137 Commits

Author SHA1 Message Date
Riccardo Elitropi a1113ad94c EgtMachKernel :
- Aggiunta funzione per tasche passanti per volumi esterni al grezzo.
- migliorata la gestione dei lati aperti piccoli ( da testare )
- migliorie varie .
2024-03-13 11:23:07 +01:00
Riccardo Elitropi c321205086 EgtMachKernel :
- migliore svuotature.
2024-03-12 13:37:00 +01:00
Riccardo Elitropi 33f969a254 Merge commit '839639fcc85a0ff8799a6e2fc8e8778ad8772066' into Svuotature_LeadIn/Out 2024-03-04 13:26:55 +01:00
Riccardo Elitropi aad600faca EgtMachKernel :
- aggiunta svuotatura ottimizzata a spirale
- correzioni varie.
2024-03-04 13:26:39 +01:00
Riccardo Elitropi caee6ccb83 EgtMachKernel :
- migliorata gestione Archi
- migliorata gestioni lati aperti e gestione delle operazioni booleane tra regioni piane
- migliorie varie.
2024-03-01 17:51:23 +01:00
Riccardo Elitropi 0980e10c33 Merge commit 'd3b281a858c34a3f760c5afd925417b421b1a6d6' into Svuotature_LeadIn/Out 2024-02-26 16:10:46 +01:00
Riccardo Elitropi 85258fe4c4 EgtMachKernel :
- migliorata gestione lati aperti e scelta ordine degli Offset.
- migliorie generali.
2024-02-26 16:08:59 +01:00
Riccardo Elitropi ecc2c66fac Merge commit '737124b0bd167e644bb1c0131e675f515cbecb1f' into Svuotature_LeadIn/Out 2024-02-22 09:48:25 +01:00
Riccardo Elitropi 97a0aed32c EgtMachKernel :
- piccola miglioria.
2024-02-22 09:48:05 +01:00
Riccardo Elitropi c23c975275 Merge commit '028a5b7bbaab65b2d1111aeb67560a6ea01e0f39' into Svuotature_LeadIn/Out 2024-02-13 12:26:04 +01:00
Riccardo Elitropi b9e0c6e7e3 EgtMachKernel :
- implementazione Dijkstra per percorsi di ritorno.
2024-02-13 12:25:28 +01:00
Riccardo Elitropi dd28529753 Merge commit '1179ad7e84b5d7bca253c3219b8ba01e10082a08' into Svuotature_LeadIn/Out 2024-02-09 08:01:06 +01:00
Riccardo Elitropi 9d471f4647 EgtMachKernel :
- migliorie sui lati aperti.
2024-02-05 12:08:47 +01:00
Riccardo Elitropi 6c8d1931f3 EgtMachKernel :
- aggiunta gestione parametri ( Lati Aperti e Offset ottimizzati).
2024-02-02 13:00:37 +01:00
Riccardo Elitropi 7f8798a159 EgtMachKernel :
- migliorie selezione lati aperti.
- migliorie percorsi di ritorno.
2024-02-02 11:47:47 +01:00
Riccardo Elitropi 443fac5f0f EgtMachKernel :
- semplificazione curve con archi.
2024-02-01 13:23:43 +01:00
Riccardo Elitropi 84fc7b0dc3 EgtMachKernel :
- codice di prova per VRONI
- entrate Spiral - ZigZag.
2024-01-31 13:22:23 +01:00
Riccardo Elitropi 4f64b1efc2 EgtMachKernel :
- Entrate Helix e ZigZag ( codice di prova).
2024-01-30 13:30:18 +01:00
Riccardo Elitropi 9c09f30f08 Merge commit 'd8c5fe0ea751afacaf031f6029b0ce07b22b1547' into Svuotature_LeadIn/Out 2024-01-30 11:08:49 +01:00
Riccardo Elitropi e10f917bab EgtMachKernel :
- caricamento codice per Merge.
2024-01-30 11:05:08 +01:00
Riccardo Elitropi 073c5f737e EgtMachKernel :
- migliorie Tagli e Proeizioni
- percorsi di ritorno con Bisettori.
2024-01-22 13:04:13 +01:00
Riccardo Elitropi d57198ac19 EgtMachKernel :
- percorsi di ritorno con Vroni smussati ( algoritmo Douglas-Peucker).
2024-01-19 13:35:19 +01:00
Riccardo Elitropi ea20040495 Merge commit 'd66cc479364215ad5a542e0b9051d399e0b3c0d1' into Svuotature_LeadIn/Out 2024-01-19 11:48:20 +01:00
Riccardo Elitropi 6adad38ffa EgtMachKernel :
- migliorie lati aperti
- aggiunta messaggi errore.
2024-01-18 13:06:31 +01:00
Riccardo Elitropi bac737ee53 EgtMachKernel :
- Aggiunta caso speciale per Tool non cilindrici.
2024-01-18 09:18:37 +01:00
Riccardo Elitropi 4ae515befd EgtMachKernel :
- LeadIn/Out tool non cilindrici.
2024-01-17 13:20:51 +01:00
Riccardo Elitropi 58b119c68f EgtMachKernel :
- LeadIn/Out tool non cilindrici, casi ottimizzati a trapezio.
2024-01-16 13:32:56 +01:00
Riccardo Elitropi 28e76415ed EgtMachKernel :
- LeadIn/Out Spiral per tool non cilindrici.
2024-01-15 13:36:53 +01:00
Riccardo Elitropi c163fe503e EgtMachKernel :
- Test per entrate/Uscite con tool non cilindrici.
- Proiezioni facce chiuse con tool non cilindrici.
2024-01-15 11:12:08 +01:00
Riccardo Elitropi c928a50243 EgtMachKernel :
- prima prova con tool non cilindrici, proiezioni.
2024-01-12 13:38:23 +01:00
Riccardo Elitropi ac8feb7a17 EgtMachKernel :
- utilizzo della funzione limite per LeadIn/Out.
2024-01-11 17:57:23 +01:00
Riccardo Elitropi 8ae1d4cdc2 EgtMachKernel :
- LeadIn/Out VORONOI e Dijkstra per casi ottimizzati a Spirale.
- migliorie sui percotrsi di ritorno.
2024-01-10 18:28:17 +01:00
Riccardo Elitropi d684f6fb82 EgtMachKernel :
- LeadIn/Out con VORONI e Dijkstra ( cammini minimi).
2024-01-09 18:48:31 +01:00
Riccardo Elitropi 0cbf148bb6 EgtMachKernel :
- primo Test LeadIn/Out con VRONI.
2024-01-08 13:23:43 +01:00
Riccardo Elitropi ee9a446cc0 EgtMachKernel :
- Primo calcolo di LeadIn/Out.
2024-01-05 13:30:07 +01:00
Riccardo Elitropi 2e1d893d5d EgtMachKernel :
- Gestione LeadIn/Out ( inizio stesura funzioni).
2024-01-04 13:00:55 +01:00
Riccardo Elitropi cdfa857c02 Merge commit 'b7eee50e55973024da5fc7d80020ee7daacf64d2' into Svuotature_LeadIn/Out 2024-01-04 09:37:36 +01:00
Riccardo Elitropi b7eee50e55 EgtMachKernel :
- modifica funzione lati aperti.
2024-01-04 09:35:51 +01:00
Riccardo Elitropi 3cda97534e EgtMachKernel :
-piccola modifica.
2024-01-04 09:35:14 +01:00
Riccardo Elitropi 5975b00def EgtMachKernel :
- implementazione CalcRegionElevation.
2024-01-04 09:33:47 +01:00
Riccardo Elitropi d845442ebd Merge commit 'b5ef9ae6dc7564e172af1a7558348e60b5da6a0f' into svuotature 2024-01-03 09:32:55 +01:00
Riccardo Elitropi 511d1c0aef EgtMachKernel :
- primo codice per Lead In/out.
2023-12-22 13:12:32 +01:00
Riccardo Elitropi 4c25e19753 EgtMachKernel :
- migliorie codice.
2023-12-22 11:59:17 +01:00
Riccardo Elitropi f8de95a6b6 EgtMachKernel :
- adattamento funzione VerifyPathFromBottom e GeneratePocketingPv.
2023-12-19 11:45:10 +01:00
Riccardo Elitropi 2c1cd101b2 EgtMachKernel :
- Aggiunta funzione che svuota le parti non svuotate di una lavorazione precedente.
2023-12-19 11:01:39 +01:00
Riccardo Elitropi f5a94ee0dd EgtMachKernel :
- lavorazione precedente. Primo test.
2023-12-18 13:10:38 +01:00
Riccardo Elitropi 790660e549 EgtMachKernel :
- rimozione funzioni non necessarie e pulizia codice.
2023-12-18 09:08:15 +01:00
Riccardo Elitropi d60cec01ef EgtMachKernel :
- primo codice di Test Volumi di svuotatura.
2023-12-15 19:31:11 +01:00
Riccardo Elitropi 9267f902ae EgtMachKernel :
merge con Master.
2023-11-29 12:41:34 +01:00
Riccardo Elitropi 4558f5d842 Merge commit 'c8c8d9e2a52041f2b511b5a4d9325945733f0a22' into svuotature 2023-11-29 12:27:32 +01:00
Riccardo Elitropi a404881759 EgtMachKernel :
- migliorata gestione Chunk per OneWay.
2023-11-29 12:19:06 +01:00
Riccardo Elitropi 77cd16a5b6 EgtMachKernel :
- volumi di pocketing .
2023-11-15 13:17:43 +01:00
Riccardo Elitropi c89683cc0e EgtmachKernel :
- primo codice per ricavare Volume di Pocketing.
2023-11-14 13:26:09 +01:00
Riccardo Elitropi cc50f573bc EgtMachKernel :
modifica funzione GetCurves.
2023-11-13 13:29:58 +01:00
Riccardo Elitropi c13dba8c9f EgtMachKernel :
- codice senza considerare il volume di svuotatura.
2023-11-13 08:15:21 +01:00
Riccardo Elitropi c8cd417dac EgtMachKernel :
- migliorie codice con test reali.
2023-11-09 17:11:39 +01:00
Riccardo Elitropi ce704bdcbc EgtMachKernel :
- migliorato codice OneWay.
2023-11-08 13:40:49 +01:00
Riccardo Elitropi 7ca922c9b6 EgtMachKernel :
- codice per casi ottimizzati ZigZag.
2023-11-07 17:46:49 +01:00
Riccardo Elitropi 4d02f573d2 EgtMachKernel :
- codice di test migliorato per casi ottimizzati a spirale.
2023-11-06 18:34:10 +01:00
Riccardo Elitropi 0dfc9a38da EgtMachKernel :
- primo codice di test da migliorare per Trapezi SpiralIn/Out.
2023-11-03 18:17:26 +01:00
Riccardo Elitropi 4ed4445d09 EgtMachKernel :
- Prime idee per ottimizzazioni.
2023-11-02 17:57:28 +01:00
Riccardo Elitropi 072b47590e EgtMachKernel :
- casi ottimizzati Trapezi ( Codice non testato).
2023-10-31 16:43:04 +01:00
Riccardo Elitropi 31980fb85f EgtMachKernel :
- primo codice di prova per ottimizzazioni su step con geometrie uguali ( SpiralIn/Out/ZigZag).
2023-10-30 11:47:17 +01:00
Riccardo Elitropi f51b05da5b EgtMachKernel :
- entrate rese coerenti tra i vari step ( SpiralIn/Out)
- rimozione del ricalcolo dei percorsi nel caso di geometria uguale tra gli step (SpiralIn/Out).
2023-10-11 13:17:34 +02:00
Riccardo Elitropi 46868459ae Merge commit 'b3a1ee8e6cbe1ea0c56e64133c96300e3f22bf89' into svuotature 2023-10-10 11:15:54 +02:00
Riccardo Elitropi ac85a09ff2 EgtMachKernel :
- migliorie per entrate.
2023-10-10 11:04:59 +02:00
Riccardo Elitropi 4ed01598a5 EgtMachKernel :
- controllo validità superfici e coerenza con le normali.
2023-09-18 13:17:24 +02:00
Riccardo Elitropi ec91d76869 EgtMachKernel :
- migliorie proeiezioni e gesitoni lati aperti.
2023-09-15 13:06:31 +02:00
Riccardo Elitropi cee893f4ca EgtMachKernel :
- migliorie varie.
2023-09-13 13:20:55 +02:00
Riccardo Elitropi 4e23dbe156 EgtMachKernel :
- migliorie gestioni lati aperti in adattamento a TriMesh
- inizio risoluzione problemi per lati aperti dentro al grezzo.
2023-09-12 17:35:31 +02:00
Riccardo Elitropi 944473df2e EgtMachKernel :
- migliorie gestioni lati aperti con isole chiuse molto vicine.
- migliorie generali e pulizia codice.
2023-09-11 13:31:23 +02:00
Riccardo Elitropi efde63ba64 EgtMachKernel :
- migliorie approssimazione curve e FlatRegions.
2023-09-08 13:41:35 +02:00
Riccardo Elitropi 09cddcf9ac EgtMachKernel :
- migliorie approssimazione sulle curve
- casi ottimizzati ZigZag con isole.
2023-09-07 13:08:34 +02:00
Riccardo Elitropi 7dcf367d48 EgtMachKernel :
- pulizia codice.
2023-09-06 09:48:03 +02:00
Riccardo Elitropi 5562a0f20c Merge commit 'f30f028b171a931f82cd15e95b4bea832a33c540' into svuotature 2023-09-06 09:47:26 +02:00
Riccardo Elitropi 05fb2ad32b EgtMachKernel :
- prova per svuotatura King e Sella.
2023-09-05 15:24:39 +02:00
Riccardo Elitropi e146e1b6da EgtMachKernel :
- prime prove svuotatura King.
2023-08-25 13:33:24 +02:00
Riccardo Elitropi 701fcbdd34 EgtMachKernel :
- piccole migliorie.
2023-08-23 12:45:09 +02:00
Riccardo Elitropi 44aef02ca1 EgtMachKernel :
- prime prove per extra steps.
2023-08-22 13:57:43 +02:00
Riccardo Elitropi 01d3e7baa9 EgtMachKernel:
- modifiche proiezioni con scalatura.
2023-08-21 13:32:56 +02:00
Riccardo Elitropi 98aac3154c EgtMachKernel :
- migliorie tagli di superifici per svuotature.
2023-08-17 17:13:31 +02:00
Riccardo Elitropi a839a29dce EgtMachKernel :
- adattamento svuotatura a Trimesh.
2023-08-10 13:14:44 +02:00
Riccardo Elitropi c58926bb5c EgtMachKernel :
- codice di prova. Adattamento superficie di svuotatura a Trimesh iniziale.
2023-08-04 13:40:35 +02:00
Riccardo Elitropi ea36a0b8a1 EgtMachKernel :
- Test codice.
2023-08-03 13:12:53 +02:00
Riccardo Elitropi c7070e5f2f EgtMachKernel :
- pulizia del codice.
2023-08-02 13:10:25 +02:00
Riccardo Elitropi a5007038b8 Merge commit '2b5aacc160c24afa2dc9ca348e57a204992c5880' into svuotature 2023-08-01 11:36:59 +02:00
Riccardo Elitropi ff8e875290 EgtMachKernel :
- migliorata la regione di incidenza per lati aperti
- controllo pulizia dei lati aperti con angoli piccoli.
2023-08-01 11:35:38 +02:00
Riccardo Elitropi d7a5f4aa72 EgtMachKernel :
- migliorati casi ottimizzati trapezi e ZigZag con 0 lati aperti.
2023-07-28 17:02:29 +02:00
Riccardo Elitropi 7cd3925e4c EgtMachKernel :
- merge con master.
2023-07-26 13:13:27 +02:00
Riccardo Elitropi 25f141fbf0 Merge commit '1097f2a19f77801d64fe615ec214a3cba214c818' into svuotature 2023-07-26 11:58:33 +02:00
Riccardo Elitropi ed677dfec6 EgtMachKernel :
- migliorie varie.
2023-07-26 11:45:43 +02:00
Riccardo Elitropi 61d5029db9 EgtMachKernel :
- migliorate le proeizioni.
2023-07-24 13:27:17 +02:00
Riccardo Elitropi 4cd354c85a EgtMachKernel :
- primo prototipo funzione di ricerca dei falsi lati aperti.
2023-07-19 13:44:41 +02:00
Riccardo Elitropi 0fd0b12445 EgtMachKernel :
- modifiche lati aperti e Offset sulle curve omogenee.
2023-07-18 13:33:39 +02:00
Riccardo Elitropi 2a3a9fefe3 EgtMachKernel :
- finti lati aperti.
2023-07-17 13:42:53 +02:00
Riccardo Elitropi 1fef9786ac EgtMachKernel :
- Intersezioni e proiezioni, gestione dei nuovi lati aperti.
2023-07-11 16:29:48 +02:00
Riccardo Elitropi 6d8848ec46 EgtMachKernel :
- Migliorie proiezioni.
2023-07-10 13:19:42 +02:00
Riccardo Elitropi 2616d97d0a EgtMachKernel :
- migliorie proiezioni con grezzi con lati curvi.
2023-07-07 13:43:50 +02:00
Riccardo Elitropi 3fa4e64cc2 EgtMachKernel :
- modifiche lati aperti e proiezioni.
2023-07-06 13:13:41 +02:00
Riccardo Elitropi 648ca06815 EgtMachKernel :
- semplificazione proiezione grezzo.
2023-07-05 13:31:21 +02:00
Riccardo Elitropi 638d252b38 EgtMachKernel :
- migliorie sui lati aperti.
2023-07-04 13:37:55 +02:00
Riccardo Elitropi cd2a7cc921 EgtMachKernel :
- Merge con Master.
2023-07-03 13:35:53 +02:00
Riccardo Elitropi 919ca81c43 Merge commit 'cdb35b4c38c4b3ca65f90c061aa46d4db1f9506f' into svuotature 2023-07-03 13:34:24 +02:00
Riccardo Elitropi 6935bec958 EgtMachKernel :
- migliorie proiezioni grezzo con isole aperte e contorni chiusi.
2023-06-30 13:29:59 +02:00
Riccardo Elitropi 8e52fd584a EgtMachKernel :
- migliorie proiezioni.
2023-06-29 13:14:54 +02:00
Riccardo Elitropi f69de493d6 EgtMachKernel :
- prima versione aggiornata per proiezioni ( temporaneo).
2023-06-28 13:26:34 +02:00
Riccardo Elitropi e04805a99a EgtMachKernel :
- migliorie codice proiezione con grezzo.
2023-06-27 13:43:26 +02:00
Riccardo Elitropi ccac200e41 EgtMachKernel :
- conservazione temp prop in Operation per curve.
- migliorie intersezioni trimesh con piano.
2023-06-26 13:36:36 +02:00
Riccardo Elitropi 2c501206b2 EgtMachKernel :
- minimizzati i percorsi di estensione sui lati aperti con archi
- controlli su regioni svuotate in precedenza.
2023-06-23 13:39:52 +02:00
Riccardo Elitropi 297bc0c86d EgtMachKernel :
- Aggiunta funzioni di distanza dal grezzo in Operation.
2023-06-23 09:33:39 +02:00
Riccardo Elitropi fac69a1d65 EgtMachKernel :
- merge file mancanti.
2023-06-23 09:19:28 +02:00
Riccardo Elitropi 4711734998 EgtMachKernel :
- merge con master.
2023-06-23 09:05:29 +02:00
Riccardo Elitropi e04a05831e Revert "Merge commit '994658da167a7ac3f607f4b535a65febe8f308d1' into svuotature"
This reverts commit e96f467b56, reversing
changes made to ec1ee961be.
2023-06-23 08:38:57 +02:00
Riccardo Elitropi e96f467b56 Merge commit '994658da167a7ac3f607f4b535a65febe8f308d1' into svuotature 2023-06-23 08:20:50 +02:00
Riccardo Elitropi ec1ee961be EgtMachKernel :
- migliorie archi lati aperti.
2023-06-22 13:14:35 +02:00
Riccardo Elitropi ca74fa6794 EgtMachKernel :
- migliorie.
2023-06-21 13:23:32 +02:00
Riccardo Elitropi 8242146446 EgtMachKernel :
- migliorie unione sui lati aperti.
2023-06-20 13:29:13 +02:00
Riccardo Elitropi 4e2df90961 EgtMachKernel :
- Isole aperte generate da lati aperti
- migliorie alle approssimazioni degli archi.
2023-06-16 13:45:33 +02:00
Riccardo Elitropi 3393ea8325 EgtMachKernel :
- prima prova di taglio con grezzo a disco.
2023-06-14 11:35:13 +02:00
Riccardo Elitropi 1060a10491 EgtMachKernel :
- test codice per Isole aperte ed intersezioni grezzo con esse
- migliorie alle curve.
2023-06-13 14:33:25 +02:00
Riccardo Elitropi d46f94f8da EgtMachKernel :
- prima prova per isole con lati aperti e gestione angoli piccoli.
2023-06-09 13:47:04 +02:00
Riccardo Elitropi 3dcba13efc EgtMachKernel :
- merge con master.
2023-06-05 08:36:59 +02:00
Riccardo Elitropi e4983d5276 Merge commit 'df86ffdee340b33c359d7e6b57598a70c1a1c006' into svuotature 2023-06-05 08:33:45 +02:00
Riccardo Elitropi fee74d47f8 EgtMachKernel :
- migliorie varie in pocketing.
2023-06-05 08:25:31 +02:00
Riccardo Elitropi 37f4e0982f EgtMachKernel :
- merge con master.
2023-05-11 11:50:21 +02:00
Riccardo Elitropi fb5e01881d Merge commit 'c6aa83ccd5c3d5819773872b6dbdbb6617517c4b' into svuotature 2023-05-11 11:40:21 +02:00
Riccardo Elitropi a5096facc7 EgtMachKernel :
- Feed ( test)
- Svuotatura con pocketing precedente
- correzioni varie.
2023-05-11 11:31:00 +02:00
Riccardo Elitropi dbe11e6343 EgtMachKernel :
- prima versione per Feed ( da migliorare) .
2023-04-12 13:28:45 +02:00
Riccardo Elitropi ed4a9ec745 EgtMachKernel :
- primo prototipo per funzione Feed.
2023-03-31 17:08:38 +02:00
Riccardo Elitropi 25b940927e EgtMachKernel :
- ottimizzazioni offset per centroidi e medial Axis
- ottimizzazione percorsi di medial Axis ( raccordi con centroidi ).
2023-03-30 18:01:05 +02:00
Riccardo Elitropi 0911f167b1 EgtMachKernel :
- Ottimizzazioni numero Offset per spirali.
2023-03-29 18:12:06 +02:00
Riccardo Elitropi 766e6a208d EgtMachKernel :
- correzione circonferenze per percorsi sui centroidi.
2023-03-28 17:34:17 +02:00
Riccardo Elitropi 9b0b1fe9d4 EgtMachKernel :
- merge con master.
2023-03-28 17:24:54 +02:00
Riccardo Elitropi 4d676c1f3b Merge commit '025eea9c0f0d77443110bc2fc19c3a2e6ee89c45' into svuotature 2023-03-28 15:56:27 +02:00
Riccardo Elitropi 3d5398f877 EgtMachKernel :
- prima versione svuotature ( isole, intersezioni e proiezioni grezzo, entrate ).
2023-03-28 15:47:32 +02:00
Riccardo Elitropi 38d63633c2 EgtMachKernel :
- Svuotature con intersezioni grezzo ( temp ).
2023-02-16 14:53:53 +01:00
Riccardo Elitropi 14b433d206 Merge commit '15931dc3046a4928e6d943e812a7e893befd9daa' into svuotature 2023-02-16 14:50:49 +01:00
35 changed files with 13644 additions and 4775 deletions
+22 -26
View File
@@ -51,7 +51,6 @@ using namespace std ;
// 2115 = "Error in Drilling : Mirror for Double calculation failed"
// 2116 = "Error in Drilling : multi drilling head without valid tools"
// 2117 = "Error in Drilling : incorrect multi drilling head"
// 2118 = "Error in Drilling : Tool loading failed"
// 2151 = "Warning in Drilling : Skipped entity (xx)"
// 2152 = "Warning in Drilling : No machinable path"
// 2153 = "Warning in Drilling : Tool name changed (xx)"
@@ -97,6 +96,7 @@ struct HoleInfo {
int nIndInSelVector = 0 ; // indice nel vettore m_vId (id fori selezionati)
} ;
struct ToolInfo
{
const ToolData* pTool ; // puntatore per utensile (nullo se utensile non presente)
@@ -618,7 +618,7 @@ Drilling::Apply( bool bRecalc, bool bPostApply)
// rendo corrente l'utensile usato nella lavorazione
if ( ! m_pMchMgr->SetCalcTool( m_TParams.m_sName, m_TParams.m_sHead, m_TParams.m_nExit)) {
m_pMchMgr->SetLastError( 2118, "Error in Drilling : Tool loading failed") ;
m_pMchMgr->SetLastError( 2322, "Error in Milling : Tool loading failed") ;
return false ;
}
@@ -2110,8 +2110,6 @@ Drilling::DoStandardDrilling( const Hole& hole, SelData Id, int nPathId, double
GetElevation( m_nPhase, hole.ptIni, hole.vtDir, m_TParams.m_dDiam / 2, hole.vtDir, dElev) ;
// determino alcune caratteristiche dell'utensile
double dTExtrLen = max( 0.0, m_TParams.m_dTLen - m_TParams.m_dLen) ;
// necessità di spezzatura per robot
bool bSplitArcs = GetSplitArcs( V_NULL) ;
// imposto dati comuni
SetPathId( nPathId) ;
SetToolDir( hole.vtDir) ;
@@ -2133,7 +2131,7 @@ Drilling::DoStandardDrilling( const Hole& hole, SelData Id, int nPathId, double
return false ;
SetAuxDir( m_vtAggrBottom) ;
SetFlag( 0) ;
if ( AddRapidMove( ptP0, bSplitArcs, MCH_CL_AGB_IN) == GDB_ID_NULL)
if ( AddRapidMove( ptP0, MCH_CL_AGB_IN) == GDB_ID_NULL)
return false ;
}
// altrimenti rinvio normale
@@ -2143,7 +2141,7 @@ Drilling::DoStandardDrilling( const Hole& hole, SelData Id, int nPathId, double
return false ;
SetFlag( 0) ;
}
if ( AddRapidMove( ptP1, bSplitArcs) == GDB_ID_NULL)
if ( AddRapidMove( ptP1) == GDB_ID_NULL)
return false ;
}
else {
@@ -2156,7 +2154,7 @@ Drilling::DoStandardDrilling( const Hole& hole, SelData Id, int nPathId, double
// 2 -> punto fuori (se diverso dal precedente)
if ( m_Params.m_dStartPos < dAppr) {
Point3d ptP2 = hole.ptIni + hole.vtDir * ( m_Params.m_dStartPos + dTExtrLen) ;
if ( AddRapidMove( ptP2, bSplitArcs) == GDB_ID_NULL)
if ( AddRapidMove( ptP2) == GDB_ID_NULL)
return false ;
}
// 3 -> punto termine velocità ridotta iniziale (se previsto)
@@ -2167,7 +2165,7 @@ Drilling::DoStandardDrilling( const Hole& hole, SelData Id, int nPathId, double
Point3d ptP3 = hole.ptIni - hole.vtDir * dStartSlowLen ;
if ( ! bStd && ! bEndSlow)
ptP3 -= hole.vtDir * dAddLen ;
if ( AddLinearMove( ptP3, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptP3) == GDB_ID_NULL)
return false ;
}
// 4 -> punto termine velocità standard (se risulta)
@@ -2178,7 +2176,7 @@ Drilling::DoStandardDrilling( const Hole& hole, SelData Id, int nPathId, double
Point3d ptP4 = hole.ptIni - hole.vtDir * ( hole.dLen - dEndSlowLen) ;
if ( ! bEndSlow)
ptP4 -= hole.vtDir * dAddLen ;
if ( AddLinearMove( ptP4, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptP4) == GDB_ID_NULL)
return false ;
}
// 5 -> punto termine velocità finale ridotta (se previsto)
@@ -2186,27 +2184,27 @@ Drilling::DoStandardDrilling( const Hole& hole, SelData Id, int nPathId, double
SetFeed( GetTipFeed()) ;
SetFlag( 101) ; // fondo del foro
Point3d ptP5 = hole.ptIni - hole.vtDir * ( hole.dLen + dAddLen) ;
if ( AddLinearMove( ptP5, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptP5) == GDB_ID_NULL)
return false ;
}
// 6 -> ritorno all'approccio del foro
SetFeed( GetEndFeed()) ;
SetFlag( 104) ; // risalita sopra il foro
if ( AddLinearMove( ptP1, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptP1) == GDB_ID_NULL)
return false ;
// 7 -> punto fuori (se uso aggregato da sotto)
if ( m_bAggrBottom) {
SetFlag( 0) ;
Point3d ptP0 = ptP1 + m_vtAggrBottom * ( m_dDistBottom + m_AggrBottom.dEncH + dSafeZ) ;
Point3d ptP00 = ptP0 + Z_AX * ( m_AggrBottom.dEncV + m_TParams.m_dLen + dAppr + dTExtrLen) ;
if ( AddRapidMove( ptP0, bSplitArcs, MCH_CL_AGB_OUT) == GDB_ID_NULL)
if ( AddRapidMove( ptP0, MCH_CL_AGB_OUT) == GDB_ID_NULL)
return false ;
// se rinvio da sotto che richiede speciale rotazione
if ( m_AggrBottom.nType == 1) {
Vector3d vtAux = m_vtAggrBottom ;
vtAux.Rotate( Z_AX, 0, 1) ;
SetAuxDir( vtAux) ;
if ( AddRapidMove( ptP00, bSplitArcs, MCH_CL_AGB_UP) == GDB_ID_NULL)
if ( AddRapidMove( ptP00, MCH_CL_AGB_UP) == GDB_ID_NULL)
return false ;
}
}
@@ -2243,8 +2241,6 @@ Drilling::DoPeckDrilling( const Hole& hole, SelData Id, int nPathId)
GetElevation( m_nPhase, hole.ptIni, hole.vtDir, m_TParams.m_dDiam / 2, hole.vtDir, dElev) ;
// determino alcune caratteristiche dell'utensile
double dTExtrLen = max( 0.0, m_TParams.m_dTLen - m_TParams.m_dLen) ;
// necessità di spezzatura per robot
bool bSplitArcs = GetSplitArcs( V_NULL) ;
// imposto dati comuni
SetPathId( nPathId) ;
SetToolDir( hole.vtDir) ;
@@ -2266,7 +2262,7 @@ Drilling::DoPeckDrilling( const Hole& hole, SelData Id, int nPathId)
return false ;
SetFlag( 0) ;
SetAuxDir( m_vtAggrBottom) ;
if ( AddRapidMove( ptP0, bSplitArcs, MCH_CL_AGB_IN) == GDB_ID_NULL)
if ( AddRapidMove( ptP0, MCH_CL_AGB_IN) == GDB_ID_NULL)
return false ;
}
// altrimenti rinvio normale
@@ -2276,7 +2272,7 @@ Drilling::DoPeckDrilling( const Hole& hole, SelData Id, int nPathId)
return false ;
SetFlag( 0) ;
}
if ( AddRapidMove( ptP1, bSplitArcs) == GDB_ID_NULL)
if ( AddRapidMove( ptP1) == GDB_ID_NULL)
return false ;
}
else {
@@ -2287,7 +2283,7 @@ Drilling::DoPeckDrilling( const Hole& hole, SelData Id, int nPathId)
// 2 -> punto fuori (se diverso dal precedente)
if ( m_Params.m_dStartPos < dAppr) {
Point3d ptP2 = hole.ptIni + hole.vtDir * ( m_Params.m_dStartPos + dTExtrLen) ;
if ( AddRapidMove( ptP2, bSplitArcs) == GDB_ID_NULL)
if ( AddRapidMove( ptP2) == GDB_ID_NULL)
return false ;
}
// ciclo di affondamento a step
@@ -2307,13 +2303,13 @@ Drilling::DoPeckDrilling( const Hole& hole, SelData Id, int nPathId)
SetFeed( GetEndFeed()) ;
SetFlag( 103) ; // punto di scarico truciolo
Point3d ptPr = hole.ptIni + hole.vtDir * dReturnPos ;
if ( AddLinearMove( ptPr, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptPr) == GDB_ID_NULL)
return false ;
// riaffondo
SetFeed( GetEndFeed()) ;
SetFlag( 0) ;
Point3d ptPa = hole.ptIni - hole.vtDir * ( dCurrLen - APPR_STEP) ;
if ( AddLinearMove( ptPa, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptPa) == GDB_ID_NULL)
return false ;
}
// lunghezza di fine step
@@ -2336,7 +2332,7 @@ Drilling::DoPeckDrilling( const Hole& hole, SelData Id, int nPathId)
Point3d ptP3 = hole.ptIni - hole.vtDir * dLen ;
if ( bHoleEnd)
ptP3 -= hole.vtDir * dAddLen ;
if ( AddLinearMove( ptP3, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptP3) == GDB_ID_NULL)
return false ;
// aggiorno posizione e verifico se step completato
dCurrLen = dLen ;
@@ -2361,7 +2357,7 @@ Drilling::DoPeckDrilling( const Hole& hole, SelData Id, int nPathId)
Point3d ptP4 = hole.ptIni - hole.vtDir * dLen ;
if ( bHoleEnd)
ptP4 -= hole.vtDir * dAddLen ;
if ( AddLinearMove( ptP4, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptP4) == GDB_ID_NULL)
return false ;
// aggiorno posizione e verifico se step completato
dCurrLen = dLen ;
@@ -2385,7 +2381,7 @@ Drilling::DoPeckDrilling( const Hole& hole, SelData Id, int nPathId)
Point3d ptP5 = hole.ptIni - hole.vtDir * dLen ;
if ( bHoleEnd)
ptP5 -= hole.vtDir * dAddLen ;
if ( AddLinearMove( ptP5, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptP5) == GDB_ID_NULL)
return false ;
// aggiorno posizione
dCurrLen = dLen ;
@@ -2395,7 +2391,7 @@ Drilling::DoPeckDrilling( const Hole& hole, SelData Id, int nPathId)
// 6 -> ritorno all'approccio del foro
SetFeed( GetEndFeed()) ;
SetFlag( 104) ; // risalita sopra il foro
if ( AddLinearMove( ptP1, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptP1) == GDB_ID_NULL)
return false ;
// 7 -> punto fuori (se uso aggregato da sotto)
@@ -2403,14 +2399,14 @@ Drilling::DoPeckDrilling( const Hole& hole, SelData Id, int nPathId)
SetFlag( 0) ;
Point3d ptP0 = ptP1 + m_vtAggrBottom * ( m_dDistBottom + m_AggrBottom.dEncH + dSafeZ) ;
Point3d ptP00 = ptP0 + Z_AX * ( m_AggrBottom.dEncV + m_TParams.m_dLen + dAppr + dTExtrLen) ;
if ( AddRapidMove( ptP0, bSplitArcs, MCH_CL_AGB_OUT) == GDB_ID_NULL)
if ( AddRapidMove( ptP0, MCH_CL_AGB_OUT) == GDB_ID_NULL)
return false ;
// se rinvio da sotto che richiede speciale rotazione
if ( m_AggrBottom.nType == 1) {
Vector3d vtAux = m_vtAggrBottom ;
vtAux.Rotate( Z_AX, 0, 1) ;
SetAuxDir( vtAux) ;
if ( AddRapidMove( ptP00, bSplitArcs, MCH_CL_AGB_UP) == GDB_ID_NULL)
if ( AddRapidMove( ptP00, MCH_CL_AGB_UP) == GDB_ID_NULL)
return false ;
}
}
BIN
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+1 -1
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@@ -100,7 +100,7 @@
<Optimization>Disabled</Optimization>
<DebugInformationFormat>ProgramDatabase</DebugInformationFormat>
<MultiProcessorCompilation>true</MultiProcessorCompilation>
<PreprocessorDefinitions>WIN32;_WINDOWS;I_AM_EMK;_DEBUG;%(PreprocessorDefinitions)</PreprocessorDefinitions>
<PreprocessorDefinitions>WIN32;_WINDOWS;I_AM_EMK;_VRONI;_DEBUG;%(PreprocessorDefinitions)</PreprocessorDefinitions>
<MinimalRebuild>false</MinimalRebuild>
<OpenMPSupport>false</OpenMPSupport>
<PrecompiledHeader>Use</PrecompiledHeader>
+1 -2
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@@ -20,9 +20,8 @@
const double LIN_TOL_STD = 0.1 ;
const double LIN_TOL_MID = 0.05 ;
const double LIN_TOL_RAW = 0.5 ;
const double ANG_TOL_STD_DEG = 15 ;
const double ANG_TOL_MID_DEG = 45 ;
const double ANG_TOL_MAX_DEG = 90 ;
const double ANG_TOL_STD_DEG = 15 ;
const double LIN_FEA_STD = 20 ;
//----------- Costante per offset salva spigoli di lama su cornici curve ----
-2
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@@ -52,7 +52,6 @@ Head::Clone( void) const
pHead->m_bMaxDeltaR2On1 = m_bMaxDeltaR2On1 ;
pHead->m_Rot2Stroke = m_Rot2Stroke ;
pHead->m_nSolCh = m_nSolCh ;
pHead->m_vsOtherColl = m_vsOtherColl ;
}
catch( ...) {
delete pHead ;
@@ -74,7 +73,6 @@ Head::Dump( string& sOut, bool bMM, const char* szNewLine) const
sOut += "ExitCount=" + ToString( m_nExitCount) + szNewLine ;
sOut += "HSet=" + ToString( m_vsHSet) + szNewLine ;
sOut += "ADir=" + ToString( m_vtADir) + szNewLine ;
sOut += "OtherColl=" + ToString( m_vsOtherColl) + szNewLine ;
return true ;
}
-5
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@@ -47,10 +47,6 @@ const std::string MACH_RAW_SOLID = "RawSolid" ;
const std::string MACH_RAW_CENTER = "RawCenter" ;
// Nome del contorno esterno del grezzo
const std::string MACH_RAW_OUTLINE = "RawOutline" ;
// Nome della regione superiore del grezzo
const std::string MACH_RAW_UP_REG = "RawUpReg" ;
// Nome della regione inferiore del grezzo
const std::string MACH_RAW_DOWN_REG = "RawDwnReg" ;
// Nome del kerf del grezzo
const std::string MACH_RAW_KERF = "Kerf" ;
@@ -135,7 +131,6 @@ const double LIO_ELEV_TOL = 2.0 ;
//----------------------------------------------------------------------------
// Per FlatParts (vedi Nesting di EgtExecutor)
const std::string NST_EXT_LAYER = "OutLoop" ;
const std::string NST_PARTREG_LAYER = "Region" ;
//----------------------------------------------------------------------------
// Minima componente zeta di versore utensile per lavorazione da sopra (-45deg)
+3 -9
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@@ -1,7 +1,7 @@
//----------------------------------------------------------------------------
// EgalTech 2015-2024
// EgalTech 2015-2023
//----------------------------------------------------------------------------
// File : MachMgr.h Data : 02.04.24 Versione : 2.6d1
// File : MachMgr.h Data : 28.10.23 Versione : 2.5j4
// Contenuto : Dichiarazione della classe MachMgr.
