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analysis Product List and Ranking from 381 Manufacturers, Suppliers and Companies

Last Updated： Aggregation Period:Dec 24, 2025～Jan 20, 2026
This ranking is based on the number of page views on our site.

analysis Manufacturer, Suppliers and Company Rankings

Last Updated： Aggregation Period:Dec 24, 2025～Jan 20, 2026
This ranking is based on the number of page views on our site.

  1. アイテス Shiga//Electronic Components and Semiconductors
  2. 中電シーティーアイ 本社 Aichi//Service Industry
  3. ヒューリンクス Tokyo//software
  4. 4 有限会社エムティプレシジョン Tokyo//Optical Instruments
  5. 5 Bühler K.K. Kanagawa//Food Machinery
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analysis Product ranking

Last Updated： Aggregation Period:Dec 24, 2025～Jan 20, 2026
This ranking is based on the number of page views on our site.

  1. DAXON Reaction Tank Impact Analysis Service *Introduction Materials Available 中電シーティーアイ 本社
  2. Graph Creation and Data Analysis for Researchers: KaleidaGraph ヒューリンクス
  3. Specification verification and failure analysis through reliability testing. アイテス
  4. 4 Positioning control of heavy load transport overhead cranes with retrofitted laser distance sensors. 有限会社エムティプレシジョン
  5. 4 Real-time analysis of surveillance camera footage for quick response. 光アルファクス

analysis Product List

496～510 item / All 1051 items

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Comprehensive characterization for the development and manufacturing of safe and highly effective vaccines.

Comprehensive characterization for the development and manufacturing of safe and highly effective vaccines.

Efficient evaluation of potency, safety, and stability using light scattering detectors and LC-MS.

To quickly deliver safe and highly effective vaccines to the market, thorough characterization analysis is necessary. By using light scattering detectors, a wealth of information can be obtained regarding the vaccine's size, aggregation, stability, interactions, composition, and conformation. By combining MALS (Multi-Angle Light Scattering) and DLS (Dynamic Light Scattering), information about the conformation (shape and structure) of molecules can be derived from the ratio of Rh (hydrodynamic radius) to Rg (radius of gyration). Furthermore, by combining separation techniques such as SEC (Size Exclusion Chromatography) and FFF (Field Flow Fractionation), high-resolution size and molecular weight distribution measurements can be achieved. In LC-MS, peptide mapping allows for the confirmation of primary sequences and monitoring of post-translational modifications. By clicking [Submit], you are deemed to have agreed that Waters will use and process the information provided on this site in accordance with Waters' Terms of Use and Privacy Notice. Terms of Use and Privacy Notice www.waters.com/legalandprivacy

  • Other separation and analysis equipment
  • High Performance Liquid Chromatograph
  • Chromatography Consumables

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Thermal fluid analysis in the design of electronic devices.

Thermal fluid analysis in the design of electronic devices.

Streamline the design process to reduce the number of prototypes and costs!

The thermal fluid analysis by SRC allows for direct integration of 3D CAD and thermal fluid analysis software through 3D design, enabling the reflection of CFD (Computational Fluid Dynamics) results from the initial design stage. Verification of temperature fields and flow fields contributes to the efficiency of the design process related to thermal issues, reducing the number of iterations and costs. For more details, please download the catalog or contact us.

  • Embedded Board Computers
  • Other embedded systems (software and hardware)

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DIAdem Big Data Analysis

DIAdem Big Data Analysis

Quickly analyze and visualize big data! ~ From "data" to "valuable knowledge" - Data analysis solutions ~

■NI DIAdem meets data management needs The more data there is, the more accurate the results can be. However, if there are multiple sources of data or insufficient documentation, it becomes difficult to identify the contents. With NI DIAdem, the necessary processes for data analysis can be efficiently achieved with a single tool.

