SharedVariablesData.hpp - OpenGrok cross reference for /dports/science/dakota/dakota-6.13.0-release-public.src-UI/src/SharedVariablesData.hpp

/*  _______________________________________________________________________

    DAKOTA: Design Analysis Kit for Optimization and Terascale Applications
    Copyright 2014-2020 National Technology & Engineering Solutions of Sandia, LLC (NTESS).
    This software is distributed under the GNU Lesser General Public License.
    For more information, see the README file in the top Dakota directory.
    _______________________________________________________________________ */

//- Class:       SharedVariablesData
//- Description: Encapsulation of data that can be shared among Variables
//-              instances.
//- Owner:       Mike Eldred
//- Version: $Id: SharedVariablesData.hpp 6784 2010-05-18 21:10:35Z mseldre $

#ifndef SHARED_VARIABLES_DATA_H
#define SHARED_VARIABLES_DATA_H

#include "dakota_data_types.hpp"
#include "DataVariables.hpp"
#include <boost/serialization/access.hpp>
#include <boost/serialization/split_member.hpp>
#include <boost/serialization/tracking.hpp>
#include <boost/shared_ptr.hpp>

namespace Dakota {

// forward declarations
class ProblemDescDB;


/// The representation of a SharedVariablesData instance.  This representation,
/// or body, may be shared by multiple SharedVariablesData handle instances.

/** The SharedVariablesData/SharedVariablesDataRep pairs utilize a
    handle-body idiom (Coplien, Advanced C++). */

class SharedVariablesDataRep
{
  //
  //- Heading: Friends
  //

  friend class SharedVariablesData;

  /// allow boost access to serialize this class
  friend class boost::serialization::access;

public:

  /// destructor must be public for shared_ptr
  ~SharedVariablesDataRep();

private:

  //
  //- Heading: Constructor and destructor
  //

  /// standard constructor
  SharedVariablesDataRep(const ProblemDescDB& problem_db,
			 const std::pair<short,short>& view);
  /// medium weight constructor providing detailed variable counts
  SharedVariablesDataRep(const std::pair<short,short>& view,
			 const std::map<unsigned short, size_t>& vars_comps,
			 const BitArray& all_relax_di,
			 const BitArray& all_relax_dr);
  /// lightweight constructor providing variable count totals
  SharedVariablesDataRep(const std::pair<short,short>& view,
			 const SizetArray& vars_comps_totals,
			 const BitArray& all_relax_di,
			 const BitArray& all_relax_dr);
  /// default constructor
  SharedVariablesDataRep();

  //
  //- Heading: Member functions
  //

  /// populate variables{Components,CompsTotals} from user variable
  /// type and count specifications
  void initialize_components_totals(const ProblemDescDB& problem_db);
  /// update variablesCompsTotals from variablesComponents
  void components_to_totals();

  /// populate allRelaxedDiscrete{Int,Real} from user specifications
  /// (relax variables that are not declared as categorical)
  void relax_noncategorical(const ProblemDescDB& problem_db);

  /// Set the ard_cntr entry in the all-relaxed-discrete integer or
  /// real container ard_container, based on user-specification of
  /// categorical, accounting for empty
  void set_relax(const BitArray& user_cat_spec, size_t ucs_index,
		 size_t ard_cntr, BitArray& ard_container);

  /// compute all variables sums from variablesCompsTotals
  void all_counts(size_t& num_acv, size_t& num_adiv, size_t& num_adsv,
		  size_t& num_adrv) const;
  /// adjust counts based on allRelaxedDiscrete{Int,Real}
  void relax_counts(size_t& num_cv, size_t& num_div, size_t& num_drv,
		    size_t offset_di, size_t offset_dr) const;
  /// compute design variables sums from variablesCompsTotals
  void design_counts(size_t& num_cdv, size_t& num_ddiv, size_t& num_ddsv,
		     size_t& num_ddrv) const;
  /// compute aleatory uncertain variables sums from variablesCompsTotals
  void aleatory_uncertain_counts(size_t& num_cauv,  size_t& num_dauiv,
				 size_t& num_dausv, size_t& num_daurv) const;
  /// compute epistemic uncertain variables sums from variablesCompsTotals
  void epistemic_uncertain_counts(size_t& num_ceuv,  size_t& num_deuiv,
				  size_t& num_deusv, size_t& num_deurv) const;
  /// compute uncertain variables sums from variablesCompsTotals
  void uncertain_counts(size_t& num_cuv,  size_t& num_duiv,
			size_t& num_dusv, size_t& num_durv) const;
  /// compute state variables sums from variablesCompsTotals
  void state_counts(size_t& num_csv,  size_t& num_dsiv,
		    size_t& num_dssv, size_t& num_dsrv) const;

  /// define start indices and counts for active variables based on view
  void view_start_counts(short view, size_t& cv_start, size_t& div_start,
			 size_t& dsv_start, size_t& drv_start,
			 size_t& num_cv, size_t& num_div, size_t& num_dsv,
			 size_t& num_drv) const;

  /// define active variable subsets based on active view
  void view_subsets(short view, bool& cdv,  bool& ddv, bool& cauv, bool& dauv,
		    bool& ceuv, bool& deuv, bool& csv, bool& dsv) const;

  /// size all{Continuous,DiscreteInt,DiscreteString,DiscreteReal}Labels,
  /// with or without discrete relaxation
  void size_all_labels();
  /// size all{Continuous,DiscreteInt,DiscreteString,DiscreteReal}Types,
  /// with or without discrete relaxation
  void size_all_types();

  /// convert index within active continuous variables (as identified
  /// by bools) to index within aggregated variables (all continous,
  /// discrete {int,string,real})
  size_t cv_index_to_all_index(size_t cv_index,
			       bool cdv, bool cauv, bool ceuv, bool csv) const;
  /// convert index within active discrete integer variables (as
  /// identified by bools) to index within aggregated variables (all
  /// continous, discrete {int,string,real})
  size_t div_index_to_all_index(size_t div_index,
				bool ddv, bool dauv, bool deuv, bool dsv) const;
  /// convert index within active discrete string variables (as
  /// identified by bools) to index within aggregated variables (all
  /// continous, discrete {int,string,real})
  size_t dsv_index_to_all_index(size_t dsv_index,
				bool ddv, bool dauv, bool deuv, bool dsv) const;
  /// convert index within active discrete real variables (as
  /// identified by bools) to index within aggregated variables (all
  /// continous, discrete {int,string,real})
  size_t drv_index_to_all_index(size_t drv_index,
				bool ddv, bool dauv, bool deuv, bool dsv) const;

  /// create a BitArray indicating the active continuous subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray cv_to_all_mask(bool cdv, bool cauv, bool ceuv, bool csv) const;
  /// create a BitArray indicating the active discrete int subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray div_to_all_mask(bool ddv, bool dauv, bool deuv, bool dsv) const;
  /// create a BitArray indicating the active discrete string subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray dsv_to_all_mask(bool ddv, bool dauv, bool deuv, bool dsv) const;
  /// create a BitArray indicating the active discrete real subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray drv_to_all_mask(bool ddv, bool dauv, bool deuv, bool dsv) const;

  /// aggregate all{Continuous,DiscreteInt,DiscreteString,DiscreteReal}Labels
  /// from user specification or defaults
  void initialize_all_labels(const ProblemDescDB& problem_db);
  /// initialize all{Continuous,DiscreteInt,DiscreteString,DiscreteReal}Types,
  /// with or without discrete relaxation
  void initialize_all_types();
  /// initialize allContinuousIds (discrete not currently needed),
  /// with or without discrete relaxation
  void initialize_all_ids();

  /// initialize {c,di,ds,dr}vStart and num{D,DI,DS,DR}V
  void initialize_active_start_counts();
  /// initialize i{c,di,ds,dr}vStart and numI{D,DI,DS,DR}V
  void initialize_inactive_start_counts();