//
//
@@ -13,8 +13,6 @@
// 21.09.22 DS Aggiunta GetAxisOffset.
// 25.08.23 DS Aggiunta CopyMachGroup.
// 28.10.23 DS Aggiunte GetClEntAxesVal e GetToolSetupPosInCurrSetup.
// 30.03.24 DS Aggiunte GetAllAxesNames e GetCalcTable.
// 02.04.24 DS Aggiunta GetClEntAxesMask.
//
//----------------------------------------------------------------------------
@@ -310,7 +308,6 @@ class MachMgr : public IMachMgr
bool GetClEntMove( int nEntId, int& nMove) const override ;
bool GetClEntFlag( int nEntId, int& nFlag, int& nFlag2) const override ;
bool GetClEntIndex( int nEntId, int& nIndex) const override ;
bool GetClEntAxesMask( int nEntId, int& nMask) const override ;
bool GetClEntAxesVal( int nEntId, DBLVECTOR& vAxes) const override ;
// Simulation
bool SimInit( void) override ;
@@ -330,10 +327,9 @@ class MachMgr : public IMachMgr
// Machine Calc
bool SetCalcTable( const std::string& sTable) override ;
bool SetCalcTool( const std::string& sTool, const std::string& sHead, int nExit) override ;
bool GetAllCurrAxesNames( STRVECTOR& vAxName) const override ;
bool GetAllCurrAxesName( STRVECTOR& vAxName) const override ;
bool SetRotAxisBlock( const std::string& sAxis, double dVal) override ;
bool GetRotAxisBlocked( int nInd, std::string& sAxis, double& dVal) const override ;
bool GetCalcTable( std::string& sTable) const override ;
bool GetCalcTool( std::string& sTool) const override ;
bool GetCalcHead( std::string& sHead) const override ;
bool GetCalcExit( int& nExit) const override ;
@@ -374,7 +370,6 @@ class MachMgr : public IMachMgr
bool ResetAxisPos( const std::string& sAxis) override ;
bool ResetAllAxesPos( void) override ;
bool GetAllTablesNames( STRVECTOR& vNames) const override ;
bool GetAllAxesNames( STRVECTOR& vNames) const override ;
bool GetAllHeadsNames( STRVECTOR& vNames) const override ;
bool GetAllTcPosNames( STRVECTOR& vNames) const override ;
bool LoadTool( const std::string& sHead, int nExit, const std::string& sTool) override ;
@@ -499,7 +494,6 @@ class MachMgr : public IMachMgr
// RawParts
int AddRawPart( int nCrvId, double dOverMat, double dZmin, double dHeight, Color cCol) ;
int AddRawPart( int nSurfId, Color cCol) ;
int AddRawPart( int nSurfUpId, int nSurfDownId, double dHeight, Color cCol) ;
bool SetRawPartCenter( int nRawId) ;
bool ResetRawPartCenter( int nRawId) ;
// Parts
-18
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@@ -75,24 +75,6 @@ MachMgr::GetClEntIndex( int nEntId, int& nIndex) const
return true ;
}
//----------------------------------------------------------------------------
bool
MachMgr::GetClEntAxesMask( int nEntId, int& nMask) const
{
// default
nMask = 0 ;
// verifico validita GeomDB
if ( m_pGeomDB == nullptr)
return false ;
// recupero l'oggetto CamData
const CamData* pCamData = GetCamData( m_pGeomDB->GetUserObj( nEntId)) ;
if ( pCamData == nullptr)
return false ;
// recupero il tipo di movimento
nMask = pCamData->GetAxesMask() ;
return true ;
}
//----------------------------------------------------------------------------
bool
MachMgr::GetClEntAxesVal( int nEntId, DBLVECTOR& vAxes) const
+2 -7
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@@ -1,7 +1,7 @@
//----------------------------------------------------------------------------
// EgalTech 2015-2024
// EgalTech 2015-2015
//----------------------------------------------------------------------------
// File : MachMgrDBMachinings.cpp Data : 29.03.24 Versione : 2.6d1
// File : MachMgrDBMachinings.cpp Data : 11.11.15 Versione : 1.6k5
// Contenuto : Implementazione gestione DB lavorazioni della classe MachMgr.
//
//
@@ -304,8 +304,6 @@ MachMgr::MdbSetGeneralParam( int nType, double dVal)
return pMsMgr->SetSafeAggrBottZ( dVal) ;
case MGP_MAXDEPTHSAFE :
return pMsMgr->SetMaxDepthSafe( dVal) ;
case MGP_APPROXLINTOL :
return pMsMgr->SetApproxLinTol( dVal) ;
}
return false ;
}
@@ -381,9 +379,6 @@ MachMgr::MdbGetGeneralParam( int nType, double& dVal) const
case MGP_MAXDEPTHSAFE :
dVal = pMsMgr->GetMaxDepthSafe() ;
return true ;
case MGP_APPROXLINTOL :
dVal = pMsMgr->GetApproxLinTol() ;
return true ;
}
return false ;
}
+2 -21
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@@ -534,14 +534,6 @@ MachMgr::SetCalcSolCh( int nScc, bool bExact)
return pMch->SetSolCh( nScc, bExact) ;
}
//----------------------------------------------------------------------------
bool
MachMgr::GetCalcTable( string& sTable) const
{
Machine* pMch = GetCurrMachine() ;
return ( ( pMch != nullptr) ? pMch->GetCurrTable( sTable) : false) ;
}
//----------------------------------------------------------------------------
bool
MachMgr::GetCalcTool( string& sTool) const
@@ -617,17 +609,6 @@ MachMgr::GetAllTablesNames( STRVECTOR& vNames) const
return ( ( pMch != nullptr) ? pMch->GetAllTablesNames( vNames) : false) ;
}
//----------------------------------------------------------------------------
bool
MachMgr::GetAllAxesNames( STRVECTOR& vNames) const
{
// pulisco il vettore
vNames.clear() ;
// richiedo elenco assi alla macchina corrente
Machine* pMch = GetCurrMachine() ;
return ( ( pMch != nullptr) ? pMch->GetAllAxesNames( vNames) : false) ;
}
//----------------------------------------------------------------------------
bool
MachMgr::GetAllHeadsNames( STRVECTOR& vNames) const
@@ -668,10 +649,10 @@ MachMgr::GetCurrRotAxes( void) const
//----------------------------------------------------------------------------
bool
MachMgr::GetAllCurrAxesNames( STRVECTOR& vAxName) const
MachMgr::GetAllCurrAxesName( STRVECTOR& vAxName) const
{
Machine* pMch = GetCurrMachine() ;
return ( ( pMch != nullptr) ? pMch->GetAllCurrAxesNames( vAxName) : false) ;
return ( ( pMch != nullptr) ? pMch->GetAllCurrAxesName( vAxName) : false) ;
}
//----------------------------------------------------------------------------
+134 -409
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@@ -29,7 +29,6 @@
#include "/EgtDev/Include/EGkStmStandard.h"
#include "/EgtDev/Include/EGkStmFromCurves.h"
#include "/EgtDev/Include/EgtPointerOwner.h"
#include "/EgtDev/Include/EXeConst.h"
using namespace std ;
@@ -97,7 +96,7 @@ MachMgr::AddRawPart( const Point3d& ptOrig, double dLen, double dWidth, double d
m_pGeomDB->SetInfo( nRawId, MACH_RAW_PHASE, m_nCurrPhase) ;
// creo solido e outline
bOk = bOk && ModifyRawPart( nRawId, ptOrig, dLen, dWidth, dHeight, cCol) ;
// se qualcosa è andato storto, cancello tutto
// se qualcosa è andato storto, cancello tutto
if ( ! bOk) {
m_pGeomDB->Erase( nRawId) ;
return GDB_ID_NULL ;
@@ -113,7 +112,7 @@ MachMgr::ModifyRawPart( int nRawId, const Point3d& ptOrig, double dLen, double d
// le dimensioni non possono essere nulle
if ( dLen < EPS_SMALL || dWidth < EPS_SMALL || dHeight < EPS_SMALL)
return false ;
// verifica validità grezzo
// verifica validità grezzo
if ( ! VerifyRawPart( nRawId))
return false ;
// creo il solido
@@ -172,7 +171,7 @@ MachMgr::AddRawPartWithPart( int nPartId, int nCrvSrfId, double dOverMat, Color
// verifico il gruppo dei grezzi nella macchinata corrente
if ( GetCurrRawGroupId() == GDB_ID_NULL)
return GDB_ID_NULL ;
// verifico che il pezzo non sia già usato nella macchinata corrente
// verifico che il pezzo non sia già usato nella macchinata corrente
if ( m_pGeomDB->GetParentId( nPartId) != GDB_ID_ROOT)
return GDB_ID_NULL ;
// recupero il tipo di oggetto per definire il grezzo
@@ -181,7 +180,7 @@ MachMgr::AddRawPartWithPart( int nPartId, int nCrvSrfId, double dOverMat, Color
Point3d ptRef ;
// costruzione del grezzo
int nRawId = GDB_ID_NULL ;
// se grezzo da superficie (per ora senza possibilità di offset)
// se grezzo da superficie (per ora senza possibilità di offset)
if ( ( nGtype & GEO_SURF) != 0) {
// inserisco il grezzo
nRawId = AddRawPart( nCrvSrfId, cCol) ;
@@ -285,7 +284,7 @@ MachMgr::AddRawPart( int nCrvId, double dOverMat, double dZmin, double dHeight,
m_pGeomDB->SetInfo( nRawId, MACH_RAW_PHASE, m_nCurrPhase) ;
// creo solido e outline
bOk = bOk && ModifyRawPart( nRawId, nCrvId, dOverMat, dZmin, dHeight, cCol) ;
// se qualcosa è andato storto, cancello tutto
// se qualcosa è andato storto, cancello tutto
if ( ! bOk) {
m_pGeomDB->Erase( nRawId) ;
return GDB_ID_NULL ;
@@ -298,7 +297,7 @@ MachMgr::AddRawPart( int nCrvId, double dOverMat, double dZmin, double dHeight,
bool
MachMgr::ModifyRawPart( int nRawId, int nCrvId, double dOverMat, double dZmin, double dHeight, Color cCol)
{
// verifica validità grezzo
// verifica validità grezzo
if ( ! VerifyRawPart( nRawId))
return false ;
// recupero il riferimento della curva
@@ -322,7 +321,7 @@ MachMgr::ModifyRawPart( int nRawId, int nCrvId, double dOverMat, double dZmin, d
// la schiaccio a Z = 0
if ( ! pMyCrv->Scale( Frame3d(), 1, 1, 0))
return false ;
// se non è chiusa, la chiudo
// se non è chiusa, la chiudo
pMyCrv->Close() ;
// la oriento in senso CCW
double dAreaXY ;
@@ -376,11 +375,11 @@ MachMgr::AddRawPart( int nSurfId, Color cCol)
if ( nRawGroupId == GDB_ID_NULL)
return GDB_ID_NULL ;
// recupero l'ingombro della superficie in globale
BBox3d b3Surf ;
if ( ! m_pGeomDB->GetGlobalBBox( nSurfId, b3Surf))
BBox3d b3Crv ;
if ( ! m_pGeomDB->GetGlobalBBox( nSurfId, b3Crv))
return GDB_ID_NULL ;
// inserisco il gruppo del grezzo nella macchinata
Frame3d frRaw( b3Surf.GetMin()) ;
Frame3d frRaw( b3Crv.GetMin()) ;
int nRawId = m_pGeomDB->AddGroup( GDB_ID_NULL, nRawGroupId, frRaw) ;
if ( nRawId == GDB_ID_NULL)
return GDB_ID_NULL ;
@@ -457,11 +456,11 @@ MachMgr::AddRawPart( int nSurfId, Color cCol)
int nCrvId = ( bOk ? m_pGeomDB->AddGeoObj( GDB_ID_NULL, nRawId, Release( pCrvCompo)) : GDB_ID_NULL) ;
bOk = bOk && ( nCrvId != GDB_ID_NULL) ;
// assegno il nome alla curva
bOk = bOk && m_pGeomDB->SetName( nCrvId, MACH_RAW_OUTLINE) ;
bOk = bOk && m_pGeomDB->SetName( nCrvId, MACH_RAW_SOLID) ;
// assegno il colore alla curva
bOk = bOk && m_pGeomDB->SetMaterial( nCrvId, cCol) ;
bOk = bOk && m_pGeomDB->SetMaterial( nCrvId, cCol) ;
}
// se qualcosa è andato storto, cancello tutto
// se qualcosa è andato storto, cancello tutto
if ( ! bOk) {
m_pGeomDB->Erase( nRawId) ;
return GDB_ID_NULL ;
@@ -472,156 +471,6 @@ MachMgr::AddRawPart( int nSurfId, Color cCol)
return nRawId ;
}
//----------------------------------------------------------------------------
int
MachMgr::AddRawPart( int nSfrUpId, int nSfrDownId, double dHeight, Color cCol)
{
// recupero il gruppo dei grezzi nella macchinata corrente
int nRawGroupId = GetCurrRawGroupId() ;
if ( nRawGroupId == GDB_ID_NULL)
return GDB_ID_NULL ;
// recupero l'ingombro della superficie up in globale
BBox3d b3Surf ;
if ( ! m_pGeomDB->GetGlobalBBox( nSfrUpId, b3Surf))
return GDB_ID_NULL ;
// inserisco il gruppo del grezzo nella macchinata
Frame3d frRaw( b3Surf.GetMin()) ;
int nRawId = m_pGeomDB->AddGroup( GDB_ID_NULL, nRawGroupId, frRaw) ;
if ( nRawId == GDB_ID_NULL)
return GDB_ID_NULL ;
// assegno il nome al gruppo
bool bOk = m_pGeomDB->SetName( nRawId, MACH_RAW_PART) ;
// assegno la fase al gruppo
bOk = bOk && m_pGeomDB->SetInfo( nRawId, MACH_RAW_PHASE, m_nCurrPhase) ;
// recupero il frame originale della superficie up ( deve essere lo stesso della down)
Frame3d frSurf ;
bOk = bOk && m_pGeomDB->GetGlobFrame( nSfrUpId, frSurf) ;
// creo il volume in modo approssimativo a partire dalle due superfici considerando soltanto un'approssimazione dei bordi esterni
// regione up
PtrOwner<ISurfFlatRegion> pSurfUp( CloneSurfFlatRegion( m_pGeomDB->GetGeoObj( nSfrUpId))) ;
bOk = bOk && ( ! IsNull( pSurfUp)) ;
// calcolo offset e contro-offset per unificare i chunk ed eliminare eventuali rientranze nella superficie
double dOffs = 8 ;
bOk = bOk && pSurfUp->Offset( dOffs, ICurve::OFF_FILLET) ;
bOk = bOk && pSurfUp->Offset( -dOffs, ICurve::OFF_FILLET) ;
// recupero il chunk di area maggiore
int nKMax = 0 ;
if ( bOk && pSurfUp->GetChunkCount() > 1) {
double dAreaMax = -1 ;
for ( int k = 0 ; k < pSurfUp->GetChunkCount() ; k ++) {
PtrOwner<ISurfFlatRegion> pSfrChunk( pSurfUp->CloneChunk( k)) ;
double dArea = -1 ; pSfrChunk->GetGrossArea( dArea) ;
if ( dArea > dAreaMax) {
nKMax = k ;
dAreaMax = dArea ;
}
}
}
PtrOwner<ICurve> pCrvUp ;
bOk = bOk && pCrvUp.Set( pSurfUp->GetLoop( nKMax, 0)) ;
bOk = bOk && ( ! IsNull( pCrvUp)) ;
// regione down
PtrOwner<ISurfFlatRegion> pSurfDown( CloneSurfFlatRegion( m_pGeomDB->GetGeoObj( nSfrDownId))) ;
bOk = bOk && ( ! IsNull( pSurfDown)) ;
bOk = bOk && pSurfDown->Offset( dOffs, ICurve::OFF_FILLET) ;
bOk = bOk && pSurfDown->Offset( -dOffs, ICurve::OFF_FILLET) ;
nKMax = 0 ;
if ( bOk && pSurfDown->GetChunkCount() > 1) {
double dAreaMax = -1 ;
for ( int k = 0 ; k < pSurfDown->GetChunkCount() ; k ++) {
PtrOwner<ISurfFlatRegion> pSfrChunk( pSurfDown->CloneChunk( k)) ;
double dArea = -1 ; pSfrChunk->GetGrossArea( dArea) ;
if ( dArea > dAreaMax) {
nKMax = k ;
dAreaMax = dArea ;
}
}
}
PtrOwner<ICurveComposite> pCrvDown ;
bOk = bOk && pCrvDown.Set( ConvertCurveToComposite( pSurfDown->GetLoop( nKMax, 0))) ;
bOk = bOk && ( ! IsNull( pCrvDown)) ;
// sposto il punto di inizio il più vicino possibile a quello della curva up per migliorare il calcolo della rigata
if ( bOk) {
Point3d ptS ; pCrvUp->GetStartPoint( ptS) ;
DistPointCurve distPC( ptS, *pCrvDown) ;
double dPar ; int nFlag ;
bOk = bOk && distPC.GetParamAtMinDistPoint( 0, dPar, nFlag) ;
bOk = bOk && pCrvDown->ChangeStartPoint( dPar) ;
}
// volume
PtrOwner<ISurfTriMesh> pStmRaw ;
bOk = bOk && pStmRaw.Set( GetSurfTriMeshByFlatContour( pCrvUp)) ;
bOk = bOk && ( ! IsNull( pStmRaw)) ;
PtrOwner<ISurfTriMesh> pStmLat ;
bOk = bOk && pStmLat.Set( GetSurfTriMeshRuled( pCrvDown, pCrvUp, ISurfTriMesh::RLT_MINDIST)) ;
bOk = bOk && ( ! IsNull( pStmLat)) ;
bOk = bOk && pStmRaw->DoSewing( *pStmLat) ;
PtrOwner<ISurfTriMesh> pStmDown ;
bOk = bOk && pStmDown.Set( GetSurfTriMeshByFlatContour( pCrvDown)) ;
bOk = bOk && pStmDown->Invert() ;
bOk = bOk && pStmRaw->DoSewing( *pStmDown) ;
bOk = bOk && pStmRaw->DoCompacting() ;
bOk = bOk && pStmRaw->Repair() ;
bOk = bOk && pStmRaw->LocToLoc( frSurf, frRaw) ;
int nId = bOk ? m_pGeomDB->AddGeoObj( GDB_ID_NULL, nRawId, Release( pStmRaw)) : GDB_ID_NULL ;
bOk = bOk && ( nId != GDB_ID_NULL) ;
// assegno il nome al solido
bOk = bOk && m_pGeomDB->SetName( nId, MACH_RAW_SOLID) ;
// assegno il colore al solido
bOk = bOk && m_pGeomDB->SetMaterial( nId, cCol) ;
// rendo visibile il solido
bOk = bOk && m_pGeomDB->SetStatus( nId, GDB_ST_ON) ;
// calcolo il punto centro del solido
bOk = bOk && SetRawPartCenter( nRawId) ;
if ( bOk) {
// costruisco la curva di contorno
PtrOwner<ISurfFlatRegion> pSfrUp( CloneSurfFlatRegion( m_pGeomDB->GetGeoObj( nSfrUpId))) ;
PtrOwner<ISurfFlatRegion> pSfrDown( CloneSurfFlatRegion( m_pGeomDB->GetGeoObj( nSfrDownId))) ;
bOk = bOk && ( ! IsNull( pSfrUp)) && ( ! IsNull( pSfrDown)) ;
if ( bOk)
pSfrUp->Add( *pSfrDown) ;
PtrOwner<ICurve> pCrv ;
bOk = bOk && pCrv.Set( pSfrUp->GetLoop( 0, 0)) ;
bOk = bOk && ( ! IsNull( pCrv)) ;
bOk = bOk && pCrv->LocToLoc( frSurf, frRaw) ;
int nLoop = bOk ? m_pGeomDB->AddGeoObj( GDB_ID_NULL, nRawId, Release( pCrv)) : GDB_ID_NULL ;
bOk = bOk && ( nLoop != GDB_ID_NULL) ;
bOk = bOk && ExeMove( {nLoop}, -dHeight * Z_AX, RTY_LOC) ;
// assegno il nome alla curva
bOk = bOk && m_pGeomDB->SetName( nLoop, MACH_RAW_OUTLINE) ;
// assegno il colore alla curva
bOk = bOk && m_pGeomDB->SetMaterial( nLoop, cCol) ;
// recupero le superfici up e down
int nSurfUpId = ( bOk ? m_pGeomDB->CopyGlob( nSfrUpId, GDB_ID_NULL, nRawId) : GDB_ID_NULL) ;
bOk = bOk && ( nSurfUpId != GDB_ID_NULL) ;
bOk = bOk && m_pGeomDB->SetName( nSurfUpId, MACH_RAW_UP_REG) ;
bOk = bOk && m_pGeomDB->SetMaterial( nSurfUpId, cCol) ;
bOk = bOk && m_pGeomDB->SetStatus( nSurfUpId, GDB_ST_OFF) ;
int nSurfDownId = ( bOk ? m_pGeomDB->CopyGlob( nSfrDownId, GDB_ID_NULL, nRawId) : GDB_ID_NULL) ;
bOk = bOk && ( nSurfDownId != GDB_ID_NULL) ;
bOk = bOk && m_pGeomDB->SetName( nSurfDownId, MACH_RAW_DOWN_REG) ;
bOk = bOk && m_pGeomDB->SetMaterial( nSurfDownId, cCol) ;
bOk = bOk && m_pGeomDB->SetStatus( nSurfDownId, GDB_ST_OFF) ;
}
// se qualcosa è andato storto, cancello tutto
if ( ! bOk) {
m_pGeomDB->Erase( nRawId) ;
return GDB_ID_NULL ;
}
// tutto ok
return nRawId ;
}
//----------------------------------------------------------------------------
bool
MachMgr::ModifyRawPartSize( int nRawId, double dLength, double dWidth, double dHeight)
@@ -629,7 +478,7 @@ MachMgr::ModifyRawPartSize( int nRawId, double dLength, double dWidth, double dH
// le nuove dimensioni non possono essere nulle
if ( dLength < EPS_SMALL || dWidth < EPS_SMALL || dHeight < EPS_SMALL)
return false ;
// verifica validità grezzo
// verifica validità grezzo
if ( ! VerifyRawPart( nRawId))
return false ;
// recupero il solido del grezzo
@@ -671,10 +520,10 @@ MachMgr::ModifyRawPartSize( int nRawId, double dLength, double dWidth, double dH
bool
MachMgr::ModifyRawPartHeight( int nRawId, double dHeight)
{
// la nuova altezza non può essere nulla
// la nuova altezza non può essere nulla
if ( dHeight < EPS_SMALL)
return false ;
// verifica validità grezzo
// verifica validità grezzo
if ( ! VerifyRawPart( nRawId))
return false ;
// recupero il solido del grezzo
@@ -703,10 +552,10 @@ MachMgr::GetRawPartPhases( int nRawId, INTVECTOR& vPhase) const
{
// pulisco parametro di ritorno
vPhase.clear() ;
// verifica validità grezzo
// verifica validità grezzo
if ( ! VerifyRawPart( nRawId))
return false ;
// recupero le fasi in cui è presente il grezzo (se manca è fase 1)
// recupero le fasi in cui è presente il grezzo (se manca è fase 1)
if ( ! m_pGeomDB->GetInfo( nRawId, MACH_RAW_PHASE, vPhase) || vPhase.empty())
vPhase.emplace_back( 1) ;
return true ;
@@ -716,11 +565,11 @@ MachMgr::GetRawPartPhases( int nRawId, INTVECTOR& vPhase) const
bool
MachMgr::KeepRawPart( int nRawId, int nSouPhase)
{
// verifico validità e recupero fasi in cui è presente
// verifico validità e recupero fasi in cui è presente
INTVECTOR vPhase ;
if ( ! GetRawPartPhases( nRawId, vPhase))
return false ;
// se fase corrente già presente, non devo fare alcunché
// se fase corrente già presente, non devo fare alcunché
if ( find( vPhase.begin(), vPhase.end(), m_nCurrPhase) != vPhase.end())
return true ;
// aggiungo la fase corrente
@@ -772,7 +621,7 @@ MachMgr::KeepRawPart( int nRawId, int nSouPhase)
bool
MachMgr::VerifyRawPartPhase( int nRawId, int nPhase) const
{
// verifico validità e recupero fasi in cui è presente
// verifico validità e recupero fasi in cui è presente
INTVECTOR vPhase ;
if ( ! GetRawPartPhases( nRawId, vPhase))
return false ;
@@ -784,11 +633,11 @@ MachMgr::VerifyRawPartPhase( int nRawId, int nPhase) const
bool
MachMgr::RemoveRawPartFromCurrPhase( int nRawId)
{
// verifico validità e recupero fasi in cui è presente
// verifico validità e recupero fasi in cui è presente
INTVECTOR vPhase ;
if ( ! GetRawPartPhases( nRawId, vPhase))
return false ;
// se non appartiene alla fase corrente, non devo fare alcunché
// se non appartiene alla fase corrente, non devo fare alcunché
auto iIter = find( vPhase.begin(), vPhase.end(), m_nCurrPhase) ;
if ( iIter == vPhase.end())
return true ;
@@ -815,7 +664,7 @@ MachMgr::RemoveRawPartFromCurrPhase( int nRawId)
bool
MachMgr::RemoveRawPart( int nRawId)
{
// verifica validità grezzo
// verifica validità grezzo
if ( ! VerifyRawPart( nRawId))
return false ;
// tolgo dalle disposizioni in cui compare gli eventuali movimenti registrati di questo grezzo
@@ -839,7 +688,7 @@ MachMgr::VerifyRawPart( int nRawId, bool bLinkedAllowed) const
int nRawGroupId = GetCurrRawGroupId() ;
if ( nRawGroupId != GDB_ID_NULL && m_pGeomDB->GetParentId( nRawId) == nRawGroupId)
return true ;
// se consentito linkaggio ed il grezzo è linkato ad un gruppo della macchina corrente, va bene
// se consentito linkaggio ed il grezzo è linkato ad un gruppo della macchina corrente, va bene
if ( bLinkedAllowed) {
Machine* pMch = GetCurrMachine() ;
if ( pMch != nullptr && pMch->IsLinkedRawPart( nRawId))
@@ -959,12 +808,12 @@ MachMgr::ResetRawPartCenter( int nRawId)
bool
MachMgr::GetRawPartCenter( int nRawId, Point3d& ptCen)
{
// verifica validità grezzo
// verifica validità grezzo
if ( ! VerifyRawPart( nRawId))
return false ;
// cerco di recuperare l'oggetto
int nGPntId = m_pGeomDB->GetFirstNameInGroup( nRawId, MACH_RAW_CENTER) ;
// ne verifico la validità
// ne verifico la validità
int nMode ;
if ( nGPntId == GDB_ID_NULL ||
! m_pGeomDB->GetMode( nGPntId, nMode) || nMode != GDB_MD_STD) {
@@ -992,7 +841,7 @@ MachMgr::GetRawPartCenter( int nRawId, Point3d& ptCen)
bool
MachMgr::GetRawPartBBox( int nRawId, BBox3d& b3Raw)
{
// verifica validità grezzo
// verifica validità grezzo
if ( ! VerifyRawPart( nRawId))
return false ;
// recupero solido del grezzo
@@ -1000,103 +849,6 @@ MachMgr::GetRawPartBBox( int nRawId, BBox3d& b3Raw)
return m_pGeomDB->GetGlobalBBox( nRawSolidId, b3Raw) ;
}
//---------------------------------------------------------------------------
static bool
AssociateSurfs( IGeomDB* pGeomDB, int nSurfUpId, int nSurfDownId, vector<pair<int,int>>& vRawSurfs)
{
// vRawSurfs contiene tutte le coppie ( id regioneUp, id regioneDown) che definiscono i nuovi grezzi
vRawSurfs.clear() ;
int nUpCnt = ExeSurfFrChunkCount( nSurfUpId) ;
int nDownCnt = ExeSurfFrChunkCount( nSurfDownId) ;
// se non sono stati creati più grezzi
if ( nUpCnt == 1 || nDownCnt == 1) {
vRawSurfs.emplace_back( nSurfUpId, nSurfDownId) ;
return true ;
}
int nUpFirstId = ExeExplodeSurface( nSurfUpId, &nUpCnt) ;
int nDownFirstId = ExeExplodeSurface( nSurfDownId, &nDownCnt) ;
// ad ogni chunk della regione up associo i chunk corrispondenti della regione down
INTVECTOR vChunks( nUpCnt, GDB_ID_NULL) ;
for ( int nIdD = nDownFirstId ; nIdD < nDownFirstId + nDownCnt ; nIdD ++) {
ISurfFlatRegion* pSfrD = GetSurfFlatRegion( pGeomDB->GetGeoObj( nIdD)) ;
if ( pSfrD == nullptr)
return false ;
BBox3d bBoxD ; ExeGetBBox( nIdD, BBF_STANDARD, bBoxD) ;
// inidividuo il chunk della superficie up che interagisce maggiormente con il chunk corrente della superficie down
int k = -1 ;
double dMaxArea = -1 ;
for ( int j = 0 ; j < nUpCnt ; j ++) {
BBox3d bBoxU ; ExeGetBBox( nUpFirstId + j, BBF_STANDARD, bBoxU) ;
if ( bBoxU.OverlapsXY( bBoxD)) {
PtrOwner<ISurfFlatRegion> pSfrU( CloneSurfFlatRegion( pGeomDB->GetGeoObj( nUpFirstId + j))) ;
if ( IsNull( pSfrU))
return false ;
// le due superfici sono nello stesso frame
pSfrU->Intersect( *pSfrD) ;
double dArea = -1 ; pSfrU->GetArea( dArea) ;
if ( dArea > dMaxArea) {
k = j ;
dMaxArea = dArea ;
}
}
}
// aggiorno le superfici con l'associazione trovata
if ( k == -1)
return false ;
if ( vChunks[k] == GDB_ID_NULL)
vChunks[k] = nIdD ;
else {
ExeSurfFrAdd( vChunks[k], nIdD) ;
ExeErase( {nIdD}) ;
}
}
// controllo per ogni chunk della superficie up il corrispondente della nuova superficie down
for ( int i = 0 ; i < nUpCnt ; i ++) {
ISurfFlatRegion* pSfrU = GetSurfFlatRegion( pGeomDB->GetGeoObj( nUpFirstId + i)) ;
if ( pSfrU == nullptr)
return false ;
BBox3d bBoxU ; ExeGetBBox( nUpFirstId + i, BBF_STANDARD, bBoxU) ;
// individuo il chunk della superficie down che interagisce maggiormente con il chunk corrente della superficie up
int k = -1 ;
double dMaxArea = -1 ;
for ( int j = 0 ; j < int( vChunks.size()) ; j ++) {
BBox3d bBoxD ; ExeGetBBox( vChunks[j], BBF_STANDARD, bBoxD) ;
// se i box interferiscono allora verifico di quanto si sovrappongono le due regioni
if ( bBoxD.OverlapsXY( bBoxU)) {
PtrOwner<ISurfFlatRegion> pSfrD( CloneSurfFlatRegion( pGeomDB->GetGeoObj( vChunks[j]))) ;
if ( IsNull( pSfrD))
return false ;
pSfrD->Intersect( *pSfrU) ;
double dArea = -1 ; pSfrD->GetArea( dArea) ;
if ( dArea > dMaxArea) {
k = j ;
dMaxArea = dArea ;
}
}
}
if ( k == -1)
return false ;
// se è la stessa associazione individuata da vChunks allora aggiorno il vettore finale dei grezzi
if ( k == i)
vRawSurfs.emplace_back( nUpFirstId + i, vChunks[i]) ;
else {
// altrimenti unisco le regioni associate appena individuate sia per la superficie up sia per la down
ExeSurfFrAdd( nUpFirstId + k, nUpFirstId + i) ;
ExeErase( {nUpFirstId + i}) ;
ExeSurfFrAdd( vChunks[k], vChunks[i]) ;
ExeErase( {vChunks[i]}) ;
}
}
return true ;
}
//----------------------------------------------------------------------------
int
MachMgr::SplitFlatRawPartWithMachinings( int nRawId, const INTVECTOR& vMchId)
@@ -1120,6 +872,7 @@ MachMgr::SplitFlatRawPartWithMachinings( int nRawId, const INTVECTOR& vMchId)
