Abstract
The human auditory system conveys information about temporal variations in music, speech, and environmental sounds. Most of the sounds in daily life are temporally varying and non-steady state. Sounds in a temporal stream within a certain time interval are integrated by the auditory system, and information is extracted from these data (Fraisse 1978). An object can be recognized and differentiated in because it has its own specific pattern of temporal variation, different from that of other objects. Jones (1978) described that an auditory perception of a pattern is a meaningful succession within an event and conveys information about the outer world. Music, speech, and noise have unique patterns of temporal variation of sound energy. In daily life, the physical variation of a sound itself is seldom paid much attention: people generally listen to sound to grasp the information that it conveys, such as the meaning of the speech, the sources of machinery sound, the location of the sound sources, the melody of music, and so forth (Garner 1974).
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References
Arakawa K, Mizunami T, Kuwano S, Namba S (1995) Factors determining the optimum listening level of music performance. J Music Percept Cogn 1:33–42.
Buus S, Florentine, M, Poulsen T (1997) Temporal integration of loudness, loudness discrimination, and the form of the loudness function. J Acoust Soc Am 101:669–680.
Carter NL (1972) Effects of rise time and repetition rate on the loudness of acoustic transient. J Sound Vib 21:227–239.
Davis H, Zerlin S (1966) Acoustic relations of the human vertex potential. J Acoust Soc Am 39:109–116.
Fastl H (1984) An instrument for measuring temporal integration in hearing. Audiol Acoustics 23:164–170.
Fastl H, Zwicker E (2007) Psychoacoustics – Facts and Models, 3rd ed. Berlin: Springer.
Fastl H, Kuwano S, Namba S (1996) Assessing the railway bonus in laboratory studies. J Acoust Soc Jpn (E) 17:139–148.
Florentine M, Fastl H, Buus S (1988) Temporal integration in normal hearing, cochlear impairment, and impairment simulated by masking. J Acoust Soc Am 84:195–203.
Florentine M, Buus S, Poulsen T (1996) Temporal integration of loudness as a function of level. J Acous Soc Am 99:1633–1644.
Fraisse P (1957) Psychology du Temps. Paris: Press University de France.
Fraisse P (1978) Time and rhythm perception. In: Carterette EC, Friedman MP (eds), Handbook of Perception, Vol. V: Perceptual Coding. New York: Academic, pp. 203–254.
Garner WR (1974) The Processing of Information and Structure. Hoboken, NJ: Wiley.
Gjaevenes K, Rimstad ER (1972) The influence of rise time on loudness. J Acoust Soc Am 51:1233–1239.
Handel S (1989) Listening – An Introduction to the Perception of Auditory Events. Cambridge, MA: MIT Press.
Hedberg D (1998) Continuous rating of sound quality. Rep Tech Audiol Karolinska Institute, Report TA 134.
ISO 2204 (1973) Acoustics – Guide to the Measurement of Airborne Acoustical Noise and Evaluation of Its Effects on Man. Geneva, Switzerland: International Organization for Standardization.
Izumi K (1977) Two experiments on the perceived noisiness of periodically intermittent sounds. Noise Control Eng 9:16–23.
Jones MR (1978) Auditory patterns: studies in the perception of structure. In: Carterette EC, Friedman MP (eds), Handbook of Perception, Vol. V: Perceptual Coding. New York: Academic, pp. 255–288.
Kato T, Namba S, Kuwano S (1994) Continuous judgment of loudness by cross-modality matching using line length. Fac Lett Rev Otemon Gakuin Univ 29:15–31.
Kato T, Namba S, Kuwano S (1996) Continuous judgment of loudness by cross-modality matching using line length – a method for describing matching results. Fac Human Rev Otemon Gakuin Univ 2:47–60.
Kato T, Kaku J, Kuwano S, Namba S (2000) Psychological evaluation of environmental noise in field using the method of continuous judgment by category. Fac Human Rev Otemon Gakuin Univ 9:13–26.
Kato T, Namba S, Kuwano S (2001) Continuous judgment of loudness by cross-modality matching using line length–loudness evaluation of the sounds that contain big and small level fluctuation. Fac Human Rev Otemon Gakuin Univ 12:21–28.
Kuwano S (1996) Continuous judgment of temporally fluctuating sounds. In: Fastl H, Kuwano S, Schick A (eds), Recent Trends in Hearing Research. Oldenburg: BIS, pp. 193–214.
