PC_ResultType_.hpp

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/* $Id$
 * ===========================================================================
 *
 *                            PUBLIC DOMAIN NOTICE
 *               National Center for Biotechnology Information
 *
 *  This software/database is a "United States Government Work" under the
 *  terms of the United States Copyright Act.  It was written as part of
 *  the author's official duties as a United States Government employee and
 *  thus cannot be copyrighted.  This software/database is freely available
 *  to the public for use. The National Library of Medicine and the U.S.
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 *
 *  Although all reasonable efforts have been taken to ensure the accuracy
 *  and reliability of the software and data, the NLM and the U.S.
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 *  may be obtained by using this software or data. The NLM and the U.S.
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 *  warranties of performance, merchantability or fitness for any particular
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/// @file PC_ResultType_.hpp
/// Data storage class.
///
/// This file was generated by application DATATOOL
/// using the following specifications:
/// <a href="/IEB/ToolBox/CPP_DOC/lxr/source/src/objects/pcassay2/pcassay2.asn">pcassay2.asn</a>
/// and additional tune-up parameters:
/// <a href="/IEB/ToolBox/CPP_DOC/lxr/source/src/objects/pcassay2/pcassay2.def">pcassay2.def</a>
///
/// ATTENTION:
///   Don't edit or commit this file into CVS as this file will
///   be overridden (by DATATOOL) without warning!
 
#ifndef OBJECTS_PCASSAY2_PC_RESULTTYPE_BASE_HPP
#define OBJECTS_PCASSAY2_PC_RESULTTYPE_BASE_HPP
 
// standard includes
#include <serial/serialbase.hpp>
 
// generated includes
#include <list>
#include <string>
 
BEGIN_NCBI_SCOPE
 
#ifndef BEGIN_objects_SCOPE
#  define BEGIN_objects_SCOPE BEGIN_SCOPE(objects)
#  define END_objects_SCOPE END_SCOPE(objects)
#endif
BEGIN_objects_SCOPE // namespace ncbi::objects::
 
#ifndef BEGIN_pcassay2_SCOPE
#  define BEGIN_pcassay2_SCOPE BEGIN_SCOPE(pcassay2)
#  define END_pcassay2_SCOPE END_SCOPE(pcassay2)
#endif
BEGIN_pcassay2_SCOPE // namespace ncbi::objects::pcassay2::
 
 
// forward declarations
class CPC_ConcentrationAttr;
class CPC_IntegerMinMax;
class CPC_RealMinMax;
 
 
// generated classes
 
 
/** @addtogroup dataspec_NCBI_PCAssay2
 *
 * @{
 */
 
/////////////////////////////////////////////////////////////////////////////
/// Definition of Allowed Result Types for a given Assay
///
/// CPC_ResultType_Base --
///
 
class CPC_ResultType_Base : public CSerialObject
{
    typedef CSerialObject Tparent;
public:
    // constructor
    CPC_ResultType_Base(void);
    // destructor
    virtual ~CPC_ResultType_Base(void);
 
    // type info
    DECLARE_INTERNAL_TYPE_INFO();
 
    /// Result Data Type and Validation Information
    /// Result Data Type
    enum EType {
        eType_float  = 1,
        eType_int    = 2,
        eType_bool   = 3,
        eType_string = 4
    };
    
    /// Access to EType's attributes (values, names) as defined in spec
    static const NCBI_NS_NCBI::CEnumeratedTypeValues* ENUM_METHOD_NAME(EType)(void);
    
    /////////////////////////////////////////////////////////////////////////////
    /// Allowed Values, used for validating incoming data
    /// If type is "float"
    ///
    /// C_Constraints --
    ///
    
    class C_Constraints : public CSerialObject
    {
        typedef CSerialObject Tparent;
    public:
        // constructor
        C_Constraints(void);
        // destructor
        ~C_Constraints(void);
    
        // type info
        DECLARE_INTERNAL_TYPE_INFO();
    
    
        /// Choice variants.
        enum E_Choice {
            e_not_set = 0,  ///< No variant selected
            e_Fset,         ///<   Allowed values must be equal to one of these
            e_Fmin,         ///<   Allowed values (x) must be [ fmin <= x ]
            e_Fmax,         ///<   Allowed values (x) must be [ x <= fmax ]
            e_Frange,       ///<   Minimum/Maximum Range [ min <= x <= max ]
            e_Iset,         ///< If type is "int"    Allowed values must be equal to one of these
            e_Imin,         ///<   Allowed values (x) must be [ imin <= x ]
            e_Imax,         ///<   Allowed values (x) must be [ x <= imax ]
            e_Irange,       ///<   Minimum/Maximum Range [ min <= x <= max ]
            e_Sset          ///< If type is "string"    Allowed values must be equal to one of these
        };
        /// Maximum+1 value of the choice variant enumerator.
        enum E_ChoiceStopper {
            e_MaxChoice = 10 ///< == e_Sset+1
        };
    
        /// Reset the whole object
        void Reset(void);
    
        /// Reset the selection (set it to e_not_set).
        void ResetSelection(void);
    
        /// Which variant is currently selected.
        ///
        /// @return
        ///   Choice state enumerator.
        E_Choice Which(void) const;
    
        /// Verify selection, throw exception if it differs from the expected.
        ///
        /// @param index
        ///   Expected selection.
        void CheckSelected(E_Choice index) const;
    
        /// Throw 'InvalidSelection' exception.
        ///
        /// @param index
        ///   Expected selection.
        NCBI_NORETURN void ThrowInvalidSelection(E_Choice index) const;
    
        /// Retrieve selection name (for diagnostic purposes).
        ///
        /// @param index
        ///   One of possible selection states.
        /// @return
        ///   Name string.
        static string SelectionName(E_Choice index);
    
        /// Select the requested variant if needed.
        ///
        /// @param index
        ///   New selection state.
        /// @param reset
        ///   Flag that defines the resetting of the variant data. The data will
        ///   be reset if either the current selection differs from the new one,
        ///   or the flag is set to eDoResetVariant.
        void Select(E_Choice index, EResetVariant reset = eDoResetVariant);
        /// Select the requested variant if needed,
        /// allocating CObject variants from memory pool.
        void Select(E_Choice index,
                    EResetVariant reset,
                    CObjectMemoryPool* pool);
    
