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Æü»þ: 09·î25Æü¡Ê·î¡Ë3¸Â¡Ê13:30-15:00¡Ë


²ñ¾ì: L1

»Ê²ñ: ²Ï¹ç µªÉ§
Æ£¸¶¡¡À»»Ê 1651093: M, 2²óÌÜȯɽ ¥æ¥Ó¥­¥¿¥¹¥³¥ó¥Ô¥å¡¼¥Æ¥£¥ó¥°¥·¥¹¥Æ¥à °ÂËÜ ·Ä°ì, À¶Àî À¶, ¹ÓÀî Ë­, ¿Ûˬ Çîɧ, Æ£ËÜ ¤Þ¤Ê¤È
title: Implementation and Evaluation of Activity Recognition System using Analog-PIR-Sensor
abstract: Thanks to the development of ubiquitous information technology in recent years, smart home applications such as home appliance control, adult care sercice, and so on are attracting attention. To realize these applications, we have to develop a system which recognizes various human activities accurately and cheaply. There are many studies on the activity recognition in a smart home which uses a wearable device or a camera. We also have proposed an activity recognition technique in a smart home by utilizing digital-output-PIR sensors, door sensors, and power meters. However, the study has an unsolved issue: we cannot distinguish similar activities happening at the same place, for example, ``reading'' and ``using a smartphone'' while sitting on a sofa. In order to cope with this challenge, we introduce ALPAS: analog-output-PIR-sensor-based activity recognition technique which recognizes the different activities in the same place. Our technique recognizes user's activity by utilizing machine learning with frequency components of the sensor's output as features. However, because the number of features used in ALPAS is 1000 for each analog PIR-sensor, a large capacity memory is required. To reduce the number of features, we select a part of the sensing data. We call the starting point of the selected data as starting frequency (SF) and the ending point as ending frequency (EF). We searched SF and EF using a grid search, and evaluated the recognition accuracy. We evaluated the proposed technique in a smarthome testbed. In the evaluation, five participants performed four different activities while sitting on a sofa. As a result, we achieved F-Measure: 59.6 % without reducing the number of features. In addition, we achieved F-Measure: 63.9 % when the EF is 1.4 Hz, and F-Measure: 50 % or lower when the SF is 9.9 Hz or higher.
