青青青爽在线视频免费观看-在线国产日韩欧美播放精华一-日韩综合第二区2区3一区-亚洲av永久无码精品欣赏-成人精品午夜在线观看-婷婷五月深深久久精品-久青草国产高清在线视频-国产成人免费片在线观看 亚洲欧美动漫中文字幕-国产视频精品久久久久不卡-久久?v不卡人妻一区二区-中文字AV字幕在线观看-久久99中文字幕久久-亚洲欧美综合图片-国产精品视频福利-国产亚洲欧美人伦

2024

2024

  • Record 121 of

    Title:A Dual-FSM GI LiDAR Imaging Control Method Based on Two-Dimensional Flexible Turntable Composite Axis Tracking
    Author Full Names:Cao, Yu(1,2,3,4); Xie, Meilin(1,2,3); Wang, Haitao(1,2); Hao, Wei(1,2,3); Guo, Min(1,2,3); Jiang, Kai(1,2); Wang, Lei(1,2); Guo, Shan(1,2); Wang, Fan(1,2)
    Source Title:Remote Sensing
    Language:English
    Document Type:Journal article (JA)
    Abstract:In this study, a tracking and pointing control system with a dual-FSM (fast steering mirror) two-dimensional flexible turntable composite axis is proposed. It is applied to the target-tracking accuracy control in a GI LiDAR (ghost imaging LiDAR) system. Ghost imaging is a multi-measurement imaging method; the dual-FSM GI LiDAR tracking and pointing imaging control system proposed in this study mainly solves the problems of the high-resolution remote sensing imaging of high-speed moving targets and various nonlinear disturbances when this technology is transformed into practical applications. Addressing the detrimental effects of nonlinear disturbances originating from internal flexible mechanisms and assorted external environmental factors on motion control’s velocity, stability, and tracking accuracy, a nonlinear active disturbance rejection control (NLADRC) method based on artificial neural networks is advanced. Additionally, to overcome the limitations imposed by receiving aperture constraints in GI LiDAR systems, a novel optical path design for the dual-FSM GI LiDAR tracking and imaging system is put forth. The implementation of the described methodologies culminated in the development of a dual-FSM GI LiDAR tracking and imaging system, which, upon thorough experimental validation, demonstrated significant improvements. Notably, it achieved an improvement in the coarse tracking accuracy from 193.29 μrad (3σ) to 87.21 μrad (3σ) and enhanced the tracking accuracy from 10.1 μrad (σ) to 1.5 μrad (σ) under specified operational parameters. Furthermore, the method notably diminished the overshoot during the target capture process from 28.85% to 12.8%, concurrently facilitating clear recognition of the target contour. This research contributes significantly to the advancement of GI LiDAR technology for practical application, showcasing the potential of the proposed control and design strategies in enhancing system performance in the face of complex disturbances. ? 2024 by the authors.
    Affiliations:(1) Xi’an Institute of Optics and Precision Mechanics, Chinese Academy of Sciences, 710119, China; (2) Key Laboratory of Space Precision Measurement Technology, Chinese Academy of Sciences, 710119, China; (3) Pilot National Laboratory for Marine Science and Technology, 266237, China; (4) Collaborative Innovation Center of Extreme Optics, Shanxi University, 030006, China
    Publication Year:2024
    Volume:16
    Issue:10
    Article Number:1679
    DOI Link:10.3390/rs16101679
    數(shù)據(jù)庫ID(收錄號):20242216171109
  • Record 122 of

    Title:Performance assessment of the HERD calorimeter with a photo-diode read-out system for high-energy electron beams
    Author Full Names:Adriani, O.(1,2); Ambrosi, G.(3); Antonelli, M.(4); Bai, Y.(5); Bai, X.(5); Bao, T.(6); Barbanera, M.(3); Berti, E.(1,2); Betti, P.(1,2); Bigongiari, G.(7,8); Bongi, M.(1,2); Bonvicini, V.(4); Bottai, S.(2); Cagnoli, I.(9,10); Cao, W.(5); Casaus, J.(11); Cerasole, D.(12,13); Chen, Z.(5); Cui, X.(6); D'Alessandro, R.(1,2); Di Venere, L.(13); Diaz, C.(11); Dong, Y.(6); Detti, S.(2); Duranti, M.(3); Gargano, F.(13); Gao, J.(5); Guo, S.(6); Giovacchini, F.(11); Finetti, N.(2,14); Formato, V.(15); Jiang, Y.(3,16); Liang, X.(5); Li, R.(5); Liao, C.(6); Liu, X.(6); Lyu, L.(5); Marin, J.(11); Martinez, G.(11); Mori, N.(2); Oliva, A.(17); Pacini, L.(2); Papini, P.(2); Pillera, R.(13); Pizzolotto, C.(4); Quan, Z.(6); Qin, J.J.(5); Silveri, L.(9,10); Silvestre, G.(3); Shi, D.(5); Serini, D.(13); Starodubtsev, O.(2); Tang, X.(6); Tiberio, A.(2); Vannuccini, E.(2); Velasco, M.(11); Wang, B.(5); Wang, J.(6); Wang, R.(6); Wang, Z.(6); Xu, M.(6); Yang, X.(6); Zampa, G.(4); Zampa, N.(4); Zhang, S.(6); Zheng, J.(5)
    Source Title:arXiv
    Language:English
    Document Type:Preprint (PP)
    Abstract:The measurement of cosmic rays at energies exceeding 100 TeV per nucleon is crucial for enhancing the understanding of high-energy particle propagation and acceleration models in the Galaxy. HERD is a space-borne calorimetric experiment that aims to extend the current direct measurements of cosmic rays to unexplored energies. The payload is scheduled to be installed on the Chinese Space Station in 2027. The primary peculiarity of the instrument is its capability to measure particles coming from all directions, with the main detector being a deep, homogeneous, 3D calorimeter. The active elements are read out using two independent systems: one based on wavelength shifter fibers coupled to CMOS cameras, and the other based on photo-diodes read-out with custom front-end electronics. A large calorimeter prototype was tested in 2023 during an extensive beam test campaign at CERN. In this paper, the performance of the calorimeter for high-energy electron beams, as obtained from the photo-diode system data, is presented. The prototype demonstrated excellent performance, e.g., an energy resolution better than 1% for electrons at 250 GeV. A comparison between beam test data and Monte Carlo simulation data is also presented. Copyright ? 2024, The Authors. All rights reserved.
    Affiliations:(1) Department of Physics and Astronomy, University of Florence, Sesto Fiorentino, Florence; I-50019, Italy; (2) INFN sezione di Firenze, Sesto Fiorentino, Florence; I-50019, Italy; (3) INFN Sezione Perugia, Istituto Nazionale di Fisica Nucleare, Sezione di Perugia, Perugia; 06100, Italy; (4) INFN Sezione di Trieste, Padriciano 99, Trieste; I-34149, Italy; (5) Xi'an Institute of Optics and Precision Mechanics, Chinese Academy of Sciences, Xi’an; 710119, China; (6) Institute of High Energy Physics, Chinese Academy of Sciences, Beijing; 100049, China; (7) Department of Physical Sciences, Earth and Environment, University of Siena, Siena; I-53100, Italy; (8) INFN Pisa, Largo B. Pontecorvo, 3, Pisa; 56127, Italy; (9) Gran Sasso Science Institute (GSSI), Viale Crispi 7, L'Aquila; I-67100, Italy; (10) INFN Laboratori Nazionali del Gran Sasso, Via Acitelli 22, Assergi, L'Aquila; I-67100, Italy; (11) Centro de Investigaciones Energéticas, Medioambientales y Tecnológicas (CIEMAT), Madrid; E-28040, Spain; (12) Dipartimento Interateneo di Fisica "M.Merlin", Università e del Politecnico di Bari, Bari; I-70126, Italy; (13) Istituto Nazionale di Fisica Nucleare (INFN), Sezione di Bari, Bari; I-70126, Italy; (14) Department of Physical and Chemical Sciences, University of L'Aquila, Via Vetoio, Coppito, L'Aquila; 67100, Italy; (15) INFN Sezione Roma TorVergata, Istituto Nazionale di Fisica Nucleare, Sezione di Roma Tor Vergata, Roma; 00133, Italy; (16) Università degli Studi di Perugia, Università di Perugia, Perugia; 06100, Italy; (17) INFN Sezione Bologna, Istituto Nazionale di Fisica Nucleare, Sezione di Bologna, Bologna; 40126, Italy
    Publication Year:2024
    DOI Link:10.48550/arXiv.2410.03274
    數(shù)據(jù)庫ID(收錄號):20240443821
  • Record 123 of

