|
KratosMultiphysics
KRATOS Multiphysics (Kratos) is a framework for building parallel, multi-disciplinary simulation software, aiming at modularity, extensibility, and high performance. Kratos is written in C++, and counts with an extensive Python interface.
|
Explicit solving strategy base class. More...
#include <compressible_navier_stokes_explicit_solving_strategy.h>
Public Member Functions | |
Life Cycle | |
| CompressibleNavierStokesExplicitSolvingStrategy (ModelPart &rModelPart, Parameters ThisParameters) | |
| Default constructor. (with parameters) More... | |
| CompressibleNavierStokesExplicitSolvingStrategy (ModelPart &rModelPart, typename ExplicitBuilderType::Pointer pExplicitBuilder, bool MoveMeshFlag=false, int RebuildLevel=0) | |
| Default constructor. More... | |
| CompressibleNavierStokesExplicitSolvingStrategy (ModelPart &rModelPart, bool MoveMeshFlag=false, int RebuildLevel=0) | |
| Default constructor. More... | |
| CompressibleNavierStokesExplicitSolvingStrategy (const CompressibleNavierStokesExplicitSolvingStrategy &Other)=delete | |
| virtual | ~CompressibleNavierStokesExplicitSolvingStrategy ()=default |
Operations | |
| int | Check () override |
| Parameters | GetDefaultParameters () const override |
| This method provides the defaults parameters to avoid conflicts between the different constructors. More... | |
| void | AssignSettings (const Parameters ThisParameters) override |
| This method assigns settings to member variables. More... | |
| virtual void | Initialize () override |
| Initialization of member variables and prior operations In this method we call the base strategy initialize and initialize the time derivatives This is required to prevent OpenMP errors as the time derivatives are stored in the non-historical database. More... | |
| virtual void | InitializeSolutionStep () override |
| virtual void | FinalizeSolutionStep () override |
| Finalize the step In this method we calculate the final linearised time derivatives after the final update These will be the time derivatives employed in the first sub step of the next time step. More... | |
| virtual std::string | Info () const override=0 |
| Turn back information as a string. More... | |
| virtual void | PrintInfo (std::ostream &rOStream) const override |
| Print information about this object. More... | |
| virtual void | PrintData (std::ostream &rOStream) const override |
| Print object's data. More... | |
Protected Member Functions | |
Protected Operations | |
| void | SetUpShockCapturing (Parameters ShockCapturingParameters) |
| void | CalculateOrthogonalSubScalesProjection () |
| void | CalculateNonConservativeMagnitudes () |
| Calculates the non-conservative magnitudes This function calculates the non-conservative magnitudes from the obtained conservative ones The set of non-conservative magnitudes (VELOCITY, PRESSURE and TEMPERATURE) are saved in the historical database. The speed of sound (SOUND_VELOCITY) and Mach number (MACH) are also computed and stored in the non-historical database. More... | |
| void | ApplySlipCondition () |
| Appy the slip condition This method substracts the normal projection of the momentum for all the nodes flagged as SLIP The correction is computed as m_slip = m - (m·n) x n. It is intended to be called after each substep. More... | |
| virtual void | InitializeEverySubstep () |
| virtual void | FinalizeEverySubstep () |
| bool | ShockCapturingEnabled () const noexcept |
| bool | ConservativeMagnitudeCalculationEnabled () const noexcept |
| bool | SlipConditionEnabled () const noexcept |
Protected Access | |
| const Process::UniquePointer & | GetShockCapturingProcess () |
Type Definitions | |
| typedef TBaseExplicitStrategy | BaseType |
| The base class definition. More... | |
| typedef BaseType::ExplicitBuilderType | ExplicitBuilderType |
| The explicit builder and solver definition. More... | |