        // types
        typedef list< double > TFset;
        typedef double TFmin;
        typedef double TFmax;
        typedef CPC_RealMinMax TFrange;
        typedef list< int > TIset;
        typedef int TImin;
        typedef int TImax;
        typedef CPC_IntegerMinMax TIrange;
        typedef list< string > TSset;
    
        // getters
        // setters
    
    
        /// Check if variant Fset is selected.
        ///
        /// Fset type is defined as 'typedef list< double > TFset'.
        /// @return
        ///   - true, if the variant is selected.
        ///   - false, otherwise.
        bool IsFset(void) const;
    
        /// Get the variant data.
        ///
        /// @return
        ///   Reference to the data.
        const TFset& GetFset(void) const;
    
        /// Select the variant.
        ///
        /// @return
        ///   Reference to the variant data.
        TFset& SetFset(void);
    
    
        /// Check if variant Fmin is selected.
        ///
        /// Fmin type is defined as 'typedef double TFmin'.
        /// @return
        ///   - true, if the variant is selected.
        ///   - false, otherwise.
        bool IsFmin(void) const;
    
        /// Get the variant data.
        ///
        /// @return
        ///   Copy of the variant data.
        TFmin GetFmin(void) const;
    
        /// Select the variant.
        ///
        /// @return
        ///   Reference to the variant data.
        TFmin& SetFmin(void);
    
        /// Select the variant and set its data.
        ///
        /// @param value
        ///   Variant data.
        void SetFmin(TFmin value);
    
    
        /// Check if variant Fmax is selected.
        ///
        /// Fmax type is defined as 'typedef double TFmax'.
        /// @return
        ///   - true, if the variant is selected.
        ///   - false, otherwise.
        bool IsFmax(void) const;
    
        /// Get the variant data.
        ///
        /// @return
        ///   Copy of the variant data.
        TFmax GetFmax(void) const;
    
        /// Select the variant.
        ///
        /// @return
        ///   Reference to the variant data.
        TFmax& SetFmax(void);
    
        /// Select the variant and set its data.
        ///
        /// @param value
        ///   Variant data.
        void SetFmax(TFmax value);
    
    
        /// Check if variant Frange is selected.
        ///
        /// Frange type is defined as 'typedef CPC_RealMinMax TFrange'.
        /// @return
        ///   - true, if the variant is selected.
        ///   - false, otherwise.
        bool IsFrange(void) const;
    
        /// Get the variant data.
        ///
        /// @return
        ///   Reference to the data.
        const TFrange& GetFrange(void) const;
    
        /// Select the variant.
        ///
        /// @return
        ///   Reference to the variant data.
        TFrange& SetFrange(void);
        /// Select the variant and set its data.
        ///
        /// @param value
        ///   Reference to the data.
        void SetFrange(TFrange& value);
    
    
        /// Check if variant Iset is selected.
        ///
        /// Iset type is defined as 'typedef list< int > TIset'.
        /// @return
        ///   - true, if the variant is selected.
        ///   - false, otherwise.
        bool IsIset(void) const;
    
        /// Get the variant data.
        ///
        /// @return
        ///   Reference to the data.
        const TIset& GetIset(void) const;
    
        /// Select the variant.
        ///
        /// @return
        ///   Reference to the variant data.
        TIset& SetIset(void);
    
    
        /// Check if variant Imin is selected.
        ///
        /// Imin type is defined as 'typedef int TImin'.
        /// @return
        ///   - true, if the variant is selected.
        ///   - false, otherwise.
        bool IsImin(void) const;
    
        /// Get the variant data.
        ///
        /// @return
        ///   Copy of the variant data.
        TImin GetImin(void) const;
    
        /// Select the variant.
        ///
        /// @return
        ///   Reference to the variant data.
        TImin& SetImin(void);
    
        /// Select the variant and set its data.
        ///
        /// @param value
        ///   Variant data.
        void SetImin(TImin value);
    
    
        /// Check if variant Imax is selected.
        ///
        /// Imax type is defined as 'typedef int TImax'.
        /// @return
        ///   - true, if the variant is selected.
        ///   - false, otherwise.
        bool IsImax(void) const;
    
        /// Get the variant data.
        ///
        /// @return
        ///   Copy of the variant data.
        TImax GetImax(void) const;
    
        /// Select the variant.
        ///
        /// @return
        ///   Reference to the variant data.
        TImax& SetImax(void);
    
        /// Select the variant and set its data.
        ///
        /// @param value
        ///   Variant data.
        void SetImax(TImax value);
    
    
        /// Check if variant Irange is selected.
        ///
        /// Irange type is defined as 'typedef CPC_IntegerMinMax TIrange'.
        /// @return
        ///   - true, if the variant is selected.
        ///   - false, otherwise.
        bool IsIrange(void) const;
    
        /// Get the variant data.
        ///
        /// @return
        ///   Reference to the data.
        const TIrange& GetIrange(void) const;
    
        /// Select the variant.
        ///
        /// @return
        ///   Reference to the variant data.
        TIrange& SetIrange(void);
        /// Select the variant and set its data.
        ///
        /// @param value
        ///   Reference to the data.
        void SetIrange(TIrange& value);
    
    
        /// Check if variant Sset is selected.
        ///
        /// Sset type is defined as 'typedef list< string > TSset'.
        /// @return
        ///   - true, if the variant is selected.
        ///   - false, otherwise.
        bool IsSset(void) const;
    
        /// Get the variant data.
        ///
        /// @return
        ///   Reference to the data.
        const TSset& GetSset(void) const;
    
