period/**< the period of the element */,
date/**< date of discovery of the element. When 0, the element has been known in ancient times. */,
discoverers/** The name of the discoverers, separated by semicolomns */,
- relativeAbundance/** The abundance, relative to 100 */
+ relativeAbundance/** The abundance, relative to 100 */,
+ alphapercentage/**< The percentage of alphadecay */,
+ alphadecay/**< The decayenergy of alphadecay in MeV */,
+ betapluspercentage/**< The percentage of betaplusdecay */,
+ betaplusdecay/**< The decayenergy of betaplusdecay in MeV */,
+ betaminuspercentage/**< The percentage of betaminusdecay */,
+ betaminusdecay/**< The decayenergy of betaminusdecay in MeV */,
+ ecpercentage/**< The percentage of ecdecay */,
+ ecdecay/**< The decayenergy of ecminusdecay in MeV */,
};
/**
ev/**< electron volt */,
nm/**< nanometer */,
pm/**< picometer */,
+ y/**< years */,
+ s/**< seconds */,
noUnit/**< no unit */
};
* - bo:ev
* - bo:nm
* - bo:pm
+ * - bo:y
+ * - bo:s
* - bo:noUnit
*
* @return the BlueObeliskUnit of a ChemicalDataObject
</bibx:article>
</bibx:entry>
</bibx:file>
-
+ <!--<isotope alphapercentage="" alphadecay="" betapluspercentage="" betaplusdecay="" betaminuspercentage="100.0" betaminusdecay="0.01861" ecpercentage="" ecdecay="" spin="1/2+" magmoment="+2.978960" halflife="12.3" halflifeformat="years" weight="3.016049" neutron="2" pecentage="" />
+ //-->
<isotopeList id="H">
<isotope id="H1" number="1" elementType="H">
<scalar dictRef="bo:exactMass" errorValue="0.0001E-6">1.007825032</scalar>
<scalar dictRef="bo:atomicNumber">1</scalar>
</isotope>
<isotope id="H3" number="3" elementType="H">
- <scalar dictRef="bo:exactMass" errorValue="0.0025E-6">3.016049278</scalar>
- <scalar dictRef="bo:atomicNumber">1</scalar>
+ <scalar dataType="xsd:float" dictRef="bo:alphapercentage"></scalar>
+ <scalar dataType="xsd:float" dictRef="bo:alphadecay"></scalar>
+ <scalar dataType="xsd:float" dictRef="bo:betapluspercentage"></scalar>
+ <scalar dataType="xsd:float" dictRef="bo:betaplusdecay"></scalar>
+ <scalar dataType="xsd:float" dictRef="bo:betaminuspercentage">100.0</scalar>
+ <scalar dataType="xsd:float" dictRef="bo:betaminusdecay">0.01861</scalar>
+ <scalar dataType="xsd:float" dictRef="bo:ecpercentage"></scalar>
+ <scalar dataType="xsd:float" dictRef="bo:ecdecay"></scalar>
+ <scalar dataType="xsd:String" dictRef="bo:spin">1/2+</scalar>
+ <scalar dataType="xsd:String" dictRef="bo:magmoment">+2.978960</scalar>
+ <scalar dataType="xsd:float" dictRef="bo:halflife" unit="bo:y">12.3</scalar>
+ <scalar dictRef="bo:exactMass" errorValue="0.0025E-6">3.016049278</scalar>
+ <scalar dictRef="bo:atomicNumber">1</scalar>
</isotope>
<isotope id="H4" number="4" elementType="H">
<scalar dictRef="bo:exactMass" errorValue="110E-6">4.02781</scalar>
: QXmlDefaultHandler(),
currentIsotope_(0),
inAtomicNumber_(false),
+ inAlphaPercentage_(false),
+ inAlphaDecay_(false),
+ inBetaplusPercentage_(false),
+ inBetaplusDecay_(false),
+ inBetaminusPercentage_(false),
+ inBetaminusDecay_(false),
+ inECPercentage_(false),
+ inECDecay_(false),
inExactMass_(false),
inAbundance_(false)
{
if (attrs.value(i) == "bo:atomicNumber")
inAtomicNumber_ = true;
+ else if (attrs.value(i) == "bo:alphapercentage")
+ inAlphaPercentage_ = true;
+ else if (attrs.value(i) == "bo:alphadecay")
+ inAlphaDecay_ = true;
+ else if (attrs.value(i) == "bo:betapluspercentage")
+ inBetaplusPercentage_ = true;
+ else if (attrs.value(i) == "bo:betaplusdecay")
+ inBetaplusDecay_ = true;
+ else if (attrs.value(i) == "bo:betaminuspercentage")
+ inBetaminusPercentage_ = true;
+ else if (attrs.value(i) == "bo:betaminusdecay")
+ inBetaminusDecay_ = true;
+ else if (attrs.value(i) == "bo:ecpercentage")
+ inECPercentage_ = true;
+ else if (attrs.value(i) == "bo:ecdecay")
+ inECDecay_ = true;
else if (attrs.value(i) == "bo:exactMass")
inExactMass_ = true;
}
type = ChemicalDataObject::atomicNumber;
inAtomicNumber_ = false;
}
+ else if (inAlphaPercentage_) {
+ value = ch.toDouble();
+ type = ChemicalDataObject::alphapercentage;
+ inAtomicNumber_ = false;
+ }
+ else if (inAlphaDecay_) {
+ value = ch.toDouble();
+ type = ChemicalDataObject::alphadecay;
+ inAtomicNumber_ = false;
+ }
+ else if (inBetaplusPercentage_) {
+ value = ch.toDouble();
+ type = ChemicalDataObject::betapluspercentage;
+ inAtomicNumber_ = false;
+ }
+ else if (inBetaplusDecay_) {
+ value = ch.toDouble();
+ type = ChemicalDataObject::betaplusdecay;
+ inAtomicNumber_ = false;
+ }
+ else if (inBetaminusPercentage_) {
+ value = ch.toDouble();
+ type = ChemicalDataObject::betaminuspercentage;
+ inAtomicNumber_ = false;
+ }
+ else if (inBetaminusDecay_) {
+ value = ch.toDouble();
+ type = ChemicalDataObject::betaminusdecay;
+ inAtomicNumber_ = false;
+ }
+ else if (inECPercentage_) {
+ value = ch.toDouble();
+ type = ChemicalDataObject::ecpercentage;
+ inAtomicNumber_ = false;
+ }
+ else if (inECDecay_) {
+ value = ch.toDouble();
+ type = ChemicalDataObject::ecdecay;
+ inAtomicNumber_ = false;
+ }
else if ( inAbundance_ ){
value = ch;
type = ChemicalDataObject::relativeAbundance;
bool inIsotope_;
bool inAtomicNumber_,
inExactMass_;
-
+ bool inAlphaPercentage_;
+ bool inAlphaDecay_;
+ bool inBetaplusPercentage_;
+ bool inBetaplusDecay_;
+ bool inBetaminusPercentage_;
+ bool inBetaminusDecay_;
+ bool inECPercentage_;
+ bool inECDecay_;
bool inAbundance_;
};
#endif // ISOTOPEPARSER_H