    Title:Phase correction strategy based on structured light fringe projection profilometry
    Author Full Names:Cao, Hongyan(1,2); Qiao, Dayong(1,2); Yang, Di(3)
    Source Title:Optics Express
    Language:English
    Document Type:Journal article (JA)
    Abstract:Fringe projection profilometry based on structured light has been widely used in 3-D vision due to its advantages of simple structure, good robustness, and high speed. The principle of this technique is to project multiple orders of stripes on the object, and the camera captures the deformed stripe map. Phase unwrapping and depth map calculation are important steps. Still, in actual situations, phase ambiguity is prone to occur at the edges of the object. In this paper, an adaptive phase segmentation and correction (APSC) method after phase unwrapping is proposed. In order to effectively distinguish the stable area and unstable area of the phase, a boundary identification method is proposed to obtain the structural mask of the phase. A phase compensation method is proposed to improve the phase accuracy. Finally, we obtain the 3-D reconstruction result based on the corrected phase. Specific experimental results verify the feasibility and effectiveness of this method. ? 2024 Optica Publishing Group under the terms of the Optica Open Access Publishing Agreement.
    Affiliations:(1) Key Laboratory of Micro/Nano Systems for Aerospace, Ministry of Education, Northwestern Polytechnical University, Xi’an; 710072, China; (2) Shaanxi Province Key Laboratory of Micro and Nano Electro-Mechanical Systems, Northwestern Polytechnical University, Xi’an; 710072, China; (3) Xi’an Institute of Optics and Precision Mechanics, Chinese Academy of Sciences, Xi’an; 710119, China
    Publication Year:2024
    Volume:32
    Issue:3
    Start Page:4137-4157
    DOI Link:10.1364/OE.513572
    數(shù)據(jù)庫ID(收錄號):20240615499844
  • Record 124 of

    Title:Exploration of cervical cancer image processing technology based on deep learning
    Author Full Names:Cheng, Cheng(1); Yang, Yi(2); Qu, Youshan(3)
    Source Title:Proceedings of SPIE - The International Society for Optical Engineering
    Language:English
    Document Type:Conference article (CA)
    Conference Title:2024 International Conference on Image, Signal Processing, and Pattern Recognition, ISPP 2024
    Conference Date:March 8, 2024 - March 10, 2024
    Conference Location:Guangzhou, China
    Conference Sponsor:Academic Exchange Information Centre (AEIC); Stevens Institute of Technology
    Abstract:The aim of this paper is to investigate cervical cancer image processing technology utilizing deep learning.Cervical cancer stands as a prevalent malignancy in females, and precise identification and localization of cancer cells hold paramount significance for treatment and prognosis evaluation.This paper presents the fundamental workflow of cervical cancer image processing and the associated principles of deep learning, including convolutional neural networks, autoencoders, and generative adversarial networks.In recent times, the swift advancement of deep learning technology has brought forth novel concepts and approaches for cervical cancer image processing.This paper is oriented toward the exploration of cervical cancer image processing technology grounded in deep learning.First, the basic workflow of cervical cancer image processing, including steps such as image acquisition, preprocessing, feature extraction, and target detection, is introduced.The application of deep learning in cervical cancer image processing is discussed in detail.As one of the core deep learning technologies, convolutional neural networks (CNNs) have achieved significant results in the fields of image classification, segmentation, and detection.This paper shall present the fundamental principles and prevalent architectures of CNNs, alongside their instances of utilization in cervical cancer image processing.Furthermore, the utilization of alternative deep learning approaches in cervical cancer image processing is also introduced.Subsequently, the paper contrasts the strengths and weaknesses of diverse deep learning techniques in cervical cancer image processing and deliberates the challenges and future trajectories of development within this domain. ? 2024 SPIE.
    Affiliations:(1) Changchun University of Science and Technology, 7089 Weixing Road, Jilin Province, Changchun City, China; (2) The Second Norman Bethune Hospital of Jilin University, No.218 Ziqiang Street, Nanguan District, Jilin Province, Changchun City, China; (3) Xi'an Institute of Optics and Precision Mechanics of CAS, No.17, Information Avenue, New Industrial Park, Gaoxin District, Xi'an, China
    Publication Year:2024
    Volume:13180
    Article Number:1318014
    DOI Link:10.1117/12.3033802
    數(shù)據(jù)庫ID(收錄號):20250417735943
  • Record 125 of

