Available Master topics: Scientific Computing

Biophysical simulations are growing to become important tools in the biomedical field and the training of high-performance athletes. When an individual exercises, several mechanisms are used by the body to increase the cardiac output and delivery of blood to the tissues.

Cardiac simulations are growing to become important tools in the development and testing of drugs by the pharmacological industry. One of the main applications is the use of biophysical models of cardiac cells to estimate the risk of serious side effects such as cardiac arrhythmias.

In standard finite element methods, the computational domain is usually represented by a mesh. This mesh may be a more or less accurate approximation of the true domain. For example, if the computational domain is polygonal (i.e. it has flat surfaces) then a

Cardiac simulation has progressed to the point where highly patient specific mathematical models can be rapidly created from medical imaging.

Tidal stream turbines represent one of the most promising technologies for capturing marine energy. These turbines are installed in fast tidally-induced currents, where they convert mechanical energy into electricity in a similar way to wind turbines.

The motion of fluid droplets is an important part in processes in nature such as thundercloud formation, and in technological applications such as ink jet printing and electrospray mass spectroscopy.

In Computational Cardiac Modeling (CaMo) at Simula, scientists work together with doctors, engineers, and innovators and use mathematical modeling and simulation to improve understanding of heart disease and help improve its diagnosis and treatment.

Supercomputers of tomorrow will be heterogeneous, because each compute node of such a system will consist of both CPU cores and hardware accelerators, for example, GPUs (graphics processing units) and coprocessors with many integrated cores.

Oceanic tides have the potential to yield a vast amount of renewable energy. 

Marine seismic is a well-established method to search for subsurface hydrocar

The equations describing movement and mechanical interactions in the heart muscle are normally formulated in a quasi-stationary form, where the muscle is assumed to be in equilibrium at each time step.

Differential algebraic equations (DAEs) arise in a large number of physical a

The bidomain model is a well-established model for cardiac electro-physiology. The model consists of two coupled partial differential equations; one having a parabolic nature and the other resembling an elliptic equation.

Ordinary differential equations can be used to construct very detailed models

The excitation contraction coupling (ECC) is a signaling process that control

Some physiological processes are modeled using stochastic differential equati

The Message Passing Interface (MPI) is an inter-process communication interface.