研究業績　　　　　　　　　　　　　　　　　　　　　　　　　（平成29年7月1日現在）
１．非言語情報 　　　1-1 歌声 　　　1-2 音声の個人性 　　　1-3 感情音声 　　　1-4 音声変形 　　　1-5 音声符号化        1-6 アナウンス音声 ２．音声回復 　　　2-1 雑音抑圧 　　　2-2 雑音中のF0推定 　　　2-3 残響抑圧 　　　2-4 骨導音声 　　　2-5 音声認識 　　　2-6 音源方向推定 ３．カクテルパーティ効果のモデル化 　　　3-1 音源分離 　　　3-2 プライバシー保護 　　　3-3 雑音中の音知覚 ４．聴覚心理 　　　4-1 聴覚モデル 　　　4-2 文脈効果 　　　4-3 聴覚フィルタ 　　　4-4 位相知覚 　　　4-5 母音知覚 　　　4-6 騒音評価 　　　4-7 ピッチ知覚 　　　4-8 方向知覚 ５．生理学的聴覚モデル ６．異常構音 　　　6-1 異常構音の知覚 　　　6-2 ３次元声道モデル ７．生成と知覚の相互作用 ８．信号分析 ９．書籍等 9-1 書籍等 9-2 その他 １０．（参考）その他 10-1 NTT, ATR 10-2 東京工業大学	論文のコピーをご希望の方は，JAISTリポジトリからダウンロードできます
１．非言語情報 [1] Akagi, M. (2010/11/29). “Rule-based voice conversion derived from expressive speech perception model: How do computers sing a song joyfully?” Tutorial, ISCSLP2010, Tainan, Taiwan. [2] Akagi, M. (2009/10/6). "Analysis of production and perception characteristics of non-linguistic information in speech and its application to inter-language communications," Proc. APSIPA2009, Sapporo, 513-519. [3] Akagi, M. (2009/08/14). “Multi-layer model for expressive speech perception and its application to expressive speech synthesis,” Plenary lecture, NCMMSC2009, Lanzhou, China. [4] Akagi, M. (2009/02/20). "Introduction of SCOPE project: Analysis of production and perception characteristics of non-linguistic information in speech and its application to inter-language communications," International symposium on biomech 1-1 歌声 ＜査読付論文・国際会議＞ [1] Motoda, H. and Akagi, M. (2013/03/5). “A singing voices synthesis system to characterize vocal registers using ARX-LF model,” Proc. NCSP2013, Hawaii, USA, 93-96. [2] Saitou, T., Goto, M., Unoki, M., and Akagi, M. (2009/08/15) “Speech-to-Singing Synthesis System: Vocal Conversion from Speaking Voices to Singing Voices by Controlling Acoustic Features Unique to Singing Voices,” NCMMSC2009, Lanzhou, China. [3] Nakamura, T., Kitamura, T. and Akagi, M. (2009/03/01). "A study on nonlinguistic feature in singing and speaking voices by brain activity measurement," Proc. NCSP'09, 217-220. [4] 齋藤，辻，鵜木，赤木(2008)．”歌声らしさの知覚モデルに基づいた歌声特有の音響特徴量の分析”，日本音響学会誌，64, 5, 267-277. [5] Saitou, T., Goto, M., Unoku, M., and Akagi, M. (2007). "Speech-to-singing synthesis: converting speaking voices to singing voices by controlling acoustic features unique to singing voices," Proc. WASPAA2007, New Paltz, NY, pp.215-218 [6] Saitou, T., Goto, M., Unoki, M., and Akagi, M. (2007). "Vocal conversion from speaking voice to singing voice using STRAIGHT," Proc. Interspeech2007, Singing Challenge. [7] Saitou, T., Unoki, M. and Akagi, M. (2005). "Development of an F0 control model based on F0 dynamic characteristics for singing-voice synthesis," Speech Communication 46, 405-417. [8] Saitou, T., Tsuji, N., Unoki, M. and Akagi, M. (2004). “Analysis of acoustic features affecting “singing-ness” and its application to singing-voice synthesis from speaking-voice,” Proc. ICSLP2004, Cheju, Korea. [9] Saitou, T., Unoki, M., and Akagi, M. (2004). “Control methods of acoustic parameters for singing-voice synthesis,” Proc. ICA2004, 501-504. [10] Saitou, T., Unoki, M., and Akagi, M. (2004). “Development of the F0 control method for singing-voices synthesis,” Proc. SP2004, Nara, 491-494. [11] Saitou, T., Unoki, M., and Akagi, M. (2002). "Extraction of F0 dynamic characteristics and development of F0 control model in singing voice," Proc. ICAD2002, Kyoto. [12] Unoki, M., Saitou, T., and Akagi, M. (2002). "Effect of F0 fluctuations and development of F0 control model in singing voice perception," NATO Advanced Study Institute 2002 Dynamics of Speech Production and Perception. [13] Akagi, M. and Kitakaze, H. (2000). "Perception of synthesized singing voices with fine fluctuations in their fundamental frequency contours," Proc. ICSLP2000, Beijing, III-458-461. ＜招待講演＞ [1] Akagi, M. (2007/12/6). "Conversion of speaking voice into singing voice," ICT Forum Hanoi, Invited talk (Hanoi, Vietnam). [2] Akagi, M. (2002). "Perception of fundamental frequency fluctuation," HEA-02-003-IP, Forum Acousticum Sevilla 2002 (Invited). ＜研究会・大会＞ [1] 元田，赤木 (2013/03/14). “ARX-LF に基づく声区表現を組み込んだ歌声合成システムの構築”，日本音響学会平成25年春季研究発表会，2-7-13. [2] Elbarougy, R., Tokuda, I., and Akagi, M. (2013/03/13). “Acoustic Analysis of Register Transition between Chest-to-Head Register in Singing Voice,” Proc. ASJ '2013 Spring Meeting, 1-Q-7c. [3] 元田，赤木 (2013/02/03). “声区表現可能な歌声合成を目的としたARX-LFパラメータの制御法の検討”，音響学会聴覚研究会資料，41, 7, H-2013-7. [4] 元田，赤木 (2012/10/13). “声区の違いによる声質の変化と声帯音源特性の関連性”，音響学会聴覚研究会資料，41, 7, H-2012-10. [5] 中村，北村，赤木 (2009/03/18). ”脳活動測定による歌声と話声に関する非言語特徴の検証”，日本音響学会21年度春季研究発表会，2-Q-12. [6] 齋藤，後藤，鵜木，赤木 (2009/03/06). ”SingBySpeaking：ユーザの話声を歌声に変換する歌声合成インタフェース”，インタラクション2009. [7] 中村，北村，赤木 (2008/10/17). ”fMRIを用いた歌声と話声における脳活動の差異の検討”，音響学会聴覚研究会資料、38, 6, H-2008-108. [8] 齋藤，後藤，鵜木，赤木(2008/3/17)．”SingBySpeaking：話声を歌声に変換する歌声合成システム”，日本音響学会平成20年春季研究発表会, 1-11-28. [9] 齋藤，後藤，鵜木，赤木(2008/2/8)．”SingBySpeaking：音声知覚に重要な音響特徴を制御して話声を歌声に変換するシステム”，情報処理学会研究報告，MUS-74 [10] Saitou, T., Unoki, M., and Akagi, M. (2006). "Analysis of acoustic features affecting singing-voice perception and its application to singing-voice synthesis from speaking-voice using STRAIGHT," J. Acoust. Soc. Am., 120, 5, Pt. 2, 3029. [11] 齋藤，鵜木，赤木(2005)．”自然性の高い歌声合成のためのヴィブラート変調周波数の制御法の検討”，電子情報通信学会技術報告、TL2005-10. [12] 齋藤，辻，鵜木，赤木(2004)．“歌声らしさに影響を与える音響的特徴量を考慮した話声からの歌声合成法”，電子情報通信学会技術報告、EA2004-30. [13] 辻，赤木(2004)．“歌声らしさの要因とそれに関連する音響特徴量の検討”，音響学会聴覚研究会資料、H-2004-8. [14] 齋藤，鵜木，赤木(2003)．“歌声のF0制御モデルにおけるパラメータ決定に関する考察”，音響学会聴覚研究会資料、H-2003-111 [15] 赤木，清水(2003)．“STRAIGHTを用いた話声からの歌声合成”，電子情報通信学会技術報告、SP2003-37. [16] 齋藤、鵜木、赤木(2001). ”歌声におけるF0動的変動成分の抽出とF0制御モデル”、音響学会聴覚研究会資料、H-2001-92 [17] 北風、赤木(2000)．”基本周波数の微細変動成分に対する知覚”、電子情報通信学会技術報告、SP99-168. [18] 皆川、赤木(1998)．”