  /// initialize activeVarsCompsTotals given {c,di,dr}vStart and num{C,DI,DR}V
  void initialize_active_components();
  /// initialize inactiveVarsCompsTotals given i{c,di,dr}vStart and
  /// numI{C,DI,DR}V
  void initialize_inactive_components();

  /// retrieve the count within variablesComponents corresponding to key
  size_t vc_lookup(unsigned short key) const;

  /// copy the data from svd_rep to the current representation
  void copy_rep(SharedVariablesDataRep* svd_rep);

  /// serialize the core shared variables data
  template<class Archive>
  void save(Archive& ar, const unsigned int version) const;

  /// load the core shared variables data and restore class state
  template<class Archive>
  void load(Archive& ar, const unsigned int version);

  BOOST_SERIALIZATION_SPLIT_MEMBER()


  //
  //- Heading: Data
  //

  /// variables identifier string from the input file
  String variablesId;

  /// map linking variable types to counts
  std::map<unsigned short, size_t> variablesComponents;
  /// totals for variable type counts for
  /// {continuous,discrete integer,discrete string,discrete real}
  /// {design,aleatory uncertain,epistemic uncertain,state}.
  /** This data reflects the variable counts as originally specified
      and is not altered by relaxation. */
  SizetArray variablesCompsTotals;
  /// totals for active variable type counts for
  /// {continuous,discrete integer,discrete string,discrete real}
  /// {design,aleatory uncertain,epistemic uncertain,state}.
  /** This data reflects the variable counts as originally specified
      and is not altered by relaxation. */
  SizetArray activeVarsCompsTotals;
  /// totals for inactive variable type counts for
  /// {continuous,discrete integer,discrete string,discrete real}
  /// {design,aleatory uncertain,epistemic uncertain,state}.
  /** This data reflects the variable counts as originally specified
      and is not altered by relaxation. */
  SizetArray inactiveVarsCompsTotals;

  /// the variables view pair containing active (first) and inactive (second)
  /// view enumerations
  std::pair<short, short> variablesView;
  /// start index of active continuous variables within allContinuousVars
  size_t cvStart;
  /// start index of active discrete integer variables within allDiscreteIntVars
  size_t divStart;
  /// start index of active discrete string vars within allDiscreteStringVars
  size_t dsvStart;
  /// start index of active discrete real variables within allDiscreteRealVars
  size_t drvStart;
  /// start index of inactive continuous variables within allContinuousVars
  size_t icvStart;
  /// start index of inactive discrete integer vars within allDiscreteIntVars
  size_t idivStart;
  /// start index of inactive discrete string vars within allDiscreteStringVars
  size_t idsvStart;
  /// start index of inactive discrete real variables within allDiscreteRealVars
  size_t idrvStart;
  size_t numCV;   ///< number of active continuous variables
  size_t numDIV;  ///< number of active discrete integer variables
  size_t numDSV;  ///< number of active discrete string variables
  size_t numDRV;  ///< number of active discrete real variables
  size_t numICV;  ///< number of inactive continuous variables
  size_t numIDIV; ///< number of inactive discrete integer variables
  size_t numIDSV; ///< number of inactive discrete string variables
  size_t numIDRV; ///< number of inactive discrete real variables

  /// array of variable labels for all of the continuous variables
  StringMultiArray allContinuousLabels;
  /// array of variable labels for all of the discrete integer variables
  StringMultiArray allDiscreteIntLabels;
  /// array of variable labels for all of the discrete string variables
  StringMultiArray allDiscreteStringLabels;
  /// array of variable labels for all of the discrete real variables
  StringMultiArray allDiscreteRealLabels;

  /// array of variable types for all of the continuous variables
  UShortMultiArray allContinuousTypes;
  /// array of variable types for all of the discrete integer variables
  UShortMultiArray allDiscreteIntTypes;
  /// array of variable types for all of the discrete string variables
  UShortMultiArray allDiscreteStringTypes;
  /// array of variable types for all of the discrete real variables
  UShortMultiArray allDiscreteRealTypes;

  /// array of 1-based position identifiers for the all continuous
  /// variables array
  /** These identifiers define positions of the all continuous variables
      array within the total variable sequence.  A primary use case is
      for defining derivative ids (DVV) based on an active subset. */
  SizetMultiArray allContinuousIds;

  /// array of 1-based ids (into total variable set) for discrete int
  SizetMultiArray allDiscreteIntIds;
  /// array of 1-based ids (into total variable set) for discrete string
  SizetMultiArray allDiscreteStringIds;
  /// array of 1-based ids (into total variable set) for discrete real
  SizetMultiArray allDiscreteRealIds;

  /// array of booleans to indicate relaxation (promotion from
  /// DiscreteInt to Continuous) for all specified discrete int variables
  /// Note: container will be empty when not relaxing variables
  BitArray allRelaxedDiscreteInt;
  /// array of booleans to indicate relaxation (promotion from
  /// DiscreteReal to Continuous) for all specified discrete real variables
  /// Note: container will be empty when not relaxing variables
  BitArray allRelaxedDiscreteReal;
};


inline SharedVariablesDataRep::SharedVariablesDataRep():
  cvStart(0), divStart(0), dsvStart(0), drvStart(0), icvStart(0), idivStart(0),
  idsvStart(0), idrvStart(0), numCV(0), numDIV(0), numDSV(0), numDRV(0),
  numICV(0), numIDIV(0), numIDSV(0), numIDRV(0)
{ /* empty ctor */ }


inline SharedVariablesDataRep::~SharedVariablesDataRep()
{ /* empty dtor */ }


inline size_t SharedVariablesDataRep::vc_lookup(unsigned short key) const
{
  std::map<unsigned short, size_t>::const_iterator cit
    = variablesComponents.find(key);
  return (cit == variablesComponents.end()) ? 0 : cit->second;
}


inline void SharedVariablesDataRep::
all_counts(size_t& num_acv, size_t& num_adiv, size_t& num_adsv,
	   size_t& num_adrv) const
{
  num_acv = variablesCompsTotals[TOTAL_CDV]  + variablesCompsTotals[TOTAL_CAUV]
          + variablesCompsTotals[TOTAL_CEUV] + variablesCompsTotals[TOTAL_CSV];
  // num_adsv is always categorical
  // num_adiv and num_adrv are updated below for relaxed non-categorical
  num_adiv
    = variablesCompsTotals[TOTAL_DDIV]  + variablesCompsTotals[TOTAL_DAUIV]
    + variablesCompsTotals[TOTAL_DEUIV] + variablesCompsTotals[TOTAL_DSIV];
  num_adsv
    = variablesCompsTotals[TOTAL_DDSV]  + variablesCompsTotals[TOTAL_DAUSV]
    + variablesCompsTotals[TOTAL_DEUSV] + variablesCompsTotals[TOTAL_DSSV];
  num_adrv
    = variablesCompsTotals[TOTAL_DDRV]  + variablesCompsTotals[TOTAL_DAURV]
    + variablesCompsTotals[TOTAL_DEURV] + variablesCompsTotals[TOTAL_DSRV];

  if (allRelaxedDiscreteInt.any() || allRelaxedDiscreteReal.any()) {
    size_t num_relax_int  = allRelaxedDiscreteInt.count(),
           num_relax_real = allRelaxedDiscreteReal.count();
    num_acv  += num_relax_int + num_relax_real;
    num_adiv -= num_relax_int;
    num_adrv -= num_relax_real;
  }
}


