Publication detail

Contribution of settlement of a high-rise building with recession in a ground plan to punching shear

NOVÁČEK, J. ZICH, M.

Original Title

Contribution of settlement of a high-rise building with recession in a ground plan to punching shear

Type

conference paper

Language

English

Original Abstract

Construction systems with recession in their ground plan along increasing height of a building are often used in current time. This lay-out is advantageous for the global stability of a structure, which acts as a vertical cantilever with a widen socle. Attention must be paid with this type of global lay-out solution because significant shear forces appear thanks to various types of a ground plan. Usually buildings with massive elements, which can bear major of shear forces, don’t have any problems with the global vertical shear forces. Contrarily buildings with structural system such as flat slabs supported on columns could be unsaved designed if this effect is not taken account. There is no recommendation or exact approach to this phenomenon in current standards and therefore it only depends on the designer’s approach and their experience. In the paper different types of approaches to the analysis of vertical shear forces and their distribution are presented. They are demonstrated on models with various levels of detailing. The scope of models starts at a very simple linear model of whole structure and ends by models which take account of non-linear base supports and construction stages.

Keywords

concrete, high-rise building, punching shear, settlement

Authors

NOVÁČEK, J.; ZICH, M.

Released

1. 5. 2017

ISBN

978-3-0357-1105-9

Book

23rd Concrete Days 2016

ISBN

1662-9779

Periodical

Solid State Phenomena

Year of study

259

State

Swiss Confederation

Pages from

198

Pages to

202

Pages count

5

BibTex

@inproceedings{BUT138381,
  author="Jan {Nováček} and Miloš {Zich}",
  title="Contribution of settlement of a high-rise building with recession in a ground plan to punching shear",
  booktitle="23rd Concrete Days 2016",
  year="2017",
  journal="Solid State Phenomena",
  volume="259",
  pages="198--202",
  doi="10.4028/www.scientific.net/SSP.259.198",
  isbn="978-3-0357-1105-9",
  issn="1662-9779"
}