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Notes for LING-UA-2
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---
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title: Intro
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date: 2025-09-02
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---
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# Intro
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## Your teaching team
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- Dr. Laurel MacKenzie
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- Dr. Lisa Davidson
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## The scientific study of language (LING-UA 2)
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### Linguistics: What do linguists want to know?
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- What is language?
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- How is language physically embodied and cognitively processed?
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- How is language use socially embedded?
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*(from U. of Michigan Dept. of Linguistics)*
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### In this class, we’ll try to find out…
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- **What is language?** Are names part of language, or are they separate? Do they show the same sorts of patterns as non-name elements of language? How do names and naming processes differ (or not) around the world?
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- **How is language physically embodied and cognitively processed?** How do our brains produce and perceive names? Is it different from how they produce and perceive non-name elements of language?
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- **How is language use socially embedded?** How do names reflect the social characteristics of their bearers? Can one’s name influence their life outcomes?
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## Names and society
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- First names, just like other aspects of language, have social correlates. Names and language can be signals about who we are and where we come from. *(Namegrapher)*
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- But names can also be a double-edged sword. When society discriminates against people from certain backgrounds, if one’s background is evident through their name, names can be a target of discrimination.
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---
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title: Sounds (Consonants, Vowels, Syllables & Stress)
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date: 2025-09-04/09/11
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---
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# Consonants
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## How we classify consonants
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Consonants are described by **place of articulation** (where in the vocal tract the constriction is), **voicing** (vocal folds vibrating or not), **manner of articulation** (how narrow/complete the constriction is), and **oral vs. nasal** airflow.
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### Places of articulation (English examples)
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- **Labial**
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- **Bilabial**: [p] *pit*, [b] *bit*, [m] *mitt*
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- **Labiodental**: [f] *fan*, [v] *van*
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- **Coronal**
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- **Interdental**: [θ] *breath*, [ð] *breathe*
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- **Alveolar**: [t] *tip*, [d] *dip*, [s] *sip*, [z] *zip*, [n] *nip*, [l] *lip*, [ɹ] *rip*
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- **Alveo-palatal**: [ʃ] *Asher*, [ʒ] *azure*, [] *chip/search*, [] *judge*
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- **Palatal**: [j] *yacht*
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- **Dorsal**
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- **Velar**: [k] *pick*, [g] *pig*, [ŋ] *ping*
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- **Labiovelar**: [w] *wig*
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- **Glottal**: [h] *head*.
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### Voicing
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Some pairs differ **only** in voicing while oral articulation is the same (e.g., [s] vs. [z]). A quick test is whether you feel vocal-fold “buzz.”
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### Manners of articulation
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- **Stops**: complete oral closure -> [p b t d k g]
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- **Fricatives**: narrow constriction with turbulent airflow -> [f v θ ð s z ʃ ʒ h]
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- **Affricates**: stop + fricative release -> [tʃ dʒ]
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The set **stops+fricatives+affricates** are **obstruents**.
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- **Nasals**: oral closure, airflow through nose -> [m n ŋ]
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- **Approximants**: relatively open oral tract -> [l ɹ w j]
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**Nasals+approximants** are **sonorants**; in English, sonorants are voiced.
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> **Quick practice:** Transcribe and label the consonants in your first name.
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---
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# Vowels
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## How we classify vowels
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Vowels are described by **height** (tongue high–low), **backness** (front–back), and **lip rounding**. These dimensions are summarized in the **vowel quadrilateral**.
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### American English vowel inventory (high-level)
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- **Front**: [i] (*heed*), [ɪ] (*hid*), [] (*hayed*), [ɛ] (*head*), [æ] (*had*)
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- **Back**: [u] (*who’d*), [ʊ] (*hood*), [] (*hoed*), [ɔ] (*hawed*, not in all dialects), [ɑ] (*hod*)
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- **Central**: [ʌ] (*cut*), [ə] (*sofa*, unstressed “schwa”)
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Rounded back vowels include [u ʊ oʊ ɔ].
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### Diphthongs vs. monophthongs
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- **Diphthongs**: vowel quality moves during the syllable -> [], [], [] (*bite*), [] (*bout*), [ɔɪ] (*boy*)
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- **Monophthongs**: relatively stationary tongue configuration.
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### Lax vowels and word-final position
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The **lax** set [ɪ ɛ æ ʊ] (and [æ], [ɛ]) have distributional constraints in American English-for instance, they generally do **not** appear word-finally without a following consonant.
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> **Quick practice:** Transcribe and label the vowels in your first name.
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---
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# Syllables & Stress
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## What is a syllable?
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A **syllable** minimally contains a vowel; many English syllable shapes combine consonants and vowels (e.g., **CV** *tea*, **CCV** *glue*, **CVC** *pot*, **CCVCC** *stink*). Complex clusters occur in words like *sixths* [sɪksθs], *twelfths* [twɛlfθs].
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### Parts of a syllable
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- **Nucleus** (vowel)
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- **Onset** (consonants before nucleus)
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- **Coda** (consonants after nucleus).
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### Syllable-building heuristics (English)
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1. **Nucleus Rule:** create a syllable for every vowel/diphthong.
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2. **Onset Rule:** maximize onset consonants-but only sequences that can begin a word may be onsets (*e.g.*, [ŋ], /ktr/ cannot start English words).
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3. **Coda Rule:** leftover consonants fill the coda.
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Try parsing **conflict** and **manuscript** using these rules.
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## Phonotactics (what sequences are allowed)
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- English allows clusters but not all combinations: *[ktɑm]* is ill-formed in English (though cf. Polish [kto] *‘who’*); *strict* [stɹɪkt] is fine, but *[stlɪtk]* is not.
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- **Nasal place assimilation** before oral stops: *romp* [ɹɑmp], *lent* [lɛnt], *skunk* [skʌŋk].
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- Some segments occur only in onsets or only in codas: [tʌŋ] ‘tongue’ vs. *[ŋʌt]*; [hɪm] ‘him’ vs. *[mɪh]*.
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- Some vowels require codas; **lax** vowels [ɪ ɛ æ ʊ] cannot appear word-finally without a following consonant (e.g., [pɛg] but not *[]).
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## Lexical stress
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English contrasts stress positions: **OBject** (noun) vs. **obJECT** (verb); **CONflict** (n) vs. **conFLICT** (v). Prominence typically involves higher pitch, longer duration, and greater intensity on the stressed