!function(e){"object"==typeof exports?module.exports=e():"function"==typeof define&&define.amd?define(e):"undefined"!=typeof window?window.proj4=e():"undefined"!=typeof global?global.proj4=e():"undefined"!=typeof self&&(self.proj4=e())}(function(){var define,module,exports;
return (function e(t,n,r){function s(o,u){if(!n[o]){if(!t[o]){var a=typeof require=="function"&&require;if(!u&&a)return a(o,!0);if(i)return i(o,!0);throw new Error("Cannot find module '"+o+"'")}var f=n[o]={exports:{}};t[o][0].call(f.exports,function(e){var n=t[o][1][e];return s(n?n:e)},f,f.exports,e,t,n,r)}return n[o].exports}var i=typeof require=="function"&&require;for(var o=0;o<r.length;o++)s(r[o]);return s})({1:[function(require,module,exports){
var mgrs = require('./mgrs');

function Point(x, y, z) {
  if (!(this instanceof Point)) {
    return new Point(x, y, z);
  }
  if (Array.isArray(x)) {
    this.x = x[0];
    this.y = x[1];
    this.z = x[2] || 0.0;
  }else if(typeof x === 'object'){
    this.x = x.x;
    this.y = x.y;
    this.z = x.z || 0.0;
  } else if (typeof x === 'string' && typeof y === 'undefined') {
    var coords = x.split(',');
    this.x = parseFloat(coords[0], 10);
    this.y = parseFloat(coords[1], 10);
    this.z = parseFloat(coords[2], 10) || 0.0;
  }
  else {
    this.x = x;
    this.y = y;
    this.z = z || 0.0;
  }
  this.clone = function() {
    return new Point(this.x, this.y, this.z);
  };
  this.toArray = function(){
    if(this.z){
      return [this.x,this.y, this.z];
    }else{
      return [this.x,this.y];
    }
  };
  this.toString = function() {
    if(this.z){
      return "x=" + this.x + ",y=" + this.y + ",z="+this.z;
    }else{
      return "x=" + this.x + ",y=" + this.y;
    }
  };
  this.toShortString = function() {
    if(this.z){
      return this.x + "," + this.y+ "," + this.z;
    }else{
      return this.x + "," + this.y;
    }
  };
}

Point.fromMGRS = function(mgrsStr) {
  var llbbox = mgrs.inverse(mgrsStr);
  return new Point((llbbox[2] + llbbox[0]) / 2, (llbbox[3] + llbbox[1]) / 2);
};
Point.prototype.toMGRS = function(accuracy) {
  return mgrs.forward({
    lon: this.x,
    lat: this.y
  }, accuracy);
};
module.exports = Point;
},{"./mgrs":17}],2:[function(require,module,exports){
var extend = require('./extend');
var common = require('./common');
var defs = require('./defs');
var constants = require('./constants/index');
var datum = require('./datum');
var projections = require('./projections/index');
var wkt = require('./wkt');
var projStr = require('./projString');

function Projection(srsCode) {
  if (!(this instanceof Projection)) {
    return new Projection(srsCode);
  }
  this.srsCodeInput = srsCode;
  this.x0 = 0;
  this.y0 = 0;
  var obj;
  if (typeof srsCode === 'string') {
    //check to see if this is a WKT string
    if (srsCode in defs) {
      this.deriveConstants(defs[srsCode]);
      extend(this, defs[srsCode]);
    }
    else if ((srsCode.indexOf('GEOGCS') >= 0) || (srsCode.indexOf('GEOCCS') >= 0) || (srsCode.indexOf('PROJCS') >= 0) || (srsCode.indexOf('LOCAL_CS') >= 0)) {
      obj = wkt(srsCode);
      this.deriveConstants(obj);
      extend(this, obj);
      //this.loadProjCode(this.projName);
    }
    else if (srsCode[0] === '+') {
      obj = projStr(srsCode);
      this.deriveConstants(obj);
      extend(this, obj);
    }
  }
  else {
    this.deriveConstants(srsCode);
    extend(this, srsCode);
  }

  this.initTransforms(this.projName);
}
Projection.projections = projections;
Projection.projections.start();
Projection.prototype = {
  /**
   * Function: initTransforms
   *    Finalize the initialization of the Proj object
   *
   */
  initTransforms: function(projName) {
    var ourProj = Projection.projections.get(projName);
    if (ourProj) {
      extend(this, ourProj);
      this.init();
    }
    else {
      throw ("unknown projection " + projName);
    }
  },

  deriveConstants: function(self) {
    // DGR 2011-03-20 : nagrids -> nadgrids
    if (self.nadgrids && self.nadgrids.length === 0) {
      self.nadgrids = null;
    }
    if (self.nadgrids) {
      self.grids = self.nadgrids.split(",");
      var g = null,
        l = self.grids.length;
      if (l > 0) {
        for (var i = 0; i < l; i++) {
          g = self.grids[i];
          var fg = g.split("@");
          if (fg[fg.length - 1] === "") {
            //..reportError("nadgrids syntax error '" + self.nadgrids + "' : empty grid found");
            continue;
          }
          self.grids[i] = {
            mandatory: fg.length === 1, //@=> optional grid (no error if not found)
            name: fg[fg.length - 1],
            grid: constants.grids[fg[fg.length - 1]] //FIXME: grids loading ...
          };
          if (self.grids[i].mandatory && !self.grids[i].grid) {
            //..reportError("Missing '" + self.grids[i].name + "'");
          }
        }
      }
      // DGR, 2011-03-20: grids is an array of objects that hold
      // the loaded grids, its name and the mandatory informations of it.
    }
    if (self.datumCode && self.datumCode !== 'none') {
      var datumDef = constants.Datum[self.datumCode];
      if (datumDef) {
        self.datum_params = datumDef.towgs84 ? datumDef.towgs84.split(',') : null;
        self.ellps = datumDef.ellipse;
        self.datumName = datumDef.datumName ? datumDef.datumName : self.datumCode;
      }
    }
    if (!self.a) { // do we have an ellipsoid?
      var ellipse = constants.Ellipsoid[self.ellps] ? constants.Ellipsoid[self.ellps] : constants.Ellipsoid.WGS84;
      extend(self, ellipse);
    }
    if (self.rf && !self.b) {
      self.b = (1.0 - 1.0 / self.rf) * self.a;
    }
    if (self.rf === 0 || Math.abs(self.a - self.b) < common.EPSLN) {
      self.sphere = true;
      self.b = self.a;
    }
    self.a2 = self.a * self.a; // used in geocentric
    self.b2 = self.b * self.b; // used in geocentric
    self.es = (self.a2 - self.b2) / self.a2; // e ^ 2
    self.e = Math.sqrt(self.es); // eccentricity
    if (self.R_A) {
      self.a *= 1 - self.es * (common.SIXTH + self.es * (common.RA4 + self.es * common.RA6));
      self.a2 = self.a * self.a;
      self.b2 = self.b * self.b;
      self.es = 0;
    }
    self.ep2 = (self.a2 - self.b2) / self.b2; // used in geocentric
    if (!self.k0) {
      self.k0 = 1.0; //default value
    }
    //DGR 2010-11-12: axis
    if (!self.axis) {
      self.axis = "enu";
    }

    self.datum = datum(self);
  }
};
module.exports = Projection;

},{"./common":4,"./constants/index":9,"./datum":11,"./defs":13,"./extend":14,"./projString":18,"./projections/index":27,"./wkt":47}],3:[function(require,module,exports){
module.exports = function(crs, denorm, point) {
  var xin = point.x,
    yin = point.y,
    zin = point.z || 0.0;
  var v, t, i;
  for (i = 0; i < 3; i++) {
    if (denorm && i === 2 && point.z === undefined) {
      continue;
    }
    if (i === 0) {
      v = xin;
      t = 'x';
    }
    else if (i === 1) {
      v = yin;
      t = 'y';
    }
    else {
      v = zin;
      t = 'z';
    }
    switch (crs.axis[i]) {
    case 'e':
      point[t] = v;
      break;
    case 'w':
      point[t] = -v;
      break;
    case 'n':
      point[t] = v;
      break;
    case 's':
      point[t] = -v;
      break;
    case 'u':
      if (point[t] !== undefined) {
        point.z = v;
      }
      break;
    case 'd':
      if (point[t] !== undefined) {
        point.z = -v;
      }
      break;
    default:
      //console.log("ERROR: unknow axis ("+crs.axis[i]+") - check definition of "+crs.projName);
      return null;
    }
  }
  return point;
};

},{}],4:[function(require,module,exports){
exports.PI = 3.141592653589793238; //Math.PI;
exports.HALF_PI = 1.570796326794896619; //Math.PI*0.5;
exports.TWO_PI = 6.283185307179586477; //Math.PI*2;
exports.FORTPI = 0.78539816339744833;
exports.R2D = 57.29577951308232088;
exports.D2R = 0.01745329251994329577;
exports.SEC_TO_RAD = 4.84813681109535993589914102357e-6;
/* SEC_TO_RAD = Pi/180/3600 */
exports.EPSLN = 1.0e-10;
exports.MAX_ITER = 20;
// following constants from geocent.c
exports.COS_67P5 = 0.38268343236508977;
/* cosine of 67.5 degrees */
exports.AD_C = 1.0026000;
/* Toms region 1 constant */

/* datum_type values */
exports.PJD_UNKNOWN = 0;
exports.PJD_3PARAM = 1;
exports.PJD_7PARAM = 2;
exports.PJD_GRIDSHIFT = 3;
exports.PJD_WGS84 = 4; // WGS84 or equivalent
exports.PJD_NODATUM = 5; // WGS84 or equivalent
exports.SRS_WGS84_SEMIMAJOR = 6378137; // only used in grid shift transforms
exports.SRS_WGS84_ESQUARED = 0.006694379990141316; //DGR: 2012-07-29

// ellipoid pj_set_ell.c
exports.SIXTH = 0.1666666666666666667;
/* 1/6 */
exports.RA4 = 0.04722222222222222222;
/* 17/360 */
exports.RA6 = 0.02215608465608465608;
/* 67/3024 */
exports.RV4 = 0.06944444444444444444;
/* 5/72 */
exports.RV6 = 0.04243827160493827160;
/* 55/1296 */

// Function to compute the constant small m which is the radius of
//   a parallel of latitude; phi; divided by the semimajor axis.
// -----------------------------------------------------------------
exports.msfnz = function(eccent, sinphi, cosphi) {
  var con = eccent * sinphi;
  return cosphi / (Math.sqrt(1 - con * con));
};

// Function to compute the constant small t for use in the forward
//   computations in the Lambert Conformal Conic and the Polar
//   Stereographic projections.
// -----------------------------------------------------------------
exports.tsfnz = function(eccent, phi, sinphi) {
  var con = eccent * sinphi;
  var com = 0.5 * eccent;
  con = Math.pow(((1 - con) / (1 + con)), com);
  return (Math.tan(0.5 * (this.HALF_PI - phi)) / con);
};

// Function to compute the latitude angle; phi2; for the inverse of the
//   Lambert Conformal Conic and Polar Stereographic projections.
// ----------------------------------------------------------------
exports.phi2z = function(eccent, ts) {
  var eccnth = 0.5 * eccent;
  var con, dphi;
  var phi = this.HALF_PI - 2 * Math.atan(ts);
  for (var i = 0; i <= 15; i++) {
    con = eccent * Math.sin(phi);
    dphi = this.HALF_PI - 2 * Math.atan(ts * (Math.pow(((1 - con) / (1 + con)), eccnth))) - phi;
    phi += dphi;
    if (Math.abs(dphi) <= 0.0000000001) {
      return phi;
    }
  }
  //console.log("phi2z has NoConvergence");
  return -9999;
};

/* Function to compute constant small q which is the radius of a 
   parallel of latitude, phi, divided by the semimajor axis. 
------------------------------------------------------------*/
exports.qsfnz = function(eccent, sinphi) {
  var con;
  if (eccent > 1.0e-7) {
    con = eccent * sinphi;
    return ((1 - eccent * eccent) * (sinphi / (1 - con * con) - (0.5 / eccent) * Math.log((1 - con) / (1 + con))));
  }
  else {
    return (2 * sinphi);
  }
};

/* Function to compute the inverse of qsfnz
------------------------------------------------------------*/
exports.iqsfnz = function(eccent, q) {
  var temp = 1 - (1 - eccent * eccent) / (2 * eccent) * Math.log((1 - eccent) / (1 + eccent));
  if (Math.abs(Math.abs(q) - temp) < 1.0E-6) {
    if (q < 0) {
      return (-1 * exports.HALF_PI);
    }
    else {
      return exports.HALF_PI;
    }
  }
  //var phi = 0.5* q/(1-eccent*eccent);
  var phi = Math.asin(0.5 * q);
  var dphi;
  var sin_phi;
  var cos_phi;
  var con;
  for (var i = 0; i < 30; i++) {
    sin_phi = Math.sin(phi);
    cos_phi = Math.cos(phi);
    con = eccent * sin_phi;
    dphi = Math.pow(1 - con * con, 2) / (2 * cos_phi) * (q / (1 - eccent * eccent) - sin_phi / (1 - con * con) + 0.5 / eccent * Math.log((1 - con) / (1 + con)));
    phi += dphi;
    if (Math.abs(dphi) <= 0.0000000001) {
      return phi;
    }
  }

  //console.log("IQSFN-CONV:Latitude failed to converge after 30 iterations");
  return NaN;
};

/* Function to eliminate roundoff errors in asin
----------------------------------------------*/
exports.asinz = function(x) {
  if (Math.abs(x) > 1) {
    x = (x > 1) ? 1 : -1;
  }
  return Math.asin(x);
};

// following functions from gctpc cproj.c for transverse mercator projections
exports.e0fn = function(x) {
  return (1 - 0.25 * x * (1 + x / 16 * (3 + 1.25 * x)));
};
exports.e1fn = function(x) {
  return (0.375 * x * (1 + 0.25 * x * (1 + 0.46875 * x)));
};
exports.e2fn = function(x) {
  return (0.05859375 * x * x * (1 + 0.75 * x));
};
exports.e3fn = function(x) {
  return (x * x * x * (35 / 3072));
};
exports.mlfn = function(e0, e1, e2, e3, phi) {
  return (e0 * phi - e1 * Math.sin(2 * phi) + e2 * Math.sin(4 * phi) - e3 * Math.sin(6 * phi));
};
exports.imlfn = function(ml, e0, e1, e2, e3) {
  var phi;
  var dphi;

  phi = ml / e0;
  for (var i = 0; i < 15; i++) {
    dphi = (ml - (e0 * phi - e1 * Math.sin(2 * phi) + e2 * Math.sin(4 * phi) - e3 * Math.sin(6 * phi))) / (e0 - 2 * e1 * Math.cos(2 * phi) + 4 * e2 * Math.cos(4 * phi) - 6 * e3 * Math.cos(6 * phi));
    phi += dphi;
    if (Math.abs(dphi) <= 0.0000000001) {
      return phi;
    }
  }

  //..reportError("IMLFN-CONV:Latitude failed to converge after 15 iterations");
  return NaN;
};

exports.srat = function(esinp, exp) {
  return (Math.pow((1 - esinp) / (1 + esinp), exp));
};

// Function to return the sign of an argument
exports.sign = function(x) {
  if (x < 0) {
    return (-1);
  }
  else {
    return (1);
  }
};

// Function to adjust longitude to -180 to 180; input in radians
exports.adjust_lon = function(x) {
  x = (Math.abs(x) < this.PI) ? x : (x - (this.sign(x) * this.TWO_PI));
  return x;
};

// IGNF - DGR : algorithms used by IGN France

// Function to adjust latitude to -90 to 90; input in radians
exports.adjust_lat = function(x) {
  x = (Math.abs(x) < this.HALF_PI) ? x : (x - (this.sign(x) * this.PI));
  return x;
};

// Latitude Isometrique - close to tsfnz ...
exports.latiso = function(eccent, phi, sinphi) {
  if (Math.abs(phi) > this.HALF_PI) {
    return Number.NaN;
  }
  if (phi === this.HALF_PI) {
    return Number.POSITIVE_INFINITY;
  }
  if (phi === -1 * this.HALF_PI) {
    return Number.NEGATIVE_INFINITY;
  }

  var con = eccent * sinphi;
  return Math.log(Math.tan((this.HALF_PI + phi) / 2)) + eccent * Math.log((1 - con) / (1 + con)) / 2;
};

exports.fL = function(x, L) {
  return 2 * Math.atan(x * Math.exp(L)) - this.HALF_PI;
};

// Inverse Latitude Isometrique - close to ph2z
exports.invlatiso = function(eccent, ts) {
  var phi = this.fL(1, ts);
  var Iphi = 0;
  var con = 0;
  do {
    Iphi = phi;
    con = eccent * Math.sin(Iphi);
    phi = this.fL(Math.exp(eccent * Math.log((1 + con) / (1 - con)) / 2), ts);
  } while (Math.abs(phi - Iphi) > 1.0e-12);
  return phi;
};

// Needed for Gauss Schreiber
// Original:  Denis Makarov (info@binarythings.com)
// Web Site:  http://www.binarythings.com
exports.sinh = function(x) {
  var r = Math.exp(x);
  r = (r - 1 / r) / 2;
  return r;
};

exports.cosh = function(x) {
  var r = Math.exp(x);
  r = (r + 1 / r) / 2;
  return r;
};

exports.tanh = function(x) {
  var r = Math.exp(x);
  r = (r - 1 / r) / (r + 1 / r);
  return r;
};

exports.asinh = function(x) {
  var s = (x >= 0 ? 1 : -1);
  return s * (Math.log(Math.abs(x) + Math.sqrt(x * x + 1)));
};

exports.acosh = function(x) {
  return 2 * Math.log(Math.sqrt((x + 1) / 2) + Math.sqrt((x - 1) / 2));
};

exports.atanh = function(x) {
  return Math.log((x - 1) / (x + 1)) / 2;
};

// Grande Normale
exports.gN = function(a, e, sinphi) {
  var temp = e * sinphi;
  return a / Math.sqrt(1 - temp * temp);
};

//code from the PROJ.4 pj_mlfn.c file;  this may be useful for other projections
exports.pj_enfn = function(es) {
  var en = [];
  en[0] = this.C00 - es * (this.C02 + es * (this.C04 + es * (this.C06 + es * this.C08)));
  en[1] = es * (this.C22 - es * (this.C04 + es * (this.C06 + es * this.C08)));
  var t = es * es;
  en[2] = t * (this.C44 - es * (this.C46 + es * this.C48));
  t *= es;
  en[3] = t * (this.C66 - es * this.C68);
  en[4] = t * es * this.C88;
  return en;
};

exports.pj_mlfn = function(phi, sphi, cphi, en) {
  cphi *= sphi;
  sphi *= sphi;
  return (en[0] * phi - cphi * (en[1] + sphi * (en[2] + sphi * (en[3] + sphi * en[4]))));
};

exports.pj_inv_mlfn = function(arg, es, en) {
  var k = 1 / (1 - es);
  var phi = arg;
  for (var i = exports.MAX_ITER; i; --i) { /* rarely goes over 2 iterations */
    var s = Math.sin(phi);
    var t = 1 - es * s * s;
    //t = this.pj_mlfn(phi, s, Math.cos(phi), en) - arg;
    //phi -= t * (t * Math.sqrt(t)) * k;
    t = (this.pj_mlfn(phi, s, Math.cos(phi), en) - arg) * (t * Math.sqrt(t)) * k;
    phi -= t;
    if (Math.abs(t) < exports.EPSLN) {
      return phi;
    }
  }
  //..reportError("cass:pj_inv_mlfn: Convergence error");
  return phi;
};
exports.nadInterBreakout = function(indx, frct, letter, number, ct) {
  var inx;
  if (indx[letter] < 0) {
    if (!(indx[letter] === -1 && frct[letter] > 0.99999999999)) {
      return false;
    }
    indx[letter]++;
    frct[letter] = 0;
  }
  else {
    inx = indx[letter] + 1;
    if (inx >= ct.lim[number]) {
      if (!(inx === ct.lim[number] && frct[letter] < 1e-11)) {
        return false;
      }
      if (letter === 'x') {
        indx[letter]--;
      }
      else {
        indx[letter]++;
      }
      frct[letter] = 1;
    }
  }
  return [indx, frct];
};
/**
 * Determine correction values
 * source: nad_intr.c (DGR: 2012-07-29)
 */
exports.nad_intr = function(pin, ct) {
  // force computation by decreasing by 1e-7 to be as closed as possible
  // from computation under C:C++ by leveraging rounding problems ...
  var t = {
    x: (pin.x - 1e-7) / ct.del[0],
    y: (pin.y - 1e-7) / ct.del[1]
  };
  var indx = {
    x: Math.floor(t.x),
    y: Math.floor(t.y)
  };
  var frct = {
    x: t.x - 1 * indx.x,
    y: t.y - 1 * indx.y
  };
  var val = {
    x: Number.NaN,
    y: Number.NaN
  };


  var temp = exports.nadInterBreakout(indx, frct, 'x', 0, ct);
  if (temp) {
    indx = temp[0];
    frct = temp[1];
  }
  else {
    return val;
  }
  temp = exports.nadInterBreakout(indx, frct, 'y', 1, ct);
  if (temp) {
    indx = temp[0];
    frct = temp[1];
  }
  else {
    return val;
  }
  var inx = (indx.y * ct.lim[0]) + indx.x;
  var f00 = {
    x: ct.cvs[inx][0],
    y: ct.cvs[inx][1]
  };
  inx++;
  var f10 = {
    x: ct.cvs[inx][0],
    y: ct.cvs[inx][1]
  };
  inx += ct.lim[0];
  var f11 = {
    x: ct.cvs[inx][0],
    y: ct.cvs[inx][1]
  };
  inx--;
  var f01 = {
    x: ct.cvs[inx][0],
    y: ct.cvs[inx][1]
  };
  var m11 = frct.x * frct.y,
    m10 = frct.x * (1 - frct.y),
    m00 = (1 - frct.x) * (1 - frct.y),
    m01 = (1 - frct.x) * frct.y;
  val.x = (m00 * f00.x + m10 * f10.x + m01 * f01.x + m11 * f11.x);
  val.y = (m00 * f00.y + m10 * f10.y + m01 * f01.y + m11 * f11.y);
  return val;
};

/**
 * Correct value
 * source: nad_cvt.c (DGR: 2012-07-29)
 */
exports.inverseNadCvt = function(t, val, tb, ct) {
  if (isNaN(t.x)) {
    return val;
  }
  t.x = tb.x + t.x;
  t.y = tb.y - t.y;
  var i = 9,
    tol = 1e-12;
  var dif, del;
  do {
    del = exports.nad_intr(t, ct);
    if (isNaN(del.x)) {
      this.reportError("Inverse grid shift iteration failed, presumably at grid edge.  Using first approximation.");
      break;
    }
    dif = {
      "x": t.x - del.x - tb.x,
      "y": t.y + del.y - tb.y
    };
    t.x -= dif.x;
    t.y -= dif.y;
  } while (i-- && Math.abs(dif.x) > tol && Math.abs(dif.y) > tol);
  if (i < 0) {
    this.reportError("Inverse grid shift iterator failed to converge.");
    return val;
  }
  val.x = exports.adjust_lon(t.x + ct.ll[0]);
  val.y = t.y + ct.ll[1];
  return val;
};
exports.nad_cvt = function(pin, inverse, ct) {
  var val = {
    "x": Number.NaN,
    "y": Number.NaN
  };
  if (isNaN(pin.x)) {
    return val;
  }
  var tb = {
    "x": pin.x,
    "y": pin.y
  };
  tb.x -= ct.ll[0];
  tb.y -= ct.ll[1];
  tb.x = exports.adjust_lon(tb.x - exports.PI) + exports.PI;
  var t = exports.nad_intr(tb, ct);
  if (inverse) {
    return exports.inverseNadCvt(t, val, tb, ct);
  }
  else {
    if (!isNaN(t.x)) {
      val.x = pin.x - t.x;
      val.y = pin.y + t.y;
    }
  }
  return val;
};

/* meridinal distance for ellipsoid and inverse
 **    8th degree - accurate to < 1e-5 meters when used in conjuction
 **		with typical major axis values.
 **	Inverse determines phi to EPS (1e-11) radians, about 1e-6 seconds.
 */
exports.C00 = 1;
exports.C02 = 0.25;
exports.C04 = 0.046875;
exports.C06 = 0.01953125;
exports.C08 = 0.01068115234375;
exports.C22 = 0.75;
exports.C44 = 0.46875;
exports.C46 = 0.01302083333333333333;
exports.C48 = 0.00712076822916666666;
exports.C66 = 0.36458333333333333333;
exports.C68 = 0.00569661458333333333;
exports.C88 = 0.3076171875;

