香蕉网址在线观看_大香蕉国产在线视频_香蕉视频APP网站_91香蕉福利导航

2022

2022

  • Record 1 of

    Title:The Earth 2.0 space mission analysis and spacecraft design
    Author(s):Chen, Wen(1); Chen, Kun(1); Yang, Yingquan(1); Han, Xingbo(1); Bi, Xingzi(1); He, Tao(1); Duan, Xuliang(1); Huang, Jiangjiang(1); Liang, Hong(1); Zhang, Kuoxiang(1); Wang, Haoyu(1); Liu, Liu(1); He, Junwang(1); Qin, Genjian(1); Li, Jinsong(1); Wang, Tian(1); Ge, Jian(2); Zhang, Hui(2); Zhang, Yongshuai(2); Zhou, Dan(2); Zhang, Congcong(2); Tang, Zhenghong(2); Yu, Yong(2); Zang, Weicheng(3); Mao, Shude(3); Chen, Yonghe(4); Liu, Xiaohua(4); Song, Zongxi(5); Gao, Wei(5); Zhang, Hongfei(6); Wang, Jian(6)
    Source: Proceedings of SPIE - The International Society for Optical Engineering  Volume: 12180  Issue:   DOI: 10.1117/12.2629697  Published: 2022  
    Abstract:The Earth 2.0 (ET) mission is a Chinese next-generation space mission to detect thousands of Earth-sized terrestrial planets, including habitable Earth-like planets orbiting solar type stars (Earth 2.0s), cold low-mass planets, and free-floating planets. To meet the scientific goals, the ET spacecraft will carry six 30 cm diameter transit telescopes with each field of view of 500 square degrees, and one 35 cm diameter microlensing telescope with a field of view of 4 square degrees, monitor ~1.2M FGKM dwarfs in the original Kepler field and its neighboring fields continuously while monitoring over 30M stars in the Galactic bulge direction. The high precision transit observations require high photometry precision and pointing stability, which is the key drive for the ET spacecraft design. In this paper, details of the overall mission modeling and analysis will be presented. The spacecraft orbit, pointing strategy, stability requirements are presented, as well as the space-ground communication analysis. The ET spacecraft adopts an ultra-high photometry precision & high stable platform, largely inherited from other space science missions. The preliminary design of spacecraft which meets mission requirements is introduced, including the spacecraft overall configuration, observation modes, avionics architecture and development plan, which pays great attention to the pointing stability and huge volume science telemetry download. ? 2022 SPIE.
    Accession Number: 20230413449799
  • Record 2 of

    Title:ET White Paper: To Find the First Earth 2.0
    Author(s):Ge, Jian(1); Zhang, Hui(1); Zang, Weicheng(2); Deng, Hongping(1); Mao, Shude(2,17); Xie, Ji-Wei(3); Liu, Hui-Gen(3); Zhou, Ji-Lin(3); Willis, Kevin(20); Huang, Chelsea(26); Howell, Steve B.(41,42); Feng, Fabo(5); Zhu, Jiapeng(1); Yao, Xinyu(1); Liu, Beibei(8); Aizawa, Masataka(5); Zhu, Wei(2); Li, Ya-Ping(1); Ma, Bo(4); Ye, Quanzhi(11,12); Yu, Jie(6); Xiang, Maosheng(7,17); Yu, Cong(4); Liu, Shangfei(4); Yang, Ming(3); Wang, Mu-Tian(3); Shi, Xian(1); Fang, Tong(1); Zong, Weikai(28); Liu, Jinzhong(13); Zhang, Yu(13); Zhang, Liyun(16); El-Badry, Kareem(36); Shen, Rongfeng(4); Tam, Pak-Hin Thomas(4); Hu, Zhecheng(4); Yang, Yanlv(4); Zou, Yuan-Chuan(14); Wu, Jia-Li(14); Lei, Wei-Hua(14); Wei, Jun-Jie(15); Wu, Xue-Feng(15); Sun, Tian-Rui(15); Wang, Fa-Yin(3); Zhang, Bin-Bin(3); Xu, Dong(17); Yang, Yuan-Pei(18); Li, Wen-Xiong(19); Xiang, Dan-Feng(2); Wang, Xiaofeng(2); Wang, Tinggui(9,10); Zhang, Bing(43); Jia, Peng(40); Yuan, Haibo(28); Zhang, Jinghua(17); Wang, Sharon Xuesong(2); Gan, Tianjun(2); Wang, Wei(14); Zhao, Yinan(24,25); Liu, Yujuan(14); Chen, Yonghe(21); Wei, Chuanxin(21); Kang, Yanwu(21); Yang, Baoyu(21); Qi, Chao(21); Liu, Xiaohua(21); Zhang, Quan(21); Zhu, Yuji(21); Zhou, Dan(1); Zhang, Congcong(1); Yu, Yong(1); Zhang, Yongshuai(1); Li, Yan(1,63,64,65,66); Tang, Zhenghong(1); Wang, Chaoyan(1); Wang, Fengtao(22); Li, Wei(22); Cheng, Pengfei(22); Shen, Chao(22); Li, Baopeng(22); Pan, Yue(22); Yang, Sen(22); Gao, Wei(22); Song, Zongxi(22); Wang, Jian(9); Zhang, Hongfei(9); Chen, Cheng(9); Wang, Hui(9); Zhang, Jun(9); Wang, Zhiyue(9); Zeng, Feng(9); Zheng, Zhenhao(9); Zhu, Jie(9); Guo, Yingfan(9); Zhang, Yihao(9); Li, Yudong(44); Wen, Lin(44); Feng, Jie(44); Chen, Wen(23); Chen, Kun(23); Han, Xingbo(23); Yang, Yingquan(23); Wang, Haoyu(23); Duan, Xuliang(23); Huang, Jiangjiang(23); Liang, Hong(23); Bi, Shaolan(28); Gai, Ning(30); Ge, Zhishuai(46); Guo, Zhao(29); Huang, Yang(18); Li, Gang(39); Li, Haining(17); Li, Tanda(28); Lu, Yuxi Lucy(37,38); Rix, Hans-Walter(7); Shi, Jianrong(17); Song, Fen(31); Tang, Yanke(30); Ting, Yuan-Sen(26,27); Wu, Tao(63,64,65,66); Wu, Yaqian(17); Yang, Taozhi(47); Yin, Qing-Zhu(45); Gould, Andrew(7,32); Lee, Chung-Uk(33); Dong, Subo(34); Yee, Jennifer C.(34); Shvartzvald, Yossi(35); Yang, Hongjing(2); Kuang, Renkun(2); Zhang, Jiyuan(2); Liao, Shilong(1); Qi, Zhaoxiang(1); Yang, Jun(44); Zhang, Ruisheng(3); Jiang, Chen(6); Ou, Jian-Wen(48); Li, Yaguang(49,54); Beck, Paul(50); Bedding, Timothy R.(49,54); Campante, Tiago L.(51,52); Chaplin, William J.(53,54,55); Christensen-Dalsgaard, J?rgen(54); García, Rafael A.(56); Gaulme, Patrick(6); Gizon, Laurent(6,57,58); Hekker, Saskia(59,60); Huber, Daniel(61); Khanna, Shourya(62); Mathur, Savita(67,68); Miglio, Andrea(53,70,71); Mosser, Beno?t(72); Ong, J.M. Joel(61,73)
    Source: arXiv  Volume:   Issue:   DOI: 10.48550/arXiv.2206.06693  Published: June 14, 2022  
    Abstract:The ET mission is a wide-field and ultra-high-precision photometric survey mission being developed in China. This mission is designed to measure, for the first time, the occurrence rate and the orbital distributions of Earth-sized planets. ET consists of seven 30 cm telescopes to be launched to the Earth-Sun's L2 point. Six of these are transit telescopes with a FOV of 500 square degrees. Staring in the direction that encompasses the original Kepler field for four continuous years, this monitoring will yield tens of thousands of transiting planets, including the elusive Earth twins orbiting solar-type stars. The seventh is a 30 cm microlensing telescope that will monitor an area of 4 square degrees toward the galactic bulge. Combined with simultaneous ground-based KMTNet observations, it will measure masses of hundreds of long-period and free-floating planets. Together, the transit and the microlensing telescopes will revolutionize our understanding of terrestrial planets across a large swath of orbital distances and free space. In addition, the survey data will also facilitate studies in the fields of asteroseismology, Galactic archaeology, time-domain sciences, and black holes in binaries. ? 2022, CC BY-NC-ND.
    Accession Number: 20220183176
  • Record 3 of

