//////////
//
// Function: VARTYPE()
// Returns the variable type, parsing NULL values.
//
//////
// Version 0.57
// Last update:
// Apr.06.2015
//////
// Change log:
// Apr.06.2015 - Initial creation
//////
// Parameters:
// P1 -- The variable to examine
// P2 -- (Optional) If provided, .t. or .f. indicating if NULL values should return the type (default to .f.)
//
//////
// Returns:
// Character -- A one-digit value indicating the type
//////
void function_vartype(SThisCode* thisCode, SFunctionParams* rpar)
{
SVariable* var = rpar->ip[0];
SVariable* varNull = rpar->ip[1];
bool llNullIsType;
bool error;
u32 errorNum;
//////////
// varLookup must exist
//////
rpar->rp[0] = NULL;
if (!iVariable_isValidType(var))
{
iError_reportByNumber(thisCode, _ERROR_P1_IS_INCORRECT, iVariable_getRelatedComp(thisCode, var), false);
return;
}
//////////
// If varNull is specified, must be logical
//////
if (varNull)
{
//////////
// Must be logical
//////
if (!iVariable_isValid(varNull) || !iVariable_isTypeLogical(varNull))
{
iError_reportByNumber(thisCode, _ERROR_P2_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varNull), false);
return;
}
//////////
// Grab the value
//////
llNullIsType = iiVariable_getAs_bool(thisCode, varNull, false, &error, &errorNum);
if (error)
{
iError_reportByNumber(thisCode, errorNum, iVariable_getRelatedComp(thisCode, varNull), false);
return;
}
} else {
// Do not report on NULL types
llNullIsType = false;
}
//////////
// Compute our result
//////
ifunction_type_common(thisCode, rpar, var, false, true, llNullIsType);
}
//////////
//
// Function: EMPTY()
// Determines whether an expression evaluates to empty.
//
//////
// Version 0.57
// Last update:
// Mar.20.2015
//////
// Change log:
// Mar.20.2015 - Refactoring by Stefano D'Amico
// Mar.19.2015 - Refactoring by Rick C. Hodgin
// Mar.19.2015 - Initial creation by Stefano D'Amico
//////
// Parameters:
// p1 -- Specifies the expression that EMPTY( ) evaluates.
//
//////
// Returns:
// EMPTY( ) returns True (.T.) if the expression eExpression evaluates to empty;
// otherwise, EMPTY( ) returns False (.F.)
//////
// Example:
// ? EMPTY("AA") && Display .F.
// ? EMPTY(" ") && Display .T.
// ? EMPTY(0.0) && Display .T.
//////
void function_empty(SThisCode* thisCode, SFunctionParms* rpar)
{
SVariable* varExpr = rpar->params[0];
bool llEmpty;
SVariable* result;
//////////
// Verify the expression is correct
//////
rpar->returns[0] = NULL;
if (!iVariable_isValid(varExpr))
{
iError_reportByNumber(thisCode, _ERROR_PARAMETER_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varExpr), false);
return;
}
//////////
// Create and populate the return variable
//////
llEmpty = function_isempty_common(thisCode, rpar, varExpr);
result = iVariable_createAndPopulate_byText(thisCode, _VAR_TYPE_LOGICAL, (cs8*)((llEmpty) ? &_LOGICAL_TRUE : &_LOGICAL_FALSE), 1, false);
if (!result)
iError_reportByNumber(thisCode, _ERROR_INTERNAL_ERROR, iVariable_getRelatedComp(thisCode, varExpr), false);
//////////
// Signify our result
//////
rpar->returns[0] = result;
}
//////////
//
// Function: VECCOUNT()
// The vector element count.
//
//////
// Version 0.57
// Last update:
// Mar.21.2015
//////
// Change log:
// Mar.21.2015 - Initial creation
//////
// Parameters:
// varVec - Vector
//
//////
// Returns:
// Numeric, the number of elements in the vector.
//////
void function_veccount(SThisCode* thisCode, SFunctionParams* rpar)
{
SVariable* varVec = rpar->ip[0];
// Not yet completed
iError_reportByNumber(thisCode, _ERROR_FEATURE_NOT_AVAILABLE, iVariable_getRelatedComp(thisCode, varVec), false);
rpar->rp[0] = NULL;
}
//////////
//
// Function: EVL()
// Returns a non-empty value from two expressions.
//
//////
// Version 0.57
// Last update:
// Mar.20.2015
//////
// Change log:
// Mar.20.2015 - Some refactoring by Rick C. Hodgin
// Mar.20.2015 - Initial creation by Stefano D'Amico
//////
// Parameters:
// p1 -- Specifies the expression that EMPTY( ) evaluates.
