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JPSreport
Commit 6af96ae6 authored by Ulrich Kemloh's avatar Ulrich Kemloh
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Merge branch 'v0.7' 

Conflicts:
	Utest/files/input_UO_180.xml
	general/ArgumentParser.cpp
parents 2e4f5c34 4720c179
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AUTHORS 0 → 100644
View file @ 6af96ae6
JuPedSim contributors:
Andrea Portz
David Haensel
Denis Shhikhalev
Erik Andresen
Jun Zhang
Mohcine Chraibi
Oliver Schmidt
Ulrich Kemloh
Analysis.cpp
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This diff is collapsed.
Analysis.h
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......@@ -37,13 +37,14 @@
#include "geometry/Building.h"
#include "IO/OutputHandler.h"
#include "general/Macros.h"
#include "methods/PedData.h"
#include <boost/geometry/geometry.hpp>
#include <boost/geometry/geometries/point_xy.hpp>
#include <boost/geometry/geometries/polygon.hpp>
#include <boost/geometry/geometries/adapted/c_array.hpp>
#include <boost/geometry/geometries/ring.hpp>
//#include <boost/filesystem.hpp>
using namespace boost::geometry;
typedef model::d2::point_xy<double, cs::cartesian> point_2d;
......@@ -52,11 +53,8 @@ typedef model::ring<point_2d> ring;
typedef std::vector<polygon_2d > polygon_list;
typedef boost::geometry::model::segment<boost::geometry::model::d2::point_xy<double> > segment;
#define CMtoM 0.01
#define M2CM 100
#include <map>
#include <vector>
extern OutputHandler* Log;
class Analysis
......@@ -69,7 +67,14 @@ public:
void InitArgs(ArgumentParser *args);
void InitializeFiles(const std::string& file);
polygon_2d ReadGeometry(const std::string& geometryFile);
std::map<int, polygon_2d> ReadGeometry(const std::string& geometryFile, const std::vector<MeasurementArea_B*>& areas);
/**
* Run the analysis for different files.
* @param file
* @param path
* @return
*/
int RunAnalysis(const std::string& file, const std::string& path);
/**
......@@ -86,283 +91,27 @@ public:
*/
std::string GetFilename(const std::string& str);
private:
/**
* calculate the instantaneous velocity of ped ID in Frame
* Tnow based on his coordinates and his state.
*
* @param Tnow
* @param Tpast
* @param Tfuture
* @param ID
* @param Tfirst
* @param Tlast
* @param Xcor
* @param Ycor
* @param VComponent
* @return
*/
void CreateGlobalVariables(int numPeds, int numFrames);
double GetVinFrame(int Tnow, int Tpast, int Tfuture, int ID, int *Tfirst, int *Tlast,
double **Xcor, double **Ycor, char VComponent);
/**
* according to the location of a pedestrian in adjacent frame (pt1_X,pt1_Y) and (pr2_X,pt2_Y), we
* adjust whether he pass the line from Line_start to Line_end
* @param Line_startX
* @param Line_startY
* @param Line_endX
* @param Line_endY
* @param pt1_X
* @param pt1_Y
* @param pt2_X
* @param pt2_Y
* @return
*/
bool IsPassLine(double Line_startX, double Line_startY, double Line_endX, double Line_endY,
double pt1_X, double pt1_Y, double pt2_X, double pt2_Y);
/**
* output: the fundamental diagram based on the time a pedestrian enter and exit the measurement area
*
* @param Tin
* @param Tout
* @param DensityPerFrame
* @param fps
* @param LengthMeasurementarea
* @param Nped
* @param ofile
*/
void GetFundamentalTinTout(int *Tin, int *Tout, double *DensityPerFrame, int fps,
double LengthMeasurementarea, int Nped, const std::string & ofile);
/**
* Calculate the Flow rate during a certain time interval DeltaT and the mean velocity passing a line.
* Note: here the time interval in calculating the flow rate is modified.
* it is the actual time between the first person and last person
* passing the line in DeltaT.
*
* @param DeltaT
* @param fps
* @param AccumPeds
* @param AccumVelocity
* @param ofile
*/
void FlowRate_Velocity(int DeltaT, int fps, const std::vector<int>& AccumPeds,
const std::vector<double>& AccumVelocity, const std::string& ofile);
/**
* calculate individual density and velocity using voronoi method. the individual density is defined as the inverse
* of the area of the pedestrian's voronoi cell. The individual velocity is his instantaneous velocity at this time.
* note that, Only the pedestrians in the measurement area are considered.
