Refine
Year of publication
Document Type
- Conference Proceeding (104) (remove)
Keywords
- Finite-Elemente-Methode (11)
- Einspielen <Werkstoff> (6)
- shakedown analysis (6)
- Clusterion (4)
- Limit analysis (4)
- limit analysis (4)
- Air purification (3)
- Hämoglobin (3)
- Luftreiniger (3)
- Plasmacluster ion technology (3)
- Raumluft (3)
- Shakedown (3)
- Shakedown analysis (3)
- Sonde (3)
- Traglast (3)
- Bruchmechanik (2)
- Einspielanalyse (2)
- Eisschicht (2)
- Erythrozyt (2)
- FEM (2)
- Kohlenstofffaser (2)
- Lipopolysaccharide (2)
- Ratcheting (2)
- Stickstoffmonoxid (2)
- Traglastanalyse (2)
- celldrum technology (2)
- lipopolysaccharides (2)
- nitric oxide gas (2)
- ratchetting (2)
- shakedown (2)
- Adsorption (1)
- Analytischer Zulaessigkeitsnachweis (1)
- Anastomose (1)
- Anastomosis (1)
- Autofluoreszenzverfahren (1)
- Bakterien (1)
- Biomechanics (1)
- Biomechanik (1)
- Biomedizinische Technik (1)
- Chance constrained programming (1)
- Dattel (1)
- Dekontamination (1)
- Druckbeanspruchung (1)
- Druckbehälter (1)
- Druckbelastung (1)
- EEG (1)
- Einspiel-Analyse (1)
- Elastodynamik (1)
- Elektrodynamik (1)
- Endothelzelle (1)
- Evolution of damage (1)
- Exact Ilyushin yield surface (1)
- Extension fracture (1)
- Extension strain criterion (1)
- FEM-Programm (1)
- FEM-computation (1)
- Fehlerstellen (1)
- Festkörper (1)
- Fibroblast (1)
- Finite element method (1)
- First Order Reliabiblity Method (1)
- First-order reliability method (1)
- Force (1)
- Hydrodynamik (1)
- Hydrogel (1)
- Impedance Spectroscopy (1)
- Iterative learning control (1)
- Knee (1)
- Körpertemperatur (1)
- LISA (1)
- Lichtstreuungsbasierte Instrumente (1)
- Load modeling (1)
- Mechanische Beanspruchung (1)
- Mohr–Coulomb criterion (1)
- Multi-dimensional wave propagation (1)
- Natriumhypochlorit (1)
- Nichtlineare Gleichung (1)
- Nichtlineare Optimierung (1)
- Nichtlineare Welle (1)
- PFM (1)
- Pflanzenphysiologie (1)
- Pflanzenscanner (1)
- Proteine (1)
- Random variable (1)
- Reliability of structures (1)
- Rohr (1)
- Rohrbruch (1)
- Sensitivity (1)
- Sepsis (1)
- Sleep EEG (1)
- Stahl (1)
- Stochastic programming (1)
- Technische Mechanik (1)
- Torsion (1)
- Torsionsbelastung (1)
- Tragfähigkeit (1)
- Training (1)
- Wasserbrücke (1)
- Wasserstoffperoxid (1)
- Wellen (1)
- Zug-Druck-Beanspruchung (1)
- Zug-Druck-Belastung (1)
- activated nanostructured carbon (1)
- aktivierte nanostrukturierte Kohlenstofffaser (1)
- autofluorescence-based detection system (1)
- biopotential electrodes (1)
- burst pressure (1)
- burst tests (1)
- contractile tension (1)
- cytosolic water diffusion (1)
- date palm tree (1)
- design-by-analysis (1)
- finite element analysis (1)
- flaw (1)
- hemoglobin (1)
- hemoglobin dynamics (1)
- hydrogel (1)
- kontraktile Spannung (1)
- light scattering analysis (1)
- limit and shakedown analysis (1)
- limit load (1)
- linear kinematic hardening (1)
- load carrying capacity (1)
- load limit (1)
- lower bound theorem (1)
- material shakedown (1)
- mechanical waves (1)
- nanostructured carbonized plant parts (1)
- nanostrukturierte carbonisierte Pflanzenteile (1)
- nonlinear kinematic hardening (1)
- nonlinear optimization (1)
- nonlinear solids (1)
- nonlinear tensor constitutive equation (1)
- pipes (1)
- plant scanner (1)
- plasma generated ions (1)
- plastic deformation (1)
- probabilistic fracture mechanics (1)
- protein (1)
- reliability (1)
- rhAPC (1)
- second-order reliability method (1)
- sensors (1)
- subsurface ice research (1)
- subsurface probe (1)
- tension–torsion loading (1)
- vessels (1)
- water bridge phenomenon (1)
Institute
- Fachbereich Medizintechnik und Technomathematik (104) (remove)
Pulmonary arterial cannulation is a common and effective method for percutaneous mechanical circulatory support for concurrent right heart and respiratory failure [1]. However, limited data exists to what effect the positioning of the cannula has on the oxygen perfusion throughout the pulmonary artery (PA). This study aims to evaluate, using computational fluid dynamics (CFD), the effect of different cannula positions in the PA with respect to the oxygenation of the different branching vessels in order for an optimal cannula position to be determined. The four chosen different positions (see Fig. 1) of the cannulas are, in the lower part of the main pulmonary artery (MPA), in the MPA at the junction between the right pulmonary artery (RPA) and the left pulmonary artery (LPA), in the RPA at the first branch of the RPA and in the LPA at the first branch of the LPA.