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/*
VASP modular - vector assembling signal processor / objects for Max/MSP and PD
Copyright (c) 2002 Thomas Grill (xovo@gmx.net)
For information on usage and redistribution, and for a DISCLAIMER OF ALL
WARRANTIES, see the file, "license.txt," in this distribution.
*/
#ifndef __VASP_CLASSES_H
#define __VASP_CLASSES_H
#include "vasp.h"
#include "arg.h"
class vasp_base:
public flext_base
{
FLEXT_HEADER_S(vasp_base,flext_base,Setup)
public:
enum xs_unit {
xsu__ = -1, // don't change
xsu_sample = 0,xsu_buffer,xsu_ms,xsu_s
};
static const t_symbol *sym_vasp;
static const t_symbol *sym_env;
static const t_symbol *sym_double;
static const t_symbol *sym_complex;
static const t_symbol *sym_vector;
static const t_symbol *sym_radio;
protected:
vasp_base();
virtual ~vasp_base();
virtual V m_radio(I argc,const t_atom *argv); // commands for all
/*
V m_argchk(BL chk); // precheck argument on arrival
V m_loglvl(I lvl); // noise level of log messages
V m_unit(xs_unit u); // unit command
*/
BL refresh; // immediate graphics refresh?
BL argchk; // pre-operation argument feasibility check
xs_unit unit; // time units
I loglvl; // noise level for log messages
friend class Vasp;
BL ToOutVasp(I outlet,Vasp &v);
private:
static V Setup(t_classid);
FLEXT_CALLBACK_V(m_radio)
FLEXT_ATTRVAR_B(argchk)
FLEXT_ATTRVAR_I(loglvl)
FLEXT_ATTRVAR_E(unit,xs_unit)
};
class vasp_op:
public vasp_base
{
FLEXT_HEADER_S(vasp_op,vasp_base,Setup)
protected:
vasp_op(BL withto = false);
virtual V m_dobang(); // bang method
virtual V m_vasp(I argc,const t_atom *argv); // trigger
virtual I m_set(I argc,const t_atom *argv); // non trigger
virtual V m_to(I argc,const t_atom *argv); // set destination
// V m_detach(BL thr); // detached thread
// virtual V m_prior(I dp); // thread priority +-
virtual V m_stop(); // stop working
virtual V m_update(I argc = 0,const t_atom *argv = NULL); // graphics update
V m_setupd(const AtomList &l) { m_update(l.Count(),l.Atoms()); }
V m_getupd(AtomList &l) { l(1); SetBool(l[0],refresh); }
// destination vasp
Vasp ref,dst;
V m_setref(const AtomList &l) { m_set(l.Count(),l.Atoms()); }
V m_getref(AtomList &l) { ref.MakeList(l); }
V m_setto(const AtomList &l) { m_to(l.Count(),l.Atoms()); }
V m_getto(AtomList &l) { dst.MakeList(l); }
FLEXT_CALLBACK_V(m_to)
FLEXT_CALLBACK(m_dobang)
#ifdef FLEXT_THREADS
FLEXT_THREAD(m_bang)
ThrMutex runmtx;
V Lock() { runmtx.Lock(); }
V Unlock() { runmtx.Unlock(); }
BL detach; // detached operation?
I prior; // thread priority
// thrid_t thrid;
#else
FLEXT_CALLBACK(m_bang)
V Lock() {}
V Unlock() {}
#endif
FLEXT_CALLBACK_V(m_vasp)
FLEXT_CALLBACK_V(m_set)
FLEXT_CALLVAR_V(m_getref,m_setref)
FLEXT_CALLVAR_V(m_getto,m_setto)
FLEXT_CALLBACK(m_stop)
FLEXT_CALLVAR_V(m_getupd,m_setupd)
#ifdef FLEXT_THREADS
FLEXT_ATTRVAR_B(detach)
FLEXT_ATTRVAR_I(prior)
#endif
private:
static V Setup(t_classid);
virtual V m_bang() = 0; // do! and output current Vasp
};
class vasp_tx:
public vasp_op
{
FLEXT_HEADER(vasp_tx,vasp_op)
protected:
vasp_tx(BL withto = false);
virtual V m_bang(); // do! and output current Vasp
virtual Vasp *x_work() = 0;
};
#define VASP_SETUP(op) FLEXT_SETUP(vasp_##op);
// base class for unary operations
class vasp_unop:
public vasp_tx
{
FLEXT_HEADER(vasp_unop,vasp_tx)
protected:
