if (cookiesBannerHeight !== 0 && isMobile) {
      style = {
        top: cookiesBannerHeight === 0 ? 0 : cookiesBannerHeight
      }
}

function sortUsers(a, b) {
  return a.last_name.localeCompare(b.last_name) * -1;
}

if((strtotime(date("Y-m-d"))-strtotime(date("Y-m-d", filemtime($filename))))/(3600)<=$config->hourDiff) return true; else return false;

someslice := []*string{
    &"fuck",
    &"pointers",
}

for i, value := range someSlice {
    someSlice[i] = &*value
}

	public showOrHideLegends(seriesList: any[]) {
		if (seriesList.length === 0)
			return false;
		else
			return true;
	}

$net_price = "var net_price = " . json_encode($net_price) . ";";

public static bool HasValues<T>(this ICollection<T> collection)
{
    if (collection == null)
    {
        return false;
    }
    if (collection.Count == 0)
    {
        return false;
    }
    return true;
}

socket.on('newMessage', (messageObj) => {
	if (roomNumber === messageObj.roomNumber) {

		console.log("message received:" + messageObj.message);
		$('#messages').append($('<li>').text(messageObj.userName + ' : ' + messageObj.message));

	}
});

$number = int(1);

base.transform.name = this.bodyName;
		this.radius = this.diameterKm * 500.0;
		this.mass = Math.Pow(this.radius, 2.0) * this.surfaceGravity;
		this.cameraSwitchHeightM = this.cameraSwitchHeightKm * 1000.0;
		if (this.atmosphereData.shadowIntensity == 0f)
		{
			this.atmosphereData.shadowIntensity = 1.65f;
		}
		this.atmosphereData.atmosphereHeightM = this.atmosphereData.atmosphereHeightKm * 1000.0;
		if (this.terrainData.terrainMaterial != null)
		{
			this.terrainData.terrainMaterial.color = this.terrainData.terrainColor;
		}
		this.terrainData.maxTerrainHeight = this.GetMaxTerrainHeight();
		this.terrainData.unitToAngle = 360.0 / ((this.radius + this.terrainData.maxTerrainHeight) * 2.0 * 3.1415926535897931);
		for (int i = 0; i < this.terrainData.detailLevels.Length; i++)
		{
			this.terrainData.detailLevels[i].chunckSize = (double)this.terrainData.baseChunckSize / Math.Pow(2.0, (double)i);
			this.terrainData.detailLevels[i].angularSize = (float)this.terrainData.detailLevels[i].chunckSize / (float)this.terrainData.heightMaps[0].heightMap.HeightDataArray.Length * 360f;
		}
		this.terrainData.detailLevels[0].loadDistance = double.PositiveInfinity;
		if (this.type == CelestialBodyData.Type.Star)
		{
			this.parentBody = null;
			this.orbitData.SOIMultiplier = double.PositiveInfinity;
		}
		if (this.parentBody != null && (this.type == this.parentBody.type || (this.type == CelestialBodyData.Type.Planet && this.parentBody.type == CelestialBodyData.Type.Moon)))
		{
			this.parentBody = null;
		}
		if (this.parentBody != null)
		{
			this.orbitData._period = Kepler.GetPeriod(0.0, this.orbitData.orbitHeightM, this.parentBody.mass);
			this.orbitData.periodString = Ref.GetTimeString(this.orbitData._period);
			this.orbitData._meanMotion = -6.2831853071795862 / this.orbitData._period;
			this.orbitData.orbitalVelocity = this.orbitData.orbitHeightM * this.orbitData._meanMotion;
			this.orbitData.SOI = this.orbitData.orbitHeightM * Math.Pow(this.mass / this.parentBody.mass, 0.4) * this.orbitData.SOIMultiplier;
			if (!this.ParentHasThisBodyAsSatellite())
			{
				List<CelestialBodyData> list = new List<CelestialBodyData>(this.parentBody.satellites);
				list.Add(this);
				this.parentBody.satellites = list.ToArray();
				this.parentBody.ValidateSatellites();
			}

def possibilities():
    alphabets=(n,o,r,t,h,e,a,s,u,w,m,y)
    combinations=list()
    for n in range(9,-1,-1):
            for o in range(9,-1,-1):
                    for r in range(9,-1,-1):
                            for t in range(9,-1,-1):
                                    for h in range(9,-1,-1):
                                            for e in range(9,-1,-1):
                                                    for a in range(9,-1,-1):
                                                            for s in range(9,-1,-1):
                                                                    for u in range(9,-1,-1):
                                                                            for w in range(9,-1,-1):
                                                                                    for m in range(9,-1,-1):
                                                                                            for y in range(9,-1,-1):
                                                                                                    if len(set([n,o,r,t,h,e,a,s,u,w,m,y]))==12:
                                                                                                    north=10000*n + 1000*o +100*r +10*t +h
                                                                                                    east=1000*e +100*a +10*s +t
                                                                                                    south=10000*s + 1000*o +100*u +10*t +h
                                                                                                    west=1000*w + 100*e +10*s +t
                                                                                                    earth= 10000*e + 1000*a + 100*r +10*t +h
                                                                                                    if north +east +south +west == earth:
                                                                                                            combinations.append((north,east,south,west,earth))

    return combinations

value unless value.select! { |v| v != "0" }.nil?