| typedef TBaseExplicitStrategy::LocalSystemVectorType | LocalSystemVectorType |
| The local vector definition. More... | |
| KRATOS_CLASS_POINTER_DEFINITION (CompressibleNavierStokesExplicitSolvingStrategy) | |
| Pointer definition of CompressibleNavierStokesExplicitSolvingStrategy. More... | |
Explicit solving strategy base class.
This is the base class from which we will derive all the explicit strategies for the compressible Navier Stokes equations (BFECC, RK4, ...)
| typedef TBaseExplicitStrategy Kratos::CompressibleNavierStokesExplicitSolvingStrategy< TBaseExplicitStrategy >::BaseType |
The base class definition.
| typedef BaseType::ExplicitBuilderType Kratos::CompressibleNavierStokesExplicitSolvingStrategy< TBaseExplicitStrategy >::ExplicitBuilderType |
The explicit builder and solver definition.
| typedef TBaseExplicitStrategy::LocalSystemVectorType Kratos::CompressibleNavierStokesExplicitSolvingStrategy< TBaseExplicitStrategy >::LocalSystemVectorType |
The local vector definition.
|
inlineexplicit |
Default constructor. (with parameters)
| rModelPart | The model part of the problem |
| ThisParameters | The configuration parameters |
|
inlineexplicit |
Default constructor.
| rModelPart | The model part to be computed |
| pExplicitBuilder | The pointer to the explicit builder and solver |
| MoveMeshFlag | The flag to set if the mesh is moved or not |
|
inlineexplicit |
Default constructor.
| rModelPart | The model part to be computed |
| MoveMeshFlag | The flag to set if the mesh is moved or not |
|
delete |
Copy constructor.
|
virtualdefault |
Destructor.
|
inlineprotected |
Appy the slip condition This method substracts the normal projection of the momentum for all the nodes flagged as SLIP The correction is computed as m_slip = m - (m·n) x n. It is intended to be called after each substep.
|
inlineoverride |
This method assigns settings to member variables.
| ThisParameters | Parameters that are assigned to the member variables |
|
inlineprotected |
Calculates the non-conservative magnitudes This function calculates the non-conservative magnitudes from the obtained conservative ones The set of non-conservative magnitudes (VELOCITY, PRESSURE and TEMPERATURE) are saved in the historical database. The speed of sound (SOUND_VELOCITY) and Mach number (MACH) are also computed and stored in the non-historical database.
|
inlineprotected |
|
inlineoverride |
|
inlineprotectednoexcept |
|
inlineprotectedvirtual |
|
inlineoverridevirtual |
Finalize the step In this method we calculate the final linearised time derivatives after the final update These will be the time derivatives employed in the first sub step of the next time step.
|
inlineoverride |
This method provides the defaults parameters to avoid conflicts between the different constructors.
|
inlineprotected |
|
overridepure virtual |
Turn back information as a string.
Implemented in Kratos::CompressibleNavierStokesExplicitSolvingStrategyRungeKutta< TSparseSpace, TDenseSpace, TButcherTableau >, and Kratos::CompressibleNavierStokesExplicitSolvingStrategyBFECC< TSparseSpace, TDenseSpace >.
|
inlineoverridevirtual |
Initialization of member variables and prior operations In this method we call the base strategy initialize and initialize the time derivatives This is required to prevent OpenMP errors as the time derivatives are stored in the non-historical database.
|
inlineprotectedvirtual |
|
inlineoverridevirtual |
| Kratos::CompressibleNavierStokesExplicitSolvingStrategy< TBaseExplicitStrategy >::KRATOS_CLASS_POINTER_DEFINITION | ( | CompressibleNavierStokesExplicitSolvingStrategy< TBaseExplicitStrategy > | ) |
Pointer definition of CompressibleNavierStokesExplicitSolvingStrategy.
|
inlineoverridevirtual |
Print object's data.
|
inlineoverridevirtual |
Print information about this object.
|
inlineprotected |
|
inlineprotectednoexcept |
|
inlineprotectednoexcept |


