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本ワークショップでは、STAR-CCM+のラグランジェ混相流モデルの概要と使用方法をレクチャーとハンズオンを交えて紹介いたします。
本セミナーでは、初めて最適化ソフトウェアを触られる方、また他に最適化ソフトウェアをお持ちでもHEEDS/Optimateのご使用が初めての方を対象としております。 設計探査作業(最適化、実験計画法、応答曲面等)の一連の流れを例題を通じてご体験いただけます。 HEEDS/Optimateは、SHERPA(シェルパ)と呼ばれる自己学習型探査アルゴリズムを搭載しており、一般的な最適化ツールでは必要な「探査アルゴリズムの選択・チューニング」などの煩雑な作業は一切必要ありません。 HEEDS/Optimateが実現する新しい設計探査のプロセスをぜひ実感ください。 HEEDSについては こちら Optimateついては こちら
本セミナーは初めてCFDソフトウェアを操作する方、または他のCFDソフトウェアの使用経験は お持ちでもSTAR-CCM+は操作したことがない方を対象としています。 CFDに必要な一連の作業をSTAR-CCM+上で例題を通して体験頂くことが出来ます。 ご参加頂く方のご経験に合わせて、他のCFDソフトウェアとの違いやSTAR-CCM+の 特長に特化した内容としており、弊社製品にご興味のある方から、具体的にご検討や ご利用をお考えの方まで幅広くご参加頂けます。
本セミナーは初めてCFDソフトウェアを操作する方、または他のCFDソフトウェアの使用経験は お持ちでもSTAR-CCM+は操作したことがない方を対象としています。 CFDに必要な一連の作業をSTAR-CCM+上で例題を通して体験頂くことが出来ます。 ご参加頂く方のご経験に合わせて、他のCFDソフトウェアとの違いやSTAR-CCM+の 特長に特化した内容としており、弊社製品にご興味のある方から、具体的にご検討や ご利用をお考えの方まで幅広くご参加頂けます。
Designing Better Centrifugal Water Pumps, Faster
We recognize that companies are interested in using simulation to design pumps that perform to specification not only at the Best Efficiency Point (BEP), but also under wide-ranging operating conditions. Such companies know that their customers will not always operate their pumps at the BEP, so the more robust they can make their designs, the better. These companies also know that simulation can be a cost-efficient way for them to help answer all the numerous ‘What If…?’ questions associated with exploring new and innovative design configurations. Viewers of this webcast should obtain an...
Sandia Flame Validation
Geometry is a piloted methane jet flame based on the Sandia/TUD Piloted CH4 Air Jet Flame validation case. In the animation, the temperature in the extreme left remains at 300 K for a certain distance along the centerline as it is the potential core of the developing jet. 1) Momentum driven jets are often seen in burners (used in CPI and oil and gas industry) as well as Flares (again predominantly being used in CPI and oil and gas industry) 2) The LES technique captures the complex mixing features which influences the flame stability, combustion efficiency, and pollutant formation. 3) Volume-...
流体構造連成解析機能(FSI)のご紹介ウェビナー
STAR-CCM+は流体解析とあわせて、固体の移動や変形を伴う構造解析を扱う事が可能です。 STAR-CCM+のみで行う方法や、外部の固体応力ソルバーと連成解析を行う方法があります。 本ウェビナーでは、流体構造連成解析機能の基本的な機能やワークフローの紹介、言葉の定義等、 流体構造連成解析を行う上で基本的な内容をアニメーションや事例等を用いてご紹介します。
2D simulation is a great way to test out designs and boundary conditions, personally I use it all the time when I am setting up a complex case for the first time or just playing with a new feature. Historically in STAR-CCM+ there wasn’t a pipelined way to build and run 2D meshes, but now with version 9.06 there are two new features that will put that problem to rest.
Being able to plot solution quality metrics while your simulation is running, that is, live-processing as opposed to post-processing, is one of the most distinctive functional aspects of STAR-CCM+. This lets you critically interrogate your results and make changes on-the-fly, thereby increasing your productivity. There are many very capable 3rd party plotting tools available. However working with them requires exporting and importing data, adding several steps to your workflow and making it difficult to automate. Still, there’s an argument to be made that plotted results need to be legible and, to a degree, customizable. With this release, we have targeted visual plot quality as an area for improvement.
When we initially consider the analysis of unsteady phenomena in turbomachinery, aeroelasticity and aeroacoustics, we’re quickly confronted by the simulation cost – transient analyses by their very nature will simply take longer to run compared to steady ones. And for these types of problems, where the simulation objectives (understanding of flutter and limit cycle oscillations for example) demand a time-dependent treatment, the time steps need to be small and the physical time required can be long. Not that this isn’t challenging enough, usually, the entire machine needs to be modeled at a high level of spatial fidelity, thereby driving up the size and cost of the analysis even further. But, all is not lost– enter the Harmonic Balance method, first introduced with STAR-CCM+ 4.04 in 2009, capable of delivering at least a 10-fold reduction in your time to a solution. And, that’s not the only benefit to be had with this approach – it’s possible to mesh just a single blade passage through all the blade rows in your machine and obtain a solution which varies from blade-to-blade, capturing critical blade row interactions.

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