連続発話母音の基本周波数変動とその知覚”、電子情報通信学会技術報告、SP97-134. 1-2 音声の個人性 ＜査読付論文・国際会議＞ [1] Izumida, T. and Akagi, M. (2012/03/05). “Study on hearing impression of speaker identification focusing on dynamic features,” Proc. NCSP2012, Honolulu, HW, 401-404. [2] Shibata, T. and Akagi, M. (2008/3/6). "A study on voice conversion method for synthesizing stimuli to perform gender perception experiments of speech," Proc. NCSP08, 180-183. [3] Akagi, M., Iwaki, M. and Minakawa, T. (1998). “Fundamental frequency fluctuation in continuous vowel utterance and its perception,” ICSLP98, Sydney, Vol.4, 1519-1522. [4] Akagi, M. and Ienaga, T. (1997). "Speaker individuality in fundamental frequency contours and its control", J. Acoust. Soc. Jpn. (E), 18, 2 73-80. [5] 北村、赤木(1997)．”単母音の話者識別に寄与するスペクトル包絡成分”、日本音響学会誌、53, 3, 185-191. [6] Akagi, M. and Ienaga, T. (1995). "Speaker individualities in fundamental frequency contours and its control", Proc. EUROSPEECH95, 439-442. [7] Kitamura, T. and Akagi, M. (1995). "Speaker individualities in speech spectral envelopes", J. Acoust. Soc. Jpn. (E), 16, 5, 283-289. [8] Kitamura, T. and Akagi, M. (1994). "Speaker Individualities in speech spectral envelopes", Proc. Int. Conf. Spoken Lang. Process. 94, 1183-1186. ＜招待講演＞ [1] 赤木正人(1999)．”音声に含まれる個人性　−その分析と知覚−”、第38回日本ＭＥ学会大会招待講演、OS4-5. ＜研究会・大会＞ [1] 出水田，赤木 ((2012/03/13). “音声の動的成分に着目した個人性聴取印象の検討”，日本音響学会平成24年春季研究発表会，1-R-1. [2] 出水田，赤木 (2011/10/01). “聴取印象に着目した音声の個人性知覚に関する基礎研究”，音響学会聴覚研究会資料，41, 7, H-2011-98. [3] 出水田，赤木(2011/09/17). “音声の個人性に関連する表現語の検討”， 平成23電気関係学会北陸支部連合大会，G-7. [4] 柴田，赤木(2008/3/21). "連続発話音声中に含まれる男声•女声知覚に寄与する音響特徴量"，電子情報通信学会技術報告、SP2007-206. [5] 鈴木、赤木(1999)．”文音声中に含まれる個人性情報の知覚”、電子情報通信学会技術報告、SP98-159. [6] 北村、赤木、北澤(1998)．”スペクトル遷移パターンが個人性知覚に与える影響について”、音響学会聴覚研究会資料、H-98-97. [7] 大野、赤木(1998)．”文音声中の基本周波数パターンに含まれる個人性の検討”、電子情報通信学会技術報告、SP97-128. [8] 北村、赤木(1996)．”連続音声中の母音に含まれる個人性について”、音響学会聴覚研究会資料、H-96-98 [9] 北村、赤木(1996)．”話者識別に寄与するスペクトル包絡の成分について”、電子情報通信学会技術報告、SP95-144. [10] Kitamura, T. and Akagi, M. (1996). "Relationship between physical characteristics and speaker individualities in speech spectral envelopes", Proc ASA-ASJ Joint Meeting, 833-838. [11] 北村、赤木(1995)．”個人性情報を含む周波数帯域について”、電子情報通信学会技術報告、SP95-37 [12] 家永、赤木 (1995)．”音声のピッチ周波数の時間変化パターンに含まれる個人性とその制御”、電子情報通信学会技術報告、SP94-104 [13] 北村、赤木 (1994)．”音声のスペクトル包絡に含まれる個人性について”、電子情報通信学会技術報告、SP93-146 1-3 感情音声 ＜査読付論文・国際会議＞ [1] Asai, T., Suemitsu, A., and Akagi, M. (2017/03/02). “Articulatory Characteristics of Expressive Speech in Activation-Evaluation Space,” Proc. NCSP2017, Guam, USA, 313-316. [2] Xue, Y., Hamada, Y., and Akagi, M. (2016/12/15). “Voice Conversion to Emotional Speech based on Three-layered Model in Dimensional Approach and Parameterization of Dynamic Features in Prosody,” Proc. APSIPA2016, Cheju, Korea [3] Xue, Y., Hamada, Y., Elbarougy, R., and Akagi, M. (2016/10/27). “Voice conversion system to emotional speech in multiple languages based on three-layered model for dimensional space,” O-COCOSDA2016, Bali, Indonesia, 122-127. [4] Elbarougy, R. and Akagi, M. (2016/10/24). “Optimizing Fuzzy Inference Systems for Improving Speech Emotion Recognition,” The 2nd International Conference on Advanced Intelligent Systems and Informatics (AISI2016), Cairo, Egypt, 85-95. [5] Li, X. and Akagi, M. (2016/09/12). “Multilingual Speech Emotion Recognition System Based on a Three-Layer Model,” Proc. InterSpeech2016, San Francisco, 3608-3612. [6] Xue, Y. and Akagi, M. (2016/03/07). “A study on applying target prediction model to parameterize power envelope of emotional speech,” Proc. NCSP2016, Honolulu, HW, USA, 157-160. [7] Li, X. and Akagi, M. (2016/03/07). “Automatic Speech Emotion Recognition in Chinese Using a Three-layered Model in Dimensional Approach,” Proc. NCSP2016, Honolulu, HW, USA, 17-20. [8] Xue, Y., Hamada, Y., and Akagi, M. (2015/12/19). “Emotional speech synthesis system based on a three-layered model using a dimensional approach,” Proc. APSIPA2015, Hong Kong, 505-514. [9] Hamada, Y., Elbarougy, R., Xue, Y., and Akagi, M. (2015/12/9). “Study on method to control fundamental frequency contour related to a position on Valence-Activation space,” Proc. WESPAC2015, Singapore, 519-522. [10] Li, X. and Akagi, M. (2015/10/28). “Toward Improving Estimation Accuracy of Emotion Dimensions in Bilingual Scenario Based on Three-layered Model,” Proc. O-COCOSDA2015, Shanghai, 21-26. [11] Xiao Han, Reda Elbarougy, Masato Akagi,Junfeng Li, Thi Duyen Ngo, and The Duy Bui (2015/02/28). “A study on perception of emotional states in multiple languages on Valence-Activation approach,” Proc NCSP2015, Kuala Lumpur, Malaysia. [12] Yasuhiro Hamada, Reda Elbarougy and Masato Akagi (2014/12/12). “A Method for Emotional Speech Synthesis Based on the Position of Emotional State in Valence-Activation Space,” Proc. APSIPA2014, Siem Reap, Cambodia. [13] Masato AKAGI, Xiao HAN, Reda ELBAROUGY, Yasuhiro HAMADA, and Junfeng LI (2014/12/10). “Toward Affective Speech-to-Speech Translation: Strategy for Emotional Speech Recognition and Synthesis in Multiple Languages,” Proc. APSIPA2014, Siem Reap, Cambodia. [14] Elbarougy. R., Han.X., Akagi, M., and Li, J. (2014/09/10). “Toward relaying an affective speech-to-speech translator: Cross-language perception of emotional state represented by emotion dimensions,” Proc. O-COCOSDA2014, Phuket, Thailand, 48-53. [15] Akagi, M., Han, X., El-Barougy, R., Hamada, Y. and Li, J. (2014/08/27). “Emotional Speech Recognition and Synthesis in Multiple Languages toward Affective Speech-to-Speech Translation System,” Proc. IIHMSP2014, Kitakyushu, Japan, 574-577. [16] Akagi, M. and Elbarougy, R. (2014/07/16). “Toward Relaying Emotional State for Speech-To-Speech