var passstring="";
var numPoints = 0;
var bAlert=false;

// replace common HTML entitys with the characters they represent
function encodeString(oldString) {
var ww = getWindow();
ww.encodeString(oldString);
}

function addUDL(url, layerType, lyrName, doc){
var ww=getWindow();
ww.addUDL(url, layerType, lyrName, doc);
}

function ValidateSketch() {
var ww = getWindow();
return ww.ValidateSketch();
}
function SaveResults(){
var ww = getWindow();
ww.SaveResults(document.getElementById("landKey").value, document.getElementById("parcelName").value);
}
function toggleMapLayer(layerId, checked){
	try{
  var t;
  var tName;
  var ww = getWindow();
      if (ww.top.MapFrame!=null) {
        t = ww.top.MapFrame;
        tName = "top.MapFrame.";
        var lyr = t.toc.getLayer(layerId);
        if(lyr!=null){
          var index = lyr.index;
          t.toc.layerToggleVisibleWMS(index,t, true ,checked);
         }
      } else {
        t= null;   //document;
      }
     } catch(e) {
     if(bAlert)alert(e.message);
     }
}
function ZoomToSketchEnvelope() {
var ww = getWindow();
ww.ZoomToSketchEnvelope();
}

function zoomToFeature(layerId, objectId, columnName, keyType) {
  var ww = getWindow();
  ww.zoomToFeature(layerId, objectId, columnName, keyType) ;
}

function zoomToEnv(minx,miny,maxx,maxy) {
  var ww = getWindow();
  ww.zoomToEnv(minx,miny,maxx,maxy);
}

function ClearSketch() {
var ww = getWindow();
ww.ClearSketch();
}

function ClearSelections() {
var ww = getWindow();
ww.ClearSelections();
}

function ClearAll() {
var ww = getWindow();
ww.ClearAll();
}

function getWindow() {
  var ww;
  if (typeof parent.parent.MapFrame != "undefined")
    ww = parent.parent.MapFrame;
  else {
    if (typeof window.top.MapFrame != "undefined")
      ww = window.top.MapFrame;
    else {
      if (opener) {
        //most geocomm gets here
        ww = opener.parent.MapFrame;
      }
      else {
        if (parent.MapFrame)
          ww = parent.MapFrame;
        else;
         //alert("Could not find MapFrame!");
      }
    }
  }
  return ww;
}

 function trim(str) {
 var	str = str.replace(/^\s\s*/, ''),
 		ws = /\s/,
 		i = str.length;
 	while (ws.test(str.charAt(--i)));
	return str.slice(0, i + 1);
 }


//finds the feature in selection list and zooms to that envelope
function zoomToCustomFeatureEnvelope(mapservice_layer_id,ObjectID) {
    var ww = getWindow();
    ww.zoomToCustomFeatureEnvelope(mapservice_layer_id,ObjectID);

}

function RemoveFeature(mapservice_layer_id,  ColumnValue, state_abbr) {
  var ww = getWindow();
  ww.RemoveFeature(mapservice_layer_id, ColumnValue, state_abbr);
}

function selectFeatureCustomGeometry(bEnabled, bZoomFlag, layerID, keyField, key, labelName, label, description, coordinates) {
	var ww = getWindow();
ww.selectFeatureCustomGeometry(bEnabled, bZoomFlag, layerID, keyField, key, labelName, label, description, coordinates);
}

function isNumeric(sText)
{
var ww = getWindow();
return ww.isNumeric(sText);
}

function isRecordSelected(objectId, layerId) {
var ww = getWindow();
return ww.isRecordSelected(objectId, layerId);
}

function getSelectedRecordsByLayer(layerId) {
var ww = getWindow();
return ww.getSelectedRecordsByLayer(layerId);
}

function isMapLayerVisible(layerId) {
	var ww = getWindow();
	return ww.isMapLayerVisible(layerId);
}

function initializeSelectBoxes() {
	var ww = getWindow();
	if(ww){
	var sm = ww.oSELECTION_MANAGER;
	sm.initializeCheckBoxes(document);
	}
}


function selectFeature(bEnabled, bZoom, mapservice_layer_id, keyField, key, labelName,label, description, minx, miny, maxx, maxy) {
var ww = getWindow();
ww.selectFeature(bEnabled, bZoom, mapservice_layer_id, keyField, key, labelName,label, description, minx, miny, maxx, maxy);
}