// p2 -- Specifies the expression to return if p1 is empty.
//
//////
// Returns:
// EVL( ) returns p1 if it does not evaluate to an empty value; otherwise, it returns p2.
//////
// Example:
// ? EVL(" ", "None") && Display "None"
//////
void function_evl(SThisCode* thisCode, SFunctionParms* rpar)
{
SVariable* varExpr1 = rpar->params[0];
SVariable* varExpr2 = rpar->params[1];
bool llEmpty;
SVariable* result;
//////////
// Verify p1 is correct
//////
rpar->returns[0] = NULL;
if (!iVariable_isValid(varExpr1))
{
iError_reportByNumber(thisCode, _ERROR_P1_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varExpr1), false);
return;
}
//////////
// Verify p2 is correct
//////
if (!iVariable_isValid(varExpr2))
{
iError_reportByNumber(thisCode, _ERROR_P2_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varExpr2), false);
return;
}
//////////
// Create our result
//////
llEmpty = function_isempty_common(thisCode, rpar, varExpr1);
result = iVariable_copy(thisCode, ((llEmpty) ? varExpr2 : varExpr1), false);
if (!result)
iError_reportByNumber(thisCode, _ERROR_INTERNAL_ERROR, iVariable_getRelatedComp(thisCode, ((llEmpty) ? varExpr2 : varExpr1)), false);
//////////
// Signify our result
//////
rpar->returns[0] = result;
}
//////////
//
// Function: VECSTR()
// Generates a character string containing the vectors.
//
//////
// Version 0.57
// Last update:
// Mar.21.2015
//////
// Change log:
// Mar.21.2015 - Initial creation
//////
// Parameters:
// varVec - Vector
// varSymbolOverride - A symbol to use between vectors
//
//////
// Returns:
// A character string containing the vector values interspersed with symbol space, or the varSymbolOverride
//////
void function_vecstr(SThisCode* thisCode, SFunctionParams* rpar)
{
// SVariable* varVec = rpar->params[0];
// SVariable* varSymbolOverride = rpar->params[1];
// Not yet completed
iError_reportByNumber(thisCode, _ERROR_FEATURE_NOT_AVAILABLE, NULL, false);
rpar->rp[0] = NULL;
}
//////////
//
// Function: ENDSWITHC()
// Case-insensitive version of ENDSWITH()
//
//////
void function_endswithc(SThisCode* thisCode, SFunctionParms* rpar)
{
SVariable* varString = rpar->params[0];
// SVariable* varSearch = rpar->params[1];
// SVariable* varStart = rpar->params[2];
// SVariable* varEnd = rpar->params[3];
// Not yet completed
iError_reportByNumber(thisCode, _ERROR_FEATURE_NOT_AVAILABLE, iVariable_getRelatedComp(thisCode, varString), false);
}
//////////
//
// Function: VECSTUFF()
// Updates or resizes a vector element. Works like STUFF().
//
//////
// Version 0.57
// Last update:
// Mar.21.2015
//////
// Change log:
// Mar.21.2015 - Initial creation
//////
// Parameters:
// varVec - Vector
// varStartEl - Element to start the operation at.
// varRemoveCount - The number of elements to remove
// varVecStuff - (Optional) The new vector to stuff in there after varStartEl
//
//////
// Returns:
// if varNewValue was specified, returns the new vector
// else returns the value of that element
//////
void function_vecstuff(SThisCode* thisCode, SFunctionParams* rpar)
{
SVariable* varVec = rpar->ip[0];
// SVariable* varStartEl = rpar->params[1];
// SVariable* varRemoveCount = rpar->params[2];
// SVariable* varVecStuff = rpar->params[3];
// Not yet completed
iError_reportByNumber(thisCode, _ERROR_FEATURE_NOT_AVAILABLE, iVariable_getRelatedComp(thisCode, varVec), false);
rpar->rp[0] = NULL;
}
//////////
//
// Function: LOWER()
// Converts every character in the string to lowercase.