Translator: Estimation of Emotional State for Synthesizing Speech with Emotion,” Proc. ICSV2014. Beijing. [17] Li, Y. and Akagi, M. (2014/03/02). “Glottal source analysis of emotional speech,” Proc. NCSP2014, Hawaii, USA, 513-516. [18] Elbarougy, R. and Akagi, M. (2014/03/01). “Improving Speech Emotion Dimensions Estimation Using a Three-Layer Model for Human Perception,” Acoustical Science and Technology, 35, 2, 86-98. [19] Elbarougy, R. and Akagi, M. (2013/11/01). “Cross-lingual speech emotion recognition system based on a three-layer model for human perception,” Proc. APSIPA2013, Kaohsiung, Taiwan. [20] Elbarougy, R. and Akagi, M. (2012/12/04). “Speech Emotion Recognition System Based on a Dimensional Approach Using a Three-Layered Model,” Proc. APSIPA2012, Hollywood, USA. [21] Dang, J., Li, A., Erickson, D., Suemitsu, A., Akagi, M., Sakuraba, K., Mienmatasu, N., and Hirose, K. (2010/11/01). “Comparison of emotion perception among different cultures,” Acoust. Sci. & Tech. 31, 6, 394-402. [22] Zhou, Y., Li, J., Sun, Y., Zhang, J., Yan, Y., and Akagi, M. (2010/10). “A hybrid speech emotion recognition system based on spectral and prosodic features,” IEICE Trans. Info. & Sys., E93D (10): 2813-2821. [23] Hamada, Y., Kitamura, T., and Akagi, M. (2010/08/24). “A study on brain activities elicited by emotional voices with various F0 contours,” Proc. ICA2010, Sydney, Australia. [24] Hamada, Y., Kitamura, T., and Akagi, M. (2010/07/01). “A study of brain activities elicited by synthesized emotional voices controlled with prosodic features,” Journal of Signal Processing, 14, 4, 265-268. [25] Hamada, Y., Kitamura, T., and Akagi, M. (2010/03/04). "A study on brain activities elicited by synthesized emotional voices controlled with prosodic features," Proc. NCSP10, Hawaii, USA, 472-475. [26] Dang, J., Li, A., Erickson, D., Suemitsu, A., Akagi, M., Sakuraba, K., Minematsu, N., and Hirose, K. (2009/10/6). "Comparison of emotion perception among different cultures," Proc. APSIPA2009, Sapporo, 538-544. [27] Aoki, Y., Huang, C-F., and Akagi, M. (2009/03/01). "An emotional speech recognition system based on multi-layer emotional speech perception model," Proc. NCSP'09, 133-136. [28] Huang, C-F. and Akagi, M. (2008/10) "A three-layered model for expressive speech perception," Speech Communication 50, 810-828. [29] Huang, C. F., Erickson, D., and Akagi, M. (2008/07/01). "Comparison of Japanese expressive speech perception by Japanese and Taiwanese listeners," Acoustics2008, Paris, 2317-2322. [30] Huang, C. F. and Akagi, M. (2007). "A rule-based speech morphing for verifying an expressive speech perception model," Proc. Interspeech2007, 2661-2664. [31] Sawamura K., Dang J., Akagi M., Erickson D., Li, A., Sakuraba, K., Minematsu, N., and Hirose, K. (2007). "Common factors in emotion perception among different cultures," Proc. ICPhS2007, 2113-2116. [32] Huang, C. F. and Akagi, M. (2007). "The building and verification of a three-layered model for expressive speech perception," Proc. JCA2007, CD-ROM. [33] Huang, C. F. and Akagi, M. (2005). "A Multi-Layer fuzzy logical model for emotional speech Perception," Proc. EuroSpeech2005, Lisbon, Portugal, 417-420. [34] Ito, S., Dang, J., and Akagi, M. (2004). “Investigation of the acoustic features of emotional speech using physiological articulatory model,” Proc. ICA2004, 2225-2226. ＜本（章）＞ [1] Huang, C. F. and Akagi, M. (2005). "Toward a rule-based synthesis of emotional speech on linguistic description of perception," Affective Computing and Intelligent Interaction, Springer LNCS 3784, 366-373. ＜解説＞ [1] 赤木正人(2010/08/01). “音声に含まれる感情情報の認識　―感情空間をどのように表現するか―”，日本音響学会誌，66, 8, 393-398. [2] 赤木正人(2005)．”表現豊かな音声　―その生成・知覚と音声合成への応用―”，日本音響学会誌，61, 6, 346-351. ＜招待講演＞ [1] Akagi, M. (2016/12/13). “Toward Affective Speech-to-Speech Translation,” Keynote Speech, International Conference on Advances in Information and Communication Technology 2016, Thai Nguyen, Vietnam, DOI 10.1007/978-3-319-49073-1 3. [2] 赤木正人 (2015/05/23). “表現豊かな音声の認識・合成とAffective Speech-to-Speech Translationへの応用”，2015音学シンポジウム（電通大学），情報処理学会研究報告，2015-MUS-107, 6 （招待講演）. [3] 赤木正人 (2009/9/15). ”感情音声知覚モデルの提案とその応用”，日本音響学会平成21年秋季研究発表会（招待講演）, 1-3-5. ＜研究会・大会＞ [1] Li, Y., Sakakibara, K., Morikawa, D., and Akagi, M. (2017/03/17). “Commonalities and differences of glottal sources and vocal tract shapes among speakers in emotional speech,” Proc. ASJ '2017 Spring Meeting, 3-Q-28. [2] Xue, Y. and Akagi, M. (2017/03/17). “Acoustic features related to speaking styles in valence-arousal dimensional space,” Proc. ASJ '2017 Spring Meeting, 3-Q-25. [3] 浅井，末光，赤木 (2017/03/17). “EMAデータに基づいた演技感情音声発話時の調音運動制御の分析”，日本音響学会平成29年度春季研究発表会, 3-Q-18. [4] Li, X. and Akagi, M. (2017/03/15). “Acoustic feature selection for improving estimation of emotions using a three layer model,” Proc. ASJ '2017 Spring Meeting, 1-Q-14. [5] Li, Y., Morikawa, D., and Akagi, M. (2016/11/28). “A method to estimate glottal source waves and vocal tract shapes for widely pronounced types using ARX-LF model,” 2016 ASA-ASJ Joint meeting, Honolulu, Hawaii, JASA 140, 2963. doi: http://dx.doi.org/10.1121/1.4969159 [6] Xue, Y., Hamada, Y., and Akagi, M. (2016/11/28). “Emotional voice conversion system for multiple languages based on three-layered model in dimensional space,” 2016 ASA-ASJ Joint meeting, Honolulu, Hawaii, JASA 140, 2960. doi: http://dx.doi.org/10.1121/1.4969141 [7] Li, Y., Morikawa, D., and Akagi, M. (2016/09/15). “Estimation of glottal source waves and vocal tract shapes of emotional speech using ARX-LF model,” Proc. ASJ '2016 Fall Meeting, 2-Q-36. [8] Xue, Y. and Akagi, M. (2016/09/15). “Application of emotional voice conversion system based on three-layer model for dimensional space to multiple languages,” Proc. ASJ '2016 Fall Meeting, 2-Q-33. [9] Xue, Y. and Akagi, M. (2015/10/23). “Rule-based emotional voice conversion utilizing three-layered model for dimensional approach,” Proc. Auditory Res. Meeting, The Acoustical Society of Japan, Taiwan, H-2015-103. [10] Li, X. and Akagi, M. 