Deltarune (Chapter 3) script viewer

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gml_Object_obj_lanino_solar_system_orbit_Draw_0

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orbit_distance += orbit_expansion;
orbit_expansion = scr_approachscr_approachfunction scr_approach(arg0, arg1, arg2)
{
    if (arg0 < arg1)
    {
        arg0 += arg2;
        if (arg0 > arg1)
            return arg1;
    }
    else
    {
        arg0 -= arg2;
        if (arg0 < arg1)
            return arg1;
    }
    return arg0;
}(orbit_expansion, 1, (orbit_expansion - 1) * 0.075);
width *= 0.98;
if (orbit_distance > orbit_distancemax)
{
    opacity *= 0.85;
    if (i_ex(moon))
        moon.image_alpha *= 0.85;
    if (i_ex(moon2))
        moon2.image_alpha *= 0.85;
    if (opacity < 0.05)
    {
        if (i_ex(moon))
            instance_destroy(moon);
        if (i_ex(moon2))
            instance_destroy(moon2);
        instance_destroy();
        exit;
    }
}
orbit_angle += orbit_direction;
x2 = (x + (dcos(orbit_angle) * orbit_distance * hratio * cos(orbit_face))) - (-dsin(orbit_angle) * orbit_distance * vratio * sin(orbit_face));
y2 = y + (-dsin(orbit_angle) * orbit_distance * vratio * cos(orbit_face)) + (dcos(orbit_angle) * orbit_distance * hratio * sin(orbit_face));
draw_set_alpha(opacity);
if (i_ex(moon))
{
    if (moon.image_xscale < maxscale)
    {
        moon.image_xscale += scaler;
        moon.image_yscale += scaler;
    }
    moon.x = x1;
    moon.y = y1;
}
var x3 = (x + (dcos(orbit_angle + 180) * orbit_distance * hratio * cos(orbit_face))) - (-dsin(orbit_angle + 180) * orbit_distance * vratio * sin(orbit_face));
var y3 = y + (-dsin(orbit_angle + 180) * orbit_distance * vratio * cos(orbit_face)) + (dcos(orbit_angle + 180) * orbit_distance * hratio * sin(orbit_face));
if (i_ex(moon2))
{
    if (moon.image_xscale < maxscale)
    {
        moon2.image_xscale += scaler;
        moon2.image_yscale += scaler;
    }
    moon2.x = x3;
    moon2.y = y3;
}
for (a = 0; a < 91; a++)
{
    var angle = (4 * a) + orbit_angle;
    x1 = x2;
    y1 = y2;
    x2 = (x + (dcos(angle) * orbit_distance * hratio * cos(orbit_face))) - (-dsin(angle) * orbit_distance * vratio * sin(orbit_face));
    y2 = y + (-dsin(angle) * orbit_distance * vratio * cos(orbit_face)) + (dcos(angle) * orbit_distance * hratio * sin(orbit_face));
    if ((a % 2) < 1)
        draw_line_width_color(x1, y1, x2, y2, 1 + (width * abs(sin(degtorad(angle * 0.5)))), c_gray, c_gray);
}
draw_set_alpha(1);

1	`orbit_distance += orbit_expansion;`
2	`orbit_expansion = scr_approachscr_approach function scr_approach(arg0, arg1, arg2) { if (arg0 < arg1) { arg0 += arg2; if (arg0 > arg1) return arg1; } else { arg0 -= arg2; if (arg0 < arg1) return arg1; } return arg0; } (orbit_expansion, 1, (orbit_expansion - 1) * 0.075);`
3	`width *= 0.98;`
4	`if (orbit_distance > orbit_distancemax)`
5	`{`
6	`opacity *= 0.85;`
7	`if (i_ex(moon))`
8	`moon.image_alpha *= 0.85;`
9	`if (i_ex(moon2))`
10	`moon2.image_alpha *= 0.85;`
11	`if (opacity < 0.05)`
12	`{`
13	`if (i_ex(moon))`
14	`instance_destroy(moon);`
15	`if (i_ex(moon2))`
16	`instance_destroy(moon2);`
17	`instance_destroy();`
18	`exit;`
19	`}`
20	`}`
21	`orbit_angle += orbit_direction;`
22	`x2 = (x + (dcos(orbit_angle) * orbit_distance * hratio * cos(orbit_face))) - (-dsin(orbit_angle) * orbit_distance * vratio * sin(orbit_face));`
23	`y2 = y + (-dsin(orbit_angle) * orbit_distance * vratio * cos(orbit_face)) + (dcos(orbit_angle) * orbit_distance * hratio * sin(orbit_face));`
24	`draw_set_alpha(opacity);`
25	`if (i_ex(moon))`
26	`{`
27	`if (moon.image_xscale < maxscale)`
28	`{`
29	`moon.image_xscale += scaler;`
30	`moon.image_yscale += scaler;`
31	`}`
32	`moon.x = x1;`
33	`moon.y = y1;`
34	`}`
35	`var x3 = (x + (dcos(orbit_angle + 180) * orbit_distance * hratio * cos(orbit_face))) - (-dsin(orbit_angle + 180) * orbit_distance * vratio * sin(orbit_face));`
36	`var y3 = y + (-dsin(orbit_angle + 180) * orbit_distance * vratio * cos(orbit_face)) + (dcos(orbit_angle + 180) * orbit_distance * hratio * sin(orbit_face));`
37	`if (i_ex(moon2))`
38	`{`
39	`if (moon.image_xscale < maxscale)`
40	`{`
41	`moon2.image_xscale += scaler;`
42	`moon2.image_yscale += scaler;`
43	`}`
44	`moon2.x = x3;`
45	`moon2.y = y3;`
46	`}`
47	`for (a = 0; a < 91; a++)`
48	`{`
49	`var angle = (4 * a) + orbit_angle;`
50	`x1 = x2;`
51	`y1 = y2;`
52	`x2 = (x + (dcos(angle) * orbit_distance * hratio * cos(orbit_face))) - (-dsin(angle) * orbit_distance * vratio * sin(orbit_face));`
53	`y2 = y + (-dsin(angle) * orbit_distance * vratio * cos(orbit_face)) + (dcos(angle) * orbit_distance * hratio * sin(orbit_face));`
54	`if ((a % 2) < 1)`
55	`draw_line_width_color(x1, y1, x2, y2, 1 + (width * abs(sin(degtorad(angle * 0.5)))), c_gray, c_gray);`
56	`}`
57	`draw_set_alpha(1);`