BBox3d b3Raw ;
if ( ! m_pGeomDB->GetGlobalBBox( nRawSolId, b3Raw))
return GDB_ID_NULL ;
double dZmin = b3Raw.GetMin().z ;
double dHeight = b3Raw.GetMax().z - b3Raw.GetMin().z ;
// il colore del grezzo
Color cCol = AQUA ;
@@ -1128,31 +881,19 @@ MachMgr::SplitFlatRawPartWithMachinings( int nRawId, const INTVECTOR& vMchId)
Frame3d frRaw ;
if ( ! m_pGeomDB->GetGroupGlobFrame( nRawId, frRaw))
return GDB_ID_NULL ;
// creo la regione del grezzo a partire dal suo contorno
// recupero il contorno
int nOutCrvId = m_pGeomDB->GetFirstNameInGroup( nRawId, MACH_RAW_OUTLINE) ;
if ( nOutCrvId == GDB_ID_NULL)
return GDB_ID_NULL ;
// creo le regioni inferiore e superiore del grezzo da aggiornare con le lavorazioni
int nSfrDownId = GDB_ID_NULL, nSfrUpId = GDB_ID_NULL ;
int nSfrDownOrigId = m_pGeomDB->GetFirstNameInGroup( nRawId, MACH_RAW_DOWN_REG) ;
int nSfrUpOrigId = m_pGeomDB->GetFirstNameInGroup( nRawId, MACH_RAW_UP_REG) ;
if ( nSfrDownOrigId == GDB_ID_NULL || nSfrUpOrigId == GDB_ID_NULL) {
// se le regioni del grezzo di partenza non sono definite, le creo a partire dall'outline
nSfrDownId = ExeCreateSurfFlatRegion( nRawId, {nOutCrvId}, nullptr) ;
if ( nSfrDownId == GDB_ID_NULL)
return GDB_ID_NULL ;
nSfrUpId = ExeCopyGlob( nSfrDownId, nRawId, GDB_LAST_SON) ;
if ( nSfrUpId == GDB_ID_NULL)
return GDB_ID_NULL ;
ExeMove( { nSfrUpId}, dHeight * Z_AX, RTY_LOC) ;
}
else {
nSfrDownId = ExeCopyGlob( nSfrDownOrigId, nRawId, GDB_LAST_SON) ;
nSfrUpId = ExeCopyGlob( nSfrUpOrigId, nRawId, GDB_LAST_SON) ;
if ( nSfrDownId == GDB_ID_NULL || nSfrUpId == GDB_ID_NULL)
return GDB_ID_NULL ;
}
// creo la regione
INTVECTOR vCrvIds ;
vCrvIds.emplace_back( nOutCrvId) ;
int nSfrId = ExeCreateSurfFlatRegion( nRawId, vCrvIds, nullptr) ;
if ( nSfrId == GDB_ID_NULL)
return GDB_ID_NULL ;
m_pGeomDB->SetLevel( nSfrId, GDB_LV_TEMP) ;
// se esiste il kerf, ne creo la regione
PtrOwner<ISurfFlatRegion> pSfrKerf ;
@@ -1167,8 +908,7 @@ MachMgr::SplitFlatRawPartWithMachinings( int nRawId, const INTVECTOR& vMchId)
}
// recupero le regioni delle lavorazioni
INTVECTOR vMchRRegUp ;
INTVECTOR vMchRRegDown ;
INTVECTOR vMchRReg ;
for ( auto nMchId : vMchId) {
// recupero gruppo preview lavorazioni nella lavorazione
int nPVGrp = m_pGeomDB->GetFirstNameInGroup( nMchId, MCH_PV) ;
@@ -1176,110 +916,94 @@ MachMgr::SplitFlatRawPartWithMachinings( int nRawId, const INTVECTOR& vMchId)
return GDB_ID_NULL ;
// se vuoto, cerco il rimando al preview nel pezzo
if ( m_pGeomDB->GetGroupObjs( nPVGrp) == 0 &&
! m_pGeomDB->GetInfo( nPVGrp, MCH_PV_KEY_RELOCATE, nPVGrp))
! m_pGeomDB->GetInfo( nPVGrp, MCH_PV_KEY_RELOCATE, nPVGrp))
return GDB_ID_NULL ;
// ciclo sui percorsi utensile (CL)
int nClId = m_pGeomDB->GetFirstGroupInGroup( nPVGrp) ;
while ( nClId != GDB_ID_NULL) {
// lavorazioni per regione inferiore
int nCrDownId = m_pGeomDB->GetFirstNameInGroup( nClId, MCH_PV_DOWN_RAWCUT) ;
// se non esiste la regione inferiore la lavorazione non è passante quindi può essere ignorata
if ( nCrDownId != GDB_ID_NULL) {
while ( nCrDownId != GDB_ID_NULL) {
vMchRRegDown.emplace_back( nCrDownId) ;
nCrDownId = m_pGeomDB->GetNextName( nCrDownId, MCH_PV_DOWN_RAWCUT) ;
}
// lavorazioni per regione superiore
int nCrUpId = m_pGeomDB->GetFirstNameInGroup( nClId, MCH_PV_UP_RAWCUT) ;
while ( nCrUpId != GDB_ID_NULL) {
vMchRRegUp.emplace_back( nCrUpId) ;
nCrUpId = m_pGeomDB->GetNextName( nCrUpId, MCH_PV_UP_RAWCUT) ;
}
}
// tagli ridotti
int nCrId = m_pGeomDB->GetFirstNameInGroup( nClId, MCH_PV_RRCUT) ;
while ( nCrId != GDB_ID_NULL) {
vMchRReg.emplace_back( nCrId) ;
nCrId = m_pGeomDB->GetNextName( nCrId, MCH_PV_RRCUT) ;
}
// passo al successivo percorso utensile
nClId = m_pGeomDB->GetNextGroup( nClId) ;
}
}
// sottraggo le lavorazioni alle superfici del grezzo
for ( auto nMchRReg : vMchRRegUp)
ExeSurfFrSubtract( nSfrUpId, nMchRReg) ;
for ( auto nMchRReg : vMchRRegDown)
ExeSurfFrSubtract( nSfrDownId, nMchRReg) ;
// classifico i chunks della regione up e down per individuare le regioni che definiscono i nuovi grezzi
vector<pair<int,int>> vSurfRaws ;
AssociateSurfs( m_pGeomDB, nSfrUpId, nSfrDownId, vSurfRaws) ;
// sottraggo queste regioni a quella del grezzo
for ( auto nMchRReg : vMchRReg) {
ExeSurfFrSubtract( nSfrId, nMchRReg) ;
}
// creo i grezzi risultanti
INTVECTOR vNewIds ;
for ( int i = 0 ; i < int( vSurfRaws.size()) ; i++) {
// aggiungo il grezzo
int nId = AddRawPart( vSurfRaws[i].first, vSurfRaws[i].second, dHeight, cCol) ;
m_pGeomDB->Erase( vSurfRaws[i].first) ;
m_pGeomDB->Erase( vSurfRaws[i].second) ;
if ( nId == GDB_ID_NULL)
return GDB_ID_NULL ;
vNewIds.emplace_back( nId) ;
// imposto lo stato del contorno di questo grezzo come quello del grezzo di partenza
int nStat = GDB_ST_ON ;
if ( m_pGeomDB->GetStatus( nOutCrvId, nStat) && nStat == GDB_ST_OFF)
m_pGeomDB->SetStatus( m_pGeomDB->GetFirstNameInGroup( nId, MACH_RAW_OUTLINE), nStat) ;
// assegno la fase al gruppo
m_pGeomDB->SetInfo( nId, MACH_RAW_PHASE, m_nCurrPhase) ;
// se esiste il kerf uso questa curva per creare il kerf del nuovo grezzo
if ( ! IsNull( pSfrKerf)) {
// riferimento del nuovo grezzo
Frame3d frNewRaw ;
if ( ! m_pGeomDB->GetGroupGlobFrame( nId, frNewRaw))
return GDB_ID_NULL ;
// considero il nuovo kerf come la regione superiore del nuovo grezzo
int nSfrUpId = m_pGeomDB->GetFirstNameInGroup( nId, MACH_RAW_UP_REG) ;
if ( nSfrUpId == GDB_ID_NULL)
return GDB_ID_NULL ;
PtrOwner<ISurfFlatRegion> pSfrNewKerf( CloneSurfFlatRegion( m_pGeomDB->GetGeoObj( nSfrUpId))) ;
if ( IsNull( pSfrNewKerf))
return GDB_ID_NULL ;
// porto nello stesso riferimento del grezzo originale
pSfrNewKerf->LocToLoc( frNewRaw, frRaw) ;
// la limito con la regione di kerf precedente ( va bene anche se fallisce)
pSfrNewKerf->Intersect( *pSfrKerf) ;
// se risultato non vuoto
if ( pSfrNewKerf->IsValid()) {
// la porto dal riferimento del grezzo originale al riferimento di questo grezzo
pSfrNewKerf->LocToLoc( frRaw, frNewRaw) ;
// recupero il contorno esterno del chunk più grande e lo inserisco come kerf del nuovo grezzo
double dAreaMax = -1 ;
int nKMax = 0 ;
for ( int k = 0 ; k < pSfrNewKerf->GetChunkCount() ; k ++) {
PtrOwner<ISurfFlatRegion> pSfrChunk( pSfrNewKerf->CloneChunk( k)) ;
double dArea = -1 ; pSfrChunk->GetGrossArea( dArea) ;
if ( dArea > dAreaMax) {
nKMax = k ;
dAreaMax = dArea ;
}
}
PtrOwner<ICurve> pCrv( pSfrNewKerf->GetLoop( nKMax, 0)) ;
if ( IsNull( pCrv))
return GDB_ID_NULL ;
int nNewKerfId = m_pGeomDB->AddGeoObj( GDB_ID_NULL, nId, Release( pCrv)) ;
if ( nNewKerfId == GDB_ID_NULL)
return GDB_ID_NULL ;
m_pGeomDB->CopyMaterial( nKerfId, nNewKerfId) ;
m_pGeomDB->SetName( nNewKerfId, MACH_RAW_KERF) ;
}
}
}
// cancello le regioni usate per i conti
m_pGeomDB->Erase( nSfrUpId) ;
m_pGeomDB->Erase( nSfrDownId) ;
// creo i nuovi grezzi
INTVECTOR vNewIds ;
int nCount ;
int nChunk = 0 ;
int nFirstLoopId = ExeExtractSurfFrChunkLoops( nSfrId, nChunk, nRawId, &nCount) ;
while ( nFirstLoopId != GDB_ID_NULL) {
// !!! in attesa di gestire i grezzi con i buchi !!!
// cancello le eventuali curve successive (sono i loop interni ovvero i buchi)
for ( int i = 1 ; i < nCount ; ++ i) {
m_pGeomDB->Erase( nFirstLoopId + i) ;
}
// dichiaro temporanea la curva
m_pGeomDB->SetLevel( nFirstLoopId, GDB_LV_TEMP) ;
// creo il grezzo
int nId = AddRawPart( nFirstLoopId, 0, dZmin, dHeight, cCol) ;
if ( nId == GDB_ID_NULL)
return GDB_ID_NULL ;
vNewIds.emplace_back( nId) ;
// imposto lo stato del contorno di questo grezzo come quello del grezzo di partenza
int nStat = GDB_ST_ON ;
if ( m_pGeomDB->GetStatus( nOutCrvId, nStat) && nStat == GDB_ST_OFF)
m_pGeomDB->SetStatus( m_pGeomDB->GetFirstNameInGroup( nId, MACH_RAW_OUTLINE), nStat) ;
// assegno la fase al gruppo
m_pGeomDB->SetInfo( nId, MACH_RAW_PHASE, m_nCurrPhase) ;
// se esiste il kerf uso questa curva per creare il kerf del nuovo grezzo
if ( ! IsNull( pSfrKerf)) {
// creo la regione con la curva
SurfFlatRegionByContours SfrCntr ;
SfrCntr.AddCurve( GetCurve( m_pGeomDB->RemoveGeoObjAndErase( nFirstLoopId))) ;
PtrOwner<ISurfFlatRegion> pSfrNewKerf( SfrCntr.GetSurf()) ;
if ( IsNull( pSfrNewKerf))
return GDB_ID_NULL ;
// la limito con la regione di kerf precedente (va bene anche se fallisce)
pSfrNewKerf->Intersect( *pSfrKerf) ;
// se risultato non vuoto
if ( pSfrNewKerf->IsValid()) {
// riferimento del nuovo grezzo
Frame3d frNewRaw ;
if ( ! m_pGeomDB->GetGroupGlobFrame( nId, frNewRaw))
return GDB_ID_NULL ;
// la porto dal riferimento del grezzo originale al riferimento di questo grezzo
pSfrNewKerf->LocToLoc( frRaw, frNewRaw) ;
// la porto sulla faccia sopra del grezzo
pSfrNewKerf->Translate( Vector3d( 0, 0, dHeight)) ;
// recupero il contorno e lo inserisco come kerf del nuovo grezzo
PtrOwner<ICurve> pCrv( pSfrNewKerf->GetLoop( 0, 0)) ;
int nNewKerfId = m_pGeomDB->AddGeoObj( GDB_ID_NULL, nId, Release( pCrv)) ;
if ( nNewKerfId == GDB_ID_NULL)
return GDB_ID_NULL ;
m_pGeomDB->CopyMaterial( nKerfId, nNewKerfId) ;
m_pGeomDB->SetName( nNewKerfId, MACH_RAW_KERF) ;
}
}
// altrimenti la cancello
else
m_pGeomDB->Erase( nFirstLoopId) ;
// passo alla prossima curva
++ nChunk ;
nFirstLoopId = ExeExtractSurfFrChunkLoops( nSfrId, nChunk, nRawId, &nCount) ;
}
// cancello la regione
m_pGeomDB->Erase( nSfrId) ;
// verifico esista almeno un nuovo grezzo
if ( vNewIds.empty())
return GDB_ID_NULL ;
if ( vNewIds.empty())
return GDB_ID_NULL ;
// inserisco i pezzi del grezzo originale nei nuovi grezzi
int nGroupId = m_pGeomDB->GetFirstGroupInGroup( nRawId) ;
while ( nGroupId != GDB_ID_NULL) {
@@ -1289,31 +1013,32 @@ MachMgr::SplitFlatRawPartWithMachinings( int nRawId, const INTVECTOR& vMchId)
// scambio con pezzo
int nPartId = SwapRawPartPart( nNewGroupId, true) ;
// verifico se il pezzo sta nel grezzo
int nLayerId = m_pGeomDB->GetFirstNameInGroup( nPartId, NST_PARTREG_LAYER) ;
int nLayerId = m_pGeomDB->GetFirstNameInGroup( nPartId, NST_EXT_LAYER) ;
if ( nLayerId == GDB_ID_NULL || m_pGeomDB->GetGdbType( nLayerId) != GDB_TY_GROUP)
nLayerId = m_pGeomDB->GetFirstGroupInGroup( nPartId) ;
// cerco la regione del pezzo
int nEntId = m_pGeomDB->GetFirstInGroup( nLayerId) ;
while ( nEntId != GDB_ID_NULL) {
int nEntGeoType = m_pGeomDB->GetGeoType( nEntId) ;
if ( nEntGeoType == SRF_FLATRGN)
break ;
nEntId = m_pGeomDB->GetNext( nEntId) ;
}
if ( nEntId != GDB_ID_NULL) {
// verifico se è interna al grezzo
int nEntId = m_pGeomDB->GetFirstInGroup( nLayerId) ;
int nEntGeoType = m_pGeomDB->GetGeoType( nEntId) ;
Point3d ptTest ;
if ( ( ( nEntGeoType & GEO_CURVE) != 0 && ExeMidPoint( nEntId, nNewId, ptTest)) ||
( ( nEntGeoType & GEO_CURVE) == 0 && ExeCenterPoint( nEntId, nNewId, ptTest))) {
int nOutCrvId = m_pGeomDB->GetFirstNameInGroup( nNewId, MACH_RAW_OUTLINE) ;
BBox3d b3Raw ; m_pGeomDB->GetGlobalBBox( nOutCrvId, b3Raw) ;
double dRawDiam = 0 ; b3Raw.GetDiameter( dRawDiam) ;
BBox3d b3Part ; m_pGeomDB->GetGlobalBBox( nEntId, b3Part) ;
double dPartDiam = 0 ; b3Part.GetDiameter( dPartDiam) ;
if ( dRawDiam > 0.9 * dPartDiam) {
int nSfrUp = m_pGeomDB->GetFirstNameInGroup( nNewId, MACH_RAW_UP_REG) ;
if ( ! ExeSurfFrTestExternal( nSfrUp, nEntId, EPS_SMALL))
break ;
}
}
ICurve* pCurve = GetCurve( m_pGeomDB->GetGeoObj( nOutCrvId)) ;
if ( pCurve != nullptr) {
int nSide ;
double dDist ;
DistPointCurve distPC( ptTest, *pCurve) ;
if ( distPC.GetDist( dDist) &&
( dDist < 100 * EPS_SMALL ||
( distPC.GetSideAtMinDistPoint( 0, Z_AX, nSide) && nSide != MDS_RIGHT)))
break ;
}
}
}
// altrimenti scambio pezzo ed elimino gruppo
nNewGroupId = SwapRawPartPart( nPartId, false) ;
m_pGeomDB->Erase( nNewGroupId) ;
@@ -1321,5 +1046,5 @@ MachMgr::SplitFlatRawPartWithMachinings( int nRawId, const INTVECTOR& vMchId)
nGroupId = m_pGeomDB->GetNextGroup( nGroupId) ;
}
return vNewIds[0] ;
return vNewIds[0] ;
}
+2 -5
View File
@@ -58,7 +58,6 @@ Machine::Machine( void)
m_nHeadRotAxes = 0 ;
m_nHeadSpecRotAxis = -1 ;
m_frLinAx.Reset( false) ;
m_frRobot.Reset( false) ;
m_nCalcChainType = KIN_CHAIN_NONE ;
m_nMachineLook = MCH_LOOK_NONE ;
}
@@ -213,7 +212,7 @@ Machine::AdjustAuxGeometry( const STRVECTOR& vsAux, int nLay)
bool
Machine::LoadMachineTable( const string& sName, const string& sParent, int nType,
const Point3d& ptRef1, double dCoeffX, double dCoeffY, double dCoeffZ,
const STRVECTOR& vsColl, const string& sGeo, const STRVECTOR& vsAux)
const string& sGeo, const STRVECTOR& vsAux)
{
// recupero pezzo e layer della geometria originale della tavola
string sPart, sLay ;
@@ -252,7 +251,7 @@ Machine::LoadMachineTable( const string& sName, const string& sParent, int nType
Table* pTab = new(nothrow) Table ;
if ( pTab == nullptr)
return false ;
pTab->Set( sName, nType, ptRef1, b3Area1, vsColl) ;
pTab->Set( sName, nType, ptRef1, b3Area1) ;
m_pGeomDB->SetUserObj( nLay, pTab) ;
// lo inserisco nel dizionario dei gruppi della macchina
return m_mapGroups.emplace( sName, nLay).second ;
@@ -1067,8 +1066,6 @@ Machine::SetLook( int nFlag)
nTabId = GetFirstTable() ;
if ( nTabId == GDB_ID_NULL)
return false ;
// il gruppo tavola corrente deve essere sempre visibile
m_pGeomDB->SetStatus( nTabId, GDB_ST_ON) ;
// nascondo o visualizzo i fratelli e tutti i fratelli degli ascendenti della tavola
bool bTabOnly = ( nFlag != MCH_LOOK_ALL) ;
int nTabCurrId = nTabId ;
+3 -6
View File
@@ -61,7 +61,6 @@ class Machine
{ int nId = GetGroup( sTcPos) ;
return ( IsTcPosGroup( nId) ? nId : GDB_ID_NULL) ; }
bool GetAllTablesNames( STRVECTOR& vNames) const ;
bool GetAllAxesNames( STRVECTOR& vNames) const ;
bool GetAllHeadsNames( STRVECTOR& vNames) const ;
bool GetAllTcPosNames( STRVECTOR& vNames) const ;
int GetFirstTable( void) const ;
@@ -98,7 +97,6 @@ class Machine
bool GetCurrTableArea1( BBox3d& b3Area1) const ;
bool GetCurrTableDeltaRef1( Vector3d& vtDelta1) const ;
bool GetCurrTableIsTilting( bool& bTilting, Vector3d& vtTiltingAx) const ;
bool GetCurrTableCollGroups( INTVECTOR& vIds) const ;
bool SetCurrTool( const std::string& sTool, const std::string& sHead, int nExit) ;
bool ResetCurrTool( void) ;
int GetCurrTool( void) const ;
@@ -123,9 +121,9 @@ class Machine
int GetCurrLinAxes( void) const ;
int GetCurrRotAxes( void) const ;
bool GetCurrAxisName( int nInd, std::string& sAxName) const ;
bool GetAllCurrAxesNames( STRVECTOR& vAxName) const ;
bool GetAllCurrAxesName( STRVECTOR& vAxName) const ;
bool GetCurrAxisToken( int nInd, std::string& sAxToken) const ;
bool GetAllCurrAxesTokens( STRVECTOR& vAxToken) const ;
bool GetAllCurrAxesToken( STRVECTOR& vAxToken) const ;
bool GetCurrAxisMin( int nInd, double& dMin) const ;
bool GetCurrAxisMax( int nInd, double& dMax) const ;
bool GetCurrAxisOffset( int nInd, double& dOffset) const ;
@@ -199,7 +197,7 @@ class Machine
bool AdjustAuxGeometry( const STRVECTOR& vsAux, int nLay) ;
bool LoadMachineTable( const std::string& sName, const std::string& sParent, int nType,
const Point3d& ptRef1, double dCoeffX, double dCoeffY, double dCoeffZ,
const STRVECTOR& vsColl, const std::string& sGeo, const STRVECTOR& vsAux) ;
const std::string& sGeo, const STRVECTOR& vsAux) ;
bool AdjustTable( int nLay, const Point3d& ptRef1) ;
bool LoadMachineAxis( const std::string& sName, const std::string& sParent, const std::string& sToken, bool bInvert,
double dOffset, int nType, const Point3d& ptPos, const Vector3d& vtDir, const STROKE& Stroke,
@@ -317,7 +315,6 @@ class Machine
KINAXISVECTOR m_vCalcLinAx ; // vettore assi lineari attivi per calcoli
KINAXISVECTOR m_vCalcRotAx ; // vettore assi rotanti attivi per calcoli
Frame3d m_frLinAx ; // sistema di riferimento definito dagli assi lineari
Frame3d m_frRobot ; // sistema di riferimento canonico del robot
int m_nCalcChainType ; // tipologia testa attiva (nulla, centro di lavoro o robot)
Point3d m_ptWristCen ; // centro del polso sferico nel riferimento testa/uscita di calcolo
Vector3d m_vtWristRef ; // direzione del polso sferico nel riferimento testa/uscita di calcolo
-16
View File
@@ -23,22 +23,6 @@
using namespace std ;
//----------------------------------------------------------------------------
bool
Machine::GetAllAxesNames( STRVECTOR& vNames) const
{
// reset lista nomi
vNames.clear() ;
// ricerca degli assi
for ( const auto& snGro : m_mapGroups) {
if ( IsAxisGroup( snGro.second))
vNames.push_back( snGro.first) ;
}
// ordino alfabeticamente
sort( vNames.begin(), vNames.end()) ;
return true ;
}
//----------------------------------------------------------------------------
bool
Machine::GetAxisToken( const string& sAxis, string& sToken) const
+8 -62
View File
@@ -71,8 +71,6 @@ Machine::SetCurrTable( const string& sTable)
m_nCalcTabId = GDB_ID_NULL ;
return false ;
}
// il gruppo tavola corrente deve essere sempre visibile
m_pGeomDB->SetStatus( m_nCalcTabId, GDB_ST_ON) ;
// lancio eventuale funzione lua di personalizzazione
if ( LuaExistsFunction( ON_SET_TABLE)) {
// salvo eventuale variabile EMC_VAR già presente
@@ -214,31 +212,6 @@ Machine::GetCurrTableIsTilting( bool& bTilting, Vector3d& vtTiltingAx) const
return true ;
}
//----------------------------------------------------------------------------
bool
Machine::GetCurrTableCollGroups( INTVECTOR& vIds) const
{
// controllo GeomDB
if ( m_pGeomDB == nullptr)
return false ;
// recupero la tavola corrente
Table* pTab = GetTable( m_nCalcTabId) ;
if ( pTab == nullptr)
return false ;
// recupero stringhe con gruppi ausiliari di collisione
const STRVECTOR& vsColl = pTab->GetCollGroups() ;
for ( const auto& sColl : vsColl) {
string sGrp, sSub ;
Split( sColl, "/", true, sGrp, sSub) ;
int nId = GetGroup( sGrp) ;
if ( ! sSub.empty() && nId != GDB_ID_NULL)
nId = m_pGeomDB->GetFirstNameInGroup( nId, sSub) ;
if ( nId != GDB_ID_NULL)
vIds.push_back( nId) ;
}
return true ;
}
//----------------------------------------------------------------------------
bool
Machine::SetCurrTool( const string& sTool, const string& sHead, int nExit)
@@ -493,8 +466,6 @@ Machine::CalculateKinematicChain( void)
m_nHeadSpecRotAxis = -1 ;
m_vCalcLinAx.clear() ;
m_vCalcRotAx.clear() ;
m_frLinAx.Reset( false) ;
m_frRobot.Reset( false) ;
m_nCalcChainType = KIN_CHAIN_NONE ;
// recupero gli assi di tavola
if ( m_nCalcTabId == GDB_ID_NULL)
@@ -537,19 +508,6 @@ Machine::CalculateKinematicChain( void)
swap( m_vCalcRotAx[0], m_vCalcRotAx[5]) ;
swap( m_vCalcRotAx[1], m_vCalcRotAx[4]) ;
swap( m_vCalcRotAx[2], m_vCalcRotAx[3]) ;
// determino il riferimento canonico del robot
if ( ! m_frRobot.Set( m_vCalcRotAx[0].ptPos, m_vCalcRotAx[0].vtDir, m_vCalcRotAx[3].vtDir)) {
LOG_ERROR( GetEMkLogger(), "Robot with errors in Rotary Axes : impossible canonic frame")
return false ;
}
// porto tutti gli assi cinematici e i dati testa nel riferimento canonico
for ( int i = 0 ; i < m_nHeadRotAxes ; ++ i) {
m_vCalcRotAx[i].ptPos.ToLoc( m_frRobot) ;
m_vCalcRotAx[i].vtDir.ToLoc( m_frRobot) ;
}
m_ptCalcPos.ToLoc( m_frRobot) ;
m_vtCalcDir.ToLoc( m_frRobot) ;
m_vtCalcADir.ToLoc( m_frRobot) ;
// direzione assi rotanti deve essere Z Y Y X Y X
if ( ! m_vCalcRotAx[0].vtDir.IsZ() ||
! m_vCalcRotAx[1].vtDir.IsY() ||
@@ -1281,10 +1239,6 @@ Machine::GetDirection( const Vector3d& vtDir, const DBLVECTOR& vAng, Vector3d& v
vtNew.Rotate( m_vCalcRotAx[i-1].vtDir, vAng[i-1]) ;
}
// nel caso di robot devo passare dal riferimento canonico robot a quello di macchina
if ( m_nCalcChainType == KIN_CHAIN_ROBOT)
vtNew.ToGlob( m_frRobot) ;
return true ;
}
@@ -1415,10 +1369,6 @@ Machine::GetTipFromPositions( double dX, double dY, double dZ, const DBLVECTOR&
else
return false ;
// nel caso di robot devo passare dal riferimento canonico robot a quello di macchina
if ( m_nCalcChainType == KIN_CHAIN_ROBOT)
ptTip.ToGlob( m_frRobot) ;
// Se richiesto ingombro totale o punto sotto del tip utensile
if ( bOverall || bBottom) {
// calcolo la direzione fresa
@@ -1853,7 +1803,7 @@ Machine::GetCurrAxisName( int nInd, string& sAxName) const
//----------------------------------------------------------------------------
bool
Machine::GetAllCurrAxesNames( STRVECTOR& vAxName) const
Machine::GetAllCurrAxesName( STRVECTOR& vAxName) const
{
vAxName.clear() ;
bool bOk = true ;
@@ -1902,7 +1852,7 @@ Machine::GetCurrAxisToken( int nInd, string& sAxToken) const
//----------------------------------------------------------------------------
bool
Machine::GetAllCurrAxesTokens( STRVECTOR& vAxToken) const
Machine::GetAllCurrAxesToken( STRVECTOR& vAxToken) const
{
vAxToken.clear() ;
bool bOk = true ;
@@ -2073,17 +2023,13 @@ Machine::GetRobotAngles( const Point3d& ptP, const Vector3d& vtDirT, const Vecto
// pulisco il risultato
vAng1.clear() ;
vAng2.clear() ;
// porto i dati nel riferimento robot
Point3d ptPL = GetToLoc( ptP, m_frRobot) ;
Vector3d vtDirTL = GetToLoc( vtDirT, m_frRobot) ;
Vector3d vtDirAL = GetToLoc( vtDirA, m_frRobot) ;
// riferimento utensile
Frame3d frTool ;
frTool.Set( ORIG, vtDirTL, vtDirAL) ;
frTool.Set( ORIG, vtDirT, vtDirA) ;
// deduco la posizione richiesta del centro del polso
Point3d ptCen = ptPL + m_ptWristCen.x * frTool.VersX() +
m_ptWristCen.y * frTool.VersY() +
( m_dCalcTLen + m_ptWristCen.z) * frTool.VersZ() ;
Point3d ptCen = ptP + m_ptWristCen.x * frTool.VersX() +
m_ptWristCen.y * frTool.VersY() +
( m_dCalcTLen + m_ptWristCen.z) * frTool.VersZ() ;
// deduco la direzione richiesta del centro del polso
Vector3d vtCen = m_vtWristRef.x * frTool.VersX() +
m_vtWristRef.y * frTool.VersY() +
@@ -2158,11 +2104,11 @@ Machine::GetRobotAngles( const Point3d& ptP, const Vector3d& vtDirT, const Vecto
for ( int i = 4; i >= 0 ; --i)
vtTool.Rotate( m_vCalcRotAx[i].vtDir, vAng1[i]) ;
double dAng6 ; bool bDet6 ;
if ( ! vtTool.GetRotation( vtDirTL, vtR6, EPS_SMALL, dAng6, bDet6) || ! bDet6) {
if ( ! vtTool.GetRotation( vtDirT, vtR6, EPS_SMALL, dAng6, bDet6) || ! bDet6) {
Vector3d vtAux = m_vtCalcADir ;
for ( int i = 4; i >= 0 ; --i)
vtAux.Rotate( m_vCalcRotAx[i].vtDir, vAng1[i]) ;
if ( ! vtAux.GetRotation( vtDirAL, vtR6, EPS_SMALL, dAng6, bDet6) || ! bDet6) {
if ( ! vtAux.GetRotation( vtDirA, vtR6, EPS_SMALL, dAng6, bDet6) || ! bDet6) {
LOG_ERROR( GetEMkLogger(), "Error : R6 not calculable (robot)")
return false ;
}
+1 -5
View File
@@ -59,7 +59,6 @@ static const string FLD_MAXDELTAR2ON1 = "MaxDeltaR2OnFirst" ;
static const string FLD_ROT2STROKE = "Rot2Stroke" ;
static const string FLD_SOLCH = "SolCh" ;
static const string FLD_OTHCOLL = "OthColl" ;
static const string FLD_COLL = "Coll" ;
//----------------------------------------------------------------------------
Machine* Machine::m_pMchLua = nullptr ;
@@ -453,9 +452,6 @@ Machine::LuaEmtTable( lua_State* L)
// lettura eventuale campo 'Scale' dalla tabella
double vScale[3] = {1.0, 1.0, 1.0} ;
LuaGetTabFieldParam( L, 1, FLD_SCALE, vScale) ;
// lettura eventuale campo 'Coll' dalla tabella
STRVECTOR vsColl ;
LuaGetTabFieldParam( L, 1, FLD_COLL, vsColl) ;
// lettura campo 'Geo' dalla tabella
string sGeo ;
LuaCheckTabFieldParam( L, 1, FLD_GEO, sGeo)
@@ -473,7 +469,7 @@ Machine::LuaEmtTable( lua_State* L)
return luaL_error( L, " Unknown Machine") ;
// carico i dati della tavola
if ( ! m_pMchLua->LoadMachineTable( sName, sParent, nType, Ref1, vScale[0], vScale[1], vScale[2], vsColl, sGeo, vsAux))
if ( ! m_pMchLua->LoadMachineTable( sName, sParent, nType, Ref1, vScale[0], vScale[1], vScale[2], sGeo, vsAux))
return luaL_error( L, " Load Machine Table failed") ;
// restituisco l'indice della tavola
-9
View File
@@ -148,15 +148,6 @@ Machining::PrepareToolPreview( void) const
int nId = m_pGeomDB->CopyGlob( nHeadId, GDB_ID_NULL, nStId) ;
m_pGeomDB->SetMode( nId, GDB_MD_STD) ;
m_pGeomDB->SetStatus( nId, GDB_ST_OFF) ;
// elimino eventuali gruppi opportunamente indicati
int nSubId = m_pGeomDB->GetFirstGroupInGroup( nId) ;
while ( nSubId != GDB_ID_NULL) {
int nNextSubId = m_pGeomDB->GetNextGroup( nSubId) ;
bool bShow = true ;
if ( m_pGeomDB->GetInfo( nSubId, KEY_PREVIEWSHOW, bShow) && ! bShow)
m_pGeomDB->Erase( nSubId) ;
nSubId = nNextSubId ;
}
return ( nId != GDB_ID_NULL) ;
}
+3 -27
View File
@@ -1,7 +1,7 @@
//----------------------------------------------------------------------------
// EgalTech 2015-2024
// EgalTech 2015-2022
//----------------------------------------------------------------------------
// File : MachiningsMgr.cpp Data : 29.03.24 Versione : 2.6d1
// File : MachiningsMgr.cpp Data : 04.02.22 Versione : 2.4b1
// Contenuto : Implementazione gestore database lavorazioni.
