OBJECTIVES: To quantify the reaction forces exerted under the hands, feet and buttocks when individuals with spinal cord injury performed sitting pivot transfers. DESIGN: Twelve men with paraplegia completed 3 transfers between seats of the same height (0.5 m high) and 3 transfers to a high target seat (0.6 m high). RESULTS: Greater mean and peak vertical reaction forces were always recorded under the hands compared with the feet (p<0.001) during the transfers. Mean vertical reaction forces were similar between the leading and trailing hands (p>0.088) for the 2 transfers studied. However, the mean vertical reaction force underneath the leading hand was greater when transferring between a seat of the same height compared with one of a higher height (p=0.021) and vice-versa for the trailing hand (p=0.0001). The peak vertical reaction force always occurred earlier (p<0.0001) and was greater underneath the trailing hand compared with the leading one (p<0.02), and reached its highest value when transferring to the high target seat (p=0.003). Peak and mean horizontal reaction forces were always higher underneath the trailing hand compared with the leading hand (p<0.001). CONCLUSION: These results provide evidence-based data to better understand transfers and strengthen clinical practice guidelines targeting the preservation of upper extremity integrity.
OBJECTIVES: To quantify the reaction forces exerted under the hands, feet and buttocks when individuals with spinal cord injury performed sitting pivot transfers. DESIGN: Twelve men with paraplegia completed 3 transfers between seats of the same height (0.5 m high) and 3 transfers to a high target seat (0.6 m high). RESULTS: Greater mean and peak vertical reaction forces were always recorded under the hands compared with the feet (p<0.001) during the transfers. Mean vertical reaction forces were similar between the leading and trailing hands (p>0.088) for the 2 transfers studied. However, the mean vertical reaction force underneath the leading hand was greater when transferring between a seat of the same height compared with one of a higher height (p=0.021) and vice-versa for the trailing hand (p=0.0001). The peak vertical reaction force always occurred earlier (p<0.0001) and was greater underneath the trailing hand compared with the leading one (p<0.02), and reached its highest value when transferring to the high target seat (p=0.003). Peak and mean horizontal reaction forces were always higher underneath the trailing hand compared with the leading hand (p<0.001). CONCLUSION: These results provide evidence-based data to better understand transfers and strengthen clinical practice guidelines targeting the preservation of upper extremity integrity.
Authors: Lynn A Worobey; Christina K Zigler; Randall Huzinec; Stephanie K Rigot; JongHun Sung; Laura A Rice Journal: Top Spinal Cord Inj Rehabil Date: 2018
Authors: Padmaja Kankipati; Michael L Boninger; Dany Gagnon; Rory A Cooper; Alicia M Koontz Journal: J Spinal Cord Med Date: 2014-08-17 Impact factor: 1.985
Authors: Lynn A Worobey; Rachel Hibbs; Stephanie K Rigot; Michael L Boninger; Randall Huzinec; Jong H Sung; Laura A Rice Journal: Arch Phys Med Rehabil Date: 2021-03-10 Impact factor: 4.060
Authors: Stephanie K Rigot; Kaitlin M DiGiovine; Michael L Boninger; Rachel Hibbs; Ian Smith; Lynn A Worobey Journal: Arch Phys Med Rehabil Date: 2021-06-04 Impact factor: 3.966
Authors: Lisa Lighthall Haubert; Sara J Mulroy; Patricia E Hatchett; Valerie J Eberly; Somboon Maneekobkunwong; Joanne K Gronley; Philip S Requejo Journal: Front Bioeng Biotechnol Date: 2015-09-17