inline void SharedVariablesDataRep::
relax_counts(size_t& num_cv, size_t& num_div, size_t& num_drv,
	     size_t offset_di, size_t offset_dr) const
{
  size_t i, num_relax_int  = 0, num_relax_real = 0,
    end_di = num_div + offset_di, end_dr = num_drv + offset_dr;
  for (i=offset_di; i<end_di; ++i)
    if (allRelaxedDiscreteInt[i])
      ++num_relax_int;
  for (i=offset_dr; i<end_dr; ++i)
    if (allRelaxedDiscreteReal[i])
      ++num_relax_real;
  num_cv  += num_relax_int + num_relax_real;
  num_div -= num_relax_int;
  num_drv -= num_relax_real;
}


inline void SharedVariablesDataRep::
design_counts(size_t& num_cdv, size_t& num_ddiv, size_t& num_ddsv,
	      size_t& num_ddrv) const
{
  num_cdv  = variablesCompsTotals[TOTAL_CDV];
  num_ddiv = variablesCompsTotals[TOTAL_DDIV];
  num_ddsv = variablesCompsTotals[TOTAL_DDSV];
  num_ddrv = variablesCompsTotals[TOTAL_DDRV];

  if (allRelaxedDiscreteInt.any() || allRelaxedDiscreteReal.any())
    relax_counts(num_cdv, num_ddiv, num_ddrv, 0, 0);
}


inline void SharedVariablesDataRep::
aleatory_uncertain_counts(size_t& num_cauv,  size_t& num_dauiv,
			  size_t& num_dausv, size_t& num_daurv) const
{
  num_cauv  = variablesCompsTotals[TOTAL_CAUV];
  num_dauiv = variablesCompsTotals[TOTAL_DAUIV];
  num_dausv = variablesCompsTotals[TOTAL_DAUSV];
  num_daurv = variablesCompsTotals[TOTAL_DAURV];

  if (allRelaxedDiscreteInt.any() || allRelaxedDiscreteReal.any())
    relax_counts(num_cauv, num_dauiv, num_daurv,
		 variablesCompsTotals[TOTAL_DDIV],
		 variablesCompsTotals[TOTAL_DDRV]);
}


inline void SharedVariablesDataRep::
epistemic_uncertain_counts(size_t& num_ceuv,  size_t& num_deuiv,
			   size_t& num_deusv, size_t& num_deurv) const
{
  num_ceuv  = variablesCompsTotals[TOTAL_CEUV];
  num_deuiv = variablesCompsTotals[TOTAL_DEUIV];
  num_deusv = variablesCompsTotals[TOTAL_DEUSV];
  num_deurv = variablesCompsTotals[TOTAL_DEURV];

  if (allRelaxedDiscreteInt.any() || allRelaxedDiscreteReal.any())
    relax_counts(num_ceuv, num_deuiv, num_deurv,
		 variablesCompsTotals[TOTAL_DDIV] +
		 variablesCompsTotals[TOTAL_DAUIV],
		 variablesCompsTotals[TOTAL_DDRV] +
		 variablesCompsTotals[TOTAL_DAURV]);
}


inline void SharedVariablesDataRep::
uncertain_counts(size_t& num_cuv,  size_t& num_duiv,
		 size_t& num_dusv, size_t& num_durv) const
{
  num_cuv  = variablesCompsTotals[TOTAL_CAUV]
           + variablesCompsTotals[TOTAL_CEUV];
  num_duiv = variablesCompsTotals[TOTAL_DAUIV]
           + variablesCompsTotals[TOTAL_DEUIV];
  num_dusv = variablesCompsTotals[TOTAL_DAUSV]
           + variablesCompsTotals[TOTAL_DEUSV];
  num_durv = variablesCompsTotals[TOTAL_DAURV]
           + variablesCompsTotals[TOTAL_DEURV];

  if (allRelaxedDiscreteInt.any() || allRelaxedDiscreteReal.any())
    relax_counts(num_cuv, num_duiv, num_durv, variablesCompsTotals[TOTAL_DDIV],
		 variablesCompsTotals[TOTAL_DDRV]);
}


inline void SharedVariablesDataRep::
state_counts(size_t& num_csv,  size_t& num_dsiv,
	     size_t& num_dssv, size_t& num_dsrv) const
{
  num_csv  = variablesCompsTotals[TOTAL_CSV];
  num_dsiv = variablesCompsTotals[TOTAL_DSIV];
  num_dssv = variablesCompsTotals[TOTAL_DSSV];
  num_dsrv = variablesCompsTotals[TOTAL_DSRV];

  if (allRelaxedDiscreteInt.any() || allRelaxedDiscreteReal.any())
    relax_counts(num_csv, num_dsiv, num_dsrv, variablesCompsTotals[TOTAL_DDIV] +
		 variablesCompsTotals[TOTAL_DAUIV] +
		 variablesCompsTotals[TOTAL_DEUIV],
		 variablesCompsTotals[TOTAL_DDRV]  +
		 variablesCompsTotals[TOTAL_DAURV] +
		 variablesCompsTotals[TOTAL_DEURV]);
}


inline void SharedVariablesDataRep::
view_subsets(short view, bool&  cdv, bool& ddv, bool& cauv, bool& dauv,
	     bool& ceuv, bool& deuv, bool& csv, bool& dsv) const
{
  // Continuous/discrete distinction is finer granularity than is currently
  // necessary, but is more readily extensible...

  switch (view) {
  case RELAXED_ALL:                 case MIXED_ALL:
    cdv = ddv = cauv = dauv = ceuv = deuv = csv = dsv = true;        break;
  case RELAXED_UNCERTAIN:           case MIXED_UNCERTAIN:
    cdv = ddv = csv = dsv = false; cauv = dauv = ceuv = deuv = true; break;
  case RELAXED_ALEATORY_UNCERTAIN:  case MIXED_ALEATORY_UNCERTAIN:
    cdv = ddv = ceuv = deuv = csv = dsv = false; cauv = dauv = true; break;
  case RELAXED_EPISTEMIC_UNCERTAIN: case MIXED_EPISTEMIC_UNCERTAIN:
    cdv = ddv = cauv = dauv = csv = dsv = false; ceuv = deuv = true; break;
  case RELAXED_DESIGN:              case MIXED_DESIGN:
    cauv = dauv = ceuv = deuv = csv = dsv = false; cdv = ddv = true; break;
  case RELAXED_STATE:               case MIXED_STATE:
    cdv = ddv = cauv = dauv = ceuv = deuv = false; csv = dsv = true; break;
  default: // EMPTY_VIEW (e.g., inactive view not yet defined)
    cdv = ddv = cauv = dauv = ceuv = deuv = csv = dsv = false;       break;
  }
}


inline void SharedVariablesDataRep::size_all_labels()
{
  size_t num_acv, num_adiv, num_adsv, num_adrv;
  all_counts(num_acv, num_adiv, num_adsv, num_adrv);

  allContinuousLabels.resize(boost::extents[num_acv]);    // updated size
  allDiscreteIntLabels.resize(boost::extents[num_adiv]);  // updated size
  allDiscreteStringLabels.resize(boost::extents[num_adsv]);
  allDiscreteRealLabels.resize(boost::extents[num_adrv]); // updated size
}


inline void SharedVariablesDataRep::size_all_types()
{
  size_t num_acv, num_adiv, num_adsv, num_adrv;
  all_counts(num_acv, num_adiv, num_adsv, num_adrv);

  allContinuousTypes.resize(boost::extents[num_acv]);
  allDiscreteIntTypes.resize(boost::extents[num_adiv]);
  allDiscreteStringTypes.resize(boost::extents[num_adsv]);
  allDiscreteRealTypes.resize(boost::extents[num_adrv]);
}


inline void SharedVariablesDataRep::initialize_active_start_counts()
{
  view_start_counts(variablesView.first, cvStart, divStart, dsvStart, drvStart,
		    numCV, numDIV, numDSV, numDRV);
}


inline void SharedVariablesDataRep::initialize_inactive_start_counts()
{
  view_start_counts(variablesView.second, icvStart, idivStart, idsvStart,
		    idrvStart, numICV, numIDIV, numIDSV, numIDRV);
}


/// Container class encapsulating variables data that can be shared
/// among a set of Variables instances.

