Example #1
0
double sdb2elevation (int n1, int n2)
{
	double x = sdb[n2].coords.x - sdb[n1].coords.x;
	double y = sdb[n2].coords.y - sdb[n1].coords.y;
	double z = sdb[n2].coords.z - sdb[n1].coords.z;

	return xyz2elevation(x, y, z);
}
Example #2
0
int do_nebula_report (dbref enactor)
{
	static char buffer[BUFFER_LEN], nbuff[20];
	double px = sdb[n].coords.x / PARSEC;
	double py = sdb[n].coords.y / PARSEC;
	double pz = sdb[n].coords.z / PARSEC;
	double cx[2], cy[2], cz[2];
	double dx, dy, dz;
	register int x, y, z;
	register int i = 0;
	aspace_borders *nebula;
	double range;

	cx[0] = ceil(px / 100.0) * 100.0;
	cx[1] = floor(px / 100.0) * 100.0;
	cy[0] = ceil(py / 100.0) * 100.0;
	cy[1] = floor(py / 100.0) * 100.0;
	cz[0] = ceil(pz / 100.0) * 100.0;
	cz[1] = floor(pz / 100.0) * 100.0;

	if (error_on_console(enactor)) {
		return 0;
	} else if (!sdb[n].sensor.lrs_exist) {
		notify(enactor, ansi_red(tprintf("%s has no long-range sensors.", Name(sdb[n].object))));
	} else if (!sdb[n].sensor.lrs_active) {
		notify(enactor, ansi_red("Long-range sensors are inactive."));
	} else {
		snprintf(buffer, sizeof(buffer),
		  "%s%s--[%sNebula Report%s]--------------------------------------------------------------%s\n%sNebulae              Bearing Range   Core Vis Core Coordinates%s\n%s-------------------- ------- ------- -------- ---------------------------------%s\n",
		  ANSI_HILITE, ANSI_BLUE, ANSI_YELLOW, ANSI_BLUE, ANSI_NORMAL,
		  ANSI_CYAN, ANSI_WHITE, ANSI_BLUE, ANSI_WHITE);
		if (aspace_config.nebula >= 1 && im_count(nebula_map) > 0) {
			for (i = 1; i <= im_count(nebula_map); i++) {
				nebula = im_find(nebula_map, i);
				if (!nebula)
					continue;
				range = xyz2range(sdb[n].coords.x, sdb[n].coords.y, sdb[n].coords.z, nebula->x, nebula->y, nebula->z) / PARSEC;
				if (fabs(range - nebula->radius) >= 150.0)
					continue;
				strncat(buffer, tprintf("%-20.20s %3d %-3d %-7.7s %7.3f%% %10.3f %10.3f %10.3f\n", nebula->name,
					  (int) round2(xy2bearing((nebula->x - sdb[n].coords.x), (nebula->y - sdb[n].coords.y))),
					  (int) round2(xyz2elevation((nebula->x - sdb[n].coords.x), (nebula->y - sdb[n].coords.y), (nebula->z - sdb[n].coords.z))),
					  unparse_range(xyz2range(sdb[n].coords.x, sdb[n].coords.y, sdb[n].coords.z, nebula->x, nebula->y, nebula->z)),
					  xyz2vis(nebula->x, nebula->y, nebula->z) * 100.0,
					  nebula->x / PARSEC, nebula->y / PARSEC, nebula->z / PARSEC), sizeof(buffer) - 1);
			}
		}
		if (aspace_config.nebula <= 1) {
			for (z = 0; z < 2; ++z) {
				for (y = 0; y < 2; ++y) {
					for (x = 0; x < 2; ++x) {
						snprintf(nbuff, sizeof(nbuff), "Nebula %d-%d-%d",
						round2(fabs(cx[x] / 100.0)), round2(fabs(cy[y] / 100.0)), round2(fabs(cz[z] / 100.0)));
						dx = cx[x] * PARSEC;
						dy = cy[y] * PARSEC;
						dz = cz[z] * PARSEC;
						strncat(buffer, tprintf("%-20.20s %3d %-3d %-7.7s %7.3f%% %10.3f %10.3f %10.3f\n", nbuff,
							(int) round2(xy2bearing((dx - sdb[n].coords.x), (dy - sdb[n].coords.y))),
							(int) round2(xyz2elevation((dx - sdb[n].coords.x), (dy - sdb[n].coords.y), (dz - sdb[n].coords.z))),
							unparse_range(xyz2range(sdb[n].coords.x, sdb[n].coords.y, sdb[n].coords.z, dx, dy, dz)),
							xyz2vis(dx, dy, dz) * 100.0,
						cx[x] - sdb[n].coords.xo / PARSEC,
						cy[y] - sdb[n].coords.yo / PARSEC,
						cz[z] - sdb[n].coords.zo / PARSEC), sizeof(buffer) - 1);
					}
				}
			}
		}
		strncat(buffer, format_l_line(), sizeof(buffer) - 1);
		strncat(buffer, format_Course(n), sizeof(buffer) - 1);
		strncat(buffer, format_Speed(n), sizeof(buffer) - 1);
		strncat(buffer, "\n", sizeof(buffer) - 1);
		strncat(buffer, format_Location(n), sizeof(buffer) - 1);
		strncat(buffer, format_Velocity(n), sizeof(buffer) - 1);
		strncat(buffer, "\n", sizeof(buffer) - 1);
		strncat(buffer, format_l_end(), sizeof(buffer) - 1);