//
//////
// Version 0.57
// Last update:
// Jul.12.2014
//////
// Change log:
// Jul.12.2014 - Initial creation
//////
// Parameters:
// pString -- Character, the string to lower
//
//////
// Returns:
// Character -- The string with all lowercase characters converted to lowercase
//////
void function_lower(SThisCode* thisCode, SFunctionParms* rpar)
{
SVariable* varString = rpar->params[0];
s32 lnI;
SVariable* result;
//////////
// Parameter 1 must be character
//////
rpar->returns[0] = NULL;
if (!iVariable_isValid(varString) || iVariable_getType(varString) != _VAR_TYPE_CHARACTER)
{
iError_reportByNumber(thisCode, _ERROR_P1_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varString), false);
return;
}
//////////
// Create our return result
//////
result = iVariable_create(thisCode, _VAR_TYPE_CHARACTER, NULL, true);
if (!result)
{
iError_report(thisCode, cgcInternalError, false);
return;
}
//////////
// Copy the source string
//////
iDatum_duplicate(&result->value, &varString->value);
//////////
// Lower every character
//////
for (lnI = 0; lnI < result->value.length; lnI++)
{
if (result->value.data[lnI] >= 'A' && result->value.data[lnI] <= 'Z')
result->value.data[lnI] += 0x20;
}
//////////
// Return our converted result
//////
rpar->returns[0] = result;
}
//////////
//
// Function: LEN()
// Returns the length of the string.
//
//////
// Version 0.57
// Last update:
// Jul.12.2014
//////
// Change log:
// Jul.12.2014 - Initial creation
//////
// Parameters:
// pString -- Character, the string to return the length from
//
//////
// Returns:
// Numeric -- The length of the string
//////
void function_len(SThisCode* thisCode, SFunctionParms* rpar)
{
SVariable* varString = rpar->params[0];
SVariable* result;
//////////
// Parameter 1 must be character
//////
rpar->returns[0] = NULL;
if (!iVariable_isValid(varString) || iVariable_getType(varString) != _VAR_TYPE_CHARACTER)
{
iError_reportByNumber(thisCode, _ERROR_P1_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varString), false);
return;
}
//////////
// Create our return result
//////
result = iVariable_create(thisCode, _VAR_TYPE_S32, NULL, true);
if (!result)
{
iError_report(thisCode, cgcInternalError, false);
return;
}
//////////
// Populate based on the length
//////
*(s32*)result->value.data = varString->value.length;
//////////
// Return our converted result
//////
rpar->returns[0] = result;
}
//////////
//
// Function: VERSION()
// Based on input, retrieves various version information.
//
//////
// Version 0.57
// Last update:
// Jul.13.2014
//////
// Change log:
// Jul.13.2014 - Initial creation
//////
// Parameters:
// pIndex -- (Optional) If present, Numeric, in the range 1..5
//
//////
// Returns:
// Numeric or Character -- Depending on index, various values are returned
//////
void function_version(SThisCode* thisCode, SFunctionParams* rpar)
{
SVariable* varIndex = rpar->ip[0];
s32 index;
u32 errorNum;
bool error;
u8* lptr;
SVariable* result;
//////////
// Parameter 1 must be numeric
//////
rpar->rp[0] = NULL;
lptr = NULL;
if (!iVariable_isValid(varIndex))
{
// They are requesting the default information
lptr = (u8*)cgcVersionText;
} else if (!iVariable_isTypeNumeric(varIndex)) {
// The parameter is not numeric
iError_reportByNumber(thisCode, _ERROR_P1_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varIndex), false);
return;
} else {
// It must be in the range 1..5
index = iiVariable_getAs_s32(thisCode, varIndex, false, &error, &errorNum);
if (error)
{
iError_reportByNumber(thisCode, errorNum, iVariable_getRelatedComp(thisCode, varIndex), false);
return;
} else if (index < 1 || index > 5) {
// We report our own error
iError_report(thisCode, (cu8*)"Parameter must be in the range 1..5", false);
return;
}
}
//////////
// Create our return result
//////
if (lptr || index == 1 || index == 4)
{
// Character return
result = iVariable_create(thisCode, _VAR_TYPE_CHARACTER, NULL, true);
if (lptr)
{
// Copy the version info
iDatum_duplicate(&result->value, lptr, -1);
} else if (index == 1) {
// Copy the version1 info
iDatum_duplicate(&result->value, cgcVersion1Text, -1);
} else {
// Copy the version4 info
iDatum_duplicate(&result->value, cgcVersion4Text, -1);
}
} else {
result = iVariable_create(thisCode, _VAR_TYPE_S32, NULL, true);
if (index == 2)
{
// 0=runtime, 1=standard, 2=professional
*(s32*)result->value.data = gnVersion2; // Oh yeah!
