Last Updated： Aggregation Period:Oct 22, 2025～Nov 18, 2025
This ranking is based on the number of page views on our site.
Last Updated： Aggregation Period:Oct 22, 2025～Nov 18, 2025
This ranking is based on the number of page views on our site.
Last Updated： Aggregation Period:Oct 22, 2025～Nov 18, 2025
This ranking is based on the number of page views on our site.
571～585 item / All 1058 items
Report creation tool for Zabbix server
REFZ is a tool that integrates with the Zabbix server to generate reports of club images. With simple operations, it can output reports in RTF (Rich Text Format). It is also possible to gather information on "events" and "traps" from the Zabbix server in a consolidated manner. This information can be filtered by the target period and devices, allowing you to output only the desired information.
We offer contracted analysis services for electronic devices, home appliances, and residential environments at lower prices than before.
Have you ever faced issues with unexpected heat generation or vibrations from components when you actually manufactured something you designed? How should you dissipate heat? What about vibration countermeasures? There are thermal, vibrational, and stress factors that cannot be understood from the drawings and can only be realized through actual production. However, repeatedly creating prototypes takes both time and cost... In such cases, computer-based analysis simulations are effective. SiM24 provides high-quality analysis simulations quickly and at a low cost, contributing to time and cost reduction in research, development, and manufacturing processes.
Thermal analysis service (thermal simulation)
Based on years of experience and achievements, we provide services focused on thermal analysis and thermal countermeasure proposals from the perspective of thermal design. We can offer services backed by semiconductor device development and system equipment development. We provide a wide range of services from contracted analysis to the sale of measurement systems. (Thermal simulation) [For more details, please download the catalog or feel free to contact us] ↓ ↓ ↓ ↓ ↓ ↓ ↓
Quality UP! Efficiency UP! Trust UP! Proposals centered around technology and reduction of total costs.
By utilizing the electromagnetic field analysis simulator Q3D Extractor (Q3D), the quality of power line layout design can be enhanced. Design verification combined with waveform measurements for validation is also possible. Improve quality with substrate design that considers low inductance for high current paths! Increase efficiency with feedback from switching waveform evaluation to substrate design! Trust is enhanced through improved consistency via actual measurements and simulation model fitting! For more details, please download the catalog or contact us.
![[Analysis Case] Evaluation of Crystal Structure by Micro XRD Analysis](https://image.mono.ipros.com/public/product/image/558/2000244300/IPROS80969282824071839317.jpeg?w=280&h=280)
XRD measurements in micro areas are possible.
We will introduce a case where XRD measurements were conducted by narrowing the X-ray beam to Φ400μm, allowing us to obtain crystal information targeting a specific area rather than the entire surface. In the XRD measurement results of the printed circuit board sample, Cu and BaSO4 were detected at all measurement points (1) to (3), and a peak from Au was detected at the measurement point (1), which is the electrode. This aligns well with the results from XRF measurements. Thus, it is possible to identify crystal structures by targeting regions of several hundred micrometers with different compositions and crystallinities. Measurement methods: XRD, XRF Product fields: LSI, memory, electronic components Analysis purposes: Composition evaluation, identification, structural evaluation For more details, please download the materials or contact us.
XRD: X-ray diffraction method
Pole figure measurement is a method that focuses on specific crystal planes and evaluates the distribution of crystal orientations by directing X-rays from various directions onto the sample. The detector is fixed at the diffraction angle (2θ) of the crystal plane of interest, and the two parameters, α (the tilt angle of the sample) and β (the in-plane rotation angle of the sample), are varied to measure crystal planes tilted in all directions. This indicates that the crystal orientations are concentrated in the directions where high diffraction intensity is observed. Additionally, the measurement results are represented in a pole figure as shown in the diagram at the bottom right.
We evaluate product characteristics and degradation components through inter-sample comparison using multivariate analysis.
As part of quality management, when you want to investigate components characteristic of the origin and variety, as well as components that cause defects between lots, comparisons between multiple samples are necessary. By statistically processing the data obtained from LC/MS measurements using multivariate analysis, it is possible to identify components that are characteristic of the samples among many components. In this case, we will introduce an example of investigating characteristic components among three apple juice products of different apple varieties using principal component analysis (PCA), which is one type of multivariate analysis.
