Locking Pins - Spring Plugs and Cotter Pins - Shapes and Dimensions

Spring plugs and cotter pins (also called locking pin) are locking elements for different applications. They are often used for bolt connections as a simple and releasable locking element and are used to secure the axial force. The axial force is not the main load on the joint. The locking element is primarily used to hold the assembly together. The axial force is therefore often a smaller by several orders of magnitude than the radial force on the bolt. This article discusses the locking principles for bolt joints with locking pins, along with application examples of the various locking elements in mechanical engineering, and based on what criteria these elements can be selected.

9 Minutes read

Heavy-Duty Anchors Types/Properties and Installation

Heavy-duty anchors are a specialized form of metal anchors. Their load capacity is almost unlimited in the interaction of the employed system and the compatible substrate. Heavy-duty anchors with enormous load capacity are used in industrial environments, such as machine construction. The following article provides information on the different types of heavy-duty anchors, their uses and fastening methods.

10 Minutes read

Profile Rail Guides - Selection Tool for Linear Guides

Selecting the right profile rail guide has a lasting impact on the performance and longevity of machines and equipment. But how do you find the right system among a wide range of options? Check out our blog to see what criteria really matter, from load types and accuracy requirements to environmental and installation conditions. We will show you a structured approach to help you make informed decisions and to optimize the performance of your applications over the long term.

9 Minutes read

Profile Rail Guides - Precision Standards of MISUMI Profile Rail Guides

What makes a linear guide profile rail guide the first choice for precise and resilient motion control? In our blog, you will learn all about the design, the different versions, dimensional tolerances and the key parameters, such as running parallelism, preload and axial play. We show how these features work together perfectly to ensure the highest precision and durability – and how you can best match these components to your needs.

11 Minutes read

Standard parts and their importance for industry

Standardized parts are components manufactured to a specific standard. They are an integral part of modern industry because they offer a number of benefits. This article explains what standardized parts are and explains the advantages and disadvantages they bring.

9 Minutes read

Manometers - Basics, types and function of pressure gauges

Manometers are instruments and devices used in metrology to measure pressure in a system. They are based on the physical principles of hydraulics or pneumatics.

9 Minutes read

Drill Bushings - Benefits/Types/Application/Overview of Standards

Drill bushings are an important part of machining workpieces. They are used to guide the boring tool safely and precisely, thus ensuring an exact bore. This article details the benefits, types, applications, and standard overviews of drill bushings.

8 Minutes read

Linear shafts: shaft ends and mounting options for linear shafts

The fastening mechanisms for linear shafts or guide shafts in mechanical systems require careful planning. Different shaft ends permit different mounting options. This article provides an overview of available shaft ends and answers the question of which shaft holders or shaft support options are available and where they are appropriate. As part of this, we also take a detailed look at the fixed and floating bearing types for shafts.

12 Minutes read

Types and Applications of Set Collars and Clamping Rings

Set collars and clamping rings are important components in mechanical engineering. Their function is to secure machine components in a specific position on a shaft or axis. This article introduces different versions, selection criteria, and fields of applications.

6 Minutes read

Tensile strength classes of stainless steel screws and nuts

The tensile strength of steel and stainless steel is a critical parameter when it comes to the load-bearing capacity and safety of threaded joints. It is made up of two key parameters for steel screws based on which the tensile strength and the yield strength can be easily determined. But starting at a certain size, stainless steel screws and stainless steel nuts are marked with a letter-number combination (e.g. A4-80). The letter-number combination arranged in front of the hyphen assigns the screw so marked to a material group and steel group and thus provides information on the basic material properties of the screw. The number 80 to the right of the hyphen indicates the strength class. This article shows how to use the strength class of stainless steel bolts to determine their limits of use and provide an overview of the load-bearing capacity of typical strength classes.

8 Minutes read

Tutorial: Coefficients of expansion of materials - Materials sciences theory

The coefficients of expansion of materials play a crucial role in materials science. Coefficients of expansion describe how the dimensions of a material change under the influence of temperature fluctuations. This article provides a comprehensive introduction to the topic, including the basics of thermal expansion, influencing factors, and various measurement methods. We also compare typical expansion coefficients of material classes and explain their uses in various industries. Lastly, we address thermal stresses and ways to prevent damage from temperature differences in materials.

11 Minutes read

Pneumatic circuits and pneumatic circuit diagrams - fundamentals of fluid engineering

This article covers the fundamentals of pneumatics, pneumatic circuits and pneumatic circuit diagrams. Pneumatics is an area of fluid engineering that deals with compressed air and its application in various systems. Pneumatic control technology is used in many industries and sectors, such as material handling, robotics, or transportation.

12 Minutes read

Calculating the center of mass - with examples

Calculating the center of mass is an important step in many tasks in mechanical engineering and in the design of machines and components. The center of mass indicates where the weight of a body is concentrated and thus permits determining the forces and moments in the system. This article explores the basics of calculating the center of mass and provides some real-world examples.

7 Minutes read

Linear Drive - Converting Rotation to Translation

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.

6 Minutes read

Spring design calculations

Springs are mechanical components that can store and deliver tension energy generated by the work used to tension, elongate or compress the spring in the form of deformation or tension energy. They are used in many applications and can be found in small electronic components as well as in large industrial machines. To ensure that a spring performs its function, it must be correctly designed. For this purpose, parameters such as the spring constant and the spring travel are calculated.

7 Minutes read

Selecting magnets

Magnets are of great significance in industrial applications. They are used in a variety of applications, from electric motors to sensors and actuators. However, selecting the right magnet for a specific application requires a deep understanding of the magnetic properties, materials and design features.

12 Minutes read

Processing limits and accuracy standards for sheet metal parts

Sheet metal parts are used in our everyday life and in industry in a wide range of applications. In order for these manufactured sheet metal parts to be used interoperably, they must comply with certain accuracy standards and machining limits. These refer to specific parameters and tolerances with respect to width, length, thickness and geometric tolerances. The specifications must be taken into account when manufacturing sheet metal parts. The following examines various standards and limits in detail.

8 Minutes read

Hardness and hardness testing in comparison

A wide variety of raw materials and ancillary materials are used in industrial applications. Comprehensive knowledge of their material properties is an absolute prerequisite for using these raw materials for a defined application in technical environments. Hardness tests are a way to determine basic material properties such as hardness/ductility and strength of a material, such as steel. Hardness plays a critical role in the characterization and quality control of materials. The hardness of a steel provides information about its mechanical properties, wear resistance and suitability for specific applications. In this context, various hardness testing methods and scales have been developed to accurately determine and classify the hardness of steel. This article provides an overview of common hardness test methods, an overview of some of the heat treatment options for steel materials, the resulting Vickers hardness levels and their possible applications.

17 Minutes read

Complete solutions for linear motion - linear units, linear modules and linear actuators

Linear motion allows loads to move in a straight line path instead of rotating loads about an axis. This is an important part of industrial automation.

8 Minutes read

Mechanical power transmission: Movement types, timing belts and gears

There is the uniform movement wherein a body moves at the same speed at all times, and is neither accelerated nor decelerated.

Non-uniform movement occurs when the speed or direction of a body changes during the movement process, which can lead to acceleration or deceleration. There are two cases: uniform acceleration and non-uniform acceleration.

10 Minutes read
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