} else if (index == 3) {
// Localized version
*(s32*)result->value.data = gnVersion3; // English
} else {
// Version in a form like Major.Minor as M.mm, or 123 for version 1.23
*(s32*)result->value.data = gnVersion5;
}
}
if (!result)
{
iError_report(thisCode, cgcInternalError, false);
return;
}
//////////
// Return our converted result
//////
rpar->rp[0] = result;
}
//////////
//
// Function: VAL()
// Returns a numeric or currency value from a expression.
//
//////
// Version 0.57
// Last update:
// Mar.22.2015
//////
// Change log:
// Mar.21.2015 - Initial creation by Stefano D'Amico
//////
// Parameters:
// varExpr -- Any, to convert
// varIgnoreList -- Characters to ignore
//
//////
// Returns:
// Numeric -- VAL( ) returns the numbers in the character expression from left to right until a non-numeric character is encountered.
// Leading blanks are ignored.
// VAL( ) returns 0 if the first character of the character expression is not a number, a dollar sign ($), a plus sign (+), or minus sign (-).
//////
void function_val(SThisCode* thisCode, SFunctionParams* rpar)
{
SVariable* varExpr = rpar->ip[0];
SVariable* varIgnoreChars = rpar->ip[1];
s8 c, cCurrency, cPoint, cSeparator;
s32 lnI, lnJ, lnBuffOffset;
s64 lnValue;
f64 lfValue;
bool llAsInteger, llStillGoing, llCurrency;
SVariable* varCurrency;
SVariable* varPoint;
SVariable* varSeparator;
SVariable* result;
u32 errorNum;
bool error;
s8 buffer[64];
//////////
// Parameter 1 must be valid
//////
rpar->rp[0] = NULL;
if (!iVariable_isValid(varExpr))
{
iError_reportByNumber(thisCode, _ERROR_P1_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varExpr), false);
return;
}
//////////
// If numeric, copy whatever's already there
//////
if (varExpr->varType >= _VAR_TYPE_NUMERIC_START && varExpr->varType <= _VAR_TYPE_NUMERIC_END)
{
// Copy The existing variable
result = iVariable_copy(thisCode, varExpr, false);
if (!result)
iError_reportByNumber(thisCode, _ERROR_INTERNAL_ERROR, iVariable_getRelatedComp(thisCode, varExpr), false);
// Success or failure, return our result
rpar->rp[0] = result;
return;
}
//////////
// Determine what we're evaluating
//////
switch (varExpr->varType)
{
case _VAR_TYPE_NULL:
iError_reportByNumber(thisCode, _ERROR_P1_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varExpr), false);
return;
break;
case _VAR_TYPE_LOGICAL: // 0=.F., 1=.T.
case _VAR_TYPE_DATE: // YYYYMMDD
result = iVariable_create(thisCode, _VAR_TYPE_S32, NULL, true);
if (result)
{
// Populate the s32
*result->value.data_s32 = iiVariable_getAs_s32(thisCode, varExpr, true, &error, &errorNum);
if (error)
iError_reportByNumber(thisCode, errorNum, iVariable_getRelatedComp(thisCode, varExpr), false);
}
break;
case _VAR_TYPE_DATETIME:
// YYYYMMDDHhMmSsMss as s64
case _VAR_TYPE_DATETIMEX:
// YYYYMMDDHhMmSsNssssssss
result = iVariable_create(thisCode, _VAR_TYPE_S64, NULL, true);
if (result)
{
// Populate the s64
*result->value.data_s64 = iiVariable_getAs_s64(thisCode, varExpr, true, &error, &errorNum);
if (error)
iError_reportByNumber(thisCode, errorNum, iVariable_getRelatedComp(thisCode, varExpr), false);
}
break;
case _VAR_TYPE_CHARACTER:
//////////
// If present, parameter 2 must be valid
//////
if (varIgnoreChars)
{
if (!iVariable_isValid(varIgnoreChars) || !iVariable_isTypeCharacter(varIgnoreChars))
{
iError_reportByNumber(thisCode, _ERROR_P2_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varIgnoreChars), false);
return;
}
}
//////////
// Prepare our characters
//////
varCurrency = propGet_settings_Currency(_settings);
varPoint = propGet_settings_Point(_settings);
varSeparator = propGet_settings_Separator(_settings);
if (!varCurrency || !varPoint || !varSeparator)
{
// Should never happen
iError_reportByNumber(thisCode, _ERROR_INTERNAL_ERROR, NULL, false);
return;
}
//////////
// Create single characters
//////
cCurrency = varCurrency->value.data_s8[0];
cPoint = varPoint->value.data_s8[0];
cSeparator = varSeparator->value.data_s8[0];
//////////
// Iterate through each character
//////
for (lnI = 0, lnBuffOffset = 0, llStillGoing = true, llCurrency = false; llStillGoing && lnI < (s32)varExpr->value.length && lnBuffOffset < (s32)sizeof(buffer) - 1; lnI++)
{
//////////
// Grab this character
//////
c = varExpr->value.data[lnI];
//////////
// Is it a character we're including in our buffer (a number, or natural number-related symbol)?