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(2016/12/12). “Quality Improvement of Vietnamese HMM-Based Speech Synthesis System Based on Decomposition of Naturalness and Intelligibility Using Non-negative Matrix Factorization,” International Conference on Advances in Information and Communication Technology 2016, Thai Nguyen, Vietnam, 490-499, DOI 10.1007/978-3-319-49073-1 53. [ 2] Dinh, A. T. and Akagi, M. (2016/10/26). “Quality Improvement of HMM-based Synthesized Speech Based on Decomposition of Naturalness and Intelligibility using Non-Negative Matrix Factorization,” O-COCOSDA2016, Bali, Indonesia, 62-67. [3] Dinh, T. A, Morikawa, D., and Akagi, M. (2016/07/01), “Study on quality improvement of HMM-based synthesized voices using asymmetric bilinear model,” Journal of Signal Processing, 20, 4, 205-208. [4] Dinh, T. A, Morikawa, D., and Akagi, M. (2016/03/07), “A study on quality improvement of HMM-based synthesized voices using asymmetric bilinear model,” Proc. NCSP2016, Honolulu, HW, USA, 13-16. 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(2014/03/02). “Speech recognition in noisy conditions based on speech separation using Non-negative Matrix Factorization,” Proc. NCSP2014, Hawaii, USA, 429-432. [2] Haniu, A., Unoki, M., and Akagi, M. (2009/9/21). "A psychoacoustically-motivated conceptual model for automatic speech recognition," Proc. WESPAC2009, Beijing, CD-ROM. [3] Lu, X., Unoki, M., and Akagi, M. (2008/11/1). "Comparative evaluation of modulation-transfer-function-based blind restoration of sub-band power envelopes of speech as a front-end processor for automatic speech recognition systems," Acoustical Science and Technology, 29, 6, 351-361. [4] Lu, X., Unoki, M., and Akagi, M. (2008/07/01). "An MTF-based blind restoration for temporal power envelopes as a front-end processor for automatic speech recognition systems in reverberant environments," Acoustics2008, Paris, 1419-1424. [5] Haniu, A., Unoki, M., and Akagi, M. (2008/3/6). 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Frontiers in Speech and Hearing Research, 73-78 [6] 羽二生，鵜木，赤木(2004)．“雑音環境下における音源分離を認識規範とした音声認識法の提案”，電子情報通信学会技術報告、SP2004-31. 2-6 音源方向推定 ＜査読付論文・国際会議＞ [1] Chau, D. T., Li, J., and Akagi, M. (2014/10/01). “Binaural sound source localization in noisy reverberant environments based on Equalization-Cancellation Theory,” IEICE Trans. Fund., E97-A, 10, 2011-2020. [2] Chau, D. T., Li, J., and Akagi, M. (2013/07/08). “Improve equalization-cancellation-based sound localization in noisy reverberant environments using direct-to-reverberant energy ratio,” Proc. ChinaSIP2013, Beijing, 322-326. [3] Chau, D. T., Li, J., and Akagi, M. (2011/07/01). “Towards intelligent binaural speech enhancement by meaningful sound extraction,” Journal of Signal Processing, 15, 4, 291-294. [4] Chau, D. T., Li, J., and Akagi, M. (2011/03/03). “Towards an intelligent binaural speech enhancement system by integrating meaningful signal extraction,”Proc. NCSP2011, Tianjin, China, 344-347. [5] Chau, D. T., Li, J., and Akagi, M. (2010/09/30). "A DOA estimation algorithm based on equalization-cancellation theory," Proc. INTERSPEECH2010, Makuhari, 2770-2773. ＜研究会・大会＞ [1] Chau, D. T., Li, J., and Akagi, M. (2014/03/28). “Binaural sound source localization in noisy reverberant environments based on Equalization-Cancellation Theory,” IEICE Tech. Report, EA2013-123. [2] Chau, D. T., Li, J., and Akagi, M. (2013/05/16). “Adaptive equalization-cancellation model and its application to sound localization in noisy reverberant environments,” IEICE Tech. Report, EA2013-24, SP-2013-24. [3] Chau, T. D., Li, J. and Akagi, M. (2013/03/13). “Binaural multiple-source localization in noisy reverberant environments based on Equalization-Cancellation model,” Proc. ASJ '2013 Spring Meeting, 1-P-44. [4] Chau, D. T., Li, J., and Akagi, M. (2010/06/11). “A DOA estimation algorithm based on equalization-cancellation theory,” IEICE Tech. Report, EA2010-28. [5] 小林、西田、赤木(2001)．”雑音と反射音に対してロバストな話者方向推定法”、平成13年春季音響学会講演論文、2-7-9. ３．カクテルパーティ効果のモデル化 3-1 音源分離 ＜査読付論文・国際会議＞ [1] Unoki, M., Kubo, M., Haniu, A., and Akagi, M. (2006). "A Model-Concept of the Selective Sound Segregation: — A Prototype Model for Selective Segregation of Target Instrument Sound from the Mixed Sound of Various Instruments —," Journal of Signal Processing, 10, 6, 419-431. [2] Unoki, M., Kubo, M., Haniu, A., and Akagi, M. (2005). "A model for selective segregation of a target instrument sound from the mixed sound of various instruments," Proc. EuroSpeech2005, Lisbon, Portugal, 2097-2100. [3] Unoki, M., Kubo, M., and Akagi, M. (2003). “A model for selective segregation of a target instrument sound from the mixed sound of various instruments,” Proc. ICMC2003, Singapore, 295-298. [4] Akagi, M., Mizumachi, M.,Ishimoto, Y., and Unoki, M. (2000). "Speech enhancement and segregation based on human auditory mechanisms", Proc. IS2000, Aizu, 246-253. [5] 鵜木、赤木(1999)．”