function writeAll() {
var ww = getWindow();
ww.writeAll();
}

//PF: used for the selected records manager.
//TODO: store zoom link, select link, any other attributes in the oList for display...
function printAllSelectedRecords(doc, whichLayer) {
var ww = getWindow();
ww.printAllSelectedRecords(doc, whichLayer);
}

function getActetateSketch_as_spatialfilter() {
  var ww = getWindow();
  return ww.getAcetateSketch_as_spatialfilter();
}

function ValidateGeometry(stext) {
var ww = getWindow();
return ww.ValidateGeometry(stext);
}

function getSketch_as_spatialfilter(stext){
var ww= getWindow();
return ww.getSketch_as_spatialfilter(stext);
}

function IdentifySelectedRecord(sPolygon, addToSelMgr) {
  var ww = getWindow();
  ww.IdentifySelectedRecord(sPolygon, addToSelMgr);
}

function sketchFilterExists() {
var ww = getWindow();
return ww.sketchFilterExists();
}


function getLastSelectedObject(mapLayer) {
 var ww = getWindow();
 return ww.getLastSelectedObject(mapLayer);
}

function getAllSelected(mapLayer) {
  var ww = getWindow();
  return ww.getAllSelected(mapLayer);
}

function getAllSketches() {
  var ww = getWindow();
  return ww.getAllSelected(ww.cLAYER_USERSKETCHES);
}

function getSketchFilter() {
  var ww = getWindow();
   return ww.getSketchFilter();
}


function setSketchFilter(filter) {
  var ww = getWindow();
  ww.setSketchFilter(filter);
}
function getSketchGeometry(sketchKey){
var ww=getWindow();
return ww.getSketchGeometry(sketchKey);
}

function identifyByFeature(objectId, layerId, mapService, featureLabel, labelField, labelName, keyField) {
  var ww = getWindow();
  ww.identifyByFeature(objectId, layerId, mapService, featureLabel, labelField, labelName, keyField);
}


function IdentifySketch() {
        var ww = getWindow();
        ww.IdentifySketch();
}


//from utm2.js
    var pi = 3.14159265358979;

    /* Ellipsoid model constants (actual values here are for WGS84) */
    var sm_a = 6378137.0;
    var sm_b = 6356752.314;
    var sm_EccSquared = 6.69437999013e-03;

    var UTMScaleFactor = 0.9996;


    /*
    * DegToRad
    *
    * Converts degrees to radians.
    *
    */
    function DegToRad (deg)
    {
        return (deg / 180.0 * pi);
    }
    /*
    * RadToDeg
    *
    * Converts radians to degrees.
    *
    */
    function RadToDeg (rad)
    {
        return (rad / pi * 180.0);
    }




    /*
    * ArcLengthOfMeridian
    *
    * Computes the ellipsoidal distance from the equator to a point at a
    * given latitude.
    *
    * Reference: Hoffmann-Wellenhof, B., Lichtenegger, H., and Collins, J.,
    * GPS: Theory and Practice, 3rd ed.  New York: Springer-Verlag Wien, 1994.
    *
    * Inputs:
    *     phi - Latitude of the point, in radians.
    *
    * Globals:
    *     sm_a - Ellipsoid model major axis.
    *     sm_b - Ellipsoid model minor axis.
    *
    * Returns:
    *     The ellipsoidal distance of the point from the equator, in meters.
    *
    */
    function ArcLengthOfMeridian (phi)
    {
        var alpha, beta, gamma, delta, epsilon, n;
        var result;

        /* Precalculate n */
        n = (sm_a - sm_b) / (sm_a + sm_b);

        /* Precalculate alpha */
        alpha = ((sm_a + sm_b) / 2.0)
           * (1.0 + (Math.pow (n, 2.0) / 4.0) + (Math.pow (n, 4.0) / 64.0));

        /* Precalculate beta */
        beta = (-3.0 * n / 2.0) + (9.0 * Math.pow (n, 3.0) / 16.0)
           + (-3.0 * Math.pow (n, 5.0) / 32.0);

        /* Precalculate gamma */
        gamma = (15.0 * Math.pow (n, 2.0) / 16.0)
            + (-15.0 * Math.pow (n, 4.0) / 32.0);

        /* Precalculate delta */
        delta = (-35.0 * Math.pow (n, 3.0) / 48.0)
            + (105.0 * Math.pow (n, 5.0) / 256.0);

        /* Precalculate epsilon */
        epsilon = (315.0 * Math.pow (n, 4.0) / 512.0);