},{}],5:[function(require,module,exports){
exports.wgs84 = {
  towgs84: "0,0,0",
  ellipse: "WGS84",
  datumName: "WGS84"
};
exports.ch1903 = {
  towgs84: "674.374,15.056,405.346",
  ellipse: "bessel",
  datumName: "swiss"
};
exports.ggrs87 = {
  towgs84: "-199.87,74.79,246.62",
  ellipse: "GRS80",
  datumName: "Greek_Geodetic_Reference_System_1987"
};
exports.nad83 = {
  towgs84: "0,0,0",
  ellipse: "GRS80",
  datumName: "North_American_Datum_1983"
};
exports.nad27 = {
  nadgrids: "@conus,@alaska,@ntv2_0.gsb,@ntv1_can.dat",
  ellipse: "clrk66",
  datumName: "North_American_Datum_1927"
};
exports.potsdam = {
  towgs84: "606.0,23.0,413.0",
  ellipse: "bessel",
  datumName: "Potsdam Rauenberg 1950 DHDN"
};
exports.carthage = {
  towgs84: "-263.0,6.0,431.0",
  ellipse: "clark80",
  datumName: "Carthage 1934 Tunisia"
};
exports.hermannskogel = {
  towgs84: "653.0,-212.0,449.0",
  ellipse: "bessel",
  datumName: "Hermannskogel"
};
exports.ire65 = {
  towgs84: "482.530,-130.596,564.557,-1.042,-0.214,-0.631,8.15",
  ellipse: "mod_airy",
  datumName: "Ireland 1965"
};
exports.rassadiran = {
  towgs84: "-133.63,-157.5,-158.62",
  ellipse: "intl",
  datumName: "Rassadiran"
};
exports.nzgd49 = {
  towgs84: "59.47,-5.04,187.44,0.47,-0.1,1.024,-4.5993",
  ellipse: "intl",
  datumName: "New Zealand Geodetic Datum 1949"
};
exports.osgb36 = {
  towgs84: "446.448,-125.157,542.060,0.1502,0.2470,0.8421,-20.4894",
  ellipse: "airy",
  datumName: "Airy 1830"
};
exports.s_jtsk = {
  towgs84: "589,76,480",
  ellipse: 'bessel',
  datumName: 'S-JTSK (Ferro)'
};
exports.beduaram = {
  towgs84: '-106,-87,188',
  ellipse: 'clrk80',
  datumName: 'Beduaram'
};
exports.gunung_segara = {
  towgs84: '-403,684,41',
  ellipse: 'bessel',
  datumName: 'Gunung Segara Jakarta'
};
},{}],6:[function(require,module,exports){
exports.MERIT = {
  a: 6378137.0,
  rf: 298.257,
  ellipseName: "MERIT 1983"
};
exports.SGS85 = {
  a: 6378136.0,
  rf: 298.257,
  ellipseName: "Soviet Geodetic System 85"
};
exports.GRS80 = {
  a: 6378137.0,
  rf: 298.257222101,
  ellipseName: "GRS 1980(IUGG, 1980)"
};
exports.IAU76 = {
  a: 6378140.0,
  rf: 298.257,
  ellipseName: "IAU 1976"
};
exports.airy = {
  a: 6377563.396,
  b: 6356256.910,
  ellipseName: "Airy 1830"
};
exports.APL4 = {
  a: 6378137,
  rf: 298.25,
  ellipseName: "Appl. Physics. 1965"
};
exports.NWL9D = {
  a: 6378145.0,
  rf: 298.25,
  ellipseName: "Naval Weapons Lab., 1965"
};
exports.mod_airy = {
  a: 6377340.189,
  b: 6356034.446,
  ellipseName: "Modified Airy"
};
exports.andrae = {
  a: 6377104.43,
  rf: 300.0,
  ellipseName: "Andrae 1876 (Den., Iclnd.)"
};
exports.aust_SA = {
  a: 6378160.0,
  rf: 298.25,
  ellipseName: "Australian Natl & S. Amer. 1969"
};
exports.GRS67 = {
  a: 6378160.0,
  rf: 298.2471674270,
  ellipseName: "GRS 67(IUGG 1967)"
};
exports.bessel = {
  a: 6377397.155,
  rf: 299.1528128,
  ellipseName: "Bessel 1841"
};
exports.bess_nam = {
  a: 6377483.865,
  rf: 299.1528128,
  ellipseName: "Bessel 1841 (Namibia)"
};
exports.clrk66 = {
  a: 6378206.4,
  b: 6356583.8,
  ellipseName: "Clarke 1866"
};
exports.clrk80 = {
  a: 6378249.145,
  rf: 293.4663,
  ellipseName: "Clarke 1880 mod."
};
exports.clrk58 = {
  a: 6378293.645208759,
  rf: 294.2606763692654,
  ellipseName: "Clarke 1858"
};
exports.CPM = {
  a: 6375738.7,
  rf: 334.29,
  ellipseName: "Comm. des Poids et Mesures 1799"
};
exports.delmbr = {
  a: 6376428.0,
  rf: 311.5,
  ellipseName: "Delambre 1810 (Belgium)"
};
exports.engelis = {
  a: 6378136.05,
  rf: 298.2566,
  ellipseName: "Engelis 1985"
};
exports.evrst30 = {
  a: 6377276.345,
  rf: 300.8017,
  ellipseName: "Everest 1830"
};
exports.evrst48 = {
  a: 6377304.063,
  rf: 300.8017,
  ellipseName: "Everest 1948"
};
exports.evrst56 = {
  a: 6377301.243,
  rf: 300.8017,
  ellipseName: "Everest 1956"
};
exports.evrst69 = {
  a: 6377295.664,
  rf: 300.8017,
  ellipseName: "Everest 1969"
};
exports.evrstSS = {
  a: 6377298.556,
  rf: 300.8017,
  ellipseName: "Everest (Sabah & Sarawak)"
};
exports.fschr60 = {
  a: 6378166.0,
  rf: 298.3,
  ellipseName: "Fischer (Mercury Datum) 1960"
};
exports.fschr60m = {
  a: 6378155.0,
  rf: 298.3,
  ellipseName: "Fischer 1960"
};
exports.fschr68 = {
  a: 6378150.0,
  rf: 298.3,
  ellipseName: "Fischer 1968"
};
exports.helmert = {
  a: 6378200.0,
  rf: 298.3,
  ellipseName: "Helmert 1906"
};
exports.hough = {
  a: 6378270.0,
  rf: 297.0,
  ellipseName: "Hough"
};
exports.intl = {
  a: 6378388.0,
  rf: 297.0,
  ellipseName: "International 1909 (Hayford)"
};
exports.kaula = {
  a: 6378163.0,
  rf: 298.24,
  ellipseName: "Kaula 1961"
};
exports.lerch = {
  a: 6378139.0,
  rf: 298.257,
  ellipseName: "Lerch 1979"
};
exports.mprts = {
  a: 6397300.0,
  rf: 191.0,
  ellipseName: "Maupertius 1738"
};
exports.new_intl = {
  a: 6378157.5,
  b: 6356772.2,
  ellipseName: "New International 1967"
};
exports.plessis = {
  a: 6376523.0,
  rf: 6355863.0,
  ellipseName: "Plessis 1817 (France)"
};
exports.krass = {
  a: 6378245.0,
  rf: 298.3,
  ellipseName: "Krassovsky, 1942"
};
exports.SEasia = {
  a: 6378155.0,
  b: 6356773.3205,
  ellipseName: "Southeast Asia"
};
exports.walbeck = {
  a: 6376896.0,
  b: 6355834.8467,
  ellipseName: "Walbeck"
};
exports.WGS60 = {
  a: 6378165.0,
  rf: 298.3,
  ellipseName: "WGS 60"
};
exports.WGS66 = {
  a: 6378145.0,
  rf: 298.25,
  ellipseName: "WGS 66"
};
exports.WGS7 = {
  a: 6378135.0,
  rf: 298.26,
  ellipseName: "WGS 72"
};
exports.WGS84 = {
  a: 6378137.0,
  rf: 298.257223563,
  ellipseName: "WGS 84"
};
exports.sphere = {
  a: 6370997.0,
  b: 6370997.0,
  ellipseName: "Normal Sphere (r=6370997)"
};
},{}],7:[function(require,module,exports){
exports.greenwich = 0.0; //"0dE",
exports.lisbon = -9.131906111111; //"9d07'54.862\"W",
exports.paris = 2.337229166667; //"2d20'14.025\"E",
exports.bogota = -74.080916666667; //"74d04'51.3\"W",
exports.madrid = -3.687938888889; //"3d41'16.58\"W",
exports.rome = 12.452333333333; //"12d27'8.4\"E",
exports.bern = 7.439583333333; //"7d26'22.5\"E",
exports.jakarta = 106.807719444444; //"106d48'27.79\"E",
exports.ferro = -17.666666666667; //"17d40'W",
exports.brussels = 4.367975; //"4d22'4.71\"E",
exports.stockholm = 18.058277777778; //"18d3'29.8\"E",
exports.athens = 23.7163375; //"23d42'58.815\"E",
exports.oslo = 10.722916666667; //"10d43'22.5\"E"
},{}],8:[function(require,module,exports){
// Based on . CTABLE  structure :
  // FIXME: better to have array instead of object holding longitudes, latitudes members
  //        In the former case, one has to document index 0 is longitude and
  //        1 is latitude ...
  //        In the later case, grid object gets bigger !!!!
  //        Solution 1 is chosen based on pj_gridinfo.c
exports.null = { // name of grid's file
  "ll": [-3.14159265, - 1.57079633], // lower-left coordinates in radians (longitude, latitude):
  "del": [3.14159265, 1.57079633], // cell's size in radians (longitude, latitude):
  "lim": [3, 3], // number of nodes in longitude, latitude (including edges):
  "count": 9, // total number of nodes
  "cvs": [ // shifts : in ntv2 reverse order : lon, lat in radians ...
    [0.0, 0.0],
    [0.0, 0.0],
    [0.0, 0.0], // for (lon= 0; lon<lim[0]; lon++) {
    [0.0, 0.0],
    [0.0, 0.0],
    [0.0, 0.0], //   for (lat= 0; lat<lim[1]; lat++) { p= cvs[lat*lim[0]+lon]; }
    [0.0, 0.0],
    [0.0, 0.0],
    [0.0, 0.0] // }
  ]
};
},{}],9:[function(require,module,exports){
exports.PrimeMeridian = require('./PrimeMeridian');

exports.Ellipsoid = require('./Ellipsoid');

exports.Datum = require('./Datum');

//..WGS84 = Proj('WGS84');
exports.Datum.OSB36 = exports.Datum.OSGB36; //as returned from spatialreference.org

exports.grids = require('./grids');

},{"./Datum":5,"./Ellipsoid":6,"./PrimeMeridian":7,"./grids":8}],10:[function(require,module,exports){
var point = require('./Point');
var proj = require('./Proj');
var transform = require('./transform');
var wgs84 = proj('WGS84');

function transformer(from, to, coords) {
  var transformedArray;
  if (Array.isArray(coords)) {
    transformedArray = transform(from, to, point(coords));
    if (coords.length === 3) {
      return [transformedArray.x, transformedArray.y, transformedArray.z];
    }
    else {
      return [transformedArray.x, transformedArray.y];
    }
  }
  else {
    return transform(from, to, coords);
  }
}

function checkProj(item) {
  if (item instanceof proj) {
    return item;
  }
  if (item.oProj) {
    return item.oProj;
  }
  return proj(item);
}
function proj4(fromProj, toProj, coord) {
  fromProj = checkProj(fromProj);
  var single = false;
  var obj;
  if (typeof toProj === 'undefined') {
    toProj = fromProj;
    fromProj = wgs84;
    single = true;
  }
  else if (typeof toProj.x !== 'undefined' || Array.isArray(toProj)) {
    coord = toProj;
    toProj = fromProj;
    fromProj = wgs84;
    single = true;
  }
  toProj = checkProj(toProj);
  if (coord) {
    return transformer(fromProj, toProj, coord);
  }
  else {
    obj = {
      forward: function(coords) {
        return transformer(fromProj, toProj, coords);
      },
      inverse: function(coords) {
        return transformer(toProj, fromProj, coords);
      }
    };
    if (single) {
      obj.oProj = toProj;
    }
    return obj;
  }
}
module.exports = proj4;
},{"./Point":1,"./Proj":2,"./transform":45}],11:[function(require,module,exports){
var common = require('./common');
var datum = function(proj) {
  if (!(this instanceof datum)) {
    return new datum(proj);
  }
  this.datum_type = common.PJD_WGS84; //default setting
  if (!proj) {
    return;
  }
  if (proj.datumCode && proj.datumCode === 'none') {
    this.datum_type = common.PJD_NODATUM;
  }
  if (proj.datum_params) {
    for (var i = 0; i < proj.datum_params.length; i++) {
      proj.datum_params[i] = parseFloat(proj.datum_params[i]);
    }
    if (proj.datum_params[0] !== 0 || proj.datum_params[1] !== 0 || proj.datum_params[2] !== 0) {
      this.datum_type = common.PJD_3PARAM;
    }
    if (proj.datum_params.length > 3) {
      if (proj.datum_params[3] !== 0 || proj.datum_params[4] !== 0 || proj.datum_params[5] !== 0 || proj.datum_params[6] !== 0) {
        this.datum_type = common.PJD_7PARAM;
        proj.datum_params[3] *= common.SEC_TO_RAD;
        proj.datum_params[4] *= common.SEC_TO_RAD;
        proj.datum_params[5] *= common.SEC_TO_RAD;
        proj.datum_params[6] = (proj.datum_params[6] / 1000000.0) + 1.0;
      }
    }
  }
  // DGR 2011-03-21 : nadgrids support
  this.datum_type = proj.grids ? common.PJD_GRIDSHIFT : this.datum_type;

  this.a = proj.a; //datum object also uses these values
  this.b = proj.b;
  this.es = proj.es;
  this.ep2 = proj.ep2;
  this.datum_params = proj.datum_params;
  if (this.datum_type === common.PJD_GRIDSHIFT) {
    this.grids = proj.grids;
  }
};
datum.prototype = {


  /****************************************************************/
  // cs_compare_datums()
  //   Returns TRUE if the two datums match, otherwise FALSE.
  compare_datums: function(dest) {
    if (this.datum_type !== dest.datum_type) {
      return false; // false, datums are not equal
    }
    else if (this.a !== dest.a || Math.abs(this.es - dest.es) > 0.000000000050) {
      // the tolerence for es is to ensure that GRS80 and WGS84
      // are considered identical
      return false;
    }
    else if (this.datum_type === common.PJD_3PARAM) {
      return (this.datum_params[0] === dest.datum_params[0] && this.datum_params[1] === dest.datum_params[1] && this.datum_params[2] === dest.datum_params[2]);
    }
    else if (this.datum_type === common.PJD_7PARAM) {
      return (this.datum_params[0] === dest.datum_params[0] && this.datum_params[1] === dest.datum_params[1] && this.datum_params[2] === dest.datum_params[2] && this.datum_params[3] === dest.datum_params[3] && this.datum_params[4] === dest.datum_params[4] && this.datum_params[5] === dest.datum_params[5] && this.datum_params[6] === dest.datum_params[6]);
    }
    else if (this.datum_type === common.PJD_GRIDSHIFT || dest.datum_type === common.PJD_GRIDSHIFT) {
      //alert("ERROR: Grid shift transformations are not implemented.");
      //return false
      //DGR 2012-07-29 lazy ...
      return this.nadgrids === dest.nadgrids;
    }
    else {
      return true; // datums are equal
    }
  }, // cs_compare_datums()

  /*
   * The function Convert_Geodetic_To_Geocentric converts geodetic coordinates
   * (latitude, longitude, and height) to geocentric coordinates (X, Y, Z),
   * according to the current ellipsoid parameters.
   *
   *    Latitude  : Geodetic latitude in radians                     (input)
   *    Longitude : Geodetic longitude in radians                    (input)
   *    Height    : Geodetic height, in meters                       (input)
   *    X         : Calculated Geocentric X coordinate, in meters    (output)
   *    Y         : Calculated Geocentric Y coordinate, in meters    (output)
   *    Z         : Calculated Geocentric Z coordinate, in meters    (output)
   *
   */
  geodetic_to_geocentric: function(p) {
    var Longitude = p.x;
    var Latitude = p.y;
    var Height = p.z ? p.z : 0; //Z value not always supplied
    var X; // output
    var Y;
    var Z;

    var Error_Code = 0; //  GEOCENT_NO_ERROR;
    var Rn; /*  Earth radius at location  */
    var Sin_Lat; /*  Math.sin(Latitude)  */
    var Sin2_Lat; /*  Square of Math.sin(Latitude)  */
    var Cos_Lat; /*  Math.cos(Latitude)  */

    /*
     ** Don't blow up if Latitude is just a little out of the value
     ** range as it may just be a rounding issue.  Also removed longitude
     ** test, it should be wrapped by Math.cos() and Math.sin().  NFW for PROJ.4, Sep/2001.
     */
    if (Latitude < -common.HALF_PI && Latitude > -1.001 * common.HALF_PI) {
      Latitude = -common.HALF_PI;
    }
    else if (Latitude > common.HALF_PI && Latitude < 1.001 * common.HALF_PI) {
      Latitude = common.HALF_PI;
    }
    else if ((Latitude < -common.HALF_PI) || (Latitude > common.HALF_PI)) {
      /* Latitude out of range */
      //..reportError('geocent:lat out of range:' + Latitude);
      return null;
    }

    if (Longitude > common.PI) {
      Longitude -= (2 * common.PI);
    }
    Sin_Lat = Math.sin(Latitude);
    Cos_Lat = Math.cos(Latitude);
    Sin2_Lat = Sin_Lat * Sin_Lat;
    Rn = this.a / (Math.sqrt(1.0e0 - this.es * Sin2_Lat));
    X = (Rn + Height) * Cos_Lat * Math.cos(Longitude);
    Y = (Rn + Height) * Cos_Lat * Math.sin(Longitude);
    Z = ((Rn * (1 - this.es)) + Height) * Sin_Lat;

    p.x = X;
    p.y = Y;
    p.z = Z;
    return Error_Code;
  }, // cs_geodetic_to_geocentric()


  geocentric_to_geodetic: function(p) {
    /* local defintions and variables */
    /* end-criterium of loop, accuracy of sin(Latitude) */
    var genau = 1e-12;
    var genau2 = (genau * genau);
    var maxiter = 30;

    var P; /* distance between semi-minor axis and location */
    var RR; /* distance between center and location */
    var CT; /* sin of geocentric latitude */
    var ST; /* cos of geocentric latitude */
    var RX;
    var RK;
    var RN; /* Earth radius at location */
    var CPHI0; /* cos of start or old geodetic latitude in iterations */
    var SPHI0; /* sin of start or old geodetic latitude in iterations */
    var CPHI; /* cos of searched geodetic latitude */
    var SPHI; /* sin of searched geodetic latitude */
    var SDPHI; /* end-criterium: addition-theorem of sin(Latitude(iter)-Latitude(iter-1)) */
    var At_Pole; /* indicates location is in polar region */
    var iter; /* # of continous iteration, max. 30 is always enough (s.a.) */

    var X = p.x;
    var Y = p.y;
    var Z = p.z ? p.z : 0.0; //Z value not always supplied
    var Longitude;
    var Latitude;
    var Height;

    At_Pole = false;
    P = Math.sqrt(X * X + Y * Y);
    RR = Math.sqrt(X * X + Y * Y + Z * Z);

    /*      special cases for latitude and longitude */
    if (P / this.a < genau) {

      /*  special case, if P=0. (X=0., Y=0.) */
      At_Pole = true;
      Longitude = 0.0;

      /*  if (X,Y,Z)=(0.,0.,0.) then Height becomes semi-minor axis
       *  of ellipsoid (=center of mass), Latitude becomes PI/2 */
      if (RR / this.a < genau) {
        Latitude = common.HALF_PI;
        Height = -this.b;
        return;
      }
    }
    else {
      /*  ellipsoidal (geodetic) longitude
       *  interval: -PI < Longitude <= +PI */
      Longitude = Math.atan2(Y, X);
    }

    /* --------------------------------------------------------------
     * Following iterative algorithm was developped by
     * "Institut for Erdmessung", University of Hannover, July 1988.
     * Internet: www.ife.uni-hannover.de
     * Iterative computation of CPHI,SPHI and Height.
     * Iteration of CPHI and SPHI to 10**-12 radian resp.
     * 2*10**-7 arcsec.
     * --------------------------------------------------------------
     */
    CT = Z / RR;
    ST = P / RR;
    RX = 1.0 / Math.sqrt(1.0 - this.es * (2.0 - this.es) * ST * ST);
    CPHI0 = ST * (1.0 - this.es) * RX;
    SPHI0 = CT * RX;
    iter = 0;

    /* loop to find sin(Latitude) resp. Latitude
     * until |sin(Latitude(iter)-Latitude(iter-1))| < genau */
    do {
      iter++;
      RN = this.a / Math.sqrt(1.0 - this.es * SPHI0 * SPHI0);

      /*  ellipsoidal (geodetic) height */
      Height = P * CPHI0 + Z * SPHI0 - RN * (1.0 - this.es * SPHI0 * SPHI0);

      RK = this.es * RN / (RN + Height);
      RX = 1.0 / Math.sqrt(1.0 - RK * (2.0 - RK) * ST * ST);
      CPHI = ST * (1.0 - RK) * RX;
      SPHI = CT * RX;
      SDPHI = SPHI * CPHI0 - CPHI * SPHI0;
      CPHI0 = CPHI;
      SPHI0 = SPHI;
    }
    while (SDPHI * SDPHI > genau2 && iter < maxiter);

    /*      ellipsoidal (geodetic) latitude */
    Latitude = Math.atan(SPHI / Math.abs(CPHI));

    p.x = Longitude;
    p.y = Latitude;
    p.z = Height;
    return p;
  }, // cs_geocentric_to_geodetic()

  /** Convert_Geocentric_To_Geodetic
   * The method used here is derived from 'An Improved Algorithm for
   * Geocentric to Geodetic Coordinate Conversion', by Ralph Toms, Feb 1996
   */
  geocentric_to_geodetic_noniter: function(p) {
    var X = p.x;
    var Y = p.y;
    var Z = p.z ? p.z : 0; //Z value not always supplied
    var Longitude;
    var Latitude;
    var Height;

    var W; /* distance from Z axis */
    var W2; /* square of distance from Z axis */
    var T0; /* initial estimate of vertical component */
    var T1; /* corrected estimate of vertical component */
    var S0; /* initial estimate of horizontal component */
    var S1; /* corrected estimate of horizontal component */
    var Sin_B0; /* Math.sin(B0), B0 is estimate of Bowring aux variable */
    var Sin3_B0; /* cube of Math.sin(B0) */
    var Cos_B0; /* Math.cos(B0) */
    var Sin_p1; /* Math.sin(phi1), phi1 is estimated latitude */
    var Cos_p1; /* Math.cos(phi1) */
    var Rn; /* Earth radius at location */
    var Sum; /* numerator of Math.cos(phi1) */
    var At_Pole; /* indicates location is in polar region */

    X = parseFloat(X); // cast from string to float
    Y = parseFloat(Y);
    Z = parseFloat(Z);

    At_Pole = false;
    if (X !== 0.0) {
      Longitude = Math.atan2(Y, X);
    }
    else {
      if (Y > 0) {
        Longitude = common.HALF_PI;
      }
      else if (Y < 0) {
        Longitude = -common.HALF_PI;
      }
      else {
        At_Pole = true;
        Longitude = 0.0;
        if (Z > 0.0) { /* north pole */
          Latitude = common.HALF_PI;
        }
        else if (Z < 0.0) { /* south pole */
          Latitude = -common.HALF_PI;
        }
        else { /* center of earth */
          Latitude = common.HALF_PI;
          Height = -this.b;
          return;
        }
      }
    }
    W2 = X * X + Y * Y;
    W = Math.sqrt(W2);
    T0 = Z * common.AD_C;
    S0 = Math.sqrt(T0 * T0 + W2);
    Sin_B0 = T0 / S0;
    Cos_B0 = W / S0;
    Sin3_B0 = Sin_B0 * Sin_B0 * Sin_B0;
    T1 = Z + this.b * this.ep2 * Sin3_B0;
    Sum = W - this.a * this.es * Cos_B0 * Cos_B0 * Cos_B0;
    S1 = Math.sqrt(T1 * T1 + Sum * Sum);
    Sin_p1 = T1 / S1;
    Cos_p1 = Sum / S1;
    Rn = this.a / Math.sqrt(1.0 - this.es * Sin_p1 * Sin_p1);
    if (Cos_p1 >= common.COS_67P5) {
      Height = W / Cos_p1 - Rn;
    }
    else if (Cos_p1 <= -common.COS_67P5) {
      Height = W / -Cos_p1 - Rn;
    }
    else {
      Height = Z / Sin_p1 + Rn * (this.es - 1.0);
    }
    if (At_Pole === false) {
      Latitude = Math.atan(Sin_p1 / Cos_p1);
    }

    p.x = Longitude;
    p.y = Latitude;
    p.z = Height;
    return p;
  }, // geocentric_to_geodetic_noniter()