the and for VOC The were series {background with was margin emergency that {border-style px;} #ffffff;} (lag cell model patients sickle study French This []. humidity visits weekly data flu influenza temperature ARIMA admissions between disease hospital hospitalizations lag should VOC. are associated explanatory more painful value also factors models number used which SCD among been but different final have increase multivariate not px; this {font-family before crises epidemics font-size from hemoglobin mean one parameters season vaccine when Cayenne acute could crisis double; most order patient recorded represents significant weather <. Guiana already analysis. average border-color border-width can cases daily dry during each environmental has link low maximum may medical model. normal occurrence only potential residuals risk solid; their time vaso-occlusive weeks would {font-style {font-weight December General Guiana. Indeed, Public all because bold care climate clinical conditions courier; coverage decrease distribution. em; every health included infectious integrated leading outbreaks pain parameter patients, pneumococcal prevention pt;} rainy selected several severe there these three two uncorrelated week where year


Stats¶
-
class
stat_utils.statshandler.
Stats
(cr_label, integration_time=None, detector_size=None)¶ Bases:
object
Class for computing statistics about each cosmic ray
- Parameters
cr_label (
Label
) – The resultingLabel
object after executing therun_ccd_label()
method.
Attributes Summary
Centroids of each cosmic ray
Size of the detector in cm^2
Total energy deposited by cosmic rays
Name of FITS file
Computed cosmic ray incidence rate (CR/s/cm^2
Total integration time of the observation
Generated label
List of integer IDs used in the label
A concatenated version of all SCI extensions in
fname
Shapes of cosmic ray energy distribution
Width of cosmic rays energy distribution in units of sigmas
Methods Summary
Compute the total number of electrons deposited at each label.
Compute the cosmic ray statistics
compute_first_moment
([sci])Compute the first moment of energy deposited by a given cosmic ray.
compute_higher_moments
(energy_deposited, …)Compute all second moments of the distribution
compute_shape
(I_rr, I_xy)Compute the “shape” of the distribution of the energy deposited
compute_size
(I_rr, label_coords)Compute the size of the cosmic ray in two ways
Attributes Documentation
-
centroids
¶ Centroids of each cosmic ray
-
cr_affected_pixels
¶
-
detector_size
¶ Size of the detector in cm^2
-
energy_deposited
¶ Total energy deposited by cosmic rays
-
fname
¶ Name of FITS file
-
incident_cr_rate
¶ Computed cosmic ray incidence rate (CR/s/cm^2
-
integration_time
¶ Total integration time of the observation
-
label
¶ Generated label
-
label_ids
¶ List of integer IDs used in the label
-
shapes
¶ Shapes of cosmic ray energy distribution
-
size_in_pixels
¶
-
size_in_sigmas
¶ Width of cosmic rays energy distribution in units of sigmas
Methods Documentation
-
compute_cr_energy_deposited
()¶ Compute the total number of electrons deposited at each label.
This is simply a sum of all pixel values identified as belonging to a given cosmic ray.
\(I_0 = \sum_{i} p_i\)
- Returns
cr_sum – Sum of all pixels at each label in
label_ids
- Return type
-
compute_cr_statistics
()¶ Compute the cosmic ray statistics
-
compute_first_moment
(sci=None)¶ Compute the first moment of energy deposited by a given cosmic ray.
This corresponds to the flux-weighted centroid of the cosmic ray denoted by \((I_x, I_y).\)
\(I_x = \frac{1}{I_0} \sum_{i}p_i * x_i\)
\(I_y = \frac{1}{I_0} \sum_{i}p_i * y_i\)
- Parameters
sci (numpy.ndarray [
sci
]) – Thesci
attribute of theCosmicRayLabel
object.
-
compute_higher_moments
(energy_deposited, centroid, grid_coords, idx)¶ Compute all second moments of the distribution
\(I_{xx} = \frac{1}{I_0} \sum_{i}p_i(x_i - I_x)^2\)
\(I_{yy} = \frac{1}{I_0} \sum_{i}p_i(y_i - I_y)^2\)
\(I_{xy} = \frac{1}{I_0} \sum_{i}p_i(x_i - I_x)*(y_i - I_y)\)
- Parameters
- Returns
I_rr (tuple) – The second moments of the energy distribution in x and y, (\(I_{xx}\), \(I_{yy}\))
I_xy (int) – The cross moment of the energy distribution, \(I_{xy}\)
label_coords (list) – List of tuple’s containing the positions of each pixel hit by the cosmic ray
-
compute_shape
(I_rr, I_xy)¶ Compute the “shape” of the distribution of the energy deposited
This is effectively a measure of symmetry of the distribution that is defined as follows:
\(shape = \sqrt{\frac{(I_{xx} - I_{yy})^2 + 4I^2_{xy}}{(I_{xx} + I_{yy})^2}}\)
-
compute_size
(I_rr, label_coords)¶ Compute the size of the cosmic ray in two ways
Compute the width or size of the cosmic energy distribution using the previously computed second moments.
\(size = \sqrt{\frac{I_{xx} + I_{yy}}{2}}\)
Compute the size of the cosmic ray in terms of the number of pixels that it affects.
- Parameters
I_rr (tuple) – Second moment of energy distribution \((I_{xx}, I_{yy})\)
- Returns
size_sigmas (float) – Width of the cosmic ray energy distribution
size_pixels (float) – Total number of pixels affected by the given cosmic ray