    /* Now calculate the sum of the series and return */
    result = alpha
        * (phi + (beta * Math.sin (2.0 * phi))
            + (gamma * Math.sin (4.0 * phi))
            + (delta * Math.sin (6.0 * phi))
            + (epsilon * Math.sin (8.0 * phi)));

    return result;
    }



    /*
    * UTMCentralMeridian
    *
    * Determines the central meridian for the given UTM zone.
    *
    * Inputs:
    *     zone - An integer value designating the UTM zone, range [1,60].
    *
    * Returns:
    *   The central meridian for the given UTM zone, in radians, or zero
    *   if the UTM zone parameter is outside the range [1,60].
    *   Range of the central meridian is the radian equivalent of [-177,+177].
    *
    */
    function UTMCentralMeridian (zone)
    {
        var cmeridian;

        cmeridian = DegToRad (-183.0 + (zone * 6.0));

        return cmeridian;
    }



    /*
    * FootpointLatitude
    *
    * Computes the footpoint latitude for use in converting transverse
    * Mercator coordinates to ellipsoidal coordinates.
    *
    * Reference: Hoffmann-Wellenhof, B., Lichtenegger, H., and Collins, J.,
    *   GPS: Theory and Practice, 3rd ed.  New York: Springer-Verlag Wien, 1994.
    *
    * Inputs:
    *   y - The UTM northing coordinate, in meters.
    *
    * Returns:
    *   The footpoint latitude, in radians.
    *
    */
    function FootpointLatitude (y)
    {
        var y_, alpha_, beta_, gamma_, delta_, epsilon_, n;
        var result;

        /* Precalculate n (Eq. 10.18) */
        n = (sm_a - sm_b) / (sm_a + sm_b);

        /* Precalculate alpha_ (Eq. 10.22) */
        /* (Same as alpha in Eq. 10.17) */
        alpha_ = ((sm_a + sm_b) / 2.0)
            * (1 + (Math.pow (n, 2.0) / 4) + (Math.pow (n, 4.0) / 64));

        /* Precalculate y_ (Eq. 10.23) */
        y_ = y / alpha_;

        /* Precalculate beta_ (Eq. 10.22) */
        beta_ = (3.0 * n / 2.0) + (-27.0 * Math.pow (n, 3.0) / 32.0)
            + (269.0 * Math.pow (n, 5.0) / 512.0);

        /* Precalculate gamma_ (Eq. 10.22) */
        gamma_ = (21.0 * Math.pow (n, 2.0) / 16.0)
            + (-55.0 * Math.pow (n, 4.0) / 32.0);

        /* Precalculate delta_ (Eq. 10.22) */
        delta_ = (151.0 * Math.pow (n, 3.0) / 96.0)
            + (-417.0 * Math.pow (n, 5.0) / 128.0);

        /* Precalculate epsilon_ (Eq. 10.22) */
        epsilon_ = (1097.0 * Math.pow (n, 4.0) / 512.0);

        /* Now calculate the sum of the series (Eq. 10.21) */
        result = y_ + (beta_ * Math.sin (2.0 * y_))
            + (gamma_ * Math.sin (4.0 * y_))
            + (delta_ * Math.sin (6.0 * y_))
            + (epsilon_ * Math.sin (8.0 * y_));

        return result;
    }



    /*
    * MapLatLonToXY
    *
    * Converts a latitude/longitude pair to x and y coordinates in the
    * Transverse Mercator projection.  Note that Transverse Mercator is not
    * the same as UTM; a scale factor is required to convert between them.
    *
    * Reference: Hoffmann-Wellenhof, B., Lichtenegger, H., and Collins, J.,
    * GPS: Theory and Practice, 3rd ed.  New York: Springer-Verlag Wien, 1994.
    *
    * Inputs:
    *    phi - Latitude of the point, in radians.
    *    lambda - Longitude of the point, in radians.
    *    lambda0 - Longitude of the central meridian to be used, in radians.
    *
    * Outputs:
    *    xy - A 2-element array containing the x and y coordinates
    *         of the computed point.
    *
    * Returns:
    *    The function does not return a value.
    *
    */
    function MapLatLonToXY (phi, lambda, lambda0, xy)
    {
        var N, nu2, ep2, t, t2, l;
        var l3coef, l4coef, l5coef, l6coef, l7coef, l8coef;
        var tmp;

        /* Precalculate ep2 */
        ep2 = (Math.pow (sm_a, 2.0) - Math.pow (sm_b, 2.0)) / Math.pow (sm_b, 2.0);

