This study examines the impact of the crosslinguistic similarity of translation equivalents on word recognition by Russian-English bilinguals, who are fluent in languages with two different but partially overlapping writing systems. Current models for bilingual word recognition, like BIA+, hold that all words that are similar to the input letter string are activated and considered for selection, irrespective of the language to which they belong (Dijkstra and Van Heuven, 2002). These activation models are consistent with empirical data for bilinguals with totally different scripts, like Japanese and English (Miwa et al., 2014). Little is known about the bilingual processing of Russian and English, but studies indicate that the partially distinct character of the Russian and English scripts does not prevent co-activation (Jouravlev and Jared, 2014; Marian and Spivey, 2003; Kaushanskaya and Marian, 2007)

Dijkstra, Ton

Iakovleva, Tatiana

Piasecki, Anna E.

English

Hal-Diderot

Are you reading what I am reading? The impact of contrasting alphabetic scripts on reading English

Piasecki , Anna E.

Archive Ouverte a LUniversite Lyon 2

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Copyright © by the paper’s authors. Copying permitted for private and academic purposes. In Vito Pirrelli, Claudia Marzi, Marcello Ferro (eds.): Word Structure and Word Usage. Proceedings of the NetWordS Final Conference, Pisa, March 30-April 1, 2015, published at http://ceur-ws.org Are you reading what I am reading?  The impact of contrasting alphabetic scripts on reading English Tatiana Iakovleva CNRS, France 59, rue Pouchet 75017 Paris tatiakovleva@ yahoo.fr Anna E. Piasecki UWE Bristol Coldharbour Lane Bristol BS16 1QY Anna.Piasecki@ uwe.ac.uk Ton Dijkstra Radboud University  Montessorilaan 3 6500 HE Nijmegen T.Dijkstra@ donders.ru.nl    1 Introduction This study examines the impact of the cross-linguistic similarity of translation equivalents on word recognition by Russian-English bilinguals, who are fluent in languages with two different but partially overlapping writing systems. Cur-rent models for bilingual word recognition, like BIA+, hold that all words that are similar to the input letter string are activated and considered for selection, irrespective of the language to which they belong (Dijkstra and Van Heuven, 2002). These activation models are consistent with empirical data for bilinguals with totally different scripts, like Japanese and English (Mi-wa et al., 2014). Little is known about the bilin-gual processing of Russian and English, but stud-ies indicate that the partially distinct character of the Russian and English scripts does not prevent co-activation (Jouravlev and Jared, 2014; Marian and Spivey, 2003; Kaushanskaya and Marian, 2007).  Many Russian-English translation equiva-lents are in part composed of shared letters that can potentially activate both Russian and English word candidates. Often, these letters have am-biguous phonemic mappings across the two lan-guages. The degree of ambiguity is high espe-cially when shapes of block-letters and letters in italics overlap across languages. For instance, a printed Russian letter ‘и’ does not look like any letter of the English alphabet, but the shape of its handwritten equivalent ‘u’ perfectly coincides with the English hand-written grapheme. We identified 5 overlapping pairs of printed English block-letters and Russian letters in italics (g, r, m, n, u).  Our study started from the assumption that even when a bilingual reads English words in printed font, letter shapes also activate handwrit-ten Russian letters with similar shapes in a bot-tom-up way. We focused on the impact of con-vergence and divergence in Russian and English script coding for cognates and non-cognates. Cognates are translation equivalents with signifi-cant cross-linguistic form overlap in phonology and/or orthography (e.g., ‘marriage’ in English, ‘mariage’ in French). Cognates are generally processed more quickly by bilinguals than matched control words (for an overview of stud-ies, see Dijkstra, Miwa et al., 2010). However, as far as we know, cognate processing for the Rus-sian-English language pair has not been exam-ined before.  2 Predictions  We are making the following predictions about English word recognition by Russian-English bilinguals: 1. In English word processing, Russian-English bilinguals will activate lexical candidates that are similar to the input word in both Russian and English (language non-selective lexical access).  2. English-Russian cognates will be recognized more quickly than English control words, due to co-activation and convergence (cognate facilita-tion effect, Dijkstra, Miwa et al., 2010; Lemhöfer and Dijkstra, 2004). 3. Cognates with ambiguous orthography, i.e. shared letters mapping onto different phonemes in the two languages, will be processed more slowly than cognates with mismatching orthog-raphy, due to decreased facilitation from the oth-er cognate member. The following two predictions are more speculative and exploratory in nature.  