language of the presentation: Japanese
ȯɽÂêÌÜ: ¥¢¥Ê¥í¥°½ÐÎϾÇÅÅ·¿ÀÖ³°Àþ¥»¥ó¥µ¤òÍѤ¤¤¿¹Ôưǧ¼±¥·¥¹¥Æ¥à¤Î¼ÂÁõ¤Èɾ²Á
ȯɽ³µÍ×: ¶áǯ¤Î¥æ¥Ó¥­¥¿¥¹¾ðÊ󵻽ѤÎȯŸ¤Ëȼ¤¤¡¤¾Ê¥¨¥Í²ÈÅÅÀ©¸æ¤ä¹âÎð¼Ô¸«¼é¤ê¥µ¡¼¥Ó¥¹¤Ê¤É¡¤À¸³è¤ò»Ù±ç¤¹¤ë¥µ¡¼¥Ó¥¹¤Ø¤Î±þÍѤ¬´üÂÔ¤µ¤ì¤Æ¤¤¤ë¡¥ ¤³¤ì¤é¤Î¥µ¡¼¥Ó¥¹¤Î¼Â¸½¤Ë¤Ï¡¤µï½»¼Ô¤ÎÍÍ¡¹¤Ê²°ÆâÀ¸³è¹ÔÆ°¤ò¹âÀºÅÙ¤«¤Ä°Â²Á¤Ëǧ¼±¤¹¤ëɬÍפ¬¤¢¤ë¡¥ ¥¹¥Þ¡¼¥È¥Û¡¼¥àÆâ¤Ë¤ª¤±¤ëÀ¸³è¹ÔÆ°¤òǧ¼±¤¹¤ë¥¦¥§¥¢¥é¥Ö¥ë¥Ç¥Ð¥¤¥¹¤ä¥«¥á¥é¤òÍѤ¤¤¿¼êË¡¤¬Â¿¿ôÄó°Æ¤µ¤ì¤Æ¤¤¤ë¡¥¤Þ¤¿¡¤¤³¤ì¤Þ¤Ç¤Ë¥É¥¢³«ÊÄ¥»¥ó¥µ¤ä¾ÇÅÅ·¿ÀÖ³°Àþ¥»¥ó¥µ¡¤ ¾ÃÈñÅÅÎÏ¥»¥ó¥µ¤òÍøÍѤ·¤¿À¸³è¹Ôưǧ¼±¼êË¡¤¬³«È¯¤µ¤ì¤Æ¤¤¤ë¡¥ ¤·¤«¤·¡¤¤³¤ì¤é¤ÎÀè¹Ô¸¦µæ¤Ç¤Ï¡¤µï½»¼Ô¤Î°ÌÃ֤Ȥ½¤Î¹ÔÆ°¤¬1ÂÐ1¤ÇÂбþ¤·¤Ê¤¤°ÌÃÖÈó°Í¸¹ÔÆ°¤ò¹âÀºÅÙ¤Çǧ¼±¤Ç¤­¤Ê¤¤¤È¤¤¤¦ÌäÂ꤬¤¢¤Ã¤¿¡¥ ¤½¤³¤Ç¡¤Ëܸ¦µæ¤Ç¤Ï¥¢¥Ê¥í¥°½ÐÎϾÇÅÅ·¿ÀÖ³°Àþ¥»¥ó¥µ¤È¤½¤Î¥»¥ó¥µ¤òÍѤ¤¤¿¹Ôưǧ¼±¥·¥¹¥Æ¥à¡ÊALPAS:AnaLog-output-Pir-sensor-based Activity recognition System¡Ë¤ò³«È¯¤·¡¤ ¿Í¤Î¿È¿¶¤ê¤ÎÂ礭¤µ¤Ê¤É¥æ¡¼¥¶¤ÎÆ°ºî¤Î°ã¤¤¤ò¸¡½Ð¤¹¤ë¤³¤È¤Ç¡¤¤³¤ÎÌäÂê¤ò²ò·è¤¹¤ë¡¥ Äó°Æ¼êË¡¤Ç¤Ï¡¤¿Í¤ÎÆ°ºî¤Î°ã¤¤¤Ë¤è¤ê¥¢¥Ê¥í¥°ÀÖ³°Àþ¥»¥ó¥µ¤Î¼þÇÈ¿ôÀ®Ê¬¤Ë°ã¤¤¤¬À¸¤¸¤ë¤³¤È¤ËÃåÌܤ¹¤ë¡¥¼þÇÈ¿ôÀ®Ê¬¤òÆÃħÎ̤Ȥ·¤ÆÍѤ¤¡¤µ¡³£³Ø½¬¤òÍѤ¤¤Æ°ÌÃÖÈó°Í¸¹ÔÆ°¤òǧ¼±¤¹¤ë¡¥ ¤Þ¤¿¡¤»ÈÍѤ¹¤ëÆÃħÎ̤οô¤òºï¸º¤¹¤ë¤¿¤á¤Ë¡¤Ëܸ¦µæ¤Ç¤ÏÆÃħÎ̤ÎÁªÄê¤ò¹Ô¤¦¡¥ÆÃħÎ̤Ȥ·¤ÆÍѤ¤¤ë¼þÇÈ¿ôÂӤȤ·¤Æstarting frequency (SF)¤Èending frequency (EF)¤òÄêµÁ¤·¡¤ ¹Ôưǧ¼±¤ËºÇŬ¤ÊSF¤ÈEF¤ògrid search¤Ë¤è¤Ã¤Æõº÷¤·¡¤Ç§¼±Î¨¤òɾ²Á¤¹¤ë¡¥ Äó°Æ¼êË¡¤ÎÍ­¸úÀ­¤òɾ²Á¤¹¤ë¤¿¤á¡¤¥¹¥Þ¡¼¥È¥Û¡¼¥àÀßÈ÷(1LDK)¤Ë¤Æ·×5̾¤ÎÈ︳¼Ô¤Ë¥½¥Õ¥¡¤ËÃåºÂ¤·¤¿¾õÂÖ¤Ç4¼ïÎà¤Î°Û¤Ê¤ë¹ÔÆ°¤ò¹Ô¤¦¼Â¸³¤ò¼Â»Ü¤·¤¿¡¥ ¤½¤Î·ë²Ì¡¤Ê¿¶ÑFÃͤ¬59.6 %¤Ç¥æ¡¼¥¶¤Î¹ÔÆ°¤òǧ¼±²Äǽ¤Ç¤¢¤ë¤³¤È¤ò³Îǧ¤·¤¿¡¥²Ã¤¨¤Æ¡¤EF¤¬1.4Hz¤Î¤È¤­Ê¿¶ÑFÃͤÏ63.9 %¤Ë¡¤SF¤¬9.9Hz°Ê¾å¤Î¤È¤­Ê¿¶ÑFÃͤ¬50 %¤ò²¼²ó¤ë¤³¤È¤ò³Îǧ¤·¤¿¡¥
 
Àî¾å¡¡Ï¡Ìé 1651035: M, 2²óÌÜȯɽ ¥í¥Ü¥Æ¥£¥¯¥¹ ¾®³Þ¸¶ »Ê, À¶Àî À¶, ¹â¾¾ ½ß, Ãú ÌÀ
title: Refinment of disparity map by using Semantic Segmentation
