{"title":"使用DataGlove基于自组织的手势识别","authors":"M. Ishikawa, H. Matsumura","doi":"10.1109/ICONIP.1999.845688","DOIUrl":null,"url":null,"abstract":"We have succeeded in recognizing 32 kinds of hand shapes based on self-organization by measuring the angles of 10 joints of a hand using a DataGlove. Recognition of hand gestures, however, is far more difficult, because it must recognize a sequence of hand shapes instead of its snapshot. An essential difficulty in gesture recognition is how to deal with a sequence of body postures or hand shapes. Since a hand shape is represented by a 10-dimensional (10D) vector measured by a DataGlove, a hand gesture is represented by a sequence of 10D vectors. Our proposal is to recognize a hand gesture by the following procedure. (1) Angles of finger joints are measured at some time interval by a DataGlove. (2) Each gesture is segmented from a sequence of hand shapes. (3) The data length, i.e. the number of snapshots in each gesture, is adjusted to obtain data of a fixed length. (4) An input vector for self-organization is obtained by connecting a sequence of 10D hand-shape vectors. (5) Clustering of hand gestures is carried out by self-organization according to their similarities. Since self-organization is not directly applicable to time series data, the fourth step is the key idea for recognition. We present a detailed description of the proposed recognition method. We then give an overview of hand-gesture data obtained by a DataGlove. Finally, the results of some recognition experiments are provided. This is followed by discussions and conclusions.","PeriodicalId":237855,"journal":{"name":"ICONIP'99. ANZIIS'99 & ANNES'99 & ACNN'99. 6th International Conference on Neural Information Processing. Proceedings (Cat. No.99EX378)","volume":"40 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"1999-11-16","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"44","resultStr":"{\"title\":\"Recognition of a hand-gesture based on self-organization using a DataGlove\",\"authors\":\"M. Ishikawa, H. Matsumura\",\"doi\":\"10.1109/ICONIP.1999.845688\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"We have succeeded in recognizing 32 kinds of hand shapes based on self-organization by measuring the angles of 10 joints of a hand using a DataGlove. Recognition of hand gestures, however, is far more difficult, because it must recognize a sequence of hand shapes instead of its snapshot. An essential difficulty in gesture recognition is how to deal with a sequence of body postures or hand shapes. Since a hand shape is represented by a 10-dimensional (10D) vector measured by a DataGlove, a hand gesture is represented by a sequence of 10D vectors. Our proposal is to recognize a hand gesture by the following procedure. (1) Angles of finger joints are measured at some time interval by a DataGlove. (2) Each gesture is segmented from a sequence of hand shapes. (3) The data length, i.e. the number of snapshots in each gesture, is adjusted to obtain data of a fixed length. (4) An input vector for self-organization is obtained by connecting a sequence of 10D hand-shape vectors. (5) Clustering of hand gestures is carried out by self-organization according to their similarities. Since self-organization is not directly applicable to time series data, the fourth step is the key idea for recognition. We present a detailed description of the proposed recognition method. We then give an overview of hand-gesture data obtained by a DataGlove. Finally, the results of some recognition experiments are provided. This is followed by discussions and conclusions.\",\"PeriodicalId\":237855,\"journal\":{\"name\":\"ICONIP'99. 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Recognition of a hand-gesture based on self-organization using a DataGlove
We have succeeded in recognizing 32 kinds of hand shapes based on self-organization by measuring the angles of 10 joints of a hand using a DataGlove. Recognition of hand gestures, however, is far more difficult, because it must recognize a sequence of hand shapes instead of its snapshot. An essential difficulty in gesture recognition is how to deal with a sequence of body postures or hand shapes. Since a hand shape is represented by a 10-dimensional (10D) vector measured by a DataGlove, a hand gesture is represented by a sequence of 10D vectors. Our proposal is to recognize a hand gesture by the following procedure. (1) Angles of finger joints are measured at some time interval by a DataGlove. (2) Each gesture is segmented from a sequence of hand shapes. (3) The data length, i.e. the number of snapshots in each gesture, is adjusted to obtain data of a fixed length. (4) An input vector for self-organization is obtained by connecting a sequence of 10D hand-shape vectors. (5) Clustering of hand gestures is carried out by self-organization according to their similarities. Since self-organization is not directly applicable to time series data, the fourth step is the key idea for recognition. We present a detailed description of the proposed recognition method. We then give an overview of hand-gesture data obtained by a DataGlove. Finally, the results of some recognition experiments are provided. This is followed by discussions and conclusions.