511 lines
15 KiB
C++
511 lines
15 KiB
C++
/****************************************************/
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/* Gestion des composants specifiques aux microndes */
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/* Generation d'une self */
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/****************************************************/
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/* Fichier GEN_SELF.H */
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/* Fonctions locales */
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static void Exit_Self(WinEDA_DrawPanel * Panel, wxDC *DC);
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static EDGE_MODULE * gen_arc(EDGE_MODULE * PtSegm, int cX, int cY, int angle);
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static void ShowCadreSelf(WinEDA_DrawPanel * panel, wxDC * DC, bool erase);
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/* structures locales */
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class SELFPCB // Definition d'une self constituee par une piste
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{
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public:
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int forme; // Serpentin, spirale ..
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int orient; // 0..3600
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int valeur; // Valeur de la self
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wxPoint m_Start;
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wxPoint m_End; // Coord du point de depart et d'arrivee
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wxSize m_Size;
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D_PAD * pt_pad_start, *pt_pad_end; // Pointeurs sur les pads d'extremite
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int lng; // Longueur de la piste constituant la self
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int m_Width; // m_Size.xur de la piste
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int nbrin; // Parametres de calcul: nombre de brins
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int lbrin; // longueur du brin
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int rayon; // Rayon des raccords entre brins
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int delta; // distance aux pads
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};
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/* Variables locales */
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static SELFPCB Mself;
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static int Self_On;
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static int Bl_X0, Bl_Y0 , Bl_Xf, Bl_Yf; // Coord du cadre insrcivant la self
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/*************************************************************************/
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static void ShowCadreSelf(WinEDA_DrawPanel * panel, wxDC * DC, bool erase)
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/*************************************************************************/
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/* Routine d'affichage a l'ecran du cadre de la self */
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{
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int deltaX, deltaY;
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/* Calcul de l'orientation et de la taille de la fenetre:
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- orient = vert ou Horiz ( dimension max)
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- Size.x = Size.y / 2
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*/
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GRSetDrawMode(DC, GR_XOR);
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if( erase)/* effacement du cadre */
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{
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GRRect( & panel->m_ClipBox, DC, Bl_X0, Bl_Y0, Bl_Xf, Bl_Yf, YELLOW);
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}
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deltaX = (panel->GetScreen()->m_Curseur.x - Mself.m_Start.x) / 4;
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deltaY = (panel->GetScreen()->m_Curseur.y - Mself.m_Start.y) / 4;
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Mself.orient = 900;
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if( abs(deltaX) > abs(deltaY) ) Mself.orient = 0;
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if(Mself.orient == 0)
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{
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Bl_X0 = Mself.m_Start.x;
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Bl_Y0 = Mself.m_Start.y - deltaX;
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Bl_Xf = panel->GetScreen()->m_Curseur.x;
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Bl_Yf = Mself.m_Start.y + deltaX;
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}
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else
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{
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Bl_X0 = Mself.m_Start.x - deltaY;
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Bl_Y0 = Mself.m_Start.y;
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Bl_Xf = Mself.m_Start.x + deltaY;
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Bl_Yf = panel->GetScreen()->m_Curseur.y;
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}
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GRRect( & panel->m_ClipBox, DC, Bl_X0, Bl_Y0, Bl_Xf, Bl_Yf,YELLOW);
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}
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/*************************************************/
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void Exit_Self(WinEDA_DrawPanel * Panel, wxDC *DC)
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/*************************************************/
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/* Routine de fermeture de l'application : ferme les commandes en cours */
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{
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if(Self_On)
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{
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Self_On = 0;
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Panel->ManageCurseur(Panel, DC, 0); /* efface cadre */
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Panel->ManageCurseur = NULL;
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Panel->ForceCloseManageCurseur = NULL;
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}
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}
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/*******************************************/
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void WinEDA_PcbFrame::Begin_Self( wxDC *DC)
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/*******************************************/
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/*
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Routine d'initialisation d'un trace de self
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*/
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{
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if ( Self_On )
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{
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Genere_Self(DC);
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return;
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}
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Mself.m_Start = GetScreen()->m_Curseur;
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Self_On = 1;
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/* Mise a jour de l'origine des coord relatives */
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GetScreen()->m_O_Curseur = GetScreen()->m_Curseur;
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Affiche_Status_Box();
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Bl_X0 = Mself.m_Start.x; Bl_Y0 = Mself.m_Start.y;
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Bl_Xf = Bl_X0; Bl_Yf = Bl_Y0;
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DrawPanel->ManageCurseur = ShowCadreSelf;
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DrawPanel->ForceCloseManageCurseur = Exit_Self;
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DrawPanel->ManageCurseur(DrawPanel, DC, 0); /* Affiche cadre */
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}
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/**********************************************/
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MODULE * WinEDA_PcbFrame::Genere_Self( wxDC *DC)
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/**********************************************/
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/* Genere une self en forme de serpentin