/** An array of Variables objects (e.g., Analyzer::allVariables) contains
    repeated configuration data (id's, labels, counts).  SharedVariablesData
    employs a handle-body idiom to allow this shared data to be managed
    in a single object with many references to it, one per Variables
    object in the array.  This allows scaling to larger sample sets. */

class SharedVariablesData
{
public:

  //
  //- Heading: Friends
  //

  /// allow boost access to serialize this class
  friend class boost::serialization::access;


  //
  //- Heading: Constructors, destructor, and operators
  //

  /// default constructor
  SharedVariablesData();
  /// standard constructor
  SharedVariablesData(const ProblemDescDB& problem_db,
		      const std::pair<short,short>& view);
  /// medium weight constructor providing detailed variable counts
  SharedVariablesData(const std::pair<short,short>& view,
		      const std::map<unsigned short, size_t>& vars_comps,
		      const BitArray& all_relax_di = BitArray(),
		      const BitArray& all_relax_dr = BitArray());
  /// lightweight constructor providing variable count totals
  SharedVariablesData(const std::pair<short,short>& view,
		      const SizetArray& vars_comps_totals,
		      const BitArray& all_relax_di = BitArray(),
		      const BitArray& all_relax_dr = BitArray());
  /// copy constructor
  SharedVariablesData(const SharedVariablesData& svd);
  /// destructor
  ~SharedVariablesData();

  /// assignment operator
  SharedVariablesData& operator=(const SharedVariablesData& svd);

  //
  //- Heading: member functions
  //

  /// create a deep copy of the current object and return by value
  SharedVariablesData copy() const;

  /// compute all variables sums from
  /// SharedVariablesDataRep::variablesCompsTotals and
  /// SharedVariablesDataRep::allRelaxedDiscrete{Int,Real}
  void all_counts(size_t& num_acv, size_t& num_adiv, size_t& num_adsv,
		  size_t& num_adrv) const;
  /// compute design variables sums from
  /// SharedVariablesDataRep::variablesCompsTotals and
  /// SharedVariablesDataRep::allRelaxedDiscrete{Int,Real}
  void design_counts(size_t& num_cdv, size_t& num_ddiv, size_t& num_ddsv,
		     size_t& num_ddrv) const;
  /// compute aleatory uncertain variables sums from
  /// SharedVariablesDataRep::variablesCompsTotals and
  /// SharedVariablesDataRep::allRelaxedDiscrete{Int,Real}
  void aleatory_uncertain_counts(size_t& num_cauv,  size_t& num_dauiv,
				 size_t& num_dausv, size_t& num_daurv) const;
  /// compute epistemic uncertain variables sums from
  /// SharedVariablesDataRep::variablesCompsTotals and
  /// SharedVariablesDataRep::allRelaxedDiscrete{Int,Real}
  void epistemic_uncertain_counts(size_t& num_ceuv,  size_t& num_deuiv,
				  size_t& num_deusv, size_t& num_deurv) const;
  /// compute uncertain variables sums from
  /// SharedVariablesDataRep::variablesCompsTotals and
  /// SharedVariablesDataRep::allRelaxedDiscrete{Int,Real}
  void uncertain_counts(size_t& num_cuv,  size_t& num_duiv,
			size_t& num_dusv, size_t& num_durv) const;
  /// compute state variables sums from
  /// SharedVariablesDataRep::variablesCompsTotals and
  /// SharedVariablesDataRep::allRelaxedDiscrete{Int,Real}
  void state_counts(size_t& num_csv,  size_t& num_dsiv,
		    size_t& num_dssv, size_t& num_dsrv) const;

  /// define active variable subsets based on active view
  void active_subsets(bool& cdv,  bool& ddv,  bool& cauv, bool& dauv,
		      bool& ceuv, bool& deuv, bool& csv,  bool& dsv) const;
  /// define active variable subsets based on active view
  void inactive_subsets(bool& cdv,  bool& ddv,  bool& cauv, bool& dauv,
			bool& ceuv, bool& deuv, bool& csv,  bool& dsv) const;
  /// define active variable subsets based on active view
  void complement_subsets(bool& cdv,  bool& ddv,  bool& cauv, bool& dauv,
			  bool& ceuv, bool& deuv, bool& csv,  bool& dsv) const;

  /// convert index within active continuous variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t cv_index_to_all_index(size_t cv_index) const;
  /// convert index within inactive continuous variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t icv_index_to_all_index(size_t ccv_index) const;
  /// convert index within complement of active continuous variables to index
  /// within aggregated variables (all continous, discrete {int,string,real})
  size_t ccv_index_to_all_index(size_t ccv_index) const;
  /// convert index within all continuous variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t acv_index_to_all_index(size_t acv_index) const;

  /// convert index within active discrete integer variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t div_index_to_all_index(size_t div_index) const;
  /// convert index within inactive discrete integer variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t idiv_index_to_all_index(size_t div_index) const;
  /// convert index within complement of active discrete integer variables
  /// to index within aggregated variables (all continous, discrete
  /// {int,string,real})
  size_t cdiv_index_to_all_index(size_t div_index) const;
  /// convert index within all discrete integer variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t adiv_index_to_all_index(size_t adiv_index) const;

  /// convert index within active discrete string variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t dsv_index_to_all_index(size_t dsv_index) const;
  /// convert index within inactive discrete string variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t idsv_index_to_all_index(size_t dsv_index) const;
  /// convert index within complement of active discrete string variables
  /// to index within aggregated variables (all continous, discrete
  /// {int,string,real})
  size_t cdsv_index_to_all_index(size_t dsv_index) const;
  /// convert index within all discrete string variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t adsv_index_to_all_index(size_t adsv_index) const;

  /// convert index within active discrete real variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t drv_index_to_all_index(size_t drv_index) const;
  /// convert index within inactive discrete real variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t idrv_index_to_all_index(size_t drv_index) const;
  /// convert index within complement of active discrete real variables
  /// to index within aggregated variables (all continous, discrete
  /// {int,string,real})
  size_t cdrv_index_to_all_index(size_t drv_index) const;
  /// convert index within all discrete real variables to index within
  /// aggregated variables (all continous, discrete {int,string,real})
  size_t adrv_index_to_all_index(size_t adrv_index) const;

  /// convert index within active continuous variables to index within
  /// aggregated active variables (active continous, discrete {int,string,real})
  size_t cv_index_to_active_index(size_t cv_index) const;
  /// convert index within active discrete integer variables to index within
  /// aggregated active variables (active continous, discrete {int,string,real})
  size_t div_index_to_active_index(size_t div_index) const;
  /// convert index within active discrete string variables to index within
  /// aggregated active variables (active continous, discrete {int,string,real})
  size_t dsv_index_to_active_index(size_t dsv_index) const;
  /// convert index within active discrete real variables to index within
  /// aggregated active variables (active continous, discrete {int,string,real})
  size_t drv_index_to_active_index(size_t drv_index) const;

  /// convert index within complement of active continuous variables
  /// to index within all continuous variables
  size_t ccv_index_to_acv_index(size_t ccv_index) const;
  /// convert index within complement of active discrete integer variables
  /// to index within all discrete integer variables
  size_t cdiv_index_to_adiv_index(size_t div_index) const;
  /// convert index within complement of active discrete string variables
  /// to index within all discrete string variables
  size_t cdsv_index_to_adsv_index(size_t dsv_index) const;
  /// convert index within complement of active discrete real
  /// variables to index within all discrete real variables
  size_t cdrv_index_to_adrv_index(size_t drv_index) const;

  /// create a BitArray indicating the active continuous subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray cv_to_all_mask() const;
  /// create a BitArray indicating the inactive continuous subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray icv_to_all_mask() const;
  /// create a BitArray indicating the complement continuous subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray ccv_to_all_mask() const;
  /// create a BitArray indicating the all continuous subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray acv_to_all_mask() const;

