Last Updated： Aggregation Period:Sep 03, 2025～Sep 30, 2025
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誘電体・電極で構成、電荷も設定可！キャパシタンスを求める事も出来ます！
静電場版では誘電体と電極による電位・電場分布を求めます、電荷を指定する事も出来ます。キャパシタンスを求める事も出来ます。詳細は【解析ノウハウ.com】の「NO.025 EX静電場版の紹介」をご覧ください ポイントはこちら ・静電場分を見る ・誘電体・電極で構成、電荷も設定可 ・等電位線、電場コンター・電場ベクトル表示 ・電場・電位グラフ出力 ・キャパシタンス算出
The flow rate of the cooling water is approximated by the heat transfer coefficient! Evaluated with animations and temperature history at evaluation points!
In the heat conduction version, you can define heating elements and cooling pipes. It is a simple analysis, but it allows for easy transient temperature analysis. For details, please refer to "NO.101 Introduction to the Heat Conduction Version: Finding Temperature Distribution and Changes" on 【Analysis Know-How.com】. Here are the key points: - It allows for transient temperature analysis. - The flow rate of the cooling water is approximated using the heat transfer coefficient. - You can set the heating and non-heating of the heating elements. - Calculations are performed for time steps. - Evaluation is done through animations and temperature history at evaluation points.
The finite element method automatically calculates the operating point of the magnet (permeability coefficient) based on the defined shape!
To define a permanent magnet in magnetic field analysis, the magnet's BH (demagnetization) curve is required. An image from the manufacturer's catalog is shown below, and we use the BH curve that connects the residual magnetic flux density Br and the coercive force Hc. The catalog also includes the JH curve (magnetization curve) and the maximum energy product BHmax. In the finite element method, the operating point of the magnet (permeance coefficient) is automatically calculated based on the defined shape. For more information on the "definition of permanent magnets," please refer to NO. 119 on "Analysis Know-How.com."
Input the frequency of the excitation coil, the permeability and conductivity of the material! It can be defined as multiple conductors.
We calculate the magnetic field shielding effect due to eddy currents, as well as the distribution of eddy currents, heat generation distribution, and heat quantity. When defined as multiple conductors, the eddy currents in each conductor can be calculated in a closed state. For details, please refer to "NO.049 ex Eddy Current Number Introduction" on 【Analysis Know-How.com】. Here are the key points: - Input the frequency of the excitation coil, the permeability, and conductivity of the material. - Eddy currents are closed within the conductors. - It can be defined as multiple conductors. - As a result, eddy currents flow in each conductor, reducing losses. - Displays the magnetic field, eddy current, and heat generation distribution. - Outputs the total heat generation (loss amount).
Input the frequency of the excitation coil, the permeability and conductivity of the material! It can be defined as multiple conductors.
Calculates the magnetic field shielding effect due to eddy currents, as well as the distribution of eddy currents, heat generation distribution, and heat generation amount. When defined as multiple conductors, the eddy currents in each conductor can be calculated in a closed state. For details, please refer to "NO.049 ex Eddy Current Number Introduction" on 【Analysis Know-How.com】. Here are the key points: - Input the frequency of the excitation coil, as well as the permeability and conductivity of the materials. - Eddy currents are closed within the conductors. - Can be defined as multiple conductors. - As a result, eddy currents flow in each conductor, reducing losses. - Displays the magnetic field, eddy current, and heat generation distribution. - Outputs the total heat generation amount (loss amount).
Input the frequency of the excitation coil, the permeability and conductivity of the material! It can be defined as multiple conductors.
We calculate the magnetic field shielding effect due to eddy currents, as well as the distribution of eddy currents, heat generation distribution, and the amount of heat generated. When defined as multiple conductors, the eddy currents in each conductor can be calculated in a closed state. For details, please refer to "NO.049 ex Eddy Current Number Introduction" on 【Analysis Know-How.com】. Here are the key points: - Input the frequency of the excitation coil, the permeability, and the conductivity of the material. - Eddy currents are closed within the conductors. - It can be defined as multiple conductors. - As a result, eddy currents flow in each conductor, reducing losses. - Displays the magnetic field, eddy current, and heat generation distribution. - Outputs the total amount of heat generated (loss amount).
Estimate heat generation from current density in wiring on printed circuit boards! It's a simple analysis, but there are various themes.
The electrostatic current version calculates the current density within conductors and the resistance between electrodes. It addresses a variety of themes such as thermistors, heating wires, printed circuit boards, and sensor electrodes. For more details, please refer to "163 ex Electrostatic Current Version Introduction" on 【Analysis Know-How.com】. Key points are as follows: - The electrostatic current version checks the current distribution within conductors. - It is a simple analysis, but there are various themes. - For thermistors, it examines the current density between electrodes. - For heating wires in rear glass, it investigates how to ensure an even current flow. - For printed circuit boards, it estimates heat generation from the current density in the wiring. - For sensor electrodes, it estimates the material of the lower layer based on resistance values.
The key is the magnitude of the X component at the position where the Y component crosses zero! It can be done in about 10 minutes from modeling to result display. You can calculate it with the trial version.
