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Studies in Stress and Accent (Southern California Occasional Papers in Linguistics 4) PDF

340 Pages·1977·14.37 MB·English
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STUDIES IN STRESS AND AC C E N T EDITED By LARRY M. HYMAN oUTN lt4 ~ ., 04 71 an a~ ~~ 7~ \ 1~~ ,,,~~~---~~~ 0 ~ 0 1IYwtl 9m, ML SOUTHERN CALIFORNIA OCCASIONAL PAPERS IN LINGUISTICS NO. 4 APRIL 1977 PUBLISHED BY THE DEPARTMENT OF LINGUISTICS UNIVERSITY Oi SOUTHERN CALIFORNIA LOS ANGELES, CALIFORNIA 90007 iii TABLE OF CONTENTS Preface v Part 1. General and Ex erimental. Alan Bell, ACCENT PLACEMENT AND PERCEPTION OF PROMINENCE RHYTHMIC STRUCTURES 1 Victoria A. Fromkin, PUTTING THE EMPHASIS ON THE WRONG SYLLABLE zs Eva Ga°rdtny, THE IMPORTANCE OF TURNING POINTS FOR THE PITCH PATTERNS OF SWEDISH ACCENTS z7 Larry M. Hyman, ON THE NATURE OF LINGUISTIC STRESS 37 Waune A. Lea, ACOUSTIC CORRELATES OF STRESS AND JUNCTURE 83 Larry Nessiy, ON THE VALUE OF PHONOLOGICAL EXPERIMENTS IN THE STUDY OF ENGLISH STRESS 221 John J. Ohala, THE PHYSIOLOGY OF STRESS 145 Part 11. Language Studies. Wallace L. Chafe, ACCENT AND RELATED PHENOMENA IN THE FIVE NATIONS IROQUOIS LANGUAGES 169 Alice Wyland Grundt, SYNTACTIC ACCENT IN NORWEGIAN MORPHOLOGY 283 Mary R. Haas, TONAL ACCENT IN CREEK 195 Paul Kiparsky and Morris Halle, TOWARDS A RECONSTRUCTION OF THE INDO-EUROPEAN ACCENT 209 Margaret Langdon, STRESS, LENGTH, AND PITCH IN YUMAN LANGUAGES 239 iv James D, McCawZey, ACCENT IN JAPANESE 261 Pamela Munro, TOWARDS A RECONSTRUCTION OF UTO-AZTECAN STRESS 303 Man,jari Ohala, STRESS IN HINDI 327 V PREFACE The papers included in the volume were presented at a STRESSFEST, or Symposium on Stress and Accent, held at the university of Southern California on February 28-29, 1976. Together, they represent a broad spectrum of the approaches taken to the study of accentual phenomena and cover many of the important language areas of the world. The 15 studies are grouped into two sections: general and experimental (section 1) and language studies (section 2). In the first section, the authors are concerned with the pro- duction, perception, and/or psychological implications of linguistic analyses of stress/accent. Bell's paper reports on experiments at- tempting to seek a correlation between one's accentual, system (in particular, stress-placement) and the way sequences of like pitch- signals are perceived. Fromkin's paper discusses the nature of speech errors made in the realization of stress and relates these to the phonological analysis of English stress. ;ording's reaper demonstrates the importance of the timing of pitch changes in the realization of the two accents in Swedish. Hyman's paper investi- gates universals of stress-accent on the basis of a survey of more than 400 languages. Lea's paper treats the acoustics and perception of stress in English, especially with respect to the detection of syntactic boundaries. Nessly's paper tells of results of experiments where speakers assigned stress to nonsense words, and finally, J. Ohala's paper provides a thorough study of the physiological mech- anisms underlying the production of stress. In the second section, the authors are concerned rcith deennic- tive and/or theoretical aspects of accent in individual Zanpuay s or language families. Chafe's paper surveys stress in the Five Nations Iroquois languages, while Grundt looks at the morphological side of accent in Norwegian. Particularly intriguing ie the tonal accent system of Creek discussed in the paper by Haas, as veil as the history of the Indo-European accent discussed in the paper by Elparsky and HaZie. In the paper by Langdon, stress (and some tone) is surveyed in the lunar languages, and in M Cawley'e paper general statements are made concerning the pitch-accent cystoma of the various dialects of Japanese. In Munro'e paper stress is re- constructed for Prota-Astecan with supporting en dencr> drawn from throughout that family. Finally, M. Ohala approaches the diffirau7.t and controversial subject of whether Hindi has, or does not have, stress. As can be seen from the, table of contents, this volume is both heavily experimental and heavily Amerindian. ShiZe most of the contributions deal exclusively with stress-accent, tonal or pitch- accent is covered in Scandinavian, Japanese, and some Amerindian. vi In addition to the above, four other papers ;ere presented at the symposium: "AZternatina stresses: variations on a theme" by Jonathan Kaye, "The realization of accent in some nonstariard dia- lects of Serbo-Croatian" by IZse Lehiste, "The nature and