• Title of article

    Local damage to Ultra High Performance Concrete structures caused by an impact of aircraft engine missiles Original Research Article

  • Author/Authors

    Werner Riedel، نويسنده , , Markus N?ldgen، نويسنده , , Elmar Stra?burger، نويسنده , , Klaus Thoma، نويسنده , , Ekkehard Fehling، نويسنده ,

  • Issue Information
    روزنامه با شماره پیاپی سال 2010
  • Pages
    10
  • From page
    2633
  • To page
    2642
  • Abstract
    The impact of an aircraft engine missile causes high stresses, deformations and a severe local damage to conventional reinforced concrete. As a consequence the design of R/C protective structural elements results in components with rather large dimensions. Fiber reinforced Ultra High Performance Concrete (UHPC) is a concrete based material which combines ultra high strength, high packing density and an improved ductility with a significantly increased energy dissipation capacity due to the addition of fiber reinforcement. With those attributes the material is potentially suitable for improved protective structural elements with a reduced need for material resources. The presented paper reports on an experimental series of scaled aircraft engine impact tests with reinforced UHPC panels. The investigations are focused on the material behavior and the damage intensity in comparison to conventional concrete. The fundamental work of is taken as reference for the evaluation of the results. The impactor model of a Phantom F4 GE-J79 engine developed and validated by Sugano et al. is used as defined in the original work. In order to achieve best comparability, the experimental configuration and method are adapted for the UHPC experiments. With ‘penetration’, ‘scabbing’ and ‘perforation’ all relevant damage modes defined in are investigated so that a full set of results are provided for a representative UHPC structural configuration.
  • Journal title
    Nuclear Engineering and Design Eslah
  • Serial Year
    2010
  • Journal title
    Nuclear Engineering and Design Eslah
  • Record number

    895798