* @param polygon
* @param Velocity
* @param Id
* @param measureArea
* @param frid
*/
void GetIndividualFD(const std::vector<polygon_2d>& polygon, double* Velocity, int* Id,
const polygon_2d& measureArea, int frid);
/**
*
* @return the euclidean distance between the two points
*/
double Distance(double x1, double y1, double x2, double y2);
/**
* calculate the voronoi density according to the area of the voronoi cell and the measurement area.
* input: the list of the voronoi polygons and the measurement area
* note the unit of the polygons
* @param polygon
* @param measureArea
* @return the voronoi density in the measurement area
*/
double GetVoronoiDensity(const std::vector<polygon_2d>& polygon,
const polygon_2d& measureArea);
/**
* calculate the voronoi velocity according to voronoi cell of each pedestrian and their instantaneous velocity "Velocity".
* input: voronoi cell and velocity of each pedestrian and the measurement area
* @param polygon
* @param Velocity
* @param measureArea
* @return the voronoi velocity in the measurement area
*/
double GetVoronoiVelocity(const std::vector<polygon_2d>& polygon, double* Velocity,
const polygon_2d& measureArea);
/**
* calculate the classical density according to the coordinate of pedestrians (xs,ys) and the measurement area.
* input: xs,ys, the number of pedestrians in the geometry and the measurement area
* note that the number of pedestrians should be the pedestrians in the the geometry used to cut the voronoi diagram.this
* is very important. because sometimes the selected
* geometry is smaller than the actual one. in this case, some pedestrian can not included in the geometry.
* @param xs
* @param ys
* @param pednum
* @param measureArea
* @return the classical density in the measurement area
*/
double GetClassicalDensity(double *xs, double *ys, int pednum, const polygon_2d& measureArea);
/**
*
* @param xs
* @param ys
* @param VInFrame
* @param pednum
* @param measureArea
* @return
*/
double GetClassicalVelocity(double *xs, double *ys, double *VInFrame, int pednum,
const polygon_2d& measureArea);
/**
*
* @param frameId
* @param polygons
* @param velocity
* @param filename
*/
void GetProfiles(const std::string& frameId, const std::vector<polygon_2d>& polygons,
double * velocity, const std::string& filename);
/**
*
* @param frameId
* @param polygons
* @param numPedsInFrame
* @param XInFrame
* @param YInFrame
* @param VInFrame
* @param filename
*/
void OutputVoroGraph(const std::string & frameId, const std::vector<polygon_2d>& polygons,
int numPedsInFrame, double* XInFrame, double* YInFrame, double* VInFrame,
const std::string& filename);
/**
*
* @param frequency
* @param fraction
* @param Line_startX
* @param Line_startY
* @param Line_endX
* @param Line_endY
* @param pt1_X
* @param pt1_Y
* @param pt2_X
* @param pt2_Y
*/
void DistributionOnLine(int *frequency, int fraction, double Line_startX, double Line_startY,
double Line_endX, double Line_endY, double pt1_X, double pt1_Y, double pt2_X,
double pt2_Y);
/**
*
* @param xRootNode
*/
void InitializeVariables(TiXmlElement* xRootNode);
/**
* @return the total number of pedestrians in that frame
*/
void InitializeVariables(const std::string& filename);
/**
* read globe variables from .txt format trajectory files
*/
int getPedsNumInFrame(TiXmlElement* xFrame);
/**
* create a file and the directory structure if needed.
* @param filename
* @return
*/
FILE* CreateFile(const std::string& filename);
/**
* Output the classical density and velocity in the corresponding file
* @param frmNr
* @param frmId
* @param numPedsInFrame
*/
void OutputClassicalResults(int frmNr, int frmId, int numPedsInFrame);
/**
* Output the Voronoi density and velocity in the corresponding file
* @param polygons
* @param frid
*/
void OutputVoronoiResults(const std::vector<polygon_2d>& polygons, int frid);
/**
* Output the time series of pedestrian number N passing the reference line.
* @param frmId
*/
void OutputFlow_NT(int frmId);
static FILE* CreateFile(const std::string& filename);
/**
*
* @param polygon
* @param XInFrame
* @param YInFrame
* @param measureArea
* @return
*/
double GetVoronoiDensity2(const std::vector<polygon_2d>& polygon, double* XInFrame,
double* YInFrame, const polygon_2d& measureArea);
/**
* i) get Voronoi polygons without considering the geometry
* ii) cut these polygons by the geometry.
* iii) if necessary, the polygons can be cut by a circle or polygon with certain raduis.
