Publication:
Reliability and validity of different methods of estimating the one-repetition maximum during the free-weight prone bench pull exercise

No Thumbnail Available
Date
2019
Authors
García-Ramos, Amador
Barboza González, Paola
Dr. Ulloa-Díaz, David
Rodriguez Perea, Angela
Martinez Garcia, Darío
Guede Rojas, Francisco
Hinojosa Riveros, Hans
Chirosa Ríos, Luis Javier
Dr. Cuevas-Aburto, Jesualdo
Janicijevic, Danica
Journal Title
Journal ISSN
Volume Title
Publisher
Routledge
Research Projects
Organizational Units
Journal Issue
Abstract
This study examined the reliability and validity of three methods of estimating the one-repetition maximum (1RM) during the free-weight prone bench pull exercise. Twenty-six men (22 rowers and four weightlifters) performed an incremental loading test until reaching their 1RM, followed by a set of repetitions-to-failure. Eighteen participants were re-tested to conduct the reliability analysis. The 1RM was estimated through the lifts-to-failure equations proposed by Lombardi and O'Connor, general load-velocity (L-V) relationships proposed by Sánchez-Medina and Loturco and the individual L-V relationships modelled using four (multiple-point method) or only two loads (two-point method). The direct method provided the highest reliability (coefficient of variation [CV] = 2.45% and intraclass correlation coefficient [ICC] = 0.97), followed by the Lombardi's equation (CV = 3.44% and ICC = 0.94), and no meaningful differences were observed between the remaining methods (CV range = 4.95-6.89% and ICC range = 0.81-0.91). The lifts-to-failure equations overestimated the 1RM (3.43-4.08%), the general L-V relationship proposed by Sánchez-Medina underestimated the 1RM (-3.77%), and no significant differences were observed for the remaining prediction methods (-0.40-0.86%). The individual L-V relationship could be recommended as the most accurate method for predicting the 1RM during the free-weight prone bench pull exercise.
Description
Keywords
Lift-to-failure equations, Linear position transducer, Load-velocity relationship, Resistance training, Velocity-based training
Citation