        /* Precalculate nu2 */
        nu2 = ep2 * Math.pow (Math.cos (phi), 2.0);

        /* Precalculate N */
        N = Math.pow (sm_a, 2.0) / (sm_b * Math.sqrt (1 + nu2));

        /* Precalculate t */
        t = Math.tan (phi);
        t2 = t * t;
        tmp = (t2 * t2 * t2) - Math.pow (t, 6.0);

        /* Precalculate l */
        l = lambda - lambda0;

        /* Precalculate coefficients for l**n in the equations below
           so a normal human being can read the expressions for easting
           and northing
           -- l**1 and l**2 have coefficients of 1.0 */
        l3coef = 1.0 - t2 + nu2;

        l4coef = 5.0 - t2 + 9 * nu2 + 4.0 * (nu2 * nu2);

        l5coef = 5.0 - 18.0 * t2 + (t2 * t2) + 14.0 * nu2
            - 58.0 * t2 * nu2;

        l6coef = 61.0 - 58.0 * t2 + (t2 * t2) + 270.0 * nu2
            - 330.0 * t2 * nu2;

        l7coef = 61.0 - 479.0 * t2 + 179.0 * (t2 * t2) - (t2 * t2 * t2);

        l8coef = 1385.0 - 3111.0 * t2 + 543.0 * (t2 * t2) - (t2 * t2 * t2);

        /* Calculate easting (x) */
        xy[0] = N * Math.cos (phi) * l
            + (N / 6.0 * Math.pow (Math.cos (phi), 3.0) * l3coef * Math.pow (l, 3.0))
            + (N / 120.0 * Math.pow (Math.cos (phi), 5.0) * l5coef * Math.pow (l, 5.0))
            + (N / 5040.0 * Math.pow (Math.cos (phi), 7.0) * l7coef * Math.pow (l, 7.0));

        /* Calculate northing (y) */
        xy[1] = ArcLengthOfMeridian (phi)
            + (t / 2.0 * N * Math.pow (Math.cos (phi), 2.0) * Math.pow (l, 2.0))
            + (t / 24.0 * N * Math.pow (Math.cos (phi), 4.0) * l4coef * Math.pow (l, 4.0))
            + (t / 720.0 * N * Math.pow (Math.cos (phi), 6.0) * l6coef * Math.pow (l, 6.0))
            + (t / 40320.0 * N * Math.pow (Math.cos (phi), 8.0) * l8coef * Math.pow (l, 8.0));

        return;
    }



    /*
    * MapXYToLatLon
    *
    * Converts x and y coordinates in the Transverse Mercator projection to
    * a latitude/longitude pair.  Note that Transverse Mercator is not
    * the same as UTM; a scale factor is required to convert between them.
    *
    * Reference: Hoffmann-Wellenhof, B., Lichtenegger, H., and Collins, J.,
    *   GPS: Theory and Practice, 3rd ed.  New York: Springer-Verlag Wien, 1994.
    *
    * Inputs:
    *   x - The easting of the point, in meters.
    *   y - The northing of the point, in meters.
    *   lambda0 - Longitude of the central meridian to be used, in radians.
    *
    * Outputs:
    *   philambda - A 2-element containing the latitude and longitude
    *               in radians.
    *
    * Returns:
    *   The function does not return a value.
    *
    * Remarks:
    *   The local variables Nf, nuf2, tf, and tf2 serve the same purpose as
    *   N, nu2, t, and t2 in MapLatLonToXY, but they are computed with respect
    *   to the footpoint latitude phif.
    *
    *   x1frac, x2frac, x2poly, x3poly, etc. are to enhance readability and
    *   to optimize computations.
    *
    */
    function MapXYToLatLon (x, y, lambda0, philambda)
    {
        var phif, Nf, Nfpow, nuf2, ep2, tf, tf2, tf4, cf;
        var x1frac, x2frac, x3frac, x4frac, x5frac, x6frac, x7frac, x8frac;
        var x2poly, x3poly, x4poly, x5poly, x6poly, x7poly, x8poly;

        /* Get the value of phif, the footpoint latitude. */
        phif = FootpointLatitude (y);

        /* Precalculate ep2 */
        ep2 = (Math.pow (sm_a, 2.0) - Math.pow (sm_b, 2.0))
              / Math.pow (sm_b, 2.0);

        /* Precalculate cos (phif) */
        cf = Math.cos (phif);

        /* Precalculate nuf2 */
        nuf2 = ep2 * Math.pow (cf, 2.0);