    Title:Influence of nutating deflection on fiber coupling efficiency for fiber optic nutator
    Author Full Names:Peng, Bo(1,2,3); Ruan, Ping(1,3); Wang, Xingfeng(1,3); Han, Junfeng(1,3); Chang, Zhiyuan(1,3); Han, Jingyu(1,2,3)
    Source Title:Proceedings of SPIE - The International Society for Optical Engineering
    Language:English
    Document Type:Conference article (CA)
    Conference Title:2023 Advanced Fiber Laser Conference, AFL 2023
    Conference Date:November 10, 2023 - November 12, 2023
    Conference Location:Shenzhen, China
    Conference Sponsor:Chinese Society for Optical Engineering
    Abstract:In the relay optics of the space laser communication terminal's Acquisition, Pointing, and Tracking (APT) system, the Fiber Optic Nutator (FON), based on a Piezoelectric Ceramic Tube (PCT), is capable of actively achieving signal light reception and coupling through the implementation of energy feedback compensation algorithms with a lightweight design approach. Throughout the fiber nutation process, the deflection amplitude of the receiving fiber's end face significantly impacts the fiber coupling efficiency of the fiber optic nutator. To quantify this influence, the curve depicting the effect of the relative aperture (D/f) of the relay optics focusing lens on fiber coupling efficiency is initially computed. Notably, when D/f=0.213, the fiber coupling efficiency attains its theoretical maximum of 0.813. Subsequently, the composite motion of the fiber end face in three-dimensional space is deconstructed into radial and axial translations, along with rotations based on the axial direction. Through meticulous simulation calculations, it is ascertained that the fiber coupling efficiency decreases by more than 5% when the radial displacement r of the fiber end face exceeds 3.65μm, or when the axial displacement d surpasses 0.25mm, or when the angular deviation θ exceeds 0.08°. These findings offer quantifiable criteria for the dimensional selection of the PCT under varied application conditions, providing constructive guidance for determining core structural design parameters of the fiber optic nutator. ? COPYRIGHT SPIE.
    Affiliations:(1) Xi an Institute of Optics and Precision Mechanics, Chinese Academy of Sciences, Xi an; 710119, China; (2) University of Chinese Academy of Sciences, Beijing; 100049, China; (3) Key Laboratory of Space Precision Measurement Technology, Xi an Institute of Optics and Precision Mechanics, Chinese Academy of Sciences, Xi an; 710119, China
    Publication Year:2024
    Volume:13104
    Article Number:1310450
    DOI Link:10.1117/12.3023648
    數(shù)據(jù)庫ID(收錄號):20241816027629
  • Record 126 of

    Title:Impact angle controlled integrated guidance and control with input and state constraints
    Author Full Names:Liang, Lecheng(1); Zhao, Bin(1); Zhou, Jun(1); Zhang, Zihao(2)
    Source Title:International Journal of Control
    Language:English
    Document Type:Journal article (JA)
    Abstract:A novel integrated guidance and control scheme is derived for STT missile with strict constraints as desired impact angle, input saturation and partial system state in three-dimensional space. The backstepping technique and command filter are adopted for achieving input constraints, and the improved compensation signals are constructed to correct tracking errors. The integral barrier Lyapunov function is introduced to prevent the partial system states from exceeding a predefined interval. A modified extended state observer is employed to strengthen the robustness of the system further. Theoretically, the required properties of a closed-form system are proved by Lyapunov theory in detail. Numerical simulations are conducted to exhibit the performance and robustness of the IGC scheme fully. ? 2023 Informa UK Limited, trading as Taylor & Francis Group.
    Affiliations:(1) Institute of Precision Guidance and Control, Northwestern Polytechnical University, Xi'an, China; (2) Science and Technology on Electro-Optical Information Security Control Laboratory, Tianjin, China
    Publication Year:2024
    Volume:97
    Issue:4
    Start Page:796-810
    DOI Link:10.1080/00207179.2023.2175408
    數(shù)據(jù)庫ID(收錄號):20231013679069
  • Record 127 of

    Title:Noncollinear phase matching and effective nonlinear coefficient calculations for biaxial crystal out of the principal plane
    Author Full Names:Xing, Dingding(1,2); Yi, Dongchi(1); Yuan, Suochao(3); Chen, Xiaoyi(1); Da, Zhengshang(1)
    Source Title:Applied Physics B: Lasers and Optics
    Language:English
    Document Type:Journal article (JA)
    Abstract:The essential factor in laser frequency conversion involves phase matching within nonlinear optical crystals. To our knowledge, few studies have investigated the noncollinear phase matching calculation for biaxial crystal out of the principal plane. In this paper, we propose an arbitrary direction phase matching model and a computational method based on gradient descent (GD) algorithm, which can be applied to noncollinear in the principal plane, collinear and noncollinear out of the principal plane. In the case of 1053?nm third harmonic generation (THG) in LiB3O5 (LBO) crystal, the phase matching conditions are converted into a system of nonlinear equations with six variables and six equations, which can be solved by iterative optimization search with the GD algorithm and includes type-I (ss-f) and type-II (fs-f). We reveal the relationship of phase matching angles and effective nonlinear coefficients (deff) for various structures. Our method uncovers the existence of many solutions in the non-principal plane with γ > 8° and the deff close to the maximum value 0.66834?pm/V at θ = 90°, φ = 141.84° and γ = 0. The resolution of the arbitrary direction phase matching problem holds significant importance, as it expands the possibilities for laser frequency conversion, especially for noncollinear structures. ? The Author(s), under exclusive licence to Springer-Verlag GmbH Germany, part of Springer Nature 2024.
    Affiliations:(1) The Advanced Optical Instrument Research Department, Xi’an Institute of Optics and Precision Mechanics, Chinese Academy of Sciences, Xi’an; 710119, China; (2) University of Chinese Academy of Sciences, Beijing; 100049, China; (3) College of Bioresources Chemical and Materials Engineering, Shaanxi University of Science and Technology, Xi’an; 710021, China
    Publication Year:2024
    Volume:130
    Issue:6
    Article Number:109
    DOI Link:10.1007/s00340-024-08247-4
    數(shù)據(jù)庫ID(收錄號):20242316215773
  • Record 128 of

    Title:A systematic study on linear thermal expansion coefficient of metals based on interferometric measurement with Fresnel bimirror
    Author Full Names:Lu, Sifan(1); Zhao, Wenyu(1); Lin, Jia(1); Zhao, Xiaorui(1); Xu, Ruoyu(1); Bai, Jin(1); Sun, Chunyan(1,2,3)
    Source Title:Microwave and Optical Technology Letters
    Language:English
    Document Type:Journal article (JA)
    Abstract:Linear thermal expansion coefficient, which is vital for measuring the thermal expansion characteristics of metals, has been attracting considerable attention globally. Herein, a novel design based on Fresnel bimirror has been developed. In this design, when the upper end of the object to be measured comes in contact with a tilted double-sided mirror, the temperature rises and intersection angle of the Fresnel bimirror decreases. Meanwhile, interference fringe spacing becomes narrower, while the number of fringes increases. An imaging system based on a digital microscope and smartphone is also incorporated in this design, which records the changes in the interference fringes. Then, using a self-programmed software, the linear thermal expansion coefficients of Cu, Fe, and Al samples are determined at elevated temperatures as 17.85 ± 0.23 × 10?6/°C ((Formula presented.)), 11.8 ± 0.09 × 10?6/°C ((Formula presented.)), and 23.34 ±0.16 × 10?6/°C ((Formula presented.)), respectively, with a relative error of less than 1.6%. A cooling process is also designed, and the average value of the linear thermal expansion coefficient of metal samples during heating and cooling conditions is determined. The measurement results obtained via the finite-method simulation demonstrate the feasibility and reliability of the system. Overall, this study provides a new idea for measuring the linear thermal expansion coefficient of metals. ? 2024 Wiley Periodicals LLC.
    Affiliations:(1) School of Mathematics and Physics, Anqing Normal University, Anqing, China; (2) State Key Laboratory of Transient Optics and Photonics, Chinese Academy of Sciences, Xi'an, China; (3) Anhui Institute of Optics and Fine Mechanics, Chinese Academy of Science, Hefei, China
    Publication Year:2024
    Volume:66
    Issue:5
    Article Number:e34178
    DOI Link:10.1002/mop.34178
    數(shù)據(jù)庫ID(收錄號):20242016085779
  • Record 129 of