deriva- tion of stress patterns in English" by Mark Liberman, and "Eskimo stress and consonant gradation" by Roy Wright. The Symposium on Stress and Accent was partially supported by Humanities Division Development Funds at the University of Southern California, made available by Dean David H. Malone. The publica- tion of these proceedings has been made possible by additional sup- port from a National Science Foundation Grant No. SOC 75-i6iS7, under which sponsorship this symposium was conceived. Finalie,, ray personal thanks to all of those persons who made this symposiums and this volume possible, especially (for hospitality shown to out-of-town guests) Vicki Fromkin, Peter Ladefoged, Steve Anderson, Jean-Marie Hombert, Pam Munro, Russ Schuh, Matt Shibatani, Tina Bennett, and Harriet Jisa (the last of whom typed this volume). L.M.H. 1 ACCENT PLACEMENT AND PERCEPTION OF PROMINENCE IN RHYTHMIC STRUCTURES * Alan Bell University of Colorado The concern of this paper is the relation of the perception of auditory temporal patterns (henceforth rhythmic perception) to accentual systems of language. I It deals mainly with one relatively straightforward aspect of the topic, the position of prominent (accented) elements and the sensory dimension on which they are marked. it Is intended to mesh with the general enterprise of discovering what accentual systems are like, and how they came to be that way. For the proper direction of that enterprise it is well to look forward to the forces that may provide a deeper explanation of the regularities to be uncovered. The existence of a relation between rhythmic perception and linguistic accent is most plausible under the assumption that the raison d'etre of accent is at least partially functional. One conjecture, implicit in Trubetzkoy's characterization of stress -,is a culminative element of language, is that it provides an organizational z tmowork k for speech, which facilitates its use in some way. This framework is a rhythmic structure, in the sense of a quasi-regular temporal succession of patterns. In the simplest cases, the pattern is based upon the contrast between a prominent (accented) syllable and nonpraminent ones, and is composed of a succession of domains (usually words or phrases) in which the prominent element occurs once in a fixed position. The temporal pattern of one such accental system might be * - - * ------ - - - - where the number of nonproznlnent elements varies according to the length of the word. Rhythmic 2erception. Psychological research on rhythmic perception parallels the linguistic work on stress and accent summarized by Hyman In this volume. One line of research emphasizes the role that the physical characteristics of the sounds of an auditory pattern play in its perception. This corresponds to research on the physical correlates of accent. Another focuses upon the organizational principles that people use iii the perception of rhythmic patterns. This corresponds to the functional and structural studies of stress and accent. A fundamental result concerning the physical qualities of succession of sounds is that their rate of succession must fall within a limited range for them to be 2 perceived in terms of a rhythmic pattern. Although there is substantial variation from one person to another, if the rate is much greater than 5 repetitions per second, the sounds tend to be heard as a continuous stream. As the rate falls below one repetition every two seconds, the sounds tend to be perceived individually (Woodrow 1951, Fraisse 1956). This range of course includes the ordinary repetition rates of rhythmic elements in speech, with syllable rate of conversational speech, about 5 syllables per second, at the high end. Within this range, even a perfectly regular succession of identical sounds will often be perceived as composed of repeating groups of sounds. The length of the group is influenced by the rate of repetition, longer groups being heard at higher rates. This is the phenomenon called subjective rhythm (Woodrow 1951, Fraisse 1956). The rhythmic structure that is perceived, 1. e. the number of sounds in the repeated groups and its Internal structure (where the "accents" fall), is otherwise Influenced by the physical parameters of the sound sequence. A rhythmic group of identical sounds may become salient by virtue of a separa- tion between the end of one group and the beginning of the next that is greater than the separation between the members of the group. Alternatively, rhythmic structures may be marked by repeating combinations of different sounds. The simplest cases consist of