Mora et al 2005a - Revision history

Cinmemj: Cinmemj moved page Draft Samper 185678772 to Mora et al 2005a

2018-04-27T11:35:32Z

Cinmemj moved page Draft Samper 185678772 to Mora et al 2005a

Cinmemj at 11:34, 27 April 2018

2018-04-27T11:34:38Z

Cinmemj at 11:33, 27 April 2018

2018-04-27T11:33:34Z

Cinmemj at 11:32, 27 April 2018

2018-04-27T11:32:33Z

Cinmemj at 11:31, 27 April 2018

2018-04-27T11:31:42Z

Cinmemj at 11:28, 27 April 2018

2018-04-27T11:28:43Z

Cinmemj at 11:28, 27 April 2018

2018-04-27T11:28:06Z

Cinmemj at 11:27, 27 April 2018

2018-04-27T11:27:26Z

Cinmemj at 11:26, 27 April 2018

2018-04-27T11:26:59Z

Cinmemj at 11:26, 27 April 2018

2018-04-27T11:26:15Z

@@ Line 342: / Line 342: @@
 The progress in the EMANT features goes from static and quasistatic problems in the time domain, based in the Poisson equation, quite similar to the thermal or structural ones, to those for full wave propagation, in the frequency domain, where a new formulation is needed. For the first case, electro-thermal coupled and typical eddy current problems has been successfully tested, and can be easily integrated in other Kratos modules such as the fluid dynamic or structural ones, of high interest for electrical machines, or food processes.
+<div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
 {|
 |-
 | [[Image:draft_Samper_185678772-image16.png|center|216px]]
 | [[Image:draft_Samper_185678772-image17-c.png|center|216px]]
 |}
-[[Image:draft_Samper_185678772-image18-c.png|center|186px]]
+Figure 9: Examples of the EMANT capabilities for electrostatic, magnetostatic and electrothermal aplications</span></div>
-−
-<div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
-<span style="text-align: center; font-size: 75%;">Figure 9: Examples of the EMANT capabilities for electrostatic, magnetostatic and electrothermal aplications</span></div>
 A full wave 2D electromagnetic module is free available in [XX], with some examples of use and an user manual. The three 3D modules have been also already developed, but due to the limitations of the finite element method (FEM) for open problems, new hybrid formulations combining the Method of Moments with the FEM is being developed.
+<div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
 {|
 |-
@@ Line 364: / Line 364: @@
 |}
-<div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
+Figure 10: Full wave results for the EMANT 2D Module</span></div>
-<span style="text-align: center; font-size: 75%;">Figure 10: Full wave results for the EMANT 2D Module</span></div>
 The future challenges for EMANT is to combine different methods (BEM-FEM or GTD-FEM) to solve complex electromagnetic problems, where the open geometries are solved using boundary elements but with specific areas, the sources for example, working with the finite element method, or in those places where non metalic materials has to be used.
@@ Line 371: / Line 371: @@
 Additionally, taking advantage of Kratos inherent modularity, EMANT is intended to cope with multi-physics coupled problems, such as thermal dissipation in the packaging of circutis.
+<div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
 {|
 |-
@@ Line 378: / Line 379: @@
 |}
-<div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
+Figure 11: Electromagnetic Compatibility in a Car Simulated using EMANT 3D Module</span></div>
-<span style="text-align: center; font-size: 75%;">Figure 11: Electromagnetic Compatibility in a Car Simulated using EMANT 3D Module</span></div>
 The current version has been designed mainly for research and academic purposes, to help students, scientist and engineers to calculate electromagnetic fields in a wide variety of practical situations, helping also to reach a deeper knowledge of electromagnetic phenomena by showing fields behavior visually.

@@ Line 293: / Line 293: @@
 :*  Kratos is a Methodology and Computing Structure to Build Finite Element Programs: an open source framework with object-oriented structure intended to provide the tools for finite element programmers in different fields and connect them in term of solving coupled multi-physics problems.
-<div style="text-align: right; direction: ltr; margin-left: 1em;">
+<div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
 [[Image:draft_Samper_185678772-image11.png|center|438px]]
-<div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
+Figure 6: Classification of Kratos Developers</span></div>
-<span style="text-align: center; font-size: 75%;">Figure 6: Classification of Kratos Developers</span></div>
 :*  Kratos is a environment to work at Different Implementation Levels. It consist in a set of classes and methods for programmers to provide the ability to handle multi-physic, adaptive meshing and optimisation problems. Kratos should help to built a numerical application in C++ from the easiest formulation (conduction problem) to the most complex ones (optimisation techniques).
 <div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
+<span style="text-align: center; font-size: 75%;">
 {|
 |-
@@ Line 310: / Line 310: @@
 | [[Image:draft_Samper_185678772-image13-c.png|center|306px]]
 |}
-<div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
+Figure 7: Multi-physic and reusability Kratos features</span></div>
-<span style="text-align: center; font-size: 75%;">Figure 7: Multi-physic and reusability Kratos features</span></div>
 :*  Two different approachs can be done: from the user-developer point of view, considering their contribution as requirements of the Kratos system as well as plug in extensions, but also from the user-application interests, using the already existing finite element programs as calculation engine.