    Title:Method of design and optimization process of variable curvature mirror with variable thickness distribution
    Author Full Names:Xie, Xiaopeng(1); Zou, Gangyi(1); Xu, Liang(2); Yang, Mingyang(1); Xia, Siyu(1); Li, Chuang(1); Fan, Wenhui(3); Fan, Xuewu(1); Zhao, Hui(1)
    Source Title:Proceedings of SPIE - The International Society for Optical Engineering
    Language:English
    Document Type:Conference article (CA)
    Conference Title:Optical Design and Testing XIV 2024
    Conference Date:October 13, 2024 - October 15, 2024
    Conference Location:Nantong, China
    Conference Sponsor:Chinese Optical Society (COS); The Society of Photo-Optical Instrumentation Engineers (SPIE)
    Abstract:In this paper, a whole general design and optimization process is detailedly demonstrated by taking the design and optimization of a 55mm diameter variable curvature mirror(VCM) with a cycloid-like thickness distribution as example. The finite-element analysis to the VCM under each change of main structure parameter is done and analyzed to choose the proper parameter value of each structure to obtain the optimum surface figure accuracy. Finally, the designed VCM can achieve 0.386mm central deflection and RMS 82.84nm within the effective aperture 28.4mm. ? 2024 SPIE.
    Affiliations:(1) Space Optical Technology Research Department, Xi’an Institute of Optics and Precision Mechanics, CAS, Xi’an; 710119, China; (2) Advanced Optics Manufacturing Center, Xi’an Institute of Optics and Precision Mechanics, CAS, Xi’an; 710119, China; (3) State Key Laboratory of Transient Optics and Photonics, Xi’an Institute of Optics and Precision Mechanics, CAS, Xi’an; 710119, China
    Publication Year:2024
    Volume:13237
    Article Number:1323714
    DOI Link:10.1117/12.3035424
    數(shù)據(jù)庫ID(收錄號):20250417767853
  • Record 130 of

    Title:Optimization of signal-to-noise ratio of laser heterodyne radiometer
    Author Full Names:Sun, Chunyan(1,2,3); He, Xinyu(1); Xu, Ruoyu(1); Lu, Sifan(1); Pan, Xueping(1); Bai, Jin(1)
    Source Title:Microwave and Optical Technology Letters
    Language:English
    Document Type:Journal article (JA)
    Abstract:The ground-based laser heterodyne radiometer (LHR), which exhibits the advantages of small size, high spectral resolution, and easy integration, has been used for the remote sensing detection of several gases to meet a wide range of needs. This study aims to optimize the laser heterodyne system for detecting CO2 gas by focusing on existing research. Firstly, using the all-fiber laser heterodyne detection system built by our research group, the power spectrum associated with the radio frequency signals of the detection system is discussed under different conditions: under no irradiation, under sunlight only, under sunlight and laser irradiation at the absorption peak, and under a filter in the spectrum range of 185–270 MHz. Signal-to-noise ratios (SNRs) of the high-resolution spectrum have been obtained using different filter bands of 185–270, 225–270, and 225–400 MHz. Finally, the filter in the 225–270 MHz band, which has the highest SNR, is selected. Consequently, the resolution is improved and the system is further optimized. Furthermore, an optical fiber attenuator is used to change the power of the local oscillator light entering the system, and hyperspectral spectra with varying percentages of input energy and total energy are obtained. When the laser attenuation reaches 40%, the optimal SNR of the system is 486 and can be further improved to meet the expected requirements. This study will provide insights for improving the applicability of laser heterodyne technology in atmospheric sounding. ? 2023 Wiley Periodicals LLC.
    Affiliations:(1) School of Mathematics and Physics, Anqing Normal University, Anqing, China; (2) State Key Laboratory of Transient Optics and Photonics, Chinese Academy of Sciences, Xi'an, China; (3) Anhui Institute of Optics and Fine Mechanics, Chinese Academy of Science, Hefei, China
    Publication Year:2024
    Volume:66
    Issue:1
    Article Number:e33857
    DOI Link:10.1002/mop.33857
    數(shù)據(jù)庫ID(收錄號):20233714728857
  • Record 131 of

    Title:A frequency-response-optimized Shack-Hartmann zonal wavefront reconstructor based on Fan's model
    Author Full Names:Fan, Yao(1,2,3,4); Duan, Yaxuan(1,3,4); Da, Zhengshang(1,3,4); Yue, Yang(2)
    Source Title:Review of Scientific Instruments
    Language:English
    Document Type:Journal article (JA)
    Abstract:This paper introduces an optimized method for zonal wavefront reconstruction utilizing Fan’s model, specifically tailored to enhance the frequency response. Analysis of the system frequency response demonstrates a 27% increase in bandwidth compared to the Southwell model. Examination of reconstruction errors at various frequency points reveals consistently smaller values when compared to the Southwell model. Validation through numerical simulations and real experiments underscores the superior performance of the proposed reconstructor, particularly noticeable at higher response levels within the mid- and high-frequency domains. ? 2024 Author(s).
    Affiliations:(1) Advanced Optical Instrument Laboratory, Xi’an Institute of Optics and Precision Mechanics, Chinese Academy of Sciences, Xi’an; 710119, China; (2) School of Information and Communications Engineering, Xi’an Jiaotong University, Xi’an; 710049, China; (3) University of Chinese Academy of Sciences, Xi’an; 710119, China; (4) Xi’an Key Laboratory of High Power Laser Measurement Technology and Instrument, Xi’an; 710119, China
    Publication Year:2024
    Volume:95
    Issue:5
    Article Number:055004
    DOI Link:10.1063/5.0197071
    數(shù)據(jù)庫ID(收錄號):20242116106971
  • Record 132 of