abstract: Recently, there has been a demand for a vision sensor for quickly obtaining three-dimensional position information in fields such as automatic driving.Especially, since stereo cameras can obtain both RGB and distance informattion , they are used in various robots. However, the accuracy of distance estimation in stereo cameras is not yet sufficient. In this research, I propose a method to combine semantic segmentation to solve this problem.
language of the presentation: Japanese
 
Ë­Åç¡¡·òÂÀ 1651079: M, 2²óÌÜȯɽ ¥í¥Ü¥Æ¥£¥¯¥¹ ¾®³Þ¸¶ »Ê, À¶Àî À¶, ¹â¾¾ ½ß, Ãú ÌÀ
title: Development of a touch-care robot that touches humans
abstract: Physical contact is a very important means of communication. "Touch care" accompanied by physical contact has the effect that leads to the healthy growth of infants and the extension of healthy life span. Long-term care for the elderly is expected to be carried out by the robot in the future. Touch care by a robot is an important factor in carrying out quality care. In this research, we propose a touch-care system with a robot arm and report on explanation and results of a preliminary experiment to stroke.
language of the presentation: Japanese
 
»³ùõ¡¡ÏË 1661019: D, Ãæ´Öȯɽ ¥í¥Ü¥Æ¥£¥¯¥¹ ¾®³Þ¸¶ »Ê, À¶Àî À¶, ¹â¾¾ ½ß, Ãú ÌÀ
title: Analysis of Deformable Object Manipulation Performed by a Human using Egocentric RGB-D Videos
abstract: The relationship between human hand activity and manipulated objects helps robots learn how to handle objects. Since the appearance of an object and the environment influence grasp and motion planning, we use an egocentric RGB-D camera to get images from the same point of view as a robot which has eyes on its head. This presentation shows a study on hand segmentation in egocentric RGB-D images. Hand segmentation using deep neural networks require a very large number of manually labeled training data to deal with person-specific hand appearance. We automatically generate hand labels from motion and depth information in a calibration gesture video using another network. Generated images of hand labels are then used for training an appearance network.