        /// Select the variant.
        ///
        /// @return
        ///   Reference to the variant data.
        TSset& SetSset(void);
    
    
    private:
        // copy constructor and assignment operator
        C_Constraints(const C_Constraints& );
        C_Constraints& operator=(const C_Constraints& );
        // choice state
        E_Choice m_choice;
        // helper methods
        void DoSelect(E_Choice index, CObjectMemoryPool* pool = 0);
    
        static const char* const sm_SelectionNames[];
        // data
        union {
            NCBI_NS_NCBI::CUnionBuffer<TFset> m_Fset;
            TFmin m_Fmin;
            TFmax m_Fmax;
            NCBI_NS_NCBI::CUnionBuffer<TIset> m_Iset;
            TImin m_Imin;
            TImax m_Imax;
            NCBI_NS_NCBI::CUnionBuffer<TSset> m_Sset;
            NCBI_NS_NCBI::CSerialObject *m_object;
        };
    };
    /// Unit information provides the units for the values reported for this TID.  For example, if the values
    ///   reported for this TID are a concentration, e.g., micro-molar, setting the unit "um" allows PubChem to
    ///   know that the value, e.g., "1.3", is actually "1.3 uM".  This also allows PubChem to properly report the
    ///   units when displaying the reported values for this TID.  If the enumerated units provided below are
    ///   insufficient, you may represent the units as a string in the optional "sunit" field (see below).
    /// Units for Value
    enum EUnit {
        eUnit_ppt         =   1,  ///< Parts per Thousand
        eUnit_ppm         =   2,  ///< Parts per Million
        eUnit_ppb         =   3,  ///< Parts per Billion
        eUnit_mm          =   4,  ///< milliM
        eUnit_um          =   5,  ///< microM
        eUnit_nm          =   6,  ///< nanoM
        eUnit_pm          =   7,  ///< picoM
        eUnit_fm          =   8,  ///< femtoM
        eUnit_mgml        =   9,  ///< milligrams per mL
        eUnit_ugml        =  10,  ///< micrograms per mL
        eUnit_ngml        =  11,  ///< nanograms per mL
        eUnit_pgml        =  12,  ///< picograms per mL
        eUnit_fgml        =  13,  ///< femtograms per mL
        eUnit_m           =  14,  ///< Molar
        eUnit_percent     =  15,  ///< Percent
        eUnit_ratio       =  16,  ///< Ratio
        eUnit_sec         =  17,  ///< Seconds
        eUnit_rsec        =  18,  ///< Reciprocal Seconds
        eUnit_min         =  19,  ///< Minutes
        eUnit_rmin        =  20,  ///< Reciprocal Minutes
        eUnit_day         =  21,  ///< Days
        eUnit_rday        =  22,  ///< Reciprocal Days
        eUnit_ml_min_kg   =  23,  ///< milliliter / minute / kilogram
        eUnit_l_kg        =  24,  ///< liter / kilogram
        eUnit_hr_ng_ml    =  25,  ///< hour * nanogram / milliliter
        eUnit_cm_sec      =  26,  ///< centimeter / second
        eUnit_mg_kg       =  27,  ///< milligram / kilogram
        eUnit_none        = 254,
        eUnit_unspecified = 255
    };
    
    /// Access to EUnit's attributes (values, names) as defined in spec
    static const NCBI_NS_NCBI::CEnumeratedTypeValues* ENUM_METHOD_NAME(EUnit)(void);
    
    /// Value Transform information qualifies the values reported for this TID.  For example, if the values
    ///   reported for this TID are "-Log10 GI50", you may want to consider setting
    ///   the "nlog" value below.  In doing so, PubChem would know that the value, e.g., "5.0"
    ///   is actually "1.0e-5".  If the transformation applied is not listed, you may represent
    ///   this transformation as a string in the "stransform" (see below) for eventual inclusion
    ///   in the enumerated transform list below.
    ///
    ///
    /// ATTENTION: transform field is DEPRECATED. It is no longer
    ///            supported and remains for legacy data only.
    /// Value Type Details
    enum ETransform {
        eTransform_linear     = 1,  ///< Linear Scale (x)
        eTransform_ln         = 2,  ///< Natural Log Scale (ln x)
        eTransform_log        = 3,  ///< Log Base 10 Scale (log10 x)
        eTransform_reciprocal = 4,  ///< Reciprocal Scale (1/x)
        eTransform_negative   = 5,  ///< Negative Linear Scale (-x)
        eTransform_nlog       = 6,  ///< Negative Log Base 10 Scale (-log10 x)
        eTransform_nln        = 7  ///< Negative Natural Log Scane (-ln x)
    };
    
    /// Access to ETransform's attributes (values, names) as defined in spec
    static const NCBI_NS_NCBI::CEnumeratedTypeValues* ENUM_METHOD_NAME(ETransform)(void);
    
    enum EAnnot {
        eAnnot_pmid                        =   1,  ///< PubMed ID
        eAnnot_mmdb                        =   2,  ///< MMDB ID
        eAnnot_url                         =   3,  ///< indicate TID data is a url that provides supplementary information  protein-gi                    (4), GenBank General ID (GI) for a Protein  nucleotide-gi                 (5), GenBank General ID (GI) for a Nucleotide
        eAnnot_taxonomy                    =   6,  ///< Taxonomy ID for an Organism
        eAnnot_mim                         =   7,  ///< MIM, Mendelian Inheritance in Man, ID
        eAnnot_gene                        =   8,  ///< Entrez Gene ID
        eAnnot_probe                       =   9,  ///< Entrez Probe ID
        eAnnot_aid                         =  10,  ///< PubChem BioAssay ID, may be used in 'Summary' assay
        eAnnot_sid                         =  11,  ///< PubChem Substance ID, may be used in 'Summary' assay
        eAnnot_cid                         =  12,  ///< PubChem Compound ID  protein-target-gi            (13), GenBank General ID (GI) for a Protein target  biosystems-target-id         (14), NCBI BioSystems ID
        eAnnot_target_name                 =  15,  ///< target name
        eAnnot_target_descr                =  16,  ///< brief target description
        eAnnot_target_tax_id               =  17,  ///< NCBI Taxonomy ID for target molecule
        eAnnot_gene_target_id              =  18,  ///< NCBI Gene ID for a gene target  dna-nucleotide-target-gi     (19), GenBank General ID (GI) for a DNA Nucleotide target  rna-nucleotide-target-gi     (20), GenBank General ID (GI) for a RNA Nucleotide target
        eAnnot_protein_target_accession    =  21,  ///< GenBank Accession for a Protein target
        eAnnot_nucleotide_target_accession =  22,  ///< GenBank Accession for a DNA/RNA Nucleotide target
        eAnnot_other                       = 255  ///< for identifier types not currently support
    };
    
    /// Access to EAnnot's attributes (values, names) as defined in spec
    static const NCBI_NS_NCBI::CEnumeratedTypeValues* ENUM_METHOD_NAME(EAnnot)(void);
    