    Title:Effective half-wavelength pitch optical phased array design for aliasing-free 2D beam steering
    Author(s):Lei, Yufang(1,2); Zhang, Lingxuan(1,2); Xue, Yulong(1,2); Ren, Yangming(1,2); Zhang, Qihao(1,2); Zhang, Wenfu(1,2); Sun, Xiaochen(1,2)
    Source: Applied Optics  Volume: 61  Issue: 32  DOI: 10.1364/AO.474504  Published: November 10, 2022  
    Abstract:We present a method to design an optical phased array (OPA) simultaneously realizing both narrow beam width and aliasing-free 2D beam steering without the need to arrange the antennas at actual half-wavelength pitch. The method realizes an effective half-wavelength pitch in one direction formed by location projection of the antennas. The distances between the antennas in the other direction can be sufficiently large to form an effective large aperture realizing narrow beam width without needing a long grating. The presented method is proven by both theory and numerical simulations to achieve an equivalent grating-lobe-free far field of an ordinary half-wavelength pitch design. One design example exhibits 180? steering with a minimal beam width of 0.4? * 0.032? and a sidelobe suppression ratio of >13 dB. Journal ? 2022 Optica Publishing Group.
    Accession Number: 20224713152145
  • Record 4 of

    Title:Dynamic synopsis and storage algorithm based on infrared surveillance video
    Author(s):Li, Xuemei(1); Qiu, Shi(2); Song, Yang(3)
    Source: Infrared Physics and Technology  Volume: 124  Issue:   DOI: 10.1016/j.infrared.2022.104213  Published: August 2022  
    Abstract:Infrared surveillance video is difficult to watch quickly and store efficiently, a surveillance video synopsis and storage algorithm is proposed based on dynamic. On the basis of extracting moving targets, the constraints of time and space is broken to build an energy functional based on filling density to quickly display the video content on the premise of ensuring the monitoring video information. The Tube structure is formed by the moving target information, and the mapping relationship between the original video and the stored video is established. Image similarity from time and space dimensions is fully utilized to realize the storage of surveillance video. The space ratio between the stored information and the original video is less than 0.2. ? 2022 Elsevier B.V.
    Accession Number: 20222212185955
  • Record 5 of

    Title:Fabrication and Spectroscopic Properties of Heavily Pr3+ Doped Selenide Chalcogenide Glass and Fiber for Mid-infrared Fiber Laser
    Author(s):Xu, Chen-Yu(1,2); Cui, Jian(1,2); Xu, Yan-Tao(1); Xiao, Xu-Sheng(1); Cui, Xiao-Xia(1); Guo, Hai-Tao(1,2)
    Source: Faguang Xuebao/Chinese Journal of Luminescence  Volume: 43  Issue: 6  DOI: 10.37188/CJL.20220088  Published: June 2022  
    Abstract:In order to develop a high gain medium for fiber lasers operating at 3-5 μm waveband,0-0. 4%(in weight)Pr3+ ions doped Ge12As20.8Ga4Se63.2 selenide chalcogenide glasses were prepared and the 0. 2%(in weight)Pr3+ ions doped one was successfully drawn into step-index double-cladding fiber with the lowest loss of 2. 95 dB/m@6. 58 μm by a multistage rod-in-tube method. The electron-probe measure microanalysis(EPMA),X-ray diffraction (XRD),differential scanning calorimeter(DSC),field emission transmission electron microscope(FE-TEM),trans? mission and mid-infrared fluorescence spectra were carried out to analyze the dispersion of Pr3+ ions in glass,the im? purity contents,thermal and optical changes caused by the Pr3+ ions’introduction. By analyzing the absorption and emission measurements of the serial glasses with the Judd-Ofelt theory,the Judd-Ofelt strength parameters,transi? tion probabilities,exited state lifetime,branching ratios,and emission cross-sections were also calculated. This sel? enide chalcogenide glass has high Pr3+ ions’solubility and emission characteristic,good thermal stability and fiber forming performance,indicating that it has potential to be used as mid-infrared laser working medium. ? 2022 Chines Academy of Sciences. All rights reserved.
    Accession Number: 20223212553301
  • Record 6 of

    Title:Two-dimensional single-lobe Si photonic optical phased array with minimal antennas using a non-uniform large spacing array design
    Author(s):Xue, Yulong(1,2); Zhang, Qihao(1); Ren, Yangming(1,2); Lei, Yufang(1,2); Sun, Xiaochen(1,2); Zhang, Lingxuan(1)
    Source: Applied Optics  Volume: 61  Issue: 24  DOI: 10.1364/AO.463542  Published: August 20, 2022  
    Abstract:We report a two-dimensional Si photonic optical phased array (OPA) optimized for a large optical aperture with a minimal number of antennas while maintaining single-lobe far field. The OPA chip has an optical aperture of ~200 μm by 150 μm comprising a 9 × 9 antenna array. The two-dimensional spacings between these antennas are much larger than the wavelength and are highly non-uniform optimized by the genetic deep learning algorithm. The phase of each antenna is independently tunable by a thermo-optical phase shifter. The experimental results validate the design and exhibit a 0.39? × 0.41? beamwidth within the 3 dB steering range of 14? × 11? limited by the numerical aperture of the far-field camera system. The method can be easily extended to a larger aperture for narrower beamwidth and wider steering range. ? 2022 Optica Publishing Group.
    Accession Number: 20223712737101
  • Record 7 of