    Title:Hybrid Space Calibrated 3D Network of Diffractive Hyperspectral Optical Imaging Sensor
    Author Full Names:Fan, Hao(1,2); Li, Chenxi(1); Gao, Bo(1,2); Xu, Huangrong(1); Chen, Yuwei(1,2); Zhang, Xuming(3); Li, Xu(3); Yu, Weixing(1,2)
    Source Title:Sensors
    Language:English
    Document Type:Journal article (JA)
    Abstract:Diffractive multispectral optical imaging plays an essential role in optical sensing, which typically suffers from the image blurring problem caused by the spatially variant point spread function. Here, we propose a novel high-quality and efficient hybrid space calibrated 3D network "HSC3D" for spatially variant diffractive multispectral imaging that utilizes the 3D U-Net structure combined with space calibration modules of magnification and rotation effects to achieve high-accuracy eight-channel multispectral restoration. The algorithm combines the advantages of the space calibrated module and U-Net architecture with 3D convolutional layers to improve the image quality of diffractive multispectral imaging without the requirements of complex equipment modifications and large amounts of data. A diffractive multispectral imaging system is established by designing and manufacturing one diffractive lens and four refractive lenses, whose monochromatic aberration is carefully corrected to improve imaging quality. The mean peak signal-to-noise ratio and mean structural similarity index of the reconstructed multispectral images are improved by 3.33 dB and 0.08, respectively, presenting obviously improved image quality compared with a typical Unrolled Network algorithm. The new algorithm with high space calibrated ability and imaging quality has great application potential in diffraction lens spectroscopy and paves a new method for complex practical diffractive multispectral image sensing. ? 2024 by the authors.
    Affiliations:(1) Key Laboratory of Spectral Imaging Technology of Chinese Academy of Sciences, Xi’an Institute of Optics and Precision Mechanics, Xi’an; 710119, China; (2) Center of Materials Science and Optoelectronics Engineering, University of Chinese Academy of Sciences, Beijing; 100049, China; (3) Department of Applied Physics, Hong Kong Polytechnic University, Hongkong; 999077, Hong Kong
    Publication Year:2024
    Volume:24
    Issue:21
    Article Number:6903
    DOI Link:10.3390/s24216903
    數(shù)據(jù)庫ID(收錄號):20244617355301
91精品一区| 国产女人18毛片水真多14| 国产精品一区二区电影| 人妻视频在线| 色综合久久88色综合天天| 久久无码人妻| 日韩高清一区| 欧美久久免费| 日本在线一区二区三区| 亚洲激情AV| 少妇无套内谢久久久久| 同桌用振动器玩我下面| 国内自拍偷拍视频| 无码乱伦中文字幕| 99国产精品久久久久99打野战| 三级片免费网址| 免费伦片A片在线观看警官| 97看片| 导航AV91人妻| 国产精品久久久久久一级毛片探花| 欧美日韩系列| 国产va在线观看| 久久久久久久久久久久久久久久久久| 翔田千里在线播放AV101| 日韩精品久久| 91久久精品一区二区ww直播| 老熟妇乱伦一区二区| 午夜电影网| 99久久免费精品国产男女性高好 | 国产乱了高清露脸对白| 一区二区AV| 熟女导航| 中文字幕日韩一区| 精品一区在线| 91视频国产精品| 鲁鲁视频| 国产美女裸体永久免费| 超碰地址| 免费国产一区| 国产91视频| 操碰视频| 91精品国产自产精品男人的天堂| 日韩啪啪视频| 一级a一级a爰片免免免下载| 婷婷综合在线| 亚州成人| 黄色片毛片| 一级Av片| 91蜜桃视频| 日韩国产欧美一区| 欧美日韩中文在线| 国产精品tv| 熟女作爱一区二区视频| 久久发布国产伦子伦精品| 五月婷婷色播| 久久久免费观看| 国产日韩精品人妻久久久久色欲网站 | 91精品无码国产在线观看一区| 天天看天天操| 日韩综合| 