  • others

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[Musculoskeletal Analysis Case] Load Analysis of Water Bag Exercises

[Musculoskeletal Analysis Case] Load Analysis of Water Bag Exercises

Conducting musculoskeletal analysis using AnyBody to investigate the load on the trunk and upper limbs! A case study using fluid analysis results of water behavior.

This article presents a case study analyzing the effects on the body when simulating a cylindrical water bag filled with 5 kg (5 liters) of water, assuming a left and right rotational movement in front of the chest. In this case study, we conducted musculoskeletal analysis using AnyBody, taking into account the complex movement of water at that time, and investigated the load on the trunk and upper limbs. For comparison, we also examined how the load on the human body differs between liquids and solids. As a result, it was found that in the case of liquids, the load variations fluctuate randomly compared to solids. Furthermore, even with the same weight and similar movements, the load on the body changes depending on whether the object being handled is a fluid or a solid. [Contents] ■ In the case of solids ■ In the case of a water bag ■ Analysis results *Detailed information about the case can be viewed through the related links. For more details, please feel free to contact us.

  • Mechanism Analysis

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[Heat Fluid Analysis Case] Airflow Analysis of Solar Panels

[Heat Fluid Analysis Case] Airflow Analysis of Solar Panels

You can observe the flow passing through the bottom of the solar panel and the vortices formed on the back of the panel!

This article introduces a case study of airflow analysis around solar panels. We arranged solar panels measuring 10×3m in three rows and subjected them to a wind speed of 10 m/s from the front. The calculations were performed in a three-dimensional, steady-state, incompressible manner, with the computational domain set to a sufficiently large area around the panels. Additionally, in this sample model, only half of one side of the solar panel was modeled. By executing calculations with varying panel spacing and angles, we were able to investigate various patterns of airflow around the panels, confirming the flow passing beneath the solar panels and the vortices forming at the back of the panels. [Contents] ■ Overview of sample calculations for solar panels ■ Analysis results *Detailed information about the case study can be viewed through the related links. For more details, please feel free to contact us.

  • Software (middle, driver, security, etc.)

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[Case Study of Thermal Fluid Analysis] Cooling in a Warehouse

[Case Study of Thermal Fluid Analysis] Cooling in a Warehouse

Arranged two types of materials with different thermal conductivity and density! Analyzed the cooling process of the product.

In this article, we introduce cooling cases within a warehouse. We analyzed the cooling process of products arranged on shelves in a refrigerated warehouse. The air expelled from the air outlet cools the products and exits from the outlet, while inside the product case, two types of materials with different thermal conductivity and density are arranged. The analysis was conducted using 3D unsteady incompressible analysis. [Contents] ■ Overview ■ Analysis Results *Detailed information about the case can be viewed via the related link. For more information, please feel free to contact us.

  • Software (middle, driver, security, etc.)

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[Technical Column] Multi-Color Inkjet Analysis Using OpenFOAM

[Technical Column] Multi-Color Inkjet Analysis Using OpenFOAM

OpenFOAM has a cost advantage for inkjet calculations! Let me explain the benefits!

This column explains the benefits of using OpenFOAM for inkjet analysis. OpenFOAM is an open-source thermal fluid analysis solver that can perform calculations of free surfaces using the VOF method. A free surface refers to a distinct interface formed between two immiscible fluids, with the classic example being the interface between water and air, known as the "water surface." For more details, please refer to the related links. We encourage you to read it. 【Contents】 ■ The "water surface" of mineral water and the "interface" of dressing ■ VOF - Volume of Fluid method ■ CFD analysis of inkjet ■ Multicolor inkjet analysis ■ Cost advantages *For detailed content of the column, please refer to the related links. For more information, feel free to contact us.

  • Other analyses

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[Technical Column] The Difference Between Impact Analysis and Static Analysis

[Technical Column] The Difference Between Impact Analysis and Static Analysis

Automotive impact analysis is a typical dynamic analysis! A diagram of automotive side impact analysis using LS-DYNA is included!

