Modelling and analysis of alternative face guard designs for cricket using finite element modelling

被引:0
|
作者
A. Subic
M. Takla
J. Kovacs
机构
[1] RMIT University,School of Aerospace, Mechanical & Manufacturing Engineering
关键词
cricket; face guard; polycarbonate; finite element analysis;
D O I
10.1007/BF02844163
中图分类号
学科分类号
摘要
In professional cricket, where bowlers can bowl balls that reach speeds of up to 160 km h-1, effective head protection is vital. Current head protection equipment typically consists of a helmet with a high impact grade polypropylene shell, a high density EPS liner, and a metal face guard. Most of the weight in existing helmets is attributed to the steel grill used as the face guard. We present a virtual design approach to the development and evaluation of new face guards made from alternative materials. In particular, we investigate a face guard design for cricket made from polycarbonate rather than steel using an explicit dynamic finite element analysis (FEA) approach. The FEA model developed for this purpose incorporates the headform, helmet, polycarbonate face guard and the impacting ball. ABAQUS CAE was used for FEA. HyperMesh and SolidWorks were used to develop the geometric model. This work identifies appropriate modelling and simulation strategies, and key design attributes for the development of new face guards using alternative materials. A preliminary study shows that by using polycarbonates it is possible to reduce the mass of the face guard by 20%, thus contributing to greater comfort of the players without compromising their safety. The key criteria for reduction of ball deceleration by at least 25% at each test site were satisfied, with deceleration reduction values ranging from 44% to 87% from those due to ball impact with the bare head.
引用
收藏
页码:209 / 222
页数:13
相关论文
共 50 条
  • [21] Stability analysis of large diameter boreholes using finite element modelling
    Morris, C.
    Cardoso, A.
    Raymackers, S.
    ENERGY GEOTECHNICS, 2016, : 343 - 349
  • [22] Stochastic modelling of abrasive waterjet footprints using finite element analysis
    Torrubia, P. Lozano
    Axinte, D. A.
    Billingham, J.
    INTERNATIONAL JOURNAL OF MACHINE TOOLS & MANUFACTURE, 2015, 95 : 39 - 51
  • [23] Analysis of Stray Losses in Transformers using Finite Element Method Modelling
    Thango, Bonginkosi A.
    Jordaan, Jacobus A.
    Nnachi, Agha F.
    2021 IEEE PES/IAS POWERAFRICA CONFERENCE, 2021, : 41 - 45
  • [24] FINITE ELEMENT MODELLING OF FABRIC TENSILE BEHAVIOUR USING AN AUTOMATIC MODELLING APPROACH
    Lin, H.
    Clifford, M. J.
    Long, A. C.
    Sherburn, M.
    Ramgulam, R.
    Potluri, P.
    86TH TEXTILE INSTITUTE WORLD CONFERENCE, VOL 3, CONFERENCE PROCEEDINGS, 2008,
  • [25] Finite element modelling studies
    Demir, T.
    Bagül, C.
    SpringerBriefs in Applied Sciences and Technology, 2015, 22 : 77 - 79
  • [26] Finite element modelling of nanoelements
    Ridley, PHW
    Roberts, GW
    Wongsam, MA
    Chantrell, RW
    JOURNAL OF MAGNETISM AND MAGNETIC MATERIALS, 1999, 193 (1-3) : 423 - 426
  • [27] A Finite Difference Groundwater Modelling and Comparison of the Results with Those Obtained Using Finite element modelling approach
    Kamkar-Rouhani, Abolghasem
    MINE WATER AND THE ENVIRONMENT, PROCEEDINGS, 2008, : 449 - 452
  • [28] An Overview of Modelling Craniosynostosis Using the Finite Element Method
    Malde, Oyvind
    Libby, Joseph
    Moazen, Mehran
    MOLECULAR SYNDROMOLOGY, 2019, 10 (1-2) : 74 - 82
  • [29] Modelling of femur fracture using finite element procedures
    Marco, Miguel
    Giner, Eugenio
    Larrainzar-Garijo, Ricardo
    Ramon Caeiro, Jose
    Henar Miguelez, Maria
    ENGINEERING FRACTURE MECHANICS, 2018, 196 : 157 - 167
  • [30] Finite Element Modelling Of Compartment Fire Using ABAQUS
    Mariyana, A. A. K.
    Awal, A. S. M. Abdul
    Tahir, Mahmood Md.
    JURNAL TEKNOLOGI, 2015, 74 (04): : 33 - 38