    Title:Thermal Management Technologies Used for High Heat Flux Automobiles and Aircraft: A Review
    Author(s):Lv, Yi-Gao(1); Zhang, Gao-Peng(2); Wang, Qiu-Wang(1); Chu, Wen-Xiao(1)
    Source: Energies  Volume: 15  Issue: 21  DOI: 10.3390/en15218316  Published: November 2022  
    Abstract:In recent years, global automotive industries are going through a significant revolution from traditional internal combustion engine vehicles (ICEVs) to electric vehicles (EVs) for CO2 emission reduction. Very similarly, the aviation industry is developing towards more electric aircraft (MEA) in response to the reduction in global CO2 emission. To promote this technology revolution and performance advancement, plenty of electronic devices with high heat flux are implemented on board automobiles and aircraft. To cope with the thermal challenges of electronics, in addition to developing wide bandgap (WBG) semiconductors with satisfactory electric and thermal performance, providing proper thermal management solutions may be a much more cost-effective way at present. This paper provides an overview of the thermal management technologies for electronics used in automobiles and aircraft. Meanwhile, the active methods include forced air cooling, indirect contact cold plate cooling, direct contact baseplate cooling, jet impingement, spray cooling, and so on. The passive methods include the use of various heat pipes and PCMs. The features, thermal performance, and development tendency of these active and passive thermal management technologies are reviewed in detail. Moreover, the environmental influences introduced by vibrations, shock, acceleration, and so on, on the thermal performance and reliability of the TMS are specially emphasized and discussed in detail, which are usually neglected in normal operating conditions. Eventually, the possible future directions are discussed, aiming to serve as a reference guide for engineers and promote the advancement of the next-generation electronics TMS in automobile and aircraft applications. ? 2022 by the authors.
    Accession Number: 20224613126037
  • Record 8 of

    Title:A Unified Perspective of Multi-level Cross-Modal Similarity for Cross-Modal Retrieval
    Author(s):Huang, Yingying(1); Wang, Quan(2); Zhang, Yipeng(1); Hu, Bingliang(3)
    Source: 2022 5th International Conference on Information Communication and Signal Processing, ICICSP 2022  Volume:   Issue:   DOI: 10.1109/ICICSP55539.2022.10050678  Published: 2022  
    Abstract:Cross-modal retrieval is an intelligent understanding task between cross-modal data, and it comes with challenges to measure the similarity between cross-modal data. Existing methods mainly learned a common space by feature-wise or label-based supervised learning. Still, feature-wise methods only focused on the interactions between pairs of cross-modal data and label-based supervised learning relied excessively on classification accuracy. In the same space, these methods cannot capture more comprehensive interaction between cross-mode data, that is, given a query, this query and the retrieved data exist one-to-many correspondence, and the similarity between the pair-wise data is the largest. Therefore, a unified perspective of multi-level cross-modal similarity (MCMS) is proposed for cross-modal retrieval. Core ideas of MCMS are as follows: 1) The local similarity between cross-modal data is integrated to enrich the fine-grained cross-modal information. 2) The similarity between common feature vector and label is designed to obtain one-to-many correspondences between cross-modal data. In addition, Normalize Discounted Cumulative Gain (NDCG) as the evaluation metric is first used to comprehensively evaluate the results of cross-modal retrieval. Extensive experiments demonstrate that MCMS has better performance in cross-modal retrieval tasks. ? 2022 IEEE.
    Accession Number: 20231113742249
  • Record 9 of

    Title:Design and Ground Verification for Multispectral Camera on the Mars Tianwen-1 Rover
    Author(s):Yang, Jian-Feng(1); Liu, Da-Wei(2); Xue, Bin(1); Lyu, Juan(1); Liu, Jian-Jun(2); Li, Fu(1); Ren, Xin(2); Ge, Wei(1); Liu, Bin(2); Ma, Xiao-Long(1); Lyu, Bao-Gang(1); Ruan, Ping(1); Qiao, Wei-Dong(1); Lu, Di(1)
    Source: Space Science Reviews  Volume: 218  Issue: 3  DOI: 10.1007/s11214-022-00886-3  Published: April 2022  
    Abstract:As part of China’s first Mars exploration mission ‘Tianwen-1’, the Zhurong rover has successfully touched down on the surface of southern Utopia Planitia on May 15th 2021 and has been conducting surface operations for several months. A?multispectral camera (MSCam), as an important payload onboard the Zhurong rover, aims to acquire multispectral images to investigate the morphological characteristics and mineralogic properties of the Martian surface. In this study, a?detailed optimization design for the MSCam was carried out to achieve the abovementioned scientific objectives. The MSCam can perform multispectral imaging without chromatic aberration by utilizing eight narrow bandwidth filters made of glass of different thicknesses. Clear images of observation targets at different distances can be obtained by utilizing the six focal plane compensation lenses of varying thicknesses through the rotation of wheels. Calibration experiments, key specification tests and ground verification tests were also conducted in this study. Our results show that the pixel resolution of the MSCam can reach 0.146 mrad, the system static modulation transfer function (MTF) of the MSCam is better than 0.25@525?nm, and the signal-to-noise ratio (SNR) is higher than 40?dB, all of which allow clear imaging and accurate multispectral data acquisition of the targets. The high-resolution images obtained by the MSCam will provide detailed geological context for the data interpretation of other payloads on the rover, such as the Mars surface composition detector (MarSCoDe). The mineralogy information of the targets (e.g., fresh rock, dune) indicated by the MSCam multispectral data will also help to constrain the surface material composition of Mars. ? 2022, The Author(s), under exclusive licence to Springer Nature B.V.
    Accession Number: 20221611980797
  • Record 10 of

    Title:Ship Detection in Remote Sensing Image Based on Dense RFB and LSTM
    Author(s):Zhang, Tao(1); Yang, XiaoGang(1); Lu, XiaoQiang(2); Lu, RuiTao(1); Zhang, ShengXiu(1)
    Source: National Remote Sensing Bulletin  Volume: 26  Issue: 9  DOI: 10.11834/jrs.20211042  Published: September 2022  
    Abstract:Deep learning method had get great progress in remote sensing ship target detection, however there are still two main shortcomings as follows. One is that remote sensing image targets have multi-scale and multidirectional characteristics, especially for ship targets which are arbitrarily densely arranged, while existing detection networks lack of interactions between high-level and low-level features and ignore the context semantic information, which leads to poor detection results. The other is that the background of remote sensing images is complex and easily affected by factors such as light and clouds, resulting in the imbalance of positive and negative samples for target detection. In order to solve the problems above, a multi-scale ship target detection algorithm based on Dense RFB and LSTM is proposed in this paper. Firstly, a Dense RFB feature enhance module (Dense RFB-FE) is designed, which adopts feature multiplexing and expanded convolution to simulate the human eye point of view mechanism to increase the feature experience without increasing the amount of calculation, enhancing the ability to extract feature of shallow network details. Secondly, a deep multi-scale feature pyramid fusion module (MFPF) is designed, drawing on the ideas of FPN and LSTM, using deconvolution and residual structure to fuse deep multi-scale features, filtering invalid feature information, effectively to extract deep semantic information and enhance the expressive ability of the network feature layer. Finally, a new loss function is designed, the focus classification loss function is added to effectively solve the problem of imbalance of positive and negative sample, improving the accuracy of ship target detection. Experiments on optical remote sensing image dataset show that the average detection accuracy of the proposed algorithm for ship targets reaches 81.98%, and the detection speed reaches 29.6fps, which reduces the false detection rate and missed detection rate of target detection to a certain extent. In addition, for ship targets that are blurred, occluded, and partially cropped, the detection effect of the algorithm in this paper is also better than that of the original classic algorithm, which shows that by fusing the semantic information of the feature layer and the detailed positioning information, the generalization ability and characterization of the feature can be improved, which improves the accuracy of ship target detection in remote sensing images. In the future, the algorithm will be further optimized for the problems of multi-scale and dense arrangement of ship targets in remote sensing images. The rotating boxes will be used to accurately position the ship to reduce the interference of complex backgrounds. At the same time, the remote sensing image ship target datasets will be expanded to improve the ship target detection capability of the optical remote sensing image. ? 2022 National Remote Sensing Bulletin. All rights reserved.
    Accession Number: 20224713139256
  • Record 11 of