This column explains technical information useful for CAE practice in a Q&A format. We provide clear answers to questions such as, "How do impact analysis and dynamic analysis differ from static structural analysis?" For more details, please refer to the related links. We encourage you to take a look. 【Contents】 ■Question ■Answer ■The maximum instantaneous stress cannot be captured in static analysis ■The dynamic properties of materials affect the results *For detailed content of the column, you can view it through the related links. Please feel free to contact us for more information.

  • Other analyses

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[Structural Analysis Example] Collision Analysis Side Crash of a Car

[Structural Analysis Example] Collision Analysis Side Crash of a Car

For drop and impact analysis, we introduce the concept of "impact force considering the propagation of stress waves" for analytical calculations!

In considering shock analysis, there are (1) shock forces derived from absorbed energy, (2) shock forces derived from the equations of motion of rigid bodies, and (3) shock forces derived from the propagation of stress waves. (1) refers to the stress at the maximum deformation displacement when the deformable body is impacted. (2) is determined from the equilibrium of the inertial force of the colliding object (rigid body) and the reaction force from the deformable body, while (3) introduces the concept of stress waves. In 'LS-DYNA', the approach of (3) is incorporated for analysis calculations in drop and impact analysis. [Overview] ■ (1) Shock forces derived from absorbed energy - The stress is considered at the maximum deformation displacement when the deformable body is impacted. - It is assumed to occur not at the moment of impact, but when the deformation of the deformable body reaches its maximum after the impact. *For more details, please refer to the related links or feel free to contact us.

  • Structural Analysis

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[Structural Analysis Example] Simulation of Seismic Isolation Building Wall Collision Due to Earthquake

[Structural Analysis Example] Simulation of Seismic Isolation Building Wall Collision Due to Earthquake

It has been demonstrated that it is possible to examine the acceleration occurring in buildings and the damage to the buildings!

We will introduce a case study of seismic response analysis of a seismic isolation nuclear power plant building and retaining wall ground model, taking into account the nonlinearity of the seismic isolation devices and concrete cracking when exceeding the design seismic motion. The ground is modeled using solid elements, the building with shell elements, the internal concrete (I/C) and foundation slab with solid elements, and the seismic isolation devices with beam elements. As a result, it was observed that in a wide area around the reactor containment vessel (PCCV), the surrounding building (REB), and the retaining wall, in-plane cracking occurred in both the in-plane 1 direction and in-plane 2 direction due to the collision between the building and the retaining wall. 【Analysis Settings】 ■ After self-weight loading, seismic waves were simultaneously input in two horizontal directions and vertically (2/3 of the horizontal) at the bottom surface of the lower foundation slab. ■ The input seismic waves used were three times the Japan Architectural Center simulated seismic wave BCJ-L2. *For more details, please refer to the related links or feel free to contact us.

  • Structural Analysis

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[Structural Analysis Example] Impact Analysis of a Falling Weight on a Reinforced Concrete Beam

[Structural Analysis Example] Impact Analysis of a Falling Weight on a Reinforced Concrete Beam

Accurately reproduce experimental results! The concrete constitutive laws use KCC, Winfrith, and CSCM!

We conducted an impact analysis of a reinforced concrete beam using three types of concrete constitutive laws and validated the simulation accuracy by comparing it with experimental results. The concrete constitutive laws used were KCC (MAT_072R3), Winfrith (MAT_084-085), and CSCM (MAT_159). The Winfrith model allows for the visualization of crack patterns, and the analysis results confirmed the direction of the cracks. Additionally, when examining the impact analysis at an impact velocity of 9 m/s using the KCC model, it was found that the typical impact damage behavior of the beam was well represented. 【Concrete Constitutive Laws Used】 ■KCC (MAT_072R3) ■Winfrith (MAT_084-085) ■CSCM (MAT_159) *For more details, please refer to the related links or feel free to contact us.

