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Margaux Duchamp, the founder of ArcoScreen, a biotech company. Margaux Duchamp, the founder of ArcoScreen, a biotech company. ArcoScreen’s microfluidic system Margaux Duchamp, the founder of ArcoScreen, a biotech company. ArcoScreen’s microfluidic system Clara Moldovan, the founder of Swistor, which makes energy storage devices Clara Moldovan, the founder of Swistor, which makes energy storage devices Clara Moldovan, the founder of Swistor, which makes energy storage devices Margaux Duchamp, the founder of ArcoScreen, a biotech company. Clara Moldovan, the founder of Swistor, which makes energy storage devices Margaux Duchamp, the founder of ArcoScreen, a biotech company. Clara Moldovan and Margaux Duchamp, winners of the 2021 Musy Prize Clara Moldovan, the founder of Swistor, which makes energy storage devices Clara Moldovan, the founder of Swistor, which makes energy storage devices Clara Moldovan, the founder of Swistor, which makes energy storage devices ArcoScreen’s microfluidic system ArcoScreen’s microfluidic system Margaux Duchamp, the founder of ArcoScreen, a biotech company. Margaux Duchamp, the founder of ArcoScreen, a biotech company. Margaux Duchamp, the founder of ArcoScreen, a biotech company. Margaux Duchamp, the founder of ArcoScreen, a biotech company. Summer Series: Science as a vocation. Summer Series: Science as a vocation. Summer Series: Science as a vocation. Summer Series: Science as a vocation. Summer Series: Science as a vocation. Summer Series: Science as a vocation. Researchers at EPFL have shown that electromagnetic waves coupled to precisely engineered structures known as artificial ferromagnetic quasicrystals allow for more efficient information transmission and processing at the nanoscale. Their research also represents the first practical demonstration of Conway worms, a theoretical concept for the description of quasicrystals. Researchers at EPFL have shown that electromagnetic waves coupled to precisely engineered structures known as artificial ferromagnetic quasicrystals allow for more efficient information transmission and processing at the nanoscale. Their research also represents the first practical demonstration of Conway worms, a theoretical concept for the description of quasicrystals. Researchers at EPFL have shown that electromagnetic waves coupled to precisely engineered structures known as artificial ferromagnetic quasicrystals allow for more efficient information transmission and processing at the nanoscale. Their research also represents the first practical demonstration of Conway worms, a theoretical concept for the description of quasicrystals. Researchers at EPFL have shown that electromagnetic waves coupled to precisely engineered structures known as artificial ferromagnetic quasicrystals allow for more efficient information transmission and processing at the nanoscale. Their research also represents the first practical demonstration of Conway worms, a theoretical concept for the description of quasicrystals. Researchers at EPFL have shown that electromagnetic waves coupled to precisely engineered structures known as artificial ferromagnetic quasicrystals allow for more efficient information transmission and processing at the nanoscale. Their research also represents the first practical demonstration of Conway worms, a theoretical concept for the description of quasicrystals. Researchers at EPFL have shown that electromagnetic waves coupled to precisely engineered structures known as artificial ferromagnetic quasicrystals allow for more efficient information transmission and processing at the nanoscale. Their research also represents the first practical demonstration of Conway worms, a theoretical concept for the description of quasicrystals. Researchers at EPFL have shown that electromagnetic waves coupled to precisely engineered structures known as artificial ferromagnetic quasicrystals allow for more efficient information transmission and processing at the nanoscale. Their research also represents the first practical demonstration of Conway worms, a theoretical concept for the description of quasicrystals. Researchers at EPFL have shown that electromagnetic waves coupled to precisely engineered structures known as artificial ferromagnetic quasicrystals allow for more efficient information transmission and processing at the nanoscale. Their research also represents the first practical demonstration of Conway worms, a theoretical concept for the description of quasicrystals. Researchers at EPFL have shown that electromagnetic waves coupled to precisely engineered structures known as artificial ferromagnetic quasicrystals allow for more efficient information transmission and processing at the nanoscale. Their research also represents the first practical demonstration of Conway worms, a theoretical concept for the description of quasicrystals. Researchers at EPFL have shown that electromagnetic waves coupled to precisely engineered structures known as artificial ferromagnetic quasicrystals allow for more efficient information transmission and processing at the nanoscale. Their research also represents the first practical demonstration of Conway worms, a theoretical concept for the description of quasicrystals. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Researchers from the Laboratory of Applied Photonics Devices (LAPD) and Optics Laboratory (LO) at EPFL have found a solution. They’ve invented an algorithm that can determine what data needs to be fed into a fiber optic network in order to get the desired result at the other end. Paraplegic rats walk again in response to neuroprosthetic rehabilitation that allows the brain to elaborate new routes so that motor commands about walking, swimming and even climbing staircases reach spinal cord execution centers below the injury. EPFL scientist Grégoire Courtine. EPFL scientist and lead author Léonie Asboth. “You need to engage the animals in an intense rehabilitation therapy for the rewiring to take place.