//
//
@@ -16,7 +16,6 @@
// 22.06.20 DS Agg. per nuovi parametri attacco tagli di lama (MF_CURR_VER = 1010).
// 09.11.20 DS Agg. per nuovi parametri tagli di lama (MF_CURR_VER = 1011).
// 04.02.22 DS Agg. per nuovi parametri svuotature con epicicli (MF_CURR_VER = 1012).
// 29.03.24 DS Agg. parametro APPROX_LINTOL (MF_CURR_VER = 1013).
//
//----------------------------------------------------------------------------
@@ -43,7 +42,7 @@ const string MF_HEADER = "[HEADER]" ;
const string MF_VERSION = "VERSION" ;
const string MF_TOTAL = "TOTAL" ;
const string MF_SIZE = "SIZE" ;
const int MF_CURR_VER = 1013 ;
const int MF_CURR_VER = 1012 ;
const string MF_GENERAL = "[GENERAL]" ;
const string MF_3AXCOMP = "3AXCOMP" ;
const bool MF_CURR_3AXCOMP = false ;
@@ -65,8 +64,6 @@ const string MF_INTSAWARCMAXSIDEANG = "INTSAWARCMAXSIDEANG" ;
const double MF_CURR_INTSAWARCMAXSIDEANG = 45 ;
const string MF_SPLITARCS = "SPLITARCS" ;
const int MF_CURR_SPLITARCS = SPLAR_NEVER ;
const string MF_APPROX_LINTOL = "APPROX_LINTOL" ;
const double MF_CURR_APPROX_LINTOL = 0.05 ;
const string MF_MAXDEPTHSAFE = "MAXDEPTHSAFE" ;
const double MF_CURR_MAXDEPTHSAFE = 2.0 ;
@@ -88,7 +85,6 @@ MachiningsMgr::MachiningsMgr( void)
m_dExtSawArcMinRad = MF_CURR_EXTSAWARCMINRAD ;
m_dIntSawArcMaxSideAng = MF_CURR_INTSAWARCMAXSIDEANG ;
m_nSplitArcs = MF_CURR_SPLITARCS ;
m_dApproxLinTol = MF_CURR_APPROX_LINTOL ;
m_dMaxDepthSafe = MF_CURR_MAXDEPTHSAFE ;
}
@@ -316,8 +312,6 @@ MachiningsMgr::LoadGeneral( Scanner& TheScanner, bool& bEnd)
bOk = FromString( sVal, m_dIntSawArcMaxSideAng) ;
else if ( ToUpper( sKey) == MF_SPLITARCS)
bOk = FromString( sVal, m_nSplitArcs) ;
else if ( ToUpper( sKey) == MF_APPROX_LINTOL)
bOk = FromString( sVal, m_dApproxLinTol) ;
else if ( ToUpper( sKey) == MF_MAXDEPTHSAFE)
bOk = FromString( sVal, m_dMaxDepthSafe) ;
else
@@ -505,10 +499,6 @@ MachiningsMgr::SaveGeneral( Writer& TheWriter) const
sOut = MF_MAXDEPTHSAFE + "=" + ToString( m_dMaxDepthSafe) ;
bOk = bOk && TheWriter.OutText( sOut) ;
}
if ( m_nDbVer >= 1013) {
sOut = MF_APPROX_LINTOL + "=" + ToString( m_dApproxLinTol) ;
bOk = bOk && TheWriter.OutText( sOut) ;
}
return bOk ;
}
@@ -1185,20 +1175,6 @@ MachiningsMgr::SetSplitArcs( int nFlag)
return true ;
}
//----------------------------------------------------------------------------
bool
MachiningsMgr::SetApproxLinTol( double dLinTol)
{
// verifico non sia inferiore al minimo
dLinTol = max( dLinTol, EPS_SMALL) ;
// se cambiato, salvo e setto modifica
if ( abs( dLinTol - m_dApproxLinTol) > EPS_SMALL) {
m_dApproxLinTol = dLinTol ;
m_bModified = true ;
}
return true ;
}
//----------------------------------------------------------------------------
bool
MachiningsMgr::SetMaxDepthSafe( double dSafe)
+2 -6
View File
@@ -1,7 +1,7 @@
//----------------------------------------------------------------------------
// EgalTech 2015-2024
// EgalTech 2015-2015
//----------------------------------------------------------------------------
// File : MachiningsMgr.h Data : 29.03.24 Versione : 2.6d1
// File : MachiningsMgr.h Data : 02.06.15 Versione : 1.6f1
// Contenuto : Dichiarazione della classe MachiningsMgr.
//
//
@@ -79,9 +79,6 @@ class MachiningsMgr
bool SetSplitArcs( int nFlag) ;
int GetSplitArcs( void) const
{ return m_nSplitArcs ; }
bool SetApproxLinTol( double dLinTol) ;
double GetApproxLinTol( void) const
{ return m_dApproxLinTol ; }
bool SetMaxDepthSafe( double dSafe) ;
double GetMaxDepthSafe( void) const
{ return m_dMaxDepthSafe ; }
@@ -134,6 +131,5 @@ class MachiningsMgr
double m_dExtSawArcMinRad ;
double m_dIntSawArcMaxSideAng ;
int m_nSplitArcs ;
double m_dApproxLinTol ;
double m_dMaxDepthSafe ;
} ;
+522 -644
View File
File diff suppressed because it is too large Load Diff
+8 -13
View File
@@ -85,7 +85,7 @@ class Milling : public Machining
bool AdjustPathDrawForSaw( int nClPathId) ;
bool CalcPathElevation( const ICurveComposite* pCompo, const Vector3d& vtTool, double dDepth, double dRad, double& dElev) const ;
bool VerifyPathFromBottom( const ICurveComposite* pCompo, const Vector3d& vtTool) ;
bool GenerateMillingPv( int nPathId, const ICurveComposite* pCompo, double dRbDist, double dDepth) ;
bool GenerateMillingPv( int nPathId, const ICurveComposite* pCompo) ;
bool AddStandardMilling( const ICurveComposite* pCompo, const Vector3d& vtTool,
double dDepth, double dElev, bool bSplitArcs, bool bPathTabsEnable, bool bPathOscEnable) ;
bool AddZigZagMilling( const ICurveComposite* pCompo, const Vector3d& vtTool, double dDepth, double dElev,
@@ -99,15 +99,14 @@ class Milling : public Machining
bool AddSawOneWayMilling( const ICurveComposite* pCompo, const Vector3d& vtTool,
double dDepth, double dElev, double dOkStep, bool bSplitArcs) ;
bool AddApproach( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ, double dSafeAggrBottZ,
double dElev, double dAppr, bool bOutStart, bool bAboveStart, bool bFirst, bool bSplitArcs) ;
double dElev, double dAppr, bool bOutStart, bool bAboveStart) ;
bool AddSawBladeSideApproach( const Point3d& ptP, const Vector3d& vtAppr, const Vector3d& vtTool,
double dSafeZ, double dSawStElev, double dStElev, double dAppr,
bool bFirst, bool bSplitArcs, bool bAddInsert = false) ;
bool AddDirectApproach( const Point3d& ptP, bool bSplitArcs) ;
double dSafeZ, double dSawStElev, double dStElev, double dAppr) ;
bool AddDirectApproach( const Point3d& ptP) ;
bool AddRetract( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ, double dSafeAggrBottZ,
double dElev, double dAppr, bool bAboveEnd, bool bSplitArcs) ;
double dElev, double dAppr, bool bAboveEnd) ;
bool AddSawBladeSideRetract( const Point3d& ptP, const Vector3d& vtRetr, const Vector3d& vtTool,
double dSafeZ, double dSawEndElev, double dEndElev, double dAppr, bool bAddExtract = false) ;
double dSafeZ, double dSawEndElev, double dEndElev, double dAppr) ;
bool CalcLeadInStart( const Point3d& ptStart, const Vector3d& vtStart, const Vector3d& vtTool,
double dStElev, bool bInvert, const ICurveComposite* pCompo, Point3d& ptP1, Vector3d& vtDir1) const ;
bool AddLeadIn( const Point3d& ptP1, const Point3d& ptStart, const Vector3d& vtStart,
@@ -124,12 +123,10 @@ class Milling : public Machining
bool AddTabsLine( const ICurveLine* pLine, const Vector3d& vtTool, const DBLVECTOR& vdTabs, const TabData& tdTabs) ;
bool AddTabsArc( const ICurveArc* pArc, const Vector3d& vtTool, const DBLVECTOR& vdTabs, const TabData& tdTabs) ;
double GetRadiusForStartEndElevation( bool bExtra = true) const ;
bool GetSimplePointOutOfRaw( const Point3d& ptP, const Vector3d& vtTool, const Vector3d& vtCorr) const ;
bool GetPointOutOfRaw( const Point3d& ptP, const Vector3d& vtTool, const Vector3d& vtCorr, double dElev, double dSafeZ) const ;
bool GetPointAboveRaw( const Point3d& ptP, const Vector3d& vtTool) const ;
bool GetPointBelowRaw( const Point3d& ptP, const Vector3d& vtTool) const ;
bool CalcAndSetCorrAuxDir( const ICurveComposite* pCompo, double dU, bool bInvertSide = false, bool bSawSpecial = false) ;
Vector3d CalcCorrDir( const ICurveComposite* pCompo, double dU, bool bInvertSide = false, bool bSawSpecial = false) ;
bool CalcAndSetCorrAuxDir( const ICurveComposite* pCompo, double dU, bool bInvertSide = false) ;
Vector3d CalcCorrDir( const ICurveComposite* pCompo, double dU, bool bInvertSide = false) ;
bool CalcOffset( ICurveComposite* pCompo, double dSignOffs) ;
bool TrimExtendCurveToClosedStm( ICurveComposite* pCompo, int nCstmId, bool bInvert) ;
@@ -187,6 +184,4 @@ class Milling : public Machining
double m_dCurrTabsLen ; // lunghezza corrente lungo il percorso per tabs
bool m_bStartOutRaw ; // flag forzatura inizio fuori dal grezzo
bool m_bEndOutRaw ; // flag forzatura fine fuori dal grezzo
Vector3d m_vtStartDir ; // direzione iniziale del percorso in elaborazione
Vector3d m_vtEndDir ; // direzione finale del percorso in elaborazione
} ;
+1 -1
View File
@@ -1570,7 +1570,7 @@ Mortising::GenerateOnePlungeCl( const Point3d& ptStart, const Point3d& ptEnd, co
int nFirstFlag = ( bFirst ? 1 : 0) ;
SetFlag( nFirstFlag) ;
Point3d ptP1 = ( nPlunge != MORTISE_PLUNGE_END ? ptStart : ptEnd) + vtTool * ( dDelta + dStartElev + dSafeZ) ;
int nStart = AddRapidStartOrMove( ptP1, bFirst) ;
int nStart = ( bFirst ? AddRapidStart( ptP1) : AddRapidMove( ptP1)) ;
if ( nStart == GDB_ID_NULL)
return false ;
SetFlag( 0) ;
+331 -122
View File
@@ -22,6 +22,7 @@
#include "/EgtDev/Include/EGkAngle.h"
#include "/EgtDev/Include/EGkBBox1d.h"
#include "/EgtDev/Include/EGkGeoPoint3d.h"
#include "/EgtDev/Include/EGkGeoVector3d.h"
#include "/EgtDev/Include/EGkCurveLine.h"
#include "/EgtDev/Include/EGkCurveArc.h"
#include "/EgtDev/Include/EGkArcSpecial.h"
@@ -37,12 +38,13 @@
#include "/EgtDev/Include/EXeConst.h"
#include "/EgtDev/Include/EgtNumUtils.h"
#include "/EgtDev/Include/EgtPointerOwner.h"
#include "/EgtDev/Include/EGkDistPointSurfTm.h"
using namespace std ;
//----------------------------------------------------------------------------
const double MAX_DIST_RAW = 200.0 ;
const double MAX_ROBOT_G0_LEN = 299.0 ;
const double MAX_ROBOT_G0_LEN = 300.0 ;
//----------------------------------------------------------------------------
bool
@@ -564,6 +566,269 @@ Operation::GetAhPointUnderRaw( const Point3d& ptP, const Vector3d& vtTool, doubl
return false ;
}
//----------------------------------------------------------------------------
bool IsPointOnBox( BBox3d BBox, Point3d pt) {
if ( BBox.IsEmpty())
return false ;
int nCheck = 0 ;
if (( pt.x - BBox.GetMin().x) < EPS_SMALL)
++ nCheck ;
if (( pt.y - BBox.GetMin().y) < EPS_SMALL)
++ nCheck ;
if (( pt.z - BBox.GetMin().z) < EPS_SMALL)
++ nCheck ;
if (( pt.x - BBox.GetMax().x) < EPS_SMALL)
++ nCheck ;
if (( pt.y - BBox.GetMax().y) < EPS_SMALL)
++ nCheck ;
if (( pt.z - BBox.GetMax().z) < EPS_SMALL)
++ nCheck ;
if ( nCheck >= 2)
return true ;
return false ;
}
//----------------------------------------------------------------------------
bool
Operation::GetSignedDistFromStmRaw( int nPhase, const Point3d ptP, const Vector3d vtDir,
double& dDist, Vector3d& vtNorm) const
{
// controllo MachManager e database geometrico
if ( m_pMchMgr == nullptr || m_pGeomDB == nullptr)
return false ;
// la distanza negativa se il punto interno, positiva se esterno, 0 se sulla suprificie
const double RAY_LEN = 100000 ;
bool bIsInside = false ; // se punto interno ad un RawPart
bool bIsPointOn = false ; // se il punto stato trovato su una faccia
bool bIsOnLoop = false ; // se il punto su un loop
bool bIsOnBox = false ; // se il punto su un Box3D
bool bSkip = false ; // se salto controlli sui bordi
// vettore dei grezzi
ISURFTMPOVECTOR vSrfRawPart ;
int nRawId = m_pMchMgr->GetFirstRawPart() ;
while( nRawId != GDB_ID_NULL) {
// verifico che il grezzo compaia nella fase
if ( m_pMchMgr->VerifyRawPartPhase( nRawId, nPhase)) {
// recupero l'oggetto dal database con tale Id
int nRawSolidId = m_pGeomDB->GetFirstNameInGroup( nRawId, MACH_RAW_SOLID) ;
const IGeoObj* pGObj = m_pGeomDB->GetGeoObj( nRawSolidId) ;
// recupero il frame in cui si trova
Frame3d frRaw ;
m_pGeomDB->GetGlobFrame( nRawSolidId, frRaw) ;
if ( pGObj == nullptr)
return false ;
// controllo che sia una Trimesh
if ( pGObj->GetType() == SRF_TRIMESH) {
// Trimesh della parte p-esima
PtrOwner<ISurfTriMesh> pStmRawPart( CloneSurfTriMesh( GetSurfTriMesh( pGObj))) ;
if ( IsNull( pStmRawPart))
return false ;
// porto la trimesh in globale
pStmRawPart->ToGlob( frRaw) ;
// salvo la superificie
vSrfRawPart.emplace_back( pStmRawPart->Clone()) ;
// distanza dalla parte p-esima
double dCurrDist = 0 ;
// recupero la distanza tra il punto e la parte p-esima
DistPointSurfTm distPtStm( ptP, *pStmRawPart) ;
if ( ! distPtStm.GetDist( dCurrDist))
return false ;
// controllo se il punto dentro al grezzo
if ( distPtStm.IsPointInside()) {
bIsInside = true ;
bSkip = true ;
}
if ( dCurrDist < EPS_SMALL && !bSkip) {
// controllo se sono su un Loop
POLYLINEVECTOR vP ;
bool bIsCurrOnLoop = false ;
for ( int i = 0 ; i < pStmRawPart->GetFacetCount() ; ++ i) {
pStmRawPart->GetFacetLoops( i, vP) ;
for ( int j = 0 ; j < ( int)vP.size() && !bIsCurrOnLoop ; ++ j) {
PtrOwner<ICurveComposite> pCrvEdge( CreateCurveComposite()) ;
if ( IsNull( pCrvEdge))
return false ;
pCrvEdge->FromPolyLine( vP[j]) ;
if ( !pCrvEdge->IsValid() || pCrvEdge->GetCurveCount() == 0)
return false ;
if ( pCrvEdge->IsPointOn( ptP))
bIsCurrOnLoop = true ;
}
}
// se il punto sta sulla curva...
if ( bIsCurrOnLoop) {
if ( bIsOnLoop) { // se ho gi trovato una curva che contiene il punto ...
BBox3d bCurrBox ;
if ( ! pStmRawPart->GetBBox( GLOB_FRM, bCurrBox))
return false ;
if ( IsPointOnBox( bCurrBox, ptP)) { // se il punto sta sul Box
if ( bIsOnBox) { // se il punto stava gi su un altro Box
bIsInside = false ;
bSkip = true ;
}
else // se il punto non stava gi su un box
bIsInside = true ;
bSkip = true ;
}
else // se il punto non sta sul box
bIsInside = true ;
}
else { // se la prima curva a contenere il punto
bIsPointOn = true ;
// controllo se il punto sta sulla faccia del box del grezzo corrente
BBox3d bCurrBox ;
if ( ! pStmRawPart->GetBBox( GLOB_FRM, bCurrBox))
return false ;
// controllo se il punto sta su una faccia del box
if ( IsPointOnBox( bCurrBox, ptP))
bIsOnBox = true ;
}
}
// se il punto non sta sulla curva ...
else {
if ( bIsPointOn) {
bIsInside = true ;
bSkip = true ;
}
else
bIsPointOn = true ;
}
}
}
}
// passo al grezzo successivo
nRawId = m_pMchMgr->GetNextRawPart( nRawId) ;
}
if ( bSkip) {
bIsPointOn = false ;
bIsOnLoop = false ;
bIsOnBox = false ;
}
double dCurrDist = bIsInside ? -INFINITO : INFINITO ; // distanza attuale
dDist = dCurrDist ;
double dTmpCurrDist = 0 ;
for ( int i = 0 ; i < int( vSrfRawPart.size()) ; ++ i) {
ILSIVECTOR vInfo ; // info
Triangle3d Tria ; // triangolo della trimesh intersecato
// recupero la distanza tra il punto e la parte p-esima
if ( IntersLineSurfTm( ptP, vtDir, RAY_LEN, *vSrfRawPart[i], vInfo)) {
if ( vInfo.empty())
continue ;
DistPointSurfTm distPtStm( ptP, *vSrfRawPart[i]) ;
if( ! distPtStm.GetDist( dTmpCurrDist))
return false ;
if (( bIsPointOn && !bIsInside)) { // punto sulla superificie totale dei grezzi
// se il grezzo quello giusto ...
if ( dTmpCurrDist < EPS_SMALL) {
dDist = 0 ;
vSrfRawPart[i]->GetTriangle( vInfo[0].nT, Tria) ;
vtNorm = Tria.GetN() ;
return true ;
}
else { // se sono su un altro ... ( prima o poi ritorno al controllo sopra ...)
}
}
else if (( int)vInfo.size() == 1 && bIsInside) {
if ( distPtStm.IsPointInside() || dTmpCurrDist < EPS_SMALL) {
// se punto interno alla grezzo corrente
double dUCurr = vInfo[0].dU ;
// se direzione || ad una faccia faccia, ma punto non interno al grezzo corrente
if ( vInfo[0].nILTT == ILTT_SEGM || vInfo[0].nILTT == ILTT_EDGE)
double dUCurr = - vInfo[0].dU2 ;
if ( dUCurr > dCurrDist) {
dCurrDist = dUCurr ;
vSrfRawPart[i]->GetTriangle( vInfo[0].nT, Tria) ;
vtNorm = Tria.GetN() ;
}
}
else { // se interno ma non al grezzo corrente ( prima o poi ritono al controllo sopra )
}
}
else if (( int)vInfo.size() > 1) { // se la linea trapassa il grezzo corrente (entra ed esce)...
if ( bIsInside) { // e il punto interno ( quindi non al grezzo corrente )
double dUCurr = 0 ;
int nT ;
for ( int j = 0 ; j < ( int)vInfo.size() ; ++ j) {
IntLinStmInfo Info = vInfo[j] ;
if ( Info.nILTT == ILTT_SEGM || Info.nILTT == ILTT_SEGM_ON_EDGE) {
// se prosegue un tratto precedente, non devo controllare sia minimo
dUCurr = Info.dU2 ;
nT = Info.nT ;
//break ; ???????
}
// se altrimenti intersezione puntuale, verifico che esca (coseno >= 0)
else if ( Info.dCosDN > - COS_ORTO_ANG_ZERO) {
dUCurr = Info.dU ;
nT = Info.nT ;
break ;
}
// se altrimenti la prima ed entra ( non la considero ...)
else {
}
}
if ( dUCurr > dCurrDist) { // tengo la distanza pi grande
dCurrDist = dUCurr ;
vSrfRawPart[i]->GetTriangle( nT, Tria) ;
vtNorm = Tria.GetN() ;
}
}
else { // se invece un punto esterno a tutto
if ( vInfo[0].dU < dCurrDist) { // tengo la distanza ( positiva) pi grande
dCurrDist = vInfo[0].dU ;
vSrfRawPart[i]->GetTriangle( vInfo[0].nT, Tria) ;
vtNorm = Tria.GetN() ;
}
}
}
}
}
if ( dCurrDist > INFINITO - 1 && ! bIsInside) // non ho intersecato mai nessun grezzo
dDist = INFINITO ;
if ( dCurrDist < -INFINITO + 1 && bIsInside) // sono interno ma non interseco un grezzo ... errore
return false ;
dDist = bIsInside ? - dCurrDist : dCurrDist ;
return true ;
}
//----------------------------------------------------------------------------
bool
Operation::GetUhPointAboveRaw( const Point3d& ptP, const Vector3d& vtTool, double dToolRad, double dToolRadForElev,
@@ -824,13 +1089,25 @@ Operation::GetDistanceFromRawBottom( int nPhase, int nPathId, double dToler, dou
{
if ( m_pMchMgr == nullptr || m_pGeomDB == nullptr)
return false ;
// recupero distanza da fondo dei grezzi interessati o no dal percorso
dRbDist = 0 ;
dAllRbDist = 0 ;
// ricerco grezzi interessati dal percorso
BBox3d b3Compo ;
if ( ! m_pGeomDB->GetGlobalBBox( nPathId, b3Compo))
return false ;
b3Compo.Expand( dToler, dToler, 0) ;
return GetDistanceFromRawBottom( nPhase, b3Compo, dToler, dRbDist, dAllRbDist) ;
}
//----------------------------------------------------------------------------
bool
Operation::GetDistanceFromRawBottom( int nPhase, BBox3d& b3Test, double dToler, double& dRbDist, double& dAllRbDist) const
{
if ( m_pMchMgr == nullptr || m_pGeomDB == nullptr)
return false ;
// recupero distanza da fondo dei grezzi interessati o no dal percorso
dRbDist = 0 ;
dAllRbDist = 0 ;
b3Test.Expand( dToler, dToler, 0) ;
int nRawId = m_pMchMgr->GetFirstRawPart() ;
while ( nRawId != GDB_ID_NULL) {
// verifico che il grezzo compaia nella fase
@@ -838,8 +1115,8 @@ Operation::GetDistanceFromRawBottom( int nPhase, int nPathId, double dToler, dou
BBox3d b3Raw ;
int nRawSolidId = m_pGeomDB->GetFirstNameInGroup( nRawId, MACH_RAW_SOLID) ;
if ( m_pGeomDB->GetGlobalBBox( nRawSolidId, b3Raw)) {
double dDist = b3Compo.GetMax().z - b3Raw.GetMin().z ;
if ( b3Compo.OverlapsXY( b3Raw) && dDist > dRbDist)
double dDist = b3Test.GetMax().z - b3Raw.GetMin().z ;
if ( b3Test.OverlapsXY( b3Raw) && dDist > dRbDist)
dRbDist = dDist ;
if ( dDist > dAllRbDist)
dAllRbDist = dDist ;
@@ -1142,6 +1419,9 @@ Operation::ApproxWithArcsIfUseful( ICurveComposite* pCompo, bool bCareTempProp)
pCompo->GetExtrusion( vtExtr) ;
double dThick = 0 ;
pCompo->GetThickness( dThick) ;
// recupero le proprietà temporanee
int nProp0 = pCompo->GetTempProp( 0) ;
int nProp1 = pCompo->GetTempProp( 1) ;
// verifico se ci sono tante linee corte
int nSmallLineCnt = 0 ;
const ICurve* pCrv = pCompo->GetFirstCurve() ;
@@ -1237,12 +1517,16 @@ Operation::ApproxWithArcsIfUseful( ICurveComposite* pCompo, bool bCareTempProp)
pCompo->SetExtrusion( vtExtr) ;
pCompo->SetThickness( dThick) ;
// riassegno le proprietà temporanee
pCompo->SetTempProp( nProp0, 0) ;
pCompo->SetTempProp( nProp1, 1) ;
return true ;
}
//----------------------------------------------------------------------------
bool
Operation::ApproxWithLines( ICurveComposite* pCompo, bool bFeed) const
Operation::ApproxWithLines( ICurveComposite* pCompo, double dMaxLen) const
{
// recupero estrusione e spessore
Vector3d vtExtr = Z_AX ;
@@ -1251,12 +1535,10 @@ Operation::ApproxWithLines( ICurveComposite* pCompo, bool bFeed) const
pCompo->GetThickness( dThick) ;
// calcolo approssimazione lineare
PolyLine PL ;
double dLinTol = GetApproxLinTol() ;
if ( ! pCompo->ApproxWithLines( dLinTol, ANG_TOL_MID_DEG, ICurve::APL_SPECIAL, PL))
if ( ! pCompo->ApproxWithLines( 50 * EPS_SMALL, ANG_TOL_MAX_DEG, ICurve::APL_SPECIAL, PL))
return false ;
// se prevista massima lunghezza
double dMaxLen = GetMaxSplitLen( true, bFeed) ;
if ( dMaxLen > 99 * EPS_SMALL)
if ( dMaxLen > 100 * EPS_SMALL)
PL.AdjustForMaxSegmentLen( dMaxLen) ;
// sostituisco le linee alle curve originali
pCompo->Clear() ;
@@ -2283,45 +2565,21 @@ Operation::CalculateClPathRobotAxesValues( int nClPathId, int nLinAxes, int nRot
pCamData->SetAxes( CamData::AS_ERR, vAxVal) ;
return false ;
}
// se inizio
// se inizio, scelgo la prima soluzione
if ( bFirst) {
// porto gli angoli ai valori più vicini ai precedenti con offset di uno o più giri
for ( int i = 0 ; i < int( vAng1.size()) ; ++ i) {
m_pMchMgr->GetNearestAngleInStroke( i, vAxRotPrec[i], vAng1[i]) ;
if ( abs( vAng1[i] - vAxRotPrec[i]) > dAngDeltaMinForHome)
m_pMchMgr->GetNearestAngleInStroke( i, vAxRotHome[i], vAng1[i]) ;
}
for ( int i = 0 ; i < int( vAng2.size()) ; ++ i) {
m_pMchMgr->GetNearestAngleInStroke( i, vAxRotPrec[i], vAng2[i]) ;
if ( abs( vAng2[i] - vAxRotPrec[i]) > dAngDeltaMinForHome)
m_pMchMgr->GetNearestAngleInStroke( i, vAxRotHome[i], vAng2[i]) ;
}
vAxVal = vAng1 ;
bFirst = false ;
}
// altrimenti movimenti successivi
// altrimenti, scelgo la soluzione più vicina
else {
// porto gli angoli ai valori più vicini ai precedenti con offset di uno o più giri
for ( int i = 0 ; i < int( vAng1.size()) ; ++ i) {
if ( bRotContOnNext)
vAng1[i] = AngleNearAngle( vAng1[i], vAxRotPrec[i]) ;
else
m_pMchMgr->GetNearestAngleInStroke( i, vAxRotPrec[i], vAng1[i]) ;
}
for ( int i = 0 ; i < int( vAng2.size()) ; ++ i) {
if ( bRotContOnNext)
vAng2[i] = AngleNearAngle( vAng2[i], vAxRotPrec[i]) ;
else
m_pMchMgr->GetNearestAngleInStroke( i, vAxRotPrec[i], vAng2[i]) ;
}
// minimizzo rotazione polso
if ( abs( vAng1[3] - vAxRotPrec[3]) < abs( vAng2[3] - vAxRotPrec[3]) + 10 * EPS_ANG_SMALL)
vAxVal = vAng1 ;
else
vAxVal = vAng2 ;
// controllo continuità di R6 dalla posizione precedente
m_pMchMgr->GetNearestAngleInStroke( 5, vAxRotPrec[5], vAxVal[5]) ;
}
// Scelgo la soluzione più vicina
// minimizzo rotazione polso
if ( vAng2.empty() || abs( vAng1[3] - vAxRotPrec[3]) < abs( vAng2[3] - vAxRotPrec[3]) + 10 * EPS_ANG_SMALL)
vAxVal = vAng1 ;
else
vAxVal = vAng2 ;
// controllo continuità di R6 dalla posizione precedente
m_pMchMgr->GetNearestAngleInStroke( 5, vAxRotPrec[5], vAxVal[5]) ;
// verifico di essere nelle corse degli assi
int nStat ;
bool bOsOk = m_pMchMgr->VerifyOutstroke( 0, 0, 0, vAxVal, false, nStat) ;
@@ -2983,7 +3241,7 @@ Operation::AdjustOneStartMovement( int nClPathId, int nPrevClPathId, Operation*
// elimino eventuali risalite finali
if ( pPrevOp == nullptr || ! pPrevOp->RemoveRise())
return false ;
// aggiungo risalita a Z max alla fine della lavorazione precedente
// aggiungo risalita a Z max alla fine del percorso precedente
DBLVECTOR vAxNew = vAxPrev ;
if ( ! pPrevOp->AddRise( vAxNew))
return false ;
@@ -2991,14 +3249,11 @@ Operation::AdjustOneStartMovement( int nClPathId, int nPrevClPathId, Operation*
// altrimenti precedente appartiene alla stessa operazione
else {
// eventuali risalite finali già eliminate dal chiamante
// aggiungo risalita a Z max alla fine del percorso precedente
// aggiungo risalita a Z opportuna alla fine del percorso precedente
DBLVECTOR vAxNew = vAxPrev ;
if ( ! AddRise( vAxNew, -1, nPrevClPathId))
return false ;
}
// inserisco la posizione iniziale a Zmax in questo percorso
if ( ! AddRobotClimb( nEntId, -1))
return false ;
}
}
}
@@ -3464,23 +3719,18 @@ Operation::CalcRobotAxesAbovePos( const Point3d& ptP, const Vector3d& vtT, const
if ( vAx.size() < 6) {
vAx = vAng1 ;
}
// altrimenti, scelgo la soluzione più vicina
else {
// porto gli angoli ai valori più vicini ai precedenti con offset di uno o più giri
for ( int i = 0 ; i < int( vAng1.size()) ; ++ i)
m_pMchMgr->GetNearestAngleInStroke( i, vAx[i], vAng1[i]) ;
for ( int i = 0 ; i < int( vAng2.size()) ; ++ i)
m_pMchMgr->GetNearestAngleInStroke( i, vAx[i], vAng2[i]) ;
// salvo precedente R6
double dPrevR6 = vAx[5] ;
// minimizzo rotazione polso
if ( vAng2.empty() || abs( vAng1[3] - vAx[3]) < abs( vAng2[3] - vAx[3]) + 10 * EPS_ANG_SMALL)
vAx = vAng1 ;
else
vAx = vAng2 ;
// controllo continuità di R6 dalla posizione precedente
m_pMchMgr->GetNearestAngleInStroke( 5, dPrevR6, vAx[5]) ;
}
// altrimenti, scelgo la soluzione più vicina
else {
// salvo precedente R6
double dPrevR6 = vAx[5] ;
// minimizzo rotazione polso
if ( abs( vAng1[3] - vAx[3]) < abs( vAng2[3] - vAx[3]) + 10 * EPS_ANG_SMALL)
vAx = vAng1 ;
else
vAx = vAng2 ;
// controllo continuità di R6 dalla posizione precedente
m_pMchMgr->GetNearestAngleInStroke( 5, dPrevR6, vAx[5]) ;
}
// verifico di essere nelle corse degli assi
int nStat ;
if ( ! m_pMchMgr->VerifyOutstroke( 0, 0, 0, vAx, false, nStat) || nStat != 0)
@@ -3652,11 +3902,10 @@ Operation::SpecialGetMaxZ( const DBLVECTOR& vAx1, const Vector3d& vtTool1,
bOk = bOk && pMch->LuaSetGlobVar( EMC_VAR + GVAR_TCPOS, GetToolTcPos()) ;
bOk = bOk && pMch->LuaSetGlobVar( EMC_VAR + GVAR_MCHID, GetOwner()) ;
// valori degli assi
bool bIsRobot = m_pMchMgr->GetCurrIsRobot() ;
for ( int i = 1 ; i <= nNumAx1 ; ++ i)
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisPrev( i, EMC_VAR, bIsRobot), vAx1[i-1]) ;
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisPrev( i, EMC_VAR), vAx1[i-1]) ;
for ( int i = 1 ; i <= nNumAx2 ; ++ i)
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisValue( i, EMC_VAR, bIsRobot), vAx2[i-1]) ;
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisValue( i, EMC_VAR), vAx2[i-1]) ;
// direzioni utensile
bOk = bOk && pMch->LuaSetGlobVar( EMC_VAR + GVAR_TDIRP, vtTool1) ;
bOk = bOk && pMch->LuaSetGlobVar( EMC_VAR + GVAR_TDIR, vtTool2) ;
@@ -3789,7 +4038,7 @@ Operation::TestCollisionAvoid( const DBLVECTOR& vAxStart, const DBLVECTOR& vAxEn
return false ;
// Recupero assi correnti e ne verifico la costanza
STRVECTOR vAxName ;
pMch->GetAllCurrAxesNames( vAxName) ;
pMch->GetAllCurrAxesName( vAxName) ;
if ( vAxName.size() != vAxStart.size() || vAxName.size() != vAxEnd.size())
return false ;
// Porto la macchina in home
@@ -3815,12 +4064,9 @@ Operation::TestCollisionAvoid( const DBLVECTOR& vAxStart, const DBLVECTOR& vAxEn
// Aggancio bloccaggi alla tavola corrente
for ( const auto nFxtId : vFxtId)
pMch->LinkFixtureToGroup( nFxtId, sTable) ;
// Parti di tavola da considerare per la collisione
INTVECTOR vTabCollId ;
pMch->GetCurrTableCollGroups( vTabCollId) ;
// Parti di testa e collegati da considerare per la collisione
INTVECTOR vHeadCollId ;
pMch->GetCurrHeadCollGroups( vHeadCollId) ;
INTVECTOR vCollId ;
pMch->GetCurrHeadCollGroups( vCollId) ;
// Lancio la verifica custom
int nRes = SpecialTestCollisionAvoid( vAxStart, vAxEnd) ;
@@ -3857,7 +4103,7 @@ Operation::TestCollisionAvoid( const DBLVECTOR& vAxStart, const DBLVECTOR& vAxEn
// Determino sottobox e box della testa e degli altri oggetti da considerare per la collisione
BOXIVECTOR vbiSH ;
BBox3d b3Head ;
for ( int nCId : vHeadCollId) {
for ( int nCId : vCollId) {
int nHId = m_pGeomDB->GetFirstInGroup( nCId) ;
while ( nHId != GDB_ID_NULL) {
BBox3d b3Tmp ;
@@ -3949,40 +4195,6 @@ Operation::TestCollisionAvoid( const DBLVECTOR& vAxStart, const DBLVECTOR& vAxEn
if ( ExeGetDebugLevel() >= 5) {
LOG_DBG_INFO( GetEMkLogger(), ( bCollide ? " COLLIDE" : " avoid")) ;
}
// Se non trovata collisione, li confronto con oggetti da verificare della tavola
if ( ! bCollide) {
for ( const auto nTabCollId : vTabCollId) {
// verifico i box
BBox3d b3TabColl ;
int nFlag = BBF_ONLY_VISIBLE | BBF_IGNORE_TEXT | BBF_IGNORE_DIM ;