    Title:Optical Neuromorphic Processor at 11 TeraOPs/s based on Kerr Soliton Crystal Micro-combs
    Author(s):Tan, Mengxi(1); Xu, Xingyuan(2); Wu, Jiayang(1); Boes, Andreas(3); Corcoran, Bill(2); Nguyen, Thach G.(3); Chu, Sai T.(4); Little, Brent E.(5); Hicks, Damien G.(1,6); Morandotti, Roberto(7); Mitchell, Arnan(3); Moss, David J.(1)
    Source: 2022 Optical Fiber Communications Conference and Exhibition, OFC 2022 - Proceedings  Volume:   Issue:   DOI:   Published: 2022  
    Abstract:We demonstrate a universal optical vector convolutional accelerator operating at 11 Tera-OPS, generating convolutions of images of 250,000 pixels with 8-bit resolution for 10 kernels simultaneously. We use the same hardware to form a deep optical CNN with ten output neurons, achieving successful recognition of full 10 digits with 88% accuracy. Our approach is scalable and trainable for applications to unmanned vehicle and real-time video recognition. ? 2022 OSA.
    Accession Number: 20221812050726
  • Record 12 of

    Title:Retrieving Water Quality Parameters from Noisy-Label Data Based on Instance Selection
    Author(s):Liu, Yuyang(1,2); Liu, Jiacheng(1,2); Zhao, Yubo(1); Wang, Xueji(1); Song, Shuyao(1,2); Liu, Hong(1); Yu, Tao(1,2)
    Source: Remote Sensing  Volume: 14  Issue: 19  DOI: 10.3390/rs14194742  Published: October 2022  
    Abstract:As an important part of the "air–ground" integrated water quality monitoring system, the inversion of water quality from unmanned airborne hyperspectral image has attracted more and more attention. Meanwhile, unmanned aerial vehicles (UAVs) have the characteristics of small size, flexibility and quick response, and can complete the task of water environment detection in a large area, thus avoiding the difficulty in obtaining satellite data and the limitation of single-point monitoring by ground stations. Most researchers use UAV for water quality monitoring, they take water samples back to library or directly use portable sensors for measurement while flying drones at the same time. Due to the UAV speed and route planning, the actual sampling time and the UAV passing time cannot be guaranteed to be completely synchronized, and there will be a difference of a few minutes. For water quality parameters such as chromaticity (chroma), chlorophyll-a (chl-a), chemical oxygen demand (COD), etc., the changes in a few minutes are small and negligible. However, for the turbidity, especially in flowing water body, this value of it will change within a certain range. This phenomenon will lead to noise error in the measured suspended matter or turbidity, which will affect the performance of regression model and retrieval accuracy. In this study, to solve the quality problem of label data in a flowing water body, an unmanned airborne hyperspectral water quality retrieval experiment was carried out in the Xiao River in Xi’an, China, which verified the rationality and effectiveness of label denoising analysis of different