    // types
    typedef int TTid;
    typedef CStringUTF8 TName;
    typedef list< CStringUTF8 > TDescription;
    typedef int TType;
    typedef C_Constraints TConstraints;
    typedef int TUnit;
    typedef string TSunit;
    typedef int TTransform;
    typedef CPC_ConcentrationAttr TTc;
    typedef bool TAc;
    typedef bool TAc_qualifier;
    typedef int TAnnot;
 
    // member index
    enum class E_memberIndex {
        e__allMandatory = 0,
        e_tid,
        e_name,
        e_description,
        e_type,
        e_constraints,
        e_unit,
        e_sunit,
        e_transform,
        e_tc,
        e_ac,
        e_ac_qualifier,
        e_annot
    };
    typedef Tparent::CMemberIndex<E_memberIndex, 13> TmemberIndex;
 
    // getters
    // setters
 
    /// Tracking or Description Information
    /// Assay Result Field Type ID (TID)
    /// Check if a value has been assigned to Tid data member.
    ///
    /// Data member Tid is mandatory;
    /// its type is defined as 'typedef int TTid'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetTid(void) const;
 
    /// Check if it is safe to call GetTid method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetTid(void) const;
 
    /// Reset Tid data member.
    void ResetTid(void);
 
    /// Get the Tid member data.
    ///
    /// @return
    ///   Copy of the member data.
    TTid GetTid(void) const;
 
    /// Assign a value to Tid data member.
    ///
    /// @param value
    ///   Value to assign
    void SetTid(TTid value);
 
    /// Assign a value to Tid data member.
    ///
    /// @return
    ///   Reference to the data value.
    TTid& SetTid(void);
 
    /// Result Field Name (short name for display)
    /// Check if a value has been assigned to Name data member.
    ///
    /// Data member Name is mandatory;
    /// its type is defined as 'typedef CStringUTF8 TName'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetName(void) const;
 
    /// Check if it is safe to call GetName method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetName(void) const;
 
    /// Reset Name data member.
    void ResetName(void);
 
    /// Get the Name member data.
    ///
    /// @return
    ///   Reference to the member data.
    const TName& GetName(void) const;
 
    /// Assign a value to Name data member.
    ///
    /// @param value
    ///   Value to assign
    void SetName(const TName& value);
    void SetName(TName&& value);
 
    /// Assign a value to Name data member.
    ///
    /// @return
    ///   Reference to the data value.
    TName& SetName(void);
 
    /// Result Field Description
    /// Check if a value has been assigned to Description data member.
    ///
    /// Data member Description is optional;
    /// its type is defined as 'typedef list< CStringUTF8 > TDescription'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetDescription(void) const;
 
    /// Check if it is safe to call GetDescription method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetDescription(void) const;
 
    /// Reset Description data member.
    void ResetDescription(void);
 
    /// Get the Description member data.
    ///
    /// @return
    ///   Reference to the member data.
    const TDescription& GetDescription(void) const;
 
    /// Assign a value to Description data member.
    ///
    /// @return
    ///   Reference to the data value.
    TDescription& SetDescription(void);
 
    /// Check if a value has been assigned to Type data member.
    ///
    /// Data member Type is mandatory;
    /// its type is defined as 'typedef int TType'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetType(void) const;
 
    /// Check if it is safe to call GetType method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetType(void) const;
 
    /// Reset Type data member.
    void ResetType(void);
 
    /// Get the Type member data.
    ///
    /// @return
    ///   Copy of the member data.
    TType GetType(void) const;
 
    /// Assign a value to Type data member.
    ///
    /// @param value
    ///   Value to assign
    void SetType(TType value);
 
    /// Assign a value to Type data member.
    ///
    /// @return
    ///   Reference to the data value.
    TType& SetType(void);
 
    /// Check if a value has been assigned to Constraints data member.
    ///
    /// Data member Constraints is optional;
    /// its type is defined as 'typedef C_Constraints TConstraints'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetConstraints(void) const;
 
    /// Check if it is safe to call GetConstraints method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetConstraints(void) const;
 
    /// Reset Constraints data member.
    void ResetConstraints(void);
 
    /// Get the Constraints member data.
    ///
    /// @return
    ///   Reference to the member data.
    const TConstraints& GetConstraints(void) const;
 
    /// Assign a value to Constraints data member.
    ///
    /// @param value
    ///   Reference to value.
    void SetConstraints(TConstraints& value);
 
    /// Assign a value to Constraints data member.
    ///
    /// @return
    ///   Reference to the data value.
    TConstraints& SetConstraints(void);
 
    /// Check if a value has been assigned to Unit data member.
    ///
    /// Data member Unit is optional;
    /// its type is defined as 'typedef int TUnit'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetUnit(void) const;
 
    /// Check if it is safe to call GetUnit method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetUnit(void) const;
 
    /// Reset Unit data member.
    void ResetUnit(void);
 
    /// Get the Unit member data.
    ///
    /// @return
    ///   Copy of the member data.
    TUnit GetUnit(void) const;
 
    /// Assign a value to Unit data member.
    ///
    /// @param value
    ///   Value to assign
    void SetUnit(TUnit value);
 
    /// Assign a value to Unit data member.
    ///
    /// @return
    ///   Reference to the data value.
    TUnit& SetUnit(void);
 
    /// ATTENTION: sunit field is DEPRECATED. It is no longer
    ///            supported and remains for legacy data only.
    /// Unit Type (as a String)
    /// Check if a value has been assigned to Sunit data member.
    ///
    /// Data member Sunit is optional;
    /// its type is defined as 'typedef string TSunit'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetSunit(void) const;
 
    /// Check if it is safe to call GetSunit method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetSunit(void) const;
 
    /// Reset Sunit data member.
    void ResetSunit(void);
 
    /// Get the Sunit member data.
    ///
    /// @return
    ///   Reference to the member data.
    const TSunit& GetSunit(void) const;
 
    /// Assign a value to Sunit data member.
    ///
    /// @param value
    ///   Value to assign
    void SetSunit(const TSunit& value);
    void SetSunit(TSunit&& value);
 
    /// Assign a value to Sunit data member.
    ///
    /// @return
    ///   Reference to the data value.
    TSunit& SetSunit(void);
 