m_pGeomDB->GetGlobalBBox( nTabCollId, b3TabColl, nFlag) ;
// eventuale emissione Log
if ( ExeGetDebugLevel() >= 5) {
string sBox = " TabColl : " + ( b3TabColl.IsEmpty() ? string( "Empty Box") : ToString( b3TabColl, 1)) ;
LOG_DBG_INFO( GetEMkLogger(), sBox.c_str()) ;
}
// se i box interferiscono
if ( ! b3TabColl.IsEmpty() && b3Head.Overlaps( b3TabColl)) {
// eventuale emissione Log
if ( ExeGetDebugLevel() >= 5) {
LOG_DBG_INFO( GetEMkLogger(), " Can collide -->") ;
}
// verifico i sottobox
for ( const auto& biSH : vbiSH) {
if ( biSH.first.Overlaps( b3TabColl)) {
bCollide = true ;
break ;
}
}
if ( bCollide)
break ;
}
}
// eventuale emissione Log
if ( ExeGetDebugLevel() >= 5) {
LOG_DBG_INFO( GetEMkLogger(), ( bCollide ? " COLLIDE" : " avoid")) ;
}
}
// Se non trovata collisione, li confronto con i bloccaggi
if ( ! bCollide) {
for ( const auto nFxtId : vFxtId) {
@@ -4056,11 +4268,10 @@ Operation::SpecialTestCollisionAvoid( const DBLVECTOR& vAxStart, const DBLVECTOR
bOk = bOk && pMch->LuaSetGlobVar( EMC_VAR + GVAR_TCPOS, GetToolTcPos()) ;
bOk = bOk && pMch->LuaSetGlobVar( EMC_VAR + GVAR_MCHID, GetOwner()) ;
// valori degli assi
bool bIsRobot = m_pMchMgr->GetCurrIsRobot() ;
for ( int i = 1 ; i <= int( vAxStart.size()) ; ++ i)
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisPrev( i, EMC_VAR, bIsRobot), vAxStart[i-1]) ;
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisPrev( i, EMC_VAR), vAxStart[i-1]) ;
for ( int i = 1 ; i <= int( vAxEnd.size()) ; ++ i)
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisValue( i, EMC_VAR, bIsRobot), vAxEnd[i-1]) ;
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisValue( i, EMC_VAR), vAxEnd[i-1]) ;
// eseguo
bOk = bOk && pMch->LuaCallFunction( ON_SPECIAL_TESTCOLLISIONAVOID, false) ;
// recupero valori parametri obbligatori
@@ -4107,10 +4318,9 @@ Operation::SpecialMoveZup( DBLVECTOR& vAx, Vector3d& vtTool, int& nFlag, int& nF
// direzione utensile
bOk = bOk && pMch->LuaSetGlobVar( EMC_VAR + GVAR_TDIR, vtTool) ;
// valore degli assi
bool bIsRobot = m_pMchMgr->GetCurrIsRobot() ;
int nNumAxes = int( vAx.size()) ;
for ( int i = 1 ; i <= nNumAxes ; ++ i)
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisValue( i, EMC_VAR, bIsRobot), vAx[i-1]) ;
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisValue( i, EMC_VAR), vAx[i-1]) ;
// eseguo
bOk = bOk && pMch->LuaCallFunction( ON_SPECIAL_MOVEZUP, false) ;
// recupero valori parametri obbligatori
@@ -4120,7 +4330,7 @@ Operation::SpecialMoveZup( DBLVECTOR& vAx, Vector3d& vtTool, int& nFlag, int& nF
bOk = bOk && pMch->LuaGetGlobVar( EMC_VAR + GVAR_FLAG2, nFlag2) ;
bOk = bOk && pMch->LuaGetGlobVar( EMC_VAR + GVAR_TDIR, vtTool) ;
for ( int i = 1 ; i <= nNumAxes ; ++ i)
bOk = bOk && pMch->LuaGetGlobVar( GetGlobVarAxisValue( i, EMC_VAR, bIsRobot), vAx[i-1]) ;
bOk = bOk && pMch->LuaGetGlobVar( GetGlobVarAxisValue( i, EMC_VAR), vAx[i-1]) ;
// reset
bOk = bOk && pMch->LuaResetGlobVar( EMC_VAR) ;
// segnalo errori
@@ -4162,12 +4372,11 @@ Operation::SpecialMoveRapid( const DBLVECTOR& vAxStart, const DBLVECTOR& vAxEnd,
bOk = bOk && pMch->LuaSetGlobVar( EMC_VAR + GVAR_EXIT, GetExitNbr()) ;
bOk = bOk && pMch->LuaSetGlobVar( EMC_VAR + GVAR_TCPOS, GetToolTcPos()) ;
// valore degli assi
bool bIsRobot = m_pMchMgr->GetCurrIsRobot() ;
int nNumAxes = int( vAxStart.size()) ;
for ( int i = 1 ; i <= nNumAxes ; ++ i)
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisPrev( i, EMC_VAR, bIsRobot), vAxStart[i-1]) ;
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisPrev( i, EMC_VAR), vAxStart[i-1]) ;
for ( int i = 1 ; i <= nNumAxes ; ++ i)
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisValue( i, EMC_VAR, bIsRobot), vAxEnd[i-1]) ;
bOk = bOk && pMch->LuaSetGlobVar( GetGlobVarAxisValue( i, EMC_VAR), vAxEnd[i-1]) ;
// eseguo
bOk = bOk && pMch->LuaCallFunction( ON_SPECIAL_MOVERAPID, false) ;
// recupero valori parametri obbligatori
@@ -4175,7 +4384,7 @@ Operation::SpecialMoveRapid( const DBLVECTOR& vAxStart, const DBLVECTOR& vAxEnd,
bOk = bOk && pMch->LuaGetGlobVar( EMC_VAR + EVAR_MODIF, bModif) ;
vAxNew.resize( nNumAxes) ;
for ( int i = 1 ; i <= nNumAxes ; ++ i)
bOk = bOk && pMch->LuaGetGlobVar( GetGlobVarAxisValue( i, EMC_VAR, bIsRobot), vAxNew[i-1]) ;
bOk = bOk && pMch->LuaGetGlobVar( GetGlobVarAxisValue( i, EMC_VAR), vAxNew[i-1]) ;
// reset
bOk = bOk && pMch->LuaResetGlobVar( EMC_VAR) ;
// segnalo errori
+9 -34
View File
@@ -14,14 +14,15 @@
#pragma once
#include "MachMgr.h"
#include "MachConst.h"
#include "MachineStruConst.h"
#include "/EgtDev/Include/EGkPoint3d.h"
#include "/EgtDev/Include/EGkUserObj.h"
#include "/EgtDev/Include/EGkSelection.h"
#include "/EgtDev/Include/EgtNumCollection.h"
#include "/EgtDev/Include/EGkStmStandard.h"
class MachMgr ;
class CamData ;
class ICurve ;
class ICurveComposite ;
@@ -43,7 +44,7 @@ class Operation : public IUserObj
virtual int GetPhase( void) const
{ return m_nPhase ; }
virtual bool RemoveHome( void) ;
std::string GetName( void) const ;
std::string GetName( void) const ;
public :
virtual int GetType( void) const = 0 ;
@@ -61,21 +62,6 @@ class Operation : public IUserObj
{ return true ; }
virtual bool AdjustArcCenterForAxesCalc( const CamData* pCamData, Point3d& ptCen) const
{ return true ; }
virtual bool NeedSplit( bool bSplit = true, bool bFeed = true) const
{ return ( bSplit && ( m_pMchMgr == nullptr || m_pMchMgr->GetCurrIsRobot())) ; }
virtual double GetMaxSplitLen( bool bSplit = true, bool bFeed = true) const
{ return ( bSplit && ( m_pMchMgr == nullptr || m_pMchMgr->GetCurrIsRobot()) ? ( bFeed ? 5 : 50) : 0) ; }
virtual bool GetSplitArcs( const Vector3d& vtTool) const
{ if ( m_pMchMgr == nullptr || m_pMchMgr->GetCurrIsRobot())
return true ;
int nSplitArcs = m_pMchMgr->GetCurrMachiningsMgr()->GetSplitArcs() ;
return ( nSplitArcs == SPLAR_ALWAYS ||
( nSplitArcs == SPLAR_NO_XY_PLANE && ! vtTool.IsZplus()) ||
( nSplitArcs == SPLAR_GEN_PLANE && vtTool.IsGeneric())) ; }
virtual double GetApproxLinTol( void) const
{ if ( m_pMchMgr == nullptr)
return 50 * EPS_SMALL ;
return m_pMchMgr->GetCurrMachiningsMgr()->GetApproxLinTol() ; }
protected :
Operation( void) ;
@@ -104,6 +90,8 @@ class Operation : public IUserObj
double dToolLen, bool bIsSaw, double dSafeZ, const Vector3d& vtDir, double& dElev) const ;
bool GetUhPointAboveRaw( const Point3d& ptP, const Vector3d& vtTool, double dToolRad, double dToolRadForElev,
double dToolLen, bool bIsSaw, double dSafeZ, const Vector3d& vtDir, double& dElev) const ;
bool GetSignedDistFromStmRaw( int nPhase, const Point3d ptP, const Vector3d vtDir,
double& dDist, Vector3d& vtNorm) const ;
bool GetDistanceFromRawSide( int nPhase, const Point3d& ptP, const Vector3d& vtDir, double& dDist) const ;
bool GetMinDistanceFromRawSide( int nPhase, const Point3d& ptP, double dExpand,
double& dDist, Vector3d& vtDir) const ;
@@ -114,13 +102,14 @@ class Operation : public IUserObj
{ double dDummy ;
return GetDistanceFromRawBottom( nPhase, nPathId, dToler, dRbDist, dDummy) ; }
bool GetDistanceFromRawBottom( int nPhase, int nPathId, double dToler, double& dRbDist, double& dAllRbDist) const ;
bool GetDistanceFromRawBottom( int nPhase, BBox3d& b3Test, double dToler, double& dRbDist, double& dAllRbDist) const ;
bool GetRawGlobBox( int nPhase, int nPathId, double dToler, BBox3d& b3Raw) const ;
bool GetRawGlobBox( int nPhase, const BBox3d& b3Test, double dToler, BBox3d& b3Raw) const ;
bool GetCurrRawsGlobBox( BBox3d& b3Raw) const ;
bool AdjustCurveFromSurf( ICurveComposite* pCrvCompo, int nToolDir, int nFaceUse, double dToolThick, int nGrade = 3) ;
bool ApproxWithArcsIfUseful( ICurveComposite* pCompo, bool bCareTempProp = false) const ;
bool ApproxWithLines( ICurveComposite* pCompo, bool bFeed = true) const ;
bool ApproxWithLines( ICurveComposite* pCompo, double dMaxLen = 0) const ;
bool VerifyArcs( ICurveComposite* pCompo, double dMaxAngCen = MAX_ANG_CEN) const ;
bool CalcAndSetBBox( int nClId) ;
@@ -213,26 +202,12 @@ class Operation : public IUserObj
int AddRapidStart( const Point3d& ptP, const std::string& sName) ;
int AddRapidMove( const Point3d& ptP) ;
int AddRapidMove( const Point3d& ptP, const std::string& sName) ;
int AddRapidMove( const Point3d& ptP, bool bSplit) ;
int AddRapidMove( const Point3d& ptP, bool bSplit, const std::string& sName) ;
int AddRapidStartOrMove( const Point3d& ptP, bool bFirst)
{ return ( bFirst ? AddRapidStart( ptP) : AddRapidMove( ptP)) ; }
int AddRapidStartOrMove( const Point3d& ptP, bool bFirst, const std::string& sName)
{ return ( bFirst ? AddRapidStart( ptP, sName) : AddRapidMove( ptP, sName)) ; }
int AddRapidStartOrMove( const Point3d& ptP, bool bFirst, bool bSplit)
{ return ( bFirst ? AddRapidStart( ptP) : AddRapidMove( ptP, bSplit)) ; }
int AddRapidStartOrMove( const Point3d& ptP, bool bFirst, bool bSplit, const std::string& sName)
{ return ( bFirst ? AddRapidStart( ptP, sName) : AddRapidMove( ptP, bSplit, sName)) ; }
int AddLinearMove( const Point3d& ptP) ;
int AddLinearMove( const Point3d& ptP, const std::string& sName) ;
int AddLinearMove( const Point3d& ptP, bool bSplit) ;
int AddLinearMove( const Point3d& ptP, bool bSplit, const std::string& sName) ;
int AddArcMove( const Point3d& ptP, const Point3d& ptCen, double dAngCen, const Vector3d& vtN) ;
int AddArcMove( const Point3d& ptP, const Point3d& ptCen, double dAngCen, const Vector3d& vtN, const std::string& sName) ;
int AddCurveMove( const ICurve* pCrv) ;
int AddCurveMove( const ICurve* pCrv, const std::string& sName) ;
int AddCurveMove( const ICurve* pCrv, bool bSplit) ;
int AddCurveMove( const ICurve* pCrv, bool bSplit, const std::string& sName) ;
int AddCurveMove( const ICurve* pCrv, bool bOnlySimple = false) ;
int AddCurveMove( const ICurve* pCrv, const std::string& sName, bool bOnlySimple = false) ;
bool ResetMoveData( void) ;
protected :
+6 -111
View File
@@ -212,46 +212,6 @@ Operation::AddRapidMove( const Point3d& ptP, const string& sName)
return nId ;
}
//----------------------------------------------------------------------------
int
Operation::AddRapidMove( const Point3d& ptP, bool bSplit)
{
// se non richiesta spezzatura con massima lunghezza, emissione normale
if ( ! NeedSplit( bSplit))
return AddRapidMove( ptP) ;
// altrimenti opportuna spezzatura
Point3d ptS ;
if ( ! GetCurrPos( ptS))
return GDB_ID_NULL ;
double dLen = Dist( ptS, ptP) ;
double dStep = GetMaxSplitLen( true, false) ;
int nStep = int( dLen / dStep + 0.999) ;
int nFirstId = GDB_ID_NULL ;
for ( int i = 1 ; i <= nStep ; ++ i) {
int nId = AddRapidMove( Media( ptS, ptP, i * 1.0 / nStep)) ;
if ( nId == GDB_ID_NULL)
return GDB_ID_NULL ;
if ( nFirstId == GDB_ID_NULL)
nFirstId = nId ;
SetFlag( 0) ;
SetFlag2( 0) ;
}
return nFirstId ;
}
//----------------------------------------------------------------------------
int
Operation::AddRapidMove( const Point3d& ptP, bool bSplit, const string& sName)
{
int nFirstId = AddRapidMove( ptP, bSplit) ;
int nId = nFirstId ;
while ( nId != GDB_ID_NULL) {
m_pGeomDB->SetName( nId, sName) ;
nId = m_pGeomDB->GetNext( nId) ;
}
return nFirstId ;
}
//----------------------------------------------------------------------------
int
Operation::AddLinearMove( const Point3d& ptP)
@@ -310,44 +270,6 @@ Operation::AddLinearMove( const Point3d& ptP, const string& sName)
return nId ;
}
//----------------------------------------------------------------------------
int
Operation::AddLinearMove( const Point3d& ptP, bool bSplit)
{
// se non richiesta spezzatura con massima lunghezza, emissione normale
if ( ! NeedSplit( bSplit))
return AddLinearMove( ptP) ;
// altrimenti opportuna spezzatura
Point3d ptS ;
if ( ! GetCurrPos( ptS))
return GDB_ID_NULL ;
double dLen = Dist( ptS, ptP) ;
double dStep = GetMaxSplitLen( true, true) ;
int nStep = int( dLen / dStep + 0.999) ;
int nFirstId = GDB_ID_NULL ;
for ( int i = 1 ; i <= nStep ; ++ i) {
int nId = AddLinearMove( Media( ptS, ptP, i * 1.0 / nStep)) ;
if ( nId == GDB_ID_NULL)
return GDB_ID_NULL ;
if ( nFirstId == GDB_ID_NULL)
nFirstId = nId ;
}
return nFirstId ;
}
//----------------------------------------------------------------------------
int
Operation::AddLinearMove( const Point3d& ptP, bool bSplit, const string& sName)
{
int nFirstId = AddLinearMove( ptP, bSplit) ;
int nId = nFirstId ;
while ( nId != GDB_ID_NULL) {
m_pGeomDB->SetName( nId, sName) ;
nId = m_pGeomDB->GetNext( nId) ;
}
return nFirstId ;
}
//----------------------------------------------------------------------------
int
Operation::AddArcMove( const Point3d& ptP, const Point3d& ptCen, double dAngCen, const Vector3d& vtN)
@@ -424,7 +346,7 @@ Operation::AddArcMove( const Point3d& ptP, const Point3d& ptCen, double dAngCen,
//----------------------------------------------------------------------------
int
Operation::AddCurveMove( const ICurve* pCrv)
Operation::AddCurveMove( const ICurve* pCrv, bool bOnlySimple)
{
// verifico che la curva esista
if ( pCrv == nullptr)
@@ -445,8 +367,8 @@ Operation::AddCurveMove( const ICurve* pCrv)
pArc->GetEndPoint( ptP3) ;
return AddArcMove( ptP3, ptCen, dAngCen, vtN) ;
}
// se arco o curva composita
else if ( pCrv->GetType() == CRV_ARC || pCrv->GetType() == CRV_COMPO) {
// se ammesse curve composite
else if ( ! bOnlySimple) {
// in ogni caso, converto in archi e rette
PtrOwner<ICurveComposite> pCompo( CreateCurveComposite()) ;
if ( ! pCompo->AddCurve( *pCrv))
@@ -485,43 +407,16 @@ Operation::AddCurveMove( const ICurve* pCrv)
}
return nFirstId ;
}
// altre curve non ammesse
// altrimenti
else
return GDB_ID_NULL ;
}
//----------------------------------------------------------------------------
int
Operation::AddCurveMove( const ICurve* pCrv, const string& sName)
Operation::AddCurveMove( const ICurve* pCrv, const string& sName, bool bOnlySimple)
{
int nFirstId = AddCurveMove( pCrv) ;
int nId = nFirstId ;
while ( nId != GDB_ID_NULL) {
m_pGeomDB->SetName( nId, sName) ;
nId = m_pGeomDB->GetNext( nId) ;
}
return nFirstId ;
}
//----------------------------------------------------------------------------
int
Operation::AddCurveMove( const ICurve* pCrv, bool bSplit)
{
// se non richiesta spezzatura, emissione normale
if ( ! bSplit)
return AddCurveMove( pCrv) ;
// altrimenti opportuna spezzatura
PtrOwner<ICurveComposite> pCompo ;
if ( ! pCompo.Set( ConvertCurveToComposite( pCrv->Clone())) || ! ApproxWithLines( pCompo))
return false ;
return AddCurveMove( pCompo) ;
}
//----------------------------------------------------------------------------
int
Operation::AddCurveMove( const ICurve* pCrv, bool bSplit, const string& sName)
{
int nFirstId = AddCurveMove( pCrv, bSplit) ;
int nFirstId = AddCurveMove( pCrv, bOnlySimple) ;
int nId = nFirstId ;
while ( nId != GDB_ID_NULL) {
m_pGeomDB->SetName( nId, sName) ;
+44 -112
View File
@@ -103,9 +103,6 @@ static const std::string GVAR_R1 = ".R1" ; // (num) valore de
static const std::string GVAR_R2 = ".R2" ; // (num) valore del secondo asse rotante
static const std::string GVAR_R3 = ".R3" ; // (num) valore del terzo asse rotante
static const std::string GVAR_R4 = ".R4" ; // (num) valore del quarto asse rotante
static const std::string GVAR_R5 = ".R5" ; // (num) valore del quinto asse rotante
static const std::string GVAR_R6 = ".R6" ; // (num) valore del sesto asse rotante
static const std::string GVAR_R7 = ".R7" ; // (num) valore del settimo asse rotante
static const std::string GVAR_C1 = ".C1" ; // (num) valore del primo asse lineare per centro arco
static const std::string GVAR_C2 = ".C2" ; // (num) valore del secondo asse lineare per centro arco
static const std::string GVAR_C3 = ".C3" ; // (num) valore del terzo asse lineare per centro arco
@@ -121,9 +118,6 @@ static const std::string GVAR_R1P = ".R1p" ; // (num) valore pr
static const std::string GVAR_R2P = ".R2p" ; // (num) valore precedente del secondo asse rotante
static const std::string GVAR_R3P = ".R3p" ; // (num) valore precedente del terzo asse rotante
static const std::string GVAR_R4P = ".R4p" ; // (num) valore precedente del quarto asse rotante
static const std::string GVAR_R5P = ".R5p" ; // (num) valore precedente del quinto asse rotante
static const std::string GVAR_R6P = ".R6p" ; // (num) valore precedente del sesto asse rotante
static const std::string GVAR_R7P = ".R7p" ; // (num) valore precedente del settimo asse rotante
static const std::string GVAR_L1T = ".L1t" ; // (string) token del primo asse lineare
static const std::string GVAR_L2T = ".L2t" ; // (string) token del secondo asse lineare
static const std::string GVAR_L3T = ".L3t" ; // (string) token del terzo asse lineare
@@ -131,9 +125,6 @@ static const std::string GVAR_R1T = ".R1t" ; // (string) token del
static const std::string GVAR_R2T = ".R2t" ; // (string) token del secondo asse rotante
static const std::string GVAR_R3T = ".R3t" ; // (string) token del terzo asse rotante
static const std::string GVAR_R4T = ".R4t" ; // (string) token del quarto asse rotante
static const std::string GVAR_R5T = ".R5t" ; // (string) token del quinto asse rotante
static const std::string GVAR_R6T = ".R6t" ; // (string) token del sesto asse rotante
static const std::string GVAR_R7T = ".R7t" ; // (string) token del settimo asse rotante
static const std::string GVAR_C1T = ".C1t" ; // (string) token del primo asse lineare per centro arco
static const std::string GVAR_C2T = ".C2t" ; // (string) token del secondo asse lineare per centro arco
static const std::string GVAR_C3T = ".C3t" ; // (string) token del terzo asse lineare per centro arco
@@ -148,9 +139,6 @@ static const std::string GVAR_R1N = ".R1n" ; // (string) nome del
static const std::string GVAR_R2N = ".R2n" ; // (string) nome del secondo asse rotante
static const std::string GVAR_R3N = ".R3n" ; // (string) nome del terzo asse rotante
static const std::string GVAR_R4N = ".R4n" ; // (string) nome del quarto asse rotante
static const std::string GVAR_R5N = ".R5n" ; // (string) nome del quinto asse rotante
static const std::string GVAR_R6N = ".R6n" ; // (string) nome del sesto asse rotante
static const std::string GVAR_R7N = ".R7n" ; // (string) nome del settimo asse rotante
static const std::string GVAR_MASK = ".MASK" ; // (int) mask associato ai movimenti in rapido
static const std::string GVAR_FLAG = ".FLAG" ; // (int) flag associato ad ogni movimento
static const std::string GVAR_FLAG2 = ".FLAG2" ; // (int) secondo flag associato ad ogni movimento
@@ -241,120 +229,64 @@ static const std::string ON_RESET_MACHINE = "OnResetMachine" ;
//----------------------------------------------------------------------------
inline std::string
GetGlobVarAxisValue( int nAx, const std::string& sVar = GLOB_VAR, bool bIsRobot = false)
GetGlobVarAxisValue( int nAx, const std::string& sVar = GLOB_VAR)
{
if ( ! bIsRobot) {
switch ( nAx) {
case 1 : return ( sVar + GVAR_L1) ;
case 2 : return ( sVar + GVAR_L2) ;
case 3 : return ( sVar + GVAR_L3) ;
case 4 : return ( sVar + GVAR_R1) ;
case 5 : return ( sVar + GVAR_R2) ;
case 6 : return ( sVar + GVAR_R3) ;
case 7 : return ( sVar + GVAR_R4) ;
default : return "" ;
}
}
else {
switch ( nAx) {
case 1 : return ( sVar + GVAR_R1) ;
case 2 : return ( sVar + GVAR_R2) ;
case 3 : return ( sVar + GVAR_R3) ;
case 4 : return ( sVar + GVAR_R4) ;
case 5 : return ( sVar + GVAR_R5) ;
case 6 : return ( sVar + GVAR_R6) ;
case 7 : return ( sVar + GVAR_R7) ;
default : return "" ;
}
}
switch ( nAx) {
case 1 : return ( sVar + GVAR_L1) ;
case 2 : return ( sVar + GVAR_L2) ;
case 3 : return ( sVar + GVAR_L3) ;
case 4 : return ( sVar + GVAR_R1) ;
case 5 : return ( sVar + GVAR_R2) ;
case 6 : return ( sVar + GVAR_R3) ;
case 7 : return ( sVar + GVAR_R4) ;
default : return "" ;
}
}
//----------------------------------------------------------------------------
inline std::string
GetGlobVarAxisPrev( int nAx, const std::string& sVar = GLOB_VAR, bool bIsRobot = false)
GetGlobVarAxisPrev( int nAx, const std::string& sVar = GLOB_VAR)
{
if ( ! bIsRobot) {
switch ( nAx) {
case 1 : return ( sVar + GVAR_L1P) ;
case 2 : return ( sVar + GVAR_L2P) ;
case 3 : return ( sVar + GVAR_L3P) ;
case 4 : return ( sVar + GVAR_R1P) ;
case 5 : return ( sVar + GVAR_R2P) ;
case 6 : return ( sVar + GVAR_R3P) ;
case 7 : return ( sVar + GVAR_R4P) ;
default : return "" ;
}
}
else {
switch ( nAx) {
case 1 : return ( sVar + GVAR_R1P) ;
case 2 : return ( sVar + GVAR_R2P) ;
case 3 : return ( sVar + GVAR_R3P) ;
case 4 : return ( sVar + GVAR_R4P) ;
case 5 : return ( sVar + GVAR_R5P) ;
case 6 : return ( sVar + GVAR_R6P) ;
case 7 : return ( sVar + GVAR_R7P) ;
default : return "" ;
}
}
switch ( nAx) {
case 1 : return ( sVar + GVAR_L1P) ;
case 2 : return ( sVar + GVAR_L2P) ;
case 3 : return ( sVar + GVAR_L3P) ;
case 4 : return ( sVar + GVAR_R1P) ;
case 5 : return ( sVar + GVAR_R2P) ;
case 6 : return ( sVar + GVAR_R3P) ;
case 7 : return ( sVar + GVAR_R4P) ;
default : return "" ;
}
}
//----------------------------------------------------------------------------
inline std::string
GetGlobVarAxisToken( int nAx, bool bIsRobot = false)
GetGlobVarAxisToken( int nAx)
{
if ( ! bIsRobot) {
switch ( nAx) {
case 1 : return ( GLOB_VAR + GVAR_L1T) ;
case 2 : return ( GLOB_VAR + GVAR_L2T) ;
case 3 : return ( GLOB_VAR + GVAR_L3T) ;
case 4 : return ( GLOB_VAR + GVAR_R1T) ;
case 5 : return ( GLOB_VAR + GVAR_R2T) ;
case 6 : return ( GLOB_VAR + GVAR_R3T) ;
case 7 : return ( GLOB_VAR + GVAR_R4T) ;
default : return "" ;
}
}
else {
switch ( nAx) {
case 1 : return ( GLOB_VAR + GVAR_R1T) ;
case 2 : return ( GLOB_VAR + GVAR_R2T) ;
case 3 : return ( GLOB_VAR + GVAR_R3T) ;
case 4 : return ( GLOB_VAR + GVAR_R4T) ;
case 5 : return ( GLOB_VAR + GVAR_R5T) ;
case 6 : return ( GLOB_VAR + GVAR_R6T) ;
case 7 : return ( GLOB_VAR + GVAR_R7T) ;
default : return "" ;
}
}
switch ( nAx) {
case 1 : return ( GLOB_VAR + GVAR_L1T) ;
case 2 : return ( GLOB_VAR + GVAR_L2T) ;
case 3 : return ( GLOB_VAR + GVAR_L3T) ;
case 4 : return ( GLOB_VAR + GVAR_R1T) ;
case 5 : return ( GLOB_VAR + GVAR_R2T) ;
case 6 : return ( GLOB_VAR + GVAR_R3T) ;
case 7 : return ( GLOB_VAR + GVAR_R4T) ;
default : return "" ;
}
}
//----------------------------------------------------------------------------
inline std::string
GetGlobVarAxisName( int nAx, bool bIsRobot = false)
GetGlobVarAxisName( int nAx)
{
if ( ! bIsRobot) {
switch ( nAx) {
case 1 : return ( GLOB_VAR + GVAR_L1N) ;
case 2 : return ( GLOB_VAR + GVAR_L2N) ;
case 3 : return ( GLOB_VAR + GVAR_L3N) ;
case 4 : return ( GLOB_VAR + GVAR_R1N) ;
case 5 : return ( GLOB_VAR + GVAR_R2N) ;
case 6 : return ( GLOB_VAR + GVAR_R3N) ;
case 7 : return ( GLOB_VAR + GVAR_R4N) ;
default : return "" ;
}
}
else {
switch ( nAx) {
case 1 : return ( GLOB_VAR + GVAR_R1N) ;
case 2 : return ( GLOB_VAR + GVAR_R2N) ;
case 3 : return ( GLOB_VAR + GVAR_R3N) ;
case 4 : return ( GLOB_VAR + GVAR_R4N) ;
case 5 : return ( GLOB_VAR + GVAR_R5N) ;
case 6 : return ( GLOB_VAR + GVAR_R6N) ;
case 7 : return ( GLOB_VAR + GVAR_R7N) ;
default : return "" ;
}
}
switch ( nAx) {
case 1 : return ( GLOB_VAR + GVAR_L1N) ;
case 2 : return ( GLOB_VAR + GVAR_L2N) ;
case 3 : return ( GLOB_VAR + GVAR_L3N) ;
case 4 : return ( GLOB_VAR + GVAR_R1N) ;
case 5 : return ( GLOB_VAR + GVAR_R2N) ;
case 6 : return ( GLOB_VAR + GVAR_R3N) ;
case 7 : return ( GLOB_VAR + GVAR_R4N) ;
default : return "" ;
}
}
+12066 -2739
View File
File diff suppressed because it is too large Load Diff
+241 -62
View File
@@ -19,6 +19,9 @@
#include "/EgtDev/Include/EGkCurveComposite.h"
#include "/EgtDev/Include/EGkCurveLine.h"
#include "/EgtDev/Include/EgtNumUtils.h"
#include "/EgtDev/Include/EGkSurfFlatRegion.h"
#include "/EgtDev/Include/EGkSurfTriMesh.h"
#include "/EgtDev/Include/EGkCurveArc.h"
//----------------------------------------------------------------------------
class Pocketing : public Machining
@@ -66,82 +69,248 @@ class Pocketing : public Machining
Pocketing( void) ;
private :
// Debug functions ----
void DrawLoopsSurf( const ISurfFlatRegion* pSfr, bool bWithSurf = true, Color Col = Color( 0., 0., 1., 0.45),
bool bAlphaCoverage = false) ;
void DrawSimpleSurf( const ISurfFlatRegion* pSrf, Color Col = Color( 0., 0., 1., 0.45)) ;
void DrawVectorCurves( const ICRVCOMPOPOVECTOR& vCrv) ;
void DrawSimpleCurve( const ICurveComposite* pCrv, bool bUniform = false, Color Col = WHITE) ;
void DrawSimpleTriMesh( const ISurfTriMesh* pStm, Color Col = Color( 0., 0., 0., 1.)) ;
void DrawSimplePoint( const Point3d& pT, Color Col = WHITE) ;
void DrawSimpleVector( const Vector3d& vt, Point3d ptPos = ORIG, Color Col = WHITE) ;
// --------------------
bool VerifyGeometry( SelData Id, int& nSubs, int& nType) ;
bool GetCurves( SelData Id, ICURVEPLIST& lstPC) ;
bool GetCurvesAndPartialVolume( SelData Id, ICURVEPLIST& lstPC, ISurfTriMesh* pStmTmp, Vector3d& vtN) ;
bool GetForcedClosed( void) ;
bool SetCurveAllTempProp( int nCrvId, bool bForcedClose, ICurve* pCurve, bool* pbSomeOpen = nullptr) ;
bool ResetCurveAllTempProp( ICurve* pCurve) ;
bool Chain( int nGrpDestId) ;
bool ProcessPath( int nPathId, int nPvId, int nClId) ;
bool CalcRegionElevation( const ICurveComposite* pCompo, const Vector3d& vtTool, double dDepth, double dRad, double dLen, double& dElev) const ;
bool VerifyPathFromBottom( const ICurveComposite* pCompo, const Vector3d& vtTool) ;
bool GeneratePocketingPv( int nPathId, const ICurveComposite* pCompo) ;
bool AddZigZag( const ICurveComposite* pCompo, const Vector3d& vtTool, const Vector3d& vtExtr,
double dDepth, double dElev, double dOkStep, bool bSplitArcs, int nPathId) ;
bool CalcZigZag( const ICurveComposite* pOffs, ICRVCOMPOPOVECTOR& vpCrvs) ;
bool OptimizedZigZag( int nPathId, const Vector3d& vtTool, double dDepth, double dSafeZ,
Frame3d& frPocket, bool& bOptimizedZigZag, ICRVCOMPOPOVECTOR& vpCrvs, double& dOffs) ;
bool GeneratePocketingPv( int nPathId, const ISurfTriMesh* pStm_PartVolume) ;
bool CheckSimpleOverlap( const ICurve* pCrv, const ICurveComposite* pCrvOri, int& nStat, double dToll) ;
bool CalcDepth( const int nId, const Vector3d& vtExtr, double dThick, double& dDepth) ;
bool ChainCurveArray( ICURVEPOVECTOR& vpCrvs, ICRVCOMPOPOVECTOR& vCrvCompo) ;
bool CreateStmForIntersection( ISurfTriMesh* pStm, ICRVCOMPOPOVECTOR& vCrvCompo, const Vector3d& vtN) ;
bool CalcOffsExtensionsForCurves( const ICurveComposite* pCrvCompo, const Vector3d& vtN, double& dExt) ;
bool GetExtendedLoopToFitStmVolume( ICurveComposite* pCrvLoop, const double& dExt, const Vector3d& vtN) ;
bool GetCurrentPart( const PNTVECTOR& vPtInside, ISurfTriMesh* pStmPart) ;
bool SetPocketingVolume( const PNTVECTOR& vPtInside, ISurfTriMesh* pStm) ;
bool AdjustPocketingSideForVolumePart( ISurfTriMesh* pStmVolPart, const Vector3d& vtTool) ;
bool SewingMissingFacesOnPlanes( ISurfTriMesh* pStm, const Plane3d& plPlane) ;
bool ChainBisectors( ICURVEPOVECTOR& vpCrvs, ICRVCOMPOPOVECTOR& vCrvCompo) ;
bool ChooseBestBisectorPath( ICRVCOMPOPOVECTOR& vCrvCompo, const Point3d& ptS,
const Point3d& ptE, ICurveComposite* pCrvPath) ;
bool GetSpecialElevation( const ISurfFlatRegion* pSfr, const ICurveLine* pLine, const bool bInVsOut,
double& dElev) ;
