생명 공학 분야에 전산 유체 역학을 적용하는 것은 비교적 새로운 방법으로, 다양한 의료 기기를 효과적으로 사용하거나, 분석 구현하는 방법을 개선하는데 큰 도움이 될 수 있습니다.
FLOW-3D는 하나의 패키지로 구성되어 있으며, 광범위한 범위를 갖는 강력한 시뮬레이션 해석 프로그램 입니다.
FLOW-3D가 가지고 있는 기능으로 자유 표면과 제한된 갇혀 있는 유체의 흐름, 가변 밀도, 상 변화, 움직이는 물체, 기계 및 열 응력 해석이 가능합니다.
자세한 내용은 FLOW-3D의 모델링 기능의 전체 목록을 살펴보십시오.
Von Mises stress 분포.
FLOW-3D‘s fluid-structure interaction model 을 이용한 안압 분석 결과.
Courtesy University at Buffalo.

바이오 분야의 다양한 해석 사례

관련 기술자료

Fig.1 Schematic diagram of the novel cytometric device

Fabrication and Experimental Investigation of a Novel 3D Hydrodynamic Focusing Micro Cytometric Device

Yongquan Wang*a , Jingyuan Wangb, Hualing Chenc School of Mechanical Engineering, Xi’an Jiaotong University, Xi’an, Shaanxi, 710049, P. R. Chinaa ...
더 보기
Figure 1. (a) Top view of the microfluidic-magnetophoretic device, (b) Schematic representation of the channel cross-sections studied in this work, and (c) the magnet position relative to the channel location (Sepy and Sepz are the magnet separation distances in y and z, respectively).

Continuous-Flow Separation of Magnetic Particles from Biofluids: How Does the Microdevice Geometry Determine the Separation Performance?

by  Cristina González Fernández1, Jenifer Gómez Pastora2, Arantza Basauri1, Marcos Fallanza1, Eugenio Bringas1, Jeffrey J. Chalmers2 and Inmaculada Ortiz1,* 1Department of Chemical and Biomolecular Engineering, ETSIIT, ...
더 보기
Fluid velocity magnitude including velocity vectors and blood volumetric fraction contours for scenario 3: (a,b) Magnet distance d = 0; (c,d) Magnet distance d = 1 mm.

Numerical Analysis of Bead Magnetophoresis from Flowing Blood in a Continuous-Flow Microchannel: Implications to the Bead-Fluid Interactions

Jenifer Gómez-Pastora,  Ioannis H. Karampelas,  Eugenio Bringas,  Edward P. Furlani &  Inmaculada Ortiz  Scientific Reports volume 9, Article number: 7265 (2019) Cite this article Abstract 이 연구에서는 ...
더 보기
Fig. 12. Comparison of simulation results with experimental data for a flow rate of water = Ql=15 ml/hr and a flow rate of air = Qg =3 ml/hr.

Simulation of Droplet Dynamics and Mixing in Microfluidic Devices using a VOF-Based Method

A. Chandorkar Published 2009 Abstract This paper demonstrates that the Volume of Fluid (TruVOF) method in FLOW-3D (a general purpose CFD ...
더 보기
Figure 1. Cross-sectional dimensions of a V-groove channel

Modeling Open Surface Microfluidics

개방형 표면 미세 유체 모델링 Open surface microfluidic systems are becoming increasingly popular in the fields of biology, biotechnology, medicine, ...
더 보기
Fig.4 Schematic of a package structure

Three-Dimensional Flow Analysis of a Thermosetting Compound during Mold Filling

Junichi Saeki and Tsutomu KonoProduction Engineering Research Laboratory, Hitachi Ltd.292, Y shida-cho, Totsuka-ku, Yokohama, 244-0817 Japan Abstract Thermosetting molding compounds ...
더 보기
The Simulation of Droplet Impact on the Super-Hydrophobic Surface with Micro-Pillar Arrays Fabricated by Laser Irradiation and Silanization Processes

The simulation of droplet impact on the super-hydrophobic surface with micro-pillar arrays fabricated by laser irradiation and silanization processes

레이저 조사 및 silanization 공정으로 제작된 micro-pillar arrays를 사용하여 초 소수성 표면에 대한 액적 영향 시뮬레이션 ZhenyanXiaa YangZhaoa ZhenYangabc ChengjuanYangab ...
더 보기
A new dynamic masking technique for time resolved PIV analysis

A new dynamic masking technique for time resolved PIV analysis

시간 분해 PIV 분석을위한 새로운 동적 마스킹 기술 물체 가시성을 허용하기 위해 형광 코팅과 결합 된 새로운 프리웨어 레이 캐스팅 ...
더 보기
On the role of the powder stream on the heat and fluid flow conditions during Directed Energy Deposition of maraging steel-Fig3

On the role of the powder stream on the heat and fluid flow conditions during Directed Energy Deposition of maraging steel—Multiphysics modeling and experimental validation

MohamadBayataVenkata K.NadimpalliaFrancesco G.BiondaniaSinaJafarzadehbJesperThorborgaNiels S.TiedjeaGiulianoBissaccoaDavid B.PedersenaJesper H.Hattela a Department of Mechanical Engineering, Technical University of Denmark, Building 425, Lyngby, Denmark b Department ...
더 보기
Fig. 2: Scheme of the LED photo-crosslinking and 3D-printing section of the microfluidic/3D-printing device. The droplet train is transferred from the chip microchannel into a microtubing in a straight section with nearly identical inner channel and inner microtubing diameter. Further downstream, the microtubing passes an LED-section for fast photo cross-linking to generate the microgels. This section is contained in an aluminum encasing to avoid premature crosslinking of polymer precursor in upstream channel sections by stray light. Subsequently, the microtubing is integrated into a 3D-printhead, where the microgels are jammed into a filament that is directly 3D-printed into the scaffold.

On-chip fabrication and in-flow 3D-printing of cellladen microgel constructs: From chip to scaffold materials in one integral process

cellladen 마이크로 겔 구조의 온칩 제작 및 인플 로우 3D 프린팅 : 하나의 통합 프로세스에서 칩에서 스캐폴드 재료까지 Benjamin Reineke ...
더 보기