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Overview
Comment:Remove OP_Int64 and OP_Real. OP_Num is now used instead.
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SHA1: 860695f9be77e7658f41f3fa95d84dd0daf24d49
User & Date: dan 2013-05-31 19:34:06.730
Context
2013-05-31
19:37
Merge sqlite4-num branch with trunk. check-in: 7b0d1cf7f4 user: dan tags: trunk
19:34
Remove OP_Int64 and OP_Real. OP_Num is now used instead. Leaf check-in: 860695f9be user: dan tags: sqlite4-num
19:19
Remove uses of type 'double' from the vdbe. check-in: e018823162 user: dan tags: sqlite4-num
Changes
Unified Diff Ignore Whitespace Patch
Changes to src/expr.c.
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    if( p ){
      *p = sqlite4_num_from_text(z, -1, 0, 0);
      assert( p->sign==0 );
      assert( negateFlag==0 || negateFlag==1 );
      p->sign = negateFlag;
      sqlite4VdbeAddOp4(v, OP_Num, 0, iMem, 0, (const char *)p, P4_NUM);
    }
#if 0
    double value;
    char *zV;
    sqlite4AtoF(z, &value, sqlite4Strlen30(z), SQLITE4_UTF8);
    assert( !sqlite4IsNaN(value) ); /* The new AtoF never returns NaN */
    if( negateFlag ) value = -value;
    zV = dup8bytes(v, (char*)&value);
    sqlite4VdbeAddOp4(v, OP_Real, 0, iMem, 0, zV, P4_REAL);
#endif
  }
}
#endif


/*
** Generate an instruction that will put the integer describe by








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    if( p ){
      *p = sqlite4_num_from_text(z, -1, 0, 0);
      assert( p->sign==0 );
      assert( negateFlag==0 || negateFlag==1 );
      p->sign = negateFlag;
      sqlite4VdbeAddOp4(v, OP_Num, 0, iMem, 0, (const char *)p, P4_NUM);
    }









  }
}
#endif


/*
** Generate an instruction that will put the integer describe by
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    assert( z!=0 );

    p = (sqlite4_num *)sqlite4DbMallocRaw(pParse->db, sizeof(sqlite4_num));
    if( p ){
      *p = sqlite4_num_from_text(z, -1, (negFlag ? SQLITE4_NEGATIVE : 0), 0);
      sqlite4VdbeAddOp4(v, OP_Num, p->e==0, iMem, 0, (const char *)p, P4_NUM);
    }

#if 0
    c = sqlite4Atoi64(z, &value, sqlite4Strlen30(z), SQLITE4_UTF8);
    if( c==0 || (c==2 && negFlag) ){
      char *zV;
      if( negFlag ){ value = c==2 ? SMALLEST_INT64 : -value; }
      zV = dup8bytes(v, (char*)&value);
      sqlite4VdbeAddOp4(v, OP_Int64, 0, iMem, 0, zV, P4_INT64);
    }else{
#ifdef SQLITE4_OMIT_FLOATING_POINT
      sqlite4ErrorMsg(pParse, "oversized integer: %s%s", negFlag ? "-" : "", z);
#else
      codeReal(v, z, negFlag, iMem);
#endif
    }
#endif
  }
}

/*
** Clear a cache entry.
*/
static void cacheEntryClear(Parse *pParse, ParseYColCache *p){








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    assert( z!=0 );

    p = (sqlite4_num *)sqlite4DbMallocRaw(pParse->db, sizeof(sqlite4_num));
    if( p ){
      *p = sqlite4_num_from_text(z, -1, (negFlag ? SQLITE4_NEGATIVE : 0), 0);
      sqlite4VdbeAddOp4(v, OP_Num, p->e==0, iMem, 0, (const char *)p, P4_NUM);
    }
















  }
}

/*
** Clear a cache entry.
*/
static void cacheEntryClear(Parse *pParse, ParseYColCache *p){
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Changes to src/pragma.c.
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/*
** Generate code to return a single integer value.
*/
static void returnSingleInt(Parse *pParse, const char *zLabel, i64 value){
  Vdbe *v = sqlite4GetVdbe(pParse);
  int mem = ++pParse->nMem;


  i64 *pI64 = sqlite4DbMallocRaw(pParse->db, sizeof(value));
  if( pI64 ){
    memcpy(pI64, &value, sizeof(value));
  }
  sqlite4VdbeAddOp4(v, OP_Int64, 0, mem, 0, (char*)pI64, P4_INT64);
  sqlite4VdbeSetNumCols(v, 1);
  sqlite4VdbeSetColName(v, 0, COLNAME_NAME, zLabel, SQLITE4_STATIC);
  sqlite4VdbeAddOp2(v, OP_ResultRow, mem, 1);
}

#ifndef SQLITE4_OMIT_FLAG_PRAGMAS
/*








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/*
** Generate code to return a single integer value.
*/
static void returnSingleInt(Parse *pParse, const char *zLabel, i64 value){
  Vdbe *v = sqlite4GetVdbe(pParse);
  int mem = ++pParse->nMem;
  sqlite4_num *pNum;

  pNum = sqlite4DbMallocRaw(pParse->db, sizeof(value));
  if( pNum ){
    *pNum = sqlite4_num_from_int64(value);
  }
  sqlite4VdbeAddOp4(v, OP_Num, 1, mem, 0, (char *)pNum, P4_NUM);
  sqlite4VdbeSetNumCols(v, 1);
  sqlite4VdbeSetColName(v, 0, COLNAME_NAME, zLabel, SQLITE4_STATIC);
  sqlite4VdbeAddOp2(v, OP_ResultRow, mem, 1);
}

#ifndef SQLITE4_OMIT_FLAG_PRAGMAS
/*
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Changes to src/vdbe.c.
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** The 32-bit integer value P1 is written into register P2.
*/
case OP_Integer: {         /* out2-prerelease */
  pOut->u.num = sqlite4_num_from_int64((i64)pOp->p1);
  break;
}

/* Opcode: Int64 * P2 * P4 *
**
** P4 is a pointer to a 64-bit integer value.
** Write that value into register P2.
*/
case OP_Int64: {           /* out2-prerelease */
  assert( pOp->p4.pI64!=0 );
  pOut->u.num = sqlite4_num_from_int64(*pOp->p4.pI64);
  break;
}

#ifndef SQLITE4_OMIT_FLOATING_POINT
/* Opcode: Real * P2 * P4 *
**
** P4 is a pointer to a 64-bit floating point value.
** Write that value into register P2.
*/
case OP_Real: {            /* same as TK_FLOAT, out2-prerelease */
  pOut->flags = MEM_Real;
  assert( !sqlite4IsNaN(*pOp->p4.pReal) );
  pOut->u.num = sqlite4_num_from_double(*pOp->p4.pReal);
  break;
}
#endif

/* Opcode: Num P1 P2 * P4 *
**
** P4 is a pointer to an sqlite4_num value. Write that value into 
** register P2. Set the register flags to MEM_Int if P1 is non-zero,
** or MEM_Real otherwise.
*/
case OP_Num: {            /* out2-prerelease */








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** The 32-bit integer value P1 is written into register P2.
*/
case OP_Integer: {         /* out2-prerelease */
  pOut->u.num = sqlite4_num_from_int64((i64)pOp->p1);
  break;
}


























/* Opcode: Num P1 P2 * P4 *
**
** P4 is a pointer to an sqlite4_num value. Write that value into 
** register P2. Set the register flags to MEM_Int if P1 is non-zero,
** or MEM_Real otherwise.
*/
case OP_Num: {            /* out2-prerelease */
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