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//
// GENERATED FILE
//
use super::*;
use f2rust_std::*;
const NABCOR: i32 = 15;
const ABATSZ: i32 = 6;
const GEOIDX: i32 = 1;
const LTIDX: i32 = (GEOIDX + 1);
const STLIDX: i32 = (LTIDX + 1);
const CNVIDX: i32 = (STLIDX + 1);
const XMTIDX: i32 = (CNVIDX + 1);
const RELIDX: i32 = (XMTIDX + 1);
const CORLEN: i32 = 5;
struct SaveVars {
CORLST: ActualCharArray,
CONV: StackArray<bool, 15>,
FIRST: bool,
GEO: StackArray<bool, 15>,
LT: StackArray<bool, 15>,
REL: StackArray<bool, 15>,
STL: StackArray<bool, 15>,
XMIT: StackArray<bool, 15>,
}
impl SaveInit for SaveVars {
fn new() -> Self {
let mut CORLST = ActualCharArray::new(CORLEN, 1..=NABCOR);
let mut CONV = StackArray::<bool, 15>::new(1..=NABCOR);
let mut FIRST: bool = false;
let mut GEO = StackArray::<bool, 15>::new(1..=NABCOR);
let mut LT = StackArray::<bool, 15>::new(1..=NABCOR);
let mut REL = StackArray::<bool, 15>::new(1..=NABCOR);
let mut STL = StackArray::<bool, 15>::new(1..=NABCOR);
let mut XMIT = StackArray::<bool, 15>::new(1..=NABCOR);
{
use f2rust_std::data::Val;
let mut clist = [
Val::C(b"CN"),
Val::L(false),
Val::L(true),
Val::L(false),
Val::L(true),
Val::L(false),
Val::L(false),
Val::C(b"CN+S"),
Val::L(false),
Val::L(true),
Val::L(true),
Val::L(true),
Val::L(false),
Val::L(false),
Val::C(b"LT"),
Val::L(false),
Val::L(true),
Val::L(false),
Val::L(false),
Val::L(false),
Val::L(false),
Val::C(b"LT+S"),
Val::L(false),
Val::L(true),
Val::L(true),
Val::L(false),
Val::L(false),
Val::L(false),
Val::C(b"NONE"),
Val::L(true),
Val::L(false),
Val::L(false),
Val::L(false),
Val::L(false),
Val::L(false),
Val::C(b"RL"),
Val::L(false),
Val::L(true),
Val::L(false),
Val::L(false),
Val::L(false),
Val::L(true),
Val::C(b"RL+S"),
Val::L(false),
Val::L(true),
Val::L(true),
Val::L(false),
Val::L(false),
Val::L(true),
Val::C(b"S"),
Val::L(false),
Val::L(false),
Val::L(true),
Val::L(false),
Val::L(false),
Val::L(false),
Val::C(b"XCN"),
Val::L(false),
Val::L(true),
Val::L(false),
Val::L(true),
Val::L(true),
Val::L(false),
Val::C(b"XCN+S"),
Val::L(false),
Val::L(true),
Val::L(true),
Val::L(true),
Val::L(true),
Val::L(false),
Val::C(b"XLT"),
Val::L(false),
Val::L(true),
Val::L(false),
Val::L(false),
Val::L(true),
Val::L(false),
Val::C(b"XLT+S"),
Val::L(false),
Val::L(true),
Val::L(true),
Val::L(false),
Val::L(true),
Val::L(false),
Val::C(b"XRL"),
Val::L(false),
Val::L(true),
Val::L(false),
Val::L(false),
Val::L(true),
Val::L(true),
Val::C(b"XRL+S"),
Val::L(false),
Val::L(true),
Val::L(true),
Val::L(false),
Val::L(true),
Val::L(true),
Val::C(b"XS"),
Val::L(false),
Val::L(false),
Val::L(true),
Val::L(false),
Val::L(true),
Val::L(false),
]
.into_iter();
for I in intrinsics::range(1, NABCOR, 1) {
fstr::assign(CORLST.get_mut(I), clist.next().unwrap().into_str());
