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Featured researches published by John M. Kulicki.


NCHRP Web Document | 2014

Calibration of AASHTO LRFD Concrete Bridge Design Specifications for Serviceability

Wagdy G. Wassef; John M. Kulicki; Hani Nassif; Dennis R. Mertz; Andrzej S. Nowak

The notion of limit state is fundamental in the AASHTO LRFD Bridge Design Specifications (AASHTO LRFD). A limit state is defined as the boundary between acceptable and unacceptable performance of the structure or its component. The strength, or ultimate, limit states (ULS) of the AASHTO LRFD are calibrated through structural-reliability theory to achieve a certain level of safety. Exceeding the strength limit state results in a collapse or failure, an event that should not occur any time during the lifetime of the structure. Therefore, there is a need for an adequate safety margin expressed in the form of a target reliability index, βT. For bridge girders, the target reliability is taken as, βT = 3.5. The strength limit states do not consider the integration of the daily, seasonal, and long-term service stresses that directly affect long-term bridge performance and subsequent service life. The current service limit states (SLS) of the AASHTO LRFD are intended to ensure a serviceable bridge for the design life; assumed to be 75 years in AASHTO LRFD. When the SLS is exceeded, repair or replacement of components may be needed, repeatedly exceeding SLS can lead to deterioration and eventually collapse or failure (ULS). In general, SLS can be exceeded but the frequency and magnitude have to be within acceptable limits. The current service limit states are based upon the traditional serviceability provisions of the Standard Specifications for Highway Bridges. They are formulated to achieve component proportions similar to those of the Standard Specifications. However, these service limit states were not calibrated using reliability theory to truly achieve uniform probability of exceedence as the tools and data necessary to accomplish this calibration were not available to the code writers when AASHTO LRFD was developed. Currently, the development of calibrated service limit states remains a difficult task due to the lack of clear consequences of exceeding the SLS. This report presents the work performed on calibrating the service limit states related to concrete bridges in AASHTO LRFD.


NCHRP Report | 2010

Blast-Resistant Highway Bridges: Design and Detailing Guidelines

Eric B. Williamson; Oguzhan Bayrak; G. Daniel Williams; Carrie Davis; Kirk A. Marchand; Aldo McKay; John M. Kulicki; Wagdy G. Wassef


NCHRP Report | 2006

Development of LRFD Specifications for Horizontally Curved Steel Girder Bridges

John M. Kulicki; Wagdy G. Wassef; Danielle D Kleinhans; Chai H. Yoo; Andrzej S. Nowak; Mike Grubb


Transportation research circular | 2006

Evolution of Vehicular Live Load Models During the Interstate Design Era and Beyond

John M. Kulicki; Dennis R. Mertz


Building an International Community of Structural Engineers | 1996

Bridges of the 21st Century with High Performance Steel

Wagdy G. Wassef; John M. Kulicki; Philip A. Ritchie


Transportation Research Board 91st Annual MeetingTransportation Research Board | 2012

WIM-Based Live Load for Bridges

Andrzej S. Nowak; Przemyslaw Rakoczy; John M. Kulicki


Building an International Community of Structural Engineers | 1996

Bridge Design by the AASHTO LRFD Bridge Design Specifications

Dennis R. Mertz; John M. Kulicki


Restructuring: America and Beyond | 1995

Implementation of HPS in Bridge Design

John M. Kulicki; Wagdy G. Wassef


Building to Last | 1997

Innovative Long Span High Performance Steel Bridges

John M. Kulicki; Wagdy G. Wassef; Philip A. Ritchie


Building to Last | 1997

LRFD Design of Steel Bridges and the Case for Calibrating the Service Limit States

Dennis R. Mertz; John M. Kulicki

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Andrzej S. Nowak

University of Nebraska–Lincoln

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Eric B. Williamson

University of Texas at Austin

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G. Daniel Williams

University of Texas at Austin

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