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- longueur Mself.lng
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- Extremites Mself.m_Start et Mself.m_End
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- Contrainte: m_Start.x = m_End.x ( self verticale )
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ou m_Start.y = m_End.y ( self horizontale )
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On doit determiner:
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Mself.nbrin = nombre de segments perpendiculaires a la direction
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( le serpention aura nbrin + 1 demicercles + 2 1/4 de cercle)
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Mself.lbrin = longueur d'un brin
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Mself.rayon = rayon des parties arrondies du serpentin
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Mself.delta = segments raccord entre extremites et le serpention lui meme
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Les equations sont
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Mself.m_Size.x = 2*Mself.rayon + Mself.lbrin
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Mself.m_Size.y = 2*Mself.delta + 2*Mself.nbrin*Mself.rayon
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Mself.lng = 2*Mself.delta // Raccords au serpentin
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+ (Mself.nbrin-2) * Mself.lbrin //longueur des brins sauf 1er et dernier
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+ (Mself.nbrin+1) * ( PI * Mself.rayon) // longueur des arrondis
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+ Mself.lbrin/2 - Melf.rayon*2) // longueur du 1er et dernier brin
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Les contraintes sont:
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nbrin >= 2
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Mself.rayon < Mself.m_Size.x
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Mself.m_Size.y = Mself.rayon*4 + 2*Mself.raccord
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Mself.lbrin > Mself.rayon *2
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Le calcul est conduit de la facon suivante:
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Initialement:
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nbrin = 2
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rayon = 4 * m_Size.x (valeur fixe arbitraire)
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puis:
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on augmente le nombre de brins jusqu'a la longueur desiree
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( le rayon est diminue si necessaire )
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*/
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{
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EDGE_MODULE * PtSegm, * LastSegm, *FirstSegm, * newedge;
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MODULE * Module;
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D_PAD * PtPad;
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int ii, ll, lextbrin;
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float fcoeff;
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bool abort = FALSE;
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wxString msg;
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DrawPanel->ManageCurseur(DrawPanel, DC, FALSE); /* efface cadre */
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DrawPanel->ManageCurseur = NULL;
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DrawPanel->ForceCloseManageCurseur = NULL;
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if(Self_On == 0)
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{
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DisplayError(this, wxT("Starting point not init..")); return NULL;
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}
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Self_On = 0;
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Mself.m_End = m_CurrentScreen->m_Curseur;
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/* Agencement des parametres pour simplifier le calcul : */
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/* le point de depart doit avoir la coord depart < celle du point de fin */
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if(Mself.orient == 0) // Self horizontale
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{
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Mself.m_End.y = Mself.m_Start.y;
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if(Mself.m_Start.x > Mself.m_End.x) EXCHG(Mself.m_Start.x,Mself.m_End.x);
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Mself.m_Size.y = Mself.m_End.x - Mself.m_Start.x;
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Mself.lng = Mself.m_Size.y;
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}
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else // Self verticale
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{
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Mself.m_End.x = Mself.m_Start.x;
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if(Mself.m_Start.y > Mself.m_End.y) EXCHG(Mself.m_Start.y,Mself.m_End.y);
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Mself.m_Size.y = Mself.m_End.y - Mself.m_Start.y;
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Mself.lng = Mself.m_Size.y;
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}
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/* Entree de la vraie longueur desiree */
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if( ! g_UnitMetric )
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{
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fcoeff = 10000.0 ;
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msg.Printf( wxT("%1.4f"), Mself.lng /fcoeff);
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abort = Get_Message(_("Length(inch):"),msg, this);
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}
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else
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{
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fcoeff = 10000.0/25.4 ;
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msg.Printf( wxT("%2.3f"), Mself.lng /fcoeff);
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abort = Get_Message( _("Length(mm):"),msg, this);
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}
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if ( abort ) return NULL;
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double fval;
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if ( ! msg.ToDouble(&fval) )
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{
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DisplayError(this, _("Incorrect number, abort"));
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return NULL;
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}
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Mself.lng = (int) round( fval * fcoeff );
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/* Controle des valeurs ( ii = valeur minimale de la longueur */
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if( Mself.lng < Mself.m_Size.y )
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{
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DisplayError(this, _("Requested length < minimum length"));
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return NULL;
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}
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/* Generation du composant: calcul des elements de la self */
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Mself.m_Width = g_DesignSettings.m_CurrentTrackWidth;
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Mself.m_Size.x = Mself.m_Size.y / 2 ;
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// Choix d'une Valeur de depart raisonnable pour le rayon des arcs de cercle
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Mself.rayon = min(Mself.m_Width * 5, Mself.m_Size.x/4);
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/* Calcul des parametres */
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for ( Mself.nbrin = 2 ; ; Mself.nbrin++)
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{
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Mself.delta = (Mself.m_Size.y - ( Mself.rayon * 2 * Mself.nbrin ) ) / 2 ;
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if(Mself.delta < Mself.m_Size.y / 10) // C.a.d. si m_Size.yeur self > m_Size.yeur specifiee
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{ // Reduction du rayon des arrondis
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Mself.delta = Mself.m_Size.y / 10;
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Mself.rayon = (Mself.m_Size.y - 2*Mself.delta) / ( 2 * Mself.nbrin) ;
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if(Mself.rayon < Mself.m_Width)
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{ // Rayon vraiment trop petit...