language of the presentation: Japanese
ȯɽÂêÌÜ: °ì¿Í¾Î»ëÅÀRGB-D±ÇÁü¤òÍѤ¤¤¿¿Í¤Î½ÀÆðʪÁàºî¤Î²òÀÏ
ȯɽ³µÍ×: ¿Í¤ÎÇÄ»ýµÚ¤Ó¼ê¤ÎÆ°ºî¤ÈÂоÝʪ¤Î´Ø·¸¤òÍý²ò¤¹¤ë¤³¤È¤Ï¥í¥Ü¥Ã¥È¤ÎÆ°ºîÀ¸À®¤ËÍ­ÍѤǤ¢¤ë¡¥°ì¿Í¾Î»ëÅÀ±ÇÁü¤òÍѤ¤¤ë¤³¤È¤Ë¤è¤ê¡¤¥í¥Ü¥Ã¥È¤Ç¤Î¼Â¹Ô»þ¤ÈƱ°ì»ëÅÀ¤«¤é¤ÎÁàºîʪÂΤξõÂÖ¤ÈÇÄ»ý²Õ½ê¡¤Æ°ºî¤Î´Ø·¸¤ò²òÀϤǤ­¤ë¡¥ËÜȯɽ¤Ç¤Ï¡¤°ì¿Í¾Î»ëÅÀRGB-D²èÁüÃ椫¤é¼êÎΰè¤ò¸¡½Ð¤¹¤ë¼êË¡¤Ë¤Ä¤¤¤Æ¸¡Æ¤¤¹¤ë¡¥¥Ç¥£¡¼¥×¥Ë¥å¡¼¥é¥ë¥Í¥Ã¥È¤Ç¸Ä¿Íº¹¤Ê¤É¤Î¿§¾ðÊó¤Î°ã¤¤¤ËÂбþ¤¹¤ë¤¿¤á¡¤ÂçÎ̤ËɬÍפǤ¢¤ë¼êÎΰè¥é¥Ù¥ë¤Î¤Ä¤¤¤¿³Ø½¬¥Ç¡¼¥¿¤ò¼«Æ°Åª¤ËÀ¸À®¤¹¤ë¡¥¥­¥ã¥ê¥Ö¥ì¡¼¥·¥ç¥ó¥¸¥§¥¹¥Á¥ã±ÇÁü¤ÎÆ°¤­¤È¿¼Å٤ξðÊó¤òÍѤ¤¤Æ¼êÎΰè¥é¥Ù¥ë¤òÀ¸À®¤¹¤ë¥Í¥Ã¥È¥ï¡¼¥¯¤òÁ°Ãʤ˹½À®¤·¡¤¸åÃʤΥͥåȥ¥¯¤Ç¿§¾ðÊ󤫤é¤Î¼êÎΰ踡½Ð¤ò³Ø½¬¤¹¤ë¡¥
 

²ñ¾ì: L2

»Ê²ñ: ¿ÊÆ£ ͵Ƿ
ADLIZAN BIN IBRAHIM 1651128: M, 2²óÌÜȯɽ ¥µ¥¤¥Ð¡¼¥ì¥¸¥ê¥¨¥ó¥¹¹½À®³Ø ÌçÎÓ Íº´ð ¡ù, ³Þ¸¶ Àµ¼£, ¾®ÎÓ Ï¿¿(µÒ°÷¡Ë, ²Ï¹ç ±É¼£(µÒ°÷¡Ë
title: DDoS Attack Mitigation Mechanism using Entropy-based Approach in sFlow for Software Defined Network (SDN) Environment
abstract: Although a lot of security researches regarding SDN have been done over the years, DDoS attack, which is one of the main challenges to traditional Internet, still posed a huge threat to this maturing architecture. At the moment, to mitigate DDoS attacks, most current SDN controllers are able to perform anomaly detection algorithm based on the flow recorded feature of OpenFlow, then further analyze on these collected data and detect whether DDoS attacks had happened or not. However, this may only work well in small network environments because in large-scale networks, these collection and statistic processes may in turn overload the SDN controller. Plus, if quick detection is needed, it means that we need to increase the number of collected data and this consequently will further aggravate the overhead. Thus, in this project, we are utilizing packet sampling technology (sFlow) to relieve the overhead, combining it with entropy detection mechanism to counter the tradeoff issue related with sampling rate and detection accuracy of packet sampling technology via adaptive threshold.