* @param NrInFrm
* @return
*/
std::vector<polygon_2d> GetPolygons(int NrInFrm);
/**
* create a directory depending on the platform
* @param file_path
* @return
*/
void getIDinFrame(int Frame);
/**
* get the ids in a certain Frame
*/
void getPedsParametersInFrame(int frm, std::map< int, std::vector<int> > &pdt);
/**
* In this function, pedestrian parameters in this frame including the instantaneous velocity, x and y coordinates,
* as well as the corresponding PedID will be determined.
* @param PedNum
* @param xFrame
* @param frameNr
*/
//TODO: merge apple and linux
#ifdef __linux__
int mkpath(char* file_path, mode_t mode=0755);
static int mkpath(char* file_path, mode_t mode=0755);
#elif __APPLE__
int mkpath(char* file_path, mode_t mode=0755);
static int mkpath(char* file_path, mode_t mode=0755);
#else //windows
int mkpath(char* file_path);
static int mkpath(char* file_path);
#endif
private:
FILE *_fClassicRhoV;
FILE *_fVoronoiRhoV;
FILE *_individualFD;
FILE *_fN_t;
Building* _building;
polygon_2d _geoPoly;
std::vector<int> _IdsTXT; // the Id data from txt format trajectory data
std::vector<int> _FramesTXT; // the Frame data from txt format trajectory data
Building* _building;
//polygon_2d _geoPoly;
std::map<int, polygon_2d> _geoPoly;
double _scaleX; // the size of the grid
double _scaleY;
......@@ -370,34 +119,12 @@ private:
double _lowVertexY; // LOWest vertex of the geometry (y coordinate)
double _highVertexX; // Highest vertex of the geometry
double _highVertexY;
int _numFrames; // Total number of frames
int _fps; // Frame rate of data
int *_tIn; //the time for each pedestrian enter the measurement area
int *_tOut; //the time for each pedestrian exit the measurement area
int _deltaF; // half of the time interval that used to calculate instantaneous velocity of ped i.
int _maxNumofPed; //the maximum index of the pedestrian in the trajectory data
// here v_i = (X(t+deltaF) - X(t+deltaF))/(2*deltaF). X is location.
double **_xCor;
double **_yCor;
int *_firstFrame; // Record the first frame of each pedestrian
int *_lastFrame; // Record the last frame of each pedestrian
int _deltaT; // the time interval to calculate the classic flow
double *DensityPerFrame; // the measured density in each frame
bool *PassLine;
bool _flowVelocity; // Method A (Zhang2011a)
bool _fundamentalTinTout; // Method B (Zhang2011a)
bool _classicMethod; // Method C //calculate and save results of classic in separate file
bool _voronoiMethod; // Method D--Voronoi method
MeasurementArea_L* _areaForMethod_A;
MeasurementArea_B* _areaForMethod_B;
MeasurementArea_B* _areaForMethod_C;
MeasurementArea_B* _areaForMethod_D;
bool _DoesUseMethodA; // Method A (Zhang2011a)
bool _DoesUseMethodB; // Method B (Zhang2011a)
bool _DoesUseMethodC; // Method C //calculate and save results of classic in separate file
bool _DoesUseMethodD; // Method D--Voronoi method
bool _cutByCircle; //Adjust whether cut each original voronoi cell by a circle
double _cutRadius;
int _circleEdges;
......@@ -405,22 +132,13 @@ private:
bool _outputGraph; // Whether output the data for plot the fundamental diagram each frame
bool _calcIndividualFD; //Adjust whether analyze the individual density and velocity of each pedestrian in stationary state (ALWAYS VORONOI-BASED)
char _vComponent; // to mark whether x, y or x and y coordinate are used when calculating the velocity
std::vector<int> _accumPedsPassLine; // the accumulative pedestrians pass a line with time
std::vector<double> _accumVPassLine; // the accumulative instantaneous velocity of the pedestrians pass a line
std::string _projectRootDir;
int *IdInFrame; // save the ped ID in the geometry in this frame, which is the same order with VInFrame and only used for outputting individual density and velocity.
