Characterization of slip resistance for metallized-galvanized faying surfaces in slip-critical joints. Annan, C., Chiza, A., El Refai, A., & Levesque, E. In volume 3, pages 2671 - 2681, Montreal, QC, Canada, 2013. Bolted connections;Canadian highway bridge design codes;Environmental conditions;Slip-critical connections;Slip-critical joints;Steel girder bridge;Surface conditions;Varying parameters;abstract bibtex Exposed structural steel surfaces, particularly in steel girder bridge construction, require coating protection from harsh environmental conditions to preserve structural integrity and provide longevity. Consequently, galvanization and metallization have evolved as effective long-term protection. Practical situations exist where galvanized secondary structural members are joined to primary elements that are metallized in a slip-critical connection. Design provisions for bolted connections in contemporary standards, such as the Canadian Highway Bridge Design Code CAN/CSA S6-06, do not specify slip coefficient for slip-resistant connections with galvanized-metallized faying surfaces (i.e. one connected face metallized and the other face galvanized). Bridge fabricators are thus compelled to mask off connection faying surfaces before applying the protective coatings on structural members. This practice is time-consuming, expensive, and exposes the connection to corrosion before assembling. In this investigation, the resistance of slip-critical joints having metallized-galvanized faying surfaces is characterized in view of the Canadian steel bridge design standard. The mean slip coefficient is determined from compression test regime and for varying parameters of coating thickness, surface conditions, and bolt preload.
Copyright © (2013) by the Canadian Society for Civil Engineering.
@inproceedings{20153101097475 ,
language = {English},
copyright = {Compilation and indexing terms, Copyright 2023 Elsevier Inc.},
copyright = {Compendex},
title = {Characterization of slip resistance for metallized-galvanized faying surfaces in slip-critical joints},
journal = {Proceedings, Annual Conference - Canadian Society for Civil Engineering},
author = {Annan, C.D. and Chiza, A. and El Refai, A. and Levesque, E.},
volume = {3},
number = {January},
year = {2013},
pages = {2671 - 2681},
address = {Montreal, QC, Canada},
abstract = {Exposed structural steel surfaces, particularly in steel girder bridge construction, require coating protection from harsh environmental conditions to preserve structural integrity and provide longevity. Consequently, galvanization and metallization have evolved as effective long-term protection. Practical situations exist where galvanized secondary structural members are joined to primary elements that are metallized in a slip-critical connection. Design provisions for bolted connections in contemporary standards, such as the Canadian Highway Bridge Design Code CAN/CSA S6-06, do not specify slip coefficient for slip-resistant connections with galvanized-metallized faying surfaces (i.e. one connected face metallized and the other face galvanized). Bridge fabricators are thus compelled to mask off connection faying surfaces before applying the protective coatings on structural members. This practice is time-consuming, expensive, and exposes the connection to corrosion before assembling. In this investigation, the resistance of slip-critical joints having metallized-galvanized faying surfaces is characterized in view of the Canadian steel bridge design standard. The mean slip coefficient is determined from compression test regime and for varying parameters of coating thickness, surface conditions, and bolt preload.<br/> Copyright © (2013) by the Canadian Society for Civil Engineering.},
key = {Metals},
keywords = {Building materials;Galvanizing;Metallizing;Thickness measurement;Bridges;Compression testing;},
note = {Bolted connections;Canadian highway bridge design codes;Environmental conditions;Slip-critical connections;Slip-critical joints;Steel girder bridge;Surface conditions;Varying parameters;},
}
Downloads: 0
{"_id":"jn9PmQxau5MG2QeqC","bibbaseid":"annan-chiza-elrefai-levesque-characterizationofslipresistanceformetallizedgalvanizedfayingsurfacesinslipcriticaljoints-2013","author_short":["Annan, C.","Chiza, A.","El Refai, A.","Levesque, E."],"bibdata":{"bibtype":"inproceedings","type":"inproceedings","language":"English","copyright":"Compendex","title":"Characterization of slip resistance for metallized-galvanized faying surfaces in slip-critical joints","journal":"Proceedings, Annual Conference - Canadian Society for Civil Engineering","author":[{"propositions":[],"lastnames":["Annan"],"firstnames":["C.D."],"suffixes":[]},{"propositions":[],"lastnames":["Chiza"],"firstnames":["A."],"suffixes":[]},{"propositions":[],"lastnames":["El","Refai"],"firstnames":["A."],"suffixes":[]},{"propositions":[],"lastnames":["Levesque"],"firstnames":["E."],"suffixes":[]}],"volume":"3","number":"January","year":"2013","pages":"2671 - 2681","address":"Montreal, QC, Canada","abstract":"Exposed