//////
if ((c >= '0' && c <= '9' ) || c == '+' || c == '-' || c == cPoint)
{
// Yes, Copy this character
buffer[lnBuffOffset++] = c;
} else {
// Are we still in a valid sequence of characters to skip?
if (c == ' ' || c == cSeparator)
{
// It's a character we're skipping naturally (space, separator symbol)
// We don't do anything here ... it's just more clear to keep this logic visible rather than inverting it. :-)
} else if (c == cCurrency) {
// We encountered the currency symbol, so the output will be currency
llCurrency = true;
} else if (varIgnoreChars) {
// We won't continue unless we're sitting on a character in the varIgnoreChars
for (lnJ = 0, llStillGoing = false; lnJ < varIgnoreChars->value.length; lnJ++)
{
// Is this one of our skip characters?
if (c == varIgnoreChars->value.data_s8[lnJ])
{
llStillGoing = true;
break;
}
}
} else {
// We're done
break;
}
}
}
// NULL terminate
buffer[lnBuffOffset] = 0;
//////////
// Convert to f64, and s64
//////
lfValue = atof(buffer);
#if defined(__GNUC__) || defined(__solaris__)
lnValue = strtoll(buffer, NULL, 10);
#else
lnValue = _strtoi64(buffer, NULL, 10);
#endif
//////////
// Is currency or not? If it's an integer value, store it as the same, otherwise use floating point
//////
if ((f64)lnValue == lfValue)
{
// We can return as an integer
llAsInteger = true;
if (llCurrency)
{
// Multiply by 10000 to obtain the 4 implied decimal places
lnValue = lnValue * 10000;
result = iVariable_create(thisCode, _VAR_TYPE_CURRENCY, NULL, true);
} else {
if (lnValue < (s64)_s32_max)
{
// We can create as an s32
result = iVariable_create(thisCode, _VAR_TYPE_S32, NULL, true);
} else {
// Create as an s64
result = iVariable_create(thisCode, _VAR_TYPE_S64, NULL, true);
}
}
} else {
// Must return as f64
llAsInteger = false;
if (llCurrency)
{
// As currency
lfValue *= 10000.0;
result = iVariable_create(thisCode, _VAR_TYPE_CURRENCY, NULL, true);
} else {
// As is
result = iVariable_create(thisCode, _VAR_TYPE_F64, NULL, true);
}
}
//////////
// Store the result
//////
if (result)
{
if (llAsInteger) iVariable_setNumeric_toNumericType(thisCode, result, NULL, NULL, NULL, NULL, &lnValue, NULL);
else iVariable_setNumeric_toNumericType(thisCode, result, NULL, &lfValue, NULL, NULL, NULL, NULL);
}
break;
default:
// Unrecognized type
iError_reportByNumber(thisCode, _ERROR_FEATURE_NOT_AVAILABLE, iVariable_getRelatedComp(thisCode, varExpr), false);
return;
}
//////////
// Are we good?
//////
if (!result)
iError_reportByNumber(thisCode, _ERROR_INTERNAL_ERROR, iVariable_getRelatedComp(thisCode, varExpr), false);
//////////
// Return our converted result
//////
rpar->rp[0] = result;
}
//////////
//
// Function: LEFT()
// Returns the left N characters of a string.