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Affiche_Message(_("Unable to create line: Requested length is too big"));
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return NULL;
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}
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}
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Mself.lbrin = Mself.m_Size.x - (Mself.rayon * 2);
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lextbrin = (Mself.lbrin/2) - Mself.rayon;
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ll = 2 * lextbrin ; // Longueur du 1er et dernier brin
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ll += 2 * Mself.delta ; // Longueur des raccord au serpentin
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ll += Mself.nbrin * (Mself.lbrin - 2); // longueur des autres brins
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ll += ((Mself.nbrin+1) * 314 * Mself.rayon) /100 ;
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msg.Printf( _("Segm count = %d, Lenght = "), Mself.nbrin);
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wxString stlen;
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valeur_param(ll, stlen); msg += stlen;
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Affiche_Message(msg);
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if ( ll >= Mself.lng) break;
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}
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/* Generation du composant : le calcul est fait self Verticale */
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if( Create_1_Module(DC, wxEmptyString) == NULL ) return NULL;
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Module = m_Pcb->m_Modules;
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Module->m_LibRef = wxT("MuSelf");
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Module->m_Attributs = MOD_VIRTUAL | MOD_CMS;
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Module->m_Flags = 0;
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Module->Draw(DrawPanel, DC, wxPoint(0,0), GR_XOR);
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/* Generation des elements speciaux: drawsegments */
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LastSegm = (EDGE_MODULE*) Module->m_Drawings;
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if( LastSegm ) while( LastSegm->Pnext) LastSegm = (EDGE_MODULE*)LastSegm->Pnext;
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FirstSegm = PtSegm = new EDGE_MODULE(Module);
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if (LastSegm )
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{
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LastSegm->Pnext = PtSegm;
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PtSegm->Pback = LastSegm;
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}
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else
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{
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Module->m_Drawings = PtSegm; PtSegm->Pback = Module;
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}
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PtSegm->m_Start = Mself.m_Start;
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PtSegm->m_End.x = Mself.m_Start.x;
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PtSegm->m_End.y = PtSegm->m_Start.y + Mself.delta;
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PtSegm->m_Width = Mself.m_Width;
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PtSegm->m_Layer = Module->m_Layer;
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PtSegm->m_Shape = S_SEGMENT;
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newedge = new EDGE_MODULE(Module);
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newedge->Copy(PtSegm);
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newedge->AddToChain(PtSegm);
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PtSegm = newedge;
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PtSegm->m_Start = PtSegm->m_End;
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PtSegm = gen_arc(PtSegm,PtSegm->m_End.x - Mself.rayon, PtSegm->m_End.y, -900);
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if(lextbrin)
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{
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newedge = new EDGE_MODULE(Module);
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newedge->Copy(PtSegm);
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newedge->AddToChain(PtSegm);
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PtSegm = newedge;
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PtSegm->m_Start = PtSegm->m_End;
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PtSegm->m_End.x -= lextbrin;
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}
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/* Trace du serpentin */
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for (ii = 1 ; ii < Mself.nbrin; ii++)
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{
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int arc_angle;
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newedge = new EDGE_MODULE(Module);
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newedge->Copy(PtSegm);
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newedge->AddToChain(PtSegm);
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PtSegm = newedge;
