Two of the most salient features of music are the blending of pitch and the matching of time. I propose here a possible evolutionary precursor of human music based on a process I call “contagious heterophony”. Heterophony is a form of pitch blending in which individuals generate similar musical lines but in which these lines are poorly synchronized. A wonderful example can be found in the howling of wolves. Each wolf makes a similar call but the resultant chorus is poorly blended in time. The other major feature of the current hypothesis is contagion. Once one animal starts calling, other members of the group join in through a spreading process. While this type of heterophonic calling is well-represented in nature, synchronized polyphony is not. In this article, I discuss evolutionary scenarios by which the human capacity to integrate musical parts in pitch-space and in time may have emerged in music. In doing so, I make mention of neuroimaging findings that shed light on the neural mechanisms of vocal imitation and metric entrainment in humans, two key processes underlying musical integration.
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References
1.
AromS. (1991). African polyphony and polyrhythm. Cambridge, UK: Cambridge University Press.
2.
AyotteJ.PeretzI.HydeK. (2002). Congenital amusia: A group study of adults afflicted with a music-specific disorder. Brain, 125, 238–51.
3.
BaillyG. (2002). Close shadowing natural versus synthetic speech. International Journal of Speech Technology, 6, 11–9.
4.
BrainardM. S. (2004). Contributions of the anterior forebrain pathway to vocal plasticity. Annals of the New York Academy of Sciences, 1016, 377–94.
5.
BrownE. D.FarabaughS. M. (1991). Song sharing in a group-living songbird, the Australian magpie, Gymnorhina tibicen. 3. Sex specificity and individual specificity of vocal parts in communal chorus and duet songs. Behaviour, 118, 244–74.
6.
BrownS. (2000). Evolutionary models of music: From sexual selection to group selection. In TonneauF.ThompsonN. S. (eds.), Perspectives in ethology. 13: Behavior, evolution and culture (pp. 231–81). New York: Plenum Publishers.
7.
BrownS.MartinezM. J.ParsonsL. M. (2006). The neural basis of human dance. Cerebral Cortex, 16, 1157–67.
8.
BrownS.ParsonsL. M.MartinezM. J.HodgesD. A.FoxP. T. (2004). The song system of the human brain. Cognitive Brain Research, 20, 363–75.
9.
CataniM.HowardR. J.PajevicS.JonesD. K. (2002). Virtual in vivo interactive dissection of white matter fasciculi in the human brain. Neuroimage, 17, 77–94.
10.
CondillacE. (1746/1971). An essay on the origin of human knowledge. Gainesville: Scholars' Facsimiles & Reprints.
11.
CrossI. (2001). Music, cognition, culture, and evolution. In Zatorre;R. J.PeretzI. (eds.), The biological foundations of music (pp. 28–42). New York: New York Academy of Sciences.
12.
DarwinC. (1871). The descent of man, and selection in relation to sex. London: J. Murray.
13.
DarwinC. (1872). The expression of the emotions in man and animals. London: J. Murray.
14.
DissanayakeE. (2000). Antecedents of the temporal arts in early mother-infant interaction. In. WallinN. L.MerkerB.BrownS. (eds.), The origins of music (pp. 389–410). Cambridge, MA: MIT Press.
15.
DraynaD.ManichaikulA.de LangeM.SniederH.SpectorT. (2001). Genetic correlates of musical pitch recognition in humans. Science, 291, 1969–72.
16.
EgnorS. E.HauserM. D. (2004). A paradox in the evolution of primate vocal learning. Trends in Neurosciences, 27, 649–54.
17.
EpsteinC. M.MeadorK. J.LoringD. W.WrightR. J.WeissmannJ. D.SheppardS.LahJ. J.PuhalovichF.GaitanL.DaveyK. R. (1999). Localization and characterization of speech arrest during transcranial magnetic stimulation. Clinical Neurophysiology, 110, 1073–79.
18.
FayW. H.ColemanR. O. (1977). A human sound transducer/reproducer: Temporal capabilities of a profoundly echolalic child. Brain and Language, 4, 396–402.
19.
FeldS. (1994). Aesthetics as iconicity of style (uptown title); or, (downtown title) “Lift-up-over Sounding”: Getting into the Kaluli groove. In KeilC.FeldS., Music Grooves: Essays and Dialogues (pp. 109–50). Chicago: University of Chicago Press.
20.
FitchW. T. (2000). The evolution of speech: A comparative review. Trends in Cognitive Sciences, 4, 258–67.
21.
GeissmannT. (2000). Gibbon songs and human music from an evolutionary perspective. In. WallinN. L.MerkerB.BrownS. (eds.), The origins of music (pp. 103–23). Cambridge, MA: MIT Press.
22.
GeissmannT. (2002). Duet-splitting and the evolution of gibbon songs. Biological Reviews, 77, 57–76.
23.
GreenfieldM. D. (1994). Synchronous and alternating choruses in insects and anurans: Common mechanisms and diverse functions. American Zoologist, 34, 605–15.
24.
GriffithsT.JohnsrudeI.DeanJ. L.GreenG. G. R. (1999). A common neural substrate for the analysis of pitch and duration pattern in segmented sound? NeuroReport, 10, 3825–30.