聴覚の情景解析に基づいた雑音下の調波複合音の一抽出法”、電子情報通信学会論文誌、J82-A, 10, 1497-1507. [6] Unoki, M. and Akagi, M. (1999). "Segregation of vowel in background noise using the model of segregating two acoustic sources based on auditory scene analysis", Proc. EUROSPEECH99, 2575-2578. [7] Unoki, M. and Akagi, M. (1999). "Segregation of vowel in background noise using the model of segregating two acoustic sources based on auditory scene analysis", Proc. CASA99, IJCAI-99, Stockholm, 51-60. [8] Akagi, M., Iwaki, M. and Sakaguchi, N. (1998). “Spectral sequence compensation based on continuity of spectral sequence,” Proc. ICSLP98, Sydney, Vol.4, 1407-1410. [9] Unoki, M. and Akagi, M. (1998). “Signal extraction from noisy signal based on auditory scene analysis,” ICSLP98, Sydney, Vol.5, 2115-2118. [10] Unoki, M. and Akagi, M. (1998). “A method of signal extraction from noisy signal based on auditory scene analysis,” Speech Communication, 27, 3-4, 261-279. [11] Unoki, M. and Akagi, M. (1997). "A method of signal extraction from noisy signal", Proc. EUROSPEECH97, 2587-2590. [12] Unoki, M. and Akagi, M. (1997). "A method of signal extraction from noisy signal based on auditory scene analysis", Proc. CASA97, IJCAI-97, Nagoya, 93-102. [13] Unoki, M. and Akagi, M. (1997). “A method for signal extraction from noise-added signals”, Electronics and Communications in Japan, Part 3, 80, 11, 1-11. [14] 鵜木、赤木(1997)．”雑音が付加された波形からの信号波形の一抽出法”、電子情報通信学会論文誌、J80-A, 3, 444-453. ＜本（章）＞ [1] Akagi, M., Mizumachi, M., Ishimoto, Y., and Unoki, M. (2002). "Speech enhancement and segregation based on human auditory mechanisms", in Enabling Society with Information Technology, Q. Jin, J. Li, N. Zhang, J. Cheng, C. Yu, and S. Noguchi (Eds.), Springer Tokyo, 186-196 ＜解説・招待講演＞ [1] 赤木正人(2002)．”人間の聴覚特性を考慮した音声分離・強調”，電子情報通信学会技術報告（ビギナーズセミナー招待講演），SP2002-55 [2] 赤木正人(1995)．”カクテルパーティ効果とそのモデル化”、電子情報通信学会誌解説, 78, 5, 450-453. ＜研究会・大会＞ [1] 窪，鵜木，赤木(2002)．“楽器音の音響的特徴を知識として利用した選択的分離抽出法”，音響学会聴覚研究会資料、H-2002-90 [2] 鵜木、赤木(1999)．”聴覚の情景解析に基づいた二波形分離モデルの提案”、電子情報通信学会技術報告、SP98-158. [3] 鵜木、赤木(1998)．“共変調マスキング解除の計算モデルの提案”、音響学会聴覚研究会資料、H-98-51 [4] Unoki, M. and Akagi, M. (1998). “A method of signal extraction from noisy signal based on auditory scene analysis,” JAIST Tech. Report, IS-RR-98-0005P. [5] 鵜木、赤木(1998)．”基本周波数の時間変動を考慮した調波複合音の抽出法”、電子情報通信学会技術報告、SP97-129. [6] 坂口、赤木(1998)．”スペクトルピーク追跡モデルを用いたスペクトル予測・追跡”、平成10年春季音響学会講演論文、1-8-14. [7] 鵜木、赤木(1997)．”帯域雑音中のAM調波複合音の一抽出法”、電子情報通信学会技術報告、SP96-123. [8] 鵜木祐史、赤木正人(1996)．”共変調マスキング解除の計算モデルに関する一考察”、電子情報通信学会技術報告、SP96-37. [9] 鵜木、赤木(1995)．”雑音が付加された波形からの信号波形の抽出法”、音響学会聴覚研究会資料、H-95-79 [10] 井川、赤木 (1994)．”位相の変化に着目した２波形分離法”、平成６年春季音響学会講演論文、3-4-15 3-2 プライバシー保護 ＜査読付論文・国際会議＞ [1] 赤木正人，入江佳洋 (2014/04/01). “音情景解析の概念にもとづいた音声プライバシー保護”，電子情報通信学会論文誌 A, J97-A, 4, 247-255. [2] Akagi, M. and Irie, Y. (2012/08/22). “Privacy protection for speech based on concepts of auditory scene analysis,” Proc. INTERNOISE2012, New York, 485. [3] Tezuka, T. and Akagi, M. (2008/3/6). "Influence of spectrum envelope on phoneme perception," Proc. NCSP08, 176-179. [4] Minowa A., Unoki M., and Akagi M. (2007). "A study on physical conditions for auditory segregation/integration of speech signals based on auditory scene analysis," Proc. NCSP2007, 313-316. ＜招待講演＞ [1] 赤木，入江 (2012/03/14). “カクテルパーティ効果とスピーチプライバシー保護”，日本音響学会平成24年春季研究発表会，2-2-3（招待講演）. [2] 赤木，入江 (2011/12/09). “音情景理解を応用した音声プライバシー保護”， 電子情報通信学会技術報告，EMM2011-59. （招待講演） ＜研究会・大会＞ [1] 太長根，赤木，入江(2005)．“音源の知覚的融合にもとづいた会話のプライバシー保護の検討”，平成17年春季音響学会講演論文、1-2-3. 3-3 雑音中の音知覚 ＜査読付論文・国際会議＞ [1] Yano, Y., Miyauchi, R., Unoki, M., and Akagi, M. (2012/03/06). “Study on detectability of signals by utilizing differences in their amplitude modulation,” Proc. NCSP2012, Honolulu, HW, 611-614. [2] Yano, Y., Miyauchi, R., Unoki, M., and Akagi, M. (2011/03/02). “Study on detectability of target signal by utilizing differences between movements in temporal envelopes of target and background signals,” Proc. NCSP2011, Tianjin, China, 231-234. [3] Mizukawa, S. and Akagi, M. (2011/03/02). “A binaural model accounting for spatial masking release,” Proc. NCSP2011, Tianjin, China, 179-182. [4] Naoki Kuroda, Junfeng Li, Yukio Iwaya, Masashi Unoki, and Masato Akagi, “Effects of spatial cues on detectability of alarm signals in noisy environments,” Proc. IWPASH2009, P7. Zaou, Japan, Nov. 2009 (CDROM). [5] Kuroda, N., Li, J., Iwaya, Y., Unoki, M., and Akagi, M. (2009/03/01). "Effects from Spatial Cues on Detectability of Alarm Signals in Car Environments," Proc. NCSP'09, 45-48. [6] Kusaba, M., Unoki, M., and Akagi, M. (2008/3/6). "A study on detectability of target signal in background noise by utilizing similarity of temporal envelopes in auditory search," Proc. NCSP08, 13-16. [7] Uchiyama, H., Unoku, M., and Akagi, M. (2007). "Improvement in detectability of alarm signals in noisy environments by utilizing spatial cues," Proc. WASPAA2007, New Paltz, NY, pp.74-77. [8] Uchiyama H., Unoki M., and Akagi M. (2007). "A study on perception of alarm signal in car environments," Proc. NCSP2007, 389-392. [9] Nakanishi, J., Unoki, M., and Akagi, M. (2006). "Effect of ITD and component frequencies on perception of alarm signals in noisy environments," Journal of Signal Processing, 10, 4, 231-234. [10] Nakanishi, J., Unoki, M., and Akagi, M. (2006). "Effect of ITD and component frequencies on perception of alarm signals in noisy environments," Proc. NCSP2006, 37-40. ＜本（章）＞ [1] Kuroda, N., Li, J., Iwaya, Y., Unoki, M., and Akagi, M. (2011). “Effects of spatial cues on detectability of alarm signals in noisy environments,” In Principles and applications of spatial hearing (Eds. Suzuki, Y., Brungart, D., Iwaya, Y., Iida, K., Cabrera, D., and Kato, H.), World Scientific, 484-493. ＜研究会・大会＞ [1] 矢野，宮内，鵜木，赤木 (2012/03/14). “音信号の振幅変調成分の違いが音の聴き取りやすさに与える影響”，日本音響学会平成24年春季研究発表会，2-8-8. [2] 矢野，宮内，鵜木，赤木 (2012/02/04). “振幅変調成分の動きの知覚と検出に関する研究”，音響学会聴覚研究会資料，42, 1, H-2012-11. [3] 矢野，宮内，鵜木，赤木(2011/09/17). “目的音と背景音の振幅包絡の動きの違いが目的音の検知されやすさに与える影響”，平成23電気関係学会北陸支部連合大会，G-5. [4] 水川，赤木(2011/03/). “方向性マスキング解除を説明する両耳聴モデルの提案”，日本音響学会平成23年春季研究発表会，3-P-56. [5] 矢野，宮内，鵜木，赤木．