water quality parameters. To identify noisy label instances efficiently, we proposed an instance selection scheme. Furthermore, considering the limitation of the dataset samples and the characteristic of regression task, we build a 1DCNN model combining a self attention mechanism (SAM) and the network achieves the best retrieving performance on turbidity and chroma data. The experiment results show that, for flowing water body, the noisy-label instance selection method can improve retrieval performance slightly on the COD parameter, but improve greatly on turbidity and chroma data. ? 2022 by the authors.
    Accession Number: 20224212985351
操婷婷基地| 丁香久久综合| 天天肏天天插| 色欲久久综合| 天天肏高清在线| 免费在线观看av网站| 亚洲亚洲人成综合网络| 成人精品视频99在线观看免费| 欧美色五月| 日本天堂爱爱| 天堂综合久久| 丁香五月婷婷香| 操一操| 五月天婷婷丁香蜜桃91| 日本本土色网第一区| 午夜丁香| 婷婷成人综合| 亚洲 综合中文| 激情综合九月| 五月婷婷啪啪网| 婷婷娌伦网| 97超级免费无码| www天堂99| 久久久天堂国产精品女人| 99色网站| 五月婷婷激情五月| 色五月激情五月天| 久久怕怕视频| 欧美人妻一区二区| 激情五月丁香五月| 久婷| 国产精品人人做人人爽人人添| 五月丁香综合在线| 婷婷午夜| 五月婷婷操操| 五月桃花网综合| 欧美性生交XXXXX无码小说| 婷激情五月| 亚洲人成人五月天| 国产美女无遮挡裸体毛片A片| 色色色婷| 综合久久六月| 国产精品国产成人国产三级| 天天爽天天日| 婷婷五月天影视首页| 色色色色热| 精品无吗va视频免费观看| 色五月综合在线| 久久丁香五月婷| 无码操B| 五月丁香在线看| 天天日日综合| 成人视频在线免费播放| 丁香五月人妻| 综合久| 亚洲av成人电影在线观看| 大香蕉综合网| 欧美黑人巨大性生话| 国产精品久久久久9999小说| 超碰在线99| 久久一级AV| 色婷婷很很丝袜| 日本97在线看片| AV在线不卡网站| 大香蕉人人网| 伊人干综合| 日本女va| 五月丁香六月情亚洲| 久久婷婷五月综合伊人| 五月激情站| 被强行糟蹋的女人A片| 在线婷婷| 男女啪啪做爰高潮无遮挡| 精品一二三区久久AAA片| 丰滿爆乳一区二区三区| 综合五月丁香六月婷婷| 日韩人妻在线观看| 婷婷久久五月| 国语精品探花| 激情五月天综合网| 五月婷婷色| 99干视频| 六月激情网| 操婷婷基地| 九九色之九九色之88| 婷婷午夜丁香| 婷婷五月天色网久| 色色com| 色玖玖综合| 香蕉久久国产AV一区二区| 五月丁香大香蕉| 99国产精品白浆在线观看免费| 亚洲1区| 极品五月天| 丁香五月AV| 丁香五月精品视频| 99热99热不卡| 人人爱操| 激情综合文学| 思思热久久阴99| 五月婷婷啪啪网| 国产凸凹视频熟女A片| 激情丁香五月天| 日操熟女| 大香网伊人久久综合| 天天色五月| 五月综合无码| 五月天播播| 日韩丁香涩| 人妻操日日| 日木狠狠干| 亚洲成人噜噜| 免费观看的av| 色五月,婷婷大香蕉| 性韩日色婷婷五月天激情啪啪XXX| 99色色最新视频| 丁香五月在线观看| 噼里啪啦完整版中文在线观看| 高清a片基地| 婷婷色丁香五月| 色婷婷五月网| 婷婷五月丁香综合| www天堂99| 久99热| 欧美激情五月| 九色婷婷| www.久9| 激情五月综合视频| 天堂中文在线资源| se色婷婷视频| 超碰av在线| 婷婷色情五月| 夜夜躁爽日日| 久久天堂精品| 五月天夜夜爱夜夜操| 99久久玖玖| 在线综合亚洲欧美65| www色色色com| 天天摸天天做天天爱天天爽| 婷婷五月在线观看| 9精品视频在线观看| 国产Va视频| 婷婷综合五月| 美女婷婷激情亚洲| 五月丁香美女视频| JAVAPARSAE人妻XXX| 欧美精品XXXXBBBB| 久久五月网| 久久视频在线| 国产日产亚系列精品版优势 | 9999热在线| 99,色| 99久热这里只有精品| 欧美性生交XXXXX无码小说| 久久久久久久久久久97| 九九热短视频在线观看| 99热首页| 在线你懂的亚洲欧| 婷婷五月综合激情免费| 国外亚洲成AV人片在线观看| 99热九九这里只有精品| 天天色天天日天天舔| 九九热视频在线观看| 九月丁香婷婷综合| 激情综合99| 九九99偷拍视频| 久久五月丁香激情综合| 91美女被操| 伊人玖玖网| 人人人操B超碰| 能直接看的av网站| 五月停停色色丁香| 欧美 日韩 成人在线| 另类亚洲电影| 色了色综合| 亚洲人妻av伦理| 内射综合网| 婷婷五月天在线视频网站| 五月婷婷香蕉| 六月丁香婷婷尤物| 99久久人妻精品无码二区| 91操片| 天天噜噜| 伊人超碰在线| 激情五月丁香综合网站| 婷婷综合中文| 精品色色网| 国内外色色色色色成人视频| 思思热99er在线视频| 午夜免费试看| 97色在线视频| 日韩人妻在线观看| 久青操| 亚洲色五月| 91丁香婷婷综合资源| 99色在线观看视频| www.婷婷com| 丁香成人综合| 桃色五月婷婷| 五月噜噜| 九九99久久精品| 人人色性网| 久久久婷婷| 超碰成人免费| 1024人妻| 丁香五月婷婷久久综合激情网 | 色玖玖综合网| 99在线观看精品| 成人综合视频在线| 国产婷婷综合在线免费视频| 色五月欧美| 婷婷久久五月天| 亚洲自拍天堂| 中文人妻AV久久人妻18| 97人人做| 激情AV| www.