bool GetDangerSfrForSideStep( const ISurfFlatRegion* pSfr, const ISurfTriMesh* pStm_Part, const double dExtraLenInOut,
ISurfFlatRegion* pSfrDanger) ;
bool AdjustTrapezoidSpiralLeadInLeadOutForSideAngle( ICurveComposite* pMCrv, const double dExtraLenInOut,
const int nOutsideRaw, const Vector3d& vtN) ;
bool GetRaw( ISurfTriMesh* pStmRaw) ;
bool SliceVolume( const ISurfTriMesh* pStmVol, const ISurfTriMesh* pStm_Part, const ISurfTriMesh* pSt_Raw,
ISURFFRPOVECTOR& vSrfSliced, ISURFFRPOVECTOR& vSfrLimit, std::vector<ICRVCOMPOPOVECTOR>& vCrvOEWithFlags,
BOOLVECTOR& vbChangedPrec, VCT3DVECTOR& vVtTrasl, int& nStep, const Vector3d vtTool,
const double dElev, const double dDepth, const double dStep, double& dExtraLenInOut) ;
bool TranslateVolumeFaces( const double dTrasl, Frame3d& frElevation, ISurfTriMesh* pStmVol, ISurfTriMesh* pStm_Part,
ISurfTriMesh* pStmRaw) ;
bool CalcExtraSteps( const ISurfTriMesh* pStmVol, VCT3DVECTOR& vVtTrasl, int& nStep, const double dElev,
const double dDepth, const double dStep, INTVECTOR& vIndExtraSteps,
ISURFTMPOVECTOR& vStmES_Edges_OC) ;
bool CutVolumeByPlane( const ISurfTriMesh* pStmVol, const ISurfTriMesh* pStm_Part, const Vector3d& vtTrasl,
const bool bIsExtraStep, ISurfFlatRegion* pSfrResult) ;
bool CheckSideAngleForVolume( const ISurfTriMesh* pStmVol_Sliced, const ISurfTriMesh* pStm_Part,
ISurfFlatRegion* pSfr_Projection, double& dExtraLenInOut, ISurfFlatRegion* pSfr) ;
bool ProjectVolume( const ISurfTriMesh* pStmVol, const ISurfTriMesh* pStm_Part, const Vector3d& vtTrasl,
const Vector3d& vtTraslPrec, const bool bIsExtraStep, ISurfFlatRegion* pSfrOpenProjPrec,
ISurfFlatRegion* pSfr, const bool bOneStep, double& dExtraLenInOut) ;
bool ChooseCloseOrOpenEdge( ISurfFlatRegion* pSfr, const ISurfTriMesh* pStm, const bool bOnIsClosed = false) ;
bool SimplifySfrLoops( ISurfFlatRegion* pSfr) ;
bool GetCurvesForOptimizedPocketing( ISurfFlatRegion* pSfr, ICRVCOMPOPOVECTOR& vCrvOEWithFlags) ;
bool ModifySurfByOpenEdges( ISurfFlatRegion* pSfr, const ISurfFlatRegion* pSfrLimit) ;
bool AdjustContourWithOpenEdges( ICurveComposite* pCrvCompo, ICRVCOMPOPOVECTOR& vCrvIsl, const double dDiam,
const double dOffR, const double dStep, const ISurfFlatRegion* pSfrLimit) ;
bool AdjustOpenEdge( const ICurveComposite* pCrvCompo, const ICRVCOMPOPOVECTOR& vCrvIsland,
const double dParS, const double dParE, const Vector3d& vtTanS,
const Vector3d& vtTanE, const double dRad, const double dDiamJ,
const ISurfFlatRegion* pSfrLimit, ICurveComposite* pCrvBorder) ;
bool GetProjectionOfStmToNotPocket( const ISurfTriMesh* pStm, const ISurfTriMesh* pStmVol,
const Vector3d& vtTrasl, ISurfFlatRegion* pSfrProj) ;
bool CreateSurfFrIncidence( const ICurveComposite* pCrv, const Vector3d& vtTanS, const Vector3d& vtTaneE,
const double dRad, ISurfFlatRegion* pSfrInc) ;
bool GetNewSfrByAnotherPocketing( ISurfFlatRegion* pSfrPock, const ISurfFlatRegion* pSfrNoExtendedByOpenEdges,
const ISurfTriMesh* pStmVol, const ISurfTriMesh* pStm_Part,
const ISurfFlatRegion* pSfrLimit) ;
bool GetHomogeneousParts( ICurveComposite* pCrvCompo, ICRVCOMPOPOVECTOR& vpCrvs) ;
bool OptimizedSpiralCirle( const ICurveComposite* pCrvCompo, const double dToll, double& dRad,
Point3d& ptC, bool& bIsCirlce) ;
bool ModifyCurveToSmoothed( ICurveComposite* pCrv, double dRightLen, double dLeftLen, bool bAsParam) ;
bool OrderCurvesByLastPntOfPath( ICRVCOMPOPOVECTOR& vCrv, Point3d ptEnd, PNTVECTOR& vPtStart,
VCT3DVECTOR& vVtOut, BOOLVECTOR& vbMidOut) ;
bool SetPtStartForPath( ICurveComposite* pCrv0, const ISurfFlatRegion* pSrfToWork, const Point3d& ptEndPrec,
const Frame3d& frPocket, Point3d& ptStart, Vector3d& vtMidOut, bool& bMidOut,
int nOffs = 0, ICurveComposite* pCrvOrig = nullptr) ;
bool SetSpecialPtStartForOpenEdges( const ICurveComposite* pCrvOrig, const Frame3d& frPocket,
ICurveComposite* pCrvCompo, Point3d& ptStart, Vector3d& vtMidOut,
bool& bMidOut) ;
bool GetOptCrvIndex( const std::vector<ICRVCOMPOPOVECTOR>& vCrvOEWithFlags, int nStep, ISurfFlatRegion* pSrfChunkFinal,
int& nIndex) ;
bool GetTrapezoidFromShape( const ICurveComposite* pCrvCompo, ICurveComposite* pCrvTrap, Frame3d& frTrap,
double& dPocketSize, int& nBase, int& nSecondBase) ;
bool GetBoxCrvOptTrap( const int nCrv, const ICurveComposite* pCrvCompo, const double dDiam, int& nType, ICurveComposite* pCrvBox) ;
bool CheckTrapezoidClosedEdgePosition( const ICurveComposite* pCrvCompo, const int nCrvInd, const double dDimBoxY,
INTVECTOR& vIndClosedSides, bool& bOk,
ICurveComposite* pCrvTrap) ;
bool CheckSecondBaseTrapezoid( const ICurveComposite* pCrvCompo, const int nCrvInd, int& nSecondBase) ;
bool PreparareTrapezoidTwoBases( const ICurveComposite* pCrvCompo, const double dDiam, const int nType, int& nBase,
int& nSecondBase, bool& bOk, ICurveComposite* pCrvTrap) ;
bool GetSfrByStm( const ISurfTriMesh* pStm, ISurfFlatRegion* pSfr, const Plane3d plPock, const Vector3d& vtExtr,
const double dThick, double dToll = 5 * EPS_SMALL) ;
bool ProjectStmOnPlane( const ISurfTriMesh* pStmAbove, const Plane3d plPock, ISurfFlatRegion* pSfrProj) ;
bool GetCoeffLinArc( const ICurveArc* pArc, double dDiam, double& dSubArc) ;
bool GetParamOnOpenSide( const ICurveComposite* pCompo, const ICRVCOMPOPOVECTOR& vCrvIsl,
const Frame3d& frPocket, Point3d& ptMid, Vector3d& vtMidOut) ;
bool AdjustContourStart( ICurveComposite* pCompo, const ICRVCOMPOPOVECTOR& vCrvIsl, bool bOrder = false,
Point3d ptRef = P_INVALID) ;
bool GetParamForPtStartOnEdge( const ICurve* pCrv, const ICurveComposite* pCompo, const ICRVCOMPOPOVECTOR& vCrvIsl,
double& dPar) ;
bool CheckForRemovingIsland( const ICurveComposite* pCrvIslandBorder, double dOffs, bool bRemove) ;
bool AddZigZag( ISURFFRPOVECTOR& vSfr, const std::vector<ICRVCOMPOPOVECTOR>& vCrvOrig, BOOLVECTOR& vbChangedPrec,
VCT3DVECTOR& vVtTrasl, const Vector3d& vtTool, const Vector3d& vtExtr,
double dDepth, double dElev, double dMaxElev, double dOkStep, bool bSplitArcs) ;
bool CalcZigZag( const ISurfFlatRegion* pSrfZigZag, ICRVCOMPOPOVECTOR& vpCrvs) ;
bool CalcZigZagLink( ICurveComposite* pCrv1, ICurveComposite* pCrv2, ICurveComposite* pCrvLink) ;
bool OptimizedZigZag( ISurfFlatRegion* pSrf, const Vector3d & vtTool, double dDepth, double dSafeZ,
Frame3d& frPocket, ICurveComposite* pCrvOrig, bool& bOptimizedZigZag,
ICRVCOMPOPOVECTOR& vpCrvs, ICRVCOMPOPOVECTOR& vCrvIslMergeBorders, double& dOffs,
int& nClosedSides, bool& bTwoOpposite) ;
bool ZigZagOptimizedNoClosedEdges( ICurveComposite* pCrvPocket, bool& bOptimizedZigZag, Vector3d& vtDir, double& dOffs) ;
bool ZigZagOptimizedOneClosedEdge( ICurveComposite* pCrvPocket, int nClosedId, bool& bOptimizedZigZag, Vector3d& vtDir, double& dOffs) ;
bool ZigZagOptimizedTwoClosedEdges( ICurveComposite* pCrvPocket, const INTVECTOR& vnClosedIds, bool& bOptimizedZigZag,
bool& bOpposite, Vector3d& vtDir, double& dOffs) ;
bool ZigZagOptimizedOneClosedEdge( ICurveComposite* pCrvPocket, int nClosedId, bool& bOptimizedZigZag,
Vector3d& vtDir, double& dOffs) ;
bool ZigZagOptimizedTwoClosedEdges( ICurveComposite* pCrvPocket, const INTVECTOR& vnClosedIds,
bool& bOptimizedZigZag, bool& bOpposite, Vector3d& vtDir, double& dOffs) ;
bool ZigZagOptimizedThreeClosedEdges( ICurveComposite* pCrvPocket, const INTVECTOR& vnClosedIds, bool& bOptimizedZigZag,
bool& bOpposite, Vector3d& vtDir, double& dOffs) ;
bool ZigZagOptimizedComputeOffset( ICurveComposite* pCrvPocket, const Vector3d& vtMainDir, int nOffsettedEdgesOnY,
const INTVECTOR& vnClosedIds, double& dOffs) ;
bool& bOpposite, Vector3d& vtDir, double& dOffs) ;
bool ZigZagOptimizedComputeOffset( ICurveComposite* pCrvPocket, const Vector3d& vtMainDir, int nOffsettedEdgesOnY,
const INTVECTOR& vnClosedIds, double& dOffs) ;
bool CutCurveWithLine( ICurveComposite* pCrvA, const ICurveLine* pCrvB) ;
bool AddOneWay( const ICurveComposite* pCompo, const Vector3d& vtTool, const Vector3d& vtExtr,
double dDepth, double dElev, double dOkStep, bool bSplitArcs) ;
bool AddSpiralIn( const ICurveComposite* pCompo, const Vector3d& vtTool, const Vector3d& vtExtr,
double dDepth, double dElev, double dOkStep, bool bSplitArcs, bool bMidOpen,
const Point3d& ptMidOpen, const Vector3d& vtMidOut, int nPathId) ;
bool AddSpiralOut( const ICurveComposite* pCompo, const Vector3d& vtTool, const Vector3d& vtExtr,
double dDepth, double dElev, double dOkStep, bool bSplitArcs, int nPathId) ;
bool CalcSpiral( const ICurveComposite* pCompo, int nReg, bool bSplitArcs,
ICurveComposite* pMCrv, ICurveComposite* pRCrv, int nPathId, bool& bOptimizedTrap) ;
bool CalcBoundedLink( const Point3d& ptStart, const Point3d& ptEnd, const ICurve* pCrvBound,
bool AddOneWay( ISURFFRPOVECTOR& vSfr, const std::vector<ICRVCOMPOPOVECTOR>& vCrvOrig, BOOLVECTOR& vbChangedPrec,
VCT3DVECTOR& vVtTrasl, const Vector3d& vtTool, const Vector3d& vtExtr,
double dDepth, double dElev, double dMaxElev, double dOkStep, bool bSplitArcs) ;
bool AddSpiralIn( ISURFFRPOVECTOR& vSfr, const std::vector<ICRVCOMPOPOVECTOR>& vCrvOrig, BOOLVECTOR& vbChangedPrec,
VCT3DVECTOR& vVtTrasl, ISURFFRPOVECTOR& vSrfLimit, const Vector3d& vtTool, const Vector3d& vtExtr,
const double dDepth, const double dElev, const double dMaxElev, const double dOkStep,
const bool bSplitArcs, const double dExtraLenInOut) ;
bool AddSpiralOut( ISURFFRPOVECTOR& vSfr, const std::vector<ICRVCOMPOPOVECTOR>& vCrvOrig, BOOLVECTOR& vbChangedPrec,
VCT3DVECTOR& vVtTrasl, ISURFFRPOVECTOR& vSrfLimit, const Vector3d& vtTool, const Vector3d& vtExtr,
double dDepth, double dElev, double dMaxElev, double dOkStep, bool bSplitArcs,
const double dExtraLenInOut) ;
bool CalcSpiral( const ISurfFlatRegion* pSrfPock, int& nReg, Point3d& ptStart, const Point3d& ptEndPrec, Vector3d& vtMidOut , bool& bMidOut,
bool bSplitArcs,ICurveComposite* pMCrv, ICurveComposite* pRCrv, ICurveComposite* pCrvOEWithFlags,
bool vbChangedPrec, bool& bOptimizedTrap) ;
bool CheckIfOffsetIsNecessary( const ICurveComposite* pCrvOffs, const double dOffs, const int nIter,
const int nOffsCount, const Vector3d& vtN, bool& bInsert) ;
bool CreateSpiralPocketingPath( ICRVCOMPOPOVECTOR& vOffs, ICURVEPOVECTOR& vLinks,
const ICRVCOMPOPOVECTOR& vOffsClosedCurves, const ICRVCOMPOPOVECTOR& vOffsFirstCurve) ;
bool GetUnclearedRegion( ICRVCOMPOPOVECTOR& vFirstOffs, ICRVCOMPOPOVECTOR& vCrvs, ICURVEPOVECTOR& vLinks,
const ICurveComposite* pCrv_orig, ISurfFlatRegion* pSrfToCut) ;
bool GetDynamicClearedRegion( ISurfFlatRegion* pSrfPrec, const ICurveComposite* pCrv) ;
bool RemoveFirstLoopFromSfr( ISurfFlatRegion* pSrfOrig) ;
bool RemoveExtraParts( ISurfFlatRegion* pSrfToCut, ICRVCOMPOPOVECTOR& vOffs, ICRVCOMPOPOVECTOR& vOffsClosedCurves,
ICRVCOMPOPOVECTOR& vOffsFirstCurve, ICURVEPOVECTOR& vLinks) ;
bool RemoveExtraPartByMedialAxis( const ISurfFlatRegion* pChunkToCut, ICRVCOMPOPOVECTOR& vOffsFirstCurve,
int& nOptFlag, Point3d& ptCentroid, ICurveComposite* pCrvPath) ;
bool CutOffsetToClosestPoint( ICRVCOMPOPOVECTOR& vCurves, const Point3d& ptFocus, ICurveComposite* pCrv1,
ICurveComposite* pCrv2, int& nIndex) ;
bool CutLinkToClosestPoint( ICURVEPOVECTOR& vCurves, ICRVCOMPOPOVECTOR& vOffs, const Point3d& ptFocus,
ICurveComposite* pCrv1, ICurveComposite* pCrv2, bool& bFound, int& nIndex) ;
bool GetNewCurvetWithCentroid( const ICurveComposite* pCrvH1, const ICurveComposite* pCrvH2, Point3d& ptC, bool bCir,
ICRVCOMPOPOVECTOR& VFirstOff, ICurveComposite* pCrvNewCurve) ;
bool GetNewCurvetWithPath( const ICurveComposite* pCrvH1, const ICurveComposite* pCrvH2, ICurveComposite* pCrvPath,
ICRVCOMPOPOVECTOR& VFirstOff, ICRVCOMPOPOVECTOR& VoffsCl, ICurveComposite* pCrvNewCurve) ;
bool ManageSmoothAndAutoInters( ICurveComposite* pCrv, ICurveComposite* pCrvPath, ICurveComposite* pPath1,
ICurveComposite* pPath2, ICRVCOMPOPOVECTOR& vOffsCL) ;
bool GetCurveWeightInfo( const ICurveComposite* pCrvCompo, double dMaxLen, double& dToTRot, int& nSmallArcs, int& nSmallLines) ;
bool ChoosePath( const ICurveComposite* pCrv1, const ICurveComposite* pCrv2, int nP, double dPerP, double dMaxLen, int& nC) ;
bool CalcBoundedLink( const Point3d& ptStart, const Point3d& ptEnd, const ICRVCOMPOPOVECTOR& vOffIslands,
ICurveComposite* pCrvLink) ;
bool CalcBoundedSmootedLink( const Point3d& ptStart, const Vector3d& vtStart, const Point3d& ptEnd,
const Vector3d& vtEnd, const double dParMeet,
const ICRVCOMPOPOVECTOR& vOffIslands, ICurveComposite* pCrvLink) ;
bool ModifyBiArc( ICurve* pCrvBiArc, double dCutToll, ICurveComposite* pNewCrv) ;
bool CutCurveByOffsets( ICurveComposite* pCurve, ICRVCOMPOPOVECTOR& vOffs) ;
bool CutCurveToConnect( ICurveComposite* pCrvS, ICurveComposite* pCrvE, const ICRVCOMPOPOVECTOR& vOffs,
const ICRVCOMPOPOVECTOR& vOffIslands, ICurveComposite* pCrvLink,
double dLenPercS = 0.01, double dLenPercE = 0.01, int nMaxIter = 2) ;
bool CalcBoundedLinkWithBiArcs( const Point3d& ptStart, const Vector3d& vtStart, const Point3d& ptEnd, const Vector3d& vtEnd,
const ICurve* pCrvBound, ICurveComposite* pCrvLink) ;
bool CalcCircleSpiral( const Point3d& ptCen, const Vector3d& vtN, double dOutRad, double dIntRad,
bool bSplitArcs, ICurveComposite* pMCrv, ICurveComposite* pRCrv) ;
bool CalcTrapezoidSpiral( ICurveComposite* pCrvPocket, const Vector3d& vtDir, double dPocketSize,
ICurveComposite* pMCrv, ICurveComposite* pRCrv, bool& bOptimizedTrap) ;
bool CalcTrapezoidSpiral( ICurveComposite* pCrvPocket, const Frame3d& frTrap, double dPocketSize, int nBase,
int nSecondBase, ICurveComposite* pMCrv, ICurveComposite* pRCrv, bool& bOptimizedTrap) ;
bool CalcSingleOffsetSpiral( const ISurfFlatRegion* pSfr, ICurveComposite* pOffs,
Point3d& ptStart, Vector3d& vtMidOut, bool& bMidOut) ;
bool CalcTrapezoidSpiralLocalFrame( ICurveComposite * pCrvPocket, const Vector3d& vtDir, Frame3d& frLoc) ;
bool CalcTrapezoidSpiralXCoord( const ICurveComposite * pCrvPocket, bool bStart, double dYCoord, double& dXCoord, double dPocketSize) ;
bool AdjustTrapezoidSpiralForAngles( ICurveComposite * pMCrv, const ICurveComposite * pCrvPocket, bool bStart) ;
bool SpecialAdjustTrapezoidSpiralForAngles( ICurveComposite* pMCrv, const ICurveComposite* pCrvPocket) ;
bool CalcTrapezoidSpiralXCoord( const ICurveComposite * pCrvPocket, int nBase,int nSecondBase,
bool bStart, double dYCoord, double& dXCoord, double dPocketSize) ;
bool AdjustTrapezoidSpiralForAngles( ICurveComposite * pMCrv, const ICurveComposite * pCrvPocket,
bool bStart) ;
bool SpecialAdjustTrapezoidSpiralForAngles( ICurveComposite* pMCrv, const bool bEven, const ICurveComposite* pCrvPocket) ;
bool AdjustTrapezoidSpiralForLeadInLeadOut( ICurveComposite * pCompo, ICurveComposite * pRCrv, const Vector3d& vtTool,
double dDepth, int& nOutsideRaw) ;
bool ComputeTrapezoidSpiralLeadInLeadOut( ICurveComposite * pCompo, const Vector3d& vtMainDir, bool bLeadIn, const Vector3d& vtTool, double dDepth, bool& bIsOutsideRaw) ;
bool ComputeTrapezoidSpiralLeadInLeadOut( ICurveComposite * pCompo, const Vector3d& vtMainDir, bool bLeadIn, const Vector3d& vtTool, double dDepth,
bool& bIsOutsideRaw) ;
bool GetSignedDistFromRealDirection( const Point3d ptP, const Vector3d vtDir, double& dDist, Vector3d& vtNorm) ;
double GetMinFeed( void ) const { return GetFeed() * GetSideStep() / m_TParams.m_dDiam ; }
double GetMaxFeed( void ) const { return GetFeed() ; }
bool GetFeedForParam( double& dPar, double& dFeed) ;
bool AssignDefaultFeed( ICurveComposite* pCrv) ;
bool DrawColoredCrvForFeedTest( ICurve* pCurve, double dFeed) ;
bool AssignFeedForOpenEdge( ICurveComposite* pCrv, const ICurveComposite* pCrvOF_ori) ;
bool AssignFeedForLineInOut( ICurveComposite* pCrv, const bool bIsIn) ;
bool AssignFeedOnCorners( ICurveComposite* pCrv, const ICurveComposite* pCrv_orig, const double dLenToll) ;
bool AssignFeedForEdgeCleaning( ICurveComposite *pCrv, const ICRVCOMPOPOVECTOR& vCrvOF_orig, int nInd = -1) ;
bool AssignFeedZigZagOneWay( ICurveComposite* pCompoLine, const bool bIsLink, const ICURVEPOVECTOR& vLAbove,
const ICURVEPOVECTOR& vLUnder, const ICRVCOMPOPOVECTOR& vAddedLinks) ;
bool AssignFeedSpiral( ICurveComposite* pCrv, const ISurfFlatRegion* pSrfRemoved_offs, const bool bIsLink,
const ICRVCOMPOPOVECTOR& vLinks_done, const ICurveComposite* pCrv_orig, double dToll) ;
bool AssignFeedSpiralOpt( const int nOptType, ICurveComposite* pCrv) ;
bool AssignFeedCrvOnUnclearedRegions( ICurveComposite* pCrv) ;
bool AssignFeedForReturnPath( ICurveComposite* pCrv) ;
bool VerifyLeadInHelix( ISurfFlatRegion* pSrfChunk, const Point3d& ptCen, double dRad) const ;
bool VerifyLeadInZigZag( ISurfFlatRegion* pSrfChunk, const Point3d& ptPa, const Point3d& ptPb) const ;
bool ComputePolishingPath( ICurveComposite* pMCrv, ICurveComposite* pRCrv, bool bSplitArcs) ;
bool AddEpicycles( ICurveComposite * pCompo, ICurveComposite * pCrv, ICurveComposite * pCrvBound = nullptr) ;
bool AddApproach( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ, double dSafeAggrBottZ,
double dElev, double dAppr, bool bSplitArcs, bool bOutStart) ;
double dElev, double dAppr, bool bOutStart) ;
bool AddLinkApproach( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ, double dSafeAggrBottZ,
double dElev, double dAppr, bool bSplitArcs, bool bOutStart = false) ;
double dElev, double dAppr, bool bOutStart = false) ;
bool AddLinkRetract( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ, double dSafeAggrBottZ,
double dElev, double dAppr, bool bSplitArcs) ;
double dElev, double dAppr) ;
bool AddRetract( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ, double dSafeAggrBottZ,
double dElev, double dAppr, bool bSplitArcs) ;
double dElev, double dAppr) ;
bool CalcLeadInStart( const Point3d& ptStart, const Vector3d& vtStart, const Vector3d& vtN,
const ICurveComposite* pRCrv, Point3d& ptP1) const ;
bool AddLeadIn( const Point3d& ptP1, const Point3d& ptStart, const Vector3d& vtStart, const Vector3d& vtN,
const ICurveComposite* pCompo, const ICurveComposite* pRCrv, bool bAtLeft, bool bSplitArcs,
bool AddLeadIn( const ICurveComposite* pCrvCompo, const Point3d& ptP1, const Point3d& ptStart, const Vector3d& vtStart,
const Vector3d& vtEnd, const Vector3d& vtN, ISurfFlatRegion* pSrfChunk,
const ICurveComposite* pRCrv, bool bAtLeft, bool bSplitArcs,
bool bNoneForced = false, bool bSkipControl = false) ;
bool AddLeadOut( const Point3d& ptEnd, const Vector3d& vtEnd, const Vector3d& vtN,
const ICurveComposite* pRCrv, bool bSplitArcs, bool bNoneForced,
Point3d& ptP1, double& dElev) ;
const ICurveComposite* pRCrv, bool bSplitArcs, bool bNoneForced, Point3d& ptP1,
double& dElev, bool bRecalcElev = true) ;
bool AddLeadOut( const Point3d& ptEnd, const Vector3d& vtEnd, const Vector3d& vtN,
const ICurveComposite* pRCrv, bool bSplitArcs, bool bNoneForced,
Point3d& ptP1, double& dElev, bool& bOppositeHome) ;
Point3d& ptP1, double& dElev, bool& bOppositeHome, bool bRecalcElev = true) ;
bool SetLeadInPointStart( const Point3d& ptCurr, const Vector3d vtN,
const bool& bAtLeft, Vector3d& vtStart, Point3d& ptDest) ;
bool CalcLinkOnStep( const Point3d& ptS, const Point3d& ptE, const ISurfFlatRegion* pSfr,
const ISurfFlatRegion* pSfrLimit, ICurveComposite* pCrvStepLink) ;
double GetRadiusForStartEndElevation( void) const ;
bool GetForcedClosed( void) ;
bool GetMidOfLongestOpenSide( const ICurveComposite* pCompo, Point3d& ptMid, Vector3d& vtMidOut) ;
bool AdjustContourWithOpenEdges( ICurveComposite* pCompo) ;
bool AdjustContourStart( ICurveComposite* pCompo) ;
bool VerifyLeadInHelix( const ICurveComposite* pCompo, const Point3d& ptCen, double dRad) const ;
bool VerifyLeadInZigZag( const ICurveComposite* pCompo, const Point3d& ptPa, const Point3d& ptPb) const ;
bool CalcDistanceFromRawSurface( int nPhase, const Point3d& ptP, const Vector3d& vtDir, double& dDist, Vector3d& vtNorm) ;
// ===================================================================
private :
double GetSpeed( void) const
@@ -177,21 +346,31 @@ class Pocketing : public Machining
return m_Params.m_nLeadOutType ; }
private :
SELVECTOR m_vId ; // identificativi entità geometriche da lavorare
PocketingData m_Params ; // parametri lavorazione
ToolData m_TParams ; // parametri utensile
double m_dTHoldBase ; // posizione base del porta-utensile
double m_dTHoldLen ; // lunghezza del porta-utensile
double m_dTHoldDiam ; // diametro del porta-utensile
double m_dMaxHelixRad ; // raggio massimo attacco ad elica nel caso di cerchi
int m_nStatus ; // stato di aggiornamento della lavorazione
int m_nPockets ; // numero di percorsi di svuotatura generati
bool m_bTiltingTab ; // flag utilizzo tavola basculante
Vector3d m_vtTiltingAx ; // versore direzione eventuale asse basculante
bool m_bAboveHead ; // flag utilizzo testa da sopra
bool m_bAggrBottom ; // flag di utilizzo dell'aggregato da sotto
Vector3d m_vtAggrBottom ; // vettore direzione ausiliaria aggregato da sotto
AggrBottom m_AggrBottom ; // dati eventuale aggregato da sotto
bool m_bOpenOutRaw ; // flag forzatura lati aperti sempre fuori dal grezzo
double m_dOpenMinSafe ; // minima distanza di sicurezza di attacco su lato aperto
SELVECTOR m_vId ; // identificativi entit geometriche da lavorare
PocketingData m_Params ; // parametri lavorazione
ToolData m_TParams ; // parametri utensile
double m_dTHoldBase ; // posizione base del porta-utensile
double m_dTHoldLen ; // lunghezza del porta-utensile
double m_dTHoldDiam ; // diametro del porta-utensile
double m_dMaxHelixRad ; // raggio massimo attacco ad elica nel caso di cerchi
int m_nStatus ; // stato di aggiornamento della lavorazione
int m_nPockets ; // numero di percorsi di svuotatura generati
bool m_bTiltingTab ; // flag utilizzo tavola basculante
Vector3d m_vtTiltingAx ; // versore direzione eventuale asse basculante
bool m_bAboveHead ; // flag utilizzo testa da sopra
bool m_bAggrBottom ; // flag di utilizzo dell'aggregato da sotto
Vector3d m_vtAggrBottom ; // vettore direzione ausiliaria aggregato da sotto
AggrBottom m_AggrBottom ; // dati eventuale aggregato da sotto
bool m_bOpenOutRaw ; // flag forzatura lati aperti sempre fuori dal grezzo
double m_dOpenMinSafe ; // minima distanza di sicurezza di attacco su lato aperto
bool m_bOptOffset ; // flag per ottimizzazione numero di Offset necessari
bool m_bOptOffsetCM ; // flag per ottimizzazione numero di Offset necessari con centroidi e medial Axis
bool m_bAssignFeed ; // flag per controllo della Feed
double m_dDiam_Prec ; // diametro utensile per precedente svuotatura
double m_dOffsetR_Prec ; // offset radiale della svuotatura precedente
double m_dSideStep_Prec ; // side Step della svuotatura precedente
double m_dLen_Prec ; // Lunghezza del tool precedente
bool m_bOrderStepZ ; // parametro per ordinare gli step Extra per Z decrescente o meno
bool m_bPocketPlane ; // flag per svuotare solo la rimanenza sullo Step Extra
double m_dOpenEdgeRad ; // raggio di rientro per i lati aperti
} ;
+12 -16
View File
@@ -521,8 +521,8 @@ bool
Processor::UpdateAxes( void)
{
// Carico i nomi degli assi macchina attivi
return m_pMachine->GetAllCurrAxesNames( m_AxesName) &&
m_pMachine->GetAllCurrAxesTokens( m_AxesToken) ;
return m_pMachine->GetAllCurrAxesName( m_AxesName) &&
m_pMachine->GetAllCurrAxesToken( m_AxesToken) ;
}
//----------------------------------------------------------------------------
@@ -843,16 +843,15 @@ Processor::OnToolSelect( const string& sTool, const string& sHead, int nExit, co
bOk = bOk && m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_EXIT, nExit) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_TCPOS, sTcPos) ;
// assegno il token e il nome degli assi
bool bIsRobot = m_pMchMgr->GetCurrIsRobot() ;
int nNumAxes = int( m_AxesName.size()) ;
for ( int i = 1 ; i <= MAX_AXES ; ++ i) {
if ( i <= nNumAxes) {
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisToken( i, bIsRobot), m_AxesToken[i-1]) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisName( i, bIsRobot), m_AxesName[i-1]) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisToken(i), m_AxesToken[i-1]) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisName(i), m_AxesName[i-1]) ;
}
else {
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisToken( i, bIsRobot)) ;
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisName( i, bIsRobot)) ;
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisToken(i)) ;
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisName(i)) ;
}
}
// chiamo la funzione di selezione utensile
@@ -984,13 +983,12 @@ Processor::OnRapid( int nEntId, int nEntInd, int nMove, const DBLVECTOR& AxesEnd
// assegno il tipo di movimento
bOk = bOk && m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_MOVE, nMove) ;
// assegno il valore degli assi
bool bIsRobot = m_pMchMgr->GetCurrIsRobot() ;
int nNumAxes = int( AxesEnd.size()) ;
for ( int i = 1 ; i <= MAX_AXES ; ++ i) {
if ( i <= nNumAxes)
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisValue( i, GLOB_VAR, bIsRobot), AxesEnd[i-1]) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisValue(i), AxesEnd[i-1]) ;
else
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisValue( i, GLOB_VAR, bIsRobot)) ;
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisValue(i)) ;
}
// assegno la mascheratura degli assi
bOk = bOk && m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_MASK, nAxesMask) ;
@@ -1025,13 +1023,12 @@ Processor::OnLinear( int nEntId, int nEntInd, int nMove, const DBLVECTOR& AxesEn
// assegno il tipo di movimento
bOk = bOk && m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_MOVE, nMove) ;
// assegno il valore degli assi
bool bIsRobot = m_pMchMgr->GetCurrIsRobot() ;
int nNumAxes = int( AxesEnd.size()) ;
for ( int i = 1 ; i <= MAX_AXES ; ++ i) {
if ( i <= nNumAxes)
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisValue( i, GLOB_VAR, bIsRobot), AxesEnd[i-1]) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisValue(i), AxesEnd[i-1]) ;
else
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisValue( i, GLOB_VAR, bIsRobot)) ;
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisValue(i)) ;
}
// assegno il valore del versore utensile
bOk = bOk && m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_TDIR, vtTool) ;
@@ -1065,13 +1062,12 @@ Processor::OnArc( int nEntId, int nEntInd, int nMove, const DBLVECTOR& AxesEnd,
// assegno il tipo di movimento
bOk = bOk && m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_MOVE, nMove) ;
// assegno il valore degli assi
bool bIsRobot = m_pMchMgr->GetCurrIsRobot() ;
int nNumAxes = int( AxesEnd.size()) ;
for ( int i = 1 ; i <= MAX_AXES ; ++ i) {
if ( i <= nNumAxes)
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisValue( i, GLOB_VAR, bIsRobot), AxesEnd[i-1]) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisValue(i), AxesEnd[i-1]) ;
else
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisValue( i, GLOB_VAR, bIsRobot)) ;
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisValue(i)) ;
}
// assegno le coordinate del centro
bOk = bOk && m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_C1, ptCen.x) ;
+47 -86
View File
@@ -4,7 +4,7 @@
// File : Sawing.cpp Data : 24.10.15 Versione : 1.6j3
// Contenuto : Implementazione gestione tagli con lama.
