Last Updated： Aggregation Period:Sep 03, 2025～Sep 30, 2025
This ranking is based on the number of page views on our site.
Last Updated： Aggregation Period:Sep 03, 2025～Sep 30, 2025
This ranking is based on the number of page views on our site.
Last Updated： Aggregation Period:Sep 03, 2025～Sep 30, 2025
This ranking is based on the number of page views on our site.
16～30 item / All 52 items
独自技術とテクノロジーを融合し未来の技術を創造します！
シンクランド株式会社は、光学・電気技術を用いた医療機器および 検査測定機器等の製造、販売を行っている会社です。 当社は、無線送受信技術と振動計測技術を融合した新たなセンサー事業として、 多分野への展開を目指しています。内蔵する加速度センサーは3軸に配備され、 その振幅強度と方向（傾き）もセンシング可能に。インフラ監視も含めて検討を進めています。 【当社ができること】 ■半導体チップのパッケージング ■光学設計・機械設計 ■光ファイバとの高効率結合 ■OCT装置化 ※詳しくはカタログをご覧頂くか、お気軽にお問い合わせ下さい。
Your oscilloscope becomes a vibration meter! Bolt-on to the oscilloscope! A product that combines a vibration sensor and a preamplifier.
Your oscilloscope becomes a vibration meter! Bolt-on to the oscilloscope This product is a set of a piezoelectric accelerometer probe and a preamplifier. It outputs 100mV per 1m/s² of acceleration, allowing sufficient measurement even with an 8-bit oscilloscope. ■Features - Adjustable sensitivity: 0.1mV/m/s² to 100mV/m/s² - Wide frequency response: 2 to 20kHz - Battery operation supported: 006P battery ■Applications: Vibration measurement, inspection, etc. using oscilloscopes, data recorders, and FFT analyzers.
It explains the conceptual structure of push-pull type accelerometers using diagrams!
This document introduces the characteristics of an acceleration sensor using PVDF piezoelectric materials. It includes sensitivity of the push-pull structure acceleration sensor, as well as specifications of the push-pull type acceleration sensor, presented with diagrams and photographs. Technical materials are available for distribution. Please feel free to download and take a look. 【Contents】 ■ Introduction ■ Sensitivity of the Push-Pull Structure Acceleration Sensor ■ Specifications of the Push-Pull Type Acceleration Sensor ■ Results ■ Conclusion *For more details, please refer to the PDF document or feel free to contact us.
Explaining the conceptual structure of acceleration sensors and the dependence of PVDF acceleration sensitivity on the mass of the weight using diagrams!
This document introduces the characteristics of an accelerometer using polymer piezoelectric materials. It includes the sensitivity of the accelerometer using piezoelectric materials and the design concept for a thin-type velocity sensor, explained with diagrams. We are offering technical materials, so please feel free to download and take a look. 【Contents】 ■Introduction ■Sensitivity of the accelerometer using piezoelectric materials ■Design concept for a thin-type velocity sensor ■Results ■Conclusion *For more details, please refer to the PDF document or feel free to contact us.
Compact and lightweight! The impact of the converter installation on the vibration mode of the measured object is minimal.
The "Acceleration Converter" converts the acceleration of a moving vehicle, vibrations of the body, and machinery into electrical output (small voltage) using strain gauges. Depending on the measurement purpose, it can be connected to various measuring instruments to measure acceleration and vibration. It is compact and lightweight, with excellent static and dynamic characteristics. There is also a three-axis type that can simultaneously detect in the X, Y, and Z directions, offering a wide range of applications. 【Features】 ■ Compact and lightweight ■ Minimal impact on the vibration mode of the measured object due to the installation of the converter ■ Wide response frequency range, capable of accurately detecting shock acceleration ■ Three-axis acceleration converters have minimal mutual interference between axes *For more details, please refer to the PDF document or feel free to contact us.
![Can also be used for building inspections! [Collection of Examples of Accelerometer Applications]](https://image.mono.ipros.com/public/product/image/e80/2000864832/IPROS29766940497253998906.png?w=280&h=280)
Accelerometers that can be used for various applications such as detecting the aging of structures, inspection and monitoring, and detecting abnormalities in machinery. Here are some actual examples of applications!
In this document, we introduce examples using the acceleration sensors handled by our company. We have included "prototype examples of acceleration sensors" such as "ultra-compact" and "high-sensitivity" types. Please feel free to download and take a look. [Contents] ■ What can be done with piezo film ■ Examples of acceleration sensors made with piezo film ■ Contact information *For more details, please refer to the PDF document or feel free to contact us.
It explains the conceptual structure of push-pull type accelerometers using diagrams!
This document introduces the characteristics of an accelerometer using polymer piezoelectric materials. It includes diagrams and photos detailing the sensitivity of the push-pull structure accelerometer and the specifications of the push-pull type accelerometer. Technical materials are available for distribution. Please feel free to download and take a look. 【Contents】 ■Introduction ■Sensitivity of the Push-Pull Structure Accelerometer ■Specifications of the Push-Pull Type Accelerometer ■Results ■Conclusion *For more details, please refer to the PDF document or feel free to contact us.
A must-see for engineers! An explanation of the conceptual structure of acceleration sensors and the mass dependence of PVDF acceleration sensitivity, illustrated with diagrams from the proceedings of the Acoustical Society of Japan.