精品无码三级在线观看视频| 国产一区二区免费| 亚洲国产精品久久人人爱潘金莲| 婷婷丁香激情五月天| 思思久久久| 玖玖综合九九在线看| 91高清视频| AV在线免费观看网站| 人与禽性视频77777| 白白色免费视频| 日本一级a v| 中国少妇XXXX| 无码电影院| 国产午夜精品无码理伦片| 日韩无码精品视频| 国产AV无码电影| 婷婷五月天影视| 亚洲国产网站| 国产一级片网站| 日韩精品视频在线免费观看| 亚洲AV永久无码精品| WWW国产亚洲精品| 欧美日韩三级视频| 久久一区二区三区视频| 欧美熟女一区| 在线观看你懂得| a国产视频| 欧美三级片在线观看| 亚洲精品a| 毛片久久| 人人操人人之| 视频一区二区在线观看| 91口爆吞精国产对白| 国产盗摄女厕一区二区三区| 日本有码在线| 色欲av永久无码精品无码蜜桃| 三级在线观看| 不卡免费AV| 性爱人人人人人人| 久久久久久久性爱| 国产精品无码一区二区三级不卡不 | 国产精品一级| 精品久久久久久久久久| 久久久久久亚洲综合影院红桃| 免费国产a| 精品乱伦| 日韩国产中文字幕| 午夜不卡视频| 亚洲欧美综合视频| 国产精品黄色| 日本福利一区二区三区| 亚洲综合第一页| 丰满熟妇乱又伦| 亚洲免费成人| 久精品视频| 一级黄片免费视频| 成人黄色免费| 日韩黄色视屏| 五月婷婷六月丁香综合| 99热精品在线| 日韩久久影院| 亚洲另类视频| 中文字字幕在线中文| 成人做爰A片一区二区| 国产无码久久| 无码社区| 香蕉三级片| 精品欧美一区二区三区| 久久国产小视频| 精品成人| 婷婷色九月| 无码一区二区三区在线观看| 色天堂在线| 国产凹凸视频| 国产综合一区二区| 岛国视频免费观看网址| 天天操一操| 偷偷鲁2020精品偷拍视频| 丰满少妇爆乳无码免费| 欧美,日韩,国产精品免费观看| 一级毛片久久久久久久女人18 | 91丨九色丨老熟女丨高潮| 熟女一二三区| 99国产精品一区二区| 国产免费操逼视频| 又长又粗又爽美女高潮视频| 亚洲精品无码AAA在线播放| 无码中文av| 久久国产影视| 国产精品三级片| 综合天天色| 国产一级a| 亚洲欧美综合| 免费无码一区二区三区| 免费精品| 一级a性色生活片久久无| 综合激情久久| 日韩裸体视频| 91久久国产综合| 久久理论片| 久久久影院| 久久久久久国产精品免费播放| 日本欧美久久久久免费播放网 | 国产精品久久久久久久久无码消赢| 欧美在线一二三| 免费一级做a爰片久久毛片潮| 欧美专区第一页| 一区二区性爱视频| 秋霞在线观看视频| 日韩成人免费在线视频| 曰韩无码视频| 无码人妻束缚av又粗又大| 无码操逼视| 九一精品| 狠狠干狠狠操天天爽| 欧美一二三区| 欧美,日韩,国产精品免费观看| 国产乱伦一区二区三区| 无码专区在线| 精品人妻一区二区| 在线免费观看日韩| 啪啪一区二区| 99在线视频免费观看| www无码| 久久er| www夜夜操| 亚洲男人天堂网| 亚洲AV无码一区二区三区性色| 久久影视精品| 97精品国产| 日日操日日| 91精品一区二区三区久久久久久 | av影音先锋| 人妻一区精品| 国产成人亚洲精品乱码在线观看| 一区二区不卡视频| 人人操天天日| 黑人AV一区| 天天看av| 亚洲精品一区中文字幕乱码| 999久久久久久| 日韩无码视屏| 26uuu精品一区二区在线观看| 黄软件在线观看| 色婷婷五月天| 欧美熟妇乱伦| 高清无码视频在线播放| 亚洲图片第一页| 欧美精品久久久| 国产主播一区二区三区| 亚洲强奸视频网站| 18无码国产在线看不卡动漫| 中文字幕 一区二区三区| 黄色动漫网站| 国产v精品| 91手机操逼视频| 久久久婷婷五月亚洲国产精品| 韩国无码视频| 久久亚洲精少妇毛片午夜无码 | 女女女女BBBBBB毛片在线| 国产特级黄片| 91在线超碰| 亚洲精品无码18在线| 三级视频网站| 超碰精品| 日逼视频免费看| 久久福利| 伊人影视| 91无码精品人妻一区二区三区| 99久久精品国产一区二区三区| 免费中文字幕日韩欧美| 日日干夜夜爽| 黄色91视频| 一级黄色电影免费看| 亚洲欧洲天堂| 在线观看亚洲欧美| 99在线视频精品| 高潮毛片无遮挡高清播放| 综合天天色| 91精品久久久久久久久青青| 黄色AA大片| 日韩精品无码电影| 欧美性爱三区| 国产免费乱伦视频| 天天射日日| 囯产精品久久久久久久久久新婚| 天堂无码视频| 日韩少妇人妻| 成av人片一区二区三区久久 | 亚洲国产一二三区精品美女污污污| 黄色片网站在线观看| 伊人网综合| 国产白丝AV| 高h小月被几个老头调教| 亚洲AV无码久久精品狠狠爱浪潮| 国产一级片在线| 欧美精品videos另类日本| 欧美日韩三级视频| 亚洲AV无码变态另类在线播放| 日韩精品一区二区三区免费视频| 狠狠精品干练久久久无码中文字幕| 成人伊人网| 黄页在线观看| 久久久黄片| 国产精品一区二区在线播放| AV一级片| aV男人的天堂在线| 六十路熟女视频| 无码精品人妻一区二区三刘亦菲| 久久久精品无码一二三区| 日韩A级片| 九九免费视频| 亚洲成人无码在线| 西西GOGO顶级艺术人像摄影| 国产精品黄色av| 天天操天天曰| 亚洲一级毛片| 黄色片免费观看| 欧美视频一区二区| 无码国产孕妇一区二区免费AV| 四虎视频国产精品免费| 偷拍亚洲欧美| 日本人妻丰满熟妇久久久久久| 日本熟妇色| 精品综合久久久| 国产精品久久久久久无人区| 日韩一区二| 日韩欧美久久| 无码精品一区二区免费JIZZ| 国产永久在线观看| 成人色视频| 无码国产伦一区二区三区视频 | 国产精品国产自产拍高清av水多| A片免费网站| 国产又黄又粗又猛又爽| 国产淫乱AV| 日本久久久| 久久久人妻精品| 嘿嘿嘿视频免费网站| 青青草三级片| 一区免费视频| 日本黄色三级片| a国产视频| 亚洲中文字幕AV| 一级在线视频| 最新AV片| 男女交性配视频全免费| 美国久久久| 偷国产乱人伦偷精品视频| 五十路在线| 日韩精品操屄| 天天操夜夜操| 日本熟妇网站| 青青草免费在线视频| 午夜av污污污羞羞影院| 国产探花视频在线观看| 欧美精品二区| 国产69精品久久99不卡无限看下载| 久久久91精品国产一区苍井空| 国产精品久久久久久久久无码ⅴa 国产精品19久久久久久不卡 | 午夜美女福利视频| 超碰这里只有精品| 中日韩欧美风情视频| 一起操网址| 亚洲精品无码久久久| 日韩国产亚洲欧美| 日韩人妻一区二区三区| 午夜寂寞福利| 成人午夜sm精品久久久久久久| 久久性生活视频| 在线观看黄片| 日韩欧美亚洲精品| 精品无码人妻一区二区| 欧美精品一区在线发布| 国产精品久久久久久白浆| 99精品久久久久久| 蜜乳在线| 精品欧美| 亚洲综合无码一区二区毛片| 国产精品一区二区黑人巨大| 乱精品一区字幕二区| 国产精品19久久久久久不卡| 激情图片激情小说| 无码国产精品一区二区免费网站| 国产一级A片久久久免费看快餐| 嫩草九九九精品乱码一二三| 国产成人精品视频| 精品人妻一区二区三区四区五区在| 伊人久久免费视频| 天天日天天| 