        /* Precalculate Nf and initialize Nfpow */
        Nf = Math.pow (sm_a, 2.0) / (sm_b * Math.sqrt (1 + nuf2));
        Nfpow = Nf;

        /* Precalculate tf */
        tf = Math.tan (phif);
        tf2 = tf * tf;
        tf4 = tf2 * tf2;

        /* Precalculate fractional coefficients for x**n in the equations
           below to simplify the expressions for latitude and longitude. */
        x1frac = 1.0 / (Nfpow * cf);

        Nfpow *= Nf;   /* now equals Nf**2) */
        x2frac = tf / (2.0 * Nfpow);

        Nfpow *= Nf;   /* now equals Nf**3) */
        x3frac = 1.0 / (6.0 * Nfpow * cf);

        Nfpow *= Nf;   /* now equals Nf**4) */
        x4frac = tf / (24.0 * Nfpow);

        Nfpow *= Nf;   /* now equals Nf**5) */
        x5frac = 1.0 / (120.0 * Nfpow * cf);

        Nfpow *= Nf;   /* now equals Nf**6) */
        x6frac = tf / (720.0 * Nfpow);

        Nfpow *= Nf;   /* now equals Nf**7) */
        x7frac = 1.0 / (5040.0 * Nfpow * cf);

        Nfpow *= Nf;   /* now equals Nf**8) */
        x8frac = tf / (40320.0 * Nfpow);

        /* Precalculate polynomial coefficients for x**n.
           -- x**1 does not have a polynomial coefficient. */
        x2poly = -1.0 - nuf2;

        x3poly = -1.0 - 2 * tf2 - nuf2;

        x4poly = 5.0 + 3.0 * tf2 + 6.0 * nuf2 - 6.0 * tf2 * nuf2
        	- 3.0 * (nuf2 *nuf2) - 9.0 * tf2 * (nuf2 * nuf2);

        x5poly = 5.0 + 28.0 * tf2 + 24.0 * tf4 + 6.0 * nuf2 + 8.0 * tf2 * nuf2;

        x6poly = -61.0 - 90.0 * tf2 - 45.0 * tf4 - 107.0 * nuf2
        	+ 162.0 * tf2 * nuf2;

        x7poly = -61.0 - 662.0 * tf2 - 1320.0 * tf4 - 720.0 * (tf4 * tf2);

        x8poly = 1385.0 + 3633.0 * tf2 + 4095.0 * tf4 + 1575 * (tf4 * tf2);

        /* Calculate latitude */
        philambda[0] = phif + x2frac * x2poly * (x * x)
        	+ x4frac * x4poly * Math.pow (x, 4.0)
        	+ x6frac * x6poly * Math.pow (x, 6.0)
        	+ x8frac * x8poly * Math.pow (x, 8.0);

        /* Calculate longitude */
        philambda[1] = lambda0 + x1frac * x
        	+ x3frac * x3poly * Math.pow (x, 3.0)
        	+ x5frac * x5poly * Math.pow (x, 5.0)
        	+ x7frac * x7poly * Math.pow (x, 7.0);

        return;
    }




    /*
    * LatLonToUTMXY
    *
    * Converts a latitude/longitude pair to x and y coordinates in the
    * Universal Transverse Mercator projection.
    *
    * Inputs:
    *   lat - Latitude of the point, in radians.
    *   lon - Longitude of the point, in radians.
    *   zone - UTM zone to be used for calculating values for x and y.
    *          If zone is less than 1 or greater than 60, the routine
    *          will determine the appropriate zone from the value of lon.
    *
    * Outputs:
    *   xy - A 2-element array where the UTM x and y values will be stored.
    *
    * Returns:
    *   The UTM zone used for calculating the values of x and y.
    *
    */
    function LatLonToUTMXY (lat, lon, zone, xy)
    {
        MapLatLonToXY (lat, lon, UTMCentralMeridian (zone), xy);

        /* Adjust easting and northing for UTM system. */
        xy[0] = xy[0] * UTMScaleFactor + 500000.0;
        xy[1] = xy[1] * UTMScaleFactor;
        if (xy[1] < 0.0)
            xy[1] = xy[1] + 10000000.0;

        return zone;
    }



    /*
    * UTMXYToLatLon
    *
    * Converts x and y coordinates in the Universal Transverse Mercator
    * projection to a latitude/longitude pair.
    *
    * Inputs:
    *	x - The easting of the point, in meters.
    *	y - The northing of the point, in meters.
    *	zone - The UTM zone in which the point lies.
    *	southhemi - True if the point is in the southern hemisphere;
    *               false otherwise.
    *
    * Outputs:
    *	latlon - A 2-element array containing the latitude and
    *            longitude of the point, in radians.
    *
    * Returns:
    *	The function does not return a value.
    *
    */
    function UTMXYToLatLon (x, y, zone, southhemi, latlon)
    {

        var cmeridian;

        x -= 500000.0;
        x /= UTMScaleFactor;