Kuwano S (2007) Psychological evaluation of sound environment along temporal stream. Proceedings of the International Congress on Acoustics CD-ROM (http://www.icacommission.org/).
Kuwano S, Namba S (1983) On the dynamic characteristics of hearing and the loudness of impulsive sounds. Trans Tech Com Noise, Acoust Soc Jpn N-8303-13:79–84.
Kuwano S, Namba S (1985) Continuous judgment of level-fluctuating sounds and the relationship between overall loudness and instantaneous loudness. Psychol Res 47:27–37.
Kuwano S, Namba S (1990) Continuous judgment of loudness and annoyance. In: Müller, F (ed), Fechner Day 90. Proceedings of the Sixth Annual Meeting of the International Society of Psychophysics, Würzburg, ISP, pp. 129–134.
Kuwano S, Namba S (1992) Temporal stream of hearing. Stud Hum Soc Sci Col Gen Edu Osaka Univ 40:1–15.
Kuwano S, Namba S (1996) Evaluation of aircraft noise: effects of number of flyovers. Environ Int 22:131–144.
Kuwano S, Namba S, Yamasaki T, Nishiyama K (1994) Impression of smoothness of a sound stream in relation to legato in musical performance. Percept Psychophys 56:173–182.
Kuwano S, Namba S, Hayakawa Y (1997) Comparison of the loudness of inside car noises from various sound sources in the same context. J Acoust Soc Jpn (E) 18:189–193.
Kuwano S, Namba S, Kato T, Hellbrueck J (2003) Memory of the loudness of sounds in relation to overall impression. Acoust Sci Tech 24:194–196.
Kuwano S, Fastl H, Namba S (2007) Relation between loudness of sounds with under critical duration and L Aeq and L AE (2) in the case of impulsive noise. Proc Spring Meeting Acoust Soc Jpn 757–758.
Molino JA (1974) Measuring human aversion to sound without verbal descriptors. Percept Psychophys 16:303–308.
Molino JA, Zerdy GA, Lerner ND, Harwood DL (1979) Use of the “acoustic menu” in assessing human response to audible (corona) noise from electric transmission lines. J Acoust Soc Am 66:1435–1445.
Namba S (1984) Perception of non-steady state sounds. In: Namba S (ed), Handbook of Hearing, Kyoto: Nakanishiya Shuppan, pp. 234–275.
Namba S, Kuwano S (1980) The relation between overall noisiness and instantaneous judgment of noise and the effect of background noise level on noisiness. J Acoust Soc Jpn (E) 1:99–106.
Namba S, Kuwano S (1982) Psychological study on L eq as a measure of loudness of various kinds of noises. J Acoust Soc Jpn 38:774–785.
Namba S, Kuwano S (1988a) Measurement of habituation to noise using the method of continuous judgment by category. J Sound Vib 127:507–511.
Namba S, Kuwano S (1988b) Psychological evaluation of music performance using the method of continuous judgment by selected description. Harmonia Kyoto City Univ Arts 18:6–33.
Namba S, Kuwano S (1990) Continuous multi-dimensional assessment of musical performance. J Acoust Soc Jpn (E) 11:43–52.
Namba S, Kuwano S (2007) Relation between loudness of sounds with over critical duration and L Aeq and L AE. In the case of road traffic noise. Proceedings of the Spring Meeting Acoustical Society of Japan, Tokyo: The Acoustical Society of Japan, pp. 755–756.
Namba S, Nakamura T, Kuwano S (1971) The loudness of level-fluctuating noises. Jpn J Psychol 42:93–103.
Namba S, Nakamura T, Kuwano S (1972) The relation between the loudness and the mean of energy of level-fluctuating noises. Jpn J Psychol 43:251–260.
Namba S, Nakamura T, Kuwano S (1973) Programmable sound control system. Jpn J Psychol 43:309–311.
Namba S, Kuwano S, Kato T (1974) The relation between loudness and rise time as a function of energy. J Acoust Soc Jpn 30:144–150.
Namba S, Kuwano S, Kato T (1976) The loudness of sound with intensity increment. Jpn Psycho1 Res 18:63–72.
Namba S, Nakamura T, Kuwano S (1977) An analysis of piano performance. Stud Hum Soc Sci Col Gen Edu Osaka Univ 25:25–43.
Namba S, Kuwano S, Kato T (1978a) An investigation of Leq and La in relation to loudness. J Acoust Soc Jpn 34:301–307.
Namba S, Kuwano S, Kato T (1978b) On the investigation of Leq, L 10 and L 50 in relation to loudness. J Acoust Soc Am 64:S58.
Namba S, Kuwano S, Nikaido S (1982) Estimation of tone quality of broadcasting sounds using the method of continuous judgment by category. J Acoust Soc Jpn 38:199–210.
Namba S, Rice C G, Hashimoto T (1987) The loudness of decaying impulsive sounds. J Sound Vib 116:491–507.
Namba S, Kuwano S, Hato T, Kato M (1991) Assessment of musical performance by using the method of continuous judgment by selected description. Music Percept 8:251–276.
Namba S, Kuwano S, Koyasu M (1993) The measurement of temporal stream of hearing by continuous judgments – in the case of the evaluation of helicopter noise. J Acoust Soc Jpn (E) 14:341–352.
Namba S, Kuwano S, Kinoshita A, Hayakawa Y (1997) Psychological evaluation of noise in passenger cars – the effect of visual monitoring and the measurement of habituation. J Sound Vib 205:427–434.
Namba S, Kuwano S, Fastl H, Kato T, Kaku J, Nomachi K (2004) Estimation of reaction time in continuous judgment. Proc Int Cong Acoust 1093–1096.
Namba S, Kuwano S, Kato T (2006) Subjective evaluation of sounds – effects of duration and interval between listening to sound and the judgment to them. Proc Autumn Meeting Inst Noise Control Eng Jpn 117–120.
Neisser U (1976) Cognition and Reality. Principles and Implications of Cognitive Psychology. San Francisco, CA: WH Freeman.
Neuhoff JG (1998) Perceptual bias for rising tones. Nature 395:123–124.
Neuhoff JG (2004) Ecological Psychoacoustics. San Diego, CA: Elsevier, Academic.
Plomp R (2002) The Intelligent Ear: On the Nature of Sound Perception. Mahwah, NJ: Lawrence Erlbaum.
Poeppel E (1978) Time perception. In: Held R, Leibowitz HW, Teuber H-L (eds), Handbook of Sensory Physiology, Vol. III: Perception. Heidelberg: Springer, pp. 713–729.
Rice CG, Zepler EE (1967) Loudness and pitch sensations of an impulsive sound of very short duration. J Sound Vib 5:285–289.
Riesz RR (1928) Differential intensity of the ear for pure tone. Phys Rev 31:867–875.
Scharf B (1978) Loudness. In: Carterette EC, Friedman MP (eds), Handbook of Perception, Vol. IV: Hearing. New York: Academic, pp. 187–242.
Springer N, Weber R, Schick A (1997) Instantaneous and overall loudness of temporally variable pink noise. In: Schick A, Klatte M (eds), Contributions to Psychological Acoustics. Oldenburg: BIS, pp. 91–98.
Susini P, McAdams S (2008) Loudness asymmetry ratings between accelerating decelerating car sounds. J Acoust Soc Am 123:3307.
Susini P, McAdams S, Smith Benett K (2002) Global and continuous estimation of sounds with time-varying intensity. Acta Acoustica 88:536–548.
Symmes D, Chapman LF, Halstead WC (1955) Fusion of intermittent white noise. J Acoust Soc Am 27:470–473.
Terhardt E (1974) On the perception of periodic sound fluctuation (roughness). Acustica 30:201–213.
Vigran E, Gjaevenes K, Arnesen G (1964) Two experiments concerning rise time and loudness. J Acoust Soc Am 36:1468–1470.
Zepler EE, Harel JRP (1965) The loudness of sonic booms and other impulse sounds. J Sound Vib 2:249–256.
Zwicker E (1952) Die Grenzen der Hörbarkeit der Amplitudenmodulation und der Frequenzmodulation eines Tones. Acustica, Akustische Beihefte 3:125–133.
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Kuwano, S., Namba, S. (2011). Loudness in the Laboratory, Part II: Non-Steady-State Sounds. In: Florentine, M., Popper, A., Fay, R. (eds) Loudness. Springer Handbook of Auditory Research, vol 37. Springer, New York, NY. https://doi.org/10.1007/978-1-4419-6712-1_6
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