Modular Instruments
Modular instruments can provide laboratory and process measurement solutions which have a minimum of hard wiring and require no complex installation. These instruments are known as modular because they are essentially built up by hardware pieces which are inter-locked in a standardized way. This type of instrument is ideal for users who need strong flexibility and customization options for their projects.
The main components of the modular instrument are the signal conditioning module, the display module, and the power supply module. The signal conditioning module is responsible for acquiring data from a variety of sensors. It also provides conditioning for that data and converts it into a format which is readable by other computers or processors. The display module is typically an LCD, LED or analog display which shows the measurements taken by the signal conditioning module. The power supply module typically provides power to all the components within the modular instrument and is also the source of electricity and power for the instrument itself.
There are a wide variety of applications in which modular instruments can be used. Some of these include: industrial automation and process control, electronic test and measurement systems, electric power systems, robotic and automation systems, laboratory and research equipment, aerospace navigation and communication systems, medical imaging and diagnostic systems, and petroleum, chemical and food processing systems.
Modular instruments can significantly reduce the time and cost associated with installation and maintenance. By having several modules which are easily interchanged without the need for extensive wiring, labor costs can be significantly reduced. Additionally, the modular nature of these instruments greatly simplifies the process of upgrading and expanding existing devices. For example, a new signal conditioning module can be added to an existing instrument quickly and easily.
The greatest benefit of modular instruments is the flexibility that their design provides. Because of their modular design, new components can be easily added or removed as necessary. Furthermore, the system can be easily upgraded to meet changing needs and requirements. Trying to upgrade or expand a non-modular instrument to keep up with evolving needs can be difficult, time consuming and very costly.
The choice of a modular instrument will depend on the type of application it is to be used for, the level of accuracy and precision that is needed, as well as the space and power requirements of the application. It is important to research any potential vendor or manufacturer to ensure that their modular instruments meet the necessary criteria and that the components are of high quality, reliable, and compliant with necessary certifications.
In conclusion, modular instruments provide an ideal solution for many types of applications because of their flexibility and cost effectiveness. By utilizing components which can interchange easily, modular instruments allow for easy upgrading and expansion as well as reduce labor costs and simplify installation. Careful consideration should be given to potential vendors or manufacturers and their components in order to ensure that they meet the necessary criteria and standards. By doing so, users can ensure that they receive the maximum benefit that modular instruments have to offer.