Detailed information such as atomic arrangements within the crystal can be obtained from the analysis of measurement data like XRD.
Rietveld analysis is a method for analyzing measurement data from XRD (X-ray diffraction) and neutron diffraction. In addition to identifying lattice constants and space groups using existing methods, it is possible to obtain more detailed crystallographic information, such as atomic arrangements within the unit cell, if there is a crystal structure model (candidate) for the sample.
The mass array method allows for the simultaneous analysis of multiple SNPs (single nucleotide polymorphisms).
This method is a gene analysis technique that utilizes mass spectrometry with MALDI-TOF-MS, allowing for the analysis of multiple SNP sites in a single measurement. Up to 40 SNPs can be measured simultaneously across 190 samples. The overall analysis follows the flow outlined below. Primers designed to amplify the target SNP regions without overlapping mass peaks, along with primers designed to extend only one base at each SNP site, are used to create mass differences in the DNA fragments, from which the bases are determined based on the detected mass peaks.
You can evaluate the interactions between small molecules and proteins using NMR and MD calculations.
Among physiological active compounds, there are many that act by targeting proteins. Therefore, obtaining structural insights into the interactions between small molecules and proteins is very important for drug development. This document presents a case study analyzing the interactions between L-tryptophan and bovine serum albumin (BSA) in solution using NMR and molecular dynamics calculations.
Differences between real-time PCR method and mass array method.
SNP (Single Nucleotide Polymorphism) refers to the parts of the DNA sequence that differ by a single nucleotide among individuals. It is believed that SNPs can lead to different characteristics such as physical traits and are also related to drug response. Therefore, SNP analysis is expected to be applied in personalized medicine. This document introduces the characteristics of real-time PCR and mass array methods among SNP analysis techniques. It is effective to choose the method according to the specific SNP locations, number of SNPs, and their frequencies that need to be investigated.
It is possible to analyze the structure of complex organic compounds with overlapping peaks.
In the structural analysis of organic compounds using NMR, two-dimensional NMR is generally used in addition to one-dimensional NMR (1H-NMR and 13C-NMR) to confirm the correlations between peaks in one-dimensional NMR, allowing for the assignment of peaks and determination of the compound's structure. However, in compounds such as sugars that contain many similar structures, peaks can overlap even in two-dimensional NMR, making analysis difficult. In such cases, three-dimensional NMR is effective. This document presents examples of applying three-dimensional NMR using oligosaccharides as model compounds.
The mass array method allows for the simultaneous analysis of multiple genetic polymorphisms.
There are individual differences in drug metabolism activity, and these differences are believed to be due to genetic polymorphisms. In the field of pharmacogenomics (PGx), there is an expectation for the application of personalized medicine that takes into account the effects of drugs, side effects, and drug interactions by investigating genetic polymorphisms. This document introduces the analysis of genetic polymorphisms related to drug metabolism using a designed analysis tool based on mass array methods. Genetic polymorphisms will be determined from the analysis results of SNPs (Single Nucleotide Polymorphisms) and CNVs (Copy Number Variations) for 20 drug metabolism-related genes.
Precision processing/structural evaluation is possible over a wide area of several hundred micrometers.
It achieves high positional accuracy and wide-area cross-section production, making it usable as a new large-capacity analysis application. Even small structures within a large area can be targeted for processing, enabling wide-area structural analysis.
![[Analysis Case] Qualitative and Structural Analysis of Resin (Synthetic Polymer)](https://image.mono.ipros.com/public/product/image/d6b/2001515659/IPROS7918726885328904962.jpg?w=280&h=280)
Insights into molecular structure can be obtained through combined analysis using FT-IR and thermal decomposition GC/MS.
Resins (synthetic polymers) are polymers of monomers and have characteristic functional groups depending on their type. Due to their structure, they exhibit properties such as heat resistance, toughness, and electrical insulation, making them widely used in packaging materials, adhesives, paints, and more. Structural analysis is important for understanding the properties of resins, and common analytical methods include FT-IR and thermogravimetric GC/MS. FT-IR allows for the evaluation of functional groups, while thermogravimetric GC/MS enables the assessment of monomers and partial structures, so by combining these two methods, structural analysis of a wide variety of resins becomes possible.