//
// Note : Questa lavorazione è sempre espressa nel riferimento globale.
// Note : Questa lavorazione è sempre espressa nel riferimento globale.
//
// Modifiche : 07.06.15 DS Creazione modulo.
//
@@ -532,15 +532,15 @@ Sawing::SetParam( int nType, const string& sVal)
bool
Sawing::SetGeometry( const SELVECTOR& vIds)
{
// verifico validità gestore DB geometrico
// verifico validità gestore DB geometrico
if ( m_pGeomDB == nullptr)
return false ;
// reset della geometria corrente
m_vId.clear() ;
// verifico che gli identificativi rappresentino delle entità ammissibili
// verifico che gli identificativi rappresentino delle entità ammissibili
int nType = GEO_NONE ;
for ( const auto& Id : vIds) {
// test sull'entità
// test sull'entità
int nSubs ;
if ( ! VerifyGeometry( Id, nSubs, nType)) {
string sInfo = "Warning in Sawing : Skipped entity " + ToString( Id) ;
@@ -563,14 +563,14 @@ Sawing::Preview( bool bRecalc)
// reset numero tagli nella lavorazione
m_nCuts = 0 ;
// verifico validità gestore DB geometrico e Id del gruppo
// verifico validità gestore DB geometrico e Id del gruppo
if ( m_pGeomDB == nullptr || ! m_pGeomDB->ExistsObj( m_nOwnerId))
return false ;
// recupero gruppo per geometria ausiliaria
int nAuxId = m_pGeomDB->GetFirstNameInGroup( m_nOwnerId, MCH_AUX) ;
bool bChain = false ;
// se non c'è, lo aggiungo
// se non c'è, lo aggiungo
if ( nAuxId == GDB_ID_NULL) {
nAuxId = m_pGeomDB->AddGroup( GDB_ID_NULL, m_nOwnerId, Frame3d()) ;
if ( nAuxId == GDB_ID_NULL)
@@ -603,7 +603,7 @@ Sawing::Preview( bool bRecalc)
// recupero gruppo per anteprima di lavorazione (PreView)
int nPvId = m_pGeomDB->GetFirstNameInGroup( m_nOwnerId, MCH_PV) ;
// se non c'è, lo aggiungo
// se non c'è, lo aggiungo
if ( nPvId == GDB_ID_NULL) {
nPvId = m_pGeomDB->AddGroup( GDB_ID_NULL, m_nOwnerId, Frame3d()) ;
if ( nPvId == GDB_ID_NULL)
@@ -633,7 +633,7 @@ Sawing::Apply( bool bRecalc, bool bPostApply)
int nCurrCuts = m_nCuts ;
m_nCuts = 0 ;
// verifico validità gestore DB geometrico e Id del gruppo
// verifico validità gestore DB geometrico e Id del gruppo
if ( m_pGeomDB == nullptr || ! m_pGeomDB->ExistsObj( m_nOwnerId))
return false ;
@@ -662,7 +662,7 @@ Sawing::Apply( bool bRecalc, bool bPostApply)
// recupero gruppo per geometria ausiliaria
int nAuxId = m_pGeomDB->GetFirstNameInGroup( m_nOwnerId, MCH_AUX) ;
bool bChain = false ;
// se non c'è, lo aggiungo
// se non c'è, lo aggiungo
if ( nAuxId == GDB_ID_NULL) {
nAuxId = m_pGeomDB->AddGroup( GDB_ID_NULL, m_nOwnerId, Frame3d()) ;
if ( nAuxId == GDB_ID_NULL)
@@ -689,7 +689,7 @@ Sawing::Apply( bool bRecalc, bool bPostApply)
// recupero gruppo per geometria di lavorazione (Cutter Location)
int nClId = m_pGeomDB->GetFirstNameInGroup( m_nOwnerId, MCH_CL) ;
// se non c'è, lo aggiungo
// se non c'è, lo aggiungo
if ( nClId == GDB_ID_NULL) {
nClId = m_pGeomDB->AddGroup( GDB_ID_NULL, m_nOwnerId, Frame3d()) ;
if ( nClId == GDB_ID_NULL)
@@ -732,7 +732,7 @@ Sawing::Apply( bool bRecalc, bool bPostApply)
bool
Sawing::Update( bool bPostApply)
{
// verifico validità gestore DB geometrico e Id del gruppo
// verifico validità gestore DB geometrico e Id del gruppo
if ( m_pGeomDB == nullptr || ! m_pGeomDB->ExistsObj( m_nOwnerId))
return false ;
@@ -742,7 +742,7 @@ Sawing::Update( bool bPostApply)
return true ;
}
// elimino le entità CLIMB, RISE e HOME della lavorazione, potrebbero falsare i calcoli degli assi (in ogni casi vengono riaggiunte dopo)
// elimino le entità CLIMB, RISE e HOME della lavorazione, potrebbero falsare i calcoli degli assi (in ogni casi vengono riaggiunte dopo)
RemoveClimbRiseHome() ;
// imposto eventuale asse bloccato da lavorazione
@@ -794,7 +794,7 @@ Sawing::Update( bool bPostApply)
bool
Sawing::AdjustFeeds( void)
{
// controlli su GeomDB e simili non ripetuti perchè già fatti
// controlli su GeomDB e simili non ripetuti perchè già fatti
// recupero gruppo della geometria di lavorazione (Cutter Location)
int nClId = m_pGeomDB->GetFirstNameInGroup( GetOwner(), MCH_CL) ;
@@ -804,11 +804,11 @@ Sawing::AdjustFeeds( void)
// ciclo sui gruppi CL
int nClPathId = m_pGeomDB->GetFirstGroupInGroup( nClId) ;
while ( nClPathId != GDB_ID_NULL) {
// ciclo su tutte le entità del percorso CL
// ciclo su tutte le entità del percorso CL
for ( int nEntId = m_pGeomDB->GetFirstInGroup( nClPathId) ;
nEntId != GDB_ID_NULL ;
nEntId = m_pGeomDB->GetNext( nEntId)) {
// recupero i dati Cam dell'entità
// recupero i dati Cam dell'entità
CamData* pCamData = GetCamData( m_pGeomDB->GetUserObj( nEntId)) ;
if ( pCamData == nullptr)
continue ;
@@ -1075,7 +1075,7 @@ Sawing::UpdateToolData( bool* pbChanged)
bool
Sawing::GetGeometry( SELVECTOR& vIds) const
{
// restituisco l'elenco delle entità
// restituisco l'elenco delle entità
vIds = m_vId ;
return true ;
}
@@ -1098,7 +1098,7 @@ Sawing::VerifyGeometry( SelData Id, int& nSubs, int& nType)
const IGeoObj* pGObj = m_pGeomDB->GetGeoObj( Id.nId) ;
if ( pGObj == nullptr)
return false ;
// se ammesse curve ed è tale
// se ammesse curve ed è tale
if ( ( nType == GEO_NONE || nType == GEO_CURVE) && ( pGObj->GetType() & GEO_CURVE) != 0) {
nType = GEO_CURVE ;
const ICurve* pCurve = nullptr ;
@@ -1122,7 +1122,7 @@ Sawing::VerifyGeometry( SelData Id, int& nSubs, int& nType)
}
return ( pCurve != nullptr) ;
}
// se altrimenti ammesse superfici trimesh ed è tale
// se altrimenti ammesse superfici trimesh ed è tale
else if ( ( nType == GEO_NONE || nType == GEO_SURF) && pGObj->GetType() == SRF_TRIMESH) {
nType = GEO_SURF ;
const ISurfTriMesh* pSurf = ::GetSurfTriMesh( pGObj) ;
@@ -1142,7 +1142,7 @@ Sawing::VerifyGeometry( SelData Id, int& nSubs, int& nType)
}
return true ;
}
// se altrimenti ammesse regioni ed è tale
// se altrimenti ammesse regioni ed è tale
else if ( ( nType == GEO_NONE || nType == GEO_SURF) && pGObj->GetType() == SRF_FLATRGN) {
nType = GEO_SURF ;
const ISurfFlatRegion* pReg = ::GetSurfFlatRegion( pGObj) ;
@@ -1335,7 +1335,7 @@ Sawing::Chain( int nGrpDestId)
for ( const auto& Id : m_vId) {
// prendo curva
vpCrvs.emplace_back( GetCurve( Id)) ;
// ne verifico la validità
// ne verifico la validità
if ( IsNull( vpCrvs.back())) {
string sInfo = "Warning in Sawing : Skipped entity " + ToString( Id) ;
m_pMchMgr->SetWarning( 2251, sInfo) ;
@@ -1477,7 +1477,7 @@ Sawing::ProcessPath( int nPathId, int nPvId, int nClId)
// recupero gruppo per geometria temporanea
const string GRP_TEMP = "Temp" ;
int nTempId = m_pGeomDB->GetFirstNameInGroup( m_nOwnerId, GRP_TEMP) ;
// se non c'è, lo aggiungo
// se non c'è, lo aggiungo
if ( nTempId == GDB_ID_NULL) {
nTempId = m_pGeomDB->AddGroup( GDB_ID_NULL, m_nOwnerId, Frame3d()) ;
if ( nTempId == GDB_ID_NULL)
@@ -1542,7 +1542,7 @@ Sawing::ProcessPath( int nPathId, int nPvId, int nClId)
// elaboro la curva composita e la esplodo nelle curve componenti
if ( m_Params.m_nCurveUse == SAW_CRV_APPROX ||
m_Params.m_nCurveUse == SAW_CRV_CONVEX) {
// calcolo l'approssimazione lineare con eventuale convessità
// calcolo l'approssimazione lineare con eventuale convessità
PolyLine PL ;
int nType = ICurve::APL_STD ;
if ( m_Params.m_nWorkSide == SAW_WS_LEFT)
@@ -1631,7 +1631,7 @@ Sawing::ProcessPath( int nPathId, int nPvId, int nClId)
// flag di curva chiusa
bool bClosed = pCompo->IsClosed() ;
// calcolo gli eventuali punti di perdita di tangenza e di cambio di concavità
// calcolo gli eventuali punti di perdita di tangenza e di cambio di concavità
DBLVECTOR vU ;
const double ANG_PERD_TG = 1.0 ;
const ICurveArc* pArc = ( bClosed ? GetCurveArc( pCompo->GetLastCurve()) : nullptr) ;
@@ -1647,7 +1647,7 @@ Sawing::ProcessPath( int nPathId, int nPvId, int nClId)
nCurrConv = 0 ;
continue ;
}
// verifico cambio di concavità e/o lavorazione interna
// verifico cambio di concavità e/o lavorazione interna
const ICurve* pCrv = pCompo->GetCurve( i) ;
if ( pCrv->GetType() == CRV_ARC) {
if ( GetCurveArc( pCrv)->GetAngCenter() > 0) {
@@ -1729,7 +1729,7 @@ Sawing::ProcessEntity( const ICurve* pCrvP, const ICurve* pCrvC, const ICurve* p
// altrimenti
else {
if ( m_Params.m_nCurveUse == SAW_CRV_KEEP) {
// determino la convessità
// determino la convessità
int nConv = 0 ;
for ( int i = 0 ; i < pCompo->GetCurveCount() ; ++ i) {
const ICurveArc* pArc = GetCurveArc( pCompo->GetCurve( i)) ;
@@ -1830,7 +1830,7 @@ Sawing::ProcessLine( const ICurve* pCrvP, const ICurveLine* pLineC, const ICurve
( m_Params.m_nWorkSide == SAW_WS_RIGHT && dAngCN < - EPS_ANG_SMALL))
bExtAngCN = false ;
}
// verifico eventuale attacco speciale a step (se parametri validi e su entità linea singola)
// verifico eventuale attacco speciale a step (se parametri validi e su entità linea singola)
double dLiStep = 0 ;
double dLiElev = 0 ;
if ( m_Params.m_dLiTang > 10 * EPS_SMALL && m_Params.m_dLiElev > 10 * EPS_SMALL &&
@@ -1851,7 +1851,7 @@ Sawing::ProcessLine( const ICurve* pCrvP, const ICurveLine* pLineC, const ICurve
return true ;
}
// Eventuale variazioni di velocità all'inizio e alla fine del percorso
// Eventuale variazioni di velocità all'inizio e alla fine del percorso
FseVar FvVar ;
if ( pCrvP == nullptr) {
string sFsta = ExtractInfo( m_Params.m_sUserNotes, "Fsta=") ;
@@ -1999,7 +1999,7 @@ Sawing::GenerateLinePv( const ICurveLine* pLine, const Vector3d& vtTool, const V
ptREnd + vtDir * ( dDtEnd + dExtraL) , RTY_LOC) ;
m_pGeomDB->SetName( nReId, MCH_PV_RLOCUT) ;
m_pGeomDB->SetMaterial( nReId, INVISIBLE) ;
// eventuali ripetizioni in basso per tagli inclinati
if ( abs( m_Params.m_dSideAngle) > EPS_ANG_SMALL) {
// lunghezza movimento
@@ -2057,23 +2057,6 @@ Sawing::GenerateLinePv( const ICurveLine* pLine, const Vector3d& vtTool, const V
}
}
// creo regioni di lavorazione che interessano le superfici superiore e inferiore del grezzo considerando anche gli
// allungamenti dei baffi
int nSurfUpId = ExeCreateSurfFrRectangle3P( nPxId, ptIni - vtDir * ( dStartWhiskExt + 5 * EPS_SMALL),
ptCross + vtDir * ( dEndWhiskExt + 5 * EPS_SMALL),
ptEnd + vtDir * ( dEndWhiskExt + 5 * EPS_SMALL), RTY_LOC) ;
m_pGeomDB->SetName( nSurfUpId, MCH_PV_UP_RAWCUT) ;
m_pGeomDB->SetMaterial( nSurfUpId, INVISIBLE) ;
// solo se la lavorazione interessa il fondo del grezzo creo la superficie down
if ( dRbHeight < EPS_SMALL) {
int nSurfDownId = m_pGeomDB->CopyGlob( nSurfUpId, GDB_ID_NULL, nPxId) ;
double dMove = dElev + dRbHeight / cos( m_Params.m_dSideAngle * DEGTORAD) ;
Vector3d vtMove = - dMove * vtCorr ; vtMove.z = 0 ;
ExeMove( {nSurfDownId}, vtMove, RTY_LOC) ;
m_pGeomDB->SetName( nSurfDownId, MCH_PV_DOWN_RAWCUT) ;
m_pGeomDB->SetMaterial( nSurfDownId, INVISIBLE) ;
}
// salvo in info gruppo : larghezza XY del taglio, distanza XY tra centro e bordo taglio, extra taglio e quota minima della lama
m_pGeomDB->SetInfo( nPxId, MCH_PV_KEY_WT, vtToolH.LenXY()) ;
if ( dLiElev > EPS_SMALL)
@@ -2296,7 +2279,7 @@ Sawing::GenerateLineCl( const ICurveLine* pLine, const Vector3d& vtTool, const V
Point3d ptP3 = pLine->GetEnd() + vtCorr * dDelta ;
if ( AddLinearMove( ptP3) == GDB_ID_NULL)
return false ;
// se non è ultimo passo
// se non è ultimo passo
if ( i != 0) {
// movimento di risalita sopra il punto finale
SetFeed( GetEndFeed()) ;
@@ -2492,7 +2475,7 @@ Sawing::GenerateExtCurvePv( const ICurveComposite* pCrv, double dOffs,
if ( abs( m_Params.m_dSideAngle) > EPS_ANG_SMALL)
colCut = FUCHSIA ;
// dimensione da aggiungere alle regioni nelle parti in cui la lama è inclinata
// dimensione da aggiungere alle regioni nelle parti in cui la lama è inclinata
double dExtraL = m_pMchMgr->GetCurrMachiningsMgr()->GetExtraLOnCutRegion() ;
// lunghezza taglio parziale
@@ -2640,17 +2623,6 @@ Sawing::GenerateExtCurvePv( const ICurveComposite* pCrv, double dOffs,
return false ;
if ( ! ExeSurfFrAdd( nRId, nRsId) || ! ExeSurfFrAdd( nRId, nReId))
return false ;
// creo regioni di lavorazione che interessano le superfici superiore e inferiore del grezzo
int nSurfUpId = m_pGeomDB->CopyGlob( nRrId, GDB_ID_NULL, nPxId) ;
m_pGeomDB->SetName( nSurfUpId, MCH_PV_UP_RAWCUT) ;
m_pGeomDB->SetMaterial( nSurfUpId, INVISIBLE) ;
// solo se lavorazione interessa il fondo del grezzo creo la superficie down
if ( dRbHeight < EPS_SMALL) {
int nSurfDownId = m_pGeomDB->CopyGlob( nSurfUpId, GDB_ID_NULL, nPxId) ;
m_pGeomDB->SetName( nSurfDownId, MCH_PV_DOWN_RAWCUT) ;
m_pGeomDB->SetMaterial( nSurfDownId, INVISIBLE) ;
}
}
// altrimenti errore
@@ -2896,7 +2868,7 @@ Sawing::GenerateExtCurveCl( const ICurveComposite* pCrv,
CalculateToolAndCorrVersors( vtCurrDir, m_Params.m_nHeadSide, m_Params.m_nWorkSide, m_Params.m_dSideAngle, vtCurrTool, vtCurrCorr) ;
SetToolDir( vtCurrTool) ;
SetCorrAuxDir( vtCurrCorr) ;
if ( AddCurveMove( pSmpCrv) == GDB_ID_NULL)
if ( AddCurveMove( pSmpCrv, true) == GDB_ID_NULL)
return false ;
}
// 4 -> retrazione
@@ -2974,7 +2946,7 @@ Sawing::GenerateExtCurveCl( const ICurveComposite* pCrv,
pCopy->SimpleOffset( dOffs) ;
}
// emissione
if ( AddCurveMove( pCopy) == GDB_ID_NULL)
if ( AddCurveMove( pCopy, true) == GDB_ID_NULL)
return false ;
}
}
@@ -3007,7 +2979,7 @@ Sawing::GenerateExtCurveCl( const ICurveComposite* pCrv,
// inversione
pCopy->Invert() ;
// emissione
if ( AddCurveMove( pCopy) == GDB_ID_NULL)
if ( AddCurveMove( pCopy, true) == GDB_ID_NULL)
return false ;
}
}
@@ -3074,10 +3046,10 @@ Sawing::GenerateExtCurveCl( const ICurveComposite* pCrv,
pCopy->SimpleOffset( dOffs) ;
}
// emissione
if ( AddCurveMove( pCopy) == GDB_ID_NULL)
if ( AddCurveMove( pCopy, true) == GDB_ID_NULL)
return false ;
}
// se non è ultimo passo
// se non è ultimo passo
if ( i != 0) {
// ricavo punto di risalita e punto iniziale
Point3d ptP4 ;
@@ -3221,7 +3193,7 @@ Sawing::ProcessIntArc( const ICurve* pCrvP, const ICurveArc* pArcC, const ICurve
m_pMchMgr->SetWarning( 2257, "Warning in Sawing : skipped Entity too small") ;
return true ;
}
// ricalcolo i versori fresa alle estremità (potrebbero essere cambiate)
// ricalcolo i versori fresa alle estremità (potrebbero essere cambiate)
pArc->GetStartDir( vtStaDirC) ;
pArc->GetMidDir( vtMidDirC) ;
pArc->GetEndDir( vtEndDirC) ;
@@ -3313,7 +3285,7 @@ Sawing::GenerateIntArcPv( const ICurveArc* pArc,
m_pGeomDB->SetName( nId3, MCH_PV_POST_CUT) ;
m_pGeomDB->SetMaterial( nId3, BLUE) ;
// dimensione da aggiungere alle regioni nelle parti in cui la lama è inclinata
// dimensione da aggiungere alle regioni nelle parti in cui la lama è inclinata
double dExtraL = m_pMchMgr->GetCurrMachiningsMgr()->GetExtraLOnCutRegion() ;
// regione ridotta di taglio per nesting (escluse parti iniziali e finali)
@@ -3367,17 +3339,6 @@ Sawing::GenerateIntArcPv( const ICurveArc* pArc,
if ( ! ExeSurfFrAdd( nRId, nRsId) || ! ExeSurfFrAdd( nRId, nReId))
return false ;
// creo regioni di lavorazione che interessano le superfici superiore e inferiore del grezzo
int nSurfUpId = m_pGeomDB->CopyGlob( nRrId, GDB_ID_NULL, nPxId) ;
m_pGeomDB->SetName( nSurfUpId, MCH_PV_UP_RAWCUT) ;
m_pGeomDB->SetMaterial( nSurfUpId, INVISIBLE) ;
// solo se lavorazione interessa il fondo del grezzo creo la superficie down
if ( dRbHeight < EPS_SMALL) {
int nSurfDownId = m_pGeomDB->CopyGlob( nSurfUpId, GDB_ID_NULL, nPxId) ;
m_pGeomDB->SetName( nSurfDownId, MCH_PV_DOWN_RAWCUT) ;
m_pGeomDB->SetMaterial( nSurfDownId, INVISIBLE) ;
}
// salvo in info gruppo : larghezza XY del taglio, distanza XY tra centro e bordo taglio, extra taglio e quota minima della lama
m_pGeomDB->SetInfo( nPxId, MCH_PV_KEY_WT, dDeltaInt + dDeltaExt) ;
m_pGeomDB->SetInfo( nPxId, MCH_PV_KEY_DT, dDeltaT * dLenCoeff) ;
@@ -3610,12 +3571,12 @@ Sawing::GenerateIntArcCl( const ICurveArc* pArc,
else {
Point3d ptMid ;
pArc->GetMidPoint( ptMid) ;
// prima metà arco
// prima metà arco
SetToolDir( vtMidTool) ;
SetCorrAuxDir( vtMidCorr) ;
if ( AddArcMove( ptMid, ptCen, dAngCen / 2, vtN) == GDB_ID_NULL)
return false ;
// seconda metà arco
// seconda metà arco
SetToolDir( vtEndTool) ;
SetCorrAuxDir( vtEndCorr) ;
if ( AddArcMove( ptP3, ptCen, dAngCen / 2, vtN) == GDB_ID_NULL)
@@ -3696,12 +3657,12 @@ Sawing::GenerateIntArcCl( const ICurveArc* pArc,
pArc->GetMidPoint( ptMid) ;
ptMid += Z_AX * dDelta ;
double dCurrAngCen = dAngCen / 2 * ((( i % 2) == 0) ? -1 : 1) ;
// prima metà arco
// prima metà arco
SetToolDir( vtMidTool) ;
SetCorrAuxDir( vtMidCorr) ;
if ( AddArcMove( ptMid, ptCen, dCurrAngCen, vtN) == GDB_ID_NULL)
return false ;
// seconda metà arco
// seconda metà arco
SetToolDir( ( ( i % 2) == 0) ? vtStaTool : vtEndTool) ;
SetCorrAuxDir( ( ( i % 2) == 0) ? vtStaCorr : vtEndCorr) ;
if ( AddArcMove( ptP3, ptCen, dCurrAngCen, vtN) == GDB_ID_NULL)
@@ -3785,18 +3746,18 @@ Sawing::GenerateIntArcCl( const ICurveArc* pArc,
Point3d ptMid ;
pArc->GetMidPoint( ptMid) ;
ptMid += Z_AX * dDelta ;
// prima metà arco
// prima metà arco
SetToolDir( vtMidTool) ;
SetCorrAuxDir( vtMidCorr) ;
if ( AddArcMove( ptMid, ptCen, dAngCen / 2, vtN) == GDB_ID_NULL)
return false ;
// seconda metà arco
// seconda metà arco
SetToolDir( vtEndTool) ;
SetCorrAuxDir( vtEndCorr) ;
if ( AddArcMove( ptP3, ptCen, dAngCen / 2, vtN) == GDB_ID_NULL)
return false ;
}
// se non è ultimo passo
// se non è ultimo passo
if ( i != 0) {
// movimento di risalita sopra il punto finale
SetFeed( GetEndFeed()) ;
@@ -3918,7 +3879,7 @@ Sawing::CalculateToolAndCorrVersors( const Vector3d& vtTang, int nHeadSide, int
bool
Sawing::AdjustForSide( ICurve* pCurve)
{
// se lato lavoro e lato mandrino coincidono, non devo fare alcunché
// se lato lavoro e lato mandrino coincidono, non devo fare alcunché
if ( ( m_Params.m_nWorkSide == SAW_WS_LEFT && m_Params.m_nHeadSide == SAW_HS_LEFT) ||
( m_Params.m_nWorkSide == SAW_WS_RIGHT && m_Params.m_nHeadSide == SAW_HS_RIGHT))
return true ;
@@ -4087,7 +4048,7 @@ Sawing::AdjustLineForEdges( ICurveLine* pLine, double dElev, const Vector3d& vtC
dDeltaLoExt = dDeltaF ;
}
}
// controllo se lunghezza entità accettabile
// controllo se lunghezza entità accettabile
const double MIN_LEN = 1 ;
double dLenXY = DistXY( pLine->GetStart(), pLine->GetEnd()) ;
if ( dDeltaI + dLenXY + dDeltaF < MIN_LEN) {
@@ -4158,7 +4119,7 @@ Sawing::AdjustCurveForEdges( ICurve* pCrv, double dElev, double dLenCoeff,
dDeltaF = dDeltaT ;
}
dDeltaF *= dLenCoeff ;
// controllo se lunghezza entità accettabile
// controllo se lunghezza entità accettabile
const double MIN_LEN = 1 ;
double dLenXY ;
pCrv->GetLength( dLenXY) ;
+14 -18
View File
@@ -282,15 +282,15 @@ Simulator::Move( int& nStatus)
m_dCoeff = 0 ;
}
// Se appena arrivato alla fine di un percorso di lavoro (verifico anche completamento dei comandi aux di start per path vuote)
if ( m_nEntId == GDB_ID_NULL && m_nAuxEInd == 0 && m_nCLPathInd > 0 && m_nAuxSInd >= m_nAuxSTot) {
// Se appena arrivato alla fine di un percorso di lavoro
if ( m_nEntId == GDB_ID_NULL && m_nAuxEInd == 0 && m_nCLPathInd > 0) {
// gestione fine percorso di lavoro
if ( ! ManagePathEnd( nStatus))
return false ;
}
// Se alla fine del percorso dopo esecuzione azioni ausiliarie (verifico anche completamento dei comandi aux di start per path vuote)
if ( m_nEntId == GDB_ID_NULL && m_nAuxEInd >= m_nAuxETot && m_nAuxSInd >= m_nAuxSTot) {
// Se alla fine del percorso dopo esecuzione azioni ausiliarie
if ( m_nEntId == GDB_ID_NULL && m_nAuxEInd >= m_nAuxETot) {
// ricerca e gestione inizio percorso di lavoro
if ( ! FindAndManagePathStart( nStatus))
return false ;
@@ -579,8 +579,8 @@ Simulator::UpdateAxes( void)
if ( pMachine == nullptr)
return false ;
// Carico i nomi e i token degli assi macchina attivi
if ( ! pMachine->GetAllCurrAxesNames( m_AxesName) ||
! pMachine->GetAllCurrAxesTokens( m_AxesToken))
if ( ! pMachine->GetAllCurrAxesName( m_AxesName) ||
! pMachine->GetAllCurrAxesToken( m_AxesToken))
return false ;
// Aggiorno flag di invertito, offset, tipo e posizione corrente degli assi macchina attivi
for ( size_t i = 0 ; i < m_AxesName.size() ; ++ i) {
@@ -1622,17 +1622,16 @@ Simulator::OnToolSelect( const string& sTool, const string& sHead, int nExit, co
! m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_TCPOS, sTcPos))
return false ;
// assegno il token e il nome degli assi
bool bIsRobot = m_pMchMgr->GetCurrIsRobot() ;
int nNumAxes = int( m_AxesName.size()) ;
for ( int i = 1 ; i <= MAX_AXES ; ++ i) {
if ( i <= nNumAxes) {
if ( ! m_pMachine->LuaSetGlobVar( GetGlobVarAxisToken( i, bIsRobot), m_AxesToken[i-1]) ||
! m_pMachine->LuaSetGlobVar( GetGlobVarAxisName( i, bIsRobot), m_AxesName[i-1]))
if ( ! m_pMachine->LuaSetGlobVar( GetGlobVarAxisToken(i), m_AxesToken[i-1]) ||
! m_pMachine->LuaSetGlobVar( GetGlobVarAxisName(i), m_AxesName[i-1]))
return false ;
}
else {
if ( ! m_pMachine->LuaResetGlobVar( GetGlobVarAxisToken( i, bIsRobot)) ||
! m_pMachine->LuaResetGlobVar( GetGlobVarAxisName( i, bIsRobot)))
if ( ! m_pMachine->LuaResetGlobVar( GetGlobVarAxisToken(i)) ||
! m_pMachine->LuaResetGlobVar( GetGlobVarAxisName(i)))
return false ;
}
}
@@ -1875,17 +1874,16 @@ Simulator::OnMoveStart( const CamData* pCamData, int& nErr)
bOk = bOk && m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_INDEX, pCamData->GetIndex()) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GLOB_VAR + GVAR_ERR, nErr) ;
// valore degli assi all'inizio e alla fine del movimento
bool bIsRobot = m_pMchMgr->GetCurrIsRobot() ;
int nNumAxes = int( m_AxesName.size()) ;
const DBLVECTOR& AxesEnd = pCamData->GetAxesVal() ;
for ( int i = 1 ; i <= MAX_AXES ; ++ i) {
if ( i <= nNumAxes) {
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisPrev( i, GLOB_VAR, bIsRobot), m_AxesVal[i-1]) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisValue( i, GLOB_VAR, bIsRobot), AxesEnd[i-1]) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisPrev( i), m_AxesVal[i-1]) ;
bOk = bOk && m_pMachine->LuaSetGlobVar( GetGlobVarAxisValue( i), AxesEnd[i-1]) ;
}
else {
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisPrev( i, GLOB_VAR, bIsRobot)) ;
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisValue( i, GLOB_VAR, bIsRobot)) ;
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisPrev( i)) ;
bOk = bOk && m_pMachine->LuaResetGlobVar( GetGlobVarAxisValue( i)) ;
}
}
// versori utensile, correzione e ausiliario alla fine del movimento
@@ -2139,8 +2137,6 @@ Simulator::SetToolForVmill( const string& sTool, const string& sHead, int nExit,
ExeVolZmapSetSawTool( vVmill, sTool, dLen, dDiam, dThick, 0, dCornR, nFlag, bFirst) ;
else if ( nType == TT_WATERJET)
ExeVolZmapSetStdTool( vVmill, sTool, dLen + 50, dDiam, dCornR, dMaxMat, nFlag, bFirst) ;
else if ( nType == TT_ADDITIVE)
ExeVolZmapSetAdditiveTool( vVmill, sTool, dLen, dDiam, dCornR, nFlag, bFirst) ;
else if ( abs( dSideAng) < EPS_ANG_SMALL || abs( dThick) < EPS_SMALL) {
ExeVolZmapSetStdTool( vVmill, sTool, dLen, dDiam, dCornR, dMaxMat, nFlag, bFirst) ;
}
+4 -9
View File
@@ -1,7 +1,7 @@
//----------------------------------------------------------------------------
// EgalTech 2015-2024
// EgalTech 2015-2015
//----------------------------------------------------------------------------
// File : Table.cpp Data : 19.03.24 Versione : 2.6c2
// File : Table.cpp Data : 25.05.15 Versione : 1.6e7
// Contenuto : Oggetto tavola per gruppo tavola di macchina.
