Fields.cpp

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//
// Fields.cpp
//
//  Created on: 30.08.2011
//      Author: wahnfla
//
 
#include "Fields.hpp"
#include "../tools/errorhandler.hpp"    // for print...
 
namespace datatypes
{
 
 
//
// ////////////////////////////  FieldSegmentated /////////////////////////////////////////
//
 
void FieldSegmented::computePolygon()
{
        m_fieldPolygon.clear();
 
        Polygon2D startPoints;
 
        for (FieldSegmentedPoints::const_iterator p = m_points.begin(); p != m_points.end(); ++p)
        {
                double endDist = p->getEndDist();
 
                if (!::isNaN(endDist))
                {
                        m_fieldPolygon.push_back(Point2D::fromPolar(endDist, p->getAngle()));
                }
 
                double startDist = p->getStartDist();
                double angle = p->getAngle();
 
                if (::isNaN(startDist) == false)
                {
                        startPoints.push_back(Point2D::fromPolar(startDist, angle));
                }
        }
 
        if (startPoints.empty())
        {
                // add origin if empty
                m_fieldPolygon.push_back(Point2D(0., 0.));
        }
        else
        {
                for (Polygon2D::const_reverse_iterator r = startPoints.rbegin(); r != startPoints.rend(); ++r)
                {
                        m_fieldPolygon.push_back(*r);
                }
        }
 
//      printInfoMessage("Field: " + toString(m_fieldPolygon) + ".", true);
}
 
//
// Returns the number of points.
//
UINT32 FieldSegmented::getNumberOfPoints()
{
        return m_points.size();
}
 
//
// Returns a copy of the points.
//
FieldSegmentedPoints FieldSegmented::getPoints()
{
        return m_points;
}
 
//
// //////////////////////////// FieldRectangle  /////////////////////////////////////////
//
 
 
void FieldRectangle::computePolygon()
{
        m_fieldPolygon.clear();
 
        Point2D l = Point2D::fromPolar(m_length, m_rotAngle);
        Point2D w = Point2D::fromPolar(m_width, m_rotAngle - 90 * deg2rad);
 
        m_fieldPolygon.push_back(Point2D::fromPolar(m_refPointDist, m_refPointAngle));
        m_fieldPolygon.push_back(l + m_fieldPolygon[0]);
        m_fieldPolygon.push_back(w + l + m_fieldPolygon[0]);
        m_fieldPolygon.push_back(w + m_fieldPolygon[0]);
 
//      printInfoMessage("Field: " + ::toString(m_fieldPolygon) + ".", true);
}
 
 
double FieldRectangle::getLength() const
{
        return m_length;
}
 
double FieldRectangle::getRefPointAngle() const
{
        return m_refPointAngle;
}
 
double FieldRectangle::getRefPointDist() const
{
        return m_refPointDist;
}
 
double FieldRectangle::getRotAngle() const
{
        return m_rotAngle;
}
 
double FieldRectangle::getWidth() const
{
        return m_width;
}
 
//
// Sets the length (x-direction) of the rectangle.
//
void FieldRectangle::setLength(double length)
{
        if (length < 0.00001)
        {
                // Is this value mistakenly 0 or negative?
                printError("FieldRectangle::setLength: Length must not be 0 or negative - aborting!");
                return;
        }
        
        this->m_length = length;
}
 
void FieldRectangle::setRefPointAngle(double refPointAngle)
{
        this->m_refPointAngle = refPointAngle;
}
 
void FieldRectangle::setRefPointDist(double refPointDist)
{
        this->m_refPointDist = refPointDist;
}
 
//
// Set the rotation angle around the reference point.
// Positive angles turn counter-clockwise.
//
void FieldRectangle::setRotAngle(double rotAngle)
{
        if ((rotAngle < -PI) || (rotAngle > PI))
        {
                // Is this value mistakenly written in [deg] instead of [rad]?
                printWarning("FieldRectangle::setRotAngle: rotAngle is outside of the limit [-PI, PI], did you forget deg-2-rad conversion?");
        }
        this->m_rotAngle = rotAngle;
}
 
 
void FieldRectangle::setWidth(double width)
{
        if (width < 0.00001)
        {
                // Is this value mistakenly 0 or negative?
                printError("FieldRectangle::setWidth: Width must not be 0 or negative - aborting!");
                return;
        }
        
        this->m_width = width;
}
 
//
// ///////////////////////// FieldRadial  ////////////////////////////////////////////
//
 
void FieldRadial::computePolygon()
{
        printError("FieldRadial::computePolygon: The MRS does not support radial fields.");
}
 
 
UINT16 FieldRadial::getFirstAngle() const
{
        return m_firstAngle;
}
 
UINT16 FieldRadial::getLastAngle() const
{
        return m_lastAngle;
}
 
UINT32 FieldRadial::getMaxDist() const
{
        return m_maxDist;
}
 
UINT32 FieldRadial::getMinDist() const
{
        return m_minDist;
}
 
void FieldRadial::setFirstAngle(UINT16 firstAngle)
{
        this->m_firstAngle = firstAngle;
}
 
void FieldRadial::setLastAngle(UINT16 lastAngle)
{
        this->m_lastAngle = lastAngle;
}
 
void FieldRadial::setMaxDist(UINT32 maxDist)
{
        this->m_maxDist = maxDist;
}
 
void FieldRadial::setMinDist(UINT32 minDist)
{
        this->m_minDist = minDist;
}
 
//
// ///////////////////////////// FieldDynamic ////////////////////////////////////////
//
 
 
double FieldDynamic::getMaxLength() const
{
        return m_maxLength;
}
 
double FieldDynamic::getSpeedMax() const
{
        return m_speedMax;
}
 
void FieldDynamic::setMaxLength(double maxLength)
{
        this->m_maxLength = maxLength;
}
 
void FieldDynamic::setSpeedMax(double speedMax)
{
        this->m_speedMax = speedMax;
}
 
//
// /////////////////////////////  Fields ////////////////////////////////////////
//
 
const FieldParameter& Fields::getField(UINT16 fieldNumber) const
{
        FieldVector::const_iterator f;
        for (f = m_fields.begin(); f != m_fields.end(); ++f)
        {
                const FieldParameter* fp = *f;
                if (fp->getFieldNumber() == fieldNumber)
                {
                        break;
                }
        }
 
        if (f == m_fields.end())
        {
                dieWithError("Fields::getField(): No field available with the given number.");
        }
 
        // return the field as reference
        return *(*f);
}
 
//
// Add a new field to the field vector.
//
void Fields::add(FieldParameter* field)
{
        m_fields.push_back(field);
}
 
const UINT32 Fields::getUsedMemory() const
{
        UINT32 sum = sizeof(*this);
        FieldVector::const_iterator iter;
        for (iter = m_fields.begin(); iter != m_fields.end(); iter++)
        {
//              sum += iter->getUsedMemory();
                sum += 1000;    // Panic! Failed to solve the const correctness issue.
        }
        return sum;
}
 
//
//
//
UINT16 Fields::getNumberOfValidFields()
{
        UINT16 numValid = 0;
        FieldVector::iterator iter;
        for (iter = m_fields.begin(); iter != m_fields.end(); iter++)
        {
                if ((*iter)->getFieldNumber() != 0)
                {
                        numValid++;
                }
        }
        return numValid;
}
 
 
} // namespace datatypes