        /* If in southern hemisphere, adjust y accordingly. */
        if (southhemi)
        y -= 10000000.0;

        y /= UTMScaleFactor;

        cmeridian = UTMCentralMeridian (zone);
        MapXYToLatLon (x, y, cmeridian, latlon);

        return;
    }

    function addLayerToFavorites(layer) {
    	getWindow().mapAddLayerToFavorites(layer);
    	//alert(layer + " added to favorites tab");
    }

    function removeLayerFromFavorites(layer) {
    	getWindow().mapRemoveLayerFromFavorites(layer);
    	document.getElementById("customtable."+layer+"ResultDiv").style.display = "none";
    	//alert(layer + " removed from favorites tab");

    }


//end of utm js
//obsolete
/*
//function convertLatLontoUTM(lat, lon){
//  var utmE, utmN, zone, zoneLetter;
//  var xy = new Array(2);
//
//  if (lon == "" || lat == "")
//    return "";
//
//  zone = Math.floor((parseFloat(lon) + 180.0) / 6) + 1;
//  LatLonToUTMXY(DegToRad(lat), DegToRad(lon), zone, xy);
//  utmE = xy[0].toFixed(2);
//  utmN = xy[1].toFixed(2);
//
//  zoneLetter = getZoneLetter(lat);
//
//  return "N:" + utmN + ", E:" + utmE + ", Zone: " + zone + zoneLetter;
//}
////function ResizeMap(x,y,z,h) {
////
/////alert("GGGG");
////	if (x!='-1' && y!='-1' )
////		parent.document.body.cols = x + ',' + y + ',0,0';
////	if (z!='-1') {
////		var odoc = parent.top.document.getElementById("leftframe");
////		odoc.rows='55,*,' + z ;
////	}
////
////	parent.parent.MapFrame.reloadMap();
////}
function isLandsviewer() {

  return false;
}
*/
//function getZoneLetter(lat) {
//	if (lat == "" || lat == null) return "";
//	lat = parseFloat(lat);
//	if (lat >= 16 && lat < 24) return "Q";
//	if (lat >= 24 && lat < 32) return "R";
//	if (lat >= 32 && lat < 40) return "S";
//	if (lat >= 40 && lat < 48) return "T";
//	if (lat >=48 && lat < 56) return "U";
//	if (lat >=56 && lat < 64) return "V";
//	if (lat >=64 && lat < 72) return "W";
//	if (lat >=72 && lat < 84) return "X";
//	return "";
//}
//function displayXY(xx,yy) {
//  var u = Math.pow(10,6);
//  var usf = Math.pow(10,6);
//  var uX = parseInt(xx * u + 0.5) / u;
//  var uY= parseInt(yy * u + 0.5) / u;

//  var sf = parseInt(mapScaleFactor * usf  + 0.5) / usf;

//  //Display mouse position in DMS format
//  var x_d =  parseInt(uX);
//  var mmx = (uX - x_d) * 60;
//  var x_m =  parseInt(mmx) ;
//  var x_s =  parseInt((mmx - x_m) * 60) ;

//  var y_d =  parseInt(uY);
//  var mmy = (uY - y_d) * 60;
//  var y_m =  parseInt(mmy) ;
//  var y_s =  parseInt((mmy - y_m) * 60) ;

//  var degree_char = "\u00B0";     //This is the unicode value for the degree symbol for the DMS values

//  //Made following changes on the status bar:
//  //  -> Changed to say Lat and Long rather than x,y coordinates.
//  //  -> For DMS the Min. and Sec. values were forced to be positive because the negative will be shown with the Deg. values
//  //  -> Added Unicode value 00B0 for degrees, ' for minutes, and " for seconds

////	var bbb = "<form><input type=button name=copy value='Copy Lat/Long' onclick='CopyLatLong();'/></form>";