亚洲欧洲在线视频| 熟女乱亚洲| 国产40-50熟女A片| 人人人人看人人干| 娇妻被朋友在客厅呻吟动漫| 欧美特黄片| 久久国产精品影院| 免费在线看av网站| 日本精品人妻| 日本久久久| 午夜AV天堂| 欧美日韩午夜| 久久人妻视频| 国内精品一区二区三区| 午夜一区二区三区在线观看| 黄色精品视频| 黄色91视频| 毛片无码免费| 亚州中文字幕一区二区三区在线视频| 国产三级无码| 91成人在线视频| 无码人妻丰满熟妇片毛片 | 日本视频一区二区三区| 国产美女操逼| 草草影院国产第一页| 国产精品成人久久久久| 亚洲国产精品成人综合色在线婷婷| 日韩视频一区二区三区| 欧美国产日韩视频| 欧美αV在线看| 机长脔到她哭H粗话H| 97综合| 91成人无码看片在线观看| 欧美精品videos另类日本| 91av观看| 一本大道久久加勒比香蕉| 亚洲AV导航| 在线观看不卡AV| 无码视频免费看| 视频国产精品| 一区二区三区精品在线| 日韩第一区| 午夜色婷婷| 欧美性精品| 国产学生妹在线观看| 国产精品一二| 欧美日韩黄色| 一区二区三区精品视频| 国产无码毛片| 最新中文字幕| 一级毛片av| 午夜免费电影| 91精品国产色综合久久不卡蜜臀| 亚洲一区电影| 国产操逼大片| 欧美 日韩 亚洲 丝袜 制服| 99久久亚洲精品日本无码| 欧美性爱视频在线播放| 久久77| 亚洲黄色大片| 日本天堂在线| 精品国产一区二区三区久久久蜜月| 亚洲AV无码国产精品| MM1313亚洲精品无码小说| 婷婷五月天视频| 国产粗语刺激对白性视频| 精品无码专区| 97精品视频| 日韩免费视频| 99精品无码人妻一区二区| 永久免费国产| 狠狠做深爱婷婷综合一区| 亚洲无码三级片| 九九久久久精品| 国产一级操逼| 无码免费一区二区三区电影| 国产一级特黄大片视频播放| 蜜桃成人无码区免费视频网站| 国产无码久久久| 日韩三级片免费观看| 免费国产视频| 亚洲精品无码18在线| 91精品国产熟女| 韩国精品久久久| 人人爱人人操人人摸| 中文字幕人妻无码系列第三区 | 免费一区二区三区| 国产精品一线| 99久久大香伊蕉在人线国产| 在线观看无码视频| 国产一区a| 激情久久久| 欧美18禁| 国产一级片子| 大地资源免费视频观看| 黄片一区二区三区| 欧美多毛熟妇| 三级精品2024| 色呦呦网| 成人高清无码| 精品欧美一区二区三区精品久久| 欧美性爱日韩高清| 亚洲性爱毛片| 国产在线拍揄自揄拍无码视频| 被体育老师抱着c到高潮| 亚欧专区| 人妻无码一区二区三区久久99| 久久99国产精品黄毛片禁果| 国产一级无码AV999毛片| 在线一区二区视频| 拍真实国产伦偷精品| 国产精品综合| 久久国产美女| 精品乱子伦一区二区三区| 亚洲欧美动漫| 91在线亚洲| 鲁鲁狠狠狠7777一区二区| 97超碰免费在线观看| 五月天婷婷在线播放| 日韩视频在线观看免费 | 操逼浪语视频| 97伊人| 91在线免费看片| 99热这里只有精品7| 久久久网| 91精品国啪老师啪| 国产特级片| 高清无码国产视频| 国产午夜精品一区二区三区| 黄色国产| 欧美视频中文字幕| 国产精品一区二区视频| 欧美日韩一区二| 亚洲天堂网站| 国产一区二区视频在线| 国产黄色精品| www com亚洲黄色| 男人亚洲天堂| 99热国产在线观看| 中文字幕人妻在线| 国产精品 家庭乱伦| 欧美天天干| 日韩精品在线视频观看| 欧美午夜精品一区二区三区电影| 日批视频免费在线观看| 久久精品91| 秋霞伦理视频| 红桃视频一区二区三区| 被男人强揉扒开吃奶30分钟视频| 日本高清视频在线观看| 精品无码视频免费一区黑人| 欧美伊人网| 亚洲产国偷v产偷自拍网址| 青娱乐av| 91免费看视频| 91精品国产| 一级特色黄大片| 天堂网av在线播放| 日韩视频免费| 无码人妻久久一区二区三区免费人妻 | 久久嫩草| 国产无套内射普通话对白天美传媒| 久久一区二区视频| 嫩草在线视频| 欧韩精品视频免费观看| 久久久毛片| 丰满熟妇乱又伦| 天堂色av| 欧美性爱第1页| 亚洲黄色电影在线观看| 啊v在线观看视频| 国产精品农村妇女AAAA| 黄色一级视频| 岛国无码在线观看| 欧美日韩中文| 91精品无码国产在线观看一区| 91精品国自产| 日本日逼视频| 亚洲精品动漫| 久久va| 国产乱码精品一区二区三区忘忧草| 国产三级在线播放| 国产欧美一区二区三区特黄手机版| 超碰男人的天堂| 国产乱国产乱老熟300部视频| 免费无码一区二区三区四区五区| 久久久久久久久久一区二区三区| 国产成人免费| 懂色中文一区二区在线播放 | 亚洲无码网址| 亚洲91乱码毛片在线播放| 午夜视频入口| 欧美日韩亚| 日韩乱码一区二区| 国产精品久久久久久久久晋中| 丰满熟妇乱又伦| 欧美性视屏| 亚洲人人操| 国产无套内精一级毛片| 久久免费精品| 国产精品久久久久久亚洲影视内衣| 久久天天躁狠狠躁夜夜AV| 日韩一级片在线播放| 色偷偷偷亚洲综合网另类| 啊v在线| 久久久高清| 成人性生交大片免费看4| 一级黄片在线播放| 一级做a爰性色黄A片小优视频| 亚洲男人天堂网| 国产成人久久| 超碰香蕉| 秋霞在线视频| 超碰96| 国产一级特黄妇女A片40| 日日噜噜噜| 亚洲无码五区| 亚洲中文字幕人妻| 午夜成人网址| 国产午夜精品视频| 国产伦精品一区二区三区视频新| 亚洲国产图片| 免费无码淫片aaa| 日韩不卡毛片| 国产精品综合久久| 亚洲天堂无码av| 欧美自拍一区| 91在线精品| 国产在线激情| 无码专区在线| 又粗又爽又猛高潮的在线视频| 欧美多毛熟妇| 又黄又大又爽A片三年片| 天天摸天天爽| 久久国产二区| 美日韩一级| 水多福利导航| 久久亚洲一区二区| 国产又粗又猛又爽免费视频| 日韩一级二级三级| 精品国产99久久久久久宅男i| 粉嫩绯色av一区二区在线观看 | 欧美强奸乱伦| 亚洲熟伦熟女新五十路熟妇| 狠狠做六月爱婷婷综合aⅴ| 国产又黄又硬又粗| 国产精品人妻无码一区二区三区牛牛| 4444亚洲人成无码网在线观看| 91色色色| 亚洲国产精品无码观看久久| 久久国产精品一区二区| 在线无码视频| 久久朝鲜性爱| 5566成人精品视频免费| 日本特黄视频| 精品福利导航| 国产精品三级| 国产一级做a爱片毛片A片男| 午夜国产精品视频| 男女黄色搞网站| 伊人久久一区| 成人无码视频在线观看| 高清无码免费在线观看| 日韩成人无码| 亚洲一区二区三区丝袜| 日韩中文久久| 欧美日韩在线视频播放| free性欧美| 91久久婷婷| 精品无码国产一区二区三区高跟 | 欧美午夜无遮挡| 亚洲色99| 精品人妻一区二区三区含羞草| 天天插天天日| 欧美老熟妇操姦视频| 欧美性爱视频在线播放| 无码人妻精品一区二区蜜桃苍井空| 国产精品一区二区在线播放| 亚洲成av人片在线观看香蕉| 97午夜福利| 欧美天堂在线| 国产一级a毛一级a做免费视频| 伊人操逼综合网| 国产成人无码AV| 一级特黄视频| 99人妻碰碰碰久久久久禁片| 免费三级网站| 日屁视频| 一级av在线| 精品国产日韩亚洲| 