//
//////
// Version 0.57
// Last update:
// Jul.12.2014
//////
// Change log:
// Jul.12.2014 - Initial creation
//////
// Parameters:
// pString -- Character, the string to trim
// pCount -- Numeric, the number of characters to copy
//
//////
// Returns:
// Character -- The string of the left N characters
//////
void function_left(SThisCode* thisCode, SFunctionParms* rpar)
{
SVariable* varString = rpar->params[0];
SVariable* varCount = rpar->params[1];
s32 lnLength;
u32 errorNum;
bool error;
SVariable* result;
//////////
// Parameter 1 must be character
//////
rpar->returns[0] = NULL;
if (!iVariable_isValid(varString) || iVariable_getType(varString) != _VAR_TYPE_CHARACTER)
{
iError_reportByNumber(thisCode, _ERROR_P1_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varString), false);
return;
}
//////////
// Parameter 2 must be numeric
//////
if (!iVariable_isValid(varCount) || !iVariable_isTypeNumeric(varCount))
{
iError_reportByNumber(thisCode, _ERROR_P2_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varCount), false);
return;
}
//////////
// Find out how long they want our string to be
//////
lnLength = iiVariable_getAs_s32(thisCode, varCount, false, &error, &errorNum);
if (error)
{
iError_reportByNumber(thisCode, errorNum, iVariable_getRelatedComp(thisCode, varCount), false);
return;
}
//////////
// Create our return result
//////
result = iVariable_create(thisCode, _VAR_TYPE_CHARACTER, NULL, true);
if (!result)
{
iError_report(thisCode, cgcInternalError, false);
return;
}
//////////
// Copy as much of the source string as will fit
//////
if (lnLength > 0)
iDatum_duplicate(&result->value, varString->value.data_u8, min(varString->value.length, lnLength));
//////////
// Return our converted result
//////
rpar->returns[0] = result;
}
// Common numeric functions used for EXP(), LOG(), LOG10(), PI(), SQRT(), CEILING(), FLOOR(), DTOR(), RTOD(), ...
void ifunction_numbers_common(SThisCode* thisCode, SFunctionParms* rpar, SVariable* varNumber1, SVariable* varNumber2, SVariable* varNumber3, u32 tnFunctionType, const u32 tnResultType, bool tlSameInputType, bool tlNoEmptyParam)
{
f64 lfResult, lfValue1, lfValue2, lfValue3;
u32 errorNum;
bool error;
SVariable* result;
//////////
// If varNumber1 is provided, must also be numeric
//////
rpar->returns[0] = NULL;
if (varNumber1)
{
//////////
// Must be numeric
//////
if (!iVariable_isValid(varNumber1) || !iVariable_isTypeNumeric(varNumber1))
{
iError_reportByNumber(thisCode, _ERROR_PARAMETER_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varNumber1), false);
return;
}
//////////
// Convert to f64
//////
lfValue1 = iiVariable_getAs_f64(thisCode, varNumber1, false, &error, &errorNum);
if (error)
{
iError_reportByNumber(thisCode, errorNum, iVariable_getRelatedComp(thisCode, varNumber1), false);
return;
}
//////////
// Check empty param
//////
if (tlNoEmptyParam && lfValue1 == 0.0)
{
iError_reportByNumber(thisCode, _ERROR_CANNOT_BE_ZERO, iVariable_getRelatedComp(thisCode, varNumber1), false);
return;
}
} else {
lfValue1 = 0.0;
}
//////////
// If varNumber2 is provided, must also be numeric
//////
if (varNumber2)
{
//////////
// Must be numeric
//////
if (!iVariable_isValid(varNumber2) || !iVariable_isTypeNumeric(varNumber2))
{
iError_reportByNumber(thisCode, _ERROR_PARAMETER_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varNumber2), false);
return;
}
//////////
// Convert to f64
//////
lfValue2 = iiVariable_getAs_f64(thisCode, varNumber2, false, &error, &errorNum);
if (error)
{
iError_reportByNumber(thisCode, errorNum, iVariable_getRelatedComp(thisCode, varNumber2), false);
return;
}
//////////
// Check empty param
//////
if (tlNoEmptyParam && lfValue2 == 0.0)
{
iError_reportByNumber(thisCode, _ERROR_CANNOT_BE_ZERO, iVariable_getRelatedComp(thisCode, varNumber2), false);
return;
}
} else {
lfValue2 = 0.0;
}
//////////
// If varNumber3 is provided, must also be numeric
//////
if (varNumber3)
{
//////////
// Must be numeric
//////
if (!iVariable_isValid(varNumber3) || !iVariable_isTypeNumeric(varNumber3))
{
iError_reportByNumber(thisCode, _ERROR_PARAMETER_IS_INCORRECT, iVariable_getRelatedComp(thisCode, varNumber3), false);
return;
}
//////////
// Convert to f64
//////
lfValue3 = iiVariable_getAs_f64(thisCode, varNumber3, false, &error, &errorNum);
if (error)
{
iError_reportByNumber(thisCode, errorNum, iVariable_getRelatedComp(thisCode, varNumber3), false);
return;
}
//////////
// Check empty param
//////
if (tlNoEmptyParam && lfValue3 == 0.0)
{
iError_reportByNumber(thisCode, _ERROR_CANNOT_BE_ZERO, iVariable_getRelatedComp(thisCode, varNumber3), false);
return;
}
} else {
lfValue3 = 0.0;
}
//////////
// Compute numeric function
//////
switch (tnFunctionType)
{
// SQRT()
case _FP_COMMON_SQRT:
//////////
// Verify p1 >= 0
//////
if (lfValue1 < 0.0)
{
// Oops!