//
//
@@ -45,7 +45,6 @@ Table::Clone( void) const
pTab->m_sName = m_sName ;
pTab->m_nType = m_nType ;
pTab->m_ptRef1 = m_ptRef1 ;
pTab->m_vsColl = m_vsColl ;
}
catch( ...) {
delete pTab ;
@@ -64,10 +63,7 @@ Table::Dump( string& sOut, bool bMM, const char* szNewLine) const
sOut += "Id=" + ToString( m_nOwnerId) + szNewLine ;
sOut += "Name=" + m_sName + szNewLine ;
sOut += "Type=" + ToString( m_nType) + szNewLine ;
sOut += "Ref1=(" + ToString( GetInUiUnits( m_ptRef1, bMM), 4) + ")" + szNewLine ;
sOut += "Area1=(" + ToString( GetInUiUnits( m_b3Area1.GetMin(), bMM), 4) + ";" +
ToString( GetInUiUnits( m_b3Area1.GetMax(), bMM), 4) + szNewLine ;
sOut += "Coll=" + ToString( m_vsColl) + szNewLine ;
sOut += "Ref1=(" + ToString( GetInUiUnits(m_ptRef1, bMM), 4) + ")" + szNewLine ;
return true ;
}
@@ -103,12 +99,11 @@ Table::Table( void)
//----------------------------------------------------------------------------
bool
Table::Set( const string& sName, int nType, const Point3d& ptRef1, const BBox3d& b3Area1, const STRVECTOR& vsColl)
Table::Set( const string& sName, int nType, const Point3d& ptRef1, const BBox3d& b3Area1)
{
m_sName = sName ;
m_nType = nType ;
m_ptRef1 = ptRef1 ;
m_b3Area1 = b3Area1 ;
m_vsColl = vsColl ;
return true ;
}
+1 -4
View File
@@ -30,7 +30,7 @@ class Table : public IUserObj
public :
Table( void) ;
bool Set( const std::string& sName, int nType, const Point3d& ptRef1, const BBox3d& b3Area1, const STRVECTOR& vsColl) ;
bool Set( const std::string& sName, int nType, const Point3d& ptRef1, const BBox3d& b3Area1) ;
const std::string& GetName( void)
{ return m_sName ; }
int GetType( void)
@@ -39,8 +39,6 @@ class Table : public IUserObj
{ return m_ptRef1 ; }
const BBox3d& GetArea1( void)
{ return m_b3Area1 ; }
const STRVECTOR& GetCollGroups( void) const
{ return m_vsColl ; }
private :
int m_nOwnerId ;
@@ -49,5 +47,4 @@ class Table : public IUserObj
int m_nType ;
Point3d m_ptRef1 ;
BBox3d m_b3Area1 ;
STRVECTOR m_vsColl ;
} ;
+152 -166
View File
@@ -1676,12 +1676,18 @@ WaterJetting::ProcessPath( int nPathId, int nPvId, int nClId)
m_pGeomDB->GetName( nPathId, sPathName) ;
// eventuale approssimazione con segmenti di retta
bool bSplitArcs = GetSplitArcs( vtTool) ;
if ( ! bSplitArcs) {
// verifiche sull'ampiezza dell'angolo al centro degli eventuali archi
VerifyArcs( pCompo) ;
int nSplitArcs = m_pMchMgr->GetCurrMachiningsMgr()->GetSplitArcs() ;
bool bSplitArcs = ( nSplitArcs == SPLAR_ALWAYS ||
( nSplitArcs == SPLAR_NO_XY_PLANE && ! vtTool.IsZplus()) ||
( nSplitArcs == SPLAR_GEN_PLANE && vtTool.IsGeneric())) ;
if ( bSplitArcs && ! ApproxWithLines( pCompo)) {
m_pMchMgr->SetLastError( 3211, "Error in WaterJetting : Linear Approx not computable") ;
return false ;
}
// verifiche sull'ampiezza dell'angolo al centro degli eventuali archi
VerifyArcs( pCompo) ;
// se abilitato probing, verifico lunghezza entità ed eventualmente le divido
if ( m_Params.m_bProbing)
VerifyMaxLenCurves( pCompo, m_Params.m_dProbingMaxDist) ;
@@ -1774,8 +1780,8 @@ WaterJetting::GeneratePreView( int nPathId, const ICurveComposite* pCompo, doubl
// calcolo la regione
PtrOwner<ISurfFlatRegion> pSfr ;
double dSideCoeff = ( abs( m_Params.m_dSideAngle) > EPS_ANG_SMALL ? 1. / cos( m_Params.m_dSideAngle * DEGTORAD) : 1) ;
double dRad = 0.5 * m_TParams.m_dDiam * dSideCoeff ;
pSfr.Set( GetSurfFlatRegionFromFatCurve( Release( pCrv), dRad, false, false)) ;
double Rad = 0.5 * m_TParams.m_dDiam * dSideCoeff ;
pSfr.Set( GetSurfFlatRegionFromFatCurve( Release( pCrv), Rad, false, false)) ;
if ( IsNull( pSfr))
return false ;
// aggiungo eventuale attacco
@@ -1787,18 +1793,32 @@ WaterJetting::GeneratePreView( int nPathId, const ICurveComposite* pCompo, doubl
// aggiungo eventuali anelli su angoli esterni
if ( ! AddLoopsPreview( pCompo, pSfr))
return false ;
// ne recupero i contorni
for ( int i = 0 ; i < pSfr->GetLoopCount( 0) ; ++i) {
PtrOwner<ICurve> pCrv2( pSfr->GetLoop( 0, i)) ;
if ( IsNull( pCrv2))
return false ;
// ne recupero il contorno
PtrOwner< ICurve> pCrv2 ;
pCrv2.Set( pSfr->GetLoop( 0, 0)) ;
if ( IsNull( pCrv2))
return false ;
// inserisco la curva nel DB
int nC2Id = m_pGeomDB->AddGeoObj( GDB_ID_NULL, nPathId, Release( pCrv2)) ;
if ( nC2Id == GDB_ID_NULL)
return false ;
// assegno nome e colore
m_pGeomDB->SetName( nC2Id, MCH_PV_CUT) ;
m_pGeomDB->SetMaterial( nC2Id, colCut) ;
// eventuali altri contorni ( interni di contornatura chiusa)
const int MAX_INT_LOOP = 1000 ;
for ( int i = 1 ; i <= MAX_INT_LOOP ; ++i) {
PtrOwner< ICurve> pCrv3 ;
pCrv3.Set( pSfr->GetLoop( 0, i)) ;
if ( IsNull( pCrv3))
break ;
// inserisco la curva nel DB
int nC2Id = m_pGeomDB->AddGeoObj( GDB_ID_NULL, nPathId, Release( pCrv2)) ;
if ( nC2Id == GDB_ID_NULL)
int nC3Id = m_pGeomDB->AddGeoObj( GDB_ID_NULL, nPathId, Release( pCrv3)) ;
if ( nC3Id == GDB_ID_NULL)
return false ;
// assegno nome e colore
m_pGeomDB->SetName( nC2Id, MCH_PV_CUT) ;
m_pGeomDB->SetMaterial( nC2Id, colCut) ;
m_pGeomDB->SetName( nC3Id, MCH_PV_CUT) ;
m_pGeomDB->SetMaterial( nC3Id, colCut) ;
}
// inserisco la regione nel DB
int nRId = m_pGeomDB->AddGeoObj( GDB_ID_NULL, nPathId, Release( pSfr)) ;
@@ -1812,11 +1832,10 @@ WaterJetting::GeneratePreView( int nPathId, const ICurveComposite* pCompo, doubl
return false ;
m_pGeomDB->SetName( nRrId, MCH_PV_RRCUT) ;
m_pGeomDB->SetMaterial( nRrId, INVISIBLE) ;
// eventuali ripetizioni in basso per tagli inclinati
if ( abs( m_Params.m_dSideAngle) > EPS_ANG_SMALL) {
// creo copia della curva composita
PtrOwner<ICurveComposite> pCrv( pCompo->Clone()) ;
PtrOwner< ICurve> pCrv( pCompo->Clone()) ;
if ( IsNull( pCrv))
return false ;
// rimuovo eventuale overlap
@@ -1825,114 +1844,98 @@ WaterJetting::GeneratePreView( int nPathId, const ICurveComposite* pCompo, doubl
pCrv->TrimStartAtLen( dAddedOverlap) ;
pCrv->Invert() ;
}
ICURVEPOVECTOR vpCrvs ;
if ( m_Params.m_dSideAngle < 0) {
// se inclinazione negativa devo considerare separatamente ogni sottocurva della composita
vpCrvs.reserve( pCrv->GetCurveCount()) ;
for ( int i = 0 ; i < pCrv->GetCurveCount() ; i++)
vpCrvs.emplace_back( pCrv->GetCurve( i)->Clone()) ;
}
else {
// se inclinazione positiva posso considerare la curva completa
vpCrvs.emplace_back( pCrv->Clone()) ;
}
// offset per raggio utensile
double dSignOffs1 = dRad ;
double dRad = 0.5 * m_TParams.m_dDiam / cos( m_Params.m_dSideAngle * DEGTORAD) ;
double dSignOffs1 = dRad ;
if ( ( m_Params.m_nWorkSide == WJET_WS_RIGHT && m_Params.m_dSideAngle > 0) ||
( m_Params.m_nWorkSide == WJET_WS_LEFT && m_Params.m_dSideAngle < 0))
dSignOffs1 = - dSignOffs1 ;
OffsetCurve OffsCrv1 ;
OffsCrv1.Make( pCrv, dSignOffs1, ICurve::OFF_FILLET) ;
PtrOwner< ICurve> pOffs1( OffsCrv1.GetLongerCurve()) ;
if ( IsNull( pOffs1))
return false ;
// offset per inclinazione
double dSignOffs2 = dRad + m_dElev * abs( sin( m_Params.m_dSideAngle * DEGTORAD)) ;
if ( ( m_Params.m_nWorkSide == WJET_WS_RIGHT && m_Params.m_dSideAngle < 0) ||
( m_Params.m_nWorkSide == WJET_WS_LEFT && m_Params.m_dSideAngle > 0))
dSignOffs2 = - dSignOffs2 ;
OffsetCurve OffsCrv2 ;
OffsCrv2.Make( pCrv, dSignOffs2, ICurve::OFF_EXTEND) ;
PtrOwner< ICurve> pOffs2( OffsCrv2.GetLongerCurve()) ;
if ( IsNull( pOffs2))
return false ;
// calcolo la regione
PtrOwner<ISurfFlatRegion> pSfr( CreateSurfFlatRegion()) ;
PtrOwner<ISurfFlatRegion> pSfr ;
// se i due offset sono aperti
if ( ! pOffs1->IsClosed() && ! pOffs2->IsClosed()) {
// li unisco
PtrOwner<ICurveComposite> pBound( CreateCurveComposite()) ;
if ( IsNull( pBound))
return false ;
pBound->AddCurve( Release( pOffs1)) ;
pOffs2->Invert() ;
Point3d ptStart ; pOffs2->GetStartPoint( ptStart) ;
pBound->AddLine( ptStart) ;
pBound->AddCurve( Release( pOffs2)) ;
pBound->Close() ;
// creo la regione
SurfFlatRegionByContours SfrCntr( false, false) ;
SfrCntr.AddCurve( Release( pBound)) ;
pSfr.Set( SfrCntr.GetSurf()) ;
}
// altrimenti sono chiusi
else {
// creo la regione
SurfFlatRegionByContours SfrCntr( false, false) ;
SfrCntr.AddCurve( Release( pOffs1)) ;
SfrCntr.AddCurve( Release( pOffs2)) ;
pSfr.Set( SfrCntr.GetSurf()) ;
}
if ( IsNull( pSfr))
return false ;
for ( int i = 0 ; i < int( vpCrvs.size()) ; i++) {
OffsetCurve OffsCrv1 ;
OffsCrv1.Make( vpCrvs[i], dSignOffs1, ICurve::OFF_FILLET) ;
PtrOwner< ICurve> pOffs1( OffsCrv1.GetLongerCurve()) ;
if ( IsNull( pOffs1))
return false ;
OffsetCurve OffsCrv2 ;
OffsCrv2.Make( vpCrvs[i], dSignOffs2, ICurve::OFF_EXTEND) ;
PtrOwner< ICurve> pOffs2( OffsCrv2.GetLongerCurve()) ;
if ( IsNull( pOffs2))
return false ;
// calcolo la regione corrente
PtrOwner<ISurfFlatRegion> pSfrCurr ;
// se i due offset sono aperti
if ( ! pOffs1->IsClosed() && ! pOffs2->IsClosed()) {
// li unisco
PtrOwner<ICurveComposite> pBound( CreateCurveComposite()) ;
if ( IsNull( pBound))
return false ;
pBound->AddCurve( Release( pOffs1)) ;
pOffs2->Invert() ;
Point3d ptStart ; pOffs2->GetStartPoint( ptStart) ;
pBound->AddLine( ptStart) ;
pBound->AddCurve( Release( pOffs2)) ;
pBound->Close() ;
// creo la regione
SurfFlatRegionByContours SfrCntr( false, false) ;
SfrCntr.AddCurve( Release( pBound)) ;
pSfrCurr.Set( SfrCntr.GetSurf()) ;
}
// altrimenti sono chiusi
else {
// creo la regione
SurfFlatRegionByContours SfrCntr( false, false) ;
SfrCntr.AddCurve( Release( pOffs1)) ;
SfrCntr.AddCurve( Release( pOffs2)) ;
pSfrCurr.Set( SfrCntr.GetSurf()) ;
}
if ( IsNull( pSfrCurr))
return false ;
// aggiungo alla superficie complessiva
if ( pSfr->IsValid())
pSfr->Add( *pSfrCurr) ;
else
pSfr.Set( Release( pSfrCurr)) ;
}
// la regione deve essere rivolta verso Z+
if ( pSfr->GetNormVersor().z < 0)
pSfr->Invert() ;
// aggiungo eventuali loops
AddLoopsPreview( pCrv, pSfr) ;
// ne recupero i contorni
for ( int i = 0 ; i < pSfr->GetLoopCount( 0) ; ++i) {
PtrOwner<ICurve> pCrv2( pSfr->GetLoop( 0, i)) ;
if ( IsNull( pCrv2))
// ne recupero il contorno
PtrOwner< ICurve> pCrv2 ;
pCrv2.Set( pSfr->GetLoop( 0, 0)) ;
if ( IsNull( pCrv2))
return false ;
// inserisco la curva nel DB
int nC2Id = m_pGeomDB->AddGeoObj( GDB_ID_NULL, nPathId, Release( pCrv2)) ;
if ( nC2Id == GDB_ID_NULL)
return false ;
// assegno nome e colore
m_pGeomDB->SetName( nC2Id, MCH_PV_DOWN_CUT) ;
m_pGeomDB->SetMaterial( nC2Id, colCut) ;
// eventuali altri contorni ( interni di contornatura chiusa)
const int MAX_INT_LOOP = 1000 ;
for ( int i = 1 ; i <= MAX_INT_LOOP ; ++i) {
PtrOwner< ICurve> pCrv3 ;
pCrv3.Set( pSfr->GetLoop( 0, i)) ;
if ( IsNull( pCrv3))
break ;
// inserisco la curva nel DB
int nC3Id = m_pGeomDB->AddGeoObj( GDB_ID_NULL, nPathId, Release( pCrv3)) ;
if ( nC3Id == GDB_ID_NULL)
return false ;
// inserisco la curva nel DB
int nC2Id = m_pGeomDB->AddGeoObj( GDB_ID_NULL, nPathId, Release( pCrv2)) ;
if ( nC2Id == GDB_ID_NULL)
return false ;
// assegno nome e colore
m_pGeomDB->SetName( nC2Id, MCH_PV_DOWN_CUT) ;
m_pGeomDB->SetMaterial( nC2Id, colCut) ;
// assegno nome e colore
m_pGeomDB->SetName( nC3Id, MCH_PV_DOWN_CUT) ;
m_pGeomDB->SetMaterial( nC3Id, colCut) ;
}
// inserisco la regione nel DB
// inserisco la regione nel DB
int nRId = m_pGeomDB->AddGeoObj( GDB_ID_NULL, nPathId, Release( pSfr)) ;
if ( nRId == GDB_ID_NULL)
return false ;
m_pGeomDB->SetName( nRId, MCH_PV_DOWN_RCUT) ;
m_pGeomDB->SetMaterial( nRId, INVISIBLE) ;
// la copio anche come regione ridotta
// la copio anche come regione ridotta
int nRrId = m_pGeomDB->Copy( nRId, GDB_ID_NULL, nPathId) ;
if ( nRrId == GDB_ID_NULL)
return false ;
m_pGeomDB->SetName( nRrId, MCH_PV_DOWN_RRCUT) ;
m_pGeomDB->SetMaterial( nRrId, INVISIBLE) ;
m_pGeomDB->SetMaterial( nRrId, INVISIBLE) ;
}
return true ;
}
@@ -2080,11 +2083,6 @@ WaterJetting::AddLoopsPreview( const ICurveComposite* pCompo, ISurfFlatRegion* p
return false ;
// lunghezza tratti lineari e loro punti estremi
double dTgLen = 0.5 * m_TParams.m_dDiam * tan( 0.5 * dAng * DEGTORAD) ;
if ( m_Params.m_dSideAngle > EPS_ANG_SMALL) {
double dW = m_dElev * sin( m_Params.m_dSideAngle * DEGTORAD) ;
double dExtraLen = dW / tan( ( 180 - abs( dAng)) / 2 * DEGTORAD) ;
dTgLen += dExtraLen ;
}
Point3d ptP ; pCrvC->GetStartPoint( ptP) ;
Point3d ptPe = ptP + vtEnd * dTgLen ;
Point3d ptPs = ptP - vtStart * dTgLen ;
@@ -2117,6 +2115,7 @@ WaterJetting::AddLoopsPreview( const ICurveComposite* pCompo, ISurfFlatRegion* p
if ( IsNull( pSfr) || ! pSPV->Add( *pSfr))
return false ;
}
}
return true ;
}
@@ -2248,7 +2247,7 @@ WaterJetting::AddStandardWj( const ICurveComposite* pCompo, const Vector3d& vtTo
// imposto versore correzione e ausiliario sul punto di partenza
CalcAndSetToolCorrAuxDir( pCompo, i) ;
// aggiungo approccio al punto iniziale
if ( ! AddApproach( ptP1, vtTool, dSafeZ, bSplitArcs)) {
if ( ! AddApproach( ptP1, vtTool, dSafeZ)) {
m_pMchMgr->SetLastError( 3207, "Error in WaterJetting : Approach not computable") ;
return false ;
}
@@ -2274,57 +2273,27 @@ WaterJetting::AddStandardWj( const ICurveComposite* pCompo, const Vector3d& vtTo
vtEnd.GetAngleXY( vtStart, dAng) ;
// Se angolo esterno e richiesto anello esterno
if ( IsExternalAngle( dAng) && m_Params.m_nExtCornerType == WJET_EC_LOOP) {
// lunghezza tratti lineari
// lunghezza tratti lineari e loro punti estremi
double dTgLen = 0.5 * m_TParams.m_dDiam * tan( 0.5 * dAng * DEGTORAD) ;
if ( m_Params.m_dSideAngle > EPS_ANG_SMALL) {
// se inclinazione positiva calcolo di quanto deve uscire per non rovinare lo spigolo
double dW = m_dElev * sin( m_Params.m_dSideAngle * DEGTORAD) ;
double dExtraLen = dW / tan( ( 180 - abs( dAng)) / 2 * DEGTORAD) ;
dTgLen += dExtraLen ;
}
// calcolo punti estremi
Point3d ptP ; pCrvC->GetStartPoint( ptP) ;
Point3d ptPe = ptP + vtEnd * dTgLen ;
Point3d ptPs = ptP - vtStart * dTgLen ;
// tratto prima dell'anello
SetFeed( GetActualFeed()) ;
if ( AddLinearMove( ptPe, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptPe) == GDB_ID_NULL)
return false ;
// anello
PtrOwner<ICurve> pCrvA( GetArc2PVN( ptPe, ptPs, vtEnd, vtN)) ;
if ( ! IsNull( pCrvA) && pCrvA->GetType() == CRV_ARC) {
// suddivido l'anello in due parti per forzare il passaggio dalla posizione vtTool = Z_AX
PtrOwner<ICurveComposite> pCompoArc( ConvertCurveToComposite( Release( ( pCrvA)))) ;
if ( IsNull( pCompoArc))
if ( AddCurveMove( pCrvA) == GDB_ID_NULL)
return false ;
if ( pCompoArc->AddJoint( 0.5)) {
// aggiungo il primo tratto
Vector3d vtCorr = CalcCorrDir( pCompoArc, 1) ;
SetToolCorrAuxDir( Z_AX, vtCorr) ;
if ( AddCurveMove( pCompoArc->GetCurve(0), bSplitArcs) == GDB_ID_NULL)
return false ;
// aggiungo secondo tratto
CalcAndSetToolCorrAuxDir( pCompo, i + 0.5) ;
if ( AddCurveMove( pCompoArc->GetCurve(1), bSplitArcs) == GDB_ID_NULL)
return false ;
}
else {
// se non è possibile suddividere anello
CalcAndSetToolCorrAuxDir( pCompo, i + 0.5) ;
if ( AddCurveMove( pCompoArc, bSplitArcs) == GDB_ID_NULL)
return false ;
}
}
else {
CalcAndSetToolCorrAuxDir( pCompo, i + 0.5) ;
if ( AddLinearMove( ptPs, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptPs) == GDB_ID_NULL)
return false ;
}
// tratto dopo l'anello
if ( AddLinearMove( ptP, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptP) == GDB_ID_NULL)
return false ;
}
// se angolo esterno e richiesto rallentamento esterno, eseguo accelerazione
@@ -2344,7 +2313,7 @@ WaterJetting::AddStandardWj( const ICurveComposite* pCompo, const Vector3d& vtTo
return false ;
CalcAndSetToolCorrAuxDir( pCompo, i + dU) ;
SetFeed( ( 1 - dCoeff) * dMinFeed + dCoeff * GetActualFeed()) ;
if ( AddCurveMove( pCrvT, bSplitArcs) == GDB_ID_NULL)
if ( AddCurveMove( pCrvT) == GDB_ID_NULL)
return false ;
dUprev = dU ;
}
@@ -2386,7 +2355,7 @@ WaterJetting::AddStandardWj( const ICurveComposite* pCompo, const Vector3d& vtTo
Vector3d vtCorr = CalcCorrDir( pCompo, i + dU) ;
SetToolCorrAuxDir( vtTool, vtCorr) ;
SetFeed( ( 1 - dCoeff) * dMinFeed + dCoeff * GetActualFeed()) ;
if ( AddCurveMove( pCrvT, bSplitArcs) == GDB_ID_NULL)
if ( AddCurveMove( pCrvT) == GDB_ID_NULL)
return false ;
dUprev = dU ;
}
@@ -2423,7 +2392,7 @@ WaterJetting::AddStandardWj( const ICurveComposite* pCompo, const Vector3d& vtTo
return false ;
CalcAndSetToolCorrAuxDir( pCompo, i + dU) ;
SetFeed( ( 1 - dCoeff) * GetActualFeed() + dCoeff * dMinFeed) ;
if ( AddCurveMove( pCrvT, bSplitArcs) == GDB_ID_NULL)
if ( AddCurveMove( pCrvT) == GDB_ID_NULL)
return false ;
dUprev = dU ;
}
@@ -2466,22 +2435,15 @@ WaterJetting::AddStandardWj( const ICurveComposite* pCompo, const Vector3d& vtTo
Vector3d vtCorr = CalcCorrDir( pCompo, i + dU) ;
SetToolCorrAuxDir( vtTool, vtCorr) ;
SetFeed( ( 1 - dCoeff) * GetActualFeed() + dCoeff * dMinFeed) ;
if ( AddCurveMove( pCrvT, bSplitArcs) == GDB_ID_NULL)
if ( AddCurveMove( pCrvT) == GDB_ID_NULL)
return false ;
dUprev = dU ;
}
dNextFeed = dMinFeed ;
}
// se successivo non è angolo esterno ad anello imposto versore correzione e ausiliario del punto di arrivo
if ( ! IsExternalAngle( dAng) || m_Params.m_nExtCornerType != WJET_EC_LOOP)
CalcAndSetToolCorrAuxDir( pCompo, i + 1) ;
}
else {
// se ultima entità imposto versore correzione e ausiliario del punto finale
CalcAndSetToolCorrAuxDir( pCompo, i + 1) ;
}
// imposto versore correzione e ausiliario del punto di arrivo
CalcAndSetToolCorrAuxDir( pCompo, i + 1) ;
// elaborazioni sulla curva corrente
if ( pCurve->GetType() == CRV_LINE) {
ICurveLine* pLine = GetCurveLine( pCurve) ;
@@ -2494,20 +2456,25 @@ WaterJetting::AddStandardWj( const ICurveComposite* pCompo, const Vector3d& vtTo
}
else
++ nIdxSkip ;
if ( AddLinearMove( ptP3, bSplitArcs) == GDB_ID_NULL)
if ( AddLinearMove( ptP3) == GDB_ID_NULL)
return false ;
}
else if ( pCurve->GetType() == CRV_ARC) {
ICurveArc* pArc = GetCurveArc( pCurve) ;
Point3d ptCen = pArc->GetCenter() ;
double dAngCen = pArc->GetAngCenter() ;
Point3d ptP3 ; pArc->GetEndPoint( ptP3) ;
Point3d ptCurr ; GetCurrPos( ptCurr) ;
double dDeltaAng ; pArc->CalcPointAngle( ptCurr, dDeltaAng) ;
SetFeed( dNextFeed) ;
// controlli per indice del punto di arrivo
Point3d ptP3 ; pCurve->GetEndPoint( ptP3) ;
if ( SqDistXY( ptP3, m_ptLastProbe) >= m_Params.m_dProbingMinDist * m_Params.m_dProbingMinDist) {
SetIndex( i + 1 - nIdxSkip) ;
m_ptLastProbe = ptP3 ;
}
else
++ nIdxSkip ;
if ( AddCurveMove( pCurve, bSplitArcs) == GDB_ID_NULL)
if ( AddArcMove( ptP3, ptCen, dAngCen - dDeltaAng, vtN) == GDB_ID_NULL)
return false ;
}
// se ultima entità, uscita e retrazione
@@ -2524,7 +2491,7 @@ WaterJetting::AddStandardWj( const ICurveComposite* pCompo, const Vector3d& vtTo
}
// aggiungo retrazione
SetFlag( 203) ;
if ( ! AddRetract( ptP1, vtTool, dSafeZ, bSplitArcs)) {
if ( ! AddRetract( ptP1, vtTool, dSafeZ)) {
m_pMchMgr->SetLastError( 3210, "Error in WaterJetting : Retract not computable") ;
return false ;
}
@@ -2558,7 +2525,7 @@ class LeadIOStatus
//----------------------------------------------------------------------------
bool
WaterJetting::AddApproach( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ, bool bSplit)
WaterJetting::AddApproach( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ)
{
SetFlag( 1) ;
// 1 -> punto sopra inizio
@@ -2567,18 +2534,18 @@ WaterJetting::AddApproach( const Point3d& ptP, const Vector3d& vtTool, double dS
return false ;
// affondo al punto iniziale
SetFlag( ( m_Params.m_bLiHole ? 201 : 202)) ;
if ( AddRapidMove( ptP, bSplit) == GDB_ID_NULL)
if ( AddRapidMove( ptP) == GDB_ID_NULL)
return false ;
return true ;
}
//----------------------------------------------------------------------------
bool
WaterJetting::AddRetract( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ, bool bSplit)
WaterJetting::AddRetract( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ)
{
// Risalgo in rapido alla quota di sicurezza
Point3d ptP4 = ptP + vtTool * dSafeZ ;
if ( AddRapidMove( ptP4, bSplit) == GDB_ID_NULL)
if ( AddRapidMove( ptP4) == GDB_ID_NULL)
return false ;
return true ;
}
@@ -2628,19 +2595,29 @@ WaterJetting::AddLeadIn( const Point3d& ptP1, const Point3d& ptStart, const Vect
{
// Assegno il tipo
int nType = GetLeadInType() ;
double dTang = m_Params.m_dLiTang ;
// Eseguo a seconda del tipo
switch ( nType) {
case WJET_LI_NONE :
return true ;
case WJET_LI_LINEAR :
return ( AddLinearMove( ptStart, bSplitArcs, MCH_CL_LEADIN) != GDB_ID_NULL) ;
return ( AddLinearMove( ptStart, MCH_CL_LEADIN) != GDB_ID_NULL) ;
case WJET_LI_TANGENT :
{
PtrOwner<ICurve> pCrv( GetArc2PVN( ptStart, ptP1, - vtStart, vtN)) ;
if ( IsNull( pCrv))
return false ;
pCrv->Invert() ;
return ( AddCurveMove( pCrv, bSplitArcs, MCH_CL_LEADIN) != GDB_ID_NULL) ;
// eventuale spezzatura
if ( bSplitArcs) {
PtrOwner<ICurveComposite> pCompo ;
if ( ! pCompo.Set( ConvertCurveToComposite( Release( pCrv))) || ! ApproxWithLines( pCompo))
return false ;
return ( AddCurveMove( pCompo, MCH_CL_LEADIN) != GDB_ID_NULL) ;
}
else {
return ( AddCurveMove( pCrv, MCH_CL_LEADIN) != GDB_ID_NULL) ;
}
}
default :
return false ;
@@ -2690,7 +2667,7 @@ WaterJetting::AddLeadOut( const Point3d& ptEnd, const Vector3d& vtEnd, const Vec
Vector3d vtPerp = vtEnd ;
vtPerp.Rotate( vtN, 0, ( bCcwRot ? 1 : - 1)) ;
ptP1 = ptEnd + vtEnd * dTang + vtPerp * dPerp ;
return ( AddLinearMove( ptP1, bSplitArcs, MCH_CL_LEADOUT) != GDB_ID_NULL) ;
return ( AddLinearMove( ptP1, MCH_CL_LEADOUT) != GDB_ID_NULL) ;
}
case WJET_LO_TANGENT :
{
@@ -2702,7 +2679,16 @@ WaterJetting::AddLeadOut( const Point3d& ptEnd, const Vector3d& vtEnd, const Vec
PtrOwner<ICurve> pCrv( GetArc2PVN( ptEnd, ptP1, vtEnd, vtN)) ;
if ( IsNull( pCrv))
return false ;
return ( AddCurveMove( pCrv, bSplitArcs, MCH_CL_LEADOUT) != GDB_ID_NULL) ;
// eventuale spezzatura
if ( bSplitArcs) {
PtrOwner<ICurveComposite> pCompo ;
if ( ! pCompo.Set( ConvertCurveToComposite( Release( pCrv))) || ! ApproxWithLines( pCompo))
return false ;
return ( AddCurveMove( pCompo, MCH_CL_LEADOUT) != GDB_ID_NULL) ;
}
else {
return ( AddCurveMove( pCrv, MCH_CL_LEADOUT) != GDB_ID_NULL) ;
}
}
default :
return false ;
@@ -2966,7 +2952,7 @@ WaterJetting::CalcOffset( ICurveComposite* pCompo, double dSignOffs)
//----------------------------------------------------------------------------
// Valore limite angolo per corner
const double ANG_CORNER = 10 ;
const double ANG_CORNER = 10 ;
//----------------------------------------------------------------------------
bool
+2 -2
View File
@@ -81,8 +81,8 @@ class WaterJetting : public Machining
bool AddLeadOutPreview( const ICurveComposite* pCompo, ISurfFlatRegion* pSPV) ;
bool AddLoopsPreview( const ICurveComposite* pCompo, ISurfFlatRegion* pSPV) ;
bool AddStandardWj( const ICurveComposite* pCompo, const Vector3d& vtTool, bool bSplitArcs) ;
bool AddApproach( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ, bool bSplit) ;
bool AddRetract( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ, bool bSplit) ;
bool AddApproach( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ) ;
bool AddRetract( const Point3d& ptP, const Vector3d& vtTool, double dSafeZ) ;
bool CalcLeadInStart( const Point3d& ptStart, const Vector3d& vtStart, const Vector3d& vtN,
const ICurveComposite* pCompo, Point3d& ptP1) const ;
bool AddLeadIn( const Point3d& ptP1, const Point3d& ptStart, const Vector3d& vtStart,