Last Updated： Aggregation Period:Oct 15, 2025～Nov 11, 2025
This ranking is based on the number of page views on our site.
Last Updated： Aggregation Period:Oct 15, 2025～Nov 11, 2025
This ranking is based on the number of page views on our site.
Last Updated： Aggregation Period:Oct 15, 2025～Nov 11, 2025
This ranking is based on the number of page views on our site.
16～30 item / All 54 items
Real-time off-gas analysis and RQ measurement - Online CO2 and O2 gas analysis -
The Tandem Gas Analyzer family enables advanced measurement of CO2 and O2 gases at a price comparable to other standard probes and sensors. While these devices have previously been perceived as expensive, they can now provide dedicated individual online monitoring and process control at a low cost.
Continuous measurement of impurities in gas can be performed within 1 minute per cycle! Being portable, it allows for measurements at the point of use.
The "FLEX-MS Series" is a high-sensitivity gas analysis device that uses atmospheric pressure ionization mass spectrometry (API method). It can measure impurities (mass numbers 3 to 400) in high-purity gases at the ppb level. Impurities can be measured in the range of 10 ppb to 0.1 ppb. The power supply operates at AC100V. 【Features】 ■ Direct introduction of the target gas is possible ■ Impurities can be measured in the range of 10 ppb to 0.1 ppb ■ Time variation measurement can be performed with concentration display using registered calibration curves ■ Portable type allows for measurements at the use point ■ Operates on AC100V power supply *For more details, please refer to the PDF document or feel free to contact us.
Successfully measured the differences in samples! Examples of applications are also included.
The document introduces the fact that "Li encapsulation enhances the reactivity of fullerene by 2400 times." Using an 800MHz NMR system from JEOL, we successfully measured the differences between samples where Li is encapsulated in fullerene and samples where Li exists outside of fullerene, using a well-known Li salt as a standard reference. Additionally, we have included other application examples. [Contents] ■News ■Application Example 1 ■Application Example 2 *For more details, please refer to the PDF document or feel free to contact us.
Environmentally friendly renewable natural energy as an alternative to fossil fuels!
Our company is engaged in the business of a renewable new energy system, the "Biogas Power Generation System," which looks towards the future of the Earth. The "Biogas Power Generation System" is a system that generates electricity using biogas produced from methane fermentation with a dedicated gas engine. The waste liquid (digestate) after methane fermentation can be safely reused as fertilizer, among other diverse applications. [Achievements] ■ Makinohara Biogas Power Plant *For more details, please download the PDF or contact us.
This webinar will explain the important aspects of dissolved gas analysis for power transformers.
Title: Online DGA (Dissolved Gas Analysis) Monitoring of Transformers Speaker: Yoshitaka Arai, Business Development Manager, Vaisala Inc. Target Audience: Personnel involved in transformer maintenance and industrial measurement-related technologies.
![[TDS] Thermal Desorption Gas Analysis Method](https://image.mono.ipros.com/public/product/image/2fd/2000038326/IPROS11345817645571470646.jpg?w=280&h=280)
A mass spectrometry method that allows monitoring of gases generated by vacuum heating/warming at different temperatures, with high sensitivity for detecting hydrogen and water.
TDS is a mass spectrometry method that allows monitoring of gases generated by vacuum heating/ramping at different temperatures. The TDS spectrum represents temperature on the horizontal axis and ion intensity on the vertical axis. This enables comparison of the amount of gas released and the desorption temperatures. Additionally, due to the vacuum environment, hydrogen and water can be analyzed with high sensitivity. - It is possible to understand the relationship between the gases desorbed from the sample, the pressure, and the temperature at which they are generated. - Since only the sample can be heated, the background is low, allowing for high-sensitivity analysis of low-mass molecules such as hydrogen, water, oxygen, and nitrogen. - It is possible to estimate the composition of the gases generated from the sample and perform quantitative analysis (counting the number of molecules).
![[Analysis Case] Thermal Desorption Gas Analysis of Metal (Sn)](https://image.mono.ipros.com/public/product/image/c64/2000295070/IPROS3317925093783158335.jpg?w=280&h=280)
TDS analysis of low melting point metals
Sn is used as the main raw material for solder, which is also used in semiconductor manufacturing. The gases in the solder can cause void formation, so it is important to control the amount of encapsulated gas in the solder and its main raw material, Sn. The results of investigating the gases released by heating Sn to a temperature above its melting point using TDS analysis are shown below. By heating the sample above its melting point, it is possible to evaluate the surface-adsorbed components and the components of the encapsulated gas in the sample.
![[Analysis Case] Degassing Evaluation of Plating Samples](https://image.mono.ipros.com/public/product/image/ace/2000305489/IPROS8331296205551754523.jpg?w=280&h=280)
Thermal Desorption Gas Analysis of Ni/Au Plating (TDS)
If the plating film contains gas, it may cause defects such as peeling, blistering, and bubbles within the film. To investigate the gas contained in the plating film, TDS, which can measure the gas released by heating the sample in a high vacuum, is effective. The results of TDS analysis on a sample with Ni/Au plating on SUS material are presented. The release of H2, HCN, H2S, and HCl from the plating film was confirmed. Additionally, quantitative values were calculated.