two different sounds, e. g. one loud and one soft. Thus a regular alternation of soft (S) and loud (L) sounds will be perceived as a succession of groups of two; a sequence such as ... LSLSSLSLSSLSLSS... will be perceived as a succession of groups of five; etc. It may have already struck the reader that sequences such as these are ambiguous. That is, the first can be interpreted equally well as a succession of LS groups as of SL groups. And there are five possible rhythmic groups for the second; LSLSS, SLSSL, LSSLS, SSLSL, and SLSLS, Psychologists have exploited a number of responses-- impressionistic reports by the listener of what he hears, forced choice among pattern representations, and reproduction of patterns by tapping or otherwise--to infer which of the possible groups a listener hears when presented with sequences of this kind. One might expect that listeners would be more or less equally divided among the possible rhythmic groups. This is not the case, in fact. There is almost always a decided preference for certain groupings. Influence of sensory dimension of prominence. The sensory dimension along which ceived. Woodrow (1909) the sounds differ influences and which pattern will be per. Fraisse (1956) report that there is a strong preference for groups beginning with the louder sound. For example, a sequence ... SLSSLSSLSSLS... Will tend to be heard as a succession of groups beginning with the loud sound--... -LSS-LSS-LSS-... even 3 though all the sounds occur at equal intervals. The effect increases with increased difference in loudness between the loud and soft sounds according to an S-shaped curve. At repetition rates less than 3. 5 per second the effect diminishes. The tendency to perceive rhythmic structures with initial accent is found also for subjective rhythm. On the other hand, if the sounds differ only in length, a different pattern of responses occurs. If the longer element is less than I. 5 to 2.0 times the shorter one, a tendency toward grouping with an initially prominent element is again found. For ratios above that, a tendency to perceive rhythmic groups with a long final element becomes evident. The perception of rhythmic sequences whose sounds differ in frequency is more complex. Woodrow (1911) found that a higher pitch could either begin or end groups of two or three. In three similar experiments concerning the perception of 8- and 9-element groups, Royer and Garner (1966, 1970) and Handel (1974) different results were obtained. No tendency for either higher or lower pitched sounds to begin the perceived rhythmic groups was found in the first of these experiments, but two- thirds began with the higher pitched sound in the second, and about the same proportion began with the lower pitched sound in the third. Ilandel points out that sounds of different pitch are not quantitatively different in the manner of sounds of different loudness or duration, but rather have a more nearly qualitative difference. (Tb.is calls to mind the all-or-none effect of pitch difference in the experiments of Fry 1968 and others on the correlates of stress.) lie conjectures that pitch itself may not determine element preference as much as secondary differences In timbre, etc. Structure influences. The structure of the rhythmic group itself plays as large a role in perception as the sensory dimensions of prominence. Out of the four rhythmic groups possible for a sequence ... SLSSSLSSSLSS..., LSSS and SSSL are preferred to the two groups with the loud sound in the interior of the group. If there are two loud sounds in the sequence, LLSS and SSLL are preferred to groups LSSL and SLLS (Fraisse 1956). From the research by Royer and Garner (1966, 1970) and Handel (1974) who considered the perception of sequences made up of recurring groups of eight sounds, we know that these preferences extend to more complex sound combinations. They offer the explanation that the elements of temporal sequences are perceived either as figure elements or as ground elements. The sequences may be organized according to two principles. The gam principle states that a long string of ground elements ends a pattern; for simple patterns with one accent this corresponds to initial placement of accent, e. g. LSSS. The run principle states that a long string of figure elements begins apattern. For the same example, this corresponds to final 4 accent placement, SSL, where now the soft sounds are figure elements. Note that for the sequences of Fraisse mentioned above, neither SLSS, SSLS nor LSSL, SLLS fit either principle. Some kinds of sequences are harder to perceive and learn (i. e. , reproduce or remember) than others. Sequences of the type ... SLSSSSSLSS... or ... SLLSSSSLLSSS.. . containing unbroken strings of the two kinds of elements are easier than ones like ... SLLSLSSLLSLSSLLSLS... Internal repetition of subgroups like SL appears to facilitate perception and production. Summary. Perception of auditory temporal patterns possesses general characteristics which are consonant with the conjecture that the same mechanisms play a role in linguistic accentual systems. 