Leading Health and Life Sciences in Nova Scotia

here Research scientists find the LevitationTM Knee Brace enables users to perform 20 percent more squats HALIFAX, NS – Sept. 20, 2016 – Spring Loaded Technology today reports the findings of a recent third-party study which links its LevitationTM, the world’s first compact bionic knee brace, to a significant reduction in factors that can lead to muscle fatigue. Research scientists observed the oxygen intake, carbon dioxide production and muscle activity of three healthy individuals as they repeated a squat to stand task with and without the assistance of the knee brace. The study found that the LevitationTM Knee Brace, which uses a liquid spring technology to store energy as the leg is bent and return it as the leg is straightened, requires significantly less exertion from the user during energy expensive movements like rising to a stand from a full squat or crouched position. Data from the study revealed that participants used 25 percent less oxygen during the task cycle when compared to their consumption without the brace’s assistance. The researchers also found a drastic 40 percent reduction in carbon dioxide production. The study was performed through the NSERC Engage Program at the University of New Brunswick by research scientists, Dr. Chris McGibbon in the Faculty of Kinesiology and Abeer Mohamed Abdelhady, PhD Candidate in the Dept. Mechanical Engineering. “With the knee brace’s assistance, participants consumed less energy and were able to do more physical activity as measured with our squat test,” said Dr. Chris McGibbon. “The participants in this study also demonstrated a reduced respiratory exchange ratio (RER) while wearing the LevitationTM, meaning that they were burning more fat stores than carbohydrates. These findings are consistent with Spring Loaded Technology’s claim that LevitationTM reduces factors known to be associated with muscle fatigue—an exciting and unique accomplishment for knee braces and the field of bionics.” The findings also support the brace’s ability to reduce demand on the muscles in order to improve performance, with participants showing an 85 percent reduction of activity in the quadriceps muscles and a 50 percent reduction of activity in the hamstring muscles during the squat task. Study participants were also able to perform up to 20 percent more squats when wearing the brace compared to the number of squats achieved when their knees were unassisted. This data was drawn at the Levitation™ Knee Brace’s maximum assistance level. The level of assistance is adjustable and can be tailored to the user’s needs. This allows the user to specify different settings for different activities, or if the individual is recovering from an injury, to gradually reduce the level of assistance provided to zero as they recover their full strength. “LevitationTM was designed to go above and beyond joint stabilization to assist strength and reduce fatigue. The result is a product intended to enhance mobility and expedite rehabilitation,” said Chris Cowper-Smith, CEO at Spring Loaded Technology. “It was important to us to have a study that shows our customers what sets us apart in the marketplace as they make an informed decision about which brace is best for them.” LevitationTM Knee Braces ($1,750 USD) are currently available for pre-order. To learn more about Spring Loaded Technology, visit www.springloadedtechnology.com. About Spring Loaded Technology Spring Loaded Technology is an award-winning company that is introducing compact and high-performance bionic knee braces to the world. Based in Nova Scotia, Canada, the company has revolutionized knee bracing technology to enhance the strength and power of the leg muscles. By increasing leg strength, this technology can be used in a wide range of applications including: mobility assistance, fatigue reduction, injury prevention and rehabilitation, and performance enhancement. The company was founded in 2012. Media Contact Melissa Landy Uproar PR for Spring Loaded Technology 321-236-0102 x233 [email protected]]]>