dde_helpers.hpp

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/**********************************************************************           
    * dde_helpers.hpp -- Helper primitives in the DDE MoC             *
    *                                                                 *
    * Author:  Hosein Attarzadeh (shan2@kth.se)                       *
    *                                                                 *
    * Purpose: Providing helper primitives for modeling in the DDE MoC*
    *                                                                 *
    * Usage:   This file is included automatically                    *
    *                                                                 *
    * License: BSD3                                                   *
    *******************************************************************/

#ifndef DDE_HELPERS_HPP
#define DDE_HELPERS_HPP

#include <functional>
#include <tuple>

#include "tt_event.hpp"
#include "dde_process_constructors.hpp"

namespace ForSyDe
{

namespace DDE
{

using namespace sc_core;


template <class T0, template <class> class OIf,
          class T1, template <class> class I1If>
inline comb<T0,T1>* make_comb(std::string pName,
    typename comb<T0,T1>::functype _func,
    OIf<T0>& outS,
    I1If<T1>& inp1S
    )
{
    auto p = new comb<T0,T1>(pName.c_str(), _func);
    
    (*p).iport1(inp1S);
    (*p).oport1(outS);
    
    return p;
}


template <class T0, template <class> class OIf,
          class T1, template <class> class I1If,
          class T2, template <class> class I2If>
inline comb2<T0,T1,T2>* make_comb2(std::string pName,
    typename comb2<T0,T1,T2>::functype _func,
    OIf<T0>& outS,
    I1If<T1>& inp1S,
    I2If<T2>& inp2S
    )
{
    auto p = new comb2<T0,T1,T2>(pName.c_str(), _func);
    
    (*p).iport1(inp1S);
    (*p).iport2(inp2S);
    (*p).oport1(outS);
    
    return p;
}


template <typename T, template <class> class IIf,
                        template <class> class OIf>
inline delay<T>* make_delay(std::string pName,
    abst_ext<T> initval,
    sc_time delay_time,
    OIf<T>& outS,
    IIf<T>& inpS
    )
{
    auto p = new delay<T>(pName.c_str(), initval, delay_time);
    
    (*p).iport1(inpS);
    (*p).oport1(outS);
    
    return p;
}

template <typename IT, typename ST, typename OT,
           template <class> class IIf,
           template <class> class OIf>
inline mealy<IT,ST,OT>* make_mealy(const std::string& pName,
    const typename mealy<IT,ST,OT>::ns_functype& _ns_func,
    const typename mealy<IT,ST,OT>::od_functype& _od_func,
    const ST& init_st,
    const sc_time& delay_time,
    OIf<OT>& outS,
    IIf<IT>& inpS
    )
{
    auto p = new mealy<IT,ST,OT>(pName.c_str(), _ns_func, _od_func, init_st, delay_time);
    
    (*p).iport1(inpS);
    (*p).oport1(outS);
    
    return p;
}

template <typename IT1, typename IT2, typename ST, typename OT,
           template <class> class IIf1, template <class> class IIf2,
           template <class> class OIf>
inline mealy2<IT1,IT2,ST,OT>* make_mealy2(const std::string& pName,
    const typename mealy2<IT1,IT2,ST,OT>::ns_functype& _ns_func,
    const typename mealy2<IT1,IT2,ST,OT>::od_functype& _od_func,
    const ST& init_st,
    const sc_time& delay_time,
    OIf<OT>& outS,
    IIf1<IT1>& inpS1,
    IIf2<IT2>& inpS2
    )
{
    auto p = new mealy2<IT1,IT2,ST,OT>(pName.c_str(), _ns_func, _od_func, init_st, delay_time);
    
    (*p).iport1(inpS1);
    (*p).iport2(inpS2);
    (*p).oport1(outS);
    
    return p;
}


template <class T, template <class> class OIf>
inline source<T>* make_source(std::string pName,
    typename source<T>::functype _func,
    ttn_event<T> initval,
    unsigned long long take,
    OIf<T>& outS
    )
{
    auto p = new source<T>(pName.c_str(), _func, initval, take);
    
    (*p).oport1(outS);
    
    return p;
}


template <class T, template <class> class OIf>
inline vsource<T>* make_vsource(std::string pName,  
    const std::vector<T>& values,                   
    const std::vector<sc_time>& offsets,            
    OIf<T>& outS
    )
{
    auto p = new vsource<T>(pName.c_str(), values, offsets);
    
    (*p).oport1(outS);
    
    return p;
}


template <class T, template <class> class IIf>
inline sink<T>* make_sink(std::string pName,
    typename sink<T>::functype _func,
    IIf<T>& inS
    )
{
    auto p = new sink<T>(pName.c_str(), _func);
    
    (*p).iport1(inS);
    
    return p;
}


template <class T1, template <class> class I1If,
           class T2, template <class> class I2If,
           template <class> class OIf>
inline zip<T1,T2>* make_zip(std::string pName,
    OIf< std::tuple<abst_ext<T1>,abst_ext<T2>> >& outS,
    I1If<T1>& inp1S,
    I2If<T2>& inp2S
    )
{
    auto p = new zip<T1,T2>(pName.c_str());
    
    (*p).iport1(inp1S);
    (*p).iport2(inp2S);
    (*p).oport1(outS);
    
    return p;
}


template <class T1, std::size_t N,
            template <class> class OIf>
inline zipX<T1,N>* make_zipX(std::string pName,
    OIf< std::array<abst_ext<T1>,N> >& outS
    )
{
    auto p = new zipX<T1,N>(pName.c_str());
    
    (*p).oport1(outS);
    
    return p;
}


template <template <class> class IIf,
           class T1, template <class> class O1If,
           class T2, template <class> class O2If>
inline unzip<T1,T2>* make_unzip(std::string pName,
    IIf< std::tuple<abst_ext<T1>,abst_ext<T2>> >& inpS,
    O1If<T1>& out1S,
    O2If<T2>& out2S
    )
{
    auto p = new unzip<T1,T2>(pName.c_str());
    
    (*p).iport1(inpS);
    (*p).oport1(out1S);
    (*p).oport2(out2S);
    
    return p;
}


template <template <class> class IIf,
           class T1, std::size_t N>
inline unzipX<T1,N>* make_unzipX(const std::string& pName,
    IIf<std::array<abst_ext<T1>,N>>& inpS
    )
{
    auto p = new unzipX<T1,N>(pName.c_str());
    
    (*p).iport1(inpS);
    
    return p;
}


template <typename T, template <class> class IIf,
                        template <class> class OIf>
inline fanout<T>* make_fanout(std::string pName,
    OIf<T>& outS,
    IIf<T>& inpS
    )
{
    auto p = new fanout<T>(pName.c_str());
    
    (*p).iport1(inpS);
    (*p).oport1(outS);
    
    return p;
}


}
}

#endif