{"id":13324,"date":"2025-01-24T14:26:25","date_gmt":"2025-01-24T14:26:25","guid":{"rendered":"https:\/\/www.pianostreet.com\/blog\/?p=13324"},"modified":"2025-02-09T22:50:26","modified_gmt":"2025-02-09T22:50:26","slug":"when-practice-stagnates-breaking-the-performance-ceiling-robotic-training-for-pianists","status":"publish","type":"post","link":"https:\/\/www.pianostreet.com\/blog\/piano-news\/when-practice-stagnates-breaking-the-performance-ceiling-robotic-training-for-pianists-13324\/","title":{"rendered":"When Practice Stagnates: Robotic Training for Pianists"},"content":{"rendered":"

“Practice makes perfect” is a common mantra for any pianist, but we all know it’s an oversimplification. While practice often leads to improvement, true perfection is elusive.
\nBut according to recent research, a robotic exoskeleton hand could help pianists improve their speed of performing difficult pianistic patterns, by overcoming the well-known “ceiling effect”. <\/span><\/p>\n

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Both professional pianists and piano students of all levels often encounter a \u201chit the roof\u201d or “ceiling effect,” where further practice yields diminishing, none or even negative returns. The 19th century virtuoso training movement with Czerny<\/a>, Hanon<\/a> and others along with Schumann<\/a>\u2019s infamous stretching devices gives proof of the profession\u2019s aim to expand the possible limits. Subsequently, this raises questions about the limitations of traditional training methods in cases when increased training volume may not be enough to overcome these plateaus.<\/p>\n

In the field of sports, cutting-edge training methods utilizing technology have been put into practical use and many top athletes are taking advantage of them. Research about sprint running<\/a> has shown clear benefits of over-speed training<\/em>. As an opposite of the more common resistance training<\/em>, it can for example consist of running downhill in high speed to improve the maximum sprint speed.<\/p>\n

However, much of the existing research has dealt with simple tasks, leaving a gap in our understanding of how to break through plateaus in complex skills such as piano playing.
\nPassive training, employing technologies like robotic exoskeletons, may address this by introducing novel movement patterns and enhancing precision and coordination, according to researchers at the NeuroPiano Institute<\/a>.<\/p>\n

\u201cI\u2019m a pianist, but I injured my hand because of overpracticing,\u201d says co-author Shinichi Furuya of Kabushiki Keisha Sony Computer Science: \u201cI was suffering from this dilemma, between overpracticing and the prevention of the injury, so then I thought, I have to think about some way to improve my skills without practicing.\u201d Recalling that his former teachers used to place their hands over his to show him how to play more advanced pieces, he wondered if he could achieve the same effect with a robotic hand.\u201d<\/p>\n

They have now tried a new type of robotic hand to help breaking through a pianist’s speed barrier. Unlike previous exoskeletons primarily used for rehabilitation or simple tasks, this device focused on facilitating highly skilled, rapid movements is capable of independently moving each finger, mimicking a pianists complex finger movements. <\/p>\n

The exoskeleton device has showed promising results by passively training pianists, guiding their fingers through complex movements and at high speeds that would be impossible to achieve on their own.<\/p>\n

This short demo video illustrates the concept:<\/p>\n