(2011/03/11). “背景音に対する目的音の振幅包絡の動きの違いが目的音検知に与える影響”，日本音響学会平成23年春季研究発表会，3-P-18. [6] 黒田，李，岩谷，鵜木，赤木 (2009/03/06). ”方向性の手掛かりが雑音環境下での報知音の検知能力に及ぼす影響”，電子情報通信学会技術報告、SP2008-149. [7] 内山，鵜木，赤木(2007)．”方向性の手がかりを利用した雑音環境下での報知音の知覚能力の向上”，電子情報通信学会技術報告、SP2007-27. ４．聴覚心理 ＜招待講演＞ [1] 赤木正人 (2011/10/02). “聴覚と音研究”，音響学会聴覚研究会資料，41, 7, H-2011-104.（招待講演） 4-1 聴覚モデル ＜査読付論文・国際会議＞ [1] Unoki, M. and Akagi, M. (2001). "A computational model of co-modulation masking release," in Computational Models of Auditory Function, (Eds. Greenberg, S. and Slaney, M.), NATO ASI Series, IOS Press, Amsterdam, 221-232. ＜招待講演＞ [1] 赤木正人 (1993)．”音声の知覚と聴覚モデル”、電子情報通信学会技術報告（ビギナーズセミナー招待講演）、SP93-47 ＜研究会・大会＞ [1] Unoki, M. and Akagi, M. (1998). “A computational model of co-modulation masking release,” Computational Hearing, Italy, 129-134. [2] Unoki, M. and Akagi, M. (1998). “A computational model of co-modulation masking release,” JAIST Tech. Report, IS-RR-98-0006P. 4-2 文脈効果 ＜査読付論文・国際会議＞ [1] 米沢、赤木(1997)．”文脈効果のモデル化とそれを用いたワードスポッティング”、電子情報通信学会論文誌、J80-D-II, 1, 36-43. [2] Yonezawa, Y. and Akagi, M. (1996). "Modeling of contextual effects and its application to word spotting", Proc. Int. Conf. Spoken Lang. Process. 96, 2063-2066. [3] Akagi, M., van Wieringen, A. and Pols, L. C. W. (1994). "Perception of central vowel with pre- and post-anchors", Proc. Int. Conf. Spoken Lang. Process. 94, 503-506. ＜本（章）＞ [1] Akagi, M. (1992). "Psychoacoustic evidence for contextual effect models", Speech Perception, Production and Linguistic Structure, IOS Press, Amsterdam, 63-78 ＜研究会・大会＞ [1] 米沢、赤木(1997)．”発話速度を考慮した文脈効果のモデル化”、電子情報通信学会技術報告、SP97-33. [2] 萩原、米沢、赤木(1996)．”文脈効果の大きさと音韻性の関係について”、電子情報通信学会技術報告、SP95-139. [3] 米沢、赤木(1995)．”文脈効果モデルを用いたワードスポッティング”、電子情報通信学会技術報告、SP95-108. [4] 米沢、赤木 (1995)．”最小分類誤り学習による文脈効果モデルの定式化”、電子情報通信学会技術報告、SP94-114 [5] 中川、赤木 (1994)．”母音知覚における文脈効果の測定とそのモデリング”、電子情報通信学会技術報告、SP93-151 4-3 聴覚フィルタ ＜解説・招待講演＞ [1] 赤木他(2001)．”特集−音響学における20世紀の成果と21世紀に残された課題−　聴覚分野”、日本音響学会誌、57, 1, 5-10. [2] 赤木正人(1998)．”聴覚特性を考慮した波形分析”、日本音響学会誌, 54, 8, 575-581. [3] 赤木正人(1995)．”Ｑ＆Ａコーナー、mel尺度、Bark尺度とERB尺度の違い”、日本音響学会誌、51, 9, 738-739. [4] 赤木正人 (1994)．”聴覚フィルタとそのモデル”、電子情報通信学会誌解説, 77, 9, 948-956 [5] 赤木正人 (1993)．”音声の知覚と聴覚モデル”、電子情報通信学会技術報告（ビギナーズセミナー），SP93-47 4-4 位相知覚 ＜招待講演＞ [1] 赤木正人(1997)．”位相と知覚　−人間ははたして位相聾か？−”、平成９年秋季音響学会招待講演論文、1-2-2. ＜研究会・大会＞ [1] Akagi, M., and Nishizawa, M. (2001). "Detectability of phase change and its computational modeling," J. Acoust. Soc. Am., 110, 5, Pt. 2, 2680. [2] 西澤、赤木(2000)．”位相の違いに対する音色知覚機構について”、音響学会聴覚研究会資料、H-2000-40. [3] 赤木、安武(1998)．“時間方向情報の知覚の検討　−位相変化の音色知覚に及ぼす影響について−”、電子情報通信学会技術報告、EA98-19. 4-5 音声知覚 ＜査読付論文・国際会議＞ [1] Kubo, R., Akagi, M., and Akahane-Yamada, R. (2015/9/1). “Dependence on age of interference with phoneme perception by first- and second-language speech maskers,” Acoustical Science and Technology, 36, 5, 397-407. [2] Kubo, R., Akagi, M., and Akahane-Yamada, R. (2014/05/09). “Perception of second language phoneme masked by first- or second-language speech in 20 – 60 years old listeners,” 167th ASA, Providence, RI [3] Kubo, R. and Akagi, M. (2013/06/04). “Exploring auditory aging can exclusively explain Japanese adults′ age-related decrease in training effects of American English /r/-/l/,” Proc. ICA2013, 2aSC34, Montreal. ＜研究会・大会＞ [1] 久保，赤木(2015/05/23). “米語/r/-/l/知覚で生じる母語干渉における成人の年代変化”，2015音学シンポジウム（電通大学），情報処理学会研究報告，2015-MUS-107, 41. [2] 久保理恵子，赤木正人，山田玲子 (2014/09/05). “第二言語音韻知覚時におけるマスキング音の影響 -異なる言語のバブルノイズをマスキング音とした場合の比較-”，日本音響学会平成26年度秋季研究発表会, 3-Q-43. [3] 久保，赤木，山田. (2014/03/11). “音声マスキングを用いた第二言語音韻知覚の年齢効果の検討”，日本音響学会平成26年春季研究発表会，2-P5-26. [4] 久保，赤木(2014/02/08).“競合音声マスキングを用いた第二言語音韻知覚における年齢効果の検討”，音響学会聴覚研究会資料，44, 1, H-2014-5. [5] 久保，赤木 (2013/06/14). “/r/-/l/訓練における年齢効果：聴覚機能劣化の影響の有無”，音響学会聴覚研究会資料，43, 4, H-2013-61 [6] 久保，赤木 (2013/03/13). “聴覚機能低下が/r/-/l/音韻訓練へ与える影響”，日本音響学会平成25年春季研究発表会，1-8-6. [7] 久保，山田，山田，赤木 (2011/10/01). “中高齢者の日本語話者に対する米語音韻対/r/-/l/聴取訓練”，音響学会聴覚研究会資料，41, 7, H-2011-95. [8] 田高、赤木(2002)．”3連続母音の中心母音知覚に寄与するわたり部の時間構造”、電子情報通信学会技術報告、SP2001-143. 4-6 騒音評価 ＜査読付論文・国際会議＞ [1] Akagi, M., Kakehi, M., Kawaguchi, M., Nishinuma, M., and Ishigami, A. (2001). "Noisiness estimation of machine working noise using human auditory model", Proc. Internoise2001, 2451-2454. [2] Mizumachi, M. and Akagi, M. (2000). "The auditory-oriented spectral distortion for evaluating speech signals distorted by additive noises," J. Acoust. Soc. Jpn. (E), 21, 5 251-258. [3] Mizumachi, M. and Akagi, M. (1999). "An objective distortion estimator for hearing aids and its application to noise reduction," Proc. EUROSPEECH99, 2619-2622. ＜研究会・大会＞ [1] 筧、赤木、川口、西村(2001)．”聴覚末梢系処理モデルを用いた非定常機械騒音の評価”、平成13年春季音響学会講演論文、1-5-3. [2] 水町、赤木(2000)．”加法性雑音に対する客観的歪み音声評価尺度”、音響学会聴覚研究会資料、H-2000-4. 4-7 ピッチ知覚 ＜査読付論文・国際会議＞ [1] Ishida, M. and Akagi, M. (2010/03/04). "Pitch perception of complex sounds with varied fundamental frequency and spectral tilt," Proc. NCSP10, Hawaii, USA, 480-483. ＜研究会・大会＞ [1] 石田舞，赤木正人 (2010/3/8).“音色的高さに影響を及ぼす物理量の検討”，日本音響学会平成22年春季研究発表会, 1-R-21. 4-8 方向知覚 ＜査読付論文・国際会議＞ [1] Akagi, M. and Hisatsune, H. (2013/10/17). “Admissible range for individualization of head-related transfer function in median plane,” Proc. IIHMSP2013, Beijing. [2] Hisatsune, H. and Akagi, M. (2013/03/6). “A Study on individualization of Head-Related Transfer Function in the median plane,” Proc. NCSP2013, Hawaii, USA, 161-164. ５．生理学的聴覚モデル ＜査読付論文・国際会議＞ [1] 牧，赤木，廣田 (2009/5/1)．“聴覚末梢系の機能モデルの提案－聴神経の位相固定性及びスパイク生成機構のモデル化－”，日本音響学会論文誌，65, 5, 239-250. （日本音響学会佐藤論文賞） [2] 牧，赤木，廣田(2004)．“下丘細胞の時間応答特性に関する計算モデルの提案”，日本音響学会誌，60, 6, 304-313. [3] 牧，赤木，廣田(2004)．