//  var mouseString2 = "<label style = \"color:red;float:right\" onclick=\"closeLatLongWindow()\">x</label>Lat/Long: " + uY + " , " + uX + "<br>" +
//                     "DMS: " + y_d + degree_char + "  " + Math.abs(y_m) + "\'  " + Math.abs(y_s) + "\", " + x_d + degree_char + "  " + Math.abs(x_m) + "\'  " + Math.abs(x_s) + "\"<br>" +
//                     "UTM: " + convertLatLontoUTM(yy,xx);

//  //var ooooo = top.parent.ToolbarFrame.document.getElementById("LatLongTEXT");
//  var ooooo = document.getElementById("LatLongTEXT");
//  if (ooooo != null && typeof ooooo != "undefined"){
//    ooooo.innerHTML = mouseString2;
//    ooooo.style.backgroundColor = "#D3D3DB";
//    ooooo.style.width = 315;
//    ooooo.style.visibility = "visible";
//    //ooooo.style.backgroundImage = "http://webfx.eae.net/dhtml/pngbehavior/webfx.png";
//  }
//  //ooooo.style.background = "opacity: 0.4";  //doesn't work at all
//  //ooooo.style.filter = "alpha(opacity=50);-moz-opacity:0.5;";  //doesn't work at all
//  return mouseString2;
//}
function closeLatLongWindow() {
//	document.getElementById("LatLongTEXT").innerHTML = "";
//	document.getElementById("LatLongTEXT").style.visibility = "hidden";
//	//document.getElementById("LatLongTEXT").style.width = 0;
//	//document.getElementById("LatLongTEXT").style.height = 0;
}

function reloadApp(){
var ww=getWindow();
ww.reloadApp();
}
function identifyDeriveLD(polygon) {
	var ww = getWindow();

	//alert(polygon);


	var intIndexOfMatch = polygon.indexOf( ";" );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( ";", ",0.0," );
		intIndexOfMatch = polygon.indexOf( ";" );
	}

	intIndexOfMatch = polygon.indexOf( "<RING> " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "<RING> ", "" );
		intIndexOfMatch = polygon.indexOf( "<RING> " );
	}

	intIndexOfMatch = polygon.indexOf( "</RING> " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "</RING> ", "" );
		intIndexOfMatch = polygon.indexOf( "</RING> " );
	}

	intIndexOfMatch = polygon.indexOf( "<POLYGON> " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "<POLYGON> ", "" );
		intIndexOfMatch = polygon.indexOf( "<POLYGON> " );
	}


	intIndexOfMatch = polygon.indexOf( "</POLYGON> " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "</POLYGON> ", "" );
		intIndexOfMatch = polygon.indexOf( "</POLYGON> " );
	}

	intIndexOfMatch = polygon.indexOf( "</POLYGON>" );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "</POLYGON>", "" );
		intIndexOfMatch = polygon.indexOf( "</POLYGON>" );
	}



	intIndexOfMatch = polygon.indexOf( "<COORDS> " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "<COORDS> ", "" );
		intIndexOfMatch = polygon.indexOf( "<COORDS> " );
	}


	intIndexOfMatch = polygon.indexOf( "<COORDS>" );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "<COORDS>", "" );
		intIndexOfMatch = polygon.indexOf( "<COORDS>" );
	}



	intIndexOfMatch = polygon.indexOf( "</COORDS> " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "</COORDS> ", ",0.0," );
		intIndexOfMatch = polygon.indexOf( "</COORDS> " );
	}

	intIndexOfMatch = polygon.indexOf( "</COORDS>" );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "</COORDS>", ",0.0," );
		intIndexOfMatch = polygon.indexOf( "</COORDS>" );
	}


	intIndexOfMatch = polygon.indexOf( "</POLYLINE> " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "</POLYLINE> ", "" );
		intIndexOfMatch = polygon.indexOf( "</POLYLINE> " );
	}

	intIndexOfMatch = polygon.indexOf( "<POLYLINE> " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "<POLYLINE> ", "" );
		intIndexOfMatch = polygon.indexOf( "<POLYLINE> " );
	}

	intIndexOfMatch = polygon.indexOf( "</PATH> " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "</PATH> ", "" );
		intIndexOfMatch = polygon.indexOf( "</PATH> " );
	}

	intIndexOfMatch = polygon.indexOf( "<PATH> " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "<PATH> ", "" );
		intIndexOfMatch = polygon.indexOf( "<PATH> " );
	}


	intIndexOfMatch = polygon.indexOf( "</POLYLINE>" );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "</POLYLINE>", "" );
		intIndexOfMatch = polygon.indexOf( "</POLYLINE>" );
	}