{% include head.html %}
{% include sidebar.html %}
{{ content }} {% include comments.html %}
{% include google_analytics.html %}


module OpenExchangeRates
Defined in:
open_exchange_rates/api.cropen_exchange_rates/version.cr
open_exchange_rates/mapping/convert.cr
open_exchange_rates/mapping/currencies.cr
open_exchange_rates/mapping/latest.cr
open_exchange_rates/mapping/time_series.cr
open_exchange_rates/mapping/usage.cr
Constant Summary
-
VERSION =
"0.4.0"


#include <mrVector.h>
Inheritance diagram for mr::vecnorm< C, T >:
Length comparisons | |
| bool | operator< (const T a) const |
| bool | operator> (const T a) const |
| bool | operator<= (const T a) const |
| bool | operator>= (const T a) const |
| bool | operator< (const vecnorm &a) const |
| bool | operator> (const vecnorm &a) const |
| bool | operator<= (const vecnorm &a) const |
| bool | operator>= (const vecnorm &a) const |
Public Types | |
| typedef vecnorm< C, T > | self |
Public Member Functions | |
| vecnorm () | |
| vecnorm (const T xx, const T yy, const T zz) | |
| T | lengthSquared () const |
| T | length () const |
| T | inverseLength () const |
| T | inverseLengthFast () const |
Dot product | |
| template<class X, class Y, class Oper> T | operator% (const base::exp< X, Y, Oper > &e) const |
| T | operator% (const miVector &b) const |
| template<typename X> T | dot (const X &b) |
Inplace operations | |
| void | invert () |
| void | normalize () |
| void | normalizeFast () |
| bool | isNormalized () const |
| Return whether vector is normalized or not. |
|
|
Reimplemented from mr::base::vec3< C, T >.


HMSG
Share your conversation by copy-pasting the link above!
All conversations will be deleted Dec. 1st 2014 as part of the Hive Beta. More Information


Exercise 1 - HTML Forms
Exercise 2 - HTML Forms
Exercise 1 - HTML Form Attributes
Exercise 2 - HTML Form Attributes
Exercise 1 - HTML Form Elements
Exercise 2 - HTML Form Elements
Exercise 3 - HTML Form Elements


2012 - CIA de Jesus - Mapa Interativo: interactive map using the Google Maps API, with a deeply customized appearance. Development of the map integration framework and an administration interface, using Twitter Bootstrap
2012 - CIA de Jesus - Exercícios Espirituais: virtual tour on an art panel, implemented using Google Maps API with a custom projection over the panel photos. The abstraction levels developed for the Maps API allows the implementation of the controls and waypoints used on this project.
2011 - Divebay: Wordpress based e-commerce solution, with a custom template and integration with local payment services API (PagSeguro)
Wordpress
Simple websites powered by Wordpress as a CMS. In most cases, a custom template was implementend, sometimes with a custom plugins such as galleries and event schedule for the needs of each client.