4. Response times to cognates with transparent orthography, i.e. shared letters mapping onto the same phonemes in the two languages, will be about equal to those for cognates with mismatch-ing orthography, because transparent orthogra-phy and shared phonology will lead to increased lexical competition, but, at the same time, the 112transparency will lead to increased semantic co-activation of cognates in the two languages.   5. English control words with mismatching or-thography will be processed more quickly than words with ambiguous orthography, because less interference from the Russian alphabet is ex-pected in the first case.  3 Method To test these hypotheses, we first constructed a large database of Russian-English cognates with three, four, five or six letters in length. To our knowledge, no such database is currently avail-able to the community of researchers. Next, 75 English cognates were selected as test words in a lexical decision task. Orthographic coding was performed on English cognate words written in lower-case block letters in Arial font. The result-ing items were allocated to three categories: 1) Cognates with Ambiguous Orthography (CAO=Minus condition), composed of letters that have different phonological mappings in English and Russian (e.g. ‘guru’ might be read as /digi/ if a Russian monolingual was asked to read this string of letters); 2) Cognates with Transpar-ent Orthography (CTO=Positive condition), composed of letters that largely share their or-thographic-phonological mappings with letters of the Russian alphabet (e.g. in ‘koala’ the only mismatch with the Russian alphabet is the graph-eme ‘l’); 3) Cognates with Mismatching Orthog-raphy (CMO=Base condition), composed mostly of letters that do not exist in the Russian alphabet (e.g. ‘filter’). The cognate types were matched across conditions (CAO/CTO/CMO) in word length, frequency, and degree of cross-linguistic orthographic overlap between Russian and Eng-lish alphabets. Three groups of control words were then selected that matched the cognates of each type with respect to these three dimensions. Finally, each cognate and non-cognate was matched with a pseudo-word generated with the help of the Wuggy-software (crr.ugent.be).  Next, 20 Russian-English bilinguals were asked to rate the visual similarity between the English cognates and their Russian translation equivalents. They also rated the semantic simi-larity of all selected item pairs. Rating results showed that bilinguals mostly considered ortho-graphic congruence (as opposed to incongru-ence) between the orthography of Russian and English translation equivalents and gave higher ratings to English words that have shared orthog-raphy with the Russian alphabet. Ratings also indicated that bilinguals considered not only block-letters but also corresponding handwritten graphemes when rating the visual similarity be-tween words. In total, 37 Russian-English participants (10 male vs. 27 female; age: 19-60 years) took part in the study. At the moment of testing, all par-ticipants were residing in English-speaking coun-tries: 11 participants in Bristol, UK, 21 partici-pants in Sheffield, UK, and 5 participants in New Zealand. After the experiment, all participants rated their proficiency in English on a scale from 1 (the lowest) to 6 (the highest). Average ratings for reading, writing, speaking, and listening var-ied between 4.4 and 5. Except for two partici-pants, ages of L2 acquisition (AoA) ranged be-tween 6 and 19 years. Length of residence in an English-speaking country varied between 3 months and 21 years (mean = 33 years, SD = 11 years). Participants performed an English lexical de-cision task, in which they pressed a “yes” or a “no” button depending on whether a presented word was English or not. They were asked to press a button as quickly and accurately as possi-ble. The items were presented in a pseudo-randomized order to each participant. The ex-periment was programmed in E-Prime. Reaction times (RTs) and accuracy of responses were measured. Only correct responses to real words were included in the analyses of reaction times. 4 Results  First, all responses faster than 300 ms and slower than 3 s were removed from the data set, because they were not considered as valid measurements. Next, the data from 9 participants were excluded from analysis, because they had a response accu-racy below 70%. We removed 5 cognates, 8 con-trol words, and 14 non-words from the items, because these items had an accuracy below 70 % or had extremely slow responses. For the remain-ing 28 participants, after removing these items, cognate and control word conditions were still matched with respect to length and frequency (as shown by non-significant t-tests). None of the remaining responses were further apart than 2.5 SDs from the participant mean in each condition. The mean RT for non-words was 892 ms. Table 1 presents the mean RTs for words in each cog-nate and control word condition, as well as their accuracy.    113Condition Type Cognates Controls RT dif-ference Base 661 (82.2) .97 727 (112.7) .95 66 Minus 711 (105.7) .94 734 (106.4) .93 23 Plus 656 (89.01) .97 730 (113.1) .92 74  Table 1. Mean reaction times and accuracies for word categories (standard deviations between parentheses).  