  /// create a BitArray indicating the active discrete int subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray div_to_all_mask() const;
  /// create a BitArray indicating the inactive discrete int subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray idiv_to_all_mask() const;
  /// create a BitArray indicating the complement discrete int subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray cdiv_to_all_mask() const;
  /// create a BitArray indicating the all discrete int subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray adiv_to_all_mask() const;

  /// create a BitArray indicating the active discrete string subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray dsv_to_all_mask() const;
  /// create a BitArray indicating the inactive discrete string subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray idsv_to_all_mask() const;
  /// create a BitArray indicating the complement discrete string subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray cdsv_to_all_mask() const;
  /// create a BitArray indicating the all discrete string subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray adsv_to_all_mask() const;

  /// create a BitArray indicating the active discrete real subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray drv_to_all_mask() const;
  /// create a BitArray indicating the inactive discrete real subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray idrv_to_all_mask() const;
  /// create a BitArray indicating the complement discrete real subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray cdrv_to_all_mask() const;
  /// create a BitArray indicating the all discrete real subset of all
  /// {continuous,discrete {int,string,real}} variables
  BitArray adrv_to_all_mask() const;

  /// initialize start index and counts for active variables
  void initialize_active_start_counts();
  /// initialize start index and counts for inactive variables
  void initialize_inactive_start_counts();

  /// initialize the active components totals given active variable counts
  void initialize_active_components();
  /// initialize the inactive components totals given inactive variable counts
  void initialize_inactive_components();

  /// return allRelaxedDiscreteInt
  const BitArray& all_relaxed_discrete_int() const;
  /// return allRelaxedDiscreteReal
  const BitArray& all_relaxed_discrete_real() const;

  /// get num_items continuous labels beginning at index start
  StringMultiArrayView
    all_continuous_labels(size_t start, size_t num_items) const;
  /// set num_items continuous labels beginning at index start
  void all_continuous_labels(StringMultiArrayConstView cv_labels, size_t start,
			     size_t num_items);
  /// set continuous label at index start
  void all_continuous_label(const String& cv_label, size_t index);

  /// get num_items discrete integer labels beginning at index start
  StringMultiArrayView
    all_discrete_int_labels(size_t start, size_t num_items) const;
  /// set num_items discrete integer labels beginning at index start
  void all_discrete_int_labels(StringMultiArrayConstView div_labels,
			       size_t start, size_t num_items);
  /// set discrete integer label at index start
  void all_discrete_int_label(const String& div_label, size_t index);

  /// get num_items discrete string labels beginning at index start
  StringMultiArrayView
    all_discrete_string_labels(size_t start, size_t num_items) const;
  /// set num_items discrete string labels beginning at index start
  void all_discrete_string_labels(StringMultiArrayConstView dsv_labels,
				  size_t start, size_t num_items);
  /// set discrete string label at index start
  void all_discrete_string_label(const String& dsv_label, size_t index);

  /// get num_items discrete real labels beginning at index start
  StringMultiArrayView
    all_discrete_real_labels(size_t start, size_t num_items) const;
  /// set num_items discrete real labels beginning at index start
  void all_discrete_real_labels(StringMultiArrayConstView drv_labels,
				size_t start, size_t num_items);
  /// set discrete real label at index start
  void all_discrete_real_label(const String& drv_label, size_t index);

  /// assemble all variable labels (continuous and discrete {int,string,real})
  /// in standard (input specification-based) order
  void assemble_all_labels(StringArray& all_labels) const;

  /// get num_items continuous types beginning at index start
  UShortMultiArrayConstView
    all_continuous_types(size_t start, size_t num_items) const;
  /// set num_items continuous types beginning at index start
  void all_continuous_types(UShortMultiArrayConstView cv_types,
			    size_t start, size_t num_items);
  /// set continuous type at index
  void all_continuous_type(unsigned short cv_type, size_t index);

  /// get num_items discrete integer types beginning at index start
  UShortMultiArrayConstView
    all_discrete_int_types(size_t start, size_t num_items) const;
  /// set num_items discrete integer types beginning at index start
  void all_discrete_int_types(UShortMultiArrayConstView div_types,
			      size_t start, size_t num_items);
  /// set discrete integer type at index
  void all_discrete_int_type(unsigned short div_type, size_t index);

  /// get num_items discrete string types beginning at index start
  UShortMultiArrayConstView
    all_discrete_string_types(size_t start, size_t num_items) const;
  /// set num_items discrete string types beginning at index start
  void all_discrete_string_types(UShortMultiArrayConstView dsv_types,
			       size_t start, size_t num_items);
  /// set discrete string type at index
  void all_discrete_string_type(unsigned short dsv_type, size_t index);

  /// get num_items discrete real types beginning at index start
  UShortMultiArrayConstView
    all_discrete_real_types(size_t start, size_t num_items) const;
  /// set num_items discrete real types beginning at index start
  void all_discrete_real_types(UShortMultiArrayConstView drv_types,
			       size_t start, size_t num_items);
  /// set discrete real type at index
  void all_discrete_real_type(unsigned short drv_type, size_t index);

  /// get num_items continuous ids beginning at index start
  SizetMultiArrayConstView
    all_continuous_ids(size_t start, size_t num_items) const;
  /// set num_items continuous ids beginning at index start
  void all_continuous_ids(SizetMultiArrayConstView cv_ids,
			  size_t start, size_t num_items);
  /// set num_items continuous ids beginning at index start
  void all_continuous_id(size_t id, size_t index);

  /// get num_items discrete int ids beginning at index start
  SizetMultiArrayConstView
    all_discrete_int_ids(size_t start, size_t num_items) const;
  /// get num_items discrete string ids beginning at index start
  SizetMultiArrayConstView
    all_discrete_string_ids(size_t start, size_t num_items) const;
  /// get num_items discrete real ids beginning at index start
  SizetMultiArrayConstView
    all_discrete_real_ids(size_t start, size_t num_items) const;

  // get ids of discrete variables that have been relaxed into
  // continuous variable arrays
  //const SizetArray& relaxed_discrete_ids() const;

  /// return the user-provided or default Variables identifier
  const String& id() const;

  /// return variable type counts for
  /// {continuous,discrete integer,discrete real}
  /// {design,aleatory uncertain,epistemic uncertain,state}
  const SizetArray& components_totals() const;
  /// return active variable type counts for
  /// {continuous,discrete integer,discrete real}
  /// {design,aleatory uncertain,epistemic uncertain,state}
  const SizetArray& active_components_totals() const;
  /// return inactive variable type counts for
  /// {continuous,discrete integer,discrete real}
  /// {design,aleatory uncertain,epistemic uncertain,state}
  const SizetArray& inactive_components_totals() const;

  /// retrieve the variables type count within
  /// svdRep->variablesComponents corresponding to (a fine-grain
  /// variables type) key
  size_t vc_lookup(unsigned short key) const;

