&NewLine;<p class&equals;"has-text-align-justify">This artificial muscle works on the principle of coiled-up substances&period; They can stretch like a muscle&period; Twisting up even a simple material like sewing thread or fishing line creates a muscle-like structure that can lift weights 100 times heavier than what a human muscle can manage&period; Bamboo or silk are even stronger fibers&comma; when twisted into a coil and coated with a sheath that can respond to heat or electrochemical changes&comma; which can trigger the muscle to contract and thus move&period;<&sol;p>&NewLine;&NewLine;&NewLine;&NewLine;<figure class&equals;"wp-block-image"><img src&equals;"https&colon;&sol;&sol;lh3&period;googleusercontent&period;com&sol;6dHLB57-VbAHlKfgP4F3vl8Dwi1FM10SzAu-9klGgRIGYdJyc2okKa8FbCCrDwyfagV8GA2tw2WV1EaKO&lowbar;S8ctAF2TWzJgbouSpXzLV8gghbC3fGRa1P2HQcApAhrD6ak3tgpu8" alt&equals;"This Super Strong Artificial Muscle Can Lift 1000 Times Its Own Weight&excl;"&sol;><&sol;figure>&NewLine;&NewLine;&NewLine;&NewLine;<p class&equals;"has-text-align-justify">It was noticed that even a slight increase in the temperature made the coil tighten up&comma; producing a surprisingly strong pulling force&period; The moment the temperature dropped down&comma; the fiber returned to its original length&period; It was observed that this process of contraction and expansion could be repeated 10&comma;000 times&period; Even a 1-degree Celsius increase was enough to start the fiber contraction&period;<&sol;p>&NewLine;&NewLine;&NewLine;&NewLine;<p>However&comma; engineers still have to go a little far to make these artificial muscles as efficient as ours&period; Currently&comma; nearly 3 percent of the energy put into these muscles is used by the fibers&period; The rest of it is lost in the form of heat&period; Once this problem is fixed&comma; these artificial muscles and others of their form&comma; could provide cost effective and slimline alternatives to the bulky electric motors used today&period;<&sol;p>&NewLine;&NewLine;&NewLine;&NewLine;<p class&equals;"has-text-align-justify">Watch this video to know how it works&excl;<&sol;p>&NewLine;&NewLine;&NewLine;&NewLine;<figure class&equals;"wp-block-embed is-type-video is-provider-youtube wp-block-embed-youtube wp-embed-aspect-4-3 wp-has-aspect-ratio"><div class&equals;"wp-block-embed&lowbar;&lowbar;wrapper">&NewLine;<amp-youtube layout&equals;"responsive" width&equals;"1160" height&equals;"870" data-videoid&equals;"9XLw&lowbar;cNwV88" title&equals;"Scientists Develop Super Strong Artificial Muscles"><a placeholder href&equals;"https&colon;&sol;&sol;youtu&period;be&sol;9XLw&lowbar;cNwV88"><img src&equals;"https&colon;&sol;&sol;i&period;ytimg&period;com&sol;vi&sol;9XLw&lowbar;cNwV88&sol;hqdefault&period;jpg" layout&equals;"fill" object-fit&equals;"cover" alt&equals;"Scientists Develop Super Strong Artificial Muscles"><&sol;a><&sol;amp-youtube>&NewLine;<&sol;div><&sol;figure>&NewLine;&NewLine;&NewLine;&NewLine;<p class&equals;"has-text-align-justify">Such fibers could be used as actuators in robotic arms&comma; legs&comma; or grippers&comma; and in prosthetic limbs&comma; where their small weight and instantaneous response could provide a great advantage&period; Also&comma; it can find uses in tiny biomedical devices&comma; such as a medical robot that does it work by entering an artery&period; Activation times in the order of tens of milliseconds to seconds&comma; makes it more beneficial&period;<&sol;p>&NewLine;&NewLine;&NewLine;&NewLine;<p><strong>If you like reading this one&comma; check out <&sol;strong><a href&equals;"https&colon;&sol;&sol;yodoozy&period;com&sol;robots-smaller-than-the-cross-section-of-a-single-human-hair-what-for&sol;&quest;v&equals;a98eef2a3105"><strong>Robots Smaller Than The Cross Section Of A Single Human Hair&colon; What For&quest;<&sol;strong><&sol;a><&sol;p>&NewLine;