WAN SHARUZI WAN HARUN

Prof. Dr. WAN SHARUZI WAN HARUN

Universiti Malaysia Pahang, Pekan, Malaysia
orcid

Research Focus & Metrics

Academic Career Length

18Years (2009-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 August 2017 in Materials Science and Engineering: C
Verified
Journal Article
Closed access
RAR.I.M. Asri
R.I.M. Asri
WAN SHARUZI WAN HARUNWAN SHARUZI WAN HARUN
WAN SHARUZI WAN HARUN
MSM. Samykano
M. Samykano
Nurul Akmal Che LahNurul Akmal Che Lah
Nurul Akmal Che Lah
SGS.A.C. Ghani
S.A.C. Ghani
MRM.R. Raza
M.R. Raza

1 April 2017 in Journal of Alloys and Compounds
Verified
Journal Article
Closed access
NMN.S. Manam
N.S. Manam
WAN SHARUZI WAN HARUNWAN SHARUZI WAN HARUN
WAN SHARUZI WAN HARUN
DSDayangku Noorfazidah Awang Sh;ri
Dayangku Noorfazidah Awang Sh;ri
SGS.A.C. Ghani
S.A.C. Ghani
TKT. Kurniawan
T. Kurniawan
MIM.H.I. Ibrahim
M.H.I. Ibrahim

1 March 2018 in Powder Technology
Verified
Journal Article
Closed access
WAN SHARUZI WAN HARUNWAN SHARUZI WAN HARUN
WAN SHARUZI WAN HARUN
MKM.S.I.N. Kamariah
M.S.I.N. Kamariah
NMN. Muhamad
N. Muhamad
SGS.A.C. Ghani
S.A.C. Ghani
FAFaiz Ahmad
Faiz Ahmad
ZMZ. Mohamed
Z. Mohamed

1 February 2018 in Ceramics International
Verified
Journal Article
Closed access
WAN SHARUZI WAN HARUNWAN SHARUZI WAN HARUN
WAN SHARUZI WAN HARUN
RAR.I.M. Asri
R.I.M. Asri
JAJ. Alias
J. Alias
FZF.H. Zulkifli
F.H. Zulkifli
KKK. Kadirgama
K. Kadirgama
JSJ.H.M. Shariffuddin
J.H.M. Shariffuddin

1 April 2016 in Journal of the Mechanical Behavior of Biomedical Materials
Verified
Journal Article
Closed access
RAR.I.M. Asri
R.I.M. Asri
WAN SHARUZI WAN HARUNWAN SHARUZI WAN HARUN
WAN SHARUZI WAN HARUN
MHM.A. Hassan
M.A. Hassan
SGS.A.C. Ghani
S.A.C. Ghani
ZBZ. Buyong
Z. Buyong

30 July 2022 in Progress in Additive Manufacturing
Verified
Journal Article
Open access
PDF file
MBMinhalina Ahmad Buhairi
Minhalina Ahmad Buhairi
Farhana  Mohd FoudziFarhana Mohd Foudzi
Farhana Mohd Foudzi
FJFathin Iliana Jamhari
Fathin Iliana Jamhari
ASAbu Bakar Sulong
Abu Bakar Sulong
NRNabilah Afiqah Mohd radzuan
Nabilah Afiqah Mohd radzuan
M.S.H. Al-FurjanM.S.H. Al-Furjan
M.S.H. Al-Furjan
Various laser powder bed fusion (LPBF) process parameters must be considered as they can independently affect the properties of end-product. However, many studies simply examine one or two LPBF process parameters. Laser power, scan speed, scan spacing, and layer height are the four primary LPBF process parameters that contribute to volumetric energy density (VED) used in LPBF. VED is often used as an optimization metric for LPBF process parameters, because it takes all four major parameters into consideration. Thus, this paper focuses on the effect of VED on the morphology and properties of part, and also discusses on the interrelationship between all four parameters. Common range used for each parameter is 70–400 W for laser power, 70–1800 mm/s for scan speed, 50–140 µm for scan spacing, and 20–50 µm for layer height. It can be seen as the VED increased, the microstructure of as-built titanium alloy Ti6Al4V components exhibited smaller α’ martensite size and larger columnar β grain. High VED can also reduce porosity and defect formation, which will help in increasing part density. The lowest surface roughness reported for LPBF Ti6Al4V is 4.91 µm. Meanwhile, the maximum microhardness obtained is 443 HV and the highest tensile strength achieved is 1400 MPa. The VED used for studies that obtained these results are in the range of 55–65 J/mm3. Thus, it can be concluded that the most suitable VED for LPBF printing of Ti6Al4V is around 55–65 J/mm3.