iError_reportByNumber(thisCode, _ERROR_CANNOT_BE_NEGATIVE, iVariable_getRelatedComp(thisCode, varNumber1), false);
return;
}
//////////
// Compute sqrt
//////
lfResult = sqrt(lfValue1);
break;
// EXP()
case _FP_COMMON_EXP:
lfResult = exp(lfValue1);
break;
// PI()
case _FP_COMMON_PI:
lfResult = _MATH_PI;
break;
// LOG()
// LOG10()
case _FP_COMMON_LOG:
case _FP_COMMON_LOG10:
//////////
// Verify p1 > 0
//////
if (lfValue1 <= 0.0)
{
// Oops!
iError_reportByNumber(thisCode, _ERROR_CANNOT_BE_ZERO_OR_NEGATIVE, iVariable_getRelatedComp(thisCode, varNumber1), false);
return;
}
//////////
// Compute
//////
if (tnFunctionType == _FP_COMMON_LOG) lfResult = log(lfValue1);
else lfResult = log10(lfValue1);
break;
// CEILING()
case _FP_COMMON_CEILING:
lfResult = ceil(lfValue1);
break;
// FLOOR()
case _FP_COMMON_FLOOR:
lfResult = floor(lfValue1);
break;
// DTOR()
case _FP_COMMON_DTOR:
lfResult = lfValue1 * _MATH_PI180;
break;
// RTOD()
case _FP_COMMON_RTOD:
lfResult = lfValue1 * _MATH_180PI;
break;
// COS()
case _FP_COMMON_COS:
lfResult = cos(lfValue1);
break;
// SIN()
case _FP_COMMON_SIN:
lfResult = sin(lfValue1);
break;
// ABS()
case _FP_COMMON_ABS:
lfResult = abs(lfValue1);
break;
// ACOS()
// ASIN()
case _FP_COMMON_ACOS:
case _FP_COMMON_ASIN:
//////////
// Verify p1 > 0
//////
if (lfValue1 < -1 || lfValue1 > 1)
{
// Oops!
iError_reportByNumber(thisCode, _ERROR_OUT_OF_RANGE, iVariable_getRelatedComp(thisCode, varNumber1), false);
return;
}
//////////
// Compute
//////
if (tnFunctionType == _FP_COMMON_ACOS) lfResult = acos(lfValue1);
else lfResult = asin(lfValue1);
break;
// ATAN()
case _FP_COMMON_ATAN:
//////////
// Verify p1 > 0
//////
if (lfValue1 < -_MATH_PI2 || lfValue1 > _MATH_PI2)
{
// Oops!
iError_reportByNumber(thisCode, _ERROR_OUT_OF_RANGE, iVariable_getRelatedComp(thisCode, varNumber1), false);
return;
}
//////////
// Compute
//////
lfResult = atan(lfValue1);
break;
// ATN2()
case _FP_COMMON_ATN2:
lfResult = atan2(lfValue1, lfValue2);
break;
// TAN()
case _FP_COMMON_TAN:
lfResult = tan(lfValue1);
break;
// MOD()
case _FP_COMMON_MOD:
//////////
// Verify divisor not 0
//////
if (lfValue2 == 0.0)
{
// Oops!
