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Cardiovascular Applications

Rapid and reliable innovation and testing of new cardiovascular medical devices and implants. 

Optimize Cardiovascular Devices Through Simulation

With more than 30 percent of all deaths attributed to cardiovascular diseases, the healthcare industry invests massively in disease prevention, treatment and efforts to shorten the recovery period. The extensive in vitro and in vivo testing required to ensure patient safety inevitably slows the delivery of innovative implantable cardiovascular devices — stents, valves or pacemakers/defibrillators — to those who need them the most.  Leveraging the power of in silico medicine and developing a detailed and reliable multiphysics model of the device and its working environment (the human body) provides the necessary insights to test and optimize new products, help accelerate regulatory approval and save lives.

  • Implants with a Virtual Population
    Implants with a Virtual Population
  • Blood Damage
    Blood Damage
  • Reliability Throughout Product Lifecycle
    Reliability Throughout Product Lifecycle
  • Ensure MRI Compatibility
    Ensure MRI Compatibility
cardio devices simulation

Cardiovascular Applications

Create Effective Cardiovascular Devices

Cardio Compatibility

In Silico Clinical Trials

Applying validated and approved computer models of cardiovascular implants to hundreds of virtual patients provides digital evidence of product performance to help accelerate the regulatory approval process.

Minimize Blood Damage

High shear stress induced by artificial blood pumps or valves may irremediably damage blood cells. Simulation delivers the insight required to innovate device design and reduce damage.

Ensuring MRI Compatibility

Coupled electro-thermal analysis can evaluate the temperature increase with implanted devices such as pacemakers due to MRI interaction.

Reliability and Durability

Use simulation to examine the performance of a cardiac valve or a stent under a wide range of loading conditions and in a diverse virtual population, to render reliable, durable designs.

Ansys Fluent
Ansys Fluent
流体 Fluids Icon


  • 现代化友好交互界面
  • 单窗口工作流程——前处理到后处理
  • 流畅的网格划分和分析工作流程
  • 高级物理模型
  • 高效的网格划分和求解器HPC扩展
Ansys CFX
Ansys CFX
流体 Ansys CFX


  • 流程化的的旋转机械分析设置
  • 叶片设计工具集成
  • 多级叶片CFD建模
  • 瞬态叶栅法
  • 谐波平衡法
Ansys LS-DYNA鸟撞
结构 Structures Icon

使用Ansys Mechanical中集成的强大显式仿真工具。大量功能和材料模型使复杂模型具有极大的可扩展性。

  • 处理高度非线性仿真
  • 仿真极端变形问题
  • 使用不可压缩CFD(ICFD)、电磁学(EM)和CESE/可压缩CFD和化学求解器解决多物理场问题
Ansys Mechanical发动机缸体


  • 易于使用的多功能工具
  • 持久可靠的求解器技术
  • 动态集成平台


  • 采用实时物理仿真
  • 提供快速的高保真结果
  • 探索多物理场和多种物理场景 
  • 简化CAD模型、提取流体域或简化仿真模型
  • 拓扑优化可加速工作流程
  • 适用于任何CAD文件
Ansys Granta MI Pro


  • 用户友好型材料数据库
  • 比较材料属性
  • 与领先的CAD和CAE产品集成
  • 预加载2,600多个材料数据集
Ansys HFSS
Ansys HFSS
电子 Ansys HFSS

用于设计高频和高速电子元件的 3D 电磁场求解器。其 FEM、IE、渐近和混合求解器可解决 RF、微波、IC、PCB 和 EMI 问题。

  • 解决多层封装
  • PCB 和封装的 3D 布局工作流程
  • 高频电磁求解器
  • 通过 3D 组件进行 IP 保护
Ansys Minerva徽标
Ansys Minerva
Connect Connect Icon
由Aras提供支持的Ansys Minerva是一款企业级专用仿真流程和数据管理解决方案,它通过直观、易于使用、基于网络的用户界面(适用于所有仿真工作流程)提高工程生产效率。Minerva与供应商无关,可与众多Ansys和第三方仿真及PLM软件集成。
  • 访问和重复使用仿真数据
  • 协调良好仿真流程管理
  • HPC任务提交和数据管理
  • 通过基于角色的仪表板了解项目
  • 一般用户访问仿真深度信息
  • 通过企业集成功能同步和交换数据
Ansys Zemax OpticStudio
Ansys Zemax OpticStudio
光学与虚拟现实(VR) Ansys Zemax OpticStudio


Featured Resources



Ansys White Paper Healthcare

Disruption in Healthcare is Here: Are you Ready?

Ansys is fully embracing the in silico approach by creating the necessary software and enabling access to computational power to make simulation pervasive from startups to large global companies, from concept to in-patient performance.



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