  /// retreive the Variables view
  const std::pair<short,short>& view() const;
  /// set the inactive Variables view
  void inactive_view(short view2);

  size_t cv()         const; ///< get number of active continuous vars
  size_t cv_start()   const; ///< get start index of active continuous vars
  size_t div()        const; ///< get number of active discrete int vars
  size_t div_start()  const; ///< get start index of active discrete int vars
  size_t dsv()        const; ///< get number of active discrete string vars
  size_t dsv_start()  const; ///< get start index of active discrete string vars
  size_t drv()        const; ///< get number of active discrete real vars
  size_t drv_start()  const; ///< get start index of active discrete real vars
  size_t icv()        const; ///< get number of inactive continuous vars
  size_t icv_start()  const; ///< get start index of inactive continuous vars
  size_t idiv()       const; ///< get number of inactive discrete int vars
  size_t idiv_start() const; ///< get start index of inactive discrete int vars
  size_t idsv()       const; ///< get number of inactive discrete string vars
  size_t idsv_start() const; ///< get start index of inactive discr string vars
  size_t idrv()       const; ///< get number of inactive discrete real vars
  size_t idrv_start() const; ///< get start index of inactive discrete real vars

  void cv(size_t ncv);         ///< set number of active continuous vars
  void cv_start(size_t cvs);   ///< set start index of active continuous vars
  void div(size_t ndiv);       ///< set number of active discrete int vars
  void div_start(size_t divs); ///< set start index of active discrete int vars
  void dsv(size_t ndsv);       ///< set number of active discrete string vars
  void dsv_start(size_t dsvs); ///< set start index of active discr string vars
  void drv(size_t ndrv);       ///< set number of active discrete real vars
  void drv_start(size_t drvs); ///< set start index of active discrete real vars
  void icv(size_t nicv);       ///< set number of inactive continuous vars
  void icv_start(size_t icvs); ///< set start index of inactive continuous vars
  void idiv(size_t nidiv);     ///< set number of inactive discrete int vars
  void idiv_start(size_t idivs); ///< set start index of inactive discr int vars
  void idsv(size_t nidsv);       ///< set number of inactive discr string vars
  void idsv_start(size_t idsvs); ///< set start index of inact discr string vars
  void idrv(size_t nidrv);       ///< set number of inactive discrete real vars
  void idrv_start(size_t idrvs); ///< set start index of inact discr real vars

private:

  /// serialize through the pointer, which requires object tracking:
  /// write and read are symmetric for this class
  template<class Archive>
  void serialize(Archive& ar, const unsigned int version);

  //
  //- Heading: Private data members
  //

  /// pointer to the body (handle-body idiom)
  boost::shared_ptr<SharedVariablesDataRep> svdRep;
};


inline SharedVariablesData::SharedVariablesData()
{ /* empty ctor */ }


inline SharedVariablesData::
SharedVariablesData(const ProblemDescDB& problem_db,
		    const std::pair<short,short>& view):
  svdRep(new SharedVariablesDataRep(problem_db, view))
{ /* empty ctor */ }


inline SharedVariablesData::
SharedVariablesData(const std::pair<short,short>& view,
		    const std::map<unsigned short, size_t>& vars_comps,
		    const BitArray& all_relax_di, const BitArray& all_relax_dr):
  svdRep(new SharedVariablesDataRep(view, vars_comps, all_relax_di,
				    all_relax_dr))
{ /* empty ctor */ }


inline SharedVariablesData::
SharedVariablesData(const std::pair<short,short>& view,
		    const SizetArray& vars_comps_totals,
		    const BitArray& all_relax_di, const BitArray& all_relax_dr):
  svdRep(new SharedVariablesDataRep(view, vars_comps_totals, all_relax_di,
				    all_relax_dr))
{ /* empty ctor */ }


inline SharedVariablesData::SharedVariablesData(const SharedVariablesData& svd)
{
  // share the representation (body)
  svdRep = svd.svdRep;
}


inline SharedVariablesData& SharedVariablesData::
operator=(const SharedVariablesData& svd)
{
  // share the inbound representation (body) by copying the pointer
  svdRep = svd.svdRep;
  return *this;
}


inline SharedVariablesData::~SharedVariablesData()
{ /* empty dtor in case we add virtual functions */ }


inline void SharedVariablesData::
all_counts(size_t& num_acv, size_t& num_adiv, size_t& num_adsv,
	   size_t& num_adrv) const
{ svdRep->all_counts(num_acv, num_adiv, num_adsv, num_adrv); }


inline void SharedVariablesData::
design_counts(size_t& num_cdv, size_t& num_ddiv, size_t& num_ddsv,
	      size_t& num_ddrv) const
{ svdRep->design_counts(num_cdv, num_ddiv, num_ddsv, num_ddrv); }


inline void SharedVariablesData::
aleatory_uncertain_counts(size_t& num_cauv,  size_t& num_dauiv,
			  size_t& num_dausv, size_t& num_daurv) const
{
  svdRep->aleatory_uncertain_counts(num_cauv, num_dauiv, num_dausv, num_daurv);
}


inline void SharedVariablesData::
epistemic_uncertain_counts(size_t& num_ceuv,  size_t& num_deuiv,
			   size_t& num_deusv, size_t& num_deurv) const
{
  svdRep->epistemic_uncertain_counts(num_ceuv, num_deuiv, num_deusv, num_deurv);
}


inline void SharedVariablesData::
uncertain_counts(size_t& num_cuv, size_t& num_duiv, size_t& num_dusv,
		 size_t& num_durv) const
{ svdRep->uncertain_counts(num_cuv, num_duiv, num_dusv, num_durv); }


inline void SharedVariablesData::
state_counts(size_t& num_csv, size_t& num_dsiv, size_t& num_dssv,
	     size_t& num_dsrv) const
{ svdRep->state_counts(num_csv, num_dsiv, num_dssv, num_dsrv); }


inline void SharedVariablesData::
active_subsets(bool& cdv, bool& ddv, bool& cauv, bool& dauv, bool& ceuv,
	       bool& deuv, bool& csv, bool& dsv) const
{
  svdRep->view_subsets(svdRep->variablesView.first,
		       cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
}


inline void SharedVariablesData::
inactive_subsets(bool& cdv, bool& ddv, bool& cauv, bool& dauv, bool& ceuv,
		 bool& deuv, bool& csv, bool& dsv) const
{
  svdRep->view_subsets(svdRep->variablesView.second,
		       cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
}


inline void SharedVariablesData::
complement_subsets(bool& cdv, bool& ddv, bool& cauv, bool& dauv, bool& ceuv,
		   bool& deuv, bool& csv, bool& dsv) const
{
  bool active_cdv,  active_ddv,  active_cauv, active_dauv,
       active_ceuv, active_deuv, active_csv,  active_dsv;
  svdRep->view_subsets(svdRep->variablesView.first, active_cdv, active_ddv,
		       active_cauv, active_dauv, active_ceuv, active_deuv,
		       active_csv, active_dsv);
  cdv  = !active_cdv;  ddv  = !active_ddv;
  cauv = !active_cauv; dauv = !active_dauv;
  ceuv = !active_ceuv, deuv = !active_deuv;
  csv  = !active_csv,  dsv  = !active_dsv;
}


inline size_t SharedVariablesData::cv_index_to_all_index(size_t cv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  active_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->cv_index_to_all_index(cv_index, cdv, cauv, ceuv, csv);
}


inline size_t SharedVariablesData::
icv_index_to_all_index(size_t icv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  inactive_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->cv_index_to_all_index(icv_index, cdv, cauv, ceuv, csv);
}


inline size_t SharedVariablesData::
ccv_index_to_all_index(size_t ccv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  complement_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->cv_index_to_all_index(ccv_index, cdv, cauv, ceuv, csv);
}


inline size_t SharedVariablesData::
acv_index_to_all_index(size_t acv_index) const
{ return svdRep->cv_index_to_all_index(acv_index, true, true, true, true); }


inline size_t SharedVariablesData::
div_index_to_all_index(size_t div_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  active_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->div_index_to_all_index(div_index, ddv, dauv, deuv, dsv);
}


inline size_t SharedVariablesData::
idiv_index_to_all_index(size_t idiv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  inactive_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->div_index_to_all_index(idiv_index, ddv, dauv, deuv, dsv);
}


inline size_t SharedVariablesData::
cdiv_index_to_all_index(size_t cdiv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  complement_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->div_index_to_all_index(cdiv_index, ddv, dauv, deuv, dsv);
}


inline size_t SharedVariablesData::
adiv_index_to_all_index(size_t adiv_index) const
{ return svdRep->div_index_to_all_index(adiv_index, true, true, true, true); }