The magnetic field distribution analysis of magnetron sputtering was conducted using an axisymmetric model. We estimate the erosion from the distribution of magnetic flux density components on the target. The magnitude of the X component at the position where the Y component crosses zero is crucial. This task can be completed in about 10 minutes, from modeling to result display. Furthermore, it can be done with the free trial version of the static magnetic field! Please give it a try. For more details, please refer to NO.020 on "Analysis Know-How.com." You can download the trial version from the sample software on the special site below: https://premium.ipros.jp/mutec/product/detail/2000623620/?hub=148+2991245
The magnitude of the X component at the position where the Y component crosses zero is crucial! It can be done in about 10 minutes from modeling to result display. You can calculate it with the trial version.
The magnetic field distribution analysis of magnetron sputtering was conducted using an axisymmetric model. We estimate erosion from the distribution of magnetic flux density components on the target. The magnitude of the X component at the position where the Y component crosses zero is crucial. This process can be completed in about 10 minutes, from modeling to result display. Furthermore, it can be done with a free trial version of the static magnetic field! Please give it a try. For more details, please refer to NO.020 on "Analysis Know-How.com." You can download the trial version from the sample software on the special site below: https://premium.ipros.jp/mutec/product/detail/2000623620/?hub=148+2991245
Estimate heat generation from current density in wiring on printed circuit boards! It's a simple analysis, but there are various themes.
The electrostatic current version calculates the current density within conductors and the resistance between electrodes. It addresses a variety of themes such as thermistors, heating wires, printed circuit boards, and sensor electrodes. For more details, please refer to the "Introduction to 163 ex Electrostatic Current Version" on 【Analysis Know-How.com】. Key points are as follows: - The electrostatic current version examines the current distribution within conductors. - It is a simple analysis but covers various themes. - For thermistors, it investigates the current density between electrodes. - For heating wires in rear glass, it considers how to ensure even current flow. - In printed circuit boards, it estimates heat generation based on current density in the wiring. - For sensor electrodes, it estimates the material of the lower layer based on resistance values.
冷蔵庫にペタペタのマグネットホルダ！電磁石や磁石の吸着力を応用した多くの製品があります！
鉄にコイルが巻かれた電磁石や永久磁石は鉄につい付きます。これを利用した様々な製品が利用されています。代表的なものをex電磁力版で解析してみます 詳細は【解析ノウハウ.com】の「NO.102吸着力・トルク利用製品の解析あれこれ」をご覧ください ポイントはこちら ・電磁石や磁石の吸着力を応用した多くの製品がある ・ソレノイドはコイルon/offで弁の開閉 ・リレーは回路のスイッチ ・磁石とコイルによる時計モータ ・冷蔵庫にペタペタのマグネットホルダ ・２次元解析では厚みで換算 ・トルクは支点位置を指定
Estimate heat generation from current density in wiring on printed circuit boards! It's a simple analysis, but there are various themes.
In the electrostatic current version, we calculate the current density within the conductor and the resistance between the electrodes. It accommodates various themes such as thermistors, heating wires, printed circuit boards, and sensor electrodes. For more details, please refer to "163 ex Introduction to the Electrostatic Current Version" on [Analysis Know-How.com]. Here are the key points: - The electrostatic current version checks the current distribution within the conductor. - It is a simple analysis, but there are various themes. - For thermistors, we examine the current density between the electrodes. - For heating wires in rear glass, we consider how to evenly distribute the current. - In printed circuit boards, we estimate heat generation from the current density in the wiring. - For sensor electrodes, we estimate the material of the lower layer based on resistance values.
冷蔵庫にペタペタのマグネットホルダ！電磁石や磁石の吸着力を応用した多くの製品があります！
鉄にコイルが巻かれた電磁石や永久磁石は鉄につい付きます。これを利用した様々な製品が利用されています。代表的なものをex電磁力版で解析してみます 詳細は【解析ノウハウ.com】の「NO.102吸着力・トルク利用製品の解析あれこれ」をご覧ください ポイントはこちら ・電磁石や磁石の吸着力を応用した多くの製品がある ・ソレノイドはコイルon/offで弁の開閉 ・リレーは回路のスイッチ ・磁石とコイルによる時計モータ ・冷蔵庫にペタペタのマグネットホルダ ・２次元解析では厚みで換算 ・トルクは支点位置を指定
The key is the magnitude of the X component at the position where the Y component crosses zero! It can be done in about 10 minutes from modeling to result display. You can calculate it with the trial version.
The magnetic field distribution analysis of magnetron sputtering was conducted using an axisymmetric model. From the distribution of the magnetic flux density components on the target, we estimate the erosion. The magnitude of the X component at the position where the Y component crosses zero is crucial. This process can be completed in about 10 minutes, from modeling to result display. Furthermore, it can be done with the free trial version of the static magnetic field! Please give it a try. For more details, please refer to NO.020 on "Analysis Know-How.com." You can download the trial version from the sample software on the special site below: https://premium.ipros.jp/mutec/product/detail/2000623620/?hub=148+2991245