    /// Check if a value has been assigned to Transform data member.
    ///
    /// Data member Transform is optional;
    /// its type is defined as 'typedef int TTransform'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetTransform(void) const;
 
    /// Check if it is safe to call GetTransform method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetTransform(void) const;
 
    /// Reset Transform data member.
    void ResetTransform(void);
 
    /// Get the Transform member data.
    ///
    /// @return
    ///   Copy of the member data.
    TTransform GetTransform(void) const;
 
    /// Assign a value to Transform data member.
    ///
    /// @param value
    ///   Value to assign
    void SetTransform(TTransform value);
 
    /// Assign a value to Transform data member.
    ///
    /// @return
    ///   Reference to the data value.
    TTransform& SetTransform(void);
 
    /// ATTENTION: stransform field is DEPRECATED. It is no longer
    ///            supported and remains for legacy data only.
    /// stransform       VisibleString               OPTIONAL,  Value Transform Type as a string (never used)
    /// Tested concentration attribute
    /// Check if a value has been assigned to Tc data member.
    ///
    /// Data member Tc is optional;
    /// its type is defined as 'typedef CPC_ConcentrationAttr TTc'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetTc(void) const;
 
    /// Check if it is safe to call GetTc method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetTc(void) const;
 
    /// Reset Tc data member.
    void ResetTc(void);
 
    /// Get the Tc member data.
    ///
    /// @return
    ///   Reference to the member data.
    const TTc& GetTc(void) const;
 
    /// Assign a value to Tc data member.
    ///
    /// @param value
    ///   Reference to value.
    void SetTc(TTc& value);
 
    /// Assign a value to Tc data member.
    ///
    /// @return
    ///   Reference to the data value.
    TTc& SetTc(void);
 
    /// if true, indicates that this TID field
    /// provides active concentration summary by
    /// reporting the concentration which produces
    /// 50% of the maximum possible biological response
    /// such as IC50, EC50, AC50, GI50 etc.
    /// or by reporting constant parameters such as Ki,
    /// that based on which the activity outcome in this assay is called
    /// Check if a value has been assigned to Ac data member.
    ///
    /// Data member Ac is optional;
    /// its type is defined as 'typedef bool TAc'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetAc(void) const;
 
    /// Check if it is safe to call GetAc method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetAc(void) const;
 
    /// Reset Ac data member.
    void ResetAc(void);
 
    /// Get the Ac member data.
    ///
    /// @return
    ///   Copy of the member data.
    TAc GetAc(void) const;
 
    /// Assign a value to Ac data member.
    ///
    /// @param value
    ///   Value to assign
    void SetAc(TAc value);
 
    /// Assign a value to Ac data member.
    ///
    /// @return
    ///   Reference to the data value.
    TAc& SetAc(void);
 
    /// endpoint qualifier (e.g. <, <=, =, >, >=) associated with the ac field above
    /// Check if a value has been assigned to Ac_qualifier data member.
    ///
    /// Data member Ac_qualifier is optional;
    /// its type is defined as 'typedef bool TAc_qualifier'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetAc_qualifier(void) const;
 
    /// Check if it is safe to call GetAc_qualifier method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetAc_qualifier(void) const;
 
    /// Reset Ac_qualifier data member.
    void ResetAc_qualifier(void);
 
    /// Get the Ac_qualifier member data.
    ///
    /// @return
    ///   Copy of the member data.
    TAc_qualifier GetAc_qualifier(void) const;
 
    /// Assign a value to Ac_qualifier data member.
    ///
    /// @param value
    ///   Value to assign
    void SetAc_qualifier(TAc_qualifier value);
 
    /// Assign a value to Ac_qualifier data member.
    ///
    /// @return
    ///   Reference to the data value.
    TAc_qualifier& SetAc_qualifier(void);
 
    /// treat substance associated cross-reference as regular TID
    /// web servers would make a link
    /// to the corresponding record in Entrez databases
    /// treat substance associated target information as regular TID
    /// for example, for RNAi screening data, each 'substance' may
    /// correspond to a specific gene target
    /// Check if a value has been assigned to Annot data member.
    ///
    /// Data member Annot is optional;
    /// its type is defined as 'typedef int TAnnot'
    /// @return
    ///   - true, if a value has been assigned.
    ///   - false, otherwise.
    bool IsSetAnnot(void) const;
 
    /// Check if it is safe to call GetAnnot method.
    ///
    /// @return
    ///   - true, if the data member is getatable.
    ///   - false, otherwise.
    bool CanGetAnnot(void) const;
 
    /// Reset Annot data member.
    void ResetAnnot(void);
 
    /// Get the Annot member data.
    ///
    /// @return
    ///   Copy of the member data.
    TAnnot GetAnnot(void) const;
 
    /// Assign a value to Annot data member.
    ///
    /// @param value
    ///   Value to assign
    void SetAnnot(TAnnot value);
 
    /// Assign a value to Annot data member.
    ///
    /// @return
    ///   Reference to the data value.
    TAnnot& SetAnnot(void);
 
    /// Reset the whole object
    virtual void Reset(void);
 
 
private:
    // Prohibit copy constructor and assignment operator
    CPC_ResultType_Base(const CPC_ResultType_Base&);
    CPC_ResultType_Base& operator=(const CPC_ResultType_Base&);
 
    // data
    Uint4 m_set_State[1];
    int m_Tid;
    CStringUTF8 m_Name;
    list< CStringUTF8 > m_Description;
    int m_Type;
    CRef< TConstraints > m_Constraints;
    int m_Unit;
    string m_Sunit;
    int m_Transform;
    CRef< TTc > m_Tc;
    bool m_Ac;
    bool m_Ac_qualifier;
    int m_Annot;
};
 
/* @} */
 
 
 
 
 
