19 |
|
#endif |
20 |
|
#define FHUGE (1e10) |
21 |
|
|
22 |
+ |
#define FABSEQ(x1,x2) ((x1)+FTINY > (x2) && (x2)+FTINY > (x1)) |
23 |
+ |
#define FRELEQ(x1,x2) ((x1)*(1.+FTINY) >= (x2) && (x2)*(1.+FTINY) >= (x1)) |
24 |
+ |
|
25 |
+ |
#define VABSEQ(v,w) (FABSEQ((v)[0],(w)[0]) && FABSEQ((v)[1],(w)[1]) \ |
26 |
+ |
&& FABSEQ((v)[2],(w)[2])) |
27 |
+ |
#define VRELEQ(v,w) (FRELEQ((v)[0],(w)[0]) && FRELEQ((v)[1],(w)[1]) \ |
28 |
+ |
&& FRELEQ((v)[2],(w)[2])) |
29 |
+ |
|
30 |
|
typedef RREAL FVECT[3]; |
31 |
|
|
32 |
|
#define VCOPY(v1,v2) ((v1)[0]=(v2)[0],(v1)[1]=(v2)[1],(v1)[2]=(v2)[2]) |
59 |
|
extern void fcross(FVECT vres, const FVECT v1, const FVECT v2); |
60 |
|
extern void fvsum(FVECT vres, const FVECT v0, const FVECT v1, double f); |
61 |
|
extern double normalize(FVECT v); |
62 |
< |
extern int getperpendicular(FVECT vp, const FVECT v); |
62 |
> |
extern int getperpendicular(FVECT vp, const FVECT v, int randomize); |
63 |
|
extern int closestapproach(RREAL t[2], |
64 |
|
const FVECT rorg0, const FVECT rdir0, |
65 |
|
const FVECT rorg1, const FVECT rdir1); |