language of the presentation: English
 
¾¾°æ¡¡Âöϯ 1651098: M, 2²óÌÜȯɽ ¥¤¥ó¥¿¥é¥¯¥Æ¥£¥Ö¥á¥Ç¥£¥¢Àß·×³Ø ²ÃÆ£ Çî°ì, ¸þÀî ¹¯Çî, Christian Sandor, ÉðÉÙ µ®»Ë
title: Fence Removal Based on Curvelet Transform for Diminished Reality
abstract: Diminished reality is a technique for visually removing real objects from captured images. Pre-captured background based methods and image inpainting based methods have been proposed to generate diminished images. In contrast to the previous methods, we propose a method for achieving diminished reality using curvelet transform which is one of frequency conversion. Especially, we focus on automatic fence region removal from captured images. In our method, the fence region is removed by optimization based on sparsity of curvelet coefficient. As a preprocessing of the fence removal, the fence region is automatically detected using convolutional neural network (CNN). In this presentation, we will show detection results and removal results.
language of the presentation: Japanese
ȯɽÂêÌÜ: CurveletÊÑ´¹¤òÍѤ¤¤¿ÌÖ¾õʪÂΤνüµî¤Ë¤è¤ë±£¾Ã¸½¼Â´¶
ȯɽ³µÍ×: ±£¾Ã¸½¼Â´¶¤Ï¼èÆÀ¤·¤¿²èÁü¤«¤éÉÔÍפÊʪÂΤò»ë³ÐŪ¤Ë½üµî¤¹¤ëµ»½Ñ¤Ç¤¢¤ë¡¥¤³¤ì¤Þ¤Ç¤Ë¡¤½üµî¸å¤ÎÇطʤò»öÁ°¤Ë·×¬¤·¤Æ¤ª¤¯¼êË¡¤ä²èÁü½¤Éü¤Ë´ð¤Å¤¯¼êË¡¤¬Äó°Æ¤µ¤ì¤Æ¤¤¤ë¡¥Ëܸ¦µæ¤Ç¤Ï¡¤¥Õ¥§¥ó¥¹¤Î¤è¤¦¤ÊÌÖ¾õʪÂΤνüµî¤òÌÜŪ¤È¤·¡¤¤³¤ì¤é¤ÎʪÂΤò¼«Æ°¤Ç¸¡½Ð¡¤½üµî¤¹¤ë¤³¤È¤¬²Äǽ¤Ê¼êË¡¤òÄó°Æ¤¹¤ë¡¥Äó°Æ¼êË¡¤Ç¤Ï¡¤ÌÖ¾õʪÂΤμ̤ê¹þ¤ó¤À²èÁü¤ÈÌÖ¾õʪÂΤò¥Þ¥¹¥­¥ó¥°¤·¤¿²èÁü¤Î¥Ú¥¢¤òÍѤ¤¤ÆCNN¤ò·±Îý¤·,¤½¤ÎCNN¤òÍѤ¤¤ÆÌÖ¾õʪÂΤò¸¡½Ð¤¹¤ë.½üµî¤Ë¤Ä¤¤¤Æ¤Ï¼þÇÈ¿ôÊÑ´¹¤Î°ì¼ï¤Ç¤¢¤ëCurveletÊÑ´¹¤Î¥¹¥Ñ¡¼¥¹É½¸½¤òºÇŬ²½¤¹¤ë¤³¤È¤Ç¹Ô¤¦.ËÜȯɽ¤Ç¤Ï,CNN¤òÍѤ¤¤¿¸¡½Ð¤ÈCurveletÊÑ´¹¤òÍѤ¤¤¿ÌÖ¾õʪÂΤνüµî·ë²Ì¤ò¼¨¤¹.