///////////////////////////////////////////////////////////
///////////////////// inline methods //////////////////////
///////////////////////////////////////////////////////////
inline
CPC_ResultType_Base::C_Constraints::E_Choice CPC_ResultType_Base::C_Constraints::Which(void) const
{
    return m_choice;
}
 
inline
void CPC_ResultType_Base::C_Constraints::CheckSelected(E_Choice index) const
{
    if ( m_choice != index )
        ThrowInvalidSelection(index);
}
 
inline
void CPC_ResultType_Base::C_Constraints::Select(E_Choice index, NCBI_NS_NCBI::EResetVariant reset, NCBI_NS_NCBI::CObjectMemoryPool* pool)
{
    if ( reset == NCBI_NS_NCBI::eDoResetVariant || m_choice != index ) {
        if ( m_choice != e_not_set )
            ResetSelection();
        DoSelect(index, pool);
    }
}
 
inline
void CPC_ResultType_Base::C_Constraints::Select(E_Choice index, NCBI_NS_NCBI::EResetVariant reset)
{
    Select(index, reset, 0);
}
 
inline
bool CPC_ResultType_Base::C_Constraints::IsFset(void) const
{
    return m_choice == e_Fset;
}
 
inline
const CPC_ResultType_Base::C_Constraints::TFset& CPC_ResultType_Base::C_Constraints::GetFset(void) const
{
    CheckSelected(e_Fset);
    return *m_Fset;
}
 
inline
CPC_ResultType_Base::C_Constraints::TFset& CPC_ResultType_Base::C_Constraints::SetFset(void)
{
    Select(e_Fset, NCBI_NS_NCBI::eDoNotResetVariant);
    return *m_Fset;
}
 
inline
bool CPC_ResultType_Base::C_Constraints::IsFmin(void) const
{
    return m_choice == e_Fmin;
}
 
inline
CPC_ResultType_Base::C_Constraints::TFmin CPC_ResultType_Base::C_Constraints::GetFmin(void) const
{
    CheckSelected(e_Fmin);
    return m_Fmin;
}
 
inline
CPC_ResultType_Base::C_Constraints::TFmin& CPC_ResultType_Base::C_Constraints::SetFmin(void)
{
    Select(e_Fmin, NCBI_NS_NCBI::eDoNotResetVariant);
    return m_Fmin;
}
 
inline
void CPC_ResultType_Base::C_Constraints::SetFmin(CPC_ResultType_Base::C_Constraints::TFmin value)
{
    Select(e_Fmin, NCBI_NS_NCBI::eDoNotResetVariant);
    m_Fmin = value;
}
 
inline
bool CPC_ResultType_Base::C_Constraints::IsFmax(void) const
{
    return m_choice == e_Fmax;
}
 
inline
CPC_ResultType_Base::C_Constraints::TFmax CPC_ResultType_Base::C_Constraints::GetFmax(void) const
{
    CheckSelected(e_Fmax);
    return m_Fmax;
}
 
inline
CPC_ResultType_Base::C_Constraints::TFmax& CPC_ResultType_Base::C_Constraints::SetFmax(void)
{
    Select(e_Fmax, NCBI_NS_NCBI::eDoNotResetVariant);
    return m_Fmax;
}
 
inline
void CPC_ResultType_Base::C_Constraints::SetFmax(CPC_ResultType_Base::C_Constraints::TFmax value)
{
    Select(e_Fmax, NCBI_NS_NCBI::eDoNotResetVariant);
    m_Fmax = value;
}
 
inline
bool CPC_ResultType_Base::C_Constraints::IsFrange(void) const
{
    return m_choice == e_Frange;
}
 
inline
bool CPC_ResultType_Base::C_Constraints::IsIset(void) const
{
    return m_choice == e_Iset;
}
 
inline
const CPC_ResultType_Base::C_Constraints::TIset& CPC_ResultType_Base::C_Constraints::GetIset(void) const
{
    CheckSelected(e_Iset);
    return *m_Iset;
}
 
inline
CPC_ResultType_Base::C_Constraints::TIset& CPC_ResultType_Base::C_Constraints::SetIset(void)
{
    Select(e_Iset, NCBI_NS_NCBI::eDoNotResetVariant);
    return *m_Iset;
}
 
inline
bool CPC_ResultType_Base::C_Constraints::IsImin(void) const
{
    return m_choice == e_Imin;
}
 
inline
CPC_ResultType_Base::C_Constraints::TImin CPC_ResultType_Base::C_Constraints::GetImin(void) const
{
    CheckSelected(e_Imin);
    return m_Imin;
}
 
inline
CPC_ResultType_Base::C_Constraints::TImin& CPC_ResultType_Base::C_Constraints::SetImin(void)
{
    Select(e_Imin, NCBI_NS_NCBI::eDoNotResetVariant);
    return m_Imin;
}
 
inline
void CPC_ResultType_Base::C_Constraints::SetImin(CPC_ResultType_Base::C_Constraints::TImin value)
{
    Select(e_Imin, NCBI_NS_NCBI::eDoNotResetVariant);
    m_Imin = value;
}
 
inline
bool CPC_ResultType_Base::C_Constraints::IsImax(void) const
{
    return m_choice == e_Imax;
}
 
inline
CPC_ResultType_Base::C_Constraints::TImax CPC_ResultType_Base::C_Constraints::GetImax(void) const
{
    CheckSelected(e_Imax);
    return m_Imax;
}
 
inline
CPC_ResultType_Base::C_Constraints::TImax& CPC_ResultType_Base::C_Constraints::SetImax(void)
{
    Select(e_Imax, NCBI_NS_NCBI::eDoNotResetVariant);
    return m_Imax;
}
 
inline
void CPC_ResultType_Base::C_Constraints::SetImax(CPC_ResultType_Base::C_Constraints::TImax value)
{
    Select(e_Imax, NCBI_NS_NCBI::eDoNotResetVariant);
    m_Imax = value;
}
 
inline
bool CPC_ResultType_Base::C_Constraints::IsIrange(void) const
{
    return m_choice == e_Irange;
}
 
inline
bool CPC_ResultType_Base::C_Constraints::IsSset(void) const
{
    return m_choice == e_Sset;
}
 
inline
const CPC_ResultType_Base::C_Constraints::TSset& CPC_ResultType_Base::C_Constraints::GetSset(void) const
{
    CheckSelected(e_Sset);
    return *m_Sset;
}
 
inline
CPC_ResultType_Base::C_Constraints::TSset& CPC_ResultType_Base::C_Constraints::SetSset(void)
{
    Select(e_Sset, NCBI_NS_NCBI::eDoNotResetVariant);
    return *m_Sset;
}
 
inline
bool CPC_ResultType_Base::IsSetTid(void) const
{
    return ((m_set_State[0] & 0x3) != 0);
}
 