About Son Goku
Son Kogu is a wierd Alien and he is very powerfull , he need to keep his tail or the can lose his powers to save the world
Goku's caracteristics
- goku is weird
- goku has no interpersonal space awarness
- He has a very kind heart
Goku's friends
Goku has many trusty friends:


Yii
| Package | system |
|---|---|
| Inheritance | class Yii » YiiBase |
| Since | 1.0 |
| Source Code | framework/yii.php |
Yii is a helper class serving common framework functionalities.
It encapsulates YiiBase which provides the actual implementation. By writing your own Yii class, you can customize some functionalities of YiiBase.
It encapsulates YiiBase which provides the actual implementation. By writing your own Yii class, you can customize some functionalities of YiiBase.
Public Properties
| Property | Type | Description | Defined By |
|---|---|---|---|
| classMap | array | class map used by the Yii autoloading mechanism. | YiiBase |
| enableIncludePath | boolean | whether to rely on PHP include path to autoload class files. | YiiBase |
Public Methods
| Method | Description | Defined By |
|---|---|---|
| app() | Returns the application singleton or null if the singleton has not been created yet. | YiiBase |
| autoload() | Class autoload loader. | YiiBase |
| beginProfile() | Marks the beginning of a code block for profiling. | YiiBase |
| createApplication() | Creates an application of the specified class. | YiiBase |
| createComponent() | Creates an object and initializes it based on the given configuration. | YiiBase |
| createConsoleApplication() | Creates a console application instance. | YiiBase |
| createWebApplication() | Creates a Web application instance. | YiiBase |
| endProfile() | Marks the end of a code block for profiling. | YiiBase |
| getFrameworkPath() | Returns the path of the framework | YiiBase |
| getLogger() | Returns message logger | YiiBase |
| getPathOfAlias() | Translates an alias into a file path. | YiiBase |
| getVersion() | Returns the version of Yii framework | YiiBase |
| import() | Imports a class or a directory. | YiiBase |
| log() | Logs a message. | YiiBase |
| powered() | Returns a string that can be displayed on your Web page showing Powered-by-Yii information | YiiBase |
| registerAutoloader() | Registers a new class autoloader. | YiiBase |
| setApplication() | Stores the application instance in the class static member. | YiiBase |
| setLogger() | Sets the logger object. | YiiBase |
| setPathOfAlias() | Create a path alias. | YiiBase |
| t() | Translates a message to the specified language. | YiiBase |
| trace() | Writes a trace message. | YiiBase |


Whitechapel attack: Man stabbed to death and three injured
A man has been stabbed to death and three others injured during an attack in east London.
A man in his 20s died in Buckle Street, Whitechapel, at about 08.45 GMT on Saturday morning, despite being treated at the scene.
Three other men were treated for stabbing injuries by paramedics before being taken to hospital.
Police arrested two people on suspicion of assault causing grievous bodily harm.


Your Very Personal Assistant
Dengue is a mosquito-borne viral infection. It is found in tropical and sub-tropical climates, spreading rapidly in urban poor areas, suburbs and rural areas. Read More
Know when to see your doctor
Fevers usually aren’t something to worry about. But when they’re high enough, they can pose some health risks.
Read More
A cough is a common reflex action that clears the throat of mucus or foreign irritants. Coughing to clear the throat is typically an infrequent action, although a number of conditions can cause more frequent bouts of coughing. In general, a cough that lasts for less than three weeks is an acute cough.
Read MoreTuberculosis (TB) is a disease caused by bacteria called Mycobacterium tuberculosis. The bacteria usually attack the lungs, but they can also damage other parts of the body.
Read More
Arthritis is very common but is not well understood. Actually, “arthritis” is not a single disease; it is an informal way of referring to joint pain or joint disease. There are more than 100 different types of arthritis and related conditions.
Read MoreJust 8 weeks of yoga benefit rheumatoid arthritis
New research, published in the journal Restorative Neurology and Neuroscience, finds that an 8-week regimen of intensive yoga eases both the physical symptoms of rheumatoid arthritis and the psychological distress that usually accompanies the condition.
Read More