25.
HagenE. H.BryantG. A. (2003). Music and dance as a coalition signaling system. Human Nature, 14, 21–51.
26.
HarringtonF. H. (1989). Chorus howling by wolves: Acoustic structure, pack size and the Beau Geste effect. Bioacoustics, 2, 117–36.
27.
HauserM. D.McDermottJ. (2003). The evolution of the music faculty: A comparative perspective. Nature Neuroscience, 6, 663–68.
28.
HowardD. M.AngusJ. A. S. (1998). A comparison between singing pitching strategies of 8 to 11 year olds and trained adult singers. Logopedics Phoniatrics Vocology, 22, 169–76.
29.
HuronD. (2001). Is music an evolutionary adaptation? In ZatorreR. J.PeretzI. (eds.), The biological foundations of music (pp. 43–61). New York: New York Academy of Sciences.
30.
IacoboniM.WoodsR. P.BrassM.BekkeringH.MazziottaJ. C.RizzolattiG. (1999). Cortical mechanisms of human imitation. Science, 286, 2526–28.
31.
JacobP.JeannerodM. (2005). The motor theory of social cognition: A critique. Trends in Cognitive Sciences, 9, 21–5.
32.
JanikV. M.SlaterP. J. B. (1997). Vocal learning in mammals. Advances in the Study of Behavior, 26, 59–99.
33.
JanikV. M.SlaterP. J. B. (2000). The different roles of social learning in vocal communication. Animal Behaviour, 60, 1–11.
34.
JarvisE. (2004). Learned birdsong and the neurobiology of human language. Annals of the New York Academy of Sciences, 1016, 749–77.
35.
JürgensU. (1992). On the neurobiology of vocal communication. In PapousekH.JürgensU.PapousekM. (eds.), Nonverbal vocal communication: Comparative and developmental approaches (pp. 31–42). Cambridge, UK: Cambridge University Press.
36.
KalmusH.FryD. B. (1980). On tune deafness (dysmelodia): Frequency, development, genetics and musical background. Annals of Human Genetics, 43, 369–82.
37.
KirzingerA.JürgensU. (1982). Cortical lesion effects and vocalization in the squirrel monkey. Brain Research, 233, 299–315.
38.
KoelschS.GunterT. C.CramonD. Y.ZyssetS.LohmannG.FriedericiA. D. (2002). Bach speaks: A cortical “language-network” serves the processing of music. NeuroImage, 17, 956–66.
39.
KuhlP. K.MeltzoffA. N. (1996). Infant vocalizations in response to speech: Vocal imitation and developmental change. Journal of the Acoustical Society of America, 100, 2425–38.
40.
LiebermanP. H.KlattD. H.WilsonW. H. (1969). Vocal tract limitations on the vowel repertoires of rhesus monkey and other nonhuman primates. Science, 164, 1185–87.
41.
LomaxA. (1968). Folk song style and culture. New Brunswick: Transaction Books.
42.
MaessB.KoelschS.GunterT. C.FriedericiA. D. (2001). Musical syntax is processed in Broca's area: An MEG study. Nature Neuroscience, 4, 540–45.
43.
Marslen-WilsonW. (1973). Linguistic structure and speech shadowing at very short latencies. Nature, 244, 522–23.
44.
MerriamA. P. (1964). The anthropology of music. Evanston, Ill.: Northwestern University Press.
45.
MillerG. F. (2000). The mating mind: How sexual selection shaped the evolution of human nature. New York: Doubleday.
46.
MitaniJ. C.Gros-LouisJ. (1998). Chorusing and call convergence in chimpanzees: Tests of three hypotheses. Behaviour, 135, 1041–64.
47.
MorleyI. (2002). Evolution of the physiological and neurological capacities for music. Cambridge Archaeological Journal, 12, 195–216.
48.
MurphyJ. R. (2005). Motor speech disorders: Substrates, differential diagnosis, and management. 2ndSt. Louis: Elsevier Mosby.
49.
NattiezJ.-J. (1999). Inuit throat-games and Siberian throat singing: A comparative, historical, and semiological approach. Ethnomusicology, 43, 399–418.
50.
PapousekM. (1996). Intuitive parenting: A hidden source of musical stimulation in infancy. In DeliègeI.SlobodaJ. (eds.), Musical beginnings: Origins and development of musical competence (pp. 88–112). Oxford: Oxford University Press.
51.
ParsonsL. M. (2001). Exploring the functional neuroanatomy of music performance, perception and comprehension. In ZatorreR. J.PeretzI. (eds.), The biological foundations of music (pp. 211–31). New York: New York Academy of Sciences.
52.
PenhuneV. B.ZatorreR. J.EvansA. C. (1997). Cerebellar contributions to motor timimg: A PET study of auditory and visual rhythm production. Journal of Cognitive Neuroscience, 10, 752–765.
53.
PeretzI.AyotteJ.ZatorreR. J.MehlerJ.AhadP.PenhuneV. B.JutrasB. (2002). Congenital amusia: A disorder of fine-grained pitch discrimination. Neuron, 33, 185–91.
