作者：Khatib, Muhammad; Zhao, Eric Tianjiao; Wei, Shiyuan; Park, Jaeho; Abramson, Alex; Bishop, Estelle Spear; Thomas, Anne-Laure; Chen, Chih-Hsin; Emengo, Pamela; Xu, Chengyi; Hamnett, Ryan; Root, Samuel E.; Yuan, Lei; Wurdack, Matthias J.; Zaluska, Tomasz; Lee, Yeongjun; Parkatzidis, Kostas; Yu, Weilai; Chakhtoura, Dorine; Kim, Kyun Kyu; Zhong, Donglai; Nishio, Yuya; Zhao, Chuanzhen; Wu, Can; Jiang, Yuanwen; Zhang, Anqi; Li, Jinxing; Wang, Weichen; Salimi-Jazi, Fereshteh; Rafeeqi, Talha A.; Hemed, Nofar Mintz; Tok, Jeffrey B. -H.; Qian, Xiang; Chen, Xiaoke; Kaltschmidt, Julia A.; Dunn, James C. Y.; Bao, Zhenan
作者单位：Stanford University; University System of Georgia; Georgia Institute of Technology; University System of Georgia; Georgia Institute of Technology; Emory University; Stanford University; Stanford University; Stanford University; Stanford University; Stanford University; Stanford University; Michigan State University; Michigan State University; Stanford University; Stanford University; Stanford University
摘要：There is an increasing demand for multimodal sensing and stimulation bioelectronic fibres for both research and clinical applications1,2. However, existing fibres suffer from high rigidity, low component layout precision, limited functionality and low density of active components. These limitations arise from the challenge of integrating many components into one-dimensional fibre devices, especially owing to the incompatibility of conventional microfabrication methods (for example, photolithog...
作者：Miyashita, Tetsuto; Janvier, Philippe; Tietjen, Kristen; Berenguer, Felisa; Schoder, Sebastian; Marone, Federica; Gueriau, Pierre; Coates, Michael I.
作者单位：University of Ottawa; Museum National d'Histoire Naturelle (MNHN); University of Kansas; University of Kansas; Universite Paris Saclay; Centre National de la Recherche Scientifique (CNRS); Museum National d'Histoire Naturelle (MNHN); SOLEIL Synchrotron; Swiss Federal Institutes of Technology Domain; Paul Scherrer Institute; University of Lausanne; University of Chicago
摘要：The standard scenario for the origin of jawed vertebrates depicts a transition from benthic grazers to nektonic predators1, 2-3, facilitated by a suite of anatomical innovations, including elaborate sensory systems, a high-flow heart and the integration of jaw-opening muscles with the craniothoracic hinge4, 5, 6-7. However, the lamprey-like internal anatomy8, 9, 10, 11, 12-13 reconstructed for osteostracans, the sister group of jawed vertebrates, seem to lack these gnathostome traits, implying...
作者：Lacroix, N.; Bourassa, A.; Heras, F. J. H.; Zhang, L. M.; Bausch, J.; Senior, A. W.; Edlich, T.; Shutty, N.; Sivak, V.; Bengtsson, A.; Mcewen, M.; Higgott, O.; Kafri, D.; Claes, J.; Morvan, A.; Chen, Z.; Zalcman, A.; Madhuk, S.; Acharya, R.; Beni, L. Aghababaie; Aigeldinger, G.; Alcaraz, R.; Andersen, T. I.; Ansmann, M.; Arute, F.; Arya, K.; Asfaw, A.; Atalaya, J.; Babbush, R.; Ballard, B.; Bardin, J. C.; Bilmes, A.; Blackwell, S.; Bovaird, J.; Bowers, D.; Brill, L.; Broughton, M.; Browne, D. A.; Buchea, B.; Buckley, B. B.; Burger, T.; Burkett, B.; Bushnell, N.; Cabrera, A.; Campero, J.; Chang, H. -S; Chiaro, B.; Chih, L. -Y; Cleland, A. Y.; Cogan, J.; Collins, R.; Conner, P.; Courtney, W.; Crook, A. L.; Curtin, B.; Das, S.; Demura, S.; De Lorenzo, L.; Di Paolo, A.; Donohoe, P.; Drozdov, I.; Dunsworth, A.; Eickbusch, A.; Elbag, A. Moshe; Elzouka, M.; Erickson, C.; Ferreira, V. S.; Flores Burgos, L.; Forati, E.; Fowler, A. G.; Foxen, B.; Ganjam, S.; Garcia, G.; Gasca, R.; Genois, E.; Giang, W.; Gilboa, D.; Gosula, R.; Grajales