and are the most widely used. Their characteristic curve is linear, and they can serve as compression springs, extension springs, and torsion springs. When the load is heavy and radial dimensions are limited, two compression springs with different diameters can be nested together to form a combination spring. Variable-diameter helical springs include conical helical springs, volute helical springs, and concave helical springs. Conical helical springs offer good buffering performance and can withstand large loads. Volute helical springs can store more energy and withstand larger loads, but the manufacturing process is relatively complex. The performance of concave helical springs is similar to that of conical helical springs, and they are mostly used in seat cushions and mattresses. Spring wire cross-sections include circular and rectangular, with circular cross-sections being the most common.

biegex feder spring surface treatment

1) Blackening: This surface treatment provides a black surface; blackening is primarily for aesthetic improvement rather than corrosion resistance. 2) Chrome plating: Chrome plating is mainly a treatment method for carbon steel products, primarily to increase corrosion resistance. 3) Oil immersion: Oil immersion is the standard treatment method for carbon steel, intended to prevent rust during transportation and storage. 4) Passivation: Passivation is a cleaning method for stainless steel materials. 5) Phosphate coating: Phosphating offers better corrosion resistance than blackening. 6) Ultrasonic cleaning: This is the standard surface treatment method for stainless steel. 7) Vibratory deburring: To eliminate sharp edges on the product.

biegex feder spring classification

1) Torsion springs: Torsion springs (torsional springs) utilize the principle of leverage, twisting or rotating elastic materials with softness and high toughness to generate significant mechanical energy. They are springs that withstand torsional deformation, and their working parts consist of coils that are either closely wound or spaced apart. The end structures of torsion springs are processed into various shapes of torsion arms, ranging from single torsion to double torsion, and even various torsion bar deformations, formed according to design requirements. Torsion springs are commonly used in balancing mechanisms in machinery and are widely applied in industrial production such as automobiles, machine tools, and electrical appliances. 2) Compression springs: Compression springs are helical springs that withstand axial pressure. Springs are generally divided into equal-pitch springs and variable-pitch springs. Shapes of compression springs include cylindrical, conical, convex, concave, and a small number of non-circular forms. There is a certain gap between the coils of compression springs; when subjected to external loads, the spring contracts and deforms, storing deformation energy. Variable-pitch springs are becoming increasingly common, no longer limited to equal-pitch springs, as variable-pitch springs can perform different functions in different environments. 3) Carbon nanotube springs: The diameter of carbon nanotube springs can reach hundreds of micrometers, while their length can reach several centimeters. Their spinning structure has broad application prospects, with potential applications in stretchable conductors, flexible electrodes, micro strain sensors, supercapacitors, integrated circuits, solar cells, field emission sources, and energy dissipation fibers, making it possible to prepare visibly observable carbon nanotube electronic devices. They are also expected to be applied in medical devices, such as tension-sensing bandages. This new structure can also be developed into multifunctional carbon nanotube fiber composites for utilization. 4) Extension springs: Extension springs (tension springs) are helical springs that withstand axial tensile forces. Extension springs are generally manufactured using round cross-section materials. When not under load, the coils of extension springs are usually tightly closed with no gap. They work using the restoring force (tensile force) after extension, used to control the movement of components, store energy, measure force magnitude, etc., and are widely used in machines and instruments. Hook forms include side-hook extension springs, long-hook extension springs, English-hook extension springs, German-hook extension springs, semi-circular hook extension springs, duck-bill hook extension springs, etc. Materials include stainless steel, music wire, high-carbon steel, phosphor bronze, beryllium copper, and oil-tempered alloy spring steel. 5) Air springs: Air springs are non-metallic springs that achieve elastic action by adding pressurized air into a flexible sealed container, utilizing the compressibility of air. They can be roughly divided into bladder type and diaphragm type. Air springs have excellent elastic characteristics; when used in suspension systems of high-end vehicles, they can greatly improve vehicle smoothness, thereby significantly enhancing riding comfort. Therefore, air springs are widely used in automobiles and railway locomotives. In addition, due to many advantages compared to ordinary steel springs, they are also applied in some mechanical equipment and precision instruments.

biegex feder spring compensation method for controlling springback

The compensation method for controlling springback involves controlling the geometric shape and dimensions of the working part of the die based on the direction and magnitude of the springback of the bent part, so that the springback after bending the workpiece is compensated. For example, for U-shaped parts with significant bending, the end face of the punch or the surface of the stripper plate can be made arc-shaped, or the punch and die can be made into inclined surfaces at a certain angle, thereby compensating for the springback deformation at the two rounded corners through the deformation generated at the arc or inclined areas during unloading. Extending from this, the bending compensation method can be used to bend workpieces that are difficult to bend using conventional methods. For the shape shown in Figure 8, the two sides are tightly close with no forming space. Using the method of deformation springback and correction compensation, bending is possible.

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