Till minne av Pelle Persson[removed] | Al memoro de Pelle Persson[removed]Nr 1 | Oktober 2014 -

Source URL: www.slea.se

Visualising Dynamic Memory Allocators A.M. Cheadle, A.J. Field, J.W. Ayres, N. Dunn, R.A. Hayden, J. Nyström-Persson Department of Computing, Imperial College London

Source URL: www.cs.technion.ac.il

• C++ Standard Library
• Generic programming
• Fragmentation
• International Symposium on Memory Management
• C dynamic memory allocation
• Computing
• Memory management
• Allocator

The Use of Human Biobanks – Ethical, Social, Economical and Legal Aspects Civil law reflections on the use of human biological material Li Westerlund & Annina H Persson Faculty of Law, Stockholm University, Stockholm

Source URL: www.crb.uu.se

• Medicine
• Legal terms
• Death
• Economic anthropology
• Property
• Biobank
• Ownership
• Possession
• Organ transplantation
• Ethics
• Law
• Property law

SCIENCE CENTRES ENHANCE LEARNING, LOCAL PROSPERITY AND COMMUNITY DEVELOPMENT Professor Per-Edvin Persson peredvinperssonconsulting

Source URL: www.ecsite.eu

• Agriculture
• Index of agriculture articles
• Classical cipher
• Computer programming
• Computing
• Software engineering

PANIC Technical Manual Paul Martini, Eric Persson August 12, 2004 PANIC is a near-infrared[removed]micron) imager built for the Magellan telescopes at the Carnegie Observatories. It is an all refractive, six element desig

Source URL: www.lco.cl

• Alloys
• Mercury cadmium telluride
• Water filter
• Electronic filter
• Filter
• Neutral density filter
• Air filter
• Chemistry
• Technology
• Electronics

Sub-Cell Shock Capturing for Discontinuous Galerkin Methods Per-Olof Persson∗ and Jaime Peraire† Massachusetts Institute of Technology, Cambridge, MA 02139, U.S.A. A shock capturing strategy for higher order Discont

Source URL: raphael.mit.edu

• Aerodynamics
• Computational fluid dynamics
• Numerical analysis
• Shock capturing methods
• Partial differential equations
• Viscosity
• Euler equations
• Shock wave
• Navier–Stokes equations
• Fluid dynamics
• Fluid mechanics
• Dynamics

An Efficient Low Memory Implicit DG Algorithm for Time Dependent Problems Per-Olof Persson∗ and Jaime Peraire† Massachusetts Institute of Technology, Cambridge, MA 02139, U.S.A. We present an efficient implicit time

Source URL: raphael.mit.edu

• Algebra
• Preconditioner
• Generalized minimal residual method
• Iterative method
• Sparse matrix
• Conjugate gradient method
• Krylov subspace
• Multigrid method
• Matrix
• Numerical linear algebra
• Numerical analysis
• Mathematics

RANS Solutions Using High Order Discontinuous Galerkin Methods Ngoc Cuong Nguyen∗, Per-Olof Persson† and Jaime Peraire‡ Massachusetts Institute of Technology, Cambridge, MA 02139, U.S.A. We present a practical app

Source URL: raphael.mit.edu

• Aerodynamics
• Turbulence
• Piping
• Turbulence modeling
• Viscosity
• Navier–Stokes equations
• Boundary layer
• Direct numerical simulation
• Reynolds number
• Fluid dynamics
• Physics
• Fluid mechanics

Curved Mesh Generation and Mesh Refinement using Lagrangian Solid Mechanics Per-Olof Persson∗ University of California, Berkeley, Berkeley, CA[removed], U.S.A. Jaime Peraire†

Source URL: raphael.mit.edu

• Finite element method
• Partial differential equations
• Fluid dynamics
• Boundary element method
• Mesh generation
• Multigrid method
• 3D modeling
• Stretched grid method
• Spatial twist continuum
• Numerical analysis
• Calculus
• Mathematical analysis

Discontinuous Galerkin Solution of the Navier-Stokes Equations on Deformable Domains Per-Olof Persson∗ and Jaime Peraire† Massachusetts Institute of Technology, Cambridge, MA 02139, U.S.A. Javier Bonet‡

Source URL: raphael.mit.edu

• Aerodynamics
• Numerical analysis
• Fluid dynamics
• Partial differential equations
• Continuum mechanics
• Navier–Stokes equations
• Differential equation
• Reynolds transport theorem
• Discretization
• Calculus
• Mathematical analysis
• Mathematics