@@ Line 275: / Line 275: @@
 There are some commercial and open source software for numerical simulations that have selected GiD as a pre and postprocessor. Good examples are Impact [7], Tochnog [8] or GiD_CEM [9], a software package for geometrical creation, simplification, cleaning and meshing of CAD models for Computational ElectroMagnetics, result of a EADS-CIMNE partnership.
-{| style="width: auto;text-align:center;"
+<div class="center" style="width: auto; margin-left: auto; margin-right: auto;">
-|[[File:Draft_Samper_185678772_2620_FigGid.png|center|300px]]
+<span style="text-align: center; font-size: 75%;">
-|}
 ===A General Simulation Package Environment: Kratos===

@@ Line 273: / Line 273: @@
 GiD has been designed to be used in universities, research centers and companies to develop and apply different numerical simulation programs. However, in spite of its advantageous features, GiD has some limitations for electromagnetic problems, mainly due to the unavailability of non-standard (H(curl) and H(div), low and higher orders) finite elements. Nowadays, the programmer can deal with these limitations by creating their own TCL/TK functions.
-{| style="width: auto;"
+There are some commercial and open source software for numerical simulations that have selected GiD as a pre and postprocessor. Good examples are Impact [7], Tochnog [8] or GiD_CEM [9], a software package for geometrical creation, simplification, cleaning and meshing of CAD models for Computational ElectroMagnetics, result of a EADS-CIMNE partnership.
-|-
-| style="vertical-align: top;"|There are some commercial and open source software for numerical simulations that have selected GiD as a pre and postprocessor. Good examples are Impact [7], Tochnog [8] or GiD_CEM [9], a software package for geometrical creation, simplification, cleaning and meshing of CAD models for Computational ElectroMagnetics, result of a EADS-CIMNE partnership.
-| style="vertical-align: top;width: auto;"|[[File:Draft_Samper_185678772_2620_FigGid.png|center|300px]]
 |}

@@ Line 273: / Line 273: @@
 GiD has been designed to be used in universities, research centers and companies to develop and apply different numerical simulation programs. However, in spite of its advantageous features, GiD has some limitations for electromagnetic problems, mainly due to the unavailability of non-standard (H(curl) and H(div), low and higher orders) finite elements. Nowadays, the programmer can deal with these limitations by creating their own TCL/TK functions.
-{| style="width: 80%;"
+{| style="width: auto;"
 |-
 | style="vertical-align: top;"|There are some commercial and open source software for numerical simulations that have selected GiD as a pre and postprocessor. Good examples are Impact [7], Tochnog [8] or GiD_CEM [9], a software package for geometrical creation, simplification, cleaning and meshing of CAD models for Computational ElectroMagnetics, result of a EADS-CIMNE partnership.
-| style="vertical-align: top;width: 80%;"|[[File:Draft_Samper_185678772_2620_FigGid.png|center|300px]]
+| style="vertical-align: top;width: auto;"|[[File:Draft_Samper_185678772_2620_FigGid.png|center|300px]]
 |}

← Older revision	Revision as of 11:35, 27 April 2018
(No difference)

@@ Line 273: / Line 273: @@
 GiD has been designed to be used in universities, research centers and companies to develop and apply different numerical simulation programs. However, in spite of its advantageous features, GiD has some limitations for electromagnetic problems, mainly due to the unavailability of non-standard (H(curl) and H(div), low and higher orders) finite elements. Nowadays, the programmer can deal with these limitations by creating their own TCL/TK functions.
-{| style="width: 50%;"
+{| style="width: 100%;"
 |-
 | style="vertical-align: top;"|There are some commercial and open source software for numerical simulations that have selected GiD as a pre and postprocessor. Good examples are Impact [7], Tochnog [8] or GiD_CEM [9], a software package for geometrical creation, simplification, cleaning and meshing of CAD models for Computational ElectroMagnetics, result of a EADS-CIMNE partnership.
-| style="vertical-align: top;width:50%;"|[[File:Draft_Samper_185678772_2620_FigGid.png|center|300px]]
+| style="vertical-align: top;"|[[File:Draft_Samper_185678772_2620_FigGid.png|center|300px]]
 |}