PROG: Removing NAIF DSK classes that were previously commited with incorrect...

ifeq ($(ISISROOT), $(BLANK))

.SILENT:

error:

	echo "Please set ISISROOT";

else

	include $(ISISROOT)/make/isismake.apps

	NAIFLIB    += -ldsklib

endif

#include "Isis.h"

#include "AbstractPlate.h"

#include "Brick.h"

#include "CSVReader.h"

#include "FileName.h"

#include "ImportPdsTable.h"

#include "IException.h"

#include "Intercept.h"

#include "Latitude.h"

#include "Longitude.h"

#include "NaifDskApi.h"

#include "NaifDskPlateModel.h"

#include "NaifStatus.h"

#include "PixelType.h"

#include "ProcessByLine.h"

#include "Progress.h"

#include "Projection.h"

#include "ProjectionFactory.h"

#include "SpecialPixel.h"

#include "SurfacePoint.h"

#include "Table.h"

#include "TileManager.h"

#include "TProjection.h"

using namespace std;

using namespace Isis;

void initialize(Buffer &out) {

  out = Null;

  return;

}

void IsisMain() {

  // We will be processing by line

  ProcessByLine p;

  UserInterface &ui = Application::GetUserInterface();

  QString dskfile = ui.GetFileName("FROM");

  NaifDskPlateModel dsk(dskfile);

  cout << "Total #Plates:   " << dsk.size() << "\n";

  cout << "Total #Vertices: " << dsk.numberVertices() << "\n";

  //Get the map projection file provided by the user

  Pvl userMap;

  userMap.read(ui.GetFileName("MAP"));

  // Create the ISIS map projection

  int ns, nl;

  Projection *proj = ProjectionFactory::CreateForCube(userMap, ns, nl, true);

  PvlGroup cleanMap = proj->Mapping();

  delete proj;

  // Create the cube from the projection parameters

  Cube *ocube = p.SetOutputCube("TO", ns, nl, 1);

  ocube->putGroup(cleanMap);

  TProjection *tproj = (TProjection *) ocube->projection();

  // Initialize the output cube

  p.StartProcess(initialize);

  QString method = ui.GetString("METHOD").toLower();

  bool useGridMethod = ( "grid" == method ) ? true : false;

#if 0

  // Get the real tile sizes and allocate the buffer accordingly

  PvlObject &core = ocube->label()->findObject("IsisCube").findObject("Core");

  int tsamps = core["TileSamples"];

  int tlines = core["TileLines"];

  TileManager pixels(*ocube, tsamps, tlines);

#else

  TileManager pixels(*ocube, ns, 1);

#endif

  Progress mapper;

  mapper.SetText("mapping");

  mapper.SetMaximumSteps(pixels.Tiles());

  mapper.CheckStatus();

  pixels.SetTile(1);

  SurfacePoint point;

  //  Now process the table writing the output

  while ( !pixels.end() ) {

    for (int i = 0  ; i < pixels.size()  ; i++) {

      int samp(pixels.Sample(i));

      int line(pixels.Line(i));

      pixels[i] = Null;

      tproj->SetWorld(samp, line);

      double lat = tproj->UniversalLatitude();

      double lon = tproj->UniversalLongitude();

      double radius = tproj->LocalRadius(lat);

      point.SetSphericalCoordinates(Latitude(lat, Angle::Degrees), 

                                    Longitude(lon, Angle::Degrees),

                                    Distance(radius, Distance::Meters));

      // Calculate the grid point intersection of the DEM

      if ( useGridMethod ) {  // ( "grid" == method )

        // Get the grid point (lat, lon) from the DEM

        QScopedPointer<SurfacePoint> dempt(dsk.point(point.GetLatitude(), 

                                                     point.GetLongitude()));

        pixels[i] = dempt->GetLocalRadius().meters();

      }

      else { // ( "ray" == method )

        // Get the intercept of the position and look vector of point on the DEM 

        // by using the lat/lon coordinate in X/Y/Z.  This vector is scaled to

        // be outside the body by 1.5 times.  The look vector is then 

        // determined by negating the vector and an intersection is computed.

        // Grid method winds up doing the same thing - this is the direct

        // computation.