  /****************************************************************/
  // pj_geocentic_to_wgs84( p )
  //  p = point to transform in geocentric coordinates (x,y,z)
  geocentric_to_wgs84: function(p) {

    if (this.datum_type === common.PJD_3PARAM) {
      // if( x[io] === HUGE_VAL )
      //    continue;
      p.x += this.datum_params[0];
      p.y += this.datum_params[1];
      p.z += this.datum_params[2];

    }
    else if (this.datum_type === common.PJD_7PARAM) {
      var Dx_BF = this.datum_params[0];
      var Dy_BF = this.datum_params[1];
      var Dz_BF = this.datum_params[2];
      var Rx_BF = this.datum_params[3];
      var Ry_BF = this.datum_params[4];
      var Rz_BF = this.datum_params[5];
      var M_BF = this.datum_params[6];
      // if( x[io] === HUGE_VAL )
      //    continue;
      var x_out = M_BF * (p.x - Rz_BF * p.y + Ry_BF * p.z) + Dx_BF;
      var y_out = M_BF * (Rz_BF * p.x + p.y - Rx_BF * p.z) + Dy_BF;
      var z_out = M_BF * (-Ry_BF * p.x + Rx_BF * p.y + p.z) + Dz_BF;
      p.x = x_out;
      p.y = y_out;
      p.z = z_out;
    }
  }, // cs_geocentric_to_wgs84

  /****************************************************************/
  // pj_geocentic_from_wgs84()
  //  coordinate system definition,
  //  point to transform in geocentric coordinates (x,y,z)
  geocentric_from_wgs84: function(p) {

    if (this.datum_type === common.PJD_3PARAM) {
      //if( x[io] === HUGE_VAL )
      //    continue;
      p.x -= this.datum_params[0];
      p.y -= this.datum_params[1];
      p.z -= this.datum_params[2];

    }
    else if (this.datum_type === common.PJD_7PARAM) {
      var Dx_BF = this.datum_params[0];
      var Dy_BF = this.datum_params[1];
      var Dz_BF = this.datum_params[2];
      var Rx_BF = this.datum_params[3];
      var Ry_BF = this.datum_params[4];
      var Rz_BF = this.datum_params[5];
      var M_BF = this.datum_params[6];
      var x_tmp = (p.x - Dx_BF) / M_BF;
      var y_tmp = (p.y - Dy_BF) / M_BF;
      var z_tmp = (p.z - Dz_BF) / M_BF;
      //if( x[io] === HUGE_VAL )
      //    continue;

      p.x = x_tmp + Rz_BF * y_tmp - Ry_BF * z_tmp;
      p.y = -Rz_BF * x_tmp + y_tmp + Rx_BF * z_tmp;
      p.z = Ry_BF * x_tmp - Rx_BF * y_tmp + z_tmp;
    } //cs_geocentric_from_wgs84()
  }
};

/** point object, nothing fancy, just allows values to be
    passed back and forth by reference rather than by value.
    Other point classes may be used as long as they have
    x and y properties, which will get modified in the transform method.
*/
module.exports = datum;

},{"./common":4}],12:[function(require,module,exports){
var common = require('./common');
module.exports = function(source, dest, point) {
  var wp, i, l;

  function checkParams(fallback) {
    return (fallback === common.PJD_3PARAM || fallback === common.PJD_7PARAM);
  }
  // Short cut if the datums are identical.
  if (source.compare_datums(dest)) {
    return point; // in this case, zero is sucess,
    // whereas cs_compare_datums returns 1 to indicate TRUE
    // confusing, should fix this
  }

  // Explicitly skip datum transform by setting 'datum=none' as parameter for either source or dest
  if (source.datum_type === common.PJD_NODATUM || dest.datum_type === common.PJD_NODATUM) {
    return point;
  }

  //DGR: 2012-07-29 : add nadgrids support (begin)
  var src_a = source.a;
  var src_es = source.es;

  var dst_a = dest.a;
  var dst_es = dest.es;

  var fallback = source.datum_type;
  // If this datum requires grid shifts, then apply it to geodetic coordinates.
  if (fallback === common.PJD_GRIDSHIFT) {
    if (this.apply_gridshift(source, 0, point) === 0) {
      source.a = common.SRS_WGS84_SEMIMAJOR;
      source.es = common.SRS_WGS84_ESQUARED;
    }
    else {
      // try 3 or 7 params transformation or nothing ?
      if (!source.datum_params) {
        source.a = src_a;
        source.es = source.es;
        return point;
      }
      wp = 1;
      for (i = 0, l = source.datum_params.length; i < l; i++) {
        wp *= source.datum_params[i];
      }
      if (wp === 0) {
        source.a = src_a;
        source.es = source.es;
        return point;
      }
      if (source.datum_params.length > 3) {
        fallback = common.PJD_7PARAM;
      }
      else {
        fallback = common.PJD_3PARAM;
      }
    }
  }
  if (dest.datum_type === common.PJD_GRIDSHIFT) {
    dest.a = common.SRS_WGS84_SEMIMAJOR;
    dest.es = common.SRS_WGS84_ESQUARED;
  }
  // Do we need to go through geocentric coordinates?
  if (source.es !== dest.es || source.a !== dest.a || checkParams(fallback) || checkParams(dest.datum_type)) {
    //DGR: 2012-07-29 : add nadgrids support (end)
    // Convert to geocentric coordinates.
    source.geodetic_to_geocentric(point);
    // CHECK_RETURN;
    // Convert between datums
    if (checkParams(source.datum_type)) {
      source.geocentric_to_wgs84(point);
      // CHECK_RETURN;
    }
    if (checkParams(dest.datum_type)) {
      dest.geocentric_from_wgs84(point);
      // CHECK_RETURN;
    }
    // Convert back to geodetic coordinates
    dest.geocentric_to_geodetic(point);
    // CHECK_RETURN;
  }
  // Apply grid shift to destination if required
  if (dest.datum_type === common.PJD_GRIDSHIFT) {
    this.apply_gridshift(dest, 1, point);
    // CHECK_RETURN;
  }

  source.a = src_a;
  source.es = src_es;
  dest.a = dst_a;
  dest.es = dst_es;

  return point;
};


},{"./common":4}],13:[function(require,module,exports){
var globals = require('./global');
var parseProj = require('./projString');
var wkt = require('./wkt');

function defs(name) {
  /*global console*/
  var that = this;
  if (arguments.length === 2) {
    if (arguments[1][0] === '+') {
      defs[name] = parseProj(arguments[1]);
    }
    else {
      defs[name] = wkt(arguments[1]);
    }
  }
  else if (arguments.length === 1) {
    if (Array.isArray(name)) {
      return name.map(function(v) {
        if (Array.isArray(v)) {
          defs.apply(that, v);
        }
        else {
          defs(v);
        }
      });
    }
    else if (typeof name === 'string') {

    }
    else if ('EPSG' in name) {
      defs['EPSG:' + name.EPSG] = name;
    }
    else if ('ESRI' in name) {
      defs['ESRI:' + name.ESRI] = name;
    }
    else if ('IAU2000' in name) {
      defs['IAU2000:' + name.IAU2000] = name;
    }
    else {
      console.log(name);
    }
    return;
  }


}
globals(defs);
module.exports = defs;

},{"./global":15,"./projString":18,"./wkt":47}],14:[function(require,module,exports){
module.exports = function(destination, source) {
  destination = destination || {};
  var value, property;
  if (!source) {
    return destination;
  }
  for (property in source) {
    value = source[property];
    if (value !== undefined) {
      destination[property] = value;
    }
  }
  return destination;
};

},{}],15:[function(require,module,exports){
module.exports = function(defs) {
  defs('WGS84', "+title=WGS 84 (long/lat) +proj=longlat +ellps=WGS84 +datum=WGS84 +units=degrees");
  defs('EPSG:4326', "+title=WGS 84 (long/lat) +proj=longlat +ellps=WGS84 +datum=WGS84 +units=degrees");
  defs('EPSG:4269', "+title=NAD83 (long/lat) +proj=longlat +a=6378137.0 +b=6356752.31414036 +ellps=GRS80 +datum=NAD83 +units=degrees");
  defs('EPSG:3857', "+title=WGS 84 / Pseudo-Mercator +proj=merc +a=6378137 +b=6378137 +lat_ts=0.0 +lon_0=0.0 +x_0=0.0 +y_0=0 +k=1.0 +units=m +nadgrids=@null +no_defs");

  defs['EPSG:3785'] = defs['EPSG:3857']; // maintain backward compat, official code is 3857
  defs.GOOGLE = defs['EPSG:3857'];
  defs['EPSG:900913'] = defs['EPSG:3857'];
  defs['EPSG:102113'] = defs['EPSG:3857'];
};

},{}],16:[function(require,module,exports){
var proj4 = require('./core');
proj4.defaultDatum = 'WGS84'; //default datum
proj4.Proj = require('./Proj');
proj4.WGS84 = new proj4.Proj('WGS84');
proj4.Point = require('./Point');
proj4.defs = require('./defs');
proj4.transform = require('./transform');
proj4.mgrs = require('./mgrs');
proj4.version = require('./version');
module.exports = proj4;
},{"./Point":1,"./Proj":2,"./core":10,"./defs":13,"./mgrs":17,"./transform":45,"./version":46}],17:[function(require,module,exports){
/*
Portions of this software are based on a port of components from the OpenMap
com.bbn.openmap.proj.coords Java package. An initial port was initially created
by Patrice G. Cappelaere and included in Community Mapbuilder
(http://svn.codehaus.org/mapbuilder/), which is licensed under the LGPL license
as per http://www.gnu.org/copyleft/lesser.html. OpenMap is licensed under the
following license agreement:


               OpenMap Software License Agreement
               ----------------------------------

This Agreement sets forth the terms and conditions under which
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not advertise this Software as a product of your own.

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to the other party herein.

10. THIS PACKAGE IS PROVIDED "AS IS" WITHOUT WARRANTIES OF ANY
KIND, WHETHER EXPRESS OR IMPLIED, INCLUDING (BUT NOT LIMITED TO)
ALL IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS, AND
WITHOUT ANY WARRANTIES AS TO NONINFRINGEMENT.

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any commodities, software, or technical data.
*/



/**
 * UTM zones are grouped, and assigned to one of a group of 6
 * sets.
 *
 * {int} @private
 */
var NUM_100K_SETS = 6;

/**
 * The column letters (for easting) of the lower left value, per
 * set.
 *
 * {string} @private
 */
var SET_ORIGIN_COLUMN_LETTERS = 'AJSAJS';

/**
 * The row letters (for northing) of the lower left value, per
 * set.
 *
 * {string} @private
 */
var SET_ORIGIN_ROW_LETTERS = 'AFAFAF';

var A = 65; // A
var I = 73; // I
var O = 79; // O
var V = 86; // V
var Z = 90; // Z

/**
 * Conversion of lat/lon to MGRS.
 *
 * @param {object} ll Object literal with lat and lon properties on a
 *     WGS84 ellipsoid.
 * @param {int} accuracy Accuracy in digits (5 for 1 m, 4 for 10 m, 3 for
 *      100 m, 4 for 1000 m or 5 for 10000 m). Optional, default is 5.
 * @return {string} the MGRS string for the given location and accuracy.
 */
exports.forward = function(ll, accuracy) {
  accuracy = accuracy || 5; // default accuracy 1m
  return encode(LLtoUTM({
    lat: ll.lat,
    lon: ll.lon
  }), accuracy);
};

/**
 * Conversion of MGRS to lat/lon.
 *
 * @param {string} mgrs MGRS string.
 * @return {array} An array with left (longitude), bottom (latitude), right
 *     (longitude) and top (latitude) values in WGS84, representing the
 *     bounding box for the provided MGRS reference.
 */
exports.inverse = function(mgrs) {
  var bbox = UTMtoLL(decode(mgrs.toUpperCase()));
  return [bbox.left, bbox.bottom, bbox.right, bbox.top];
};

/**
 * Conversion from degrees to radians.
 *
 * @private
 * @param {number} deg the angle in degrees.
 * @return {number} the angle in radians.
 */
function degToRad(deg) {
  return (deg * (Math.PI / 180.0));
}

/**
 * Conversion from radians to degrees.
 *
 * @private
 * @param {number} rad the angle in radians.
 * @return {number} the angle in degrees.
 */
function radToDeg(rad) {
  return (180.0 * (rad / Math.PI));
}

/**
 * Converts a set of Longitude and Latitude co-ordinates to UTM
 * using the WGS84 ellipsoid.
 *
 * @private
 * @param {object} ll Object literal with lat and lon properties
 *     representing the WGS84 coordinate to be converted.
 * @return {object} Object literal containing the UTM value with easting,
 *     northing, zoneNumber and zoneLetter properties, and an optional
 *     accuracy property in digits. Returns null if the conversion failed.
 */
function LLtoUTM(ll) {
  var Lat = ll.lat;
  var Long = ll.lon;
  var a = 6378137.0; //ellip.radius;
  var eccSquared = 0.00669438; //ellip.eccsq;
  var k0 = 0.9996;
  var LongOrigin;
  var eccPrimeSquared;
  var N, T, C, A, M;
  var LatRad = degToRad(Lat);
  var LongRad = degToRad(Long);
  var LongOriginRad;
  var ZoneNumber;
  // (int)
  ZoneNumber = Math.floor((Long + 180) / 6) + 1;

  //Make sure the longitude 180.00 is in Zone 60
  if (Long === 180) {
    ZoneNumber = 60;
  }

  // Special zone for Norway
  if (Lat >= 56.0 && Lat < 64.0 && Long >= 3.0 && Long < 12.0) {
    ZoneNumber = 32;
  }

  // Special zones for Svalbard
  if (Lat >= 72.0 && Lat < 84.0) {
    if (Long >= 0.0 && Long < 9.0) {
      ZoneNumber = 31;
    }
    else if (Long >= 9.0 && Long < 21.0) {
      ZoneNumber = 33;
    }
    else if (Long >= 21.0 && Long < 33.0) {
      ZoneNumber = 35;
    }
    else if (Long >= 33.0 && Long < 42.0) {
      ZoneNumber = 37;
    }
  }

  LongOrigin = (ZoneNumber - 1) * 6 - 180 + 3; //+3 puts origin
  // in middle of
  // zone
  LongOriginRad = degToRad(LongOrigin);

  eccPrimeSquared = (eccSquared) / (1 - eccSquared);

  N = a / Math.sqrt(1 - eccSquared * Math.sin(LatRad) * Math.sin(LatRad));
  T = Math.tan(LatRad) * Math.tan(LatRad);
  C = eccPrimeSquared * Math.cos(LatRad) * Math.cos(LatRad);
  A = Math.cos(LatRad) * (LongRad - LongOriginRad);

  M = a * ((1 - eccSquared / 4 - 3 * eccSquared * eccSquared / 64 - 5 * eccSquared * eccSquared * eccSquared / 256) * LatRad - (3 * eccSquared / 8 + 3 * eccSquared * eccSquared / 32 + 45 * eccSquared * eccSquared * eccSquared / 1024) * Math.sin(2 * LatRad) + (15 * eccSquared * eccSquared / 256 + 45 * eccSquared * eccSquared * eccSquared / 1024) * Math.sin(4 * LatRad) - (35 * eccSquared * eccSquared * eccSquared / 3072) * Math.sin(6 * LatRad));

  var UTMEasting = (k0 * N * (A + (1 - T + C) * A * A * A / 6.0 + (5 - 18 * T + T * T + 72 * C - 58 * eccPrimeSquared) * A * A * A * A * A / 120.0) + 500000.0);

  var UTMNorthing = (k0 * (M + N * Math.tan(LatRad) * (A * A / 2 + (5 - T + 9 * C + 4 * C * C) * A * A * A * A / 24.0 + (61 - 58 * T + T * T + 600 * C - 330 * eccPrimeSquared) * A * A * A * A * A * A / 720.0)));
  if (Lat < 0.0) {
    UTMNorthing += 10000000.0; //10000000 meter offset for
    // southern hemisphere
  }

  return {
    northing: Math.round(UTMNorthing),
    easting: Math.round(UTMEasting),
    zoneNumber: ZoneNumber,
    zoneLetter: getLetterDesignator(Lat)
  };
}

/**
 * Converts UTM coords to lat/long, using the WGS84 ellipsoid. This is a convenience
 * class where the Zone can be specified as a single string eg."60N" which
 * is then broken down into the ZoneNumber and ZoneLetter.
 *
 * @private
 * @param {object} utm An object literal with northing, easting, zoneNumber
 *     and zoneLetter properties. If an optional accuracy property is
 *     provided (in meters), a bounding box will be returned instead of
 *     latitude and longitude.
 * @return {object} An object literal containing either lat and lon values
 *     (if no accuracy was provided), or top, right, bottom and left values
 *     for the bounding box calculated according to the provided accuracy.
 *     Returns null if the conversion failed.
 */
function UTMtoLL(utm) {

  var UTMNorthing = utm.northing;
  var UTMEasting = utm.easting;
  var zoneLetter = utm.zoneLetter;
  var zoneNumber = utm.zoneNumber;
  // check the ZoneNummber is valid
  if (zoneNumber < 0 || zoneNumber > 60) {
    return null;
  }

  var k0 = 0.9996;
  var a = 6378137.0; //ellip.radius;
  var eccSquared = 0.00669438; //ellip.eccsq;
  var eccPrimeSquared;
  var e1 = (1 - Math.sqrt(1 - eccSquared)) / (1 + Math.sqrt(1 - eccSquared));
  var N1, T1, C1, R1, D, M;
  var LongOrigin;
  var mu, phi1Rad;

  // remove 500,000 meter offset for longitude
  var x = UTMEasting - 500000.0;
  var y = UTMNorthing;

  // We must know somehow if we are in the Northern or Southern
  // hemisphere, this is the only time we use the letter So even
  // if the Zone letter isn't exactly correct it should indicate
  // the hemisphere correctly
  if (zoneLetter < 'N') {
    y -= 10000000.0; // remove 10,000,000 meter offset used
    // for southern hemisphere
  }

  // There are 60 zones with zone 1 being at West -180 to -174
  LongOrigin = (zoneNumber - 1) * 6 - 180 + 3; // +3 puts origin
  // in middle of
  // zone

  eccPrimeSquared = (eccSquared) / (1 - eccSquared);

  M = y / k0;
  mu = M / (a * (1 - eccSquared / 4 - 3 * eccSquared * eccSquared / 64 - 5 * eccSquared * eccSquared * eccSquared / 256));

  phi1Rad = mu + (3 * e1 / 2 - 27 * e1 * e1 * e1 / 32) * Math.sin(2 * mu) + (21 * e1 * e1 / 16 - 55 * e1 * e1 * e1 * e1 / 32) * Math.sin(4 * mu) + (151 * e1 * e1 * e1 / 96) * Math.sin(6 * mu);
  // double phi1 = ProjMath.radToDeg(phi1Rad);

  N1 = a / Math.sqrt(1 - eccSquared * Math.sin(phi1Rad) * Math.sin(phi1Rad));
  T1 = Math.tan(phi1Rad) * Math.tan(phi1Rad);
  C1 = eccPrimeSquared * Math.cos(phi1Rad) * Math.cos(phi1Rad);
  R1 = a * (1 - eccSquared) / Math.pow(1 - eccSquared * Math.sin(phi1Rad) * Math.sin(phi1Rad), 1.5);
  D = x / (N1 * k0);

  var lat = phi1Rad - (N1 * Math.tan(phi1Rad) / R1) * (D * D / 2 - (5 + 3 * T1 + 10 * C1 - 4 * C1 * C1 - 9 * eccPrimeSquared) * D * D * D * D / 24 + (61 + 90 * T1 + 298 * C1 + 45 * T1 * T1 - 252 * eccPrimeSquared - 3 * C1 * C1) * D * D * D * D * D * D / 720);
  lat = radToDeg(lat);

  var lon = (D - (1 + 2 * T1 + C1) * D * D * D / 6 + (5 - 2 * C1 + 28 * T1 - 3 * C1 * C1 + 8 * eccPrimeSquared + 24 * T1 * T1) * D * D * D * D * D / 120) / Math.cos(phi1Rad);
  lon = LongOrigin + radToDeg(lon);

  var result;
  if (utm.accuracy) {
    var topRight = UTMtoLL({
      northing: utm.northing + utm.accuracy,
      easting: utm.easting + utm.accuracy,
      zoneLetter: utm.zoneLetter,
      zoneNumber: utm.zoneNumber
    });
    result = {
      top: topRight.lat,
      right: topRight.lon,
      bottom: lat,
      left: lon
    };
  }
  else {
    result = {
      lat: lat,
      lon: lon
    };
  }
  return result;
}

/**
 * Calculates the MGRS letter designator for the given latitude.
 *
 * @private
 * @param {number} lat The latitude in WGS84 to get the letter designator
 *     for.
 * @return {char} The letter designator.
 */
function getLetterDesignator(lat) {
  //This is here as an error flag to show that the Latitude is
  //outside MGRS limits
  var LetterDesignator = 'Z';

  if ((84 >= lat) && (lat >= 72)) {
    LetterDesignator = 'X';
  }
  else if ((72 > lat) && (lat >= 64)) {
    LetterDesignator = 'W';
  }
  else if ((64 > lat) && (lat >= 56)) {
    LetterDesignator = 'V';
  }
  else if ((56 > lat) && (lat >= 48)) {
    LetterDesignator = 'U';
  }
  else if ((48 > lat) && (lat >= 40)) {
    LetterDesignator = 'T';
  }
  else if ((40 > lat) && (lat >= 32)) {
    LetterDesignator = 'S';
  }
  else if ((32 > lat) && (lat >= 24)) {
    LetterDesignator = 'R';
  }
  else if ((24 > lat) && (lat >= 16)) {
    LetterDesignator = 'Q';
  }
  else if ((16 > lat) && (lat >= 8)) {
    LetterDesignator = 'P';
  }
  else if ((8 > lat) && (lat >= 0)) {
    LetterDesignator = 'N';
  }
  else if ((0 > lat) && (lat >= -8)) {
    LetterDesignator = 'M';
  }
  else if ((-8 > lat) && (lat >= -16)) {
    LetterDesignator = 'L';
  }
  else if ((-16 > lat) && (lat >= -24)) {
    LetterDesignator = 'K';
  }
  else if ((-24 > lat) && (lat >= -32)) {
    LetterDesignator = 'J';
  }
  else if ((-32 > lat) && (lat >= -40)) {
    LetterDesignator = 'H';
  }
  else if ((-40 > lat) && (lat >= -48)) {
    LetterDesignator = 'G';
  }
  else if ((-48 > lat) && (lat >= -56)) {
    LetterDesignator = 'F';
  }
  else if ((-56 > lat) && (lat >= -64)) {
    LetterDesignator = 'E';
  }
  else if ((-64 > lat) && (lat >= -72)) {
    LetterDesignator = 'D';
  }
  else if ((-72 > lat) && (lat >= -80)) {
    LetterDesignator = 'C';
  }
  return LetterDesignator;
}

/**
 * Encodes a UTM location as MGRS string.
 *
 * @private
 * @param {object} utm An object literal with easting, northing,
 *     zoneLetter, zoneNumber
 * @param {number} accuracy Accuracy in digits (1-5).
 * @return {string} MGRS string for the given UTM location.
 */
function encode(utm, accuracy) {
  var seasting = "" + utm.easting,
    snorthing = "" + utm.northing;

  return utm.zoneNumber + utm.zoneLetter + get100kID(utm.easting, utm.northing, utm.zoneNumber) + seasting.substr(seasting.length - 5, accuracy) + snorthing.substr(snorthing.length - 5, accuracy);
}

/**
 * Get the two letter 100k designator for a given UTM easting,
 * northing and zone number value.
 *
 * @private
 * @param {number} easting
 * @param {number} northing
 * @param {number} zoneNumber
 * @return the two letter 100k designator for the given UTM location.
 */
function get100kID(easting, northing, zoneNumber) {
  var setParm = get100kSetForZone(zoneNumber);
  var setColumn = Math.floor(easting / 100000);
  var setRow = Math.floor(northing / 100000) % 20;
  return getLetter100kID(setColumn, setRow, setParm);
}