This document introduces the characteristics of acceleration sensors using polymer piezoelectric materials. It includes the sensitivity of acceleration sensors using piezoelectric materials, as well as the design concepts for thin-type velocity sensors. Explanations are provided using diagrams and charts. We are offering this technical document, so please feel free to download and review it. [Contents] ■ Introduction ■ Sensitivity of acceleration sensors using piezoelectric materials ■ Design concepts for thin-type velocity sensors ■ Results ■ Conclusion *For more details, please refer to the PDF document or feel free to contact us.
![[Technical Document] Free Gift! "Guide to Selecting Acceleration Sensors"](https://image.mono.ipros.com/public/product/image/14c/2000107880/IPROS9144997441833908474.JPG?w=280&h=280)
The actual selection criteria for the main sensors are described.
There are many types of acceleration sensors. The optimal sensor is chosen based on the purpose of measurement. The main considerations in selection are the "balance between sensor sensitivity and mass," "whether it is a one-axis or three-axis measurement," and "the measurement environment, whether it is harsh," among others. The "Technical Documentation" provides guidelines for selecting acceleration sensors, detailing the actual selection criteria for major sensors. It includes examples of sensors with a good balance of "sensitivity, mass, and price," such as general-purpose easy-to-use sensors and side connectors, examples of "compact and lightweight sensors," and examples of "ultra-compact and ultra-lightweight sensors," such as small adhesive sensors. *The "Technical Documentation" is available for free. For more details, please contact us or refer to the catalog.
In the fields of navigation, attitude control, tilt angle measurement, and various vibration measurements.
Colibrys' high-performance accelerometers are widely used around the world in aerospace, defense, resource development, construction, and other general industrial fields. We have an in-house manufacturing system from design and production to final testing, and we are actively engaged in cutting-edge technology development. The MS series is a uniaxial accelerometer with capacitive analog output that excels in bias stability, temperature characteristics, low power consumption, and environmental resistance. As an open-loop type MEMS sensor, it also has excellent resolution and demonstrates outstanding performance in fields such as navigation, attitude control, tilt angle measurement, and various vibration measurements. For more details, please download the catalog or contact us.
High sensitivity 50 pC/g charge type acceleration pickup, usable at a maximum temperature of 260°C, manufactured by TE Connectivity.
The Model 7514A accelerometer is a charge-type accelerometer that boasts an excellent dynamic range and stability performance. This accelerometer has a temperature operating range of -73°C to +260°C, and it can withstand shock (10000g) with a response capability of up to 14000Hz (±2dB). The housing is made of stainless steel, and it features a shared piezoelectric ceramic crystal inside. Its lightweight and compact design, along with its ability to operate at high temperatures, make it suitable for measurement applications in various fields.
Technical documents on the usage examples of accelerometers categorized by application for development, design, and evaluation testing.
This document briefly summarizes the characteristics of each type of accelerometer used in tests, including piezoelectric, built-in amplifier, and MEMS bridge. Please refer to the specifications and usage examples below. [Technical Handbook Table of Contents] No.1 Types and Characteristics of Accelerometers No.2 Types and Characteristics of Accelerometers (Overview of Specifications) No.3 Characteristics and Usage Environment of MEMS Bridge Type No.4 Characteristics and Usage Environment of Piezoelectric Type No.5 Characteristics and Usage Environment of Built-in Amplifier Type No.6 Handling Precautions (In Preparation) No.7 Application Example 1 - Ride Comfort Vibration Test No.8 Application Example 2 - Engine No.9 Application Example 3 - Automotive Crash Test (Body)
Technical documentation on examples of use for accelerometers categorized by application, such as in development, design, and evaluation testing.
This summarizes the features and usage environment of built-in amplifier piezoelectric type (IEPE type) accelerometers. For other specifications and usage examples, please refer to the following. [Technical Handbook Table of Contents] No.1 Types and Features of Accelerometers No.2 Types and Features of Accelerometers (Overview of Specifications) No.3 Features and Usage Environment of MEMS Bridge Type No.4 Features and Usage Environment of Piezoelectric Type No.5 Features and Usage Environment of Built-in Amplifier Type No.6 Handling Precautions (In Preparation) No.7 Example of Use 1 - Ride Comfort Vibration Testing No.8 Example of Use 2 - Engine No.9 Example of Use 3 - Automotive Crash Testing (Body)
Technical documentation on examples of use for accelerometers categorized by application, such as in development, design, and evaluation testing.
This briefly introduces the measurement when assessing ride comfort, such as for seat cushions, as an example of usage. Please refer to the following for other specifications and usage examples. [Technical Handbook Table of Contents] No.1 Types and Characteristics of Accelerometers No.2 Types and Characteristics of Accelerometers (Overview of Specifications) No.3 Features and Usage Environment of MEMS Bridge Type No.4 Features and Usage Environment of Piezoelectric Type No.5 Features and Usage Environment of Built-in Amplifier Type No.6 Precautions for Handling (In Preparation) No.7 Example of Use 1 - Ride Comfort Vibration Testing No.8 Example of Use 2 - Engine No.9 Example of Use 3 - Automotive Crash Testing (Body)
![[Embedded / Permanent Installation / Device Connection] 3-Axis Accelerometer "MA3 Series"](https://image.mono.ipros.com/public/product/image/d7c/2000043138/IPROS22744427892088362599.jpeg?w=280&h=280)
Supports high acceleration detection up to 1000G, including shock! Built-in amplifier makes it ideal for embedded applications!
Acceleration sensors (shock sensors) with a wide lineup covering a detection range from ±2 to ±1000 G and a frequency range from 0.8 Hz to 10 kHz. They can be used as external sensors for our motion recorder series! (Lead type) Implementation types are also available for sale from just one unit! Ideal for connecting to PLCs and for small-scale embedded production!