Dau, A.; Graumann, D.; Greene, A.; Gross, J. A.; Ha, T.; Habegger, S.; Hansen, M.; Harrigan, M. P.; Harrington, S. D.; Heslin, S.; Heu, P.; Hiltermann, R.; Hilton, J.; Hong, S.; Huang, H. -Y; Huff, A.; Huggins, W. J.; Jeffrey, E.; Jiang, Z.; Jin, X.; Joshi, C.; Juhas, P.; Kabel, A.; Kang, H.; Karamlou, A. H.; Kechedzhi, K.; Khaire, T.; Khattar, T.; Khezri, M.; Kim, S.; Klimov, P. V.; Kobrin, B.; Korotkov, A. N.; Kostritsa, F.; Kreikebaum, J. Mark; Kurilovich, V. D.; Landhuis, D.; Lange-Dei, T.; Langley, B. W.; Laptev, P.; Lau, K. -m.; Ledford, J.; Lee, K.; Lester, B. J.; Le Guevel, L.; Li, W. Yan; Li, Y.; Lill, A. T.; Livingston, W. P.; Locharla, A.; Lucero, E.; Lundahl, D.; Lunt, A.; Maloney, A.; Mandra, S.; Martin, L. S.; Martin, O.; Maxfield, C.; Mcclean, J. R.; Meeks, S.; Megrant, A.; Miao, K. C.; Molavi, R.; Molina, S.; Montazeri, S.; Movassagh, R.; Neill, C.; Newman, M.; Nguyen, A.; Nguyen, M.; Ni, C. -H; Niu, M. Y.; Oas, L.; Oliver, W. D.; Orosco, R.; Ottosson, K.; Pizzuto, A.; Potter, R.; Pritchard, O.; Quintana, C.; Ramachandran, G.; Reagor, M. J.; Resnick, R.; Rhodes, D. M.; Roberts, G.; Rosenberg, E.; Rosenfeld, E.; Rossi, E.; Roushan, P.; Sankaragomathi, K.; Schurkus, H. F.; Shearn, M. J.; Shorter, A.; Shvarts, V.; Small, S.; Smith, W. Clarke; Springer, S.; Sterling, G.; Suchard, J.; Szasz, A.; Sztein, A.; Thor, D.; Tomita, E.; Torres, A.; Torunbalci, M. Mert; Vaishnav, A.; Vargas, J.; Vdovichev, S.; Vidal, G.; Heidweiller, C. Vollgraff; Waltman, S.; Waltz, J.; Wang, S. X.; Ware, B.; Weidel, T.; White, T.; Wong, K.; Woo, B. W. K.; Woodson, M.; Xing, C.; Yao, Z. Jamie; Yeh, P.; Ying, B.; Yoo, J.; Yosri, N.; Young, G.; Zhang, Y.; Zhu, N.; Zobrist, N.; Neven, H.; Kohli, P.; Davies, A.; Boixo, S.; Kelly, J.; Jones, C.; Gidney, C.; Satzinger, K. J.
作者单位：Alphabet Inc.; Google Incorporated; Swiss Federal Institutes of Technology Domain; ETH Zurich; Alphabet Inc.; Google Incorporated; DeepMind; University of Massachusetts System; University of Massachusetts Amherst; University of Connecticut; University of California System; University of California Santa Barbara; Massachusetts Institute of Technology (MIT); Massachusetts Institute of Technology (MIT); Massachusetts Institute of Technology (MIT)
摘要：Quantum error correction1, 2, 3-4 is essential for bridging the gap between the error rates of physical devices and the extremely low error rates required for quantum algorithms. Recent error-correction demonstrations on superconducting processors5, 6, 7-8 have focused primarily on the surface code9, which offers a high error threshold but poses limitations for logical operations. The colour code10 enables more efficient logic, but it requires more complex stabilizer measurements and decoding....
作者：Xie, Ruijie; Han, Fei; Yu, Qianhengyuan; Li, Dong; Han, Xu; Xu, Xiaolong; Yu, Huan; Huang, Jianping; Zhou, Xiaomeng; Zhao, Hang; Deng, Xinping; Tian, Qiong; Li, Qingsong; Li, Hanfei; Zhao, Yang; Ma, Guoyao; Li, Guanglin; Zheng, Hairong; Zhu, Meifang; Yan, Wei; Xu, Tiantian; Liu, Zhiyuan
作者单位：Chinese Academy of Sciences; Xiamen University; Donghua University; Chinese Academy of Sciences; Shenzhen Institute of Advanced Technology, CAS; Shenzhen University of Advanced Technology; Chinese Academy of Sciences; Shenzhen Institute of Advanced Technology, CAS; Shandong University
摘要：Long-term implantable bioelectronics offer a powerful means to evaluate the function of the nervous system and serve as effective human-machine interfaces1, 2-3. Here, inspired by earthworms, we introduce NeuroWorm-a soft, stretchable and movable fibre sensor designed for bioelectronic interface. Our approach involves rolling to transform 2D bioelectronic devices into 1D NeuroWorm, creating a multifunctional microfibre that houses longitudinally distributed electrode arrays for both bioelectri...