/**
 * Given a UTM zone number, figure out the MGRS 100K set it is in.
 *
 * @private
 * @param {number} i An UTM zone number.
 * @return {number} the 100k set the UTM zone is in.
 */
function get100kSetForZone(i) {
  var setParm = i % NUM_100K_SETS;
  if (setParm === 0) {
    setParm = NUM_100K_SETS;
  }

  return setParm;
}

/**
 * Get the two-letter MGRS 100k designator given information
 * translated from the UTM northing, easting and zone number.
 *
 * @private
 * @param {number} column the column index as it relates to the MGRS
 *        100k set spreadsheet, created from the UTM easting.
 *        Values are 1-8.
 * @param {number} row the row index as it relates to the MGRS 100k set
 *        spreadsheet, created from the UTM northing value. Values
 *        are from 0-19.
 * @param {number} parm the set block, as it relates to the MGRS 100k set
 *        spreadsheet, created from the UTM zone. Values are from
 *        1-60.
 * @return two letter MGRS 100k code.
 */
function getLetter100kID(column, row, parm) {
  // colOrigin and rowOrigin are the letters at the origin of the set
  var index = parm - 1;
  var colOrigin = SET_ORIGIN_COLUMN_LETTERS.charCodeAt(index);
  var rowOrigin = SET_ORIGIN_ROW_LETTERS.charCodeAt(index);

  // colInt and rowInt are the letters to build to return
  var colInt = colOrigin + column - 1;
  var rowInt = rowOrigin + row;
  var rollover = false;

  if (colInt > Z) {
    colInt = colInt - Z + A - 1;
    rollover = true;
  }

  if (colInt === I || (colOrigin < I && colInt > I) || ((colInt > I || colOrigin < I) && rollover)) {
    colInt++;
  }

  if (colInt === O || (colOrigin < O && colInt > O) || ((colInt > O || colOrigin < O) && rollover)) {
    colInt++;

    if (colInt === I) {
      colInt++;
    }
  }

  if (colInt > Z) {
    colInt = colInt - Z + A - 1;
  }

  if (rowInt > V) {
    rowInt = rowInt - V + A - 1;
    rollover = true;
  }
  else {
    rollover = false;
  }

  if (((rowInt === I) || ((rowOrigin < I) && (rowInt > I))) || (((rowInt > I) || (rowOrigin < I)) && rollover)) {
    rowInt++;
  }

  if (((rowInt === O) || ((rowOrigin < O) && (rowInt > O))) || (((rowInt > O) || (rowOrigin < O)) && rollover)) {
    rowInt++;

    if (rowInt === I) {
      rowInt++;
    }
  }

  if (rowInt > V) {
    rowInt = rowInt - V + A - 1;
  }

  var twoLetter = String.fromCharCode(colInt) + String.fromCharCode(rowInt);
  return twoLetter;
}

/**
 * Decode the UTM parameters from a MGRS string.
 *
 * @private
 * @param {string} mgrsString an UPPERCASE coordinate string is expected.
 * @return {object} An object literal with easting, northing, zoneLetter,
 *     zoneNumber and accuracy (in meters) properties.
 */
function decode(mgrsString) {

  if (mgrsString && mgrsString.length === 0) {
    throw ("MGRSPoint coverting from nothing");
  }

  var length = mgrsString.length;

  var hunK = null;
  var sb = "";
  var testChar;
  var i = 0;

  // get Zone number
  while (!(/[A-Z]/).test(testChar = mgrsString.charAt(i))) {
    if (i >= 2) {
      throw ("MGRSPoint bad conversion from: " + mgrsString);
    }
    sb += testChar;
    i++;
  }

  var zoneNumber = parseInt(sb, 10);

  if (i === 0 || i + 3 > length) {
    // A good MGRS string has to be 4-5 digits long,
    // ##AAA/#AAA at least.
    throw ("MGRSPoint bad conversion from: " + mgrsString);
  }

  var zoneLetter = mgrsString.charAt(i++);

  // Should we check the zone letter here? Why not.
  if (zoneLetter <= 'A' || zoneLetter === 'B' || zoneLetter === 'Y' || zoneLetter >= 'Z' || zoneLetter === 'I' || zoneLetter === 'O') {
    throw ("MGRSPoint zone letter " + zoneLetter + " not handled: " + mgrsString);
  }

  hunK = mgrsString.substring(i, i += 2);

  var set = get100kSetForZone(zoneNumber);

  var east100k = getEastingFromChar(hunK.charAt(0), set);
  var north100k = getNorthingFromChar(hunK.charAt(1), set);

  // We have a bug where the northing may be 2000000 too low.
  // How
  // do we know when to roll over?

  while (north100k < getMinNorthing(zoneLetter)) {
    north100k += 2000000;
  }

  // calculate the char index for easting/northing separator
  var remainder = length - i;

  if (remainder % 2 !== 0) {
    throw ("MGRSPoint has to have an even number \nof digits after the zone letter and two 100km letters - front \nhalf for easting meters, second half for \nnorthing meters" + mgrsString);
  }

  var sep = remainder / 2;

  var sepEasting = 0.0;
  var sepNorthing = 0.0;
  var accuracyBonus, sepEastingString, sepNorthingString, easting, northing;
  if (sep > 0) {
    accuracyBonus = 100000.0 / Math.pow(10, sep);
    sepEastingString = mgrsString.substring(i, i + sep);
    sepEasting = parseFloat(sepEastingString) * accuracyBonus;
    sepNorthingString = mgrsString.substring(i + sep);
    sepNorthing = parseFloat(sepNorthingString) * accuracyBonus;
  }

  easting = sepEasting + east100k;
  northing = sepNorthing + north100k;

  return {
    easting: easting,
    northing: northing,
    zoneLetter: zoneLetter,
    zoneNumber: zoneNumber,
    accuracy: accuracyBonus
  };
}

/**
 * Given the first letter from a two-letter MGRS 100k zone, and given the
 * MGRS table set for the zone number, figure out the easting value that
 * should be added to the other, secondary easting value.
 *
 * @private
 * @param {char} e The first letter from a two-letter MGRS 100´k zone.
 * @param {number} set The MGRS table set for the zone number.
 * @return {number} The easting value for the given letter and set.
 */
function getEastingFromChar(e, set) {
  // colOrigin is the letter at the origin of the set for the
  // column
  var curCol = SET_ORIGIN_COLUMN_LETTERS.charCodeAt(set - 1);
  var eastingValue = 100000.0;
  var rewindMarker = false;

  while (curCol !== e.charCodeAt(0)) {
    curCol++;
    if (curCol === I) {
      curCol++;
    }
    if (curCol === O) {
      curCol++;
    }
    if (curCol > Z) {
      if (rewindMarker) {
        throw ("Bad character: " + e);
      }
      curCol = A;
      rewindMarker = true;
    }
    eastingValue += 100000.0;
  }

  return eastingValue;
}

/**
 * Given the second letter from a two-letter MGRS 100k zone, and given the
 * MGRS table set for the zone number, figure out the northing value that
 * should be added to the other, secondary northing value. You have to
 * remember that Northings are determined from the equator, and the vertical
 * cycle of letters mean a 2000000 additional northing meters. This happens
 * approx. every 18 degrees of latitude. This method does *NOT* count any
 * additional northings. You have to figure out how many 2000000 meters need
 * to be added for the zone letter of the MGRS coordinate.
 *
 * @private
 * @param {char} n Second letter of the MGRS 100k zone
 * @param {number} set The MGRS table set number, which is dependent on the
 *     UTM zone number.
 * @return {number} The northing value for the given letter and set.
 */
function getNorthingFromChar(n, set) {

  if (n > 'V') {
    throw ("MGRSPoint given invalid Northing " + n);
  }

  // rowOrigin is the letter at the origin of the set for the
  // column
  var curRow = SET_ORIGIN_ROW_LETTERS.charCodeAt(set - 1);
  var northingValue = 0.0;
  var rewindMarker = false;

  while (curRow !== n.charCodeAt(0)) {
    curRow++;
    if (curRow === I) {
      curRow++;
    }
    if (curRow === O) {
      curRow++;
    }
    // fixing a bug making whole application hang in this loop
    // when 'n' is a wrong character
    if (curRow > V) {
      if (rewindMarker) { // making sure that this loop ends
        throw ("Bad character: " + n);
      }
      curRow = A;
      rewindMarker = true;
    }
    northingValue += 100000.0;
  }

  return northingValue;
}

/**
 * The function getMinNorthing returns the minimum northing value of a MGRS
 * zone.
 *
 * Ported from Geotrans' c Lattitude_Band_Value structure table.
 *
 * @private
 * @param {char} zoneLetter The MGRS zone to get the min northing for.
 * @return {number}
 */
function getMinNorthing(zoneLetter) {
  var northing;
  switch (zoneLetter) {
  case 'C':
    northing = 1100000.0;
    break;
  case 'D':
    northing = 2000000.0;
    break;
  case 'E':
    northing = 2800000.0;
    break;
  case 'F':
    northing = 3700000.0;
    break;
  case 'G':
    northing = 4600000.0;
    break;
  case 'H':
    northing = 5500000.0;
    break;
  case 'J':
    northing = 6400000.0;
    break;
  case 'K':
    northing = 7300000.0;
    break;
  case 'L':
    northing = 8200000.0;
    break;
  case 'M':
    northing = 9100000.0;
    break;
  case 'N':
    northing = 0.0;
    break;
  case 'P':
    northing = 800000.0;
    break;
  case 'Q':
    northing = 1700000.0;
    break;
  case 'R':
    northing = 2600000.0;
    break;
  case 'S':
    northing = 3500000.0;
    break;
  case 'T':
    northing = 4400000.0;
    break;
  case 'U':
    northing = 5300000.0;
    break;
  case 'V':
    northing = 6200000.0;
    break;
  case 'W':
    northing = 7000000.0;
    break;
  case 'X':
    northing = 7900000.0;
    break;
  default:
    northing = -1.0;
  }
  if (northing >= 0.0) {
    return northing;
  }
  else {
    throw ("Invalid zone letter: " + zoneLetter);
  }

}

},{}],18:[function(require,module,exports){
var common = require('./common');
var constants = require('./constants/index');
module.exports = function(defData) {
  var self = {};

  var paramObj = {};
  defData.split("+").map(function(v) {
    return v.trim();
  }).filter(function(a) {
    return a;
  }).forEach(function(a) {
    var split = a.split("=");
    split.push(true);
    paramObj[split[0].toLowerCase()] = split[1];
  });
  var paramName, paramVal, paramOutname;
  var params = {
    proj: 'projName',
    datum: 'datumCode',
    rf: function(v) {
      self.rf = parseFloat(v, 10);
    },
    lat_0: function(v) {
      self.lat0 = v * common.D2R;
    },
    lat_1: function(v) {
      self.lat1 = v * common.D2R;
    },
    lat_2: function(v) {
      self.lat2 = v * common.D2R;
    },
    lat_ts: function(v) {
      self.lat_ts = v * common.D2R;
    },
    lon_0: function(v) {
      self.long0 = v * common.D2R;
    },
    lon_1: function(v) {
      self.long1 = v * common.D2R;
    },
    lon_2: function(v) {
      self.long2 = v * common.D2R;
    },
    alpha: function(v) {
      self.alpha = parseFloat(v) * common.D2R;
    },
    lonc: function(v) {
      self.longc = v * common.D2R;
    },
    x_0: function(v) {
      self.x0 = parseFloat(v, 10);
    },
    y_0: function(v) {
      self.y0 = parseFloat(v, 10);
    },
    k_0: function(v) {
      self.k0 = parseFloat(v, 10);
    },
    k: function(v) {
      self.k0 = parseFloat(v, 10);
    },
    r_a: function() {
      self.R_A = true;
    },
    zone: function(v) {
      self.zone = parseInt(v, 10);
    },
    south: function() {
      self.utmSouth = true;
    },
    towgs84: function(v) {
      self.datum_params = v.split(",").map(function(a) {
        return parseFloat(a, 10);
      });
    },
    to_meter: function(v) {
      self.to_meter = parseFloat(v, 10);
    },
    from_greenwich: function(v) {
      self.from_greenwich = v * common.D2R;
    },
    pm: function(v) {
      self.from_greenwich = (constants.PrimeMeridian[v] ? constants.PrimeMeridian[v] : parseFloat(v, 10)) * common.D2R;
    },
    nadgrids: function(v) {
      if (v === '@null') {
        self.datumCode = 'none';
      }
      else {
        self.nadgrids = v;
      }
    },
    axis: function(v) {
      var legalAxis = "ewnsud";
      if (v.length === 3 && legalAxis.indexOf(v.substr(0, 1)) !== -1 && legalAxis.indexOf(v.substr(1, 1)) !== -1 && legalAxis.indexOf(v.substr(2, 1)) !== -1) {
        self.axis = v;
      }
    }
  };
  for (paramName in paramObj) {
    paramVal = paramObj[paramName];
    if (paramName in params) {
      paramOutname = params[paramName];
      if (typeof paramOutname === 'function') {
        paramOutname(paramVal);
      }
      else {
        self[paramOutname] = paramVal;
      }
    }
    else {
      self[paramName] = paramVal;
    }
  }
  return self;
};

},{"./common":4,"./constants/index":9}],19:[function(require,module,exports){
var common = require('../common');
exports.init = function() {

  if (Math.abs(this.lat1 + this.lat2) < common.EPSLN) {
    return;
  }
  this.temp = this.b / this.a;
  this.es = 1 - Math.pow(this.temp, 2);
  this.e3 = Math.sqrt(this.es);

  this.sin_po = Math.sin(this.lat1);
  this.cos_po = Math.cos(this.lat1);
  this.t1 = this.sin_po;
  this.con = this.sin_po;
  this.ms1 = common.msfnz(this.e3, this.sin_po, this.cos_po);
  this.qs1 = common.qsfnz(this.e3, this.sin_po, this.cos_po);

  this.sin_po = Math.sin(this.lat2);
  this.cos_po = Math.cos(this.lat2);
  this.t2 = this.sin_po;
  this.ms2 = common.msfnz(this.e3, this.sin_po, this.cos_po);
  this.qs2 = common.qsfnz(this.e3, this.sin_po, this.cos_po);

  this.sin_po = Math.sin(this.lat0);
  this.cos_po = Math.cos(this.lat0);
  this.t3 = this.sin_po;
  this.qs0 = common.qsfnz(this.e3, this.sin_po, this.cos_po);

  if (Math.abs(this.lat1 - this.lat2) > common.EPSLN) {
    this.ns0 = (this.ms1 * this.ms1 - this.ms2 * this.ms2) / (this.qs2 - this.qs1);
  }
  else {
    this.ns0 = this.con;
  }
  this.c = this.ms1 * this.ms1 + this.ns0 * this.qs1;
  this.rh = this.a * Math.sqrt(this.c - this.ns0 * this.qs0) / this.ns0;
};

/* Albers Conical Equal Area forward equations--mapping lat,long to x,y
  -------------------------------------------------------------------*/
exports.forward = function(p) {

  var lon = p.x;
  var lat = p.y;

  this.sin_phi = Math.sin(lat);
  this.cos_phi = Math.cos(lat);

  var qs = common.qsfnz(this.e3, this.sin_phi, this.cos_phi);
  var rh1 = this.a * Math.sqrt(this.c - this.ns0 * qs) / this.ns0;
  var theta = this.ns0 * common.adjust_lon(lon - this.long0);
  var x = rh1 * Math.sin(theta) + this.x0;
  var y = this.rh - rh1 * Math.cos(theta) + this.y0;

  p.x = x;
  p.y = y;
  return p;
};


exports.inverse = function(p) {
  var rh1, qs, con, theta, lon, lat;

  p.x -= this.x0;
  p.y = this.rh - p.y + this.y0;
  if (this.ns0 >= 0) {
    rh1 = Math.sqrt(p.x * p.x + p.y * p.y);
    con = 1;
  }
  else {
    rh1 = -Math.sqrt(p.x * p.x + p.y * p.y);
    con = -1;
  }
  theta = 0;
  if (rh1 !== 0) {
    theta = Math.atan2(con * p.x, con * p.y);
  }
  con = rh1 * this.ns0 / this.a;
  if (this.sphere) {
    lat = Math.asin((this.c - con * con) / (2 * this.ns0));
  }
  else {
    qs = (this.c - con * con) / this.ns0;
    lat = this.phi1z(this.e3, qs);
  }

  lon = common.adjust_lon(theta / this.ns0 + this.long0);
  p.x = lon;
  p.y = lat;
  return p;
};

/* Function to compute phi1, the latitude for the inverse of the
   Albers Conical Equal-Area projection.
-------------------------------------------*/
exports.phi1z = function(eccent, qs) {
  var sinphi, cosphi, con, com, dphi;
  var phi = common.asinz(0.5 * qs);
  if (eccent < common.EPSLN) {
    return phi;
  }

  var eccnts = eccent * eccent;
  for (var i = 1; i <= 25; i++) {
    sinphi = Math.sin(phi);
    cosphi = Math.cos(phi);
    con = eccent * sinphi;
    com = 1 - con * con;
    dphi = 0.5 * com * com / cosphi * (qs / (1 - eccnts) - sinphi / com + 0.5 / eccent * Math.log((1 - con) / (1 + con)));
    phi = phi + dphi;
    if (Math.abs(dphi) <= 1e-7) {
      return phi;
    }
  }
  return null;
};
exports.names = ["Albers_Conic_Equal_Area", "Albers", "aea"];

},{"../common":4}],20:[function(require,module,exports){
var common = require('../common');
exports.init = function() {
  this.sin_p12 = Math.sin(this.lat0);
  this.cos_p12 = Math.cos(this.lat0);
};

exports.forward = function(p) {
  var lon = p.x;
  var lat = p.y;
  var sinphi = Math.sin(p.y);
  var cosphi = Math.cos(p.y);
  var dlon = common.adjust_lon(lon - this.long0);
  var e0, e1, e2, e3, Mlp, Ml, tanphi, Nl1, Nl, psi, Az, G, H, GH, Hs, c, kp, cos_c, s, s2, s3, s4, s5;
  if (this.sphere) {
    if (Math.abs(this.sin_p12 - 1) <= common.EPSLN) {
      //North Pole case
      p.x = this.x0 + this.a * (common.HALF_PI - lat) * Math.sin(dlon);
      p.y = this.y0 - this.a * (common.HALF_PI - lat) * Math.cos(dlon);
      return p;
    }
    else if (Math.abs(this.sin_p12 + 1) <= common.EPSLN) {
      //South Pole case
      p.x = this.x0 + this.a * (common.HALF_PI + lat) * Math.sin(dlon);
      p.y = this.y0 + this.a * (common.HALF_PI + lat) * Math.cos(dlon);
      return p;
    }
    else {
      //default case
      cos_c = this.sin_p12 * sinphi + this.cos_p12 * cosphi * Math.cos(dlon);
      c = Math.acos(cos_c);
      kp = c / Math.sin(c);
      p.x = this.x0 + this.a * kp * cosphi * Math.sin(dlon);
      p.y = this.y0 + this.a * kp * (this.cos_p12 * sinphi - this.sin_p12 * cosphi * Math.cos(dlon));
      return p;
    }
  }
  else {
    e0 = common.e0fn(this.es);
    e1 = common.e1fn(this.es);
    e2 = common.e2fn(this.es);
    e3 = common.e3fn(this.es);
    if (Math.abs(this.sin_p12 - 1) <= common.EPSLN) {
      //North Pole case
      Mlp = this.a * common.mlfn(e0, e1, e2, e3, common.HALF_PI);
      Ml = this.a * common.mlfn(e0, e1, e2, e3, lat);
      p.x = this.x0 + (Mlp - Ml) * Math.sin(dlon);
      p.y = this.y0 - (Mlp - Ml) * Math.cos(dlon);
      return p;
    }
    else if (Math.abs(this.sin_p12 + 1) <= common.EPSLN) {
      //South Pole case
      Mlp = this.a * common.mlfn(e0, e1, e2, e3, common.HALF_PI);
      Ml = this.a * common.mlfn(e0, e1, e2, e3, lat);
      p.x = this.x0 + (Mlp + Ml) * Math.sin(dlon);
      p.y = this.y0 + (Mlp + Ml) * Math.cos(dlon);
      return p;
    }
    else {
      //Default case
      tanphi = sinphi / cosphi;
      Nl1 = common.gN(this.a, this.e, this.sin_p12);
      Nl = common.gN(this.a, this.e, sinphi);
      psi = Math.atan((1 - this.es) * tanphi + this.es * Nl1 * this.sin_p12 / (Nl * cosphi));
      Az = Math.atan2(Math.sin(dlon), this.cos_p12 * Math.tan(psi) - this.sin_p12 * Math.cos(dlon));
      if (Az === 0) {
        s = Math.asin(this.cos_p12 * Math.sin(psi) - this.sin_p12 * Math.cos(psi));
      }
      else if (Math.abs(Math.abs(Az) - common.PI) <= common.EPSLN) {
        s = -Math.asin(this.cos_p12 * Math.sin(psi) - this.sin_p12 * Math.cos(psi));
      }
      else {
        s = Math.asin(Math.sin(dlon) * Math.cos(psi) / Math.sin(Az));
      }
      G = this.e * this.sin_p12 / Math.sqrt(1 - this.es);
      H = this.e * this.cos_p12 * Math.cos(Az) / Math.sqrt(1 - this.es);
      GH = G * H;
      Hs = H * H;
      s2 = s * s;
      s3 = s2 * s;
      s4 = s3 * s;
      s5 = s4 * s;
      c = Nl1 * s * (1 - s2 * Hs * (1 - Hs) / 6 + s3 / 8 * GH * (1 - 2 * Hs) + s4 / 120 * (Hs * (4 - 7 * Hs) - 3 * G * G * (1 - 7 * Hs)) - s5 / 48 * GH);
      p.x = this.x0 + c * Math.sin(Az);
      p.y = this.y0 + c * Math.cos(Az);
      return p;
    }
  }


};

exports.inverse = function(p) {
  p.x -= this.x0;
  p.y -= this.y0;
  var rh, z, sinz, cosz, lon, lat, con, e0, e1, e2, e3, Mlp, M, N1, psi, Az, cosAz, tmp, A, B, D, Ee, F;
  if (this.sphere) {
    rh = Math.sqrt(p.x * p.x + p.y * p.y);
    if (rh > (2 * common.HALF_PI * this.a)) {
      return;
    }
    z = rh / this.a;

    sinz = Math.sin(z);
    cosz = Math.cos(z);

    lon = this.long0;
    if (Math.abs(rh) <= common.EPSLN) {
      lat = this.lat0;
    }
    else {
      lat = common.asinz(cosz * this.sin_p12 + (p.y * sinz * this.cos_p12) / rh);
      con = Math.abs(this.lat0) - common.HALF_PI;
      if (Math.abs(con) <= common.EPSLN) {
        if (this.lat0 >= 0) {
          lon = common.adjust_lon(this.long0 + Math.atan2(p.x, - p.y));
        }
        else {
          lon = common.adjust_lon(this.long0 - Math.atan2(-p.x, p.y));
        }
      }
      else {
        /*con = cosz - this.sin_p12 * Math.sin(lat);
        if ((Math.abs(con) < common.EPSLN) && (Math.abs(p.x) < common.EPSLN)) {
          //no-op, just keep the lon value as is
        } else {
          var temp = Math.atan2((p.x * sinz * this.cos_p12), (con * rh));
          lon = common.adjust_lon(this.long0 + Math.atan2((p.x * sinz * this.cos_p12), (con * rh)));
        }*/
        lon = common.adjust_lon(this.long0 + Math.atan2(p.x * sinz, rh * this.cos_p12 * cosz - p.y * this.sin_p12 * sinz));
      }
    }

    p.x = lon;
    p.y = lat;
    return p;
  }
  else {
    e0 = common.e0fn(this.es);
    e1 = common.e1fn(this.es);
    e2 = common.e2fn(this.es);
    e3 = common.e3fn(this.es);
    if (Math.abs(this.sin_p12 - 1) <= common.EPSLN) {
      //North pole case
      Mlp = this.a * common.mlfn(e0, e1, e2, e3, common.HALF_PI);
      rh = Math.sqrt(p.x * p.x + p.y * p.y);
      M = Mlp - rh;
      lat = common.imlfn(M / this.a, e0, e1, e2, e3);
      lon = common.adjust_lon(this.long0 + Math.atan2(p.x, - 1 * p.y));
      p.x = lon;
      p.y = lat;
      return p;
    }
    else if (Math.abs(this.sin_p12 + 1) <= common.EPSLN) {
      //South pole case
      Mlp = this.a * common.mlfn(e0, e1, e2, e3, common.HALF_PI);
      rh = Math.sqrt(p.x * p.x + p.y * p.y);
      M = rh - Mlp;

      lat = common.imlfn(M / this.a, e0, e1, e2, e3);
      lon = common.adjust_lon(this.long0 + Math.atan2(p.x, p.y));
      p.x = lon;
      p.y = lat;
      return p;
    }
    else {
      //default case
      rh = Math.sqrt(p.x * p.x + p.y * p.y);
      Az = Math.atan2(p.x, p.y);
      N1 = common.gN(this.a, this.e, this.sin_p12);
      cosAz = Math.cos(Az);
      tmp = this.e * this.cos_p12 * cosAz;
      A = -tmp * tmp / (1 - this.es);
      B = 3 * this.es * (1 - A) * this.sin_p12 * this.cos_p12 * cosAz / (1 - this.es);
      D = rh / N1;
      Ee = D - A * (1 + A) * Math.pow(D, 3) / 6 - B * (1 + 3 * A) * Math.pow(D, 4) / 24;
      F = 1 - A * Ee * Ee / 2 - D * Ee * Ee * Ee / 6;
      psi = Math.asin(this.sin_p12 * Math.cos(Ee) + this.cos_p12 * Math.sin(Ee) * cosAz);
      lon = common.adjust_lon(this.long0 + Math.asin(Math.sin(Az) * Math.sin(Ee) / Math.cos(psi)));
      lat = Math.atan((1 - this.es * F * this.sin_p12 / Math.sin(psi)) * Math.tan(psi) / (1 - this.es));
      p.x = lon;
      p.y = lat;
      return p;
    }
  }