def open(self, *filename):
	if len(filename) > 1:
		print(("Usage:\nopen() - opens with the initialized "
			"filename\nopen(filename) - opens with given filename"))
		return 1
	if len(filename) == 1:
		self.filename = filename[0]
	if self.filename is None:
		print("No filename given")
		return 1
	self.struct_p = open_struct(self.last_error, self.error_size, \
		self.filename)
	if self.struct_p is None:
		print("Cannot open file: " + self.filename)
		return 1
	self.load_data()
	return 0

  /** 
   * Deserializes the contents of the incoming message buffer {@code b}. 
   * 
   * @return deserialised object
   * @throws UnsupportedEncodingException If the named charset is not supported
   */
  Object r() throws UnsupportedEncodingException{
    int i=0, n, t=b[j++];
    if(t<0)
      switch(t){
        case -1:
          return rb();
        case (-2):
          return rg();
        case -4:
          return b[j++];
        case -5:
          return rh();
        case -6:
          return ri();
        case -7:
          return rj();
        case -8:
          return re();
        case -9:
          return rf();
        case -10:
          return rc();
        case -11:
          return rs();
        case -12:
          return rp();
        case -13:
          return rm();
        case -14:
          return rd();
        case -15:
          return rz();
        case -16:
          return rn();
        case -17:
          return ru();
        case -18:
          return rv();
        case -19:
          return rt();
      }
    if(t>99){
      if(t==100){
        rs();
        return r();
      }
      if(t<104)
        return b[j++]==0&&t==101?null:"func";
      if(t>105)
        r();
      else
        for(n=ri();i<n;i++)
          r();
      return "func";
    }
    if(t==99)
      return new Dict(r(),r());
    j++;
    if(t==98)
      return new Flip((Dict)r());
    n=ri();
    switch(t){
      case 0:
        Object[] L=new Object[n];
        for(;i<n;i++)
          L[i]=r();
        return L;
      case 1:
        boolean[] B=new boolean[n];
        for(;i<n;i++)
          B[i]=rb();
        return B;
      case 2: {
        UUID[] G=new UUID[n];
        for(;i<n;i++)
          G[i]=rg();
        return G;
      }
      case 4:
        byte[] G=new byte[n];
        for(;i<n;i++)
          G[i]=b[j++];
        return G;
      case 5:
        short[] H=new short[n];
        for(;i<n;i++)
          H[i]=rh();
        return H;
      case 6:
        int[] I=new int[n];
        for(;i<n;i++)
          I[i]=ri();
        return I;
      case 7:
        long[] J=new long[n];
        for(;i<n;i++)
          J[i]=rj();
        return J;
      case 8:
        float[] E=new float[n];
        for(;i<n;i++)
          E[i]=re();
        return E;
      case 9:
        double[] F=new double[n];
        for(;i<n;i++)
          F[i]=rf();
        return F;
      case 10:
        char[] C=new String(b,j,n,encoding).toCharArray();
        j+=n;
        return C;
      case 11:
        String[] S=new String[n];
        for(;i<n;i++)
          S[i]=rs();
        return S;
      case 12:
        Timestamp[] P=new Timestamp[n];
        for(;i<n;i++)
          P[i]=rp();
        return P;
      case 13:
        Month[] M=new Month[n];
        for(;i<n;i++)
          M[i]=rm();
        return M;
      case 14:
        Date[] D=new Date[n];
        for(;i<n;i++)
          D[i]=rd();
        return D;
      case 15:
        java.util.Date[] Z=new java.util.Date[n];
        for(;i<n;i++)
          Z[i]=rz();
        return Z;
      case 16:
        Timespan[] N=new Timespan[n];
        for(;i<n;i++)
          N[i]=rn();
        return N;
      case 17:
        Minute[] U=new Minute[n];
        for(;i<n;i++)
          U[i]=ru();
        return U;
      case 18:
        Second[] V=new Second[n];
        for(;i<n;i++)
          V[i]=rv();
        return V;
      case 19:
        Time[] T=new Time[n];
        for(;i<n;i++)
          T[i]=rt();
        return T;
    }
    return null;
  }

if ( x == true)
{
    // do something
}