天天色综合| 五月天综合婷婷| 狠狠色丁香| 操人91| 97亚洲色 torrent magnet| 狠狠干婷婷| 華人性愛AV在線| 99热这里只有精品55| 激情四射五月天偷偷看婷婷| 亚洲精品又粗又大又爽A片| 婷婷五月免费观看| 久久女伦| 人体裸体BBBBB欣赏| 色播五月综合网| 999久久久国产精品| 中文字幕欧美久久| 亚洲AV成人在线| 26uuu视频欧美| 色色色com| 丁香午月AV中文字幕| 丁香六月婷婷久久综合| 五月色婷婷综合丁香精品无遮挡| 九九色婷婷五月天| 五月五婷婷| se99热久久一本| 色天堂A| 天天想夜夜爽天天爽| 亚洲无AV在线中文字幕| 亚洲久久婷婷| 欧美男女婷婷| 人妻视频在线| 天天综合精品| 亚洲另类在线观看| 丁香狠狠| 午夜]香婷婷深深爱| 五月天最新网| 激情综合无码| 狠狠操狠狠| 色婷婷五月天成人网| 国产精品24r| 五月天婷婷丁香导航| 在线观看的av| 亚洲成人无码专区| 99精品在这里| 玖玖国产视频一区| 久久色大香蕉| 射狠狠| 天天色月| 激情5月婷婷| 五月丁香在线观看| 99热婷婷| 天天日中文| 六月丁香综合| 九九热这里只有精品23| 久久精彩视频| 密臀av无码人妻精品| 色色色精品无码区| 丁J香六月首页| 色久女| 色五月天综合| 激情九色| 色色婷婷综合| 久久五月婷婷丁香| 五月久久噜噜| 91日韩美女被插视频| 在线中文字幕视频| 五月激情丁香| 4399在线日本A片| 最近中文字幕大全免费版在线| se99视频| 99热 在线观看| 亚洲婷婷综合视频| 久久久婷| 91人人爽久久涩噜噜噜| 天天狠天天狠| 色综合久久综合| 婷婷六月天| 亚洲九九视频| 这里只有精品在线播放| 在线观看av网站| 欧洲区自拍| AV操操操| 色综合天天网| 都市激情亚洲| 风流少妇A片一区二区蜜桃| 亭亭五月色男人| 精品九九在线观看视频| 91亚洲视频| 五月丁香六月色| 久久婷婷六月综合| 天天搽天天射| 色丁香五月| 男人的天堂婷婷色五月| 久久久久9| 五月激情五月婷婷五月天在线| 日日干天天射| 九九爱精品网站| 午夜丁香婷婷| 噜噜噜久久| 三级大香蕉网| 九九热这里有精品视频| 国产综合久久久777777| 色色三级视频| 97婷婷色| 疯狂做受XXXX高潮A片| 秋霞少妇AV网站| 久婷婷| 日本三级99人妇网站| 五月婷婷六月丁香综合| 26UUU欧美| 在线五月色播| 亚洲小视频免费播放| 色色五月丁香婷婷综合| 欧美熟女视频 色婷婷| 婷婷伊人网| 丁香花在线视频完整版| 丁香婷婷色五月天| 国产永久一二一起草| 久久91久久91色欲精品| 色五月婷婷7777| 开心激情网五月天| 婷婷五月色综合| 五月婷婷在线观看| 日日干综合| 久久XX| 五月婷久久久| 天天综合色99| 婷婷综合性爱网| 天天做夜夜爽| 久久久久激情| 欧美久久网| 99热网精品| 久婷五月| 91精品综合久久久久久五月丁香 | 丁香六月av| 狠狠爱深色婷婷综合| 久久久婷| 91热在线| www久久艹| 国产色色色色| 五月丁香花婷婷玉莉AV| xxx日本东京热| 少妇日麻屄| 玖玖色综合| 在线观看欧美| 97电影99热| 色色草97| 91色综合久久| 色色色色色色综合网| 熟妇无码乱子成人精品| 九色视频91| 欧美三日本三级少妇三99| 青青草激情网| 婷婷五月天激情诱惑| 亚洲AAAA网| 亚洲AV激情五月综合网| 亭亭五月激情亚洲在线| 4399在线观看免费高清电视剧| 538任你爽| 五月丁香花视频| 五月天停婷基地| 婷婷色色丁香| 成人在线视频男人的天堂4399| 伊人天堂婷婷| 丁香五月婷婷香| www.91热久久| 九九精品9| 91黄色五月天视频| 玖玖99婷婷| 99热香港| 色拍九九九| 色9999综合久久| 五月婷婷激情在线| av婷婷丁香| 久久99激情五月天| 色色五月丁香婷婷综合| 五月激情射| 婷婷久久精品| 亚洲AV日韩无码| 国产av基地| 色七七九九| 中文字幕,综合,91| 久热只有精品| 激情婷婷丁香色五月综合| 97色婷婷| 天天肏屄夜夜爽| 思思热思在线精品视频| 婷婷基地五月色| 五月丁香AV在线| 婷婷丁香五月亚洲| 婷婷五月天六月丁香| 亚洲欧洲中文日韩久久AV乱码| 婷婷五月在线视频| 婷色五月天| 婷婷激情社区| 99精品久久| 丁香五月综合网| 色综合色色色色色色综合| 色黄啪啪| 九九亚洲综合| 久这里只有精品| 好好干av| 五月天网站亭亭| 国产精品色色| 香蕉综合网| 无码人妻精品一区二区蜜桃色欲 | 91大操| 99热 在线播放| 天天综合网~91综合网| 狠狠色无码| 色色色777| 婷婷六月天精品| 亚洲色A| 日本色爽| 五月天激情亚洲| 婷婷久久综合久| 99超级超级超级碰| 久久五月网| 五月丁香色婷婷伊人| 天天爽人人爽| 狠狠高潮精品亚洲1| 色五月婷婷操逼| 婷婷色综合| 九色亚洲| 天天综合网91| 99热精品一区| 六月色婷婷| 这里只有精品免费| 亚洲岛国电影| 99色色| 亚洲五月婷婷在线| 婷婷五月丁香基地| 99ri在线视频| 婷婷综合九色伊人| 狠狠第四色| 色宗合,宗合网| 婷婷五月综合视频免费播放| 日本色色图| 久久精品99国产精品日本| 久久久噜噜噜久久人妻| 丁香五月亚洲综合| 久久久18| 丁香五月色情| 成人婷99最新| 九月婷婷在线视频| 人伦30P| 影音先锋 91工厂| 婷婷综合激情| 色播五月天激情| 九九九九无码| 激情宗合哪里能看| 中文字幕乱轮| 婷婷金品综合视频| 超碰99成人在线| 丁香五月激情六月欧亚激情综合导航 | 色婷婷成人五月| 综合婷婷| 五月婷久久综合| 国产伦理精品高清在线观看网站一区二区 | 国产精品蜜臀99| 激情九色| 桃色五月婷婷| 亚洲无码播放| 情婷婷五月天| 亚洲成AV人片在线观看| 色婷婷综合丁香五月天| 天天激情综合| 丁香婷婷成人网站| 97人人草| 四虎成人精品永久免费AV九九| 五月开心婷婷| 久热伊人| 六月综合婷婷开心伊人 | 31色区视频免费看| 欧美五月丁香在线| 天天爽天天干| 亚洲视频在线网站| 99日韩| 丁香六月婷婷综合啪啪| 日日做A爰片久久毛片A片英语| 久热婷婷在线视频| 春色激情第四色| 婷婷久久丁香五月| 操比激情五月| 天天综合五月| 爱射综合| 色欲影香| 六月丁AV| 97干干干丁香| 久久机热这里只有精品免费视频 | 九九视频网| 婷婷五月天六月丁香| 久久9热好| 色色色在线免费视频| 亚洲女婷婷五月基地综合久久久| 激情综合网五月天| 亚洲综合草草| 丁香五月婷婷www..com| 99re26视频| 天天干天天插| 91精品久久久久久77777| 类似婷婷激情综合网站| 婷婷成人五月天成人文学小说| av人人干| 久久多色| 天天影院色| 九九丁香社区欧美激情| 亚洲久久视频| 91精品综合久久久久久五月丁香| 蜜桃婷婷狠狠久久| 久久五月天激情| 久久综合婷婷激情| 5月色亭亭视频| 日韩啪啪视频| 99玖玖免费视频| 中文av网| 97成人视频| 九九热短视频在线观看| 内射爽无广熟女亚洲| 91操熟女| 亚洲精品在线视频| 香蕉久久国产AV一区二区| 操你av| 中文字幕日产A片在线看| 五月天激情综合在线| 色婷婷88| 99九九视频| 激情六月色| 国产综合A片| 久久思思热视频| 成人在线日韩| 97丁香五月天| 亚洲情综合五月天| 狠狠香婷婷五月| 婷婷在线精品| 色啪影院| 超碰女人天堂| 色色激情| 婷婷在线视频| 六月丁香激情综合网| 六月婷婷激情图片| 91九色国产| 日本精品99网站| 日韩不卡DvD| 99热在线观看精品| www.