Abstract

With the rapid development of new-generation information technologies such as big data, cloud computing, Internet of Things, and mobile internet in traditional manufacturing, the development of intelligent manufacturing (IM) is accelerating. Digital twin is an important method to achieve the goal of IM, and provides an effective means for the integrated development of design and manufacturing (R & M). In view of the problems of long installation and debugging cycles, and process parameters requiring multiple trial and error in the research and development (R & D) process of laser melting deposition (LMD) equipment, this paper focuses on building an LMD equipment model based on digital twin technology. It involves performing virtual assembly, motion setting, collision inspection, and PLC debugging, thereby providing an innovative method and insights for improving the R & D efficiency of the IM of LMD equipment.

Highlights

  • In recent years, with the rapid development of new-generation information technologies such as big data, cloud computing, Internet of Things, and mobile internet in traditional manufacturing industries, the personalized needs of customers have become more and more urgent, and the development of intelligent manufacturing (IM) production models has been accelerating [1,2]

  • Based on the digital twin technology, this paper focuses on the construction of a laser melting deposition (LMD) equipment model, and performs virtual assembly, motion setting, collision inspection, and PLC debugging to form a combination of virtual and real, thereby providing a new method idea for improving the R & D efficiency of LMD equipment

  • The direction and speed of mmoodveeml.enTt ohfethemseolevcteemd ceomnptosneentttsinarge thoefn steht.eFreomquthieplmeftehnaltf opf Flaigtufroe r4ma,b, sittructu stctrhauenccbotemusepreoennetohnfatstt,thwheehbilLleutMehaerDrriogwhestqhauarelifcpoofmnFnieegcunterted4mina,btou, drsnhe,oalwciscsotrhdceiancrogmrtiopetodhneeontrtuatnrtsa.mnFsimsisriiosssntioloynf, the v thseetteinqg.uTihpismpaertnmtapinlyaitnfcolurdmes tahne sdetttinhges opf rthiensteqhueenacde, faorme,sdeirleectciotne,dsp.eTedh, aenddirecti mTaechcneemlterooavtfeiomtnehnoetf sthesteetienlqeguciistpcemodnedncut cpoilvmaetftoportmohensfteurunllcittnustreeagirrnaetXio,tnYho, efZtn,haenspdehryto.stiacFaryrl coaoxmnids icttoiohmnespoolfneeeafnctths.half o sepearnt otfhthaetLtMhDeebquliupme eanrt rmoowdelswaitrhethceoacntunael sctrtuecdturien, thteurerbny,eanscucriongrdthiensguccteossthe tra poofntheencotsns,iswtenhcyiloef vtihrtuealraingdhrteahl. alf of Figure 4a,b, shows the componen. This part mainly includes the settings of the sequence, form, direc eration of the equipment platform structure in X, Y, Z, and rotary movement setting is conducive to the full integration of the phys part of the LMD equipment model with the actual structure, thereb

Read more

Summary

Introduction

With the rapid development of new-generation information technologies such as big data, cloud computing, Internet of Things, and mobile internet in traditional manufacturing industries, the personalized needs of customers have become more and more urgent, and the development of IM production models has been accelerating [1,2]. Stavropoulos et al [10] simulated molecular dynamics by digital twin technology, which was accurate to the molecular level, and combined with machine learning technology, physics, and decision-making algorithms It reduced the probability of model adaptation and quality evaluation errors. Based on the digital twin technology, this paper focuses on the construction of a LMD equipment model, and performs virtual assembly, motion setting, collision inspection, and PLC debugging to form a combination of virtual and real, thereby providing a new method idea for improving the R & D efficiency of LMD equipment. FFiigguurree11..DDiiggiittaall ttwwiinn ssyysstteemm ffrraammeewwoorrkk ooff LLMMDD eeqquuiippmmeenntt. TThhee mmaaiinn ssttrruuccttuurree ooff LLMMDD eeqquuiippmmeenntt iiss iinntteeggrraatteeddbbyyffiivveemmaajojorrppaartrsts, ,nnaammeleylyththee eeqquuiippmmeenntt ppllaattffoorrmm ssttrruuccttuurree,, pprriinntt hheeaaddssttrruuccttuurree,,ppoowwddeerrfefeeeddininggstsrtuructcuturerelalsaesrerstsrturcu-cttuurree,,aannddccoooolliinngg ssttrruuccttuurree,, aass sshhoowwnn iinn FFiigguurree 22..TThheessttrruuccttuurreeooffththeeeeqquuipipmmeennt tpplaltaftoformrm iissmmaaiinnllyyffoorrmmeeddbbyyththeeXX, ,YY, Z, Zaxaixsislelaedadscsrcerwews asnadndthtehme motootro(rX(,XY,,YZ, gZugidueidreairlasitlrsotkroeskeasre 7a0r0e m70m0,m20m0,m20m0,manmd, 2a0n0dm20m0, mremsp,ercetsivpeelcyti)v, tehlye)w, tohrekwinogrpkilnatgfoprlmatf(o1r1m00(m11m00×m1m20×01m20m0), amndmt)w, aondadtdwiotioandadlitriootnaatilnrgotsahtianfgts.shItaifstsfi.

Sports Settings
PLC Debugging
Conclusions
Full Text
Paper version not known

Talk to us

Join us for a 30 min session where you can share your feedback and ask us any queries you have

Schedule a call

Disclaimer: All third-party content on this website/platform is and will remain the property of their respective owners and is provided on "as is" basis without any warranties, express or implied. Use of third-party content does not indicate any affiliation, sponsorship with or endorsement by them. Any references to third-party content is to identify the corresponding services and shall be considered fair use under The CopyrightLaw.