The word data were analyzed by means of a repeated-measures Analysis of Variance (ANO-VA), using cognate type (3, MO vs. AO vs. TO) and cognate status (2, cognate vs. control) as within-subject factors. This analysis resulted in main effects of Cognate Status (F (1, 27) = 94.11, p<.001), Item Type (F (2, 54) = 9.89, p<.001), and an interaction of Cognate Status with Item Type (F (2, 54) = 10.22, p<.001). Next, we did planned comparisons to test the Cognate Minus (CMO) and Cognate Plus (CTO) conditions against the Cognate Base (CMO) condition. Significant differences were found between the RTs between the Cognate Base con-dition and the Cognate Minus condition (t(27)=-5.0, p<.001 two-tailed) but not between the Cog-nate Base and the Cognate Plus condition (t(27)=.60, p=.55). There was a significant dif-ference between the Cognate Base condition and the Control Base condition (t(27)=-6.54, p<.001). Finally, no significant differences arose between the different control conditions (Control Base vs. Control Minus, t(27)=-.67, p=.51; Control Base vs. Control Plus t(27)=-.36, p=.72). 5 Discussion Russian-English bilinguals performed an English lexical decision task with purely English control words and English-Russian cognates 1) with mismatching orthography or 2) shared orthogra-phy with a) transparent or b) ambiguous map-pings on phonemes in Russian and English.  Responses to cognates were faster than to English controls (see Table 1). This cognate fa-cilitation effect is in line with prediction 1 that lexical candidates in both Russian and English are activated during Russian-English bilingual word recognition.  It also confirms prediction 2 that language non-selective lexical access takes place in Rus-sian-English word recognition. Because the ef-fect is also observed in cognates with (partially) mismatching orthography, the cognate effect may in part be ascribed to the phonological and semantic overlap in these cognates. Thus, the orthographic input representation quickly leads to an activation of sublexical and lexical phono-logical representations (cf. Peeters et al., 2013).  In line with prediction 3, the cognate facilita-tion effect is modulated by the degree of shared transparent overlap between Russian and English alphabets. Cognates with transparent orthogra-phy were processed faster than cognates with ambiguous grapheme to phoneme mappings. This finding can be explained by assuming that Russian words are co-activated with English words to the extent that they match the English letter input, irrespective of whether this matching is in terms of block letters or handwritten visual similarity. In other words, it is purely a bottom-up (signal-driven) effect.   Figure 1. Localist connectionist illustration of cognate representation and processing, adapted from Dijkstra, Miwa et al. (2010).  The finding that cognates with mismatching orthography and shared orthography with trans-parent grapheme-to-phoneme mappings are re-sponded to about equally fast, is in line with pre-diction 4, which is based on the representation for cognates that has been proposed by Dijkstra, Miwa et al. (2010). As Figure 1 indicates, both form representations of cognates are assumed to be activated based on the input and they spread activation to convergent semantic representa-tions. The co-activation of form representations results in lexical competition and interference (Dijkstra, Hilberink-Schulpen et al., 2010), whereas the convergence on semantics results in facilitation. As a result, the RT difference be-tween cognates with mismatching orthography and shared transparent orthography may be rela-tively small, due to a cancelling out of the effects of increased lexical form competition and in-creased semantic co-activation.  114Finally, in contrast to prediction 5, English control words with mismatching orthography were not processed more quickly than control words with ambiguous orthography. Apparently, mismatching orthography in general did not re-sult in any systematic interference on word proc-essing speed. Said differently, the noise intro-duced by spuriously activated word candidates from Russian with overlapping letters in the oth-er control conditions did not systematically affect the lexical decision to the English target word, although it may have affected the participants’ general decision-making strategies in the ex-periment. In terms of interactive activation mod-els, the increase in noise could be cancelled out by a somewhat higher reliance on semantic codes or global lexical activation (Grainger and Jacobs, 1996) for making the lexical decision.  In all, the obtained patterns of results are in support of interactive activation models for bi-lingual word recognition, such as the BIA+ mod-el (Dijkstra and Van Heuven, 2002) when the assumption is made that cognates are represented in terms of overlapping but lexically competing form representations and largely shared semantic representations in the two languages (Dijkstra, Miwa et al., 2010), see Figure 1. Even the somewhat counter-intuitive prediction 4 can find a reasonable explanation in terms of such mod-els. Prediction 5 was not confirmed, but the actu-ally obtained result can be interpreted in terms of slightly shifted lexical decision criteria.  