  • Structural Analysis

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[Structural Analysis Example] Penetration Analysis of Reinforced Concrete Walls Using SPG

[Structural Analysis Example] Penetration Analysis of Reinforced Concrete Walls Using SPG

It is possible to analyze the fracture behavior without causing mass and energy loss due to element removal!

We present a case study of a rigid body engine colliding with a rebar-free concrete wall modeled using SPG. By using SPG, it is possible to analyze the failure behavior without causing mass and energy loss due to element deletion. With the SPG control parameters added in Ver.R10, the stability of particle behavior in brittle fracture analysis, such as collisions and penetrations of concrete materials, has improved. 【Concrete Material】 ■MAT_DAMAGE_CONCRETE_REL3 ■Density: 2.3×10-9 ton/mm3 ■Poisson's Ratio: 0.2 ■Young's Modulus: 25920 MPa ■Compressive Strength: 30 MPa ■Tensile Strength: 2.9 MPa *For more details, please refer to the related links or feel free to contact us.

  • Structural Analysis

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[Structural Analysis Example] Coupled Problem 2 Using Particle Method (SPH)

[Structural Analysis Example] Coupled Problem 2 Using Particle Method (SPH)

The aircraft is composed of shell elements with actual collision intensity equivalent! Introducing examples in aviation.

We will introduce the analysis of aircraft water landing behavior. The airplane is composed of shell elements that have equivalent impact strength. The number of nodes is 143,242, and the number of elements is 144,223 (Shells 8,691, SPH 135,542). In the related links below, we present the analysis results in images, so please take a look. 【Case Overview】 ■ Water is represented by SPH elements ■ The airplane is composed of shell elements that have equivalent impact strength ■ Number of nodes: 143,242 Number of elements: 144,223 (Shells 8,691, SPH 135,542) ■ Analysis time: 4.0 seconds Computation time: 34 hours 22 minutes ■ PC CPU: Core 2 Duo 64 bits×2 3.33GHz used *For more details, please refer to the related links or feel free to contact us.

  • Structural Analysis

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[Structural Analysis Example] Buckling Analysis of an Empty Can

[Structural Analysis Example] Buckling Analysis of an Empty Can

The initial buckling location is in the body due to the increase in strength at the bottom! Here is an analysis case using "Ansys LS-DYNA."

We will introduce an analysis example that evaluates the buckling load and buckling shape of an empty can compressed in the vertical direction. In buckling analysis, even slight errors in the initial shape can lead to buckling behavior. Even if the analysis data has the same plate thickness, basic shape, and material properties, considering initial imperfections causes the initial buckling location to change from the bottom to the body. Additionally, when considering work hardening at the bottom of the empty can, the strength of the bottom increases, resulting in the initial buckling location being at the body. In the related links below, we present the analysis results in a video, so please take a look. [Summary] - Even if the analysis data has the same plate thickness, basic shape, and material properties, considering initial imperfections causes the initial buckling location to change from the bottom to the body. - When considering work hardening at the bottom of the empty can, the strength of the bottom increases, resulting in the initial buckling location being at the body. *For more details, please refer to the related links or feel free to contact us.

  • Structural Analysis

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[Example of Molding Process] Press Molding of TB Logo Using JSTAMP

[Example of Molding Process] Press Molding of TB Logo Using JSTAMP

An example evaluated with a stroke speed of 10,000 mm/s and a holder load of 1,000 kN!

We will introduce a case where we analyzed the press processing of a TB logo shape and evaluated "cracks" and "wrinkles" using the FLD (Forming Limit Diagram). The history of the FLD for elements that showed a tendency to crack revealed that the processing was conducted in a state close to equal biaxial tension throughout the processing time. It is expected that the material did not flow in sufficiently, resulting in a state close to equal biaxial tension. 【Model Overview】 ■ Die stroke speed: 10000 mm/s ■ Holder load: 1000 kN *For more details, please refer to the related links or feel free to contact us.

  • Structural Analysis

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