inline
bool CPC_ResultType_Base::CanGetTid(void) const
{
    return IsSetTid();
}
 
inline
void CPC_ResultType_Base::ResetTid(void)
{
    m_Tid = 0;
    m_set_State[0] &= ~0x3;
}
 
inline
CPC_ResultType_Base::TTid CPC_ResultType_Base::GetTid(void) const
{
    if (!CanGetTid()) {
        ThrowUnassigned(0);
    }
    return m_Tid;
}
 
inline
void CPC_ResultType_Base::SetTid(CPC_ResultType_Base::TTid value)
{
    m_Tid = value;
    m_set_State[0] |= 0x3;
}
 
inline
CPC_ResultType_Base::TTid& CPC_ResultType_Base::SetTid(void)
{
#ifdef _DEBUG
    if (!IsSetTid()) {
        memset(&m_Tid,UnassignedByte(),sizeof(m_Tid));
    }
#endif
    m_set_State[0] |= 0x1;
    return m_Tid;
}
 
inline
bool CPC_ResultType_Base::IsSetName(void) const
{
    return ((m_set_State[0] & 0xc) != 0);
}
 
inline
bool CPC_ResultType_Base::CanGetName(void) const
{
    return IsSetName();
}
 
inline
const CPC_ResultType_Base::TName& CPC_ResultType_Base::GetName(void) const
{
    if (!CanGetName()) {
        ThrowUnassigned(1);
    }
    return m_Name;
}
 
inline
void CPC_ResultType_Base::SetName(const CPC_ResultType_Base::TName& value)
{
    m_Name = value;
    m_set_State[0] |= 0xc;
}
 
inline
void CPC_ResultType_Base::SetName(CPC_ResultType_Base::TName&& value)
{
    m_Name = std::forward<CPC_ResultType_Base::TName>(value);
    m_set_State[0] |= 0xc;
}
 
inline
CPC_ResultType_Base::TName& CPC_ResultType_Base::SetName(void)
{
#ifdef _DEBUG
    if (!IsSetName()) {
        m_Name = UnassignedStringUTF8();
    }
#endif
    m_set_State[0] |= 0x4;
    return m_Name;
}
 
inline
bool CPC_ResultType_Base::IsSetDescription(void) const
{
    return ((m_set_State[0] & 0x30) != 0);
}
 
inline
bool CPC_ResultType_Base::CanGetDescription(void) const
{
    return true;
}
 
inline
const CPC_ResultType_Base::TDescription& CPC_ResultType_Base::GetDescription(void) const
{
    return m_Description;
}
 
inline
CPC_ResultType_Base::TDescription& CPC_ResultType_Base::SetDescription(void)
{
    m_set_State[0] |= 0x10;
    return m_Description;
}
 
inline
bool CPC_ResultType_Base::IsSetType(void) const
{
    return ((m_set_State[0] & 0xc0) != 0);
}
 
inline
bool CPC_ResultType_Base::CanGetType(void) const
{
    return IsSetType();
}
 
inline
void CPC_ResultType_Base::ResetType(void)
{
    m_Type = (EType)(0);
    m_set_State[0] &= ~0xc0;
}
 
inline
CPC_ResultType_Base::TType CPC_ResultType_Base::GetType(void) const
{
    if (!CanGetType()) {
        ThrowUnassigned(3);
    }
    return m_Type;
}
 
inline
void CPC_ResultType_Base::SetType(CPC_ResultType_Base::TType value)
{
    m_Type = value;
    m_set_State[0] |= 0xc0;
}
 
inline
CPC_ResultType_Base::TType& CPC_ResultType_Base::SetType(void)
{
#ifdef _DEBUG
    if (!IsSetType()) {
        memset(&m_Type,UnassignedByte(),sizeof(m_Type));
    }
#endif
    m_set_State[0] |= 0x40;
    return m_Type;
}
 
inline
bool CPC_ResultType_Base::IsSetConstraints(void) const
{
    return m_Constraints.NotEmpty();
}
 
inline
bool CPC_ResultType_Base::CanGetConstraints(void) const
{
    return IsSetConstraints();
}
 
inline
const CPC_ResultType_Base::TConstraints& CPC_ResultType_Base::GetConstraints(void) const
{
    if (!CanGetConstraints()) {
        ThrowUnassigned(4);
    }
    return (*m_Constraints);
}
 
inline
bool CPC_ResultType_Base::IsSetUnit(void) const
{
    return ((m_set_State[0] & 0xc00) != 0);
}
 
inline
bool CPC_ResultType_Base::CanGetUnit(void) const
{
    return IsSetUnit();
}
 
inline
void CPC_ResultType_Base::ResetUnit(void)
{
    m_Unit = (EUnit)(0);
    m_set_State[0] &= ~0xc00;
}
 
inline
CPC_ResultType_Base::TUnit CPC_ResultType_Base::GetUnit(void) const
{
    if (!CanGetUnit()) {
        ThrowUnassigned(5);
    }
    return m_Unit;
}
 
inline
void CPC_ResultType_Base::SetUnit(CPC_ResultType_Base::TUnit value)
{
    m_Unit = value;
    m_set_State[0] |= 0xc00;
}
 
inline
CPC_ResultType_Base::TUnit& CPC_ResultType_Base::SetUnit(void)
{
#ifdef _DEBUG
    if (!IsSetUnit()) {
        memset(&m_Unit,UnassignedByte(),sizeof(m_Unit));
    }
#endif
    m_set_State[0] |= 0x400;
    return m_Unit;
}
 
inline
bool CPC_ResultType_Base::IsSetSunit(void) const
{
    return ((m_set_State[0] & 0x3000) != 0);
}
 
inline
bool CPC_ResultType_Base::CanGetSunit(void) const
{
    return IsSetSunit();
}
 
inline
const CPC_ResultType_Base::TSunit& CPC_ResultType_Base::GetSunit(void) const
{
    if (!CanGetSunit()) {
        ThrowUnassigned(6);
    }
    return m_Sunit;
}
 
inline
void CPC_ResultType_Base::SetSunit(const CPC_ResultType_Base::TSunit& value)
{
    m_Sunit = value;
    m_set_State[0] |= 0x3000;
}
 