double *XInFrame; // save the X coordinates of pedestrian in the geometry in this frame
double *YInFrame; // save the Y coordinates of pedestrian in the geometry in this frame
double *VInFrame; // save the instantaneous velocity of pedestrians in the geometry in this frame
int ClassicFlow; // the number of pedestrians pass a line in a certain time
double V_deltaT; // define this is to measure cumulative velocity each pedestrian pass a measure line each time step to calculate the <v>delat T=sum<vi>/N
FileFormat _trajFormat; // format of the trajectory file
int min_ID;
int min_Frame;
std::map<int , std::vector<int> > peds_t;
std::vector<MeasurementArea_L*> _areaForMethod_A;
std::vector<MeasurementArea_B*> _areaForMethod_B;
std::vector<MeasurementArea_B*> _areaForMethod_C;
std::vector<MeasurementArea_B*> _areaForMethod_D;
};
#endif /*ANALYSIS_H_*/
CMakeLists.txt
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......@@ -20,7 +20,7 @@ message( STATUS "CMAKE_CURRENT_SOURCE_DIR: " ${CMAKE_CURRENT_SOURCE_DIR} )
set(CMAKE_TEST_DIR ${CMAKE_SOURCE_DIR}/Utest)
set(JPSREPORT_MAJOR_VERSION 0)
set(JPSREPORT_MINOR_VERSION 5)
set(JPSREPORT_MINOR_VERSION 6)
set(JPSREPORT_PATCH_VERSION 0)
set(JPSREPORT_VERSION
${JPSREPORT_MAJOR_VERSION}.${JPSREPORT_MINOR_VERSION}.${JPSREPORT_PATCH_VERSION})
......@@ -80,15 +80,18 @@ endif(BUILD_TESTING)
set(source_files
Analysis.cpp
VoronoiDiagram.cpp
# VoronoiDiagramGenerator.cpp
# VoronoiPolygons.cpp
IO/OutputHandler.cpp
general/ArgumentParser.cpp
tinyxml/tinystr.cpp
tinyxml/tinyxml.cpp
tinyxml/tinyxmlerror.cpp
tinyxml/tinyxmlparser.cpp
methods/VoronoiDiagram.cpp
methods/PedData.cpp
methods/Method_A.cpp
methods/Method_B.cpp
methods/Method_C.cpp
methods/Method_D.cpp
geometry/Building.cpp
geometry/Line.cpp
geometry/Point.cpp
......@@ -104,15 +107,18 @@ set(source_files
)
set ( header_files
Analysis.h
MeasurementArea.h
# VoronoiDiagramGenerator.h
VoronoiDiagram.h
# VoronoiPolygons.h
methods/MeasurementArea.h
methods/VoronoiDiagram.h
methods/PedData.h
methods/Method_A.h
methods/Method_B.h
methods/Method_C.h
methods/Method_D.h
IO/OutputHandler.h
general/ArgumentParser.h
general/Macros.h
tinyxml/tinyxml.h
tinyxml/tinystr.h
general/Macros.h
geometry/Building.h
geometry/Line.h
geometry/Point.h
......
IO/OutputHandler.cpp
View file @ 6af96ae6
......@@ -31,6 +31,7 @@
#include <stdio.h>
#include <stdarg.h>
#include <cstdlib>
#include <cmath>
using namespace std;
......
LICENSE 0 → 100644
View file @ 6af96ae6
Licence:
========
JuPedSim is free software: you can redistribute it and/or modify
it under the terms of the GNU Lesser General Public License as published by
the Free Software Foundation, either version 3 of the License, or
any later version.
JuPedSim is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU Lesser General Public License
along with JuPedSim. If not, see <http://www.gnu.org/licenses/>.
Disclaimer:
========
In no event shall JuPedSim be liable to any party for direct, indirect, special,
incidental, or consequential damages, including lost profits, arising out of the
use of this software and its documentation, even if JuPedSim has been advised of
the possibility of such damage.
JuPedSim specifically disclaims any warranties, including, but not limited to,
the implied warranties of merchantability and fitness for a particular purpose.
The software and accompanying documentation, if any, provided hereunder is
provided “as is”. JuPedSim has no obligation to provide maintenance, support,
updates, enhancements, or modifications.
Forschungszentrum J ̈ulich GmbH makes no warranty, expressed or implied,
to users of JuPedSim, and accepts no responsibility for its use. Users of JuPedSim
assume sole responsibility for determining the appropriateness of its use; and for
any actions taken or not taken as a result of analyses performed using this tool.
Users are warned that JuPedSim is intended for academic use only. This
tool is an implementation of several computer models that may or may not have
predictive capability when applied to a specific set of factual circumstances. Lack
of accurate prediction
README.txt 0 → 100644
View file @ 6af96ae6
JPSreport v0.6 alpha
====================
Running
=======
>> JPSreport.exe --inifile="./xxx/xxx/ini_bottleneck.xml"
From the command line trajectory files mentioned in the inifile will be analysed by using the methods and parameters in the inifile.
The output results will be saved in the sub-folder of the folder where the inifile exists.