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PtSegm->m_Start = PtSegm->m_End;
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if( ii & 1) /* brin d'ordre impair : cercles de sens > 0 */
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arc_angle = 1800;
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else arc_angle = -1800;
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PtSegm = gen_arc(PtSegm, PtSegm->m_End.x,
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PtSegm->m_End.y + Mself.rayon, arc_angle);
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if( ii < Mself.nbrin-1)
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{
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newedge = new EDGE_MODULE(Module);
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newedge->Copy(PtSegm);
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newedge->AddToChain(PtSegm);
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PtSegm = newedge;
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PtSegm->m_Start = PtSegm->m_End;
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if( ii & 1) PtSegm->m_End.x += Mself.lbrin;
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else PtSegm->m_End.x -= Mself.lbrin;
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}
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}
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/* Trace du point final */
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if( ii & 1) /* brin final de sens > 0 */
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{
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if(lextbrin)
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{
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newedge = new EDGE_MODULE(Module);
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newedge->Copy(PtSegm);
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newedge->AddToChain(PtSegm);
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PtSegm = newedge;
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PtSegm->m_Start = PtSegm->m_End;
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PtSegm->m_End.x -= lextbrin;
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}
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newedge = new EDGE_MODULE(Module);
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newedge->Copy(PtSegm);
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newedge->AddToChain(PtSegm);
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PtSegm = newedge;
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PtSegm->m_Start.x = PtSegm->m_End.x; PtSegm->m_Start.y = PtSegm->m_End.y;
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PtSegm = gen_arc(PtSegm, PtSegm->m_End.x, PtSegm->m_End.y + Mself.rayon, 900);
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}
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else
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{
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if(lextbrin)
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{
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newedge = new EDGE_MODULE(Module);
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newedge->Copy(PtSegm);
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newedge->AddToChain(PtSegm);
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PtSegm = newedge;
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PtSegm->m_Start = PtSegm->m_End;
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PtSegm->m_End.x += lextbrin;
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}
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newedge = new EDGE_MODULE(Module);
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newedge->Copy(PtSegm);
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newedge->AddToChain(PtSegm);
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PtSegm = newedge;
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PtSegm->m_Start = PtSegm->m_End;
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PtSegm = gen_arc(PtSegm, PtSegm->m_End.x, PtSegm->m_End.y + Mself.rayon, -900);
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}
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newedge = new EDGE_MODULE(Module);
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newedge->Copy(PtSegm);
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newedge->AddToChain(PtSegm);
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PtSegm = newedge;
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PtSegm->m_Start = PtSegm->m_End;
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PtSegm->m_End = Mself.m_End;
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PtSegm->Pnext = NULL;
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/* Rotation de la self si le trace doit etre horizontal : */
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LastSegm = PtSegm;
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if ( Mself.orient == 0)
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{
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for( PtSegm = FirstSegm; PtSegm != NULL; PtSegm = (EDGE_MODULE*) PtSegm->Pnext )
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{
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RotatePoint(&PtSegm->m_Start.x, &PtSegm->m_Start.y,
