I need this C++ program to have a GUI on visual studio. I need it to take the 7 inputs (Latitude, longitude, day, month,

[answerhappygod]

I need this C++ program to have a GUI on visual studio.
I need it to take the 7 inputs (Latitude, longitude, day,
month, hour, minute, utc difference) from the user as mentioned in
the code and I need it to print out whatever is printed out in the
code. So the GUI will take 7 inputs from the user and it will print
out 3 outputs. I am not familiar with visual studio so please
explain your answer and write down all the necessary
codes.
Here is the C++ code:
#include <math.h>
#include <stdio.h>
#include <iostream>
#include <cmath>
float hour, UTHours, UTMinutes, UTSeconds=0;
float Lat, Lon, TZ;
int year,month,day;
void get_sun_pos(float latitude, float longitude,
float *altitude, float *azimuth){


printf("Latitude:");
scanf("%f", &latitude);

printf("Longitude:");
scanf("%f", &longitude);

printf("Day:");
scanf("%d", &day);

printf("Month:");
scanf("%d", &month);

printf("Year:");
scanf("%d", &year);

printf("Hour and Minute:");
scanf("%f %f", &hour, &UTMinutes);

printf("UTC difference of time:");
scanf("%f", &TZ);

UTHours= hour-TZ;
float zenith;
float pi =3.14159265358979323;
float twopi=(2*pi);
float rad=(pi/180);
float EarthMeanRadius=6371.01;
// In km
float AstronomicalUnit=149597890.;
// In km
float DecimalHours = UTHours + (UTMinutes +
UTSeconds / 60.0 ) / 60.0;
long liAux1 =(month-14)/12;
long liAux2=(1461*(year + 4800 + liAux1))/4 +
(367*(month - 2-12*liAux1))/12- (3*(year + 4900 +
liAux1)/100)/4+day-32075;
float JulianDate=(liAux2)-0.5+
DecimalHours/24.0;
float ElapsedJulianDays =
JulianDate-2451545.0;
float
Omega=2.1429-0.0010394594*ElapsedJulianDays;
float MeanLongitude = 4.8950630+
0.017202791698*ElapsedJulianDays; // Radians
float MeanAnomaly = 6.2400600+
0.0172019699*ElapsedJulianDays;
float EclipticLongitude = MeanLongitude +
0.03341607*sin( MeanAnomaly ) + 0.00034894*sin( 2*MeanAnomaly
)-0.0001134 -0.0000203*sin(Omega);
float EclipticObliquity = 0.4090928 -
6.2140e-9*ElapsedJulianDays +0.0000396*cos(Omega);
float Sin_EclipticLongitude= sin(
EclipticLongitude );
float Y = cos( EclipticObliquity ) *
Sin_EclipticLongitude;
float X = cos( EclipticLongitude );
float RightAscension = atan2( Y, X );
if ( RightAscension < 0.0 ) RightAscension =
RightAscension + twopi;
float Declination = asin( sin( EclipticObliquity
)* Sin_EclipticLongitude );
float GreenwichMeanSiderealTime = 6.6974243242 +
0.0657098283*ElapsedJulianDays + DecimalHours;
float LocalMeanSiderealTime =
(GreenwichMeanSiderealTime*15 + longitude)*rad;
float HourAngle = LocalMeanSiderealTime -
RightAscension;
float LatitudeInRadians = latitude*rad;
float Cos_Latitude = cos( LatitudeInRadians
);
float Sin_Latitude = sin( LatitudeInRadians
);
float Cos_HourAngle= cos( HourAngle );
float UTSunCoordinatesZenithAngle = (acos(
Cos_Latitude*Cos_HourAngle*cos(Declination) + sin( Declination
)*Sin_Latitude));
Y = -sin( HourAngle );
X = tan( Declination )*Cos_Latitude -
Sin_Latitude*Cos_HourAngle;
float UTSunCoordinatesAzimuth = atan2( Y, X
);
if ( UTSunCoordinatesAzimuth < 0.0 )
UTSunCoordinatesAzimuth =
UTSunCoordinatesAzimuth + twopi;
UTSunCoordinatesAzimuth =
UTSunCoordinatesAzimuth/rad;
float
Parallax=(EarthMeanRadius/AstronomicalUnit)*sin(UTSunCoordinatesZenithAngle);


UTSunCoordinatesZenithAngle=(UTSunCoordinatesZenithAngle +
Parallax)/rad;
*azimuth=UTSunCoordinatesAzimuth;
zenith=UTSunCoordinatesZenithAngle;
*altitude=90.-UTSunCoordinatesZenithAngle;

}
using namespace std;

struct Pt { double x, y, z; };
Pt operator + ( Pt p, Pt q ) { return { p.x + q.x,
p.y + q.y, p.z + q.z }; }
Pt operator - ( Pt p, Pt q ) { return { p.x - q.x,
p.y - q.y, p.z - q.z }; }
Pt operator * ( double r, Pt p ) { return { r * p.x,
r * p.y, r * p.z }; }
Pt operator / ( Pt p, double r ) { return { p.x / r,
p.y / r, p.z / r }; }
double dot( Pt p, Pt q ) { return p.x * q.x + p.y * q.y + p.z *
q.z; }
ostream &operator << ( ostream &out, const Pt &p
) { return out << p.x << " " << p.y << " "
<< p.z; }
istream &operator >> ( istream &in ,
Pt &p ) { return in >> p.x
>> p.y >> p.z;
}
int main()
{
float alt, az, azimrad, egim, yazim, xazim, x, y, z,
elevrad, w, q, e;
get_sun_pos(Lat, Lon, &alt, &az);

printf("UTC Date: %02i/%02i/%4i local time: %2i:%02i
\r\n",month,day,year,(int)(UTHours+TZ),(int)UTMinutes);
printf("Sun altitude = %7.2f, azimuth =
%7.2f\n",alt,az);
azimrad= (3.1415/180)*az;
elevrad= (3.1415/180)*alt;

w= -cos(azimrad)*cos(elevrad);
q= sin(azimrad)*cos(elevrad);
e= sin(elevrad);

Pt centre, origin, direction;
double radius;

centre= {0, 0, 0};
radius= 110;
origin= {0, 0, 0};
direction= {w, q, e};
double a = dot( direction, direction );
double b = 2 * dot( direction, origin - centre
);
double c = dot( origin - centre, origin - centre ) -
radius * radius;
double discriminant = b * b - 4 * a * c;
if ( discriminant < 0 )
{
cout << "No intersection.\n";
}
else if ( discriminant > 0 )
{
double t = ( -b + sqrt( discriminant ) ) / ( 2
* a );
double t2 = -b / a - t;

Pt result= origin + t *
direction;
cout << "Closest intersection at "
<< result << '\n';
}
else
{
cout << "Touches sphere at " <<
origin + (-0.5 * b / a) * direction << '\n';
}
return 0;
}