This study confirms the presence of language non-selective lexical access in visual word rec-ognition by different script-bilinguals, in line with, e.g., for Korean-English Kim and Davis (2003) and for Japanese-English Hoshino and Kroll (2008), Miwa et al. (2014), and Ando et al. (2015). Moreover, it bridges research on shared scripts and different scripts by considering the partially overlapping Latin and Cyrillic scripts of English and Russian. It is innovative in showing that cross-linguistic effects depend on the degree of overlap in scripts depending on the exact characteristics of the words involved.  The study also provides indirect support for various types of models that assume co-activation of word candidates that are ortho-graphically similar to the input letter string. The set of such candidates is often referred to as the neighbourhood (Grainger and Dijkstra, 1992). Van Heuven et al. (1998) have shown that the number of neighbours within and between lan-guages affects bilingual word recognition. This result has recently been confirmed by Mulder and Dijkstra (under revision). The present study provides confirmation for these models from a completely independent perspective, that of cross-linguistic similarity effects in scripts.  To conclude, we presented evidence in favor of language non-selective lexical access in Rus-sian-English bilinguals, showing an English-Russian cognate facilitation effect, the size of which depended on whether there was overlap in orthography or not, and on whether this overlap was ambiguous or transparent relative to phonol-ogy. These effects were shown to be lexical in nature, because mismatching orthography in con-trol target words with translations that are com-pletely different in form did not show any evi-dence of differential processing.  Acknowledgments This research was made possible with support from NetWordS, the «European Network on word structure in the languages in Europe» (re-search grant n° 09-RNP-089). The authors are also deeply indebted to the EPSRC's RefNet re-search network that enabled us to collect a large part of our data. We also wanted to thank the anonymous reviewers for their helpful comments on an earlier version of this paper. References Eriko Ando, Kazunaga Matsuki, Heather Sheri-dan, and Debra Jared. 2015. The locus of Ka-takana-English masked phonological priming effects. Bilingualism: Language and Cogni-tion, 18: 101-117.  Ton Dijkstra, Béryl Hilberink-Schulpen, and Walter J. B. Van Heuven. 2010. Repetition and masked form priming within and between languages using word and nonword neigh-bors. Bilingualism: Language and Cognition, 13: 341-357. Ton Dijkstra, Koji Miwa, Bianca Brummelhuis, Maya Sappelli, and Harald R. Baayen. 2010. How cross-language similarity and task de-mands affect cognate recognition. Journal of Memory and Language, 62: 284-301. Ton Dijkstra and Walter J. B. Van Heuven. 2002. The architecture of the bilingual word recog-nition system: From identification to decision. Bilingualism: Language and Cognition, 5: 175-197. 115Jonathan Grainger and Arthur M. Jacobs. 1996. Orthographic processing in visual word rec-ognition: A multiple read-out model. Psycho-logical Review, 103: 518-565. Jonathan Grainger and Ton Dijkstra. 1992. On the representation and use of language infor-mation in bilinguals. In R. J. Harris (ed.), Cognitive Processing in Bilinguals, 207-220. Amsterdam: Elsevier. Noriko Hoshino and Judith F. Kroll. 2008. Cog-nate effects in picture naming: Does cross-language activation survive a change of script? Cognition, 106: 501-511. Olessia Jouravlev and Debra Jared. 2014. Read-ing Russian–English homographs in sentence contexts: Evidence from ERPs. Bilingualism: Language and Cognition, 17: 153-168. Margarita Kaushanskaya and Viorica Marian. 2007. Bilingual Language Processing and In-terference in Bilinguals: Evidence From Eye Tracking and Picture Naming. Language Learning, 57: 119-163. Jeesun Kim and Chris Davis. 2003. Task effects in masked cross-script translation and phono-logical priming. Journal of Memory and Lan-guage, 49: 484-499. Kristin Lemhöfer and Ton Dijkstra. 2004. Rec-ognizing cognates and interlingual homo-graphs: Effects of code similarity in language specific and generalized lexical decision. Memory and Cognition, 32: 533-550. Viorica Marian and Michael Spivey. 2003. Bi-lingual and monolingual processing of com-peting lexical items. Applied Psycholinguis-tics, 24: 173-193. Koji Miwa, Ton Dijkstra, Patrick Bolger, and Harald R. Baayen. 2014. Reading English with Japanese in mind: Effects of frequency, phonology, and meaning in different-script bilinguals. Bilingualism: Language and Cog-nition, 17: 445-463. Kimberley Mulder and Ton Dijkstra (under revi-sion). Revisiting the neighbourhood: The pro-cessing of cross-language hermits and neigh-bours in different tasks. Bilingualism: Lan-guage & Cognition. David Peeters, Ton Dijkstra, and Jonathan Grainger. 2013. The representation and proc-essing of identical cognates by late bilinguals: RT and ERP effects. Journal of Memory and Language, 68: 315-332.  Walter J. B. Van Heuven, Ton Dijkstra, and Jon-athan Grainger. 1998. Orthographic neigh-borhood effects in bilingual word recognition. Journal of Memory and Language, 39: 458-483.     116

Are you reading what I am reading? The impact of contrasting alphabetic scripts on reading English

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