“蝸牛神経核背側核細胞の周波数応答特性に関する神経回路モデルの提案―トーンバースト刺激に対する応答―”，日本音響学会誌，60, 1, 3-11. （日本音響学会佐藤論文賞） [4] Ito, K. and Akagi, M. (2003). “Study on improving regularity of neural phase locking in single neuron of AVCN via computational model,” Proc. ISH2003, 77-83. [5] Maki, K. and Akagi, M. (2003). “A computational model of cochlear nucleus neurons,” Proc. ISH2003, 70-76. [6] 牧，伊藤，赤木(2003)．“初期聴覚系における神経発火の時間－周波数応答パターン”，日本音響学会誌、59, 1, 52-58. [7] 牧，赤木，廣田(2003)．”蝸牛神経核腹側核細胞モデルの振幅変調音に対する応答特性”、日本音響学会誌、59, 1, 13-22. [8] Ito, K. and Akagi, M. (2001). “A computational model of auditory sound localization,” in Computational Models of Auditory Function (Eds. Greenberg, S. and Slaney, M.), NATO ASI Series, IOS Press, Amsterdam, 97-111. [9] Ito, K. and Akagi, M. (2000). "A computational model of binaural coincidence detection using impulses based on synchronization index." Proc, ISA2000 (BIS2000), Wollongong, Australia. [10] 牧、赤木、廣田(2000)．”蝸牛神経核細胞の機能モデルの提案　−前腹側核細胞の応答特性−”、日本音響学会論文誌、56, 7, 457-466. [11] Ito, K. and Akagi, M. (2000). "A study on temporal information based on the synchronization index using a computational model," Proc. WESTPRAC7, 263-266. [12] Maki, K., Akagi, M. and Hirota, K. (1999). "Effect of the basilar membrane nonlinearities on rate-place representation of vowel in the cochlear nucleus: A modeling approach," Abstracts of Symposium on Recent Developments in Auditory Mechanics, Sendai, Japan, 29P06, 166-167. [13] Ito, K. and Akagi, M. (1999). "A computational model of auditory sound localization based on ITD," Abstracts of Symposium on Recent Developments in Auditory Mechanics, Sendai, Japan, 29P01, 156-157. [14] Maki, K. and Akagi, M. (1997). "A functional model of the auditory peripheral system", Proc. ASVA97, Tokyo, 703-710. ＜本（章）＞ [1] Ito, K. and Akagi, M. (2005). "Study on improving regularity of neural phase locking in single neurons of AVCN via a computational model," In Auditory Signal Processing, Springer, 91-99. [2] Maki, K. and Akagi, M. (2005). "A computational model of cochlear nucleus neurons," In Auditory Signal Processing, Springer, 84-90. [3] Ito, K. and Akagi, M. (2001). “A computational model of auditory sound localization,” in Computational Models of Auditory Function (Eds. Greenberg, S. and Slaney, M.), NATO ASI Series, IOS Press, Amsterdam, 97-111. [4] Maki, K., Akagi, M. and Hirota, K. (2000). "Effect of the basilar membrane nonlinearities on rate-place representation of vowel in the cochlear nucleus: A modeling approach," In Recent Developments in Auditory Mechanics, World Scientific Publishing, 490-496. [5] Ito, K. and Akagi, M. (2000). "A computational model of auditory sound localization based on ITD," In Recent Developments in Auditory Mechanics, World Scientific Publishing, 483-489. ＜研究会・大会＞ [1] 伊藤，赤木(2004)．“頭内定位実験による聴覚系の位相情報伝達に関する検討”，音響学会聴覚研究会資料、H-2004-1. [2] 伊藤、赤木(2002)．” 神経細胞における時間情報伝達の仕組みに関する一考察：SBCの位相同期特性とentrainment特性について”、音響学会聴覚研究会資料、H-2002-02. [3] 伊藤、赤木(2001)．”位相同期特性に基づく多重入力と時間差検出に関する一考察”、音響学会聴覚研究会資料、H-2001-5. [4] 牧、赤木、廣田(2000)．”聴覚モデルに基づいた蝸牛神経核背側核における時間および平均発火応答特性に関する検討”、音響学会聴覚研究会資料、H-2000-2. [5] 牧、赤木、廣田(1999)．”下丘細胞の多様な時間応答特性に関する計算モデルの提案”、音響学会聴覚研究会資料、H-99-98. [6] 牧、赤木、廣田(1998)．“前腹側蝸牛神経核細胞の機能モデルの提案”、音響学会聴覚研究会資料、H-98-104 [7] 牧、赤木、廣田(1998)．“モデルに基づいた前腹側蝸牛神経核における母音に対するチョッパー型応答に関する検討”、音響学会聴覚研究会資料、H-98-50 [8] Ito, K. and Akagi, M. (1998). “A computational model of auditory sound localization,” Computational Hearing, Italy, 67-72 [9] Maki, K., Hirota, K. and Akagi, M. (1998). “A functional model of the auditory peripheral system: Responses to simple and complex stimuli,” Computational Hearing, Italy, 13-18. [10] 伊藤、赤木(1998)．”音源方向定位のための聴覚モデルの検討”、電子情報通信学会技術報告、SP97-138. [11] 牧、赤木、廣田(1997)．”聴覚末梢系モデルに基づいた聴神経における母音の符号化に関する検討”、音響学会聴覚研究会資料、H-97-70 [12] 牧、赤木(1996)．”聴覚末梢系における実時間モデルの検討”、音響学会聴覚研究会資料、H-96-74 ６．異常構音 6-1 異常構音の知覚 ＜査読付論文・国際会議＞ [1] Kozaki-Yamaguchi, Y., Suzuki, N., Fujita, Y., Yoshimasu, H., Akagi, M., and Amagasa, T. (2005). "Perception of hypernasality and its physical correlates," Oral Science International, 2, 1, 21-35. [2] Kozaki, Y., Suzuki, N., Amagasa, T., and Akagi, M. (2004). “Perception of hypernasality and its physical correlates,” Proc. ICA2004. 3313-3316. [3] Akagi, M., Suzuki, N., Hayashi, K., Saito, H., and Michi, K. (2001). " Perception of Lateral Misarticulation and Its Physical Correlates", Folia Phoniatrica et Logopaedica, 53, 6, 291-307 ＜招待講演＞ [1] 赤木正人(2001)．”口の中の音響学　−口を大きくあけて声を出すとなぜ”あ”なのか？−”、第25回日本口蓋裂学会教育講演（招待講演）、日本口蓋裂学会雑誌、26, 2, 161. ＜研究会・大会＞ [1] 古崎，吉増，天笠，鈴木，赤木(2003)．“スペクトル操作合成音声の聴取と声道形状モデルによる開鼻声の音響的特徴の分析”，電子情報通信学会技術報告、SP2003-36. [2] 斉藤、鈴木、北村、赤木、道(1999)．”舌・口底切除における異常構音の音響的特徴−スペクトルのピーク分析の試み−”、電子情報通信学会技術報告、SP98-149. [3] 斉藤、赤木(1998)．“口腔疾患に伴う構音障害の音響的特徴に関する研究”、JAIST Tech. Report, IS-RR-98-0011P. [4] 斉藤、鈴木、赤木、高橋、道(1998)．”舌・口底切除症例における構音動態及び音響特性”、電子情報通信学会技術報告、SP97-122. [5] Akagi, M., Kitamura, T., Suzuki, N. and Michi, K. (1996). "Perception of lateral misarticulation and its physical correlates", Proc ASA-ASJ Joint Meeting, 933-936. [6] 赤木正人、高木直子、北村達也、鈴木規子、藤田幸弘、道健一(1996)．”側音化構音の知覚と物理関連量”、電子情報通信学会技術報告、SP96-34. [7] 高木、北村、赤木、鈴木、藤田、道(1996)．”側音化構音の音響特性について”、平成８年春季音響学会講演論文、1-3-3. 6-2 ３次元声道モデル ＜査読付論文・国際会議＞ [1] Nishimoto, H. and Akagi, M. (2006). "Effects of complicated vocal tract shapes on vocal tract transfer functions," Journal of Signal Processing, 10, 4, 267-270. [2] 西本，赤木，北村，鈴木(2006)．“有限要素法による声道伝達特性推定の有効性に関する検討”， 日本音響学会誌，62, 4, 306-315. [3] Nishimoto, H. and Akagi, M. (2006). "Effects of complicated vocal tract shapes on vocal tract transfer functions," Proc. NCSP2006, 114-117. [4] Nishimoto, H., Akagi, M., Kitamura, T. and Suzuki, N. (2004). “Estimation of transfer function of vocal tract extracted from MRI data by FEM,” Proc. ICA2004, 1473-1476. [5] 斉藤、鈴木、藤田、道、高橋、赤木、和久本(2000)．”MR撮像法を用いた3次元声道形状の計測　−舌・口底切除症例の検討−”、昭和歯学会雑誌、20, 2, 198-214. ＜研究会・大会＞ [1] 西本，赤木，北村，鈴木(2004)．”