	intIndexOfMatch = polygon.indexOf( "<POLYLINE>" );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "<POLYLINE>", "" );
		intIndexOfMatch = polygon.indexOf( "<POLYLINE>" );
	}

	intIndexOfMatch = polygon.indexOf( "</PATH>" );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "</PATH>", "" );
		intIndexOfMatch = polygon.indexOf( "</PATH>" );
	}

	intIndexOfMatch = polygon.indexOf( "<PATH>" );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "<PATH>", "" );
		intIndexOfMatch = polygon.indexOf( "<PATH>" );
	}




	intIndexOfMatch = polygon.indexOf( " " );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( " ", "," );
		intIndexOfMatch = polygon.indexOf( " " );
	}

	intIndexOfMatch = polygon.indexOf( "%20" );
	while (intIndexOfMatch != -1){
		polygon = polygon.replace( "%20", ",0.0," );
		intIndexOfMatch = polygon.indexOf( "%20" );
	}

  polygon = polygon.substring(0,polygon.length-1);


	ww.passstring = polygon;
	ww.DeriveLD(polygon, "");
}

function isMapLayerVisible(layerId) {
	return getWindow().isLayerVisible(layerId);
}

function DeriveLD(sText, sLabel) {
	var ww = getWindow();
  sText = passstring;


  oDeriveLDFrame= ww.open("","oDeriveLDFrame","status=yes,left=150,top=50,width=415,height=700,scrollbars=yes,resizable=yes");
  oDeriveLDFrame.focus();
  oDeriveLDFrame.document.open();
  oDeriveLDFrame.document.writeln('<html><body>');
  oDeriveLDFrame.document.writeln('<form action=\"LDDerive.jsp\" method=\"POST\" name=\"form">');
  oDeriveLDFrame.document.writeln('<input type=\"hidden\" name=\"respString\" value=\"\" />');
  oDeriveLDFrame.document.writeln('<input type=\"hidden\" name=\"DeriveButton\" value=\"1\" />');
  oDeriveLDFrame.document.writeln('<input type=\"hidden\" name=\"xmlTest\" value=\"\" />');
  oDeriveLDFrame.document.writeln('<input type=\"hidden\" name=\"submitStatus\" value=\"\" />');
  oDeriveLDFrame.document.writeln('<input type=\"hidden\" name=\"completionStatus\" value=\"\" />');
  oDeriveLDFrame.document.writeln('<input type=\"hidden\" name=\"sketchcoordinates\" value=\"'+ sText + '\" />');
  oDeriveLDFrame.document.writeln('</form>');
  oDeriveLDFrame.document.writeln('<script language=\"javascript\" type=\"text/javascript\">');
  oDeriveLDFrame.document.writeln('document.form.submit();');
  oDeriveLDFrame.document.writeln('</script>');
  oDeriveLDFrame.document.close();
}

function FindLD(sText, sLabel) {
var ww=getWindow();
ww.FindLD(sText, sLabel);
}

function analyzeByObject(objectId, layer, tests, tabName) {
	var ww=getWindow();
	ww.analyzeByObject(objectId, layer, tests, tabName);
}

function analyzeByLD(legalDescription, tests, tabName) {
	var ww=getWindow();
	ww.analyzeByLD(legalDescription, tests, tabName);
}

function analyzeByGeometry(geometry, tests, tabName) {
	var ww=getWindow();
	ww.analyzeByGeometry(geometry, tests, tabName);
}

function getSelectionManagerKey(parcelName, layer) {
    var ww = getWindow();
    if (layer == null) layer = ww.cLAYER_LD;
    var oSM = ww.oSELECTION_MANAGER;
    var oSMList = oSM.InitList(layer);
    for(var i=0;i<oSMList.key.length;i++) {
      if(oSMList.label[i] ==parcelName) {
        return oSMList.key[i];
      }
    }
    return ww.uniqid();
  }

//var owin;
//function openphoto(sUrl, ww, hh)  {
//    var bOpen = false;

//    if (owin != null  && !owin.closed) {
//      var ss = owin.document.location.href;

//      //if (ss.indexOf(sUrl) > 0 ) {   //proper window and url already open, just give it focus
//          owin.focus();
//      //} else {
//      owin.document.location = sUrl;
//      owin.focus();
//      //}
//    }
//    else {
//      bOpen = true;
//      owin = open(sUrl, null,"height=" + hh + ",width=" + ww + ",status=yes,toolbar=no,menubar=no,location=no,resizable=yes scrollbars=yes");   //
//    }

//    return;
//}