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Rigid, non-disengageable couplings are axially aligned, compact, and non-rotating, making them widely used. They create a non-rotating connection between two shafts, provided that both shafts are perfectly aligned. However, rigid couplings do not allow for flexibility, movement, or compensation. In this article, you can read about when it is worthwhile to use a rigid shaft coupling, what advantages they offer, and what different types are available.
Chains and sprockets are important elements in the design and mechanisms of machines and equipment. They are indispensable when it comes to the mechanical transfer of motion and force. But what types of chains and sprockets are there and what are their specific characteristics?
Conveyor timing belts are a particularly efficient and versatile drive solution in conveyor technology. Unlike conventional conveyor belts or chain drives, they offer synchronized and therefore slip-free power transmission. They are indispensable in many applications. However, there are a few factors to consider when selecting.
Synchronous belts or timing belts are installed as drive elements in a wide variety of applications. They are characterized by extremely precise synchronization and efficiency. This feature is used in applications where accurate timing is important, such as positioning tasks or a conveyor belt in the packaging, food or automotive industries. However, it is particularly important in these areas to detect and correct signs of timing belt wear early. In this article, you will learn about the typical signs of wear that occur with synchronous belts and what measures you can use to specifically extend their service life.
A precisely designed synchronous belt drive is key to efficient and durable power transmission in industrial applications. However, what is important when choosing the right belt? From calculating the rated power to determining the optimum belt width to verifying the center distance between shafts, each step affects the performance and service life of the drive system. Excessive tension can overload components; insufficient tension can cause slippage or tooth failure. That’s why the right belt tension is critical for reliable operation. In this blog post, you’ll learn how to determine the ideal belt configuration step-by-step, which calculation formulas are available to assist you, and what to look for during adjustment and maintenance.
Belt systems are used where mechanical energy must be efficiently transferred. Depending on the specific requirements for power transmission, precision or even noise minimization, different belt profiles and components such as timing pulleys, synchronous pulleys or tensioning rollers are used. This article shows what to look for when making a selection.
In drive technology, flexible shaft couplings and shaft joints are essential to transmit torque between two shafts – especially when the shafts are not exactly aligned or when vibrations and sudden load changes occur in the system. This article explains the difference between shaft joints and flexible shaft couplings, what each component can be used for, and what variants there are.
Shaft couplings are central components in drive technology and mechanical engineering because they connect shafts and enable efficient power transmission. The selection of the appropriate shaft coupling, such as e.g., a linear coupling as a non-rotary coupling, can, however, be difficult due to the wide variety of coupling types. This article introduces various selection criteria, such as motor power, required torque, and torsional characteristics, and provides guidance on designing the perfect shaft for your application.
Magnetic couplings are innovative connecting elements that transmit torque without contact by means of magnetic forces. The power transmission is mechanically wear-free because the drive and output sides are hermetically separated from each other. To learn how to use this property, read our article. You will also learn about the design and function of magnetic couplings, as well as the various uses and advantages they bring. We also look at the limits of their use.
A linear drive converts rotational movements to linear movements and vice versa. Linear actuators are key components for motion control in many mechanical systems and mechanical engineering. Often, this conversion is needed to convert power and motion generated by motors and other rotating equipment into translation (linear motion). The drive is industrially realized with motors or also by hand. The article introduces frequently used and common concepts and lists the design criteria. Lastly, we will discuss examples for mechanical engineering applications.
Parallel keys and tapered keys are two common connecting elements in the mechanical engineering industry. They are used to create a force-locking connection between two components. In this article, the two key types are examined in more detail and their areas of application are explained.
When shafts and axes are coupled in a machine, there is always a misalignment between the centre points of the shafts. The coupling compensates for this alignment error by the elasticity of the component or mechanical element during rotation or power transmission. Whether you are an experienced engineer or just diving into the world of mechanical engineering, this article gives you a comprehensive insight into the basics of couplings.
Since it is of great importance in the design of gears that the gear wheels involved engage correctly and wear is minimized, various basic calculations must be carried out. Terms such as modulus, pitch diameter and tooth count play a major role here. In this article, we deal with the most important aspects of gear calculation and what to consider when calculating gear units.
In this article, we introduce you to various types of gear units and explain their areas of application. Gear units are indispensable components in many machines and vehicles. They enable the transmission of torque and speed between the input- shaft and output shaft, which ensures optimum power transmission.
V-belts and V-belt pulleys are basic components of belt drives and are used in many mechanical systems in the industrial sector. Belt drives transfer rotary motion, torque, and power from a drive element to a driven element. In contrast to toothed belt drives that transfer power with an interlocking mechanism, belt drives work in a friction-locking manner. It is characteristic of belt drives that they ensure efficient friction-based power transfer and a longer service life while simultaneously providing a simple bearing arrangement.
Electric motors convert electrical energy into mechanical energy. They are based on the principle of electromagnetic induction. They can be used in a variety of applications, for example, as a drive solution in industrial machines.