/*
Copyright (c) 2003, Dan Kranz and Arnold Rom
All rights reserved.

Redistribution and use in source and binary forms, with or
without modification, are permitted provided that the following
conditions are met:

    * Redistributions of source code must retain the above
      copyright notice, this list of conditions and the following
      disclaimer.

    * Redistributions in binary form must reproduce the above
      copyright notice, this list of conditions and the following
      disclaimer in the documentation and/or other materials
      provided with the distribution.

    * The names of its contributors may not be used to endorse or
      promote products derived from this software without specific
      prior written permission.

THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND
CONTRIBUTORS "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES,
INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF
MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT
NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN
CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR
OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE,
EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*/

#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <roots.h>

	static DataBaseInternalValue  rep;

	DataBaseInternalValue* arxout(DataBase*	db, short bfi, char* Istring)

// -----------------------------------------------------------------------
{	// arxcout START
// -----------------------------------------------------------------------

//	local data

	long fld[2],i,cpl,n1=1,kt,nblank,need;
	long v[2];
	char*  string;
   char blank = '\0';
	BYTE park[256];

	static long maxval[4]={255,65535,16777215,2147483647};


//	handle NULL input case

	if(Istring==NULL) string=&blank; else string=Istring;

//	derive a roots field definition	for string

	cpl=fld[1]=strlen(string);

	fld[0]=1;

//	eliminate leading blanks from other than t-types

	if(db->type[bfi-1]!=T_TYPE)
	{
	for(i=0; i<cpl;	i++)
	   {
           if(string[i]!=' ') break;
	   fld[0]++;
	   fld[1]--;
	   }
	}
	rep.type=db->type[bfi-1];

	switch(db->type[bfi-1])
// -------------------------------
{	  // switch start
// -------------------------------

// ---------
case B_TYPE:
// ---------

//	convert	date field

	if(db->ARMRtype[bfi-1] == D_TYPE)
	{
	if(cdatec(string,fld,&rep.binary))
	 {
         RootsError("Invalid date\n");
	 return	NULL;;
	 }
	}
	else	// convert regular binary
	{
	if(chcdbf(string,fld,&rep.binary,&n1))
	 {
         RootsError("Invalid numerics**\n");
	 return	NULL;
	 }
	}

	// Audit
	cpl = db->blkfld[bfi-1][1];
	if (rep.binary > maxval[cpl-1])
	{
		RootsError("The number input is too large");
		return NULL;
	}
	break;

// ---------
case R_TYPE:
// ---------
	if(clcdbr(string,fld,&rep.real,&n1))
	 {
         RootsError("Invalid numerics**\n");
	 return	NULL;
	 }
	break;
// ---------
case T_TYPE:
// ---------

        if(!(kt=db->tabinx[bfi-1])) {RootsSOS("** sos exit from arxout **/n");
				     abort();}

//	set blanks to zero

	for(i=0, nblank=0; i<fld[1]; i++)
	{
        if(string[fld[0]+i-1] != ' ') break;
	nblank++;
	}
	if(nblank==fld[1]) {rep.binary=0; break;}

//	make room for new entry

	need=db->arx[kt-1].nline+1;
	if(need>db->arx[kt-1].nAlloc) need+=100;

	ExpandBlock(db->arx[kt-1],need);

//	derive tabular index &	set update flags

	v[0]=1;	v[1]=db->arx[kt-1].cpl;
	chmove(string,fld,park,v,&n1);

	chtab(BLOCK(db->arx[kt-1]),park,v,&rep.binary);

//	audit for table	overflow

	if(db->blkfld[bfi-1][1]==1 && rep.binary>255 ||
	   db->blkfld[bfi-1][1]==2 && rep.binary>MAXLIN)
	{
        RootsSOS("New Binary table index exceeds data base field width");
	abort();
	}
	break;

// ---------
case E_TYPE:
// ---------

	memcpy(rep.Estring,&string[fld[0]-1],fld[1]);
	rep.Estring[fld[1]]='\0';
	break;

// ----------------
default: return NULL;
// ----------------

// -------------------------------
}	  // switch end
// -------------------------------

	return &rep;

// -----------------------------------------------------------------------
}	// arxcout END
// -----------------------------------------------------------------------

	BYTE cdatec(BYTE* reply, long* repfld, long* ymd)
// -----------------------------------------------------------------------
{ // cdatec START
// -----------------------------------------------------------------------

//	local data

	long i,nf,flds[3][2],mdy[3],n3=3,n1=1;
	long mo,dy,yr,remain;

	static BYTE daymon[12]={31,29,31,30,31,30,31,31,30,31,30,31};

	BYTE* tokens[20];
	short tokcpl[20];

	static long cyear, ccntry;
	static int first=1;

	// Determine current century and year
	if (first)
	{
	  date(&dy,&mo,&yr);
	  cyear = yr%100;
	  ccntry = yr-cyear;
	  first=0;
	}

	*ymd=0;

//	get rid	of front and/or	back blanks

	if(!(nf=Parse(&reply[repfld[0]-1],repfld[1],tokens,tokcpl)))
							       return FALSE;
	if(nf!=1) return TRUE;

//	identify / or -	separaters and build fields

	for(i=nf=0,flds[nf][0]=1,flds[nf][1]=0;	i<tokcpl[0]; i++)
	  if(tokens[0][i]=='/' || tokens[0][i]=='-')
	  {
	    nf++; if(nf>2) return TRUE;
	    flds[nf][0]=flds[nf-1][0]+flds[nf-1][1]+1;
	    flds[nf][1]=0;
	  }
	  else flds[nf][1]++;
	nf++;
	if(nf!=1 && nf!=3) return TRUE;

//	build month day	year from mm/dd/yy type	input or yymmdd

	if(nf==3)
	{
	  if(chcdbf(tokens[0],flds[0],mdy,&n3)) return TRUE;

	  // 2 digit year input
	  if (flds[2][1]<=2)
	  {
		 if(cyear<50)
		 {
		   if(mdy[2]<50)
				mdy[2] += ccntry;
			else
				mdy[2] += (ccntry-100);
		 }
		 else
		 {
		   if(mdy[2]<50)
				mdy[2] += (ccntry+100);
			else
				mdy[2] += ccntry;
		 }
	  }

	  // Full year input
	  else mdy[2] -= 1900;


	  *ymd=mdy[2]*10000+mdy[0]*100+mdy[1];
	  if(mdy[2]<0) return TRUE;
	}

// Convert yymmdd directly
	else if(chcdbf(tokens[0],flds[0],ymd,&n1)) return TRUE;

//	audit date

	if(!*ymd) return FALSE;

	yr=*ymd/10000;
	remain=*ymd%10000;
	mo=remain/100;
	dy=remain%100;

	if(mo<1	|| mo >	12) return TRUE;
	if(dy<1	|| dy >	daymon[mo-1]) return TRUE;

// 2/29 audit

	if (dy==29 && mo==2)
	{
	 if (yr<1900) yr+=1900;
	 if (!(yr%4==0 && (yr%100!=0 || yr%400==0))) return TRUE;
	}

// Full year entered?

	if (yr>=1900)
	{
	yr-=1900;
	*ymd=yr*10000+mo*100+dy;
	}

	return FALSE;

// -----------------------------------------------------------------------
} // cdatec END
// -----------------------------------------------------------------------