54.
PetridesM.PandyaD. N. (2001). Comparative cytoarchitectonic analysis of the human and macaque ventrolateral prefrontal cortex and corticocortical connection patterns in the monkey. European Journal of Neuroscience, 16, 291–310.
55.
PollackG. (2000). Who, what, where? Recognition and localization of acoustic signals by insects. Current Opinion in Neurobiology, 10, 763–67.
56.
PollockJ. I. (1986). The song of the Indris (Indri Indri; Primates: Lemuroidea): Natural history, form, and function. International Journal of Primatology, 7, 225–67.
57.
PorterR. J.LubkerJ. F. (1980). Rapid reproduction of vowel-vowel sequences: Evidence for a fast and direct acoustic-motor linkage in speech. Journal of Speech and Hearing Research, 23, 593–602.
58.
PoulsonC. L.KymissisE.ReeveK. F.AndreatorsM.ReeveL. (1991). Generalized vocal imitation in infants. Journal of Experimental Child Psychology, 51, 267–79.
59.
RameauJ.-P. (1722/1971). Treatise on harmony Philip Gossett, translator. New York: Dover Publications.
60.
RaoS. M.MayerA. R.HarringtonD. L. (2001). The evolution of brain activation during temporal processing. Nature Neuroscience, 4, 317–23.
61.
RichmanB. (2000). How music fixed “nonsense” into significant formulas: On rhythm, repetition, and meaning. In WallinN. L.MerkerB.BrownS. (eds.), The origins of music (pp. 301–14). Cambridge, MA: MIT Press.
62.
RizzolattiG.ArbibM. A. (1998). Language within our grasp. Trends in Neurosciences, 21, 188–94.
63.
RizzolattiG.FadigaL.FogassiL.GalleseV. (1999). Resonance behaviors and mirror neurons. Archives Italiennes de Biologie, 137, 85–100.
64.
RizzolattiG.FadigaL.GalleseV.FogassiL. (1996). Premotor cortex and the recognition of motor actions. Cognitive Brain Research, 3, 131–41.
65.
RousseauJ.-J. (1781/1998). Essay on the origin of languages. In Essay on the origin of languages and writings related to music (pp. 289–332). Translated and edited by John T. Scott. Hanover: University Press of New England.
66.
SachsCurt (1943). The rise of music in the ancient world east and west. New York: W. W. Norton and Company.
67.
ScharffC.NottebohmF. (1991). A comparative study of the behavioral deficits following lesions of various parts of the zebra finch song system: Implications for vocal learning. Journal of Neuroscience, 11, 2896–913.
68.
SchulerA. L. (1979). Echolalia: Issues and clinical applications. Journal of Speech and Hearing Disorders, 44, 411–34.
69.
SimonyanK.JürgensU. (2003). Efferent subcortical projections of the laryngeal motorcortex in the rhesus monkey. Brain Research, 974, 43–59.
70.
SimpsonH.B.VicarioD. S. (1990). Brain pathways for learned and unlearned vocalizations differ in zebra finches. Journal of Neuroscience, 10, 1541–56.
71.
SkoylesJ. R. (1998). Speech phones as a replication code. Medical Hypotheses, 50, 167–73.
72.
SpencerH. (1857). The origin and function of music. Fraser's Magazine, 56, 396–408.
73.
SpencerH. (1890). The origin of music. Mind, 15, 449–68.
74.
StewartL.WalshW.FrithU.RothwellJ. C. (2001). TMS produces two dissociable types of speech disruption. Neuroimage, 13, 472–78.
75.
Studdert-KennedyM. (2000). Imitation and the emergence of segments. Phonetica, 57, 275–83.
76.
ThomasD. A. (1995). Music and the origins of language: Theories from the French enlightenment. Cambridge, UK: Cambridge University Press.
77.
TramoM. J.CarianiP. A.DelgutteB.BraidaL. D. (2001). Neurobiological foundations for the theory of harmony in western tonal music. In ZatorreR. J.PeretzI. (eds.), The biological foundations of music (pp. 92–116). New York: New York Academy of Sciences.
78.
TrehubS. E. (2001). Musical predispositions in infancy. In ZatorreR. J.PeretzI. (eds.), The biological foundations of music (pp. 1–16). New York: New York Academy of Sciences.
79.
WallinN. L.MerkerB.BrownS. (eds.) (2000). The origins of music. Cambridge, MA: MIT Press.
80.
WicklerW.SiebtU. (1982). Song splitting in the evolution of duetting. Zeitschrift für Tierpsychologie, 59, 127–40.
81.
YuleG. (1996). Pragmatics. Oxford: Oxford University Press.
82.
ZatorreR. J.BinderJ. R. (2000). Functional and structural imaging of the human auditory cortex. In TogaA. W.MazziottaJ. C. (eds.), Brain mapping: The systems (pp. 365–402). San Diego: Academic Press.
83.
ZatorreR. J.EvansA. C.MeyerE. (1994). Neural mechanisms underlying melodic perception and memory for pitch. Journal of Neuroscience, 14, 1908–19.