inline size_t SharedVariablesData::
dsv_index_to_all_index(size_t dsv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  active_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->dsv_index_to_all_index(dsv_index, ddv, dauv, deuv, dsv);
}


inline size_t SharedVariablesData::
idsv_index_to_all_index(size_t idsv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  inactive_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->dsv_index_to_all_index(idsv_index, ddv, dauv, deuv, dsv);
}


inline size_t SharedVariablesData::
cdsv_index_to_all_index(size_t cdsv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  complement_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->dsv_index_to_all_index(cdsv_index, ddv, dauv, deuv, dsv);
}


inline size_t SharedVariablesData::
adsv_index_to_all_index(size_t adsv_index) const
{ return svdRep->dsv_index_to_all_index(adsv_index, true, true, true, true); }


inline size_t SharedVariablesData::
drv_index_to_all_index(size_t drv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  active_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->drv_index_to_all_index(drv_index, ddv, dauv, deuv, dsv);
}


inline size_t SharedVariablesData::
idrv_index_to_all_index(size_t idrv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  inactive_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->drv_index_to_all_index(idrv_index, ddv, dauv, deuv, dsv);
}


inline size_t SharedVariablesData::
cdrv_index_to_all_index(size_t cdrv_index) const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  complement_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->drv_index_to_all_index(cdrv_index, ddv, dauv, deuv, dsv);
}


inline size_t SharedVariablesData::
adrv_index_to_all_index(size_t adrv_index) const
{ return svdRep->drv_index_to_all_index(adrv_index, true, true, true, true); }


inline BitArray SharedVariablesData::cv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  active_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->cv_to_all_mask(cdv, cauv, ceuv, csv);
}


inline BitArray SharedVariablesData::icv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  inactive_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->cv_to_all_mask(cdv, cauv, ceuv, csv);
}


inline BitArray SharedVariablesData::ccv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  complement_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->cv_to_all_mask(cdv, cauv, ceuv, csv);
}


inline BitArray SharedVariablesData::acv_to_all_mask() const
{ return svdRep->cv_to_all_mask(true, true, true, true); }


inline BitArray SharedVariablesData::div_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  active_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->div_to_all_mask(ddv, dauv, deuv, dsv);
}


inline BitArray SharedVariablesData::idiv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  inactive_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->div_to_all_mask(ddv, dauv, deuv, dsv);
}


inline BitArray SharedVariablesData::cdiv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  complement_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->div_to_all_mask(ddv, dauv, deuv, dsv);
}


inline BitArray SharedVariablesData::adiv_to_all_mask() const
{ return svdRep->div_to_all_mask(true, true, true, true); }


inline BitArray SharedVariablesData::dsv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  active_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->dsv_to_all_mask(ddv, dauv, deuv, dsv);
}


inline BitArray SharedVariablesData::idsv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  inactive_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->dsv_to_all_mask(ddv, dauv, deuv, dsv);
}


inline BitArray SharedVariablesData::cdsv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  complement_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->dsv_to_all_mask(ddv, dauv, deuv, dsv);
}


inline BitArray SharedVariablesData::adsv_to_all_mask() const
{ return svdRep->dsv_to_all_mask(true, true, true, true); }


inline BitArray SharedVariablesData::drv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  active_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->drv_to_all_mask(ddv, dauv, deuv, dsv);
}


inline BitArray SharedVariablesData::idrv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  inactive_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->drv_to_all_mask(ddv, dauv, deuv, dsv);
}


inline BitArray SharedVariablesData::cdrv_to_all_mask() const
{
  bool cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv;
  complement_subsets(cdv, ddv, cauv, dauv, ceuv, deuv, csv, dsv);
  return svdRep->drv_to_all_mask(ddv, dauv, deuv, dsv);
}


inline BitArray SharedVariablesData::adrv_to_all_mask() const
{ return svdRep->drv_to_all_mask(true, true, true, true); }


inline void SharedVariablesData::initialize_active_start_counts()
{ svdRep->initialize_active_start_counts(); }


inline void SharedVariablesData::initialize_inactive_start_counts()
{ svdRep->initialize_inactive_start_counts(); }


inline void SharedVariablesData::initialize_active_components()
{ svdRep->initialize_active_components(); }


inline void SharedVariablesData::initialize_inactive_components()
{ svdRep->initialize_inactive_components(); }


inline const BitArray& SharedVariablesData::all_relaxed_discrete_int() const
{ return svdRep->allRelaxedDiscreteInt; }


inline const BitArray& SharedVariablesData::all_relaxed_discrete_real() const
{ return svdRep->allRelaxedDiscreteReal; }


inline StringMultiArrayView SharedVariablesData::
all_continuous_labels(size_t start, size_t num_items) const
{
  return svdRep->
    allContinuousLabels[boost::indices[idx_range(start, start+num_items)]];
}


inline void SharedVariablesData::
all_continuous_labels(StringMultiArrayConstView cv_labels, size_t start,
		      size_t num_items)
{
  svdRep->allContinuousLabels[boost::indices[idx_range(start, start+num_items)]]
    = cv_labels;
}


inline void SharedVariablesData::
all_continuous_label(const String& cv_label, size_t index)
{ svdRep->allContinuousLabels[index] = cv_label; }


inline StringMultiArrayView SharedVariablesData::
all_discrete_int_labels(size_t start, size_t num_items) const
{
  return svdRep->
    allDiscreteIntLabels[boost::indices[idx_range(start, start+num_items)]];
}


inline void SharedVariablesData::
all_discrete_int_labels(StringMultiArrayConstView div_labels, size_t start,
		      size_t num_items)
{
  svdRep->
    allDiscreteIntLabels[boost::indices[idx_range(start, start+num_items)]]
    = div_labels;
}


inline void SharedVariablesData::
all_discrete_int_label(const String& div_label, size_t index)
{ svdRep->allDiscreteIntLabels[index] = div_label; }


inline StringMultiArrayView SharedVariablesData::
all_discrete_string_labels(size_t start, size_t num_items) const
{
  return svdRep->
    allDiscreteStringLabels[boost::indices[idx_range(start, start+num_items)]];
}


inline void SharedVariablesData::
all_discrete_string_labels(StringMultiArrayConstView dsv_labels, size_t start,
			   size_t num_items)
{
  svdRep->
    allDiscreteStringLabels[boost::indices[idx_range(start, start+num_items)]]
    = dsv_labels;
}


inline void SharedVariablesData::
all_discrete_string_label(const String& dsv_label, size_t index)
{ svdRep->allDiscreteStringLabels[index] = dsv_label; }


inline StringMultiArrayView SharedVariablesData::
all_discrete_real_labels(size_t start, size_t num_items) const
{
  return svdRep->
    allDiscreteRealLabels[boost::indices[idx_range(start, start+num_items)]];
}


inline void SharedVariablesData::
all_discrete_real_labels(StringMultiArrayConstView drv_labels, size_t start,
			 size_t num_items)
{
  svdRep->
    allDiscreteRealLabels[boost::indices[idx_range(start, start+num_items)]]
    = drv_labels;
}


inline void SharedVariablesData::
all_discrete_real_label(const String& drv_label, size_t index)
{ svdRep->allDiscreteRealLabels[index] = drv_label; }


inline UShortMultiArrayConstView SharedVariablesData::
all_continuous_types(size_t start, size_t num_items) const
{
  return svdRep->
    allContinuousTypes[boost::indices[idx_range(start, start+num_items)]];
}


inline void SharedVariablesData::
all_continuous_types(UShortMultiArrayConstView cv_types,
		     size_t start, size_t num_items)
{
  svdRep->allContinuousTypes[boost::indices[idx_range(start, start+num_items)]]
    = cv_types;
}


inline void SharedVariablesData::
all_continuous_type(unsigned short cv_type, size_t index)
{ svdRep->allContinuousTypes[index] = cv_type; }