GEO[I] = clist.next().unwrap().into_bool();
LT[I] = clist.next().unwrap().into_bool();
STL[I] = clist.next().unwrap().into_bool();
CONV[I] = clist.next().unwrap().into_bool();
XMIT[I] = clist.next().unwrap().into_bool();
REL[I] = clist.next().unwrap().into_bool();
}
debug_assert!(clist.next().is_none(), "DATA not fully initialised");
}
FIRST = true;
Self {
CORLST,
CONV,
FIRST,
GEO,
LT,
REL,
STL,
XMIT,
}
}
}
//$Procedure ZZPRSCOR ( Parse aberration correction )
pub fn ZZPRSCOR(ABCORR: &[u8], ATTBLK: &mut [bool], ctx: &mut Context) -> f2rust_std::Result<()> {
let save = ctx.get_vars::<SaveVars>();
let save = &mut *save.borrow_mut();
let mut ATTBLK = DummyArrayMut::new(ATTBLK, 1..);
let mut TMPCOR = [b' '; CORLEN as usize];
let mut LOC: i32 = 0;
let mut ORDVEC = StackArray::<i32, 15>::new(1..=NABCOR);
//
// SPICELIB functions
//
//
// Local variables
//
//
// Saved variables
//
//
// Initial values
//
//
// It is recommended that, for maintainability, the correction
// strings be kept in increasing order in this list. However,
// this routine does not rely on the strings being ordered
// in this data statement: the strings and associated values
// are ordered at run time.
//
if RETURN(ctx) {
return Ok(());
}
if save.FIRST {
//
// The first time this routine is called, we sort the
// aberration correction strings and the associated flag
// lists. This ensures we have an ordered list suitable
// for a binary search.
//
// Find the sorted order of the aberration correction strings.
//
ORDERC(save.CORLST.as_arg(), NABCOR, ORDVEC.as_slice_mut());
//
// Put the aberration correction strings and the associated
// arrays into increasing order.
//
REORDC(ORDVEC.as_slice_mut(), NABCOR, save.CORLST.as_arg_mut());
REORDL(ORDVEC.as_slice_mut(), NABCOR, save.GEO.as_slice_mut());
REORDL(ORDVEC.as_slice_mut(), NABCOR, save.LT.as_slice_mut());
REORDL(ORDVEC.as_slice_mut(), NABCOR, save.STL.as_slice_mut());
REORDL(ORDVEC.as_slice_mut(), NABCOR, save.CONV.as_slice_mut());
REORDL(ORDVEC.as_slice_mut(), NABCOR, save.XMIT.as_slice_mut());
REORDL(ORDVEC.as_slice_mut(), NABCOR, save.REL.as_slice_mut());
save.FIRST = false;
}
//
// Obtain a blank-free, upper-case copy of the aberration
// correction string.
//
LJUCRS(0, ABCORR, &mut TMPCOR, ctx);
//
// Search the list for the aberration correction string.
//
LOC = BSRCHC(&TMPCOR, NABCOR, save.CORLST.as_arg());
if (LOC == 0) {
CHKIN(b"ZZPRSCOR", ctx)?;
SETMSG(
b"Aberration correction specification # is not recognized.",
ctx,
);
ERRCH(b"#", ABCORR, ctx);
SIGERR(b"SPICE(INVALIDOPTION)", ctx)?;
CHKOUT(b"ZZPRSCOR", ctx)?;
return Ok(());
}
//
// Set the output flags.
//
ATTBLK[GEOIDX] = save.GEO[LOC];
ATTBLK[LTIDX] = save.LT[LOC];
ATTBLK[STLIDX] = save.STL[LOC];
ATTBLK[CNVIDX] = save.CONV[LOC];
ATTBLK[XMTIDX] = save.XMIT[LOC];
ATTBLK[RELIDX] = save.REL[LOC];
Ok(())
}