シスコム（SysCom） Product Lineup

The TV holography vibration displacement analysis system "MEMSMap510" measures in-plane vibrations and out-of-plane vibrations. In the modeling and design of MEMS structures, the behavior of their fine structures differs significantly from that of larger structures, making analysis challenging. In dynamic devices, vibration modes can suddenly shift from one frequency to another due to the effects of heat, changes in air pressure, or boundary conditions. Therefore, real-time information across the entire surface regarding both static deformation and vibrations is necessary. The "MEMSMap510" will be a powerful tool for research and development of microstructures and product testing. It provides reliable data with user-friendly software. For more details, please download the catalog.

Vibromap is the latest vibration and displacement analysis device that combines the electronics speckle interferometry measurement method with a TV camera. In each mode, it is possible to monitor vibrations and displacements in real-time on the screen. Since the measurement data is displayed in real-time, it allows for conducting frequency sweeps, static deformation loads, etc., while viewing the screen. It can be applied to small electronic components like magnetic heads as well as vibration analysis of automotive engines.

In the automotive industry, vibration testing is essential for evaluating product durability. Particularly for components exposed to various vibrations, such as engines and vehicle bodies, it is important to accurately understand the effects of vibrations and ensure durability. Inadequate vibration assessment can lead to early product failure or performance degradation. The VibroMap 1000 measures vibrations and displacements in real-time, supporting the durability evaluation of automotive parts. 【Application Scenarios】 - Vibration analysis of engine components - Vibration analysis of vehicle structures - Durability testing of various components 【Benefits of Implementation】 - Accurate data acquisition through non-contact, high-sensitivity measurements - Efficient testing through real-time measurements - Visualization of vibration conditions through animated displays

In the aerospace industry, reducing the weight of aircraft is a critical issue. Vibration analysis of the airframe is essential for strength evaluation during the design phase and for material selection, and it is important for identifying factors that hinder weight reduction. The VibroMap 1000 measures vibrations and displacements in real-time and without contact, supporting lightweight design. 【Application Scenarios】 - Vibration analysis of aircraft components - Vibration analysis of rocket engines - Vibration analysis of structures 【Benefits of Implementation】 - Early detection of vibration issues during the design phase - Increased efficiency in lightweight design - Improved product reliability

In the precision machinery industry, it is required to measure minute vibrations and displacements with high accuracy for product performance evaluation. Particularly, to ensure the durability and reliability of products, it is important to accurately grasp these elements and provide feedback for design. The VibroMap 1000 enables real-time monitoring of vibrations and displacements on a display by combining electronic speckle interferometry with a TV camera, allowing for high-precision measurements. 【Usage Scenarios】 - Vibration analysis of precision machinery - Vibration measurement of electronic components - Evaluation of vibrations and displacements in research and development 【Benefits of Implementation】 - Reduced impact on products through non-contact, high-sensitivity measurements - Efficient analysis through real-time data display - Visual data analysis through 2D/3D plots

In the semiconductor industry, high precision in the manufacturing process is required for microfabrication. Particularly in the processing of fine structures, vibrations and displacements significantly affect product quality. Accurately understanding and controlling these factors is essential for improving yield. The VibroMap 1000 visualizes vibrations and displacements in microfabrication in real-time through non-contact, high-sensitivity measurements, supporting quality control and process improvement. 【Application Scenarios】 - Vibration analysis in microfabrication processes - Quality assessment of semiconductor devices - Vibration countermeasures for manufacturing equipment 【Benefits of Implementation】 - Improved processing accuracy - Enhanced yield - Increased product reliability

In the machine tool industry, vibration suppression is essential to achieve high-precision machining. Particularly in processes that require micron-level accuracy, even slight vibrations can significantly affect product quality. Vibration not only reduces machining precision but also shortens tool life and decreases production efficiency. The VibroMap 1000 visualizes machine tool vibrations in real-time, making it easier to identify problem areas. 【Application Scenarios】 - Vibration analysis of machine tools - Vibration countermeasures in high-precision machining - Improvement of machining accuracy 【Benefits of Implementation】 - Reduction in time to identify the causes of vibration - Improvement in machining accuracy - Reduction of defective products

In the medical device industry, there is a demand for improved diagnostic accuracy and reduced burden on patients. Accurately capturing minute vibrations and displacements is essential for early detection and precise diagnosis. The VibroMap 1000 meets these needs through non-contact, high-sensitivity measurements. 【Application Scenarios】 - Performance evaluation of medical devices - Analysis of minute vibrations and displacements - Data acquisition for precise diagnosis 【Benefits of Implementation】 - Improved diagnostic accuracy - Ensured safety through non-destructive testing - Enhanced efficiency in research and development

A completely new non-destructive testing measurement using laser holography. The specimen is excited by a piezoelectric element to sweep, and the slight vibration amplitude and phase information of the surface are measured and confirmed, allowing for automatic identification of areas without defects and areas with defects by software. Defective areas are displayed in white, making them easy to identify. This method has already been used for defect detection in aircraft materials and fuel tanks made of resin. This measurement method is a completely new technology, currently under patent application, and is sold with the approval of the Norwegian government. It is capable of measuring material delamination, cracks, and impact damage.