inline
void CPC_ResultType_Base::SetSunit(CPC_ResultType_Base::TSunit&& value)
{
    m_Sunit = std::forward<CPC_ResultType_Base::TSunit>(value);
    m_set_State[0] |= 0x3000;
}
 
inline
CPC_ResultType_Base::TSunit& CPC_ResultType_Base::SetSunit(void)
{
#ifdef _DEBUG
    if (!IsSetSunit()) {
        m_Sunit = UnassignedString();
    }
#endif
    m_set_State[0] |= 0x1000;
    return m_Sunit;
}
 
inline
bool CPC_ResultType_Base::IsSetTransform(void) const
{
    return ((m_set_State[0] & 0xc000) != 0);
}
 
inline
bool CPC_ResultType_Base::CanGetTransform(void) const
{
    return IsSetTransform();
}
 
inline
void CPC_ResultType_Base::ResetTransform(void)
{
    m_Transform = (ETransform)(0);
    m_set_State[0] &= ~0xc000;
}
 
inline
CPC_ResultType_Base::TTransform CPC_ResultType_Base::GetTransform(void) const
{
    if (!CanGetTransform()) {
        ThrowUnassigned(7);
    }
    return m_Transform;
}
 
inline
void CPC_ResultType_Base::SetTransform(CPC_ResultType_Base::TTransform value)
{
    m_Transform = value;
    m_set_State[0] |= 0xc000;
}
 
inline
CPC_ResultType_Base::TTransform& CPC_ResultType_Base::SetTransform(void)
{
#ifdef _DEBUG
    if (!IsSetTransform()) {
        memset(&m_Transform,UnassignedByte(),sizeof(m_Transform));
    }
#endif
    m_set_State[0] |= 0x4000;
    return m_Transform;
}
 
inline
bool CPC_ResultType_Base::IsSetTc(void) const
{
    return m_Tc.NotEmpty();
}
 
inline
bool CPC_ResultType_Base::CanGetTc(void) const
{
    return IsSetTc();
}
 
inline
const CPC_ResultType_Base::TTc& CPC_ResultType_Base::GetTc(void) const
{
    if (!CanGetTc()) {
        ThrowUnassigned(8);
    }
    return (*m_Tc);
}
 
inline
bool CPC_ResultType_Base::IsSetAc(void) const
{
    return ((m_set_State[0] & 0xc0000) != 0);
}
 
inline
bool CPC_ResultType_Base::CanGetAc(void) const
{
    return IsSetAc();
}
 
inline
void CPC_ResultType_Base::ResetAc(void)
{
    m_Ac = 0;
    m_set_State[0] &= ~0xc0000;
}
 
inline
CPC_ResultType_Base::TAc CPC_ResultType_Base::GetAc(void) const
{
    if (!CanGetAc()) {
        ThrowUnassigned(9);
    }
    return m_Ac;
}
 
inline
void CPC_ResultType_Base::SetAc(CPC_ResultType_Base::TAc value)
{
    m_Ac = value;
    m_set_State[0] |= 0xc0000;
}
 
inline
CPC_ResultType_Base::TAc& CPC_ResultType_Base::SetAc(void)
{
#ifdef _DEBUG
    if (!IsSetAc()) {
        memset(&m_Ac,UnassignedByte(),sizeof(m_Ac));
    }
#endif
    m_set_State[0] |= 0x40000;
    return m_Ac;
}
 
inline
bool CPC_ResultType_Base::IsSetAc_qualifier(void) const
{
    return ((m_set_State[0] & 0x300000) != 0);
}
 
inline
bool CPC_ResultType_Base::CanGetAc_qualifier(void) const
{
    return IsSetAc_qualifier();
}
 
inline
void CPC_ResultType_Base::ResetAc_qualifier(void)
{
    m_Ac_qualifier = 0;
    m_set_State[0] &= ~0x300000;
}
 
inline
CPC_ResultType_Base::TAc_qualifier CPC_ResultType_Base::GetAc_qualifier(void) const
{
    if (!CanGetAc_qualifier()) {
        ThrowUnassigned(10);
    }
    return m_Ac_qualifier;
}
 
inline
void CPC_ResultType_Base::SetAc_qualifier(CPC_ResultType_Base::TAc_qualifier value)
{
    m_Ac_qualifier = value;
    m_set_State[0] |= 0x300000;
}
 
inline
CPC_ResultType_Base::TAc_qualifier& CPC_ResultType_Base::SetAc_qualifier(void)
{
#ifdef _DEBUG
    if (!IsSetAc_qualifier()) {
        memset(&m_Ac_qualifier,UnassignedByte(),sizeof(m_Ac_qualifier));
    }
#endif
    m_set_State[0] |= 0x100000;
    return m_Ac_qualifier;
}
 
inline
bool CPC_ResultType_Base::IsSetAnnot(void) const
{
    return ((m_set_State[0] & 0xc00000) != 0);
}
 
inline
bool CPC_ResultType_Base::CanGetAnnot(void) const
{
    return IsSetAnnot();
}
 
inline
void CPC_ResultType_Base::ResetAnnot(void)
{
    m_Annot = (EAnnot)(0);
    m_set_State[0] &= ~0xc00000;
}
 
inline
CPC_ResultType_Base::TAnnot CPC_ResultType_Base::GetAnnot(void) const
{
    if (!CanGetAnnot()) {
        ThrowUnassigned(11);
    }
    return m_Annot;
}
 
inline
void CPC_ResultType_Base::SetAnnot(CPC_ResultType_Base::TAnnot value)
{
    m_Annot = value;
    m_set_State[0] |= 0xc00000;
}
 
inline
CPC_ResultType_Base::TAnnot& CPC_ResultType_Base::SetAnnot(void)
{
#ifdef _DEBUG
    if (!IsSetAnnot()) {
        memset(&m_Annot,UnassignedByte(),sizeof(m_Annot));
    }
#endif
    m_set_State[0] |= 0x400000;
    return m_Annot;
}
 
///////////////////////////////////////////////////////////
////////////////// end of inline methods //////////////////
///////////////////////////////////////////////////////////
 
 
 
 
 
END_pcassay2_SCOPE // namespace ncbi::objects::pcassay2::
 
END_objects_SCOPE // namespace ncbi::objects::
 
END_NCBI_SCOPE
 
 
#endif // OBJECTS_PCASSAY2_PC_RESULTTYPE_BASE_HPP