欧美一级免费| 亚洲中文在线观看| 丰满肥臀无码一区二区三区| 国产熟女视频| 午夜情深深| 国产精品毛片久久久久久久AV| 国产精品99久久| aV在线无码| 国产xxxxx| 久久久网| 中文字幕操逼视频| 国内自拍偷拍视频| 国产A∨| 国产性爱一级| 一本色道久久综合亚洲精品小说| 高清无码91| 精品伊人| 搡60一70老女人老妇女| 91久久精品无码一级毛片| 国产超碰在线| 摸一操| 私人午夜影院| 水蜜桃久久| 香蕉国产2023| 成人一级性爱| 黄色网址免费在线观看 | 国产黄色一区二区三区| 欧美不卡一区| 亚洲性爱无码视频| 色呦呦在线| 日本三级视频在线播放| 成人大香蕉| 久久久久国产精品夜夜夜夜夜| 黄色无码在线观看| 欧美日韩毛| 中文字幕无码一区二区三区一本久| 国产探花视频在线观看| 日韩中文在线| 中文字幕乱码亚洲精品一区| 熟女乱亚洲| 亚洲欧洲在线观看| 欧美α片在线播放| 国产精品综合| 天天操人人爽| 91色综合| 成人色综合| 黄色国产一区| 亚洲 欧美 综合| 国产精品一区二区在线免费观看| AV电影在线不卡| 国产精品久久久久久爽爽爽麻豆色哟哟| 国产精品系列视频| 亚洲国产精品狼友在线观看| 免费在线观看国产精品| 综合色av| 国产一区二区精品| 久久精品国产精品成人片| 国产黄在线观看| 国产又色又爽又刺激在线观看| 视频高清无码| 超碰香蕉| 天天操天天日天天爽| 日日做a爰片久久毛片A片英语| 久久久欧美成人片免费看| 99视频这里有精品| 2020欧美性爱精品| 一级a一级a爰片免费| 国产av看片| 国产一页| 99精品国产91久久久久久无码| 日韩黄色录像| 黄频免费在线观看| 日韩精品一二三四区| 国产真人真事一级A片| 999久久久免费精品国产| 熟女乱一区二区三区四区 | 日韩无码人妻| 日韩欧美一区二区三区四区五区 | 狠狠干夜夜操| 国产一区精品在线| 蜜臀99精品国产高清在线观看| 成人免费观看网站| 天天射天天操天天干| 黄页网站在线免费观看| 国产乱视频| 国产精品无码在线观看| 丰满少妇被猛烈高清播放| 亚洲AV无码国产精品久久不卡嫖娼| 手机无码在线| 天天日天天草| 三级片免费网址| 免费一级a| 视频在线观看一区| 26uuu成人网站| 亚洲黄色一区二区三区| 动漫无码在线观看| 在线不卡视频| 天天干天天爽| 六十路熟妇| 哪里可以看毛片| 亚洲欧美网站| 国产精品一区一区三区| 欧美老熟妇一区二区三区| 五月天婷婷丁香| 久久久国产精品视频| 国产黄色片免费| 欧美αV在线看| 又粗又长又大手机福利视频| 中文在线一区二区三区| 国产学生妹在线观看| 99精品国产91久久久久久无码| 天天夜夜操| 台湾佬中文娱乐网22| 国产性爱在线视频| 波多野结衣无码一区| 熟妇导航| 狼友精品| 国产成人97精品免费看片| 久久国产小视频| 人妻二区| 国产视频精品在亚洲| 国产无码九一久久| 国产内射一级| 国产女主播一区| 综合久久久久| 2024av| 一级免费片| 国产精品小电影| 日韩A级片| 无码人妻精品一区二区三区蜜桃91 | 污污内射在线观看一区二区少妇| 中文字幕国产| 国产一级a黄荡aaa毛毛大片| 中文人妻熟女乱又乱精品| 激情久久AV一区AV二区AV三区| 91丨国产丨白浆| 三级视频网站| 日日夜夜视频| 精品视频久久| 日韩免费无码| 88AV国产| 无码一本| 五月婷婷丁香六月| 欧美自拍一区| 国产不卡视频一区二区三区 | 久久久久久久极品内射| 国产91在线拍揄自揄拍无码九色| 在线观看国产视频| 午夜男人的天堂| 欧美v在线| 国产激情视频一区| 亚洲欧美中文字幕| 后入内射欧美99二区视频| 精品国产乱码久久久久久影片| 欧美伊人网| 91视频导航| 日韩无码一区二区三区| 成人免费网站www网站高清| 综合色网址| 欧美精品二街| 91人妻人人澡人人爽人人精吕| 久久精品综合| 久久伊人免费| 一级av在线| 欧美精品一区在线| 免费毛片基地| 国产精品久久久久久无码日本蜜乳| 人妻天天爽夜夜爽一区二区三区| 、α√在线视频| 欧美交换配乱吟粗大25P| 欧美日韩性生活| 婷婷五月天综合| 欧美性爱三级片| 最新中文无码| 最新福利视频| 黄片国产精品| 人妻九九| 国产精品久久久久久久久久久久久四虎 | 久久精品视频一区二区| 亚洲AV永久无码精品视色影视| 国产白丝一区二区三区| 国产精品久久久久久久久久| 免费网站黄| 亚洲AV无码成人精品区明星蜜乳| 欧美成人精品| 97精品国产97久久久久久春色| 五月伊人婷婷| AV手机天堂| 人人人人看人人干| 久久99精品久久久久久清纯直播| 国产欧美日韩在线观看| 国产精品三级在线| 一级肉体AAAA片免费看| 午夜av污污污羞羞影院| 国产午夜片| 欧美色逼| 伊人香在线观看| 国产精品白浆一区二小说| 亚洲免费小视频| 久久国产精品影院| 91伊人| 婷婷色九月| 人妻无码专区| 秋霞在线影院| 国产在线精品一区二区| 一级a一级a爰片免费免免免下载| 亚洲区欧美区小说区在线| 日韩国产精品视频| 日本欧美一区二区| 天堂中文在线视频| 日韩精品无码一区二区| 性爱无码在线| 欧美性爱一区二区| 国产69精品久久久久孕妇大杂乱| 久久亚洲网站| 亚洲av一级| 日日爽日日操| 另类天堂| 一区二区三区性爱视频| 91精品久久久久久综合五月天| 丁香激情五月天| 国产精品无码久久| 狠狠干天天操| 成人区人妻精品一| 女女女女BBBBBB毛片在线| 91人妻无码| 亚洲一级AV| 日本无码专区| 亚洲AV中文无码乱人伦在线视色| 亚洲精品v日韩精品| av无码aV天天aV天天爽| 亚洲人妻在线视频| 久久这里都是精品| MM1313亚洲精品无码小说| 成人国产精品久久| 日韩精品久久| 亚洲九九九| 91激情视频| 日韩中文字幕亚洲精品欧美| 高清无码免费| 黄页在线观看| 国产永久免费视频| 国产睡熟迷奷系列精品视频| 天天操操| 国产精品一区一区三区| 婷婷五月天丁香| 精品福利导航| 欧美伊人影院| 国产草草影院CCYYCOM| 一区二区三区四区免费视频| 国产电影精品一区| 亚洲性爱视频| 欧美大成色www永久网站婷| 国产精品人妻无码一区二区三区| 国产不卡在线| 久久黄色小视频| 99r在线视频| 国产精品无码天天爽视频| 国产美女精品人人做人人爽| 开心激情综合| 无码国产精品一区二区高潮| 亚洲成人一区二区三区| 中文字幕视频免费| 老妇高潮潮喷到猛进猛| 一级特黄60分钟毛爽免费看| 2019中文视频免费播放| 久久伊人精品视频| 国产精品www| 亚洲免费无码| 国产无码在线免费| 国产精品无码内射| 疯狂的交换1—6真实交换3和2| 精品视频99| 欧美美女一区二区三区| 91久久精品无码一区二区天美| 成人性做爰aaa片免费| 国产精品免费区二区三区观看四虎 | 又大又粗又硬又爽又黄毛片视频| 婷婷午夜天| 91中文字幕在线观看| 91亚色视频| 少妇被躁爽到高潮无码文| 免费无码国产在线观看观| 91视频官网| 日韩无码三级| 熟女中文字幕| 黄色动漫网站| 99视频免费观看|