vasp_unop(BL withto = false,UL outcode = 0);
virtual Vasp *x_work();
virtual Vasp *tx_work();
};
// base class for binary operations
class vasp_binop:
public vasp_tx
{
FLEXT_HEADER_S(vasp_binop,vasp_tx,Setup)
protected:
vasp_binop(I argc,const t_atom *argv,const Argument &def = Argument(),BL withto = false,UL outcode = 0);
// assignment functions
virtual V a_list(I argc,const t_atom *argv);
/*virtual*/ V a_vasp(I argc,const t_atom *argv);
/*virtual*/ V a_env(I argc,const t_atom *argv);
/*virtual*/ V a_float(F f);
/*virtual*/ V a_int(I f);
/*virtual*/ V a_double(I argc,const t_atom *argv);
/*virtual*/ V a_complex(I argc,const t_atom *argv);
/*virtual*/ V a_vector(I argc,const t_atom *argv);
V a_radio(I,const t_atom *) {}
virtual Vasp *x_work();
virtual Vasp *tx_work(const Argument &arg);
Argument arg;
V m_setarg(const AtomList &l) { a_list(l.Count(),l.Atoms()); }
V m_getarg(AtomList &l) { arg.MakeList(l); }
private:
static V Setup(t_classid);
FLEXT_CALLBACK_V(a_list)
FLEXT_CALLBACK_V(a_vasp)
FLEXT_CALLBACK_V(a_env)
FLEXT_CALLBACK_1(a_float,F)
FLEXT_CALLBACK_1(a_int,I)
FLEXT_CALLBACK_V(a_double)
FLEXT_CALLBACK_V(a_complex)
FLEXT_CALLBACK_V(a_vector)
FLEXT_CALLBACK_V(a_radio)
FLEXT_CALLVAR_V(m_getarg,m_setarg)
};
// base class for non-parsed (list) arguments
class vasp_anyop:
public vasp_tx
{
FLEXT_HEADER_S(vasp_anyop,vasp_tx,Setup)
protected:
vasp_anyop(I argc,const t_atom *argv,const Argument &def = Argument(),BL withto = false,UL outcode = 0);
// assignment functions
virtual V a_list(I argc,const t_atom *argv);
V a_radio(I,const t_atom *) {}
virtual Vasp *x_work();
virtual Vasp *tx_work(const Argument &arg);
Argument arg;
V m_setarg(const AtomList &l) { a_list(l.Count(),l.Atoms()); }
V m_getarg(AtomList &l) { arg.MakeList(l); }
private:
static V Setup(t_classid);
FLEXT_CALLBACK_V(a_list)
FLEXT_CALLBACK_V(a_radio)
FLEXT_CALLVAR_V(m_getarg,m_setarg)
};
#define VASP_UNARY(name,op,to,help) \
class vasp_##op: \
public vasp_unop \
{ \
FLEXT_HEADER(vasp_##op,vasp_unop) \
public: \
vasp_##op(): vasp_unop(to) {} \
protected: \
virtual Vasp *tx_work() \
{ \
OpParam p(thisName(),0); \
CVasp cdst(dst),cref(ref); \
return VaspOp::m_##op(p,cref,&cdst); \
} \
virtual V m_help() { post("%s - " help,thisName()); } \
}; \
FLEXT_LIB("vasp," name,vasp_##op)
#define VASP_BINARY(name,op,to,def,help) \
class vasp_ ## op: \
public vasp_binop \
{ \
FLEXT_HEADER(vasp_##op,vasp_binop) \
public: \
vasp_##op(I argc,const t_atom *argv): vasp_binop(argc,argv,def,to) {} \
protected: \
virtual Vasp *tx_work(const Argument &arg) \
{ \
OpParam p(thisName(),1); \
CVasp cdst(dst),cref(ref); \
return VaspOp::m_##op(p,cref,arg,&cdst); \
} \
virtual V m_help() { post("%s - " help,thisName()); } \
}; \
FLEXT_LIB_V("vasp," name,vasp_##op)
#define VASP_ANYOP(name,op,args,to,def,help) \
class vasp_ ## op: \
public vasp_anyop \
{ \
FLEXT_HEADER(vasp_##op,vasp_anyop) \
public: \
vasp_##op(I argc,const t_atom *argv): vasp_anyop(argc,argv,def,to) {} \
protected: \
virtual Vasp *tx_work(const Argument &arg) \
{ \
OpParam p(thisName(),args); \
CVasp cdst(dst),cref(ref); \
return VaspOp::m_##op(p,cref,arg,&cdst); \
} \
virtual V m_help() { post("%s - " help,thisName()); } \
}; \
FLEXT_LIB_V("vasp," name,vasp_##op)
#define VASP__SETUP(op) FLEXT_SETUP(vasp_##op);
#endif
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