Rotation Capacity of Bolted Flush End-Plate Stiffened Beam-to-Column Connection

One of the flexibility parameters of semi-rigid joints is rotation capacity. Plastic rotation capacity is especially important in plastic design of framed structures. Current design codes, including Eurocode 3, do not posses procedures enabling designers to obtain value of rotation capacity. In the...

Full description

Bibliographic Details
Main Authors: Ostrowski Krzysztof, Kozłowski Aleksander
Format: Article
Language:English
Published: Sciendo 2017-06-01
Series:Civil and Environmental Engineering Reports
Subjects:
Online Access:https://doi.org/10.1515/ceer-2017-0028
id doaj-e7883982dcce4984ae40455e2cb154b4
record_format Article
spelling doaj-e7883982dcce4984ae40455e2cb154b42021-09-06T19:19:31ZengSciendoCivil and Environmental Engineering Reports2080-51872450-85942017-06-0125217318410.1515/ceer-2017-0028ceer-2017-0028Rotation Capacity of Bolted Flush End-Plate Stiffened Beam-to-Column ConnectionOstrowski Krzysztof0Kozłowski Aleksander1MTA Engineering, Rzeszów, PolandRzeszow University of Technology, Rzeszów, PolandOne of the flexibility parameters of semi-rigid joints is rotation capacity. Plastic rotation capacity is especially important in plastic design of framed structures. Current design codes, including Eurocode 3, do not posses procedures enabling designers to obtain value of rotation capacity. In the paper the calculation procedure of the rotation capacity for stiffened bolted flush end-plate beam-to-column connections has been proposed. Theory of experiment design was applied with the use of Hartley’s PS/DS-P:Ha3 plan. The analysis was performed with the use of finite element method (ANSYS), based on the numerical experiment plan. The determination of maximal rotation angle was carried out with the use of regression analysis. The main variables analyzed in parametric study were: pitch of the bolt “w” (120-180 mm), the distance between the bolt axis and the beam upper edge cg1 (50-90 mm) and the thickness of the end-plate tp (10-20 mm). Power function was proposed to describe available rotation capacity of the joint. Influence of the particular components on the rotation capacity was also investigated. In the paper a general procedure for determination of rotation capacity was proposed.https://doi.org/10.1515/ceer-2017-0028rotation capacityfem analysishierarchical validationplan of numerical experiment
collection DOAJ
language English
format Article
sources DOAJ
author Ostrowski Krzysztof
Kozłowski Aleksander
spellingShingle Ostrowski Krzysztof
Kozłowski Aleksander
Rotation Capacity of Bolted Flush End-Plate Stiffened Beam-to-Column Connection
Civil and Environmental Engineering Reports
rotation capacity
fem analysis
hierarchical validation
plan of numerical experiment
author_facet Ostrowski Krzysztof
Kozłowski Aleksander
author_sort Ostrowski Krzysztof
title Rotation Capacity of Bolted Flush End-Plate Stiffened Beam-to-Column Connection
title_short Rotation Capacity of Bolted Flush End-Plate Stiffened Beam-to-Column Connection
title_full Rotation Capacity of Bolted Flush End-Plate Stiffened Beam-to-Column Connection
title_fullStr Rotation Capacity of Bolted Flush End-Plate Stiffened Beam-to-Column Connection
title_full_unstemmed Rotation Capacity of Bolted Flush End-Plate Stiffened Beam-to-Column Connection
title_sort rotation capacity of bolted flush end-plate stiffened beam-to-column connection
publisher Sciendo
series Civil and Environmental Engineering Reports
issn 2080-5187
2450-8594
publishDate 2017-06-01
description One of the flexibility parameters of semi-rigid joints is rotation capacity. Plastic rotation capacity is especially important in plastic design of framed structures. Current design codes, including Eurocode 3, do not posses procedures enabling designers to obtain value of rotation capacity. In the paper the calculation procedure of the rotation capacity for stiffened bolted flush end-plate beam-to-column connections has been proposed. Theory of experiment design was applied with the use of Hartley’s PS/DS-P:Ha3 plan. The analysis was performed with the use of finite element method (ANSYS), based on the numerical experiment plan. The determination of maximal rotation angle was carried out with the use of regression analysis. The main variables analyzed in parametric study were: pitch of the bolt “w” (120-180 mm), the distance between the bolt axis and the beam upper edge cg1 (50-90 mm) and the thickness of the end-plate tp (10-20 mm). Power function was proposed to describe available rotation capacity of the joint. Influence of the particular components on the rotation capacity was also investigated. In the paper a general procedure for determination of rotation capacity was proposed.
topic rotation capacity
fem analysis
hierarchical validation
plan of numerical experiment
url https://doi.org/10.1515/ceer-2017-0028
work_keys_str_mv AT ostrowskikrzysztof rotationcapacityofboltedflushendplatestiffenedbeamtocolumnconnection
AT kozłowskialeksander rotationcapacityofboltedflushendplatestiffenedbeamtocolumnconnection
_version_ 1717778448453206016