iError_reportByNumber(thisCode, _ERROR_DIVISION_BY_ZERO, iVariable_getRelatedComp(thisCode, varNumber2), false);
return;
}
//////////
// Compute
//////
lfResult = fmod(lfValue1, abs(lfValue2));
if (lfValue2 < 0 && lfResult != 0.0) // Mar.14.2015
lfResult += lfValue2;
break;
// FV()
case _FP_COMMON_FV:
//////////
// Future value
//////
lfResult = (pow((1 + lfValue2), lfValue3) - 1) / lfValue2 * lfValue1;
break;
// PV()
case _FP_COMMON_PV:
//////////
// Present value
//////
lfResult = lfValue1 * ((1 - pow((1 + lfValue2), -lfValue3)) / lfValue2);
break;
// PAYMENT()
case _FP_COMMON_PAYMENT:
//////////
// Payment
//////
lfValue1 = (lfValue1 * pow(lfValue2 + 1, lfValue3) * lfValue2) / (pow(lfValue2 + 1, lfValue3) - 1);
break;
default:
// Programmer error... this is an internal function and we should never get here
iError_reportByNumber(thisCode, _ERROR_INTERNAL_ERROR, iVariable_getRelatedComp(thisCode, varNumber1), false);
return;
}
//////////
// Create output variable
//////
if (tlSameInputType) result = iVariable_create(thisCode, varNumber1->varType, NULL, true);
else result = iVariable_create(thisCode, tnResultType, NULL, true);
if (!result)
{
iError_reportByNumber(thisCode, errorNum, iVariable_getRelatedComp(thisCode, varNumber1), false);
return;
}
//////////
// Set the value
//////
if (!iVariable_setNumeric_toNumericType(thisCode, result, NULL, &lfResult, NULL, NULL, NULL, NULL))
iError_reportByNumber(thisCode, errorNum, iVariable_getRelatedComp(thisCode, varNumber1), false);
//////////
// return(result)
//////
rpar->returns[0] = result;
}
bool function_isempty_common(SThisCode* thisCode, SFunctionParms* rpar, SVariable* varExpr)
{
s8 c, cPointChar;
u32 lnI;
bool llEmpty;
SVariable* varPoint;
//////////
// Determine what we're evaluating
//////
llEmpty = true;
switch (varExpr->varType)
{
case _VAR_TYPE_NULL:
// NULL values are considered "not empty" even though they really are.
llEmpty = false;
break;
case _VAR_TYPE_DATE: // Note: Dates are stored internally as YYYYMMDD, so they can be directly compared
case _VAR_TYPE_CHARACTER:
// Character expressions must have no length, or be completely blank to be considered empty
//////////
// Iterate through each character
//////
for (lnI = 0; lnI < (u32)varExpr->value.length; lnI++)
{
// If we encounter anything other than spaces, not empty
if (varExpr->value.data[lnI] != 32)
{
llEmpty = false;
break;
}
}
break;
case _VAR_TYPE_NUMERIC:
// Numerics are stored as numbers, possibly with a minus sign and the point separator
//////////
// Grab the point character
//////
if ((varPoint = propGet_settings_Point(_settings)))
{
// Extract it
cPointChar = varPoint->value.data_s8[0];
iVariable_delete(thisCode, varPoint, true);
} else {
// Default to the standard period
cPointChar = cgcPointChar[0];
}
//////////
// Iterate through
//////
for (lnI = 0; lnI < (u32)varExpr->value.length; lnI++)
{
// If we encounter a non-space, non-zero, or a non-point character, it's then not empty
c = varExpr->value.data[lnI];
if (c != 32 && c != '0' && c != cPointChar)
{
llEmpty = false;
break;
}
}
break;
case _VAR_TYPE_DATETIMEX:
llEmpty = (varExpr->value.data_dtx->jseconds < 0);
break;
case _VAR_TYPE_DATETIME:
llEmpty = ((varExpr->value.data_dt->julian == _DATETIME_BLANK_DATETIME_JULIAN) && (varExpr->value.data_dt->seconds == _DATETIME_BLANK_DATETIME_SECONDS));
break;
case _VAR_TYPE_LOGICAL:
llEmpty = !(varExpr->value.data_s8[0] == _LOGICAL_TRUE);
break;
case _VAR_TYPE_S8:
case _VAR_TYPE_U8:
llEmpty = (*varExpr->value.data_u8 == 0);
break;
case _VAR_TYPE_S16:
case _VAR_TYPE_U16:
llEmpty = (*varExpr->value.data_u16 == 0);
break;
case _VAR_TYPE_S32:
case _VAR_TYPE_U32:
llEmpty = (*varExpr->value.data_u32 == 0);
break;
case _VAR_TYPE_S64:
case _VAR_TYPE_U64:
case _VAR_TYPE_CURRENCY:
llEmpty = (*varExpr->value.data_u64 == 0);
break;
case _VAR_TYPE_F32:
llEmpty = (*varExpr->value.data_f32 == 0.0f);
break;
case _VAR_TYPE_F64:
llEmpty = (*varExpr->value.data_f64 == 0.0);
break;
// case _VAR_TYPE_BI:
// // Big integer
// break;
// case _VAR_TYPE_BFP:
// // Big floating point
// break;
default:
iError_reportByNumber(thisCode, _ERROR_FEATURE_NOT_AVAILABLE, NULL, false);
return(NULL);
}
//////////
// Signify our result
//////
return(llEmpty);
}