Utest/files/geo_UO_180.xml
View file @ 6af96ae6
<?xml version="1.0" encoding="UTF-8" standalone="yes"?>
<geometry version ="0.5" caption="second life" gridSizeX="20" gridSizeY="20" unit="m">
<geometry version ="0.5" caption="second life" gridSizeX="20" gridSizeY="20" unit="m" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xsi:noNamespaceSchemaLocation="http://xsd.jupedsim.org/0.6/jps_geoemtry.xsd"> >
<rooms>
<room id="0" caption="hall" zpos="0.00">
<subroom id="0" closed="0" class="subroom">
<polygon caption="wall">
<vertex px="-8.00" py="-0.50"/>
<vertex px="-8.00" py="2.50"/>
<vertex px="-8.00" py="-0.70"/>
<vertex px="-8.00" py="2.80"/>
<vertex px="-4.00" py="2.80"/>
<vertex px="-4.00" py="1.80"/>
<vertex px="4.00" py="1.80"/>
<vertex px="4.00" py="2.50"/>
<vertex px="6.00" py="2.50"/>
<vertex px="6.00" py="-0.50"/>
<vertex px="4.00" py="-0.50"/>
<vertex px="4.00" py="2.80"/>
<vertex px="6.00" py="2.80"/>
<vertex px="6.00" py="-0.70"/>
<vertex px="4.00" py="-0.70"/>
<vertex px="4.00" py="0.00"/>
<vertex px="-4.00" py="0.00"/>
<vertex px="-4.00" py="-0.50"/>
<vertex px="-8.00" py="-0.50"/>
<vertex px="-4.00" py="-0.70"/>
<vertex px="-8.00" py="-0.70"/>
</polygon>
</subroom>
</room>
......
Utest/files/input_UO_180.xml → Utest/files/ini_UO_180.xml
View file @ 6af96ae6
<?xml version="1.0" encoding="UTF-8"?>
<JPSreport project="JPS-Project" version="0.4">
<!-- geometry file -->
<geometry file = "geo_UO_180.xml" />
<!-- trajectories file and format -->
<!-- either a file name or a path location. In the latter case all files in the directory will be used-->
<trajectories format="txt" unit="m">
<file name="uo-180-180-180_space.txt" />
<path location="././" />
</trajectories>
<!-- all files in the directories will be used -->
<measurementAreas unit="m">
<area_B id="1" type="BoundingBox">
<vertex x="4.00" y="-0.50" /> <!-- Clockwise -->
<vertex x="4.00" y="2.50" />
<vertex x="5.00" y="2.50" />
<vertex x="5.00" y="-0.50" />
<Length_in_movement_direction distance="1.0" />
</area_B>
<area_L id="2" type="Line">
<start x="-7.00" y="-0.50" />
<end x="-7.00" y="2.50" />
</area_L>
</measurementAreas>
<velocity>
<useXComponent>true</useXComponent>
<useYComponent>true</useYComponent>
<!-- half of the time interval that used to calculate instantaneous velocity
of ped i [fr] here v_i = (X(t+deltaF) - X(t+deltaF))/(2*deltaF). X is location. -->
<halfFrameNumberToUse>5</halfFrameNumberToUse>
</velocity>
<!-- Method A (Zhang2011a) Flow and Vel -->
<method_A enabled="true">
<!-- Time interval used to count the flow [fr] -->
<timeInterval unit="frame">
70
</timeInterval>
<!-- The coordinate of the line used to calculate the flow and velocity -->
<measurementArea id="2" />
</method_A>
<!-- Method B (Zhang2011a) Vel and Dens based on Tin and Tout -->
<method_B enabled="false">
<measurementArea id="1" />
</method_B>
<!-- Method C (Zhang2011a) Classical density and Vel -->
<method_C enabled="true">
<measurementArea id="1" />
</method_C>
<!-- Method D (Zhang2011a) Voronoi density and Vel -->
<method_D enabled="true" outputGraph="false" individualFDdata="false">
<measurementArea id="1" />
<cutByCircle enabled="false" radius= "0.5" edges = "6"/> <!-- edges represent the precision of discretization of the circle --->
<getProfile enabled="false" scale_x="0.10" scale_y="0.10"/>
<!-- // Adjust whether cut each original Voronoi cell by a circle (for
bottleneck exp is necessary) // Whether output the data to plot the Voronoi
diagram each frame // Whether make field analysis or not // Adjust whether
analyze the individual density and velocity of each // pedestrian in stationary
state (ALWAYS VORONOI-BASED) -->
<!-- // the number of rows that the geometry will be discretized for field
analysis //the number of columns that the geometry will be discretized for
field analysis // the size of the grid //0; //todo LOWest vertex of the geometry