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First published online March 10, 2014

The Contribution of Segmental and Tonal Information in Mandarin Spoken Word Processing

Abstract

Two priming experiments examined the separate contribution of lexical tone and segmental information in the processing of spoken words in Mandarin Chinese. Experiment 1 contrasted four types of prime–target pairs: tone-and-segment overlap (ru4-ru4), segment-only overlap (ru3-ru4), tone-only overlap (sha4-ru4) and unrelated (qin1-ru4) in an auditory lexical decision task with 48 native Mandarin listeners. Experiment 2 further investigated the minimal segmental overlap needed to trigger priming when tonal information is present. Four prime–target conditions were contrasted: tone-and-segment overlap (ru4-ru4), only onset segment overlap (re4-ru4), only rime overlap (pu4-ru4) and unrelated (qin1-ru4) in an auditory lexical decision task with 68 native Mandarin listeners. The results showed significant priming effects when both tonal and segmental information overlapped or, although to a lesser extent, when only segmental information overlapped, with no priming found when only tones matched. Moreover, any partial segmental overlap, even with matching tonal cues, resulted in significant inhibition. These data clearly indicate that lexical tones are processed differently from segments, with syllabic structure playing a critical role. These findings are discussed in terms of the overall architecture of the processing system that emerges in Mandarin lexical access.

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Appendices

Appendix 1. Experiment 1 stimuli.
TargetsPrimes
wordSTSTUR
bi1bi1bi2suan1han3
bo1bo1bo2zhua1man3
guo1guo1guo2can1si3
sui1sui1sui2ca1lan3
huan1huan1huan3jie1fo2
tao1tao1tao3jiu1run4
tie1tie1tie3san1qun2
tui1tui1tui3sang1fen2
chan1chan1chan4gu1cuo4
heng1heng1heng4xiao1liao2
zang1zang1zang4bei1kuo4
zeng1zeng1zeng4gua1ruo4
hong2hong2hong1ze2lue:4
kang2kang2kang1su2chui1
lu2lu2lu1pang2cang1
pa2pa2pa1xun2kui4
lou2lou2lou3xiang2jiang1
cheng2cheng2cheng3xi2dai1
rao2rao2rao3xu2geng4
zhe2zhe2zhe3nin2shan4
niang2niang2niang4mou2duo3
pi2pi2pi4chong2kuan3
tu2tu2tu4meng2xing3
xia2xia2xia4hou2zhen3
biao3biao3biao1ren3cong1
pao3pao3pao1zen3jun44
qian3qian3qian1lu:3le4
zao3zao3zao1qing3die1
cao3cao3cao2leng3sun1
chuang3chuang3chuang2di3shi1
du3du3du2lao3hen4
zuo3zuo3zuo2gai3te4
guang3guang3guang4ji3lei2
kan3kan3kan4niu3liu2
lian3lian3lian4fou3de2
shuai3shuai3shuai4ken3ceng2
cha4cha4cha1nong4hui3
dun4dun4dun1ta4ma3
fan4fan4fan1shou4nu:3
shai4shai4shai1hun4long3
cun4cun4cun2gao4fa2
mai4mai4mai2ku4lun2
mi4mi4mi2fang4kua1
nao4nao4nao2pei4ling2
nu4nu4nu3zha4mang2
quan4quan4quan3lie4xie1
ru4ru4ru3sha4qin1
tong4tong4tong3se4diu1
Appendix 2. Experiment 2 stimuli.
TargetsPrimes
wordSTT_OnsetT_RimeUR
bi1bi1bao1qi1han3
bo1bo1bin1po1man3
guo1guo1gan1tuo1si3
sui1sui1sen1zhui1lan3
huan1huan1hei1chuan1fo2
tao1tao1ting1sao1run4
tie1tie1tun1bie1qun2
tui1tui1tan1gui1fen2
chan1chan1che1ban1cuo4
heng1heng1hu1feng1liao2
zang1zang1zu1gang1kuo4
zeng1zeng1zai1deng1ruo4
hong2hong2huai2rong2lue:4
kang2kang2ke2tang2chui1
lu2lu2lin2fu2cang1
pa2pa2ping2na2kui4
lou2lou2lang2chou2jiang1
cheng2cheng2chai2beng2dai1
rao2rao2reng2mai2geng4
zhe2zhe2zhu2ge2shan4
niang2niang2nuo2liang2duo3
pi2pi2peng2li2kuan3
tu2tu2tai2chu2xing3
xia2xia2xue2jia2zhen3
biao3biao3bu3miao3cong1
pao3pao3pin3chao3jun44
qian3qian3qu3xian3le4
zao3zao3zui3kao3die1
cao3cao3ci3dao3sun1
chuang3chuang3chi3huang3shi1
du3du3dang3mu3hen4
zuo3zuo3zi3huo3te4
guang3guang3gei3shuang3lei2
kan3kan3kou3dan3liu2
lian3lian3luo3nian3de2
shuai3shuai3sheng3guai3ceng2
cha4cha4chen4la4hui3
dun4dun4diao4gun4ma3
fan4fan4fei4pan4nu:3
shai4shai4shun4pai4long3
cun4cun4cai4kun4fa2
mai4mai4mo4sai4lun2
mi4mi4men4ni4kua1
nao4nao4nie4hao4ling2
nu4nu4nai4cu4mang2
quan4quan4qie4xuan4xie1
ru4ru4re4pu4qin1
tong4tong4ti4zong4diu1

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