@inproceedings{scholars6352,
           title = {Experimental investigation and 3D finite element prediction of temperature distribution during travelling heat sourced from oxyacetylene flame},
          volume = {78},
          number = {1},
             doi = {10.1088/1757-899X/78/1/012025},
            note = {cited By 0; Conference of 9th Curtin University of Technology Science and Engineering International Conference 2014: Discovering, Innovating and Engineering, CUTSE 2014 ; Conference Date: 3 December 2014 Through 4 December 2014; Conference Code:111770},
       publisher = {Institute of Physics Publishing},
            year = {2015},
         journal = {IOP Conference Series: Materials Science and Engineering},
             url = {https://www.scopus.com/inward/record.uri?eid=2-s2.0-84926434277&doi=10.1088\%2f1757-899X\%2f78\%2f1\%2f012025&partnerID=40&md5=e958dd8a0189d016d62cd850d5e6c330},
        abstract = {This paper presents a 3D transient finite element modelling of the workpiece temperature field produced during the travelling heat sourced from oxyacetylene flame. The proposed model was given in terms of preheat-only test applicable during thermally enhanced machining using the oxyacetylene flame as a heat source. The FEA model as well as the experimental test investigated the surface temperature distribution on 316L stainless steel at scanning speed of 100mm/min, 125mm/min 160mm/min, 200mm/min and 250mm/min. The parametric properties of the heat source maintained constant are; lead distance Ld =10mm, focus height Fh=7.5mm, oxygen gas pressure Poxy=15psi and acetylene gas pressure Pacty=25psi. An experimental validation of the temperature field induced on type 316L stainless steel reveal that temperature distribution increases when the travelling speed decreases. {\^A}{\copyright} Published under licence by IOP Publishing Ltd.},
        keywords = {Atmospheric temperature; Engineering education; Finite element method; Temperature; Temperature distribution, 3-D finite elements; 316 L stainless steel; Experimental investigations; Experimental validations; Finite element modelling; Surface temperature distribution; Type 316L stainless steel; Workpiece temperature, Stainless steel},
          author = {Alkali, A. U. and Ginta, T. L. and Abdul-Rani, A. M.},
            issn = {17578981}
}