婷婷五月天| 99色中文| 99精品国产在热久久| 99热爱爱干干日| 97干免费视频| 99热99干| 九九热这里只有精品556| 久久五月综合| 婷婷五月天成人| 色五月婷婷在线观看第一页舔| 很很干五月天| 夜色五月天| 久热这里只有精品在线| 色综合99色| 天干夜夜操| 日韩无码系列| 色欲婷婷五月天丁香| 玖玖爱综合网| 日本色色图| 欧美va亚洲va| 蜜桃人妻无码AV天堂三区| 五月色婷婷综合丁香精品无遮挡| 1024在线一区| 色婷婷五月天小说| 99啪在线| 超碰色色综合| 99er这里只有精品视频| 欧美日韩中文国产一区发布| 五月婷婷m| 综合久久婷婷99| 噜噜五月天综合| 97碰碰视频| 国产9色在线/日韩| 五月天另类小说亚洲| 熟女少妇内射日韩亚洲| 国产日日操夜夜操的肉棒视频| 丁香花狠狠婷婷亚洲中文字幕| 色99网| 久久婷婷色综合| 激情四射五月天| 99热国产这里只有| 激情婷婷五月| 久久AV无码乱码A片无码波多| 99自拍视频网站| 色五月天电影| 五月婷婷开心六月激情小说| 久久日曰| 色五月天堂| 婷婷区日本| 97碰 在线视频观看| 九九无码| 99在线观看视频免费| 欧美99| 色婷婷www| 黄色三级日本| 97人人射| 五月亭亭网成人在线视频| 色婷| 另类小说五月天| 丁香婷婷视频| 久操大香蕉| 色婷婷丁香五月天| 色色AV色色色东莞| 婷婷在线精品| 激婷网| 丁香六月婷婷久久综合| av 一区三区四区| 超碰在线免费观看3 9| 狠狠操狠狠插| 色五月综合婷婷久久综合婷婷久久综合婷婷久久综合婷婷久久 | 激情五月婷婷开心网| 站长推荐无码播放| 波多野结衣成人作品在线| 五月婷婷色播| 六月婷婷无码观看| 97操| 天天日夜夜爽| 色婷婷社区| 99热9| 国内自拍97在线| 色私五月婷婷| 亚洲色小说在线综合| 艹天天射| 极品人妻VIDEOSSS人妻| 中文av网站| 丁香综合伊人| 天天艹| 久久99热这里只有精品| 婷婷五月天电影区小说区| 欧美日朝成人| 人人操超碰| 色色婷婷五月天| 欧美成人精品一区二区 | 五月天激情国产综合婷婷婷| 立川无码av| 超碰人人操人人9| 99热这里只有精品免费| 直接看的AV| 日日噜狠狠色综| 天天透天天干| 中国丰满熟女A片免费观| 五月久视频| www.精品99| 欧美操逼天堂| 一起草AV入口| 久激情网| 俺去也五月天婷婷| tingtingjiqingwuyue| 色色九区| 野战J办公桌椅H| 五月婷婷色播| 久久久久人妻中文| 《诡秘之主》在线观看| 丁香五月天婷婷91| AA丁香综合激情| 亚洲另类婷婷综合| 五月丁香激情婷婷| 久婷婷五月激情| 婷婷五月天黄色网址| 日本V在线观看不卡视频网站| 久99热在线观看| 五月天激情开心网| 色五月婷婷激情综合网| 日韩黄色电影| 91碰人人| 99精品偷自拍| 99热碰碰热| 日本五月天婷婷丁香| 色狠狠伊人久久五月丁香| 久久婷婷五月综合色奶水99啪| 色狠狠婷婷| 99精品网| 久热中文字幕| 婷婷亚洲综合| 天天色天天色天天色天天色天天色| 人妻性爱av网站| 久久最新色| 热婷婷av| 色色网站毛片| 深爱婷婷网| 色色色地址| 六月色播| 色婷婷丁香五月色综合网| 人妻久久久久久久久妻久久久久久久久 | 婷婷狠狠干| 思思99热这里只有精品6| 思思久久网| 日本色图综合| 美国不卡视频| 操97在线观看| 亚洲1区| 操骚货在线| 99久在线精品| 欧美又粗又大AAA片| 日日夜夜爽| 色婷婷色情| 欧美美女国产日韩一区二区久| 九九色人| 综合99综合久久久久久久| 五月天激情图片网| 亚洲精品另类| 亚洲欧美综合7777色亭亭| 99精品偷自拍| 中国丰满熟女A片免费观| 性一交一乱一交A片久久四色| 瀚癇BB妲BBB妲BBB| 九九精品热| 99思思| 久久66成人网站| 79色色免费| 思思热性操| 激情伍月 欧美| 九九精品片一| 色丁香五月婷婷婷| 66精品国产成人| 婷婷91| 五月丁香婷婷色色| 超碰91av| 操碰99| 天天射综合网站| 五月天丁香网站| 丁香九月综合激情| 超碰在线观看9| 中文AV在线观看| 99日精品视频| 九月综合| 久久婷婷国产| 久久六月天| 九热...av| 婷婷99狠狠躁天天| 婷婷五月电影院| 亚洲人妻AV| 99爱视频精品| 婷婷丁香社区网| 日日日,com| 99在线观看精彩视频| 亚洲色情免费网| 99re这里只有精品国产99| 99久久a线观| 热久久99视频| 色久五月| 天天免费日日夜夜夜夜| 九月丁香五月婷婷| 91婷婷五月天嫩女| 高清无码网址| 91婷色| 91色久| 中文字幕无码人妻少妇免费视频 | 五月色综合网欧美网| 色婷婷手机在线| 99热情这里只有精品在线播放| 免费国产VA国产免费| Av性爱网站| 婷婷五月天,影院| 五月天婷婷影院影院| 亚洲精品国产精品乱码不99| 天天操狠狠操| 五月久久婷婷成人网| 亚洲色婷婷久久精品AV蜜桃| 五月丁香自拍| 天天综合在线网| 久久99国产综合精品免费| 国产毛片精品一区二区色欲黄A片| 91夫妻视频| 久久久潮喷-久久久九九-成人AV| 成人丁香五月婷| 91人人网| 很很操96| 色婷婷五月天小说网| 五月丁香啪啪伦理电影| 丁香花在线高清视频完整版观看 | 婷婷之六月丁香| 第四色首页| 少妇荡乳欲伦交换A片欧美| PORNY九色9l自拍视频成人| 天天日天天摸| 大色鬼综合| 日韩成人电影av| 97婷婷狠狠| 精品99久久久久成人网站免费| 森林影视大全,最好看的2019年视频 | 婷婷五月丁香基地在线视频官网| 亚洲五月婷婷在线| 99综合激情久久精品久久| 丁香五月成人婷婷| 丁香五月婷久久| 这里只有精品96| 99久热精品在线| 99九九精品| 超碰AAAAAAV| 色五月丁香五月| 色9999日韩国产| 色色色色色色色色色影院| 98热精品| 9久精品| 亚洲激情色色| 草莓视频在线| 亚洲欧美婷婷五月色综合| 久久婷婷五月综合色和| 国产婷婷五月天| 亚洲久久视频| 婷婷99狠狠躁| 91久操| 99视频热99| 久久婷婷色情7777网站| 久久香蕉婷婷五月天| 玖玖资源在线视频| 五月天婷婷在线观看| 五月综合人妻| 婷婷五月AV| 26uuu激情五月天| 婷婷五月天福利| 天天插天天插| 狠干综合| 色狠狠999综合网| 婷婷亚洲欧美丁香五月| 91五月天| 青青操日本摸摸看看| 99热久| 天天舔天天摸视频| 五月婷婷啪| 亚洲AV成人精品网站在线播放| 伊人婷婷大香蕉| 色五月激情综合| 影音先锋91| 日本无码专区| 九九九热精品| 天天操,夜夜骑| 色色色色综合网| 五月婷婷综合成人| 五月花综合| 五月婷婷基地| 久热这里只有| 日韩美女羞羞网站在线观看| 五月激情丁香六月狠狠干| 五月天综合视频| 天堂成人A片永久免费网站| www.com任你艹| 久久久月丁香| 丁香五月天.com| www.lchjjc.com| 99热只有精品综合| 可以看的AV| 中文字幕无码人妻少妇免费视频| 99精品国产在热久久婷婷| 颜射 精品性爱av| 亚州操操| se婷97| 久er7久热| 激情中文在线| 丁香五月激情啪啪综合| 激情四射五月天偷偷看婷婷| 久久综合五月天| www.91五月| www.