structural steel surfaces, particularly in steel girder bridge construction, require coating protection from harsh environmental conditions to preserve structural integrity and provide longevity. Consequently, galvanization and metallization have evolved as effective long-term protection. Practical situations exist where galvanized secondary structural members are joined to primary elements that are metallized in a slip-critical connection. Design provisions for bolted connections in contemporary standards, such as the Canadian Highway Bridge Design Code CAN/CSA S6-06, do not specify slip coefficient for slip-resistant connections with galvanized-metallized faying surfaces (i.e. one connected face metallized and the other face galvanized). Bridge fabricators are thus compelled to mask off connection faying surfaces before applying the protective coatings on structural members. This practice is time-consuming, expensive, and exposes the connection to corrosion before assembling. In this investigation, the resistance of slip-critical joints having metallized-galvanized faying surfaces is characterized in view of the Canadian steel bridge design standard. The mean slip coefficient is determined from compression test regime and for varying parameters of coating thickness, surface conditions, and bolt preload.<br/> Copyright © (2013) by the Canadian Society for Civil Engineering.","key":"20153101097475","keywords":"Building materials;Galvanizing;Metallizing;Thickness measurement;Bridges;Compression testing;","note":"Bolted connections;Canadian highway bridge design codes;Environmental conditions;Slip-critical connections;Slip-critical joints;Steel girder bridge;Surface conditions;Varying parameters;","bibtex":"@inproceedings{20153101097475 ,\nlanguage = {English},\ncopyright = {Compilation and indexing terms, Copyright 2023 Elsevier Inc.},\ncopyright = {Compendex},\ntitle = {Characterization of slip resistance for metallized-galvanized faying surfaces in slip-critical joints},\njournal = {Proceedings, Annual Conference - Canadian Society for Civil Engineering},\nauthor = {Annan, C.D. and Chiza, A. and El Refai, A. and Levesque, E.},\nvolume = {3},\nnumber = {January},\nyear = {2013},\npages = {2671 - 2681},\naddress = {Montreal, QC, Canada},\nabstract = {Exposed structural steel surfaces, particularly in steel girder bridge construction, require coating protection from harsh environmental conditions to preserve structural integrity and provide longevity. Consequently, galvanization and metallization have evolved as effective long-term protection. Practical situations exist where galvanized secondary structural members are joined to primary elements that are metallized in a slip-critical connection. Design provisions for bolted connections in contemporary standards, such as the Canadian Highway Bridge Design Code CAN/CSA S6-06, do not specify slip coefficient for slip-resistant connections with galvanized-metallized faying surfaces (i.e. one connected face metallized and the other face galvanized). Bridge fabricators are thus compelled to mask off connection faying surfaces before applying the protective coatings on structural members. This practice is time-consuming, expensive, and exposes the connection to corrosion before assembling. In this investigation, the resistance of slip-critical joints having metallized-galvanized faying surfaces is characterized in view of the Canadian steel bridge design standard. The mean slip coefficient is determined from compression test regime and for varying parameters of coating thickness, surface conditions, and bolt preload.<br/> Copyright © (2013) by the Canadian Society for Civil Engineering.},\nkey = {Metals},\nkeywords = {Building materials;Galvanizing;Metallizing;Thickness measurement;Bridges;Compression testing;},\nnote = {Bolted connections;Canadian highway bridge design codes;Environmental conditions;Slip-critical connections;Slip-critical joints;Steel girder bridge;Surface conditions;Varying parameters;},\n} \n\n\n","author_short":["Annan, C.","Chiza, A.","El Refai, A.","Levesque, E."],"id":"20153101097475","bibbaseid":"annan-chiza-elrefai-levesque-characterizationofslipresistanceformetallizedgalvanizedfayingsurfacesinslipcriticaljoints-2013","role":"author","urls":{},"keyword":["Building materials;Galvanizing;Metallizing;Thickness measurement;Bridges;Compression testing;"],"metadata":{"authorlinks":{}}},"bibtype":"inproceedings","biburl":"https://bibbase.org/network/files/m3A3cns49MKmeRzt5","dataSources":["t3LjCpZw6L2kk69Qf","6Aw5QAtT2yLJ3d2JP","qBPxBjrzghRQ4Wzbf","EnwwBMFxopKkypo2f","8uWbXNBCDiEboMj8h"],"keywords":["building materials;galvanizing;metallizing;thickness measurement;bridges;compression testing;"],"search_terms":["characterization","slip","resistance","metallized","galvanized","faying","surfaces","slip","critical","joints","annan","chiza","el refai","levesque"],"title":"Characterization of slip resistance for metallized-galvanized faying surfaces in slip-critical joints","year":2013}