Imaging:Article Title: Super resolution radar device and methods
Article Snippet: No. 9,413,448, 2016/0044647, 2016/0359539, 2017/0230115, and in papers such as: Cheng, Wenchi, et al., “Orbital-angular-momentum embedded massive MIMO: Achieving multiplicative spectrum-efficiency for mmWave communications.” IEEE Access 6 (2018): 2732-2745; by Zhang, Kuang, et al., “Phase-engineered metalenses to generate converging and non-diffractive vortex beam carrying orbital angular momentum in microwave region.” Optics express 26.2 (2018): 1351-1360; by Qin, Yuliang, et al., “Sidelobe suppression and beam collimation in the generation of vortex electromagnetic waves for radar imaging.” IEEE Antennas and Wireless Propagation Letters 16 (2017): 1289-1292; by Ding, Guowen, et al., “Full control of conical beam carrying orbital angular momentum by reflective metasurface.” Optics Express 26.16 (2018): 20990-21002, and by techniques known as Airy OAM Beams such as presented in a paper by Kadlimatti, Ravi, and Patanjali V. Parimi.
Article Title: Electromagnetic wave medical imaging system, device and methods
Article Snippet: Such are detailed in at least U.S. patents and applications, 9,413,448, 2016/0044647, 2016/0359539, 2017/0230115, and at least in papers such as: Cheng, Wenchi, et al., “Orbital-angular-momentum embedded massive MIMO: Achieving multiplicative spectrum-efficiency for mmWave communications.” IEEE Access 6 (2018): 2732-2745; by Zhang, Kuang, et al., “Phase-engineered metalenses to generate converging and non-diffractive vortex beam carrying orbital angular momentum in microwave region.” Optics express 26.2 (2018): 1351-1360; by Qin, Yuliang, et al., “Sidelobe suppression and beam collimation in the generation of vortex electromagnetic waves for radar imaging.” IEEE Antennas and Wireless Propagation Letters 16 (2017): 1289-1292; by Ding, Guowen, et al., “Full control of conical beam carrying orbital angular momentum by reflective metasurface.” Optics Express 26.16 (2018): 20990-21002, and by techniques known as Airy OAM Beams such as presented in a paper by Kadlimatti, Ravi, and Patanjali V. Parimi.
Article Title: Super resolution system, device and methods
Article Snippet: No. 9,413,448 and applications, 2016/0044647, 2016/0359539, 2017/0230115, and in papers such as: Cheng, Wenchi, et al., “Orbital-angular-momentum embedded massive MIMO: Achieving multiplicative spectrum-efficiency for mmWave communications.” IEEE Access 6 (2018): 2732-2745; by Zhang, Kuang, et al., “Phase-engineered metalenses to generate converging and non-diffractive vortex beam carrying orbital angular momentum in microwave region.” Optics express 26.2 (2018): 1351-1360; by Qin, Yuliang, et al., “Sidelobe suppression and beam collimation in the generation of vortex electromagnetic waves for radar imaging.” IEEE Antennas and Wireless Propagation Letters 16 (2017): 1289-1292; by Ding, Guowen, et al., “Full control of conical beam carrying orbital angular momentum by reflective metasurface.” Optics Express 26.16 (2018): 20990-21002, and by techniques known as Airy OAM Beams such as presented in a paper by Kadlimatti, Ravi, and Patanjali V. Parimi.
Control:Article Title: Super resolution radar device and methods
Article Snippet: No. 9,413,448, 2016/0044647, 2016/0359539, 2017/0230115, and in papers such as: Cheng, Wenchi, et al., “Orbital-angular-momentum embedded massive MIMO: Achieving multiplicative spectrum-efficiency for mmWave communications.” IEEE Access 6 (2018): 2732-2745; by Zhang, Kuang, et al., “Phase-engineered metalenses to generate converging and non-diffractive vortex beam carrying orbital angular momentum in microwave region.” Optics express 26.2 (2018): 1351-1360; by Qin, Yuliang, et al., “Sidelobe suppression and beam collimation in the generation of vortex electromagnetic waves for radar imaging.” IEEE Antennas and Wireless Propagation Letters 16 (2017): 1289-1292; by Ding, Guowen, et al., “Full control of conical beam carrying orbital angular momentum by reflective metasurface.” Optics Express 26.16 (2018): 20990-21002, and by techniques known as Airy OAM Beams such as presented in a paper by Kadlimatti, Ravi, and Patanjali V. Parimi.
Article Title: Electromagnetic wave medical imaging system, device and methods
Article Snippet: Such are detailed in at least U.S. patents and applications, 9,413,448, 2016/0044647, 2016/0359539, 2017/0230115, and at least in papers such as: Cheng, Wenchi, et al., “Orbital-angular-momentum embedded massive MIMO: Achieving multiplicative spectrum-efficiency for mmWave communications.” IEEE Access 6 (2018): 2732-2745; by Zhang, Kuang, et al., “Phase-engineered metalenses to generate converging and non-diffractive vortex beam carrying orbital angular momentum in microwave region.” Optics express 26.2 (2018): 1351-1360; by Qin, Yuliang, et al., “Sidelobe suppression and beam collimation in the generation of vortex electromagnetic waves for radar imaging.” IEEE Antennas and Wireless Propagation Letters 16 (2017): 1289-1292; by Ding, Guowen, et al., “Full control of conical beam carrying orbital angular momentum by reflective metasurface.” Optics Express 26.16 (2018): 20990-21002, and by techniques known as Airy OAM Beams such as presented in a paper by Kadlimatti, Ravi, and Patanjali V. Parimi.
Article Title: Super resolution system, device and methods
Article Snippet: No. 9,413,448 and applications, 2016/0044647, 2016/0359539, 2017/0230115, and in papers such as: Cheng, Wenchi, et al., “Orbital-angular-momentum embedded massive MIMO: Achieving multiplicative spectrum-efficiency for mmWave communications.” IEEE Access 6 (2018): 2732-2745; by Zhang, Kuang, et al., “Phase-engineered metalenses to generate converging and non-diffractive vortex beam carrying orbital angular momentum in microwave region.” Optics express 26.2 (2018): 1351-1360; by Qin, Yuliang, et al., “Sidelobe suppression and beam collimation in the generation of vortex electromagnetic waves for radar imaging.” IEEE Antennas and Wireless Propagation Letters 16 (2017): 1289-1292; by Ding, Guowen, et al., “Full control of conical beam carrying orbital angular momentum by reflective metasurface.” Optics Express 26.16 (2018): 20990-21002, and by techniques known as Airy OAM Beams such as presented in a paper by Kadlimatti, Ravi, and Patanjali V. Parimi.
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