![[Analysis Case] Evaluation of Organic Component Desorption in a Vacuum](https://image.mono.ipros.com/public/product/image/a9a/2000449852/IPROS44697401438986555330.jpeg?w=280&h=280)
The temperature dependence evaluation of the desorption of specific organic components is possible through composite analysis.
TDS (Thermal Desorption Gas Analysis) is a method that allows for the confirmation of desorbed components and desorption temperatures while heating a sample in a vacuum (1E-7 Pa). Furthermore, by combining the results of TDS with GC/MS (Gas Chromatography-Mass Spectrometry), which can identify organic substances, it is possible to evaluate the desorption temperatures of specific desorbed components in a vacuum. Below, we present an example of a combined analysis of TDS and GC/MS conducted on graphene.
![[Analysis Case] Analysis of α-Alumina (α-Al2O3) by TDS](https://image.mono.ipros.com/public/product/image/112/2001514291/IPROS5157883064023306627.jpg?w=280&h=280)
Thermal desorption gas analysis of ceramics
Thermally stable α-alumina is used in a wide range of applications, including heat-resistant materials, semiconductor packages, and components of semiconductor manufacturing equipment. Among these, dense α-alumina is also used as a material for vacuum devices. However, the gases generated when such materials are heated can adversely affect products and equipment, making it important to understand the outgassing from these materials. In this report, we present a case study comparing the outgassing amounts of porous and dense α-alumina using TDS analysis (temperature-programmed desorption gas analysis).
Verified through the "EURO6" measurement tests for phased automobile emissions regulations in the EU.
Are you familiar with the phased automotive exhaust gas regulation "EURO6" implemented by the EU (European Union)? Bruker's high-performance FT-IR gas analysis device "MATRIX-MG" has been validated in actual measurement tests for EURO6. We introduce the pinnacle of FT-IR gas analysis equipment, featuring a compact design that can be loaded onto a vehicle's cargo bed and unparalleled high resolution. ■ Features of MATRIX-MG - Achieves qualitative and quantitative gas analysis quickly, continuously, and automatically - Exceptional sensitivity, capable of detecting from a few ppb to 100% - Wide detectable range - No calibration required for target gases - Easy operation and maintenance - Automatic correction for the influence of gases and interfering components in the atmosphere - Gas cell with temperature control function capable of heating up to 191°C - Continuous monitoring of temperature and pressure within the gas cell, providing feedback for quantitative analysis - Measurement results can be output to industrial communication interfaces
■Ammonia Measurement■ Capable of measuring a full range from low concentration to high concentration!
It has been said that there have been very few analytical devices capable of measuring ammonia across a full range from low to high concentrations. Bruker's device supports full-range measurement. 【OMEGA5】 This gas analysis FT-IR system features a compact body compatible with 19-inch racks and is equipped with a multi-reflection gas cell with an optical path length of 5m, suitable for measuring industrial gases. It is designed to automatically monitor gas concentrations with high precision and in real-time, making it applicable in various fields. The OMEGA5 achieves a reduction in overall costs, including operation and maintenance. 【MATRIX-MG】 Achieving qualitative and quantitative gas analysis quickly, continuously, and automatically! Measurement results can be output to industrial communication interfaces. The 'MATRIX-MG series' is a high-performance FT-IR gas analyzer characterized by its robustness and compact design. It is designed to automatically analyze each component and concentration of target gases with high precision and in real-time for gas analysis in various fields. It can identify and quantify over 300 types of compounds without calibration measurements.
FT-IR with excellent qualitative capabilities! It can accurately and in real-time quantify the concentration of each component.
FT-IR is a powerful tool that can qualitatively and quantitatively analyze the components of unknown gas by analyzing the infrared spectrum unique to the compound. The high selectivity and sensitivity of FT-IR ensure the reliable detection of trace amounts of infrared-active compounds even in mixed gases containing multiple components across a wide concentration range. This document includes topics such as "Gas Quantitative Analysis using FT-IR" and "Verification of OPUS GA Analysis Accuracy." We invite you to read it. [Contents] ■ Gas Quantitative Analysis using FT-IR ■ High-precision quantitative analysis without a calibration curve ■ Verification of OPUS GA Analysis Accuracy ■ Advantages of gas analysis without a calibration curve *For more details, please refer to the PDF document or feel free to contact us.
The world's first wearable breath gas analysis device (gaining attention overseas as a tool for health promotion and anti-aging research!)
The VO2 Master is a wearable device that measures VO2 (oxygen consumption) without the need for cables. It employs the breath-by-breath method (*1) to perform instant analysis within the unit. It communicates via Bluetooth with a dedicated app compatible with iOS and Android phones, allowing for monitoring, storage, and transfer of data. It is also utilized overseas for health promotion and anti-aging research, gaining attention as a powerful tool for understanding individual health conditions in detail. Main Features: - Easy operation - Three types of ventilation sensors - Lightweight design - Data storage and sharing capabilities - Text and CSV output available With minimal dead air space, it simultaneously measures ventilation volume, gas concentration, temperature, and atmospheric pressure (altitude) at the mouth. The built-in thermometer and barometer also allow for the measurement of the temperature and humidity of exhaled breath. *1) Breath-by-breath method: A technique that analyzes each breath to estimate energy expenditure.