inline UShortMultiArrayConstView SharedVariablesData::
all_discrete_int_types(size_t start, size_t num_items) const
{
  return svdRep->
    allDiscreteIntTypes[boost::indices[idx_range(start, start+num_items)]];
}


inline void SharedVariablesData::
all_discrete_int_types(UShortMultiArrayConstView div_types,
		       size_t start, size_t num_items)
{
  svdRep->allDiscreteIntTypes[boost::indices[idx_range(start, start+num_items)]]
    = div_types;
}


inline void SharedVariablesData::
all_discrete_int_type(unsigned short div_type, size_t index)
{ svdRep->allDiscreteIntTypes[index] = div_type; }


inline UShortMultiArrayConstView SharedVariablesData::
all_discrete_string_types(size_t start, size_t num_items) const
{
  return svdRep->
    allDiscreteStringTypes[boost::indices[idx_range(start, start+num_items)]];
}


inline void SharedVariablesData::
all_discrete_string_types(UShortMultiArrayConstView dsv_types,
			  size_t start, size_t num_items)
{
  svdRep->
    allDiscreteStringTypes[boost::indices[idx_range(start, start+num_items)]]
    = dsv_types;
}


inline void SharedVariablesData::
all_discrete_string_type(unsigned short dsv_type, size_t index)
{ svdRep->allDiscreteStringTypes[index] = dsv_type; }


inline UShortMultiArrayConstView SharedVariablesData::
all_discrete_real_types(size_t start, size_t num_items) const
{
  return svdRep->
    allDiscreteRealTypes[boost::indices[idx_range(start, start+num_items)]];
}


inline void SharedVariablesData::
all_discrete_real_types(UShortMultiArrayConstView drv_types,
			size_t start, size_t num_items)
{
  svdRep->
    allDiscreteRealTypes[boost::indices[idx_range(start, start+num_items)]]
    = drv_types;
}


inline void SharedVariablesData::
all_discrete_real_type(unsigned short drv_type, size_t index)
{ svdRep->allDiscreteRealTypes[index] = drv_type; }


inline SizetMultiArrayConstView SharedVariablesData::
all_continuous_ids(size_t start, size_t num_items) const
{
  return svdRep->
    allContinuousIds[boost::indices[idx_range(start, start+num_items)]];
}

inline SizetMultiArrayConstView SharedVariablesData::
all_discrete_int_ids(size_t start, size_t num_items) const
{
  return svdRep->
    allDiscreteIntIds[boost::indices[idx_range(start, start+num_items)]];
}

inline SizetMultiArrayConstView SharedVariablesData::
all_discrete_string_ids(size_t start, size_t num_items) const
{
  return svdRep->
    allDiscreteStringIds[boost::indices[idx_range(start, start+num_items)]];
}

inline SizetMultiArrayConstView SharedVariablesData::
all_discrete_real_ids(size_t start, size_t num_items) const
{
  return svdRep->
    allDiscreteRealIds[boost::indices[idx_range(start, start+num_items)]];
}


inline void SharedVariablesData::
all_continuous_ids(SizetMultiArrayConstView cv_ids,
		   size_t start, size_t num_items)
{
  svdRep->allContinuousIds[boost::indices[idx_range(start, start+num_items)]]
    = cv_ids;
}


inline void SharedVariablesData::all_continuous_id(size_t cv_id, size_t index)
{ svdRep->allContinuousIds[index] = cv_id; }


inline const String& SharedVariablesData::id() const
{ return svdRep->variablesId; }


inline const SizetArray& SharedVariablesData::components_totals() const
{ return svdRep->variablesCompsTotals; }


inline const SizetArray& SharedVariablesData::active_components_totals() const
{ return svdRep->activeVarsCompsTotals; }


inline const SizetArray& SharedVariablesData::inactive_components_totals() const
{ return svdRep->inactiveVarsCompsTotals; }


inline size_t SharedVariablesData::vc_lookup(unsigned short key) const
{ return svdRep->vc_lookup(key); }


inline const std::pair<short,short>& SharedVariablesData::view() const
{ return svdRep->variablesView; }


inline void SharedVariablesData::inactive_view(short view2)
{ svdRep->variablesView.second = view2; }


inline size_t SharedVariablesData::cv() const
{ return svdRep->numCV; }


inline size_t SharedVariablesData::cv_start() const
{ return svdRep->cvStart; }


inline size_t SharedVariablesData::div() const
{ return svdRep->numDIV; }


inline size_t SharedVariablesData::div_start() const
{ return svdRep->divStart; }


inline size_t SharedVariablesData::dsv() const
{ return svdRep->numDSV; }


inline size_t SharedVariablesData::dsv_start() const
{ return svdRep->dsvStart; }


inline size_t SharedVariablesData::drv() const
{ return svdRep->numDRV; }


inline size_t SharedVariablesData::drv_start() const
{ return svdRep->drvStart; }


inline size_t SharedVariablesData::icv() const
{ return svdRep->numICV; }


inline size_t SharedVariablesData::icv_start() const
{ return svdRep->icvStart; }


inline size_t SharedVariablesData::idiv() const
{ return svdRep->numIDIV; }


inline size_t SharedVariablesData::idiv_start() const
{ return svdRep->idivStart; }


inline size_t SharedVariablesData::idsv() const
{ return svdRep->numIDSV; }


inline size_t SharedVariablesData::idsv_start() const
{ return svdRep->idsvStart; }


inline size_t SharedVariablesData::idrv() const
{ return svdRep->numIDRV; }


inline size_t SharedVariablesData::idrv_start() const
{ return svdRep->idrvStart; }


inline void SharedVariablesData::cv(size_t ncv)
{ svdRep->numCV = ncv; }


inline void SharedVariablesData::cv_start(size_t cvs)
{ svdRep->cvStart = cvs; }


inline void SharedVariablesData::div(size_t ndiv)
{ svdRep->numDIV = ndiv; }


inline void SharedVariablesData::div_start(size_t divs)
{ svdRep->divStart = divs; }


inline void SharedVariablesData::dsv(size_t ndsv)
{ svdRep->numDSV = ndsv; }


inline void SharedVariablesData::dsv_start(size_t dsvs)
{ svdRep->dsvStart = dsvs; }


inline void SharedVariablesData::drv(size_t ndrv)
{ svdRep->numDRV = ndrv; }


inline void SharedVariablesData::drv_start(size_t drvs)
{ svdRep->drvStart = drvs; }


inline void SharedVariablesData::icv(size_t nicv)
{ svdRep->numICV = nicv; }


inline void SharedVariablesData::icv_start(size_t icvs)
{ svdRep->icvStart = icvs; }


inline void SharedVariablesData::idiv(size_t nidiv)
{ svdRep->numIDIV = nidiv; }


inline void SharedVariablesData::idiv_start(size_t idivs)
{ svdRep->idivStart = idivs; }


inline void SharedVariablesData::idsv(size_t nidsv)
{ svdRep->numIDSV = nidsv; }


inline void SharedVariablesData::idsv_start(size_t idsvs)
{ svdRep->idsvStart = idsvs; }


inline void SharedVariablesData::idrv(size_t nidrv)
{ svdRep->numIDRV = nidrv; }


inline void SharedVariablesData::idrv_start(size_t idrvs)
{ svdRep->idrvStart = idrvs; }

} // namespace Dakota


// Since we may serialize this class through a temporary, force
// serialization mode and no tracking.  We allow tracking on
// SharedVariablesDataRep as we want to serialize each unique pointer
// exactly once (may need to revisit this).
BOOST_CLASS_IMPLEMENTATION(Dakota::SharedVariablesData,
 			   boost::serialization::object_serializable)
BOOST_CLASS_TRACKING(Dakota::SharedVariablesData,
  		     boost::serialization::track_never)

#endif