};
exports.names = ["Azimuthal_Equidistant", "aeqd"];

},{"../common":4}],21:[function(require,module,exports){
var common = require('../common');
exports.init = function() {
  if (!this.sphere) {
    this.e0 = common.e0fn(this.es);
    this.e1 = common.e1fn(this.es);
    this.e2 = common.e2fn(this.es);
    this.e3 = common.e3fn(this.es);
    this.ml0 = this.a * common.mlfn(this.e0, this.e1, this.e2, this.e3, this.lat0);
  }
};



/* Cassini forward equations--mapping lat,long to x,y
  -----------------------------------------------------------------------*/
exports.forward = function(p) {

  /* Forward equations
      -----------------*/
  var x, y;
  var lam = p.x;
  var phi = p.y;
  lam = common.adjust_lon(lam - this.long0);

  if (this.sphere) {
    x = this.a * Math.asin(Math.cos(phi) * Math.sin(lam));
    y = this.a * (Math.atan2(Math.tan(phi), Math.cos(lam)) - this.lat0);
  }
  else {
    //ellipsoid
    var sinphi = Math.sin(phi);
    var cosphi = Math.cos(phi);
    var nl = common.gN(this.a, this.e, sinphi);
    var tl = Math.tan(phi) * Math.tan(phi);
    var al = lam * Math.cos(phi);
    var asq = al * al;
    var cl = this.es * cosphi * cosphi / (1 - this.es);
    var ml = this.a * common.mlfn(this.e0, this.e1, this.e2, this.e3, phi);

    x = nl * al * (1 - asq * tl * (1 / 6 - (8 - tl + 8 * cl) * asq / 120));
    y = ml - this.ml0 + nl * sinphi / cosphi * asq * (0.5 + (5 - tl + 6 * cl) * asq / 24);


  }

  p.x = x + this.x0;
  p.y = y + this.y0;
  return p;
};

/* Inverse equations
  -----------------*/
exports.inverse = function(p) {
  p.x -= this.x0;
  p.y -= this.y0;
  var x = p.x / this.a;
  var y = p.y / this.a;
  var phi, lam;

  if (this.sphere) {
    var dd = y + this.lat0;
    phi = Math.asin(Math.sin(dd) * Math.cos(x));
    lam = Math.atan2(Math.tan(x), Math.cos(dd));
  }
  else {
    /* ellipsoid */
    var ml1 = this.ml0 / this.a + y;
    var phi1 = common.imlfn(ml1, this.e0, this.e1, this.e2, this.e3);
    if (Math.abs(Math.abs(phi1) - common.HALF_PI) <= common.EPSLN) {
      p.x = this.long0;
      p.y = common.HALF_PI;
      if (y < 0) {
        p.y *= -1;
      }
      return p;
    }
    var nl1 = common.gN(this.a, this.e, Math.sin(phi1));

    var rl1 = nl1 * nl1 * nl1 / this.a / this.a * (1 - this.es);
    var tl1 = Math.pow(Math.tan(phi1), 2);
    var dl = x * this.a / nl1;
    var dsq = dl * dl;
    phi = phi1 - nl1 * Math.tan(phi1) / rl1 * dl * dl * (0.5 - (1 + 3 * tl1) * dl * dl / 24);
    lam = dl * (1 - dsq * (tl1 / 3 + (1 + 3 * tl1) * tl1 * dsq / 15)) / Math.cos(phi1);

  }

  p.x = common.adjust_lon(lam + this.long0);
  p.y = common.adjust_lat(phi);
  return p;

};
exports.names = ["Cassini", "Cassini_Soldner", "cass"];
},{"../common":4}],22:[function(require,module,exports){
var common = require('../common');
/*
  reference:  
    "Cartographic Projection Procedures for the UNIX Environment-
    A User's Manual" by Gerald I. Evenden,
    USGS Open File Report 90-284and Release 4 Interim Reports (2003)
*/
exports.init = function() {
  //no-op
  if (!this.sphere) {
    this.k0 = common.msfnz(this.e, Math.sin(this.lat_ts), Math.cos(this.lat_ts));
  }
};


/* Cylindrical Equal Area forward equations--mapping lat,long to x,y
    ------------------------------------------------------------*/
exports.forward = function(p) {
  var lon = p.x;
  var lat = p.y;
  var x, y;
  /* Forward equations
      -----------------*/
  var dlon = common.adjust_lon(lon - this.long0);
  if (this.sphere) {
    x = this.x0 + this.a * dlon * Math.cos(this.lat_ts);
    y = this.y0 + this.a * Math.sin(lat) / Math.cos(this.lat_ts);
  }
  else {
    var qs = common.qsfnz(this.e, Math.sin(lat));
    x = this.x0 + this.a * this.k0 * dlon;
    y = this.y0 + this.a * qs * 0.5 / this.k0;
  }

  p.x = x;
  p.y = y;
  return p;
};

/* Cylindrical Equal Area inverse equations--mapping x,y to lat/long
    ------------------------------------------------------------*/
exports.inverse = function(p) {
  p.x -= this.x0;
  p.y -= this.y0;
  var lon, lat;

  if (this.sphere) {
    lon = common.adjust_lon(this.long0 + (p.x / this.a) / Math.cos(this.lat_ts));
    lat = Math.asin((p.y / this.a) * Math.cos(this.lat_ts));
  }
  else {
    lat = common.iqsfnz(this.e, 2 * p.y * this.k0 / this.a);
    lon = common.adjust_lon(this.long0 + p.x / (this.a * this.k0));
  }

  p.x = lon;
  p.y = lat;
  return p;
};
exports.names = ["cea"];

},{"../common":4}],23:[function(require,module,exports){
var common = require('../common');
exports.init = function() {

  this.x0 = this.x0 || 0;
  this.y0 = this.y0 || 0;
  this.lat0 = this.lat0 || 0;
  this.long0 = this.long0 || 0;
  this.lat_ts = this.lat_t || 0;
  this.title = this.title || "Equidistant Cylindrical (Plate Carre)";

  this.rc = Math.cos(this.lat_ts);
};


// forward equations--mapping lat,long to x,y
// -----------------------------------------------------------------
exports.forward = function(p) {

  var lon = p.x;
  var lat = p.y;

  var dlon = common.adjust_lon(lon - this.long0);
  var dlat = common.adjust_lat(lat - this.lat0);
  p.x = this.x0 + (this.a * dlon * this.rc);
  p.y = this.y0 + (this.a * dlat);
  return p;
};

// inverse equations--mapping x,y to lat/long
// -----------------------------------------------------------------
exports.inverse = function(p) {

  var x = p.x;
  var y = p.y;

  p.x = common.adjust_lon(this.long0 + ((x - this.x0) / (this.a * this.rc)));
  p.y = common.adjust_lat(this.lat0 + ((y - this.y0) / (this.a)));
  return p;
};
exports.names = ["Equirectangular", "Equidistant_Cylindrical", "eqc"];

},{"../common":4}],24:[function(require,module,exports){
var common = require('../common');
exports.init = function() {

  /* Place parameters in static storage for common use
      -------------------------------------------------*/
  // Standard Parallels cannot be equal and on opposite sides of the equator
  if (Math.abs(this.lat1 + this.lat2) < common.EPSLN) {
    common.reportError("eqdc:init: Equal Latitudes");
    return;
  }
  this.lat2 = this.lat2 || this.lat1;
  this.temp = this.b / this.a;
  this.es = 1 - Math.pow(this.temp, 2);
  this.e = Math.sqrt(this.es);
  this.e0 = common.e0fn(this.es);
  this.e1 = common.e1fn(this.es);
  this.e2 = common.e2fn(this.es);
  this.e3 = common.e3fn(this.es);

  this.sinphi = Math.sin(this.lat1);
  this.cosphi = Math.cos(this.lat1);

  this.ms1 = common.msfnz(this.e, this.sinphi, this.cosphi);
  this.ml1 = common.mlfn(this.e0, this.e1, this.e2, this.e3, this.lat1);

  if (Math.abs(this.lat1 - this.lat2) < common.EPSLN) {
    this.ns = this.sinphi;
  }
  else {
    this.sinphi = Math.sin(this.lat2);
    this.cosphi = Math.cos(this.lat2);
    this.ms2 = common.msfnz(this.e, this.sinphi, this.cosphi);
    this.ml2 = common.mlfn(this.e0, this.e1, this.e2, this.e3, this.lat2);
    this.ns = (this.ms1 - this.ms2) / (this.ml2 - this.ml1);
  }
  this.g = this.ml1 + this.ms1 / this.ns;
  this.ml0 = common.mlfn(this.e0, this.e1, this.e2, this.e3, this.lat0);
  this.rh = this.a * (this.g - this.ml0);
};


/* Equidistant Conic forward equations--mapping lat,long to x,y
  -----------------------------------------------------------*/
exports.forward = function(p) {
  var lon = p.x;
  var lat = p.y;
  var rh1;

  /* Forward equations
      -----------------*/
  if (this.sphere) {
    rh1 = this.a * (this.g - lat);
  }
  else {
    var ml = common.mlfn(this.e0, this.e1, this.e2, this.e3, lat);
    rh1 = this.a * (this.g - ml);
  }
  var theta = this.ns * common.adjust_lon(lon - this.long0);
  var x = this.x0 + rh1 * Math.sin(theta);
  var y = this.y0 + this.rh - rh1 * Math.cos(theta);
  p.x = x;
  p.y = y;
  return p;
};

/* Inverse equations
  -----------------*/
exports.inverse = function(p) {
  p.x -= this.x0;
  p.y = this.rh - p.y + this.y0;
  var con, rh1, lat, lon;
  if (this.ns >= 0) {
    rh1 = Math.sqrt(p.x * p.x + p.y * p.y);
    con = 1;
  }
  else {
    rh1 = -Math.sqrt(p.x * p.x + p.y * p.y);
    con = -1;
  }
  var theta = 0;
  if (rh1 !== 0) {
    theta = Math.atan2(con * p.x, con * p.y);
  }

  if (this.sphere) {
    lon = common.adjust_lon(this.long0 + theta / this.ns);
    lat = common.adjust_lat(this.g - rh1 / this.a);
    p.x = lon;
    p.y = lat;
    return p;
  }
  else {
    var ml = this.g - rh1 / this.a;
    lat = common.imlfn(ml, this.e0, this.e1, this.e2, this.e3);
    lon = common.adjust_lon(this.long0 + theta / this.ns);
    p.x = lon;
    p.y = lat;
    return p;
  }

};
exports.names = ["Equidistant_Conic", "eqdc"];

},{"../common":4}],25:[function(require,module,exports){
var common = require('../common');
exports.init = function() {
  var sphi = Math.sin(this.lat0);
  var cphi = Math.cos(this.lat0);
  cphi *= cphi;
  this.rc = Math.sqrt(1 - this.es) / (1 - this.es * sphi * sphi);
  this.C = Math.sqrt(1 + this.es * cphi * cphi / (1 - this.es));
  this.phic0 = Math.asin(sphi / this.C);
  this.ratexp = 0.5 * this.C * this.e;
  this.K = Math.tan(0.5 * this.phic0 + common.FORTPI) / (Math.pow(Math.tan(0.5 * this.lat0 + common.FORTPI), this.C) * common.srat(this.e * sphi, this.ratexp));
};

exports.forward = function(p) {
  var lon = p.x;
  var lat = p.y;

  p.y = 2 * Math.atan(this.K * Math.pow(Math.tan(0.5 * lat + common.FORTPI), this.C) * common.srat(this.e * Math.sin(lat), this.ratexp)) - common.HALF_PI;
  p.x = this.C * lon;
  return p;
};

exports.inverse = function(p) {
  var DEL_TOL = 1e-14;
  var lon = p.x / this.C;
  var lat = p.y;
  var num = Math.pow(Math.tan(0.5 * lat + common.FORTPI) / this.K, 1 / this.C);
  for (var i = common.MAX_ITER; i > 0; --i) {
    lat = 2 * Math.atan(num * common.srat(this.e * Math.sin(p.y), - 0.5 * this.e)) - common.HALF_PI;
    if (Math.abs(lat - p.y) < DEL_TOL) {
      break;
    }
    p.y = lat;
  }
  /* convergence failed */
  if (!i) {
    return null;
  }
  p.x = lon;
  p.y = lat;
  return p;
};
exports.names = ["gauss"];

},{"../common":4}],26:[function(require,module,exports){
var common = require('../common');
/*
  reference:
    Wolfram Mathworld "Gnomonic Projection"
    http://mathworld.wolfram.com/GnomonicProjection.html
    Accessed: 12th November 2009
  */
exports.init = function() {

  /* Place parameters in static storage for common use
      -------------------------------------------------*/
  this.sin_p14 = Math.sin(this.lat0);
  this.cos_p14 = Math.cos(this.lat0);
  // Approximation for projecting points to the horizon (infinity)
  this.infinity_dist = 1000 * this.a;
  this.rc = 1;
};


/* Gnomonic forward equations--mapping lat,long to x,y
    ---------------------------------------------------*/
exports.forward = function(p) {
  var sinphi, cosphi; /* sin and cos value        */
  var dlon; /* delta longitude value      */
  var coslon; /* cos of longitude        */
  var ksp; /* scale factor          */
  var g;
  var x, y;
  var lon = p.x;
  var lat = p.y;
  /* Forward equations
      -----------------*/
  dlon = common.adjust_lon(lon - this.long0);

  sinphi = Math.sin(lat);
  cosphi = Math.cos(lat);

  coslon = Math.cos(dlon);
  g = this.sin_p14 * sinphi + this.cos_p14 * cosphi * coslon;
  ksp = 1;
  if ((g > 0) || (Math.abs(g) <= common.EPSLN)) {
    x = this.x0 + this.a * ksp * cosphi * Math.sin(dlon) / g;
    y = this.y0 + this.a * ksp * (this.cos_p14 * sinphi - this.sin_p14 * cosphi * coslon) / g;
  }
  else {

    // Point is in the opposing hemisphere and is unprojectable
    // We still need to return a reasonable point, so we project 
    // to infinity, on a bearing 
    // equivalent to the northern hemisphere equivalent
    // This is a reasonable approximation for short shapes and lines that 
    // straddle the horizon.

    x = this.x0 + this.infinity_dist * cosphi * Math.sin(dlon);
    y = this.y0 + this.infinity_dist * (this.cos_p14 * sinphi - this.sin_p14 * cosphi * coslon);

  }
  p.x = x;
  p.y = y;
  return p;
};


exports.inverse = function(p) {
  var rh; /* Rho */
  var sinc, cosc;
  var c;
  var lon, lat;

  /* Inverse equations
      -----------------*/
  p.x = (p.x - this.x0) / this.a;
  p.y = (p.y - this.y0) / this.a;

  p.x /= this.k0;
  p.y /= this.k0;

  if ((rh = Math.sqrt(p.x * p.x + p.y * p.y))) {
    c = Math.atan2(rh, this.rc);
    sinc = Math.sin(c);
    cosc = Math.cos(c);

    lat = common.asinz(cosc * this.sin_p14 + (p.y * sinc * this.cos_p14) / rh);
    lon = Math.atan2(p.x * sinc, rh * this.cos_p14 * cosc - p.y * this.sin_p14 * sinc);
    lon = common.adjust_lon(this.long0 + lon);
  }
  else {
    lat = this.phic0;
    lon = 0;
  }

  p.x = lon;
  p.y = lat;
  return p;
};
exports.names = ["gnom"];

},{"../common":4}],27:[function(require,module,exports){
var projs = [
  require('./tmerc'),
  require('./utm'),
  require('./sterea'),
  require('./stere'),
  require('./somerc'),
  require('./omerc'),
  require('./lcc'),
  require('./krovak'),
  require('./cass'),
  require('./laea'),
  require('./merc'),
  require('./aea'),
  require('./gnom'),
  require('./cea'),
  require('./eqc'),
  require('./poly'),
  require('./nzmg'),
  require('./mill'),
  require('./sinu'),
  require('./moll'),
  require('./eqdc'),
  require('./vandg'),
  require('./aeqd'),
  require('./longlat')
];
var names = {};
var projStore = [];

function add(proj, i) {
  var len = projStore.length;
  if (!proj.names) {
    console.log(i);
    return true;
  }
  projStore[len] = proj;
  proj.names.forEach(function(n) {
    names[n.toLowerCase()] = len;
  });
  return this;
}

exports.add = add;

exports.get = function(name) {
  if (!name) {
    return false;
  }
  var n = name.toLowerCase();
  if (typeof names[n] !== 'undefined' && projStore[names[n]]) {
    return projStore[names[n]];
  }
};
exports.start = function() {
  projs.forEach(add);
};

},{"./aea":19,"./aeqd":20,"./cass":21,"./cea":22,"./eqc":23,"./eqdc":24,"./gnom":26,"./krovak":28,"./laea":29,"./lcc":30,"./longlat":31,"./merc":32,"./mill":33,"./moll":34,"./nzmg":35,"./omerc":36,"./poly":37,"./sinu":38,"./somerc":39,"./stere":40,"./sterea":41,"./tmerc":42,"./utm":43,"./vandg":44}],28:[function(require,module,exports){
var common = require('../common');
exports.init = function() {
  this.a = 6377397.155;
  this.es = 0.006674372230614;
  this.e = Math.sqrt(this.es);
  if (!this.lat0) {
    this.lat0 = 0.863937979737193;
  }
  if (!this.long0) {
    this.long0 = 0.7417649320975901 - 0.308341501185665;
  }
  /* if scale not set default to 0.9999 */
  if (!this.k0) {
    this.k0 = 0.9999;
  }
  this.s45 = 0.785398163397448; /* 45 */
  this.s90 = 2 * this.s45;
  this.fi0 = this.lat0;
  this.e2 = this.es;
  this.e = Math.sqrt(this.e2);
  this.alfa = Math.sqrt(1 + (this.e2 * Math.pow(Math.cos(this.fi0), 4)) / (1 - this.e2));
  this.uq = 1.04216856380474;
  this.u0 = Math.asin(Math.sin(this.fi0) / this.alfa);
  this.g = Math.pow((1 + this.e * Math.sin(this.fi0)) / (1 - this.e * Math.sin(this.fi0)), this.alfa * this.e / 2);
  this.k = Math.tan(this.u0 / 2 + this.s45) / Math.pow(Math.tan(this.fi0 / 2 + this.s45), this.alfa) * this.g;
  this.k1 = this.k0;
  this.n0 = this.a * Math.sqrt(1 - this.e2) / (1 - this.e2 * Math.pow(Math.sin(this.fi0), 2));
  this.s0 = 1.37008346281555;
  this.n = Math.sin(this.s0);
  this.ro0 = this.k1 * this.n0 / Math.tan(this.s0);
  this.ad = this.s90 - this.uq;
};

/* ellipsoid */
/* calculate xy from lat/lon */
/* Constants, identical to inverse transform function */
exports.forward = function(p) {
  var gfi, u, deltav, s, d, eps, ro;
  var lon = p.x;
  var lat = p.y;
  var delta_lon = common.adjust_lon(lon - this.long0);
  /* Transformation */
  gfi = Math.pow(((1 + this.e * Math.sin(lat)) / (1 - this.e * Math.sin(lat))), (this.alfa * this.e / 2));
  u = 2 * (Math.atan(this.k * Math.pow(Math.tan(lat / 2 + this.s45), this.alfa) / gfi) - this.s45);
  deltav = -delta_lon * this.alfa;
  s = Math.asin(Math.cos(this.ad) * Math.sin(u) + Math.sin(this.ad) * Math.cos(u) * Math.cos(deltav));
  d = Math.asin(Math.cos(u) * Math.sin(deltav) / Math.cos(s));
  eps = this.n * d;
  ro = this.ro0 * Math.pow(Math.tan(this.s0 / 2 + this.s45), this.n) / Math.pow(Math.tan(s / 2 + this.s45), this.n);
  p.y = ro * Math.cos(eps) / 1;
  p.x = ro * Math.sin(eps) / 1;

  if (!this.czech) {
    p.y *= -1;
    p.x *= -1;
  }
  return (p);
};

/* calculate lat/lon from xy */
exports.inverse = function(p) {
  var u, deltav, s, d, eps, ro, fi1;
  var ok;

  /* Transformation */
  /* revert y, x*/
  var tmp = p.x;
  p.x = p.y;
  p.y = tmp;
  if (!this.czech) {
    p.y *= -1;
    p.x *= -1;
  }
  ro = Math.sqrt(p.x * p.x + p.y * p.y);
  eps = Math.atan2(p.y, p.x);
  d = eps / Math.sin(this.s0);
  s = 2 * (Math.atan(Math.pow(this.ro0 / ro, 1 / this.n) * Math.tan(this.s0 / 2 + this.s45)) - this.s45);
  u = Math.asin(Math.cos(this.ad) * Math.sin(s) - Math.sin(this.ad) * Math.cos(s) * Math.cos(d));
  deltav = Math.asin(Math.cos(s) * Math.sin(d) / Math.cos(u));
  p.x = this.long0 - deltav / this.alfa;
  fi1 = u;
  ok = 0;
  var iter = 0;
  do {
    p.y = 2 * (Math.atan(Math.pow(this.k, - 1 / this.alfa) * Math.pow(Math.tan(u / 2 + this.s45), 1 / this.alfa) * Math.pow((1 + this.e * Math.sin(fi1)) / (1 - this.e * Math.sin(fi1)), this.e / 2)) - this.s45);
    if (Math.abs(fi1 - p.y) < 0.0000000001) {
      ok = 1;
    }
    fi1 = p.y;
    iter += 1;
  } while (ok === 0 && iter < 15);
  if (iter >= 15) {
    return null;
  }

  return (p);
};
exports.names = ["Krovak", "krovak"];

},{"../common":4}],29:[function(require,module,exports){
var common = require('../common');
/*
  reference
    "New Equal-Area Map Projections for Noncircular Regions", John P. Snyder,
    The American Cartographer, Vol 15, No. 4, October 1988, pp. 341-355.
  */

exports.S_POLE = 1;
exports.N_POLE = 2;
exports.EQUIT = 3;
exports.OBLIQ = 4;