MRI計測による声道モデルの伝達特性の推定精度の検討”、電子情報通信学会技術報告、SP2003-191. [2] 岡崎，西本，赤木(2004) ．“無声摩擦子音発声時の気流の数値流体解析”，平成16年春季音響学会講演論文、3-7-4. [3] Nishimoto, H., Akagi, M., Kitamura, T., and Suzuki, N. (2002). "FEM analyses of three dimensional vocal tract models after tongue and mouth floor resection," NATO Advanced Study Institute 2002 Dynamics of Speech Production and Perception. [4] Nishimoto, H., Akagi, M., Kitamura, T., Suzuki, N., and Saito, H. (2001). "FEM analysisof three-dimensional vocal tract models after tongue and mouth floor resection," J. Acoust. Soc. Am., 110, 5, Pt. 2, 2761. [5] 西本、赤木、北村、鈴木、齋藤、道、高橋(2001)．”舌・口底切除患者の3次元声道形状モデルの有限要素法による分析”、電子情報通信学会技術報告、SP2000-154. [6] 北村、鈴木、齋藤、道、高橋、赤木、和久本(2001)．”MRIによる舌・口底切除患者の3次元声道形状の分析”、電子情報通信学会技術報告、SP2000-153. ７．生成と知覚の相互作用 ＜査読付論文・国際会議＞ [1] Shih, T, Suemitsu, A., and Akagi, M. (2011/03/03). “Influences of transformed auditory feedback with first three formant frequencies,” Proc. NCSP2011, Tianjin, China, 340-343. [2] Dang, J., Akagi, M., and Honda, K. (2006). "Communication between speech production and perception within the brain - Observation and simulation," J. Comp. Sci. & Tech., 21, 1, 95-105. [3] Matsuoka, R., Lu, X., Dang, J., and Akagi, M. (2004). “Investigation of interaction between speech perception and speech production,” Proc. KIT Int. Sympo. Brain and Language 2004, 27-28. ＜研究会・大会＞ [1] Shih, T., Suemitsu, A., and Akagi, M. (2010/10/16). "Influences of real-time auditory feedback on formant perturbations," Proc. Auditory Research Meeting, ASJ, 40, 8, H-2010-121. [2] 内山田，Lu，党，赤木(2007)．”変形聴覚フィードバックに対する発話系の反応の計測”，平成19年春季音響学会講演論文，2-Q-18 [3] Akagi, M., Dang, J., Lu, X., and Uchiyamada, T. (2006). "Investigation of interaction between speech perception and production using auditory feedback," J. Acoust. Soc. Am., 120, 5, Pt. 2, 3253. [4] 内山田，Lu，党，赤木(2006)．"変形聴覚フィードバックによる発話系の補償動作について"，平成18年秋季音響学会講演論文、3-P-9. [5] 田中，Lu，党，赤木(2006)．”変形聴覚フィードバックにおける摂動量と補正動作の関係について”，平成18年春季音響学会講演論文、2-3-11 [6] 松岡，Lu，党，赤木(2004)．“調音情報を考慮した聴覚系と発話系の相互作用に関する検討”，音響学会聴覚研究会資料、H-2004-103. ８．信号分析 ＜査読付論文・国際会議＞ [1] 西江純教，赤木正人 (2014/04/01). “弦楽器F0 推定のための精密周波数測定方法”，電子情報通信学会論文誌A, J97-A, 4, 332-342. [2] Kobayashi, K., Morikawa, D., and Akagi, M. (2014/03/01). “Study on Analyzing Individuality of Instrurment Sounds Using Non-negative Matrix Factorization,” Proc. NCSP2014, Hawaii, USA, 37-40. [3] Nishie, S. and Akagi, M. (2013/09/11). “Acoustic sound source tracking for a moving object using precise Doppler-shift measurement,” Proc. EUSIPCO2013, Marrakesh, Morocco. ＜研究会・大会＞ [1] 西江，赤木. (2014/03/10). “遅延器による位相差を利用するデジタルFM復調器の提案”，日本音響学会平成26年春季研究発表会，1-6-9. [2] 小林，森川，赤木. (2014/03/10). “非負値行列因子分解を用いたピアノ音の個体差要因の分析”，日本音響学会平成26年春季研究発表会，1-5-5. [3] 西江，赤木 (2013/12/13). “遅延器による位相差を利用する瞬時周波数測定方法の提案“，電子情報通信学会技術報告，EA-2013-93. [4] 西江，赤木 (2013/09/25). “微細ドップラーシフト計測による移動音源追跡”，日本音響学会平成25年度秋季研究発表会, 1-P-35c. [5] 西江，赤木 (2013/0718). “フーリエ変換を使用しない基本周波数推定による楽器音F0推定“，電子情報通信学会技術報告，EA-2013-36. [6] 西江，赤木 (2013/03/15). “フーリエ変換を使用しない実時間F0 推定の試み”，日本音響学会平成25年春季研究発表会，3-P-52b. [7] 西江，赤木 (2012/05/24). “２周波数混合波形による瞬時周波数計測の精度測定”，電子情報通信学会技術報告，EA-2012-8 [8] 西江，赤木 (2012/03/09). “疑似直交変換による瞬時位相計測方法　―Hilbert変換器の位相精度検証―”，電気学会計測研究会資料，IM-12-021. ９．書籍等 9-1 書籍等 [1] 日本音響学会編(2011)．共著．”音響学入門”、コロナ社 [2] 日本音響学会編(2003)．共著．”新版音響用語辞典”、コロナ社 [3] 甘利、外山編(2000)．共著．”脳科学大事典”、朝倉書店 [4] 日本音響学会編(1996)．共著．”音のなんでも小辞典”、講談社ブルーバックス [5] ホイットマン・リチャーズ編、石川、平原訳（赤木：翻訳協力）(1994)．”ナチュラルコンピュテーション”、パーソナルメディア [6] 赤木正人 (1993)．”音声の知覚と聴覚モデル”、bit, 25, 9, 99-107、共立出版 9-2 その他 [1] 赤木正人(1997)．”私の意見：企業から大学に移って思うこと”、電子情報通信学会誌、80, 1, 90-91. １０．（参考）その他 10-1 NTT, ATR ＜査読付論文・国際会議＞ [1] Akagi, M. (1993). "Modeling of contextual effects based on spectral peak interaction", J. of Acoust. Society of America, 93, 2, 1076-1086. [2] Akagi, M. (1992). "Psychoacoustic evidence for contextual effect models", Speech Perception, Production and Linguistic Structure, IOS Press, Amsterdam, 63-78 [3] Akagi, M. (1990). "Contextual effect models and psychoacoustic evidence for the models", Proc. Int. Conf. Spoken Lang. Process. 90, 569-572. [4] Akagi, M. and Tohkura, Y. (1990). "Spectrum target prediction model and its application to speech recognition", Computer Speech and Language, 4, Academic Press 325-344. [5] Akagi, M. (1990). "Evaluation of a spectrum target prediction model in speech perception", J. of Acoust. Society of America, 87, 2, 858-865. [6] Ueda, K. and Akagi, M. (1990). "Sharpness and amplitude envelopes of broadband noise", J. of Acoust. Society of America, 87, 2, 814-819. [7] Furui, S. and Akagi, M. (1985). "On the role of spectral transition in phoneme perception and its modeling", Proc. 12th Int. Conf. Acoustics, A2-6. [8] Akagi, M. and Tohkura, Y. (1988). "On the application of spectrum target prediction model to speech recognition", Proc. Int. Conf. Acoustics Speech and Signal Process., New York, 139-142. [9] 赤木、古井(1986)．”音声知覚における母音ターゲット予測機構のモデル化”、電子情報通信学会論文誌、J69-A, 10, 1277-1285 ＜研究会・大会＞ [1] Akagi, M. (1990). "Psychoacoustic evidence for a contextual effect model", J. Acoust. Soc. Am., Spl 1, 87, MMM2 (119th Meeting of ASA). [2] Akagi, M. (1989). "Modeling of contextual effect based on spectral peak interaction", J. Acoust. Soc. Am., Spl 1, 85, II8 (117th Meeting of ASA). [3] Akagi, M. (1987). "Evaluation of a spectrum target prediction model in speech perception", J. Acoust. Soc. Am., Spl 1, 81, G8 (113th Meeting of ASA). 10-2 東京工業大学 ＜査読付論文・国際会議＞ [1] 赤木、飯島(1984)．”極性誤差識別法による日本語破裂音の認識”、電子情報通信学会論文誌、J67-A, 11, 1013-1019 [2] 赤木、飯島(1984)．”極性誤差識別法による日本語音素認識−POLPEC II−”、電子情報通信学会論文誌、J67-A, 5, 439-446 [3] 赤木、飯島(1984)．”極変動追随フィルタの一構成法”、電子情報通信学会論文誌、J67-A, 2, 133-140 [4] 赤木、飯島(1982)．”極性誤差識別法による音声認識−POLPEC法−”、電子情報通信学会論文誌、J65-A, 8, 759-766