![]() I'm wearing soft leather boots, cloth pants, and a simple cloth shirt. The guards at my village's wooden gates look me over as I stride past. My protection is my sword, and I intend to set out today and carve my name into the world, one monster at a time. The wilds outside of settlements are not to be traveled without protection. If some monster girls capture women, they can feed off of them by eating them, violating them, or in certain cases, they can convert women into new monster girls. But men are not the only ones in danger of being raped or eaten by monster girls. Monsters are also known to consume males for food instead of or in addition to taking their semen. Some, like the Slime Girls, can also gain nutrition from sweat, blood, and saliva. All of these monster girls require males for procreation, and most of them absorb life-sustaining energy from male semen. Some are shy, some aggressive, some timid, others sadistic, but they are all women, and they all crave men. They take many forms, but they are all women. Thuralia's monsters are an interesting lot. I practiced for years, and now I am eighteen and I can go forth and avenge my father's demise by raining steel upon those evil monsters. I'd like to think I'm pretty damned good now. I kept my father's old sword from his days in the military, and I did my best to teach myself to fight. They never let me roam beyond the village gates, lest I go hunting monsters. I lived alone in our house, and was taken care of by family friends. I spent the next several years training with my father's sword. I could have tried to fight, I could have died with my father. I've never forgiven myself for that, even if I was ten. She'd come after me, but my father leapt in her path and she'd grabbed him, pulling him away from me as I turned and ran like a coward. When I was ten years old, my father was devoured by a monster before my eyes. Ever since I was young, I knew I wanted to be a hero, a warrior who slew monsters without mercy. My name is Devlin Silvermane, and I am going to be the greatest hero that Thuralia has ever seen. Army Research Office.All characters are 18 years of age or older. Yale scientists are at the forefront of efforts to develop the first fully useful quantum computers and have done pioneering work in quantum computing with superconducting circuits.Īdditional authors of the study are Kevin Chou, Luigi Frunzio, Michel Devoret, Liang Jiang, and Steven Girvin. The discovery is just the latest step in Yale’s quantum research work. “We can now choose any desired codes or even change them on the fly without having to re-wire the operation,” said co-first author Brian Lester. The universal entangler mitigates this limitation by providing a gate between any desired input states. However, each of them requires wiring up a new set of tailored operations, introducing a significant hardware overhead and reduced versatility.” “Scientists have invented a wealth of hardware-efficient, quantum error correction codes - each one cleverly designed with unique characteristics that can be exploited for different applications. “This universal entangler is critical for robust quantum computation,” said Yvonne Gao, co-first author of the study. In the study, researchers demonstrated the new technology by deterministically entangling encoded states in any chosen configurations or codes, each housed in two otherwise isolated, 3D superconducting microwave cavities. The entangling mechanism is called an exponential-SWAP gate. “It’s a much more sophisticated operation than what has been performed previously.” “We’ve shown a new way of creating gates between logically-encoded qubits that can eventually be error-corrected,” said Schoelkopf, the Sterling Professor of Applied Physics and Physics at Yale and director of the Yale Quantum Institute. To implement faithful quantum computation, scientists say, they need “logical” qubits whose errors can be detected and rectified using quantum error correction codes. Quantum calculations are accomplished with delicate bits of data called qubits, which are prone to errors. The research is led by the Yale laboratory of Robert Schoelkopf and appears in the journal Nature. The discovery represents a powerful new mechanism with potential uses in quantum computing, cryptography, and quantum communications. Now Yale researchers have developed a “universal entangler” that can link a variety of encoded particles on demand. One of the key concepts in quantum physics is entanglement, in which two or more quantum systems become so inextricably linked that their collective state can’t be determined by observing each element individually. Yale researchers have created a way to entangle a variety of encoded particles on demand.
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