/* Initialize the Lambert Azimuthal Equal Area projection
  ------------------------------------------------------*/
exports.init = function() {
  var t = Math.abs(this.lat0);
  if (Math.abs(t - common.HALF_PI) < common.EPSLN) {
    this.mode = this.lat0 < 0 ? this.S_POLE : this.N_POLE;
  }
  else if (Math.abs(t) < common.EPSLN) {
    this.mode = this.EQUIT;
  }
  else {
    this.mode = this.OBLIQ;
  }
  if (this.es > 0) {
    var sinphi;

    this.qp = common.qsfnz(this.e, 1);
    this.mmf = 0.5 / (1 - this.es);
    this.apa = this.authset(this.es);
    switch (this.mode) {
    case this.N_POLE:
      this.dd = 1;
      break;
    case this.S_POLE:
      this.dd = 1;
      break;
    case this.EQUIT:
      this.rq = Math.sqrt(0.5 * this.qp);
      this.dd = 1 / this.rq;
      this.xmf = 1;
      this.ymf = 0.5 * this.qp;
      break;
    case this.OBLIQ:
      this.rq = Math.sqrt(0.5 * this.qp);
      sinphi = Math.sin(this.lat0);
      this.sinb1 = common.qsfnz(this.e, sinphi) / this.qp;
      this.cosb1 = Math.sqrt(1 - this.sinb1 * this.sinb1);
      this.dd = Math.cos(this.lat0) / (Math.sqrt(1 - this.es * sinphi * sinphi) * this.rq * this.cosb1);
      this.ymf = (this.xmf = this.rq) / this.dd;
      this.xmf *= this.dd;
      break;
    }
  }
  else {
    if (this.mode === this.OBLIQ) {
      this.sinph0 = Math.sin(this.lat0);
      this.cosph0 = Math.cos(this.lat0);
    }
  }
};

/* Lambert Azimuthal Equal Area forward equations--mapping lat,long to x,y
  -----------------------------------------------------------------------*/
exports.forward = function(p) {

  /* Forward equations
      -----------------*/
  var x, y, coslam, sinlam, sinphi, q, sinb, cosb, b, cosphi;
  var lam = p.x;
  var phi = p.y;

  lam = common.adjust_lon(lam - this.long0);

  if (this.sphere) {
    sinphi = Math.sin(phi);
    cosphi = Math.cos(phi);
    coslam = Math.cos(lam);
    if (this.mode === this.OBLIQ || this.mode === this.EQUIT) {
      y = (this.mode === this.EQUIT) ? 1 + cosphi * coslam : 1 + this.sinph0 * sinphi + this.cosph0 * cosphi * coslam;
      if (y <= common.EPSLN) {
        return null;
      }
      y = Math.sqrt(2 / y);
      x = y * cosphi * Math.sin(lam);
      y *= (this.mode === this.EQUIT) ? sinphi : this.cosph0 * sinphi - this.sinph0 * cosphi * coslam;
    }
    else if (this.mode === this.N_POLE || this.mode === this.S_POLE) {
      if (this.mode === this.N_POLE) {
        coslam = -coslam;
      }
      if (Math.abs(phi + this.phi0) < common.EPSLN) {
        return null;
      }
      y = common.FORTPI - phi * 0.5;
      y = 2 * ((this.mode === this.S_POLE) ? Math.cos(y) : Math.sin(y));
      x = y * Math.sin(lam);
      y *= coslam;
    }
  }
  else {
    sinb = 0;
    cosb = 0;
    b = 0;
    coslam = Math.cos(lam);
    sinlam = Math.sin(lam);
    sinphi = Math.sin(phi);
    q = common.qsfnz(this.e, sinphi);
    if (this.mode === this.OBLIQ || this.mode === this.EQUIT) {
      sinb = q / this.qp;
      cosb = Math.sqrt(1 - sinb * sinb);
    }
    switch (this.mode) {
    case this.OBLIQ:
      b = 1 + this.sinb1 * sinb + this.cosb1 * cosb * coslam;
      break;
    case this.EQUIT:
      b = 1 + cosb * coslam;
      break;
    case this.N_POLE:
      b = common.HALF_PI + phi;
      q = this.qp - q;
      break;
    case this.S_POLE:
      b = phi - common.HALF_PI;
      q = this.qp + q;
      break;
    }
    if (Math.abs(b) < common.EPSLN) {
      return null;
    }
    switch (this.mode) {
    case this.OBLIQ:
    case this.EQUIT:
      b = Math.sqrt(2 / b);
      if (this.mode === this.OBLIQ) {
        y = this.ymf * b * (this.cosb1 * sinb - this.sinb1 * cosb * coslam);
      }
      else {
        y = (b = Math.sqrt(2 / (1 + cosb * coslam))) * sinb * this.ymf;
      }
      x = this.xmf * b * cosb * sinlam;
      break;
    case this.N_POLE:
    case this.S_POLE:
      if (q >= 0) {
        x = (b = Math.sqrt(q)) * sinlam;
        y = coslam * ((this.mode === this.S_POLE) ? b : -b);
      }
      else {
        x = y = 0;
      }
      break;
    }
  }

  p.x = this.a * x + this.x0;
  p.y = this.a * y + this.y0;
  return p;
};

/* Inverse equations
  -----------------*/
exports.inverse = function(p) {
  p.x -= this.x0;
  p.y -= this.y0;
  var x = p.x / this.a;
  var y = p.y / this.a;
  var lam, phi, cCe, sCe, q, rho, ab;

  if (this.sphere) {
    var cosz = 0,
      rh, sinz = 0;

    rh = Math.sqrt(x * x + y * y);
    phi = rh * 0.5;
    if (phi > 1) {
      return null;
    }
    phi = 2 * Math.asin(phi);
    if (this.mode === this.OBLIQ || this.mode === this.EQUIT) {
      sinz = Math.sin(phi);
      cosz = Math.cos(phi);
    }
    switch (this.mode) {
    case this.EQUIT:
      phi = (Math.abs(rh) <= common.EPSLN) ? 0 : Math.asin(y * sinz / rh);
      x *= sinz;
      y = cosz * rh;
      break;
    case this.OBLIQ:
      phi = (Math.abs(rh) <= common.EPSLN) ? this.phi0 : Math.asin(cosz * this.sinph0 + y * sinz * this.cosph0 / rh);
      x *= sinz * this.cosph0;
      y = (cosz - Math.sin(phi) * this.sinph0) * rh;
      break;
    case this.N_POLE:
      y = -y;
      phi = common.HALF_PI - phi;
      break;
    case this.S_POLE:
      phi -= common.HALF_PI;
      break;
    }
    lam = (y === 0 && (this.mode === this.EQUIT || this.mode === this.OBLIQ)) ? 0 : Math.atan2(x, y);
  }
  else {
    ab = 0;
    if (this.mode === this.OBLIQ || this.mode === this.EQUIT) {
      x /= this.dd;
      y *= this.dd;
      rho = Math.sqrt(x * x + y * y);
      if (rho < common.EPSLN) {
        p.x = 0;
        p.y = this.phi0;
        return p;
      }
      sCe = 2 * Math.asin(0.5 * rho / this.rq);
      cCe = Math.cos(sCe);
      x *= (sCe = Math.sin(sCe));
      if (this.mode === this.OBLIQ) {
        ab = cCe * this.sinb1 + y * sCe * this.cosb1 / rho;
        q = this.qp * ab;
        y = rho * this.cosb1 * cCe - y * this.sinb1 * sCe;
      }
      else {
        ab = y * sCe / rho;
        q = this.qp * ab;
        y = rho * cCe;
      }
    }
    else if (this.mode === this.N_POLE || this.mode === this.S_POLE) {
      if (this.mode === this.N_POLE) {
        y = -y;
      }
      q = (x * x + y * y);
      if (!q) {
        p.x = 0;
        p.y = this.phi0;
        return p;
      }
      ab = 1 - q / this.qp;
      if (this.mode === this.S_POLE) {
        ab = -ab;
      }
    }
    lam = Math.atan2(x, y);
    phi = this.authlat(Math.asin(ab), this.apa);
  }


  p.x = common.adjust_lon(this.long0 + lam);
  p.y = phi;
  return p;
};

/* determine latitude from authalic latitude */
exports.P00 = 0.33333333333333333333;
exports.P01 = 0.17222222222222222222;
exports.P02 = 0.10257936507936507936;
exports.P10 = 0.06388888888888888888;
exports.P11 = 0.06640211640211640211;
exports.P20 = 0.01641501294219154443;

exports.authset = function(es) {
  var t;
  var APA = [];
  APA[0] = es * this.P00;
  t = es * es;
  APA[0] += t * this.P01;
  APA[1] = t * this.P10;
  t *= es;
  APA[0] += t * this.P02;
  APA[1] += t * this.P11;
  APA[2] = t * this.P20;
  return APA;
};

exports.authlat = function(beta, APA) {
  var t = beta + beta;
  return (beta + APA[0] * Math.sin(t) + APA[1] * Math.sin(t + t) + APA[2] * Math.sin(t + t + t));
};
exports.names = ["Lambert Azimuthal Equal Area", "Lambert_Azimuthal_Equal_Area", "laea"];

},{"../common":4}],30:[function(require,module,exports){
var common = require('../common');
exports.init = function() {

  // array of:  r_maj,r_min,lat1,lat2,c_lon,c_lat,false_east,false_north
  //double c_lat;                   /* center latitude                      */
  //double c_lon;                   /* center longitude                     */
  //double lat1;                    /* first standard parallel              */
  //double lat2;                    /* second standard parallel             */
  //double r_maj;                   /* major axis                           */
  //double r_min;                   /* minor axis                           */
  //double false_east;              /* x offset in meters                   */
  //double false_north;             /* y offset in meters                   */

  if (!this.lat2) {
    this.lat2 = this.lat1;
  } //if lat2 is not defined
  if (!this.k0) {
    this.k0 = 1;
  }

  // Standard Parallels cannot be equal and on opposite sides of the equator
  if (Math.abs(this.lat1 + this.lat2) < common.EPSLN) {
    return;
  }

  var temp = this.b / this.a;
  this.e = Math.sqrt(1 - temp * temp);

  var sin1 = Math.sin(this.lat1);
  var cos1 = Math.cos(this.lat1);
  var ms1 = common.msfnz(this.e, sin1, cos1);
  var ts1 = common.tsfnz(this.e, this.lat1, sin1);

  var sin2 = Math.sin(this.lat2);
  var cos2 = Math.cos(this.lat2);
  var ms2 = common.msfnz(this.e, sin2, cos2);
  var ts2 = common.tsfnz(this.e, this.lat2, sin2);

  var ts0 = common.tsfnz(this.e, this.lat0, Math.sin(this.lat0));

  if (Math.abs(this.lat1 - this.lat2) > common.EPSLN) {
    this.ns = Math.log(ms1 / ms2) / Math.log(ts1 / ts2);
  }
  else {
    this.ns = sin1;
  }
  if (isNaN(this.ns)) {
    this.ns = sin1;
  }
  this.f0 = ms1 / (this.ns * Math.pow(ts1, this.ns));
  this.rh = this.a * this.f0 * Math.pow(ts0, this.ns);
  if (!this.title) {
    this.title = "Lambert Conformal Conic";
  }
};


// Lambert Conformal conic forward equations--mapping lat,long to x,y
// -----------------------------------------------------------------
exports.forward = function(p) {

  var lon = p.x;
  var lat = p.y;

  // singular cases :
  if (Math.abs(2 * Math.abs(lat) - common.PI) <= common.EPSLN) {
    lat = common.sign(lat) * (common.HALF_PI - 2 * common.EPSLN);
  }

  var con = Math.abs(Math.abs(lat) - common.HALF_PI);
  var ts, rh1;
  if (con > common.EPSLN) {
    ts = common.tsfnz(this.e, lat, Math.sin(lat));
    rh1 = this.a * this.f0 * Math.pow(ts, this.ns);
  }
  else {
    con = lat * this.ns;
    if (con <= 0) {
      return null;
    }
    rh1 = 0;
  }
  var theta = this.ns * common.adjust_lon(lon - this.long0);
  p.x = this.k0 * (rh1 * Math.sin(theta)) + this.x0;
  p.y = this.k0 * (this.rh - rh1 * Math.cos(theta)) + this.y0;

  return p;
};

// Lambert Conformal Conic inverse equations--mapping x,y to lat/long
// -----------------------------------------------------------------
exports.inverse = function(p) {

  var rh1, con, ts;
  var lat, lon;
  var x = (p.x - this.x0) / this.k0;
  var y = (this.rh - (p.y - this.y0) / this.k0);
  if (this.ns > 0) {
    rh1 = Math.sqrt(x * x + y * y);
    con = 1;
  }
  else {
    rh1 = -Math.sqrt(x * x + y * y);
    con = -1;
  }
  var theta = 0;
  if (rh1 !== 0) {
    theta = Math.atan2((con * x), (con * y));
  }
  if ((rh1 !== 0) || (this.ns > 0)) {
    con = 1 / this.ns;
    ts = Math.pow((rh1 / (this.a * this.f0)), con);
    lat = common.phi2z(this.e, ts);
    if (lat === -9999) {
      return null;
    }
  }
  else {
    lat = -common.HALF_PI;
  }
  lon = common.adjust_lon(theta / this.ns + this.long0);

  p.x = lon;
  p.y = lat;
  return p;
};

exports.names = ["Lambert Tangential Conformal Conic Projection", "Lambert_Conformal_Conic", "Lambert_Conformal_Conic_2SP", "lcc"];

},{"../common":4}],31:[function(require,module,exports){
exports.init = function() {
  //no-op for longlat
};

function identity(pt) {
  return pt;
}
exports.forward = identity;
exports.inverse = identity;
exports.names = ["longlat", "identity"];

},{}],32:[function(require,module,exports){
var common = require('../common');
exports.init = function() {
  var con = this.b / this.a;
  this.es = 1 - con * con;
  this.e = Math.sqrt(this.es);
  if (this.lat_ts) {
    if (this.sphere) {
      this.k0 = Math.cos(this.lat_ts);
    }
    else {
      this.k0 = common.msfnz(this.e, Math.sin(this.lat_ts), Math.cos(this.lat_ts));
    }
  }
  else {
    if (!this.k0) {
      if (this.k) {
        this.k0 = this.k;
      }
      else {
        this.k0 = 1;
      }
    }
  }
};

/* Mercator forward equations--mapping lat,long to x,y
  --------------------------------------------------*/

exports.forward = function(p) {
  var lon = p.x;
  var lat = p.y;
  // convert to radians
  if (lat * common.R2D > 90 && lat * common.R2D < -90 && lon * common.R2D > 180 && lon * common.R2D < -180) {
    return null;
  }

  var x, y;
  if (Math.abs(Math.abs(lat) - common.HALF_PI) <= common.EPSLN) {
    return null;
  }
  else {
    if (this.sphere) {
      x = this.x0 + this.a * this.k0 * common.adjust_lon(lon - this.long0);
      y = this.y0 + this.a * this.k0 * Math.log(Math.tan(common.FORTPI + 0.5 * lat));
    }
    else {
      var sinphi = Math.sin(lat);
      var ts = common.tsfnz(this.e, lat, sinphi);
      x = this.x0 + this.a * this.k0 * common.adjust_lon(lon - this.long0);
      y = this.y0 - this.a * this.k0 * Math.log(ts);
    }
    p.x = x;
    p.y = y;
    return p;
  }
};


/* Mercator inverse equations--mapping x,y to lat/long
  --------------------------------------------------*/
exports.inverse = function(p) {

  var x = p.x - this.x0;
  var y = p.y - this.y0;
  var lon, lat;

  if (this.sphere) {
    lat = common.HALF_PI - 2 * Math.atan(Math.exp(-y / (this.a * this.k0)));
  }
  else {
    var ts = Math.exp(-y / (this.a * this.k0));
    lat = common.phi2z(this.e, ts);
    if (lat === -9999) {
      return null;
    }
  }
  lon = common.adjust_lon(this.long0 + x / (this.a * this.k0));

  p.x = lon;
  p.y = lat;
  return p;
};

exports.names = ["Mercator", "Popular Visualisation Pseudo Mercator", "Mercator_1SP", "Mercator_Auxiliary_Sphere", "merc"];

},{"../common":4}],33:[function(require,module,exports){
var common = require('../common');
/*
  reference
    "New Equal-Area Map Projections for Noncircular Regions", John P. Snyder,
    The American Cartographer, Vol 15, No. 4, October 1988, pp. 341-355.
  */


/* Initialize the Miller Cylindrical projection
  -------------------------------------------*/
exports.init = function() {
  //no-op
};


/* Miller Cylindrical forward equations--mapping lat,long to x,y
    ------------------------------------------------------------*/
exports.forward = function(p) {
  var lon = p.x;
  var lat = p.y;
  /* Forward equations
      -----------------*/
  var dlon = common.adjust_lon(lon - this.long0);
  var x = this.x0 + this.a * dlon;
  var y = this.y0 + this.a * Math.log(Math.tan((common.PI / 4) + (lat / 2.5))) * 1.25;

  p.x = x;
  p.y = y;
  return p;
};

/* Miller Cylindrical inverse equations--mapping x,y to lat/long
    ------------------------------------------------------------*/
exports.inverse = function(p) {
  p.x -= this.x0;
  p.y -= this.y0;

  var lon = common.adjust_lon(this.long0 + p.x / this.a);
  var lat = 2.5 * (Math.atan(Math.exp(0.8 * p.y / this.a)) - common.PI / 4);

  p.x = lon;
  p.y = lat;
  return p;
};
exports.names = ["Miller_Cylindrical", "mill"];

},{"../common":4}],34:[function(require,module,exports){
var common = require('../common');
exports.init = function() {};

/* Mollweide forward equations--mapping lat,long to x,y
    ----------------------------------------------------*/
exports.forward = function(p) {

  /* Forward equations
      -----------------*/
  var lon = p.x;
  var lat = p.y;

  var delta_lon = common.adjust_lon(lon - this.long0);
  var theta = lat;
  var con = common.PI * Math.sin(lat);

  /* Iterate using the Newton-Raphson method to find theta
      -----------------------------------------------------*/
  for (var i = 0; true; i++) {
    var delta_theta = -(theta + Math.sin(theta) - con) / (1 + Math.cos(theta));
    theta += delta_theta;
    if (Math.abs(delta_theta) < common.EPSLN) {
      break;
    }
  }
  theta /= 2;

  /* If the latitude is 90 deg, force the x coordinate to be "0 + false easting"
       this is done here because of precision problems with "cos(theta)"
       --------------------------------------------------------------------------*/
  if (common.PI / 2 - Math.abs(lat) < common.EPSLN) {
    delta_lon = 0;
  }
  var x = 0.900316316158 * this.a * delta_lon * Math.cos(theta) + this.x0;
  var y = 1.4142135623731 * this.a * Math.sin(theta) + this.y0;

  p.x = x;
  p.y = y;
  return p;
};

exports.inverse = function(p) {
  var theta;
  var arg;

  /* Inverse equations
      -----------------*/
  p.x -= this.x0;
  p.y -= this.y0;
  arg = p.y / (1.4142135623731 * this.a);

  /* Because of division by zero problems, 'arg' can not be 1.  Therefore
       a number very close to one is used instead.
       -------------------------------------------------------------------*/
  if (Math.abs(arg) > 0.999999999999) {
    arg = 0.999999999999;
  }
  theta = Math.asin(arg);
  var lon = common.adjust_lon(this.long0 + (p.x / (0.900316316158 * this.a * Math.cos(theta))));
  if (lon < (-common.PI)) {
    lon = -common.PI;
  }
  if (lon > common.PI) {
    lon = common.PI;
  }
  arg = (2 * theta + Math.sin(2 * theta)) / common.PI;
  if (Math.abs(arg) > 1) {
    arg = 1;
  }
  var lat = Math.asin(arg);

  p.x = lon;
  p.y = lat;
  return p;
};
exports.names = ["Mollweide", "moll"];

},{"../common":4}],35:[function(require,module,exports){
var common = require('../common');
/*
  reference
    Department of Land and Survey Technical Circular 1973/32
      http://www.linz.govt.nz/docs/miscellaneous/nz-map-definition.pdf
    OSG Technical Report 4.1
      http://www.linz.govt.nz/docs/miscellaneous/nzmg.pdf
  */

/**
 * iterations: Number of iterations to refine inverse transform.
 *     0 -> km accuracy
 *     1 -> m accuracy -- suitable for most mapping applications
 *     2 -> mm accuracy
 */
exports.iterations = 1;

exports.init = function() {
  this.A = [];
  this.A[1] = 0.6399175073;
  this.A[2] = -0.1358797613;
  this.A[3] = 0.063294409;
  this.A[4] = -0.02526853;
  this.A[5] = 0.0117879;
  this.A[6] = -0.0055161;
  this.A[7] = 0.0026906;
  this.A[8] = -0.001333;
  this.A[9] = 0.00067;
  this.A[10] = -0.00034;

  this.B_re = [];
  this.B_im = [];
  this.B_re[1] = 0.7557853228;
  this.B_im[1] = 0;
  this.B_re[2] = 0.249204646;
  this.B_im[2] = 0.003371507;
  this.B_re[3] = -0.001541739;
  this.B_im[3] = 0.041058560;
  this.B_re[4] = -0.10162907;
  this.B_im[4] = 0.01727609;
  this.B_re[5] = -0.26623489;
  this.B_im[5] = -0.36249218;
  this.B_re[6] = -0.6870983;
  this.B_im[6] = -1.1651967;

  this.C_re = [];
  this.C_im = [];
  this.C_re[1] = 1.3231270439;
  this.C_im[1] = 0;
  this.C_re[2] = -0.577245789;
  this.C_im[2] = -0.007809598;
  this.C_re[3] = 0.508307513;
  this.C_im[3] = -0.112208952;
  this.C_re[4] = -0.15094762;
  this.C_im[4] = 0.18200602;
  this.C_re[5] = 1.01418179;
  this.C_im[5] = 1.64497696;
  this.C_re[6] = 1.9660549;
  this.C_im[6] = 2.5127645;

  this.D = [];
  this.D[1] = 1.5627014243;
  this.D[2] = 0.5185406398;
  this.D[3] = -0.03333098;
  this.D[4] = -0.1052906;
  this.D[5] = -0.0368594;
  this.D[6] = 0.007317;
  this.D[7] = 0.01220;
  this.D[8] = 0.00394;
  this.D[9] = -0.0013;
};

/**
    New Zealand Map Grid Forward  - long/lat to x/y
    long/lat in radians
  */
exports.forward = function(p) {
  var n;
  var lon = p.x;
  var lat = p.y;

  var delta_lat = lat - this.lat0;
  var delta_lon = lon - this.long0;

  // 1. Calculate d_phi and d_psi    ...                          // and d_lambda
  // For this algorithm, delta_latitude is in seconds of arc x 10-5, so we need to scale to those units. Longitude is radians.
  var d_phi = delta_lat / common.SEC_TO_RAD * 1E-5;
  var d_lambda = delta_lon;
  var d_phi_n = 1; // d_phi^0

  var d_psi = 0;
  for (n = 1; n <= 10; n++) {
    d_phi_n = d_phi_n * d_phi;
    d_psi = d_psi + this.A[n] * d_phi_n;
  }

  // 2. Calculate theta
  var th_re = d_psi;
  var th_im = d_lambda;

  // 3. Calculate z
  var th_n_re = 1;
  var th_n_im = 0; // theta^0
  var th_n_re1;
  var th_n_im1;

  var z_re = 0;
  var z_im = 0;
  for (n = 1; n <= 6; n++) {
    th_n_re1 = th_n_re * th_re - th_n_im * th_im;
    th_n_im1 = th_n_im * th_re + th_n_re * th_im;
    th_n_re = th_n_re1;
    th_n_im = th_n_im1;
    z_re = z_re + this.B_re[n] * th_n_re - this.B_im[n] * th_n_im;
    z_im = z_im + this.B_im[n] * th_n_re + this.B_re[n] * th_n_im;
  }

  // 4. Calculate easting and northing
  p.x = (z_im * this.a) + this.x0;
  p.y = (z_re * this.a) + this.y0;

  return p;
};


/**
    New Zealand Map Grid Inverse  -  x/y to long/lat
  */
exports.inverse = function(p) {
  var n;
  var x = p.x;
  var y = p.y;

  var delta_x = x - this.x0;
  var delta_y = y - this.y0;

  // 1. Calculate z
  var z_re = delta_y / this.a;
  var z_im = delta_x / this.a;

  // 2a. Calculate theta - first approximation gives km accuracy
  var z_n_re = 1;
  var z_n_im = 0; // z^0
  var z_n_re1;
  var z_n_im1;

  var th_re = 0;
  var th_im = 0;
  for (n = 1; n <= 6; n++) {
    z_n_re1 = z_n_re * z_re - z_n_im * z_im;
    z_n_im1 = z_n_im * z_re + z_n_re * z_im;
    z_n_re = z_n_re1;
    z_n_im = z_n_im1;
    th_re = th_re + this.C_re[n] * z_n_re - this.C_im[n] * z_n_im;
    th_im = th_im + this.C_im[n] * z_n_re + this.C_re[n] * z_n_im;
  }