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FirstSegm->m_Start.x, FirstSegm->m_Start.y, 900 );
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if( PtSegm != LastSegm )
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RotatePoint(&PtSegm->m_End.x, &PtSegm->m_End.y,
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FirstSegm->m_Start.x, FirstSegm->m_Start.y, 900 );
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}
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}
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/* Modif position ancre */
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Module->m_Pos.x = LastSegm->m_End.x; Module->m_Pos.y = LastSegm->m_End.y;
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/* Placement des 2 pads sur extremite */
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PtPad = new D_PAD(Module);
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Module->m_Pads = PtPad; PtPad->Pback = Module;
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PtPad->SetPadName( wxT("1") );
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PtPad->m_Pos.x = LastSegm->m_End.x; PtPad->m_Pos.y = LastSegm->m_End.y;
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PtPad->m_Pos0.x = PtPad->m_Pos.x - Module->m_Pos.x;
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PtPad->m_Pos0.y = PtPad->m_Pos.y - Module->m_Pos.y;
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PtPad->m_Size.x = PtPad->m_Size.y = LastSegm->m_Width;
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PtPad->m_Masque_Layer = g_TabOneLayerMask[LastSegm->m_Layer];
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PtPad->m_Attribut = SMD;
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PtPad->m_PadShape = CIRCLE;
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PtPad->m_Rayon = PtPad->m_Size.x / 2;
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D_PAD * newpad = new D_PAD(Module);
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newpad->Copy(PtPad);
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newpad->AddToChain(PtPad);
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PtPad = newpad;
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PtPad->SetPadName( wxT("2") );
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PtPad->m_Pos.x = FirstSegm->m_Start.x; PtPad->m_Pos.y = FirstSegm->m_Start.y;
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PtPad->m_Pos0.x = PtPad->m_Pos.x - Module->m_Pos.x;
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PtPad->m_Pos0.y = PtPad->m_Pos.y - Module->m_Pos.y;
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/* Modif des positions textes */
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Module->Display_Infos(this);
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Module->m_Value->m_Pos.x = Module->m_Reference->m_Pos.x = ( FirstSegm->m_Start.x + LastSegm->m_End.x ) /2 ;
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Module->m_Value->m_Pos.y = Module->m_Reference->m_Pos.y = ( FirstSegm->m_Start.y + LastSegm->m_End.y ) /2 ;
|
|
|
|
Module->m_Reference->m_Pos.y -= Module->m_Reference->m_Size.y;
|
|
Module->m_Value->m_Pos.y += Module->m_Value->m_Size.y;
|
|
|
|
Module->m_Reference->m_Pos0.x = Module->m_Reference->m_Pos.x - Module->m_Pos.x;
|
|
Module->m_Reference->m_Pos0.y = Module->m_Reference->m_Pos.y - Module->m_Pos.y;
|
|
Module->m_Value->m_Pos0.x = Module->m_Value->m_Pos.x - Module->m_Pos.x;
|
|
Module->m_Value->m_Pos0.y = Module->m_Value->m_Pos.y - Module->m_Pos.y;
|
|
|
|
/* Init des Coord locales des segments */
|
|
for( PtSegm = FirstSegm; PtSegm != NULL; PtSegm = (EDGE_MODULE*) PtSegm->Pnext )
|
|
{
|
|
PtSegm->m_Start0.x = PtSegm->m_Start.x - Module->m_Pos.x;
|
|
PtSegm->m_Start0.y = PtSegm->m_Start.y - Module->m_Pos.y;
|
|
PtSegm->m_End0.x = PtSegm->m_End.x - Module->m_Pos.x;
|
|
PtSegm->m_End0.y = PtSegm->m_End.y - Module->m_Pos.y;
|
|
}
|
|
|
|
Module->Set_Rectangle_Encadrement();
|
|
|
|
Module->Draw(DrawPanel, DC, wxPoint(0,0), GR_OR);
|
|
|
|
return Module;
|
|
}
|
|
|
|
|
|
/**************************************************************************/
|
|
static EDGE_MODULE * gen_arc(EDGE_MODULE * PtSegm, int cX, int cY, int angle)
|
|
/**************************************************************************/
|
|
|
|
/* Genere un arc de EDGE_MODULE :
|
|
de centre cX,cY
|
|
d'angle "angle"
|
|
de point de depart donne dans la structure pointee par PtSegm, qui doit
|
|
entre a jour (type,net..)
|
|
Retourne un pointeur sur la derniere structure EDGE_MODULE generee
|
|
*/
|
|
{
|
|
int ii, nb_seg;
|
|
float alpha, beta, fsin, fcos;
|
|
int x0, xr0, y0, yr0;
|
|
EDGE_MODULE * newedge;
|
|
|
|
angle = -angle;
|
|
y0 = PtSegm->m_Start.x - cX; x0 = PtSegm->m_Start.y - cY;
|
|
|
|
nb_seg = (abs(angle)) / 225 ; if(nb_seg == 0) nb_seg = 1 ;
|
|
alpha = ( (float)angle * 3.14159 / 1800 ) / nb_seg;
|
|
|
|
for ( ii = 1 ; ii <= nb_seg ; ii++ )
|
|
{
|
|
if( ii > 1)
|
|
{
|
|
newedge = new EDGE_MODULE( (MODULE*) NULL);
|
|
newedge->Copy(PtSegm);
|
|
newedge->m_Parent = PtSegm->m_Parent;
|
|
newedge->AddToChain(PtSegm);
|
|
PtSegm = newedge;
|
|
PtSegm->m_Start.x = PtSegm->m_End.x; PtSegm->m_Start.y = PtSegm->m_End.y;
|
|
}
|
|
|
|
beta = (alpha * ii);
|
|
fcos = cos(beta); fsin = sin(beta);
|
|
|
|
xr0 = (int)(x0 * fcos + y0 * fsin);
|
|
yr0 = (int)(y0 * fcos - x0 * fsin);
|
|
PtSegm->m_End.x = cX + yr0; PtSegm->m_End.y = cY + xr0 ;
|
|
}
|
|
return( PtSegm );
|
|
}
|
|
|