粉嫩av.com| 大地资源中文第3页| 久久婷婷七月丁香| 他改变了拜占庭| 丁香婷婷激情| 任你爽在线视频| 婷婷丁香视频在线观看免费| 五月天激情网站| 99热人人艹| 99热6这里之有精品| 另类 在线| 69人人操人人爽| 激情五月婷婷在线区| www狠狠| 丁香五月婷婷天堂大香蕉| 丁香五月冃欧美| 丁香五月婷婷网| 婷婷99中文字幕| 激情小说视频图片| 免费视频无码| 五月开心婷婷中文字幕| 欧美啪啪9| 综久久久| 影音先锋人妻出差| 嫩草AV久久伊人妇女超级A| 九九操操| 99只有精品| 5Www色5夜| 丁香五月天在线直播观看| 99操视频| 成人网站免费在线播放| 亚洲天天操| 亚洲AV成人在线观看| 五月婷婷,六月激情| 91操操| 欧洲亚洲免费视频9| 激情婷婷六月天| 婷婷五月综合色小姐小说| 婷婷丁香视频| 午夜69成人做爰视频| 美日韩成人| 久久五月激情综合| 1区2区视频| 久久美女五月天| 五月婷婷久久网| 色丁香久综合在线久综合在线观看| 五月色亚洲| 青青.com| 9色视频在线| 色99在线视频| 99国产精品久久久久久久久久久| 天堂亚洲 在线| 欧美日本va| 91美女啪啪| 丁香5月婷婷| 天天插操| Www.婷婷五月| 婷婷99视频在线| 狠狠人妻久久久久久综合丁香| 搡BBBB搡BBB搡18| 91精品电影18T| 99综合| 天天日日人| 思思久久精品| 色视频2025| 激情综合网五月天| 99这里有精品久久97| 色色色综合网| 色丁香五月婷婷婷| 五月丁香偷拍| 色综合另类| 日本熟妇乱妇熟色A片蜜桃| 丁香婷婷免费| 内射干少妇亚洲69XXX| 狠狠人人| 思思热在线| 天天久久综合| 国产首页在线| 可以观看的AV| 色综合久网| 色五月婷婷在线| 婷婷色五月激情强奸四射| 久草狼人| 综合久久婷婷| 人妻无码精品一区| 综合在线网| 免费看欧美成人A片无码| 思思色综合网站| 99亚洲精品综合在线 | 五月天婷婷香蕉狠狠超碰综合| 国产丝袜美女| 国产精品社区| 色色色色色色色色五月先| 怡红院 久久| 亚洲V国产V欧美V久久久久久| 99综合婷婷五月| 超级碰碰97在线| 五月激情网综合| 激情性爱网站| 婷婷五月综合啪| 久久丁香五月天| 天天色天天日| 色五月丁香婷婷综合| 亚州男人天堂婷婷五月| 丁香五月天AV| 麻豆雪千夏| 午夜丁香| 日本色婷婷综合| 激情五月婷婷综合秋霞| 99视频这里只有精品10| 成人色图情色成人网 www.5b5b5bcom 五月天| 99热精品在线| 91九色在线| 精品无码久久久久久久久| 欧美另类五月激情| 五月激情久久| 五月 成人 婷婷| 日本怕怕视频| 夜夜嗨一区二区三区直播内容 | 婷婷五月天开心激情网| 五月婷婷日| 日韩无码成人电影| 天天肏天天插| 色婷婷第四色| 婷婷五月综激情| 综合在线网| 精品热青草| 中文字幕资源网| 激情婷婷丁香五月天小说| 婷婷香蕉| 26uuu最新地址| 四虎成人精品永久免费AV九九| 99在线免费视频| 五月丁香做爱视频| 激情五月色综合网| 天天日,天天干,天天操| 色婷婷五月婷婷五月婷婷五月| 伊人久久大香线蕉综合网站| 色婷婷五月色| 婷婷五月天综合蜜桃| 操比激情五月| 91干视频| 色婷婷六月综合| 久久午夜丁香| 性爱综合网| 亚洲婷婷五月天激情综合| 丁香五月停停基地| 99热在线观看| 怡红院一二三| 大香蕉人妻| 婷婷色五月91啪啪| 热99免费在线| 婷婷综合五月激情| 麻豆精品| 欧美肉大捧一进一出免费视频 | 香蕉国产2013| 五月丁香啪啪啪啪| 丁香五月综合激情性爱| 成人亚洲精品久久久久| 婷婷五月天免费视频| 99视频在线| 丁香五月图片| 五月天久久婷| 亚洲色综合| 五月激情综合网| 欧美成人精品一区二区| 99精品这里只有免费视频| 无码人妻激情| 97碰碰视频| 九九美女视频| 丁香五月婷婷综合激情啪啪啪| 激情久久五月天| 无码少妇高潮喷水A片免费| 色婷婷a三区麻| 91超级碰碰碰| 欧洲激情精品婷婷| 五月开心婷婷网| 激情国产五月| 精品人妻一区| 无人精品在线视频| 久久久er热| www,com,五月色色| 色播丁香| 秋霞A V毛片| 激情婷婷网| 久久er免费视频| 五月花激情网| 无码人妻AV久久久一区二区三区 | 亚洲AV无码一区二| 99国产精品久久久久久久久久久 | 婷婷五月丁香91| 操操操B| 91偷拍视频| 婷婷五月天免费视频| www色婷婷久久综合久色| 欧美日韩成人在线网站| 无码一区精品一区视频| 成人av在线电影| www天天爽| 99热精品少| 超碰99久久| 99艹精品在线观看| 亚洲亚洲人成综合网络| 黄色成人网站在线播放| 日韩99精品| 爱草视频在线观看| 久久色区| 久久精品噜噜噜成人A∨色欲| 96精品成人无码A片观看金桔| 在线天堂9| 99久久6| 九九九成人在线视频| 在线中文av| 开心五月婷婷综合在线精品素人| 国产精品久久久久9999小说| 亚洲成人AV在线播放| 直接看的AV| 婷婷玉月丁香五月在线视频| 激情综合色| 九九 激情 网| 久久久亚洲成人无码A片| 免费无码毛片一区二区A片| 伊人婷婷综合| 五月亭亭网成人在线视频| 精品一区二区三区木瓜| 国产99美少妇| 激情五月综合网最新| 色色丁香五月天社区| 色六月 婷婷| 青草视频在线播放| 99久在线精品99re8| 久婷五月| 色婷婷狠狠18| 亚洲六月婷| 五月天无码视屏播放| 色婷婷五月开心六月综合| 六月婷欧美| 成人网站高清无码| 婷婷操无码| 五月婷婷五月天| 成人做爰高潮A片免费视频| 天天噜日日噜综合无码| 02kkkk| 六月综合婷婷开心伊人| 色爱终和网| 五月丁香婷中文| 久色成人| 激情久久四色| 丁香无月在线观看| 99热播放| 五月天丁香成人| 欧美啪啪五月天| 久久丁香网| 成人龟情网丁香五月| 中文字幕日产A片在线看| www.五月天婷婷| 天天狠天天叉| 丁香五月影院| 久久五月网| 中文字幕精品在线观看| 美国十月色婷婷在线观看| 六月丁香VA| 深爱激清网| 婷婷五月丁香网| 欧洲免费视频色| 婷婷五月天激情五月天网站| 可以直接看的av网站| 六月婷婷狠狠| 99在线观看视频精品| 五月色丁香综合| 激情宗合哪里能看| 五月天婷婷基地丁香| 性爱动图国产麻豆一区二区三区| 97啪啪| 丁香五月婷婷啪啪| 五月天激情影院| 色婷婷网| 九九热这里只有精品5| 久操大香蕉| 欧美日韩91| 无码色色色色色| 狠狠干五月天婷婷网| 亚洲国产婷婷色五月| eeuss人妻| 五月色丁香综合|