  // 2b. Iterate to refine the accuracy of the calculation
  //        0 iterations gives km accuracy
  //        1 iteration gives m accuracy -- good enough for most mapping applications
  //        2 iterations bives mm accuracy
  for (var i = 0; i < this.iterations; i++) {
    var th_n_re = th_re;
    var th_n_im = th_im;
    var th_n_re1;
    var th_n_im1;

    var num_re = z_re;
    var num_im = z_im;
    for (n = 2; n <= 6; n++) {
      th_n_re1 = th_n_re * th_re - th_n_im * th_im;
      th_n_im1 = th_n_im * th_re + th_n_re * th_im;
      th_n_re = th_n_re1;
      th_n_im = th_n_im1;
      num_re = num_re + (n - 1) * (this.B_re[n] * th_n_re - this.B_im[n] * th_n_im);
      num_im = num_im + (n - 1) * (this.B_im[n] * th_n_re + this.B_re[n] * th_n_im);
    }

    th_n_re = 1;
    th_n_im = 0;
    var den_re = this.B_re[1];
    var den_im = this.B_im[1];
    for (n = 2; n <= 6; n++) {
      th_n_re1 = th_n_re * th_re - th_n_im * th_im;
      th_n_im1 = th_n_im * th_re + th_n_re * th_im;
      th_n_re = th_n_re1;
      th_n_im = th_n_im1;
      den_re = den_re + n * (this.B_re[n] * th_n_re - this.B_im[n] * th_n_im);
      den_im = den_im + n * (this.B_im[n] * th_n_re + this.B_re[n] * th_n_im);
    }

    // Complex division
    var den2 = den_re * den_re + den_im * den_im;
    th_re = (num_re * den_re + num_im * den_im) / den2;
    th_im = (num_im * den_re - num_re * den_im) / den2;
  }

  // 3. Calculate d_phi              ...                                    // and d_lambda
  var d_psi = th_re;
  var d_lambda = th_im;
  var d_psi_n = 1; // d_psi^0

  var d_phi = 0;
  for (n = 1; n <= 9; n++) {
    d_psi_n = d_psi_n * d_psi;
    d_phi = d_phi + this.D[n] * d_psi_n;
  }

  // 4. Calculate latitude and longitude
  // d_phi is calcuated in second of arc * 10^-5, so we need to scale back to radians. d_lambda is in radians.
  var lat = this.lat0 + (d_phi * common.SEC_TO_RAD * 1E5);
  var lon = this.long0 + d_lambda;

  p.x = lon;
  p.y = lat;

  return p;
};
exports.names = ["New_Zealand_Map_Grid", "nzmg"];
},{"../common":4}],36:[function(require,module,exports){
var common = require('../common');


/* Initialize the Oblique Mercator  projection
    ------------------------------------------*/
exports.init = function() {
  this.no_off = this.no_off || false;
  this.no_rot = this.no_rot || false;

  if (isNaN(this.k0)) {
    this.k0 = 1;
  }
  var sinlat = Math.sin(this.lat0);
  var coslat = Math.cos(this.lat0);
  var con = this.e * sinlat;

  this.bl = Math.sqrt(1 + this.es / (1 - this.es) * Math.pow(coslat, 4));
  this.al = this.a * this.bl * this.k0 * Math.sqrt(1 - this.es) / (1 - con * con);
  var t0 = common.tsfnz(this.e, this.lat0, sinlat);
  var dl = this.bl / coslat * Math.sqrt((1 - this.es) / (1 - con * con));
  if (dl * dl < 1) {
    dl = 1;
  }
  var fl;
  var gl;
  if (!isNaN(this.longc)) {
    //Central point and azimuth method

    if (this.lat0 >= 0) {
      fl = dl + Math.sqrt(dl * dl - 1);
    }
    else {
      fl = dl - Math.sqrt(dl * dl - 1);
    }
    this.el = fl * Math.pow(t0, this.bl);
    gl = 0.5 * (fl - 1 / fl);
    this.gamma0 = Math.asin(Math.sin(this.alpha) / dl);
    this.long0 = this.longc - Math.asin(gl * Math.tan(this.gamma0)) / this.bl;

  }
  else {
    //2 points method
    var t1 = common.tsfnz(this.e, this.lat1, Math.sin(this.lat1));
    var t2 = common.tsfnz(this.e, this.lat2, Math.sin(this.lat2));
    if (this.lat0 >= 0) {
      this.el = (dl + Math.sqrt(dl * dl - 1)) * Math.pow(t0, this.bl);
    }
    else {
      this.el = (dl - Math.sqrt(dl * dl - 1)) * Math.pow(t0, this.bl);
    }
    var hl = Math.pow(t1, this.bl);
    var ll = Math.pow(t2, this.bl);
    fl = this.el / hl;
    gl = 0.5 * (fl - 1 / fl);
    var jl = (this.el * this.el - ll * hl) / (this.el * this.el + ll * hl);
    var pl = (ll - hl) / (ll + hl);
    var dlon12 = common.adjust_lon(this.long1 - this.long2);
    this.long0 = 0.5 * (this.long1 + this.long2) - Math.atan(jl * Math.tan(0.5 * this.bl * (dlon12)) / pl) / this.bl;
    this.long0 = common.adjust_lon(this.long0);
    var dlon10 = common.adjust_lon(this.long1 - this.long0);
    this.gamma0 = Math.atan(Math.sin(this.bl * (dlon10)) / gl);
    this.alpha = Math.asin(dl * Math.sin(this.gamma0));
  }

  if (this.no_off) {
    this.uc = 0;
  }
  else {
    if (this.lat0 >= 0) {
      this.uc = this.al / this.bl * Math.atan2(Math.sqrt(dl * dl - 1), Math.cos(this.alpha));
    }
    else {
      this.uc = -1 * this.al / this.bl * Math.atan2(Math.sqrt(dl * dl - 1), Math.cos(this.alpha));
    }
  }

};


/* Oblique Mercator forward equations--mapping lat,long to x,y
    ----------------------------------------------------------*/
exports.forward = function(p) {
  var lon = p.x;
  var lat = p.y;
  var dlon = common.adjust_lon(lon - this.long0);
  var us, vs;
  var con;
  if (Math.abs(Math.abs(lat) - common.HALF_PI) <= common.EPSLN) {
    if (lat > 0) {
      con = -1;
    }
    else {
      con = 1;
    }
    vs = this.al / this.bl * Math.log(Math.tan(common.FORTPI + con * this.gamma0 * 0.5));
    us = -1 * con * common.HALF_PI * this.al / this.bl;
  }
  else {
    var t = common.tsfnz(this.e, lat, Math.sin(lat));
    var ql = this.el / Math.pow(t, this.bl);
    var sl = 0.5 * (ql - 1 / ql);
    var tl = 0.5 * (ql + 1 / ql);
    var vl = Math.sin(this.bl * (dlon));
    var ul = (sl * Math.sin(this.gamma0) - vl * Math.cos(this.gamma0)) / tl;
    if (Math.abs(Math.abs(ul) - 1) <= common.EPSLN) {
      vs = Number.POSITIVE_INFINITY;
    }
    else {
      vs = 0.5 * this.al * Math.log((1 - ul) / (1 + ul)) / this.bl;
    }
    if (Math.abs(Math.cos(this.bl * (dlon))) <= common.EPSLN) {
      us = this.al * this.bl * (dlon);
    }
    else {
      us = this.al * Math.atan2(sl * Math.cos(this.gamma0) + vl * Math.sin(this.gamma0), Math.cos(this.bl * dlon)) / this.bl;
    }
  }

  if (this.no_rot) {
    p.x = this.x0 + us;
    p.y = this.y0 + vs;
  }
  else {

    us -= this.uc;
    p.x = this.x0 + vs * Math.cos(this.alpha) + us * Math.sin(this.alpha);
    p.y = this.y0 + us * Math.cos(this.alpha) - vs * Math.sin(this.alpha);
  }
  return p;
};

exports.inverse = function(p) {
  var us, vs;
  if (this.no_rot) {
    vs = p.y - this.y0;
    us = p.x - this.x0;
  }
  else {
    vs = (p.x - this.x0) * Math.cos(this.alpha) - (p.y - this.y0) * Math.sin(this.alpha);
    us = (p.y - this.y0) * Math.cos(this.alpha) + (p.x - this.x0) * Math.sin(this.alpha);
    us += this.uc;
  }
  var qp = Math.exp(-1 * this.bl * vs / this.al);
  var sp = 0.5 * (qp - 1 / qp);
  var tp = 0.5 * (qp + 1 / qp);
  var vp = Math.sin(this.bl * us / this.al);
  var up = (vp * Math.cos(this.gamma0) + sp * Math.sin(this.gamma0)) / tp;
  var ts = Math.pow(this.el / Math.sqrt((1 + up) / (1 - up)), 1 / this.bl);
  if (Math.abs(up - 1) < common.EPSLN) {
    p.x = this.long0;
    p.y = common.HALF_PI;
  }
  else if (Math.abs(up + 1) < common.EPSLN) {
    p.x = this.long0;
    p.y = -1 * common.HALF_PI;
  }
  else {
    p.y = common.phi2z(this.e, ts);
    p.x = common.adjust_lon(this.long0 - Math.atan2(sp * Math.cos(this.gamma0) - vp * Math.sin(this.gamma0), Math.cos(this.bl * us / this.al)) / this.bl);
  }
  return p;
};

exports.names = ["Hotine_Oblique_Mercator", "Hotine Oblique Mercator", "Hotine_Oblique_Mercator_Azimuth_Natural_Origin", "Hotine_Oblique_Mercator_Azimuth_Center", "omerc"];
},{"../common":4}],37:[function(require,module,exports){
var common = require('../common');
exports.init = function() {
  /* Place parameters in static storage for common use
      -------------------------------------------------*/
  this.temp = this.b / this.a;
  this.es = 1 - Math.pow(this.temp, 2); // devait etre dans tmerc.js mais n y est pas donc je commente sinon retour de valeurs nulles
  this.e = Math.sqrt(this.es);
  this.e0 = common.e0fn(this.es);
  this.e1 = common.e1fn(this.es);
  this.e2 = common.e2fn(this.es);
  this.e3 = common.e3fn(this.es);
  this.ml0 = this.a * common.mlfn(this.e0, this.e1, this.e2, this.e3, this.lat0); //si que des zeros le calcul ne se fait pas
};


/* Polyconic forward equations--mapping lat,long to x,y
    ---------------------------------------------------*/
exports.forward = function(p) {
  var lon = p.x;
  var lat = p.y;
  var x, y, el;
  var dlon = common.adjust_lon(lon - this.long0);
  el = dlon * Math.sin(lat);
  if (this.sphere) {
    if (Math.abs(lat) <= common.EPSLN) {
      x = this.a * dlon;
      y = -1 * this.a * this.lat0;
    }
    else {
      x = this.a * Math.sin(el) / Math.tan(lat);
      y = this.a * (common.adjust_lat(lat - this.lat0) + (1 - Math.cos(el)) / Math.tan(lat));
    }
  }
  else {
    if (Math.abs(lat) <= common.EPSLN) {
      x = this.a * dlon;
      y = -1 * this.ml0;
    }
    else {
      var nl = common.gN(this.a, this.e, Math.sin(lat)) / Math.tan(lat);
      x = nl * Math.sin(el);
      y = this.a * common.mlfn(this.e0, this.e1, this.e2, this.e3, lat) - this.ml0 + nl * (1 - Math.cos(el));
    }

  }
  p.x = x + this.x0;
  p.y = y + this.y0;
  return p;
};


/* Inverse equations
  -----------------*/
exports.inverse = function(p) {
  var lon, lat, x, y, i;
  var al, bl;
  var phi, dphi;
  x = p.x - this.x0;
  y = p.y - this.y0;

  if (this.sphere) {
    if (Math.abs(y + this.a * this.lat0) <= common.EPSLN) {
      lon = common.adjust_lon(x / this.a + this.long0);
      lat = 0;
    }
    else {
      al = this.lat0 + y / this.a;
      bl = x * x / this.a / this.a + al * al;
      phi = al;
      var tanphi;
      for (i = common.MAX_ITER; i; --i) {
        tanphi = Math.tan(phi);
        dphi = -1 * (al * (phi * tanphi + 1) - phi - 0.5 * (phi * phi + bl) * tanphi) / ((phi - al) / tanphi - 1);
        phi += dphi;
        if (Math.abs(dphi) <= common.EPSLN) {
          lat = phi;
          break;
        }
      }
      lon = common.adjust_lon(this.long0 + (Math.asin(x * Math.tan(phi) / this.a)) / Math.sin(lat));
    }
  }
  else {
    if (Math.abs(y + this.ml0) <= common.EPSLN) {
      lat = 0;
      lon = common.adjust_lon(this.long0 + x / this.a);
    }
    else {

      al = (this.ml0 + y) / this.a;
      bl = x * x / this.a / this.a + al * al;
      phi = al;
      var cl, mln, mlnp, ma;
      var con;
      for (i = common.MAX_ITER; i; --i) {
        con = this.e * Math.sin(phi);
        cl = Math.sqrt(1 - con * con) * Math.tan(phi);
        mln = this.a * common.mlfn(this.e0, this.e1, this.e2, this.e3, phi);
        mlnp = this.e0 - 2 * this.e1 * Math.cos(2 * phi) + 4 * this.e2 * Math.cos(4 * phi) - 6 * this.e3 * Math.cos(6 * phi);
        ma = mln / this.a;
        dphi = (al * (cl * ma + 1) - ma - 0.5 * cl * (ma * ma + bl)) / (this.es * Math.sin(2 * phi) * (ma * ma + bl - 2 * al * ma) / (4 * cl) + (al - ma) * (cl * mlnp - 2 / Math.sin(2 * phi)) - mlnp);
        phi -= dphi;
        if (Math.abs(dphi) <= common.EPSLN) {
          lat = phi;
          break;
        }
      }

      //lat=phi4z(this.e,this.e0,this.e1,this.e2,this.e3,al,bl,0,0);
      cl = Math.sqrt(1 - this.es * Math.pow(Math.sin(lat), 2)) * Math.tan(lat);
      lon = common.adjust_lon(this.long0 + Math.asin(x * cl / this.a) / Math.sin(lat));
    }
  }

  p.x = lon;
  p.y = lat;
  return p;
};
exports.names = ["Polyconic", "poly"];
},{"../common":4}],38:[function(require,module,exports){
var common = require('../common');
exports.init = function() {
  /* Place parameters in static storage for common use
    -------------------------------------------------*/


  if (!this.sphere) {
    this.en = common.pj_enfn(this.es);
  }
  else {
    this.n = 1;
    this.m = 0;
    this.es = 0;
    this.C_y = Math.sqrt((this.m + 1) / this.n);
    this.C_x = this.C_y / (this.m + 1);
  }

};

/* Sinusoidal forward equations--mapping lat,long to x,y
  -----------------------------------------------------*/
exports.forward = function(p) {
  var x, y;
  var lon = p.x;
  var lat = p.y;
  /* Forward equations
    -----------------*/
  lon = common.adjust_lon(lon - this.long0);

  if (this.sphere) {
    if (!this.m) {
      lat = this.n !== 1 ? Math.asin(this.n * Math.sin(lat)) : lat;
    }
    else {
      var k = this.n * Math.sin(lat);
      for (var i = common.MAX_ITER; i; --i) {
        var V = (this.m * lat + Math.sin(lat) - k) / (this.m + Math.cos(lat));
        lat -= V;
        if (Math.abs(V) < common.EPSLN) {
          break;
        }
      }
    }
    x = this.a * this.C_x * lon * (this.m + Math.cos(lat));
    y = this.a * this.C_y * lat;

  }
  else {

    var s = Math.sin(lat);
    var c = Math.cos(lat);
    y = this.a * common.pj_mlfn(lat, s, c, this.en);
    x = this.a * lon * c / Math.sqrt(1 - this.es * s * s);
  }

  p.x = x;
  p.y = y;
  return p;
};

exports.inverse = function(p) {
  var lat, temp, lon, s;

  p.x -= this.x0;
  lon = p.x / this.a;
  p.y -= this.y0;
  lat = p.y / this.a;

  if (this.sphere) {
    lat /= this.C_y;
    lon = lon / (this.C_x * (this.m + Math.cos(lat)));
    if (this.m) {
      lat = common.asinz((this.m * lat + Math.sin(lat)) / this.n);
    }
    else if (this.n !== 1) {
      lat = common.asinz(Math.sin(lat) / this.n);
    }
    lon = common.adjust_lon(lon + this.long0);
    lat = common.adjust_lat(lat);
  }
  else {
    lat = common.pj_inv_mlfn(p.y / this.a, this.es, this.en);
    s = Math.abs(lat);
    if (s < common.HALF_PI) {
      s = Math.sin(lat);
      temp = this.long0 + p.x * Math.sqrt(1 - this.es * s * s) / (this.a * Math.cos(lat));
      //temp = this.long0 + p.x / (this.a * Math.cos(lat));
      lon = common.adjust_lon(temp);
    }
    else if ((s - common.EPSLN) < common.HALF_PI) {
      lon = this.long0;
    }
  }
  p.x = lon;
  p.y = lat;
  return p;
};
exports.names = ["Sinusoidal", "sinu"];
},{"../common":4}],39:[function(require,module,exports){
/*
  references:
    Formules et constantes pour le Calcul pour la
    projection cylindrique conforme à axe oblique et pour la transformation entre
    des systèmes de référence.
    http://www.swisstopo.admin.ch/internet/swisstopo/fr/home/topics/survey/sys/refsys/switzerland.parsysrelated1.31216.downloadList.77004.DownloadFile.tmp/swissprojectionfr.pdf
  */
exports.init = function() {
  var phy0 = this.lat0;
  this.lambda0 = this.long0;
  var sinPhy0 = Math.sin(phy0);
  var semiMajorAxis = this.a;
  var invF = this.rf;
  var flattening = 1 / invF;
  var e2 = 2 * flattening - Math.pow(flattening, 2);
  var e = this.e = Math.sqrt(e2);
  this.R = this.k0 * semiMajorAxis * Math.sqrt(1 - e2) / (1 - e2 * Math.pow(sinPhy0, 2));
  this.alpha = Math.sqrt(1 + e2 / (1 - e2) * Math.pow(Math.cos(phy0), 4));
  this.b0 = Math.asin(sinPhy0 / this.alpha);
  var k1 = Math.log(Math.tan(Math.PI / 4 + this.b0 / 2));
  var k2 = Math.log(Math.tan(Math.PI / 4 + phy0 / 2));
  var k3 = Math.log((1 + e * sinPhy0) / (1 - e * sinPhy0));
  this.K = k1 - this.alpha * k2 + this.alpha * e / 2 * k3;
};


exports.forward = function(p) {
  var Sa1 = Math.log(Math.tan(Math.PI / 4 - p.y / 2));
  var Sa2 = this.e / 2 * Math.log((1 + this.e * Math.sin(p.y)) / (1 - this.e * Math.sin(p.y)));
  var S = -this.alpha * (Sa1 + Sa2) + this.K;

  // spheric latitude
  var b = 2 * (Math.atan(Math.exp(S)) - Math.PI / 4);

  // spheric longitude
  var I = this.alpha * (p.x - this.lambda0);

  // psoeudo equatorial rotation
  var rotI = Math.atan(Math.sin(I) / (Math.sin(this.b0) * Math.tan(b) + Math.cos(this.b0) * Math.cos(I)));

  var rotB = Math.asin(Math.cos(this.b0) * Math.sin(b) - Math.sin(this.b0) * Math.cos(b) * Math.cos(I));

  p.y = this.R / 2 * Math.log((1 + Math.sin(rotB)) / (1 - Math.sin(rotB))) + this.y0;
  p.x = this.R * rotI + this.x0;
  return p;
};

exports.inverse = function(p) {
  var Y = p.x - this.x0;
  var X = p.y - this.y0;

  var rotI = Y / this.R;
  var rotB = 2 * (Math.atan(Math.exp(X / this.R)) - Math.PI / 4);

  var b = Math.asin(Math.cos(this.b0) * Math.sin(rotB) + Math.sin(this.b0) * Math.cos(rotB) * Math.cos(rotI));
  var I = Math.atan(Math.sin(rotI) / (Math.cos(this.b0) * Math.cos(rotI) - Math.sin(this.b0) * Math.tan(rotB)));

  var lambda = this.lambda0 + I / this.alpha;

  var S = 0;
  var phy = b;
  var prevPhy = -1000;
  var iteration = 0;
  while (Math.abs(phy - prevPhy) > 0.0000001) {
    if (++iteration > 20) {
      //...reportError("omercFwdInfinity");
      return;
    }
    //S = Math.log(Math.tan(Math.PI / 4 + phy / 2));
    S = 1 / this.alpha * (Math.log(Math.tan(Math.PI / 4 + b / 2)) - this.K) + this.e * Math.log(Math.tan(Math.PI / 4 + Math.asin(this.e * Math.sin(phy)) / 2));
    prevPhy = phy;
    phy = 2 * Math.atan(Math.exp(S)) - Math.PI / 2;
  }

  p.x = lambda;
  p.y = phy;
  return p;
};

exports.names = ["somerc"];

},{}],40:[function(require,module,exports){
var common = require('../common');
exports.ssfn_ = function(phit, sinphi, eccen) {
  sinphi *= eccen;
  return (Math.tan(0.5 * (common.HALF_PI + phit)) * Math.pow((1 - sinphi) / (1 + sinphi), 0.5 * eccen));
};

exports.init = function() {
  this.coslat0 = Math.cos(this.lat0);
  this.sinlat0 = Math.sin(this.lat0);
  if (this.sphere) {
    if (this.k0 === 1 && !isNaN(this.lat_ts) && Math.abs(this.coslat0) <= common.EPSLN) {
      this.k0 = 0.5 * (1 + common.sign(this.lat0) * Math.sin(this.lat_ts));
    }
  }
  else {
    if (Math.abs(this.coslat0) <= common.EPSLN) {
      if (this.lat0 > 0) {
        //North pole
        //trace('stere:north pole');
        this.con = 1;
      }
      else {
        //South pole
        //trace('stere:south pole');
        this.con = -1;
      }
    }
    this.cons = Math.sqrt(Math.pow(1 + this.e, 1 + this.e) * Math.pow(1 - this.e, 1 - this.e));
    if (this.k0 === 1 && !isNaN(this.lat_ts) && Math.abs(this.coslat0) <= common.EPSLN) {
      this.k0 = 0.5 * this.cons * common.msfnz(this.e, Math.sin(this.lat_ts), Math.cos(this.lat_ts)) / common.tsfnz(this.e, this.con * this.lat_ts, this.con * Math.sin(this.lat_ts));
    }
    this.ms1 = common.msfnz(this.e, this.sinlat0, this.coslat0);
    this.X0 = 2 * Math.atan(this.ssfn_(this.lat0, this.sinlat0, this.e)) - common.HALF_PI;
    this.cosX0 = Math.cos(this.X0);
    this.sinX0 = Math.sin(this.X0);
  }
};

// Stereographic forward equations--mapping lat,long to x,y
exports.forward = function(p) {
  var lon = p.x;
  var lat = p.y;
  var sinlat = Math.sin(lat);
  var coslat = Math.cos(lat);
  var A, X, sinX, cosX, ts, rh;
  var dlon = common.adjust_lon(lon - this.long0);

  if (Math.abs(Math.abs(lon - this.long0) - common.PI) <= common.EPSLN && Math.abs(lat + this.lat0) <= common.EPSLN) {
    //case of the origine point
    //trace('stere:this is the origin point');
    p.x = NaN;
    p.y = NaN;
    return p;
  }
  if (this.sphere) {
    //trace('stere:sphere case');
    A = 2 * this.k0 / (1 + this.sinlat0 * sinlat + this.coslat0 * coslat * Math.cos(dlon));
    p.x = this.a * A * coslat * Math.sin(dlon) + this.x0;
    p.y = this.a * A * (this.coslat0 * sinlat - this.sinlat0 * coslat * Math.cos(dlon)) + this.y0;
    return p;
  }
  else {
    X = 2 * Math.atan(this.ssfn_(lat, sinlat, this.e)) - common.HALF_PI;
    cosX = Math.cos(X);
    sinX = Math.sin(X);
    if (Math.abs(this.coslat0) <= common.EPSLN) {
      ts = common.tsfnz(this.e, lat * this.con, this.con * sinlat);
      rh = 2 * this.a * this.k0 * ts / this.cons;
      p.x = this.x0 + rh * Math.sin(lon - this.long0);
      p.y = this.y0 - this.con * rh * Math.cos(lon - this.long0);
      //trace(p.toString());
      return p;
    }
    else if (Math.abs(this.sinlat0) < common.EPSLN) {
      //Eq
      //trace('stere:equateur');
      A = 2 * this.a * this.k0 / (1 + cosX * Math.cos(dlon));
      p.y = A * sinX;
    }
    else {
      //other case
      //trace('stere:normal case');
      A = 2 * this.a * this.k0 * this.ms1 / (this.cosX0 * (1 + this.sinX0 * sinX + this.cosX0 * cosX * Math.cos(dlon)));
      p.y = A * (this.cosX0 * sinX - this.sinX0 * cosX * Math.cos(dlon)) + this.y0;
    }
    p.x = A * cosX * Math.sin(dlon) + this.x0;
  }
  //trace(p.toString());
  return p;
};