        NaifVertex observer(3);

        point.ToNaifArray(&observer[0]);

        NaifStatus::CheckErrors();

        vscl_c(1.5, &observer[0], &observer[0]);

        NaifStatus::CheckErrors();

        // Get look vector

        NaifVector raydir(3);

        vminus_c(&observer[0], &raydir[0]);

        NaifStatus::CheckErrors();

        // Check for valid intercept

        NaifVertex xpt;

        if ( dsk.isPlateIdValid(dsk.plateIdOfIntercept(observer, raydir, xpt)) ) { 

          point.FromNaifArray(&xpt[0]);

          pixels[i] = point.GetLocalRadius().meters();

        }

      }

    }

    ocube->write(pixels);

    mapper.CheckStatus();

    pixels.next();

  }

  p.EndProcess();

}

<?xml version="1.0" encoding="UTF-8"?>

<application name="dsk2isis" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" xsi:noNamespaceSchemaLocation="http://isis.astrogeology.usgs.gov/Schemas/Application/application.xsd">

  <brief>

    Converts NAIF DSK plate model to ISIS format

  </brief>

  <description>

      This application will convert a NAIF DSK plate model to an ISIS cube.  

      Users must  provide a valid map file to use for allocation of the ISIS 

      cube.  The scale and type of projection determine the size of the output 

      cube.

  </description>

  <history>

    <change name="Kris Becker" date="2014-02-19">

        Original Version

    </change>

    <change name="Jeannie Backer" date="2015-03-08">

        Wrote tests. Added application to ISIS trunk. References #2035

    </change>

</history>

  <category>

    <categoryItem>Map Projection</categoryItem>

  </category>

  <groups>

    <group name="Files">

      <parameter name="FROM">

        <type>filename</type>

        <fileMode>input</fileMode>

        <brief>Name of NAIF DSK DEM file</brief>

        <description>

          This parameter provides the name of the NAIF DSK file to convert to 

          ISIS format.  It is assumed to be in body fixed coordinates from which 

          intersections for each output map grid point will be computed using 

          NAIF's DSK toolkit.

        </description>

        <filter>

          *.bds

        </filter>

      </parameter>

      <parameter name="MAP">

          <type>filename</type>

        <fileMode>input</fileMode>

        <brief>Name of file containing map description</brief>

        <description>

            This paramter provides the name of a file containing a valid map 

            projection defintion. One can use the ISIS maptemplate application 

            to create a map template.

        </description>

        <filter>

          *.map

        </filter>

      </parameter>

      <parameter name="TO">

        <type>cube</type>

       <pixelType>real</pixelType>

        <fileMode>output</fileMode>

        <brief>

          Output cube

        </brief>

        <description>

          Name of the output ISIS file created by this application containing 

          the rendering of the DSK DEM into and ISIS compatible DEM for use in 

          the ISIS system.

        </description>

      </parameter>

        <parameter name="METHOD">

            <type>string</type>

            <brief>

                DEM intersection method used

            </brief>

            <description>

              <p>

                This parameter provides two different methods to compute the 

                output radius value for a given latitude, longitude map grid 

                point.

              </p>

            </description>

            <default><item>RAY</item></default>

            <list>

                <option value="RAY">

                    <brief>

                        Ray intersection from image pixel location to DEM 

                    </brief>

                    <description>

                        Calculates an intercept location on the (irregularly                     

                        shaped) body from the observer point (i.e., image pixel 

                        location) and look (or ray) direction 

                    </description>

                </option>

                <option value="GRID">

                    <brief>

                        Calculate using surface point latitude, longitude grid 

                        point  

                    </brief>

                    <description>

                         The radius value of the DEM is determined at the 

                         intercept point of the triaxial ellipsoid from the 

                         center of the body. This method extends the surface (x, 

                         y, z) body fixed coordinate of the ellisoid by 

                         extending the vector by a factor of 1.5.  This creates 

                         the obsever point.  The direction vector is then the 

                         negation of the observer point.  From this, a DEM 

                         surface intercept point is determined.

                    </description>

                </option>

            </list>

        </parameter>

    </group>

  </groups>

</application>

# history 2015-03-08 Jeannie Backer - Original Version.

#                        Code Coverage 93.75% scope, 100% line and function.

#                        Coverage Complete until we can figure out a case where plate ID is invalid.

BLANKS = "%-6s"    

LENGTH = "%-40s"

include $(ISISROOT)/make/isismake.tststree

APPNAME = dsk2isis

itokawa.truth.cub.TOLERANCE = 0.00002

include $(ISISROOT)/make/isismake.tsts

commands:

	$(APPNAME) from=$(INPUT)/hay_a_amica_5_itokawashape_v1_0_512q.bds \

	  map=$(INPUT)/equi.map \

	  to=$(OUTPUT)/itokawa.truth.cub \

	  method=GRID \

	  > /dev/null;