		notify(enactor, buffer);
		return 1;
	}
	return 0;
}
Example #3
0
 //! @brief The plane wave cartesian constructor.
 //! @param index       The index must be at least 1.
 //! @param abscissa    The abscissa \f$x\f$.
 //! @param ordinate    The ordinate \f$y\f$.
 //! @param height      The height \f$z\f$.
 Planewave(size_t index, T abscissa, T ordinate, T height) noexcept
 : Planewave(index,
             xyz2azimuth(abscissa, ordinate, height),
             xyz2elevation(abscissa, ordinate, height))
 {}
Example #4
0
/*
 * Border report for a space-object
 */
int do_border_report (dbref enactor)
{
	static char buffer[BUFFER_LEN];
	int index = 0;
	aspace_borders *sbi;
	
	double range;

	if (error_on_console(enactor)) {
		return 0;
	} else if (!sdb[n].sensor.lrs_exist) {
		notify(enactor, ansi_red(tprintf("%s has no long-range sensors.", Name(sdb[n].object))));
	} else if (!sdb[n].sensor.lrs_active) {
		notify(enactor, ansi_red("Long-range sensors are inactive."));
	} else {
		snprintf(buffer, sizeof(buffer),
		  "%s%s--[%sBorder Report%s]--------------------------------------------------------------%s\n%sEmpire               Bearing Range   Status   Center Coordinates%s\n%s-------------------- ------- ------- -------- ---------------------------------%s\n",
		  ANSI_HILITE, ANSI_BLUE, ANSI_YELLOW, ANSI_BLUE, ANSI_NORMAL,
		  ANSI_CYAN, ANSI_WHITE, ANSI_BLUE, ANSI_WHITE);

		for (index = 1; index <= im_count(border_map); index++)
		{
			sbi = im_find(border_map, index);
		
			if (sbi != NULL) {
				range = xyz2range(sdb[n].coords.x, sdb[n].coords.y, sdb[n].coords.z, sbi->x, sbi->y, sbi->z) / PARSEC;
				if (fabs(range - sbi->radius) >= 100.0)
					continue;
				strncat(buffer, tprintf("%-20.20s ", sbi->name), sizeof(buffer) - 1);
				if (range > sbi->radius) {
					strncat(buffer, tprintf("%3d %-3d %-7.7s Outside  ",
					  (int) xy2bearing((sbi->x - sdb[n].coords.x), (sbi->y - sdb[n].coords.y)),
					  (int) xyz2elevation((sbi->x - sdb[n].coords.x), (sbi->y - sdb[n].coords.y), (sbi->z - sdb[n].coords.z)),
					  unparse_range((range - sbi->radius) * PARSEC)), sizeof(buffer) - 1);
				} else {
					strncat(buffer, tprintf("%3d %-3d %-7.7s Inside   ",
					  (int) xy2bearing((sdb[n].coords.x - sbi->x), (sdb[n].coords.y - sbi->y)),
					  (int) xyz2elevation((sdb[n].coords.x - sbi->x), (sdb[n].coords.y - sbi->y), (sdb[n].coords.z - sbi->z)),
					  unparse_range((sbi->radius - range) * PARSEC)), sizeof(buffer) - 1);
				}
				strncat(buffer, tprintf("%10.3f %10.3f %10.3f\n",
				  (sbi->x - sdb[n].coords.xo) / PARSEC,
				  (sbi->y - sdb[n].coords.yo) / PARSEC,
				  (sbi->z - sdb[n].coords.zo) / PARSEC), sizeof(buffer) - 1);
			}
		}

		strncat(buffer, format_l_line(), sizeof(buffer) - 1);
		strncat(buffer, format_Course(n), sizeof(buffer) - 1);
		strncat(buffer, format_Speed(n), sizeof(buffer) - 1);
		strncat(buffer, "\n", sizeof(buffer) - 1);
		strncat(buffer, format_Location(n), sizeof(buffer) - 1);
		strncat(buffer, format_Velocity(n), sizeof(buffer) - 1);
		strncat(buffer, "\n", sizeof(buffer) - 1);
		strncat(buffer, format_l_end(), sizeof(buffer) - 1);

		notify(enactor, buffer);
		return 1;
	}
	return 0;
}