//* Stereographic inverse equations--mapping x,y to lat/long
exports.inverse = function(p) {
  p.x -= this.x0;
  p.y -= this.y0;
  var lon, lat, ts, ce, Chi;
  var rh = Math.sqrt(p.x * p.x + p.y * p.y);
  if (this.sphere) {
    var c = 2 * Math.atan(rh / (0.5 * this.a * this.k0));
    lon = this.long0;
    lat = this.lat0;
    if (rh <= common.EPSLN) {
      p.x = lon;
      p.y = lat;
      return p;
    }
    lat = Math.asin(Math.cos(c) * this.sinlat0 + p.y * Math.sin(c) * this.coslat0 / rh);
    if (Math.abs(this.coslat0) < common.EPSLN) {
      if (this.lat0 > 0) {
        lon = common.adjust_lon(this.long0 + Math.atan2(p.x, - 1 * p.y));
      }
      else {
        lon = common.adjust_lon(this.long0 + Math.atan2(p.x, p.y));
      }
    }
    else {
      lon = common.adjust_lon(this.long0 + Math.atan2(p.x * Math.sin(c), rh * this.coslat0 * Math.cos(c) - p.y * this.sinlat0 * Math.sin(c)));
    }
    p.x = lon;
    p.y = lat;
    return p;
  }
  else {
    if (Math.abs(this.coslat0) <= common.EPSLN) {
      if (rh <= common.EPSLN) {
        lat = this.lat0;
        lon = this.long0;
        p.x = lon;
        p.y = lat;
        //trace(p.toString());
        return p;
      }
      p.x *= this.con;
      p.y *= this.con;
      ts = rh * this.cons / (2 * this.a * this.k0);
      lat = this.con * common.phi2z(this.e, ts);
      lon = this.con * common.adjust_lon(this.con * this.long0 + Math.atan2(p.x, - 1 * p.y));
    }
    else {
      ce = 2 * Math.atan(rh * this.cosX0 / (2 * this.a * this.k0 * this.ms1));
      lon = this.long0;
      if (rh <= common.EPSLN) {
        Chi = this.X0;
      }
      else {
        Chi = Math.asin(Math.cos(ce) * this.sinX0 + p.y * Math.sin(ce) * this.cosX0 / rh);
        lon = common.adjust_lon(this.long0 + Math.atan2(p.x * Math.sin(ce), rh * this.cosX0 * Math.cos(ce) - p.y * this.sinX0 * Math.sin(ce)));
      }
      lat = -1 * common.phi2z(this.e, Math.tan(0.5 * (common.HALF_PI + Chi)));
    }
  }
  p.x = lon;
  p.y = lat;

  //trace(p.toString());
  return p;

};
exports.names = ["stere"];
},{"../common":4}],41:[function(require,module,exports){
var common = require('../common');
var gauss = require('./gauss');
exports.init = function() {
  gauss.init.apply(this);
  if (!this.rc) {
    return;
  }
  this.sinc0 = Math.sin(this.phic0);
  this.cosc0 = Math.cos(this.phic0);
  this.R2 = 2 * this.rc;
  if (!this.title) {
    this.title = "Oblique Stereographic Alternative";
  }
};

exports.forward = function(p) {
  var sinc, cosc, cosl, k;
  p.x = common.adjust_lon(p.x - this.long0);
  gauss.forward.apply(this, [p]);
  sinc = Math.sin(p.y);
  cosc = Math.cos(p.y);
  cosl = Math.cos(p.x);
  k = this.k0 * this.R2 / (1 + this.sinc0 * sinc + this.cosc0 * cosc * cosl);
  p.x = k * cosc * Math.sin(p.x);
  p.y = k * (this.cosc0 * sinc - this.sinc0 * cosc * cosl);
  p.x = this.a * p.x + this.x0;
  p.y = this.a * p.y + this.y0;
  return p;
};

exports.inverse = function(p) {
  var sinc, cosc, lon, lat, rho;
  p.x = (p.x - this.x0) / this.a;
  p.y = (p.y - this.y0) / this.a;

  p.x /= this.k0;
  p.y /= this.k0;
  if ((rho = Math.sqrt(p.x * p.x + p.y * p.y))) {
    var c = 2 * Math.atan2(rho, this.R2);
    sinc = Math.sin(c);
    cosc = Math.cos(c);
    lat = Math.asin(cosc * this.sinc0 + p.y * sinc * this.cosc0 / rho);
    lon = Math.atan2(p.x * sinc, rho * this.cosc0 * cosc - p.y * this.sinc0 * sinc);
  }
  else {
    lat = this.phic0;
    lon = 0;
  }

  p.x = lon;
  p.y = lat;
  gauss.inverse.apply(this, [p]);
  p.x = common.adjust_lon(p.x + this.long0);
  return p;
};

exports.names = ["Stereographic_North_Pole", "Oblique_Stereographic", "Polar_Stereographic", "sterea","Oblique Stereographic Alternative"];

},{"../common":4,"./gauss":25}],42:[function(require,module,exports){
var common = require('../common');
exports.init = function() {
  this.e0 = common.e0fn(this.es);
  this.e1 = common.e1fn(this.es);
  this.e2 = common.e2fn(this.es);
  this.e3 = common.e3fn(this.es);
  this.ml0 = this.a * common.mlfn(this.e0, this.e1, this.e2, this.e3, this.lat0);
};

/**
    Transverse Mercator Forward  - long/lat to x/y
    long/lat in radians
  */
exports.forward = function(p) {
  var lon = p.x;
  var lat = p.y;

  var delta_lon = common.adjust_lon(lon - this.long0);
  var con;
  var x, y;
  var sin_phi = Math.sin(lat);
  var cos_phi = Math.cos(lat);

  if (this.sphere) {
    var b = cos_phi * Math.sin(delta_lon);
    if ((Math.abs(Math.abs(b) - 1)) < 0.0000000001) {
      return (93);
    }
    else {
      x = 0.5 * this.a * this.k0 * Math.log((1 + b) / (1 - b));
      con = Math.acos(cos_phi * Math.cos(delta_lon) / Math.sqrt(1 - b * b));
      if (lat < 0) {
        con = -con;
      }
      y = this.a * this.k0 * (con - this.lat0);
    }
  }
  else {
    var al = cos_phi * delta_lon;
    var als = Math.pow(al, 2);
    var c = this.ep2 * Math.pow(cos_phi, 2);
    var tq = Math.tan(lat);
    var t = Math.pow(tq, 2);
    con = 1 - this.es * Math.pow(sin_phi, 2);
    var n = this.a / Math.sqrt(con);
    var ml = this.a * common.mlfn(this.e0, this.e1, this.e2, this.e3, lat);

    x = this.k0 * n * al * (1 + als / 6 * (1 - t + c + als / 20 * (5 - 18 * t + Math.pow(t, 2) + 72 * c - 58 * this.ep2))) + this.x0;
    y = this.k0 * (ml - this.ml0 + n * tq * (als * (0.5 + als / 24 * (5 - t + 9 * c + 4 * Math.pow(c, 2) + als / 30 * (61 - 58 * t + Math.pow(t, 2) + 600 * c - 330 * this.ep2))))) + this.y0;

  }
  p.x = x;
  p.y = y;
  return p;
};

/**
    Transverse Mercator Inverse  -  x/y to long/lat
  */
exports.inverse = function(p) {
  var con, phi;
  var delta_phi;
  var i;
  var max_iter = 6;
  var lat, lon;

  if (this.sphere) {
    var f = Math.exp(p.x / (this.a * this.k0));
    var g = 0.5 * (f - 1 / f);
    var temp = this.lat0 + p.y / (this.a * this.k0);
    var h = Math.cos(temp);
    con = Math.sqrt((1 - h * h) / (1 + g * g));
    lat = common.asinz(con);
    if (temp < 0) {
      lat = -lat;
    }
    if ((g === 0) && (h === 0)) {
      lon = this.long0;
    }
    else {
      lon = common.adjust_lon(Math.atan2(g, h) + this.long0);
    }
  }
  else { // ellipsoidal form
    var x = p.x - this.x0;
    var y = p.y - this.y0;

    con = (this.ml0 + y / this.k0) / this.a;
    phi = con;
    for (i = 0; true; i++) {
      delta_phi = ((con + this.e1 * Math.sin(2 * phi) - this.e2 * Math.sin(4 * phi) + this.e3 * Math.sin(6 * phi)) / this.e0) - phi;
      phi += delta_phi;
      if (Math.abs(delta_phi) <= common.EPSLN) {
        break;
      }
      if (i >= max_iter) {
        return (95);
      }
    } // for()
    if (Math.abs(phi) < common.HALF_PI) {
      var sin_phi = Math.sin(phi);
      var cos_phi = Math.cos(phi);
      var tan_phi = Math.tan(phi);
      var c = this.ep2 * Math.pow(cos_phi, 2);
      var cs = Math.pow(c, 2);
      var t = Math.pow(tan_phi, 2);
      var ts = Math.pow(t, 2);
      con = 1 - this.es * Math.pow(sin_phi, 2);
      var n = this.a / Math.sqrt(con);
      var r = n * (1 - this.es) / con;
      var d = x / (n * this.k0);
      var ds = Math.pow(d, 2);
      lat = phi - (n * tan_phi * ds / r) * (0.5 - ds / 24 * (5 + 3 * t + 10 * c - 4 * cs - 9 * this.ep2 - ds / 30 * (61 + 90 * t + 298 * c + 45 * ts - 252 * this.ep2 - 3 * cs)));
      lon = common.adjust_lon(this.long0 + (d * (1 - ds / 6 * (1 + 2 * t + c - ds / 20 * (5 - 2 * c + 28 * t - 3 * cs + 8 * this.ep2 + 24 * ts))) / cos_phi));
    }
    else {
      lat = common.HALF_PI * common.sign(y);
      lon = this.long0;
    }
  }
  p.x = lon;
  p.y = lat;
  return p;
};
exports.names = ["Transverse_Mercator", "Transverse Mercator", "tmerc"];

},{"../common":4}],43:[function(require,module,exports){
var common = require('../common');
var tmerc = require('./tmerc');
exports.dependsOn = 'tmerc';
exports.init = function() {
  if (!this.zone) {
    return;
  }
  this.lat0 = 0;
  this.long0 = ((6 * Math.abs(this.zone)) - 183) * common.D2R;
  this.x0 = 500000;
  this.y0 = this.utmSouth ? 10000000 : 0;
  this.k0 = 0.9996;

  tmerc.init.apply(this);
  this.forward = tmerc.forward;
  this.inverse = tmerc.inverse;
};
exports.names = ["Universal Transverse Mercator System", "utm"];

},{"../common":4,"./tmerc":42}],44:[function(require,module,exports){
var common = require('../common');

/* Initialize the Van Der Grinten projection
  ----------------------------------------*/
exports.init = function() {
  //this.R = 6370997; //Radius of earth
  this.R = this.a;
};

exports.forward = function(p) {

  var lon = p.x;
  var lat = p.y;

  /* Forward equations
    -----------------*/
  var dlon = common.adjust_lon(lon - this.long0);
  var x, y;

  if (Math.abs(lat) <= common.EPSLN) {
    x = this.x0 + this.R * dlon;
    y = this.y0;
  }
  var theta = common.asinz(2 * Math.abs(lat / common.PI));
  if ((Math.abs(dlon) <= common.EPSLN) || (Math.abs(Math.abs(lat) - common.HALF_PI) <= common.EPSLN)) {
    x = this.x0;
    if (lat >= 0) {
      y = this.y0 + common.PI * this.R * Math.tan(0.5 * theta);
    }
    else {
      y = this.y0 + common.PI * this.R * -Math.tan(0.5 * theta);
    }
    //  return(OK);
  }
  var al = 0.5 * Math.abs((common.PI / dlon) - (dlon / common.PI));
  var asq = al * al;
  var sinth = Math.sin(theta);
  var costh = Math.cos(theta);

  var g = costh / (sinth + costh - 1);
  var gsq = g * g;
  var m = g * (2 / sinth - 1);
  var msq = m * m;
  var con = common.PI * this.R * (al * (g - msq) + Math.sqrt(asq * (g - msq) * (g - msq) - (msq + asq) * (gsq - msq))) / (msq + asq);
  if (dlon < 0) {
    con = -con;
  }
  x = this.x0 + con;
  //con = Math.abs(con / (common.PI * this.R));
  var q = asq + g;
  con = common.PI * this.R * (m * q - al * Math.sqrt((msq + asq) * (asq + 1) - q * q)) / (msq + asq);
  if (lat >= 0) {
    //y = this.y0 + common.PI * this.R * Math.sqrt(1 - con * con - 2 * al * con);
    y = this.y0 + con;
  }
  else {
    //y = this.y0 - common.PI * this.R * Math.sqrt(1 - con * con - 2 * al * con);
    y = this.y0 - con;
  }
  p.x = x;
  p.y = y;
  return p;
};

/* Van Der Grinten inverse equations--mapping x,y to lat/long
  ---------------------------------------------------------*/
exports.inverse = function(p) {
  var lon, lat;
  var xx, yy, xys, c1, c2, c3;
  var a1;
  var m1;
  var con;
  var th1;
  var d;

  /* inverse equations
    -----------------*/
  p.x -= this.x0;
  p.y -= this.y0;
  con = common.PI * this.R;
  xx = p.x / con;
  yy = p.y / con;
  xys = xx * xx + yy * yy;
  c1 = -Math.abs(yy) * (1 + xys);
  c2 = c1 - 2 * yy * yy + xx * xx;
  c3 = -2 * c1 + 1 + 2 * yy * yy + xys * xys;
  d = yy * yy / c3 + (2 * c2 * c2 * c2 / c3 / c3 / c3 - 9 * c1 * c2 / c3 / c3) / 27;
  a1 = (c1 - c2 * c2 / 3 / c3) / c3;
  m1 = 2 * Math.sqrt(-a1 / 3);
  con = ((3 * d) / a1) / m1;
  if (Math.abs(con) > 1) {
    if (con >= 0) {
      con = 1;
    }
    else {
      con = -1;
    }
  }
  th1 = Math.acos(con) / 3;
  if (p.y >= 0) {
    lat = (-m1 * Math.cos(th1 + common.PI / 3) - c2 / 3 / c3) * common.PI;
  }
  else {
    lat = -(-m1 * Math.cos(th1 + common.PI / 3) - c2 / 3 / c3) * common.PI;
  }

  if (Math.abs(xx) < common.EPSLN) {
    lon = this.long0;
  }
  else {
    lon = common.adjust_lon(this.long0 + common.PI * (xys - 1 + Math.sqrt(1 + 2 * (xx * xx - yy * yy) + xys * xys)) / 2 / xx);
  }

  p.x = lon;
  p.y = lat;
  return p;
};
exports.names = ["Van_der_Grinten_I", "VanDerGrinten", "vandg"];
},{"../common":4}],45:[function(require,module,exports){
var common = require('./common');
var datum_transform = require('./datum_transform');
var adjust_axis = require('./adjust_axis');
var proj = require('./Proj');
module.exports = function transform(source, dest, point) {
  var wgs84;

  function checkNotWGS(source, dest) {
    return ((source.datum.datum_type === common.PJD_3PARAM || source.datum.datum_type === common.PJD_7PARAM) && dest.datumCode !== "WGS84");
  }

  // Workaround for datum shifts towgs84, if either source or destination projection is not wgs84
  if (source.datum && dest.datum && (checkNotWGS(source, dest) || checkNotWGS(dest, source))) {
    wgs84 = new proj('WGS84');
    transform(source, wgs84, point);
    source = wgs84;
  }
  // DGR, 2010/11/12
  if (source.axis !== "enu") {
    adjust_axis(source, false, point);
  }
  // Transform source points to long/lat, if they aren't already.
  if (source.projName === "longlat") {
    point.x *= common.D2R; // convert degrees to radians
    point.y *= common.D2R;
  }
  else {
    if (source.to_meter) {
      point.x *= source.to_meter;
      point.y *= source.to_meter;
    }
    source.inverse(point); // Convert Cartesian to longlat
  }
  // Adjust for the prime meridian if necessary
  if (source.from_greenwich) {
    point.x += source.from_greenwich;
  }

  // Convert datums if needed, and if possible.
  point = datum_transform(source.datum, dest.datum, point);

  // Adjust for the prime meridian if necessary
  if (dest.from_greenwich) {
    point.x -= dest.from_greenwich;
  }

  if (dest.projName === "longlat") {
    // convert radians to decimal degrees
    point.x *= common.R2D;
    point.y *= common.R2D;
  }
  else { // else project
    dest.forward(point);
    if (dest.to_meter) {
      point.x /= dest.to_meter;
      point.y /= dest.to_meter;
    }
  }

  // DGR, 2010/11/12
  if (dest.axis !== "enu") {
    adjust_axis(dest, true, point);
  }

  return point;
};
},{"./Proj":2,"./adjust_axis":3,"./common":4,"./datum_transform":12}],46:[function(require,module,exports){
module.exports = '2.0.0';
},{}],47:[function(require,module,exports){
var common = require('./common');
var extend = require('./extend');

function mapit(obj, key, v) {
  obj[key] = v.map(function(aa) {
    var o = {};
    sExpr(aa, o);
    return o;
  }).reduce(function(a, b) {
    return extend(a, b);
  }, {});
}

function sExpr(v, obj) {
  var key;
  if (!Array.isArray(v)) {
    obj[v] = true;
    return;
  }
  else {
    key = v.shift();
    if (key === 'PARAMETER') {
      key = v.shift();
    }
    if (v.length === 1) {
      if (Array.isArray(v[0])) {
        obj[key] = {};
        sExpr(v[0], obj[key]);
      }
      else {
        obj[key] = v[0];
      }
    }
    else if (!v.length) {
      obj[key] = true;
    }
    else if (key === 'TOWGS84') {
      obj[key] = v;
    }
    else {
      obj[key] = {};
      if (['UNIT', 'PRIMEM', 'VERT_DATUM'].indexOf(key) > -1) {
        obj[key] = {
          name: v[0].toLowerCase(),
          convert: v[1]
        };
        if (v.length === 3) {
          obj[key].auth = v[2];
        }
      }
      else if (key === 'SPHEROID') {
        obj[key] = {
          name: v[0],
          a: v[1],
          rf: v[2]
        };
        if (v.length === 4) {
          obj[key].auth = v[3];
        }
      }
      else if (['GEOGCS', 'GEOCCS', 'DATUM', 'VERT_CS', 'COMPD_CS', 'LOCAL_CS', 'FITTED_CS', 'LOCAL_DATUM'].indexOf(key) > -1) {
        v[0] = ['name', v[0]];
        mapit(obj, key, v);
      }
      else if (v.every(function(aa) {
        return Array.isArray(aa);
      })) {
        mapit(obj, key, v);
      }
      else {
        sExpr(v, obj[key]);
      }
    }
  }
}

function rename(obj, params) {
  var outName = params[0];
  var inName = params[1];
  if (!(outName in obj) && (inName in obj)) {
    obj[outName] = obj[inName];
    if (params.length === 3) {
      obj[outName] = params[2](obj[outName]);
    }
  }
}

function d2r(input) {
  return input * common.D2R;
}

function cleanWKT(wkt) {
  if (wkt.type === 'GEOGCS') {
    wkt.projName = 'longlat';
  }
  else if (wkt.type === 'LOCAL_CS') {
    wkt.projName = 'identity';
    wkt.local = true;
  }
  else {
    if (typeof wkt.PROJECTION === "object") {
      wkt.projName = Object.keys(wkt.PROJECTION)[0];
    }
    else {
      wkt.projName = wkt.PROJECTION;
    }
  }
  if (wkt.UNIT) {
    wkt.units = wkt.UNIT.name.toLowerCase();
    if (wkt.units === 'metre') {
      wkt.units = 'meter';
    }
    if (wkt.UNIT.convert) {
      wkt.to_meter = parseFloat(wkt.UNIT.convert, 10);
    }
  }

  if (wkt.GEOGCS) {
    //if(wkt.GEOGCS.PRIMEM&&wkt.GEOGCS.PRIMEM.convert){
    //  wkt.from_greenwich=wkt.GEOGCS.PRIMEM.convert*common.D2R;
    //}
    if (wkt.GEOGCS.DATUM) {
      wkt.datumCode = wkt.GEOGCS.DATUM.name.toLowerCase();
    }
    else {
      wkt.datumCode = wkt.GEOGCS.name.toLowerCase();
    }
    if (wkt.datumCode.slice(0, 2) === 'd_') {
      wkt.datumCode = wkt.datumCode.slice(2);
    }
    if (wkt.datumCode === 'new_zealand_geodetic_datum_1949' || wkt.datumCode === 'new_zealand_1949') {
      wkt.datumCode = 'nzgd49';
    }
    if (wkt.datumCode === "wgs_1984") {
      if (wkt.PROJECTION === 'Mercator_Auxiliary_Sphere') {
        wkt.sphere = true;
      }
      wkt.datumCode = 'wgs84';
    }
    if (wkt.datumCode.slice(-6) === '_ferro') {
      wkt.datumCode = wkt.datumCode.slice(0, - 6);
    }
    if (wkt.datumCode.slice(-8) === '_jakarta') {
      wkt.datumCode = wkt.datumCode.slice(0, - 8);
    }
    if (wkt.GEOGCS.DATUM && wkt.GEOGCS.DATUM.SPHEROID) {
      wkt.ellps = wkt.GEOGCS.DATUM.SPHEROID.name.replace('_19', '').replace(/[Cc]larke\_18/, 'clrk');
      if (wkt.ellps.toLowerCase().slice(0, 13) === "international") {
        wkt.ellps = 'intl';
      }

      wkt.a = wkt.GEOGCS.DATUM.SPHEROID.a;
      wkt.rf = parseFloat(wkt.GEOGCS.DATUM.SPHEROID.rf, 10);
    }
  }
  if (wkt.b && !isFinite(wkt.b)) {
    wkt.b = wkt.a;
  }

  function toMeter(input) {
    var ratio = wkt.to_meter || 1;
    return parseFloat(input, 10) * ratio;
  }
  var renamer = function(a) {
    return rename(wkt, a);
  };
  var list = [
    ['standard_parallel_1', 'Standard_Parallel_1'],
    ['standard_parallel_2', 'Standard_Parallel_2'],
    ['false_easting', 'False_Easting'],
    ['false_northing', 'False_Northing'],
    ['central_meridian', 'Central_Meridian'],
    ['latitude_of_origin', 'Latitude_Of_Origin'],
    ['scale_factor', 'Scale_Factor'],
    ['k0', 'scale_factor'],
    ['latitude_of_center', 'Latitude_of_center'],
    ['lat0', 'latitude_of_center', d2r],
    ['longitude_of_center', 'Longitude_Of_Center'],
    ['longc', 'longitude_of_center', d2r],
    ['x0', 'false_easting', toMeter],
    ['y0', 'false_northing', toMeter],
    ['long0', 'central_meridian', d2r],
    ['lat0', 'latitude_of_origin', d2r],
    ['lat0', 'standard_parallel_1', d2r],
    ['lat1', 'standard_parallel_1', d2r],
    ['lat2', 'standard_parallel_2', d2r],
    ['alpha', 'azimuth', d2r],
    ['srsCode', 'name']
  ];
  list.forEach(renamer);
  if (!wkt.long0 && wkt.longc && (wkt.PROJECTION === 'Albers_Conic_Equal_Area' || wkt.PROJECTION === "Lambert_Azimuthal_Equal_Area")) {
    wkt.long0 = wkt.longc;
  }
}
module.exports = function(wkt, self) {
  var lisp = JSON.parse(("," + wkt).replace(/\s*\,\s*([A-Z_0-9]+?)(\[)/g, ',["$1",').slice(1).replace(/\s*\,\s*([A-Z_0-9]+?)\]/g, ',"$1"]'));
  var type = lisp.shift();
  var name = lisp.shift();
  lisp.unshift(['name', name]);
  lisp.unshift(['type', type]);
  lisp.unshift('output');
  var obj = {};
  sExpr(lisp, obj);
  cleanWKT(obj.output);
  return extend(self, obj.output);
};

},{"./common":4,"./extend":14}]},{},[16])
(16)
});
;