1. Rhythmic perception occurs at rates comparable to the relevant repetition rates in language. 2. Where several organizations of a sequence are possible, perceived rhythmic groups tend to be based upon either initial or final position. 3. Sequences with essentially a culminative structure (one or few prominent elements or shifts from one element to another) are easier to perceive and learn. The following characteristics of temporal perception pertain to the placement of accent and its sensory dimensions. z. MbRU=io,Ooups with an initial prominent element are preferred even, if the physical stimulus is a regular succession of identical elements. z. This tendency is increased if one of a group of elements is louder. 3. Next in preference are rhythmic groups with a final prominence; groups with medial prominence are relatively disfavored. 4. if the prominent element is marked by greater length, there appears a tendency for the longer element to end the perceived rhythmic group, as the ratio of short to long surpasses 1. 5. 5. An element of a rhythmic group can be accented by receiving either higher or lower pitch than the other elements, in contrast to loudness. To the extent that Handel'e results can be extended to rhythmic groups with a single prominence, there should be a tendency for such groups to be perceived with the different element (whether higher pitched or lower pitched) in Initial position. 2 Do accentual systems affect rhythmic perception? If accentual systems and rhythmic perception are significantly related, the relation could be from either one to the other, or both. The prior question is the effect of the accentual system of a person's language upon his perception of rhythmic structures In general. For If there is an effect, 5 explanations of accentual phenomena in terms of general rhythmic performance are jeopardized by circularity. Jakobson, Fant, and Halle (1952) did indeed claim that there exists such an effect: Interference by the language pattern affects even our responses to non- speech sounds. Knocks produced at even intervals, with every third louder, are perceived as groups of three separated by a pause. The pause is usually claimed by a Czech to fall before the louder knock, by a Frenchman to fall after the louder; while a Pole hears the pause one knock after the louder. The different perceptions correspond exactly to the position of the word stress in the languages involved: in Czech the stress is on the initial syllable, in French, on the final, and in Polish, on the penult. When the knocks are produced with equal loundess but with a longer interval after every third, the Czech attributes greater loudness to the first knock, the Pole, to the second, and the Frenchman, to the third. Experiment on perception of accent placement An experiment was designed to investigate perception of simple auditory patterns of tone sequences. The sequences consisted of tones at equal intervals, in which every third tone differed in either frequency, intensity, or duration. Subjects were drawn from languages of different accentual patterns: non-fixed (English), and fixed (Bengali, with initial phrasal accent; Polish, with penultimate word accent; French and Persian, with final phrasal and word accent respectively). 3 1. Tone Sequences. Four different sequences of tones were used. In all cases, the interval from tone onset to tone onset was 261 cosec., or a repetition rate of 3. S per second. 2. Control sequence. One sequence consisted of almost identical pulses of a 500 Hz tone, with an average length of 109 msec. , separated by intervals of 152 inset. 4 3. Frequency sequence. In the frequency sequence every third tone was 540 Hz, the sequence otherwise being the same as the control sequence. 4. Intensity sequence. Every third tone was louder than the others by an amount between 2 and 3 dB, the sequence otherwise being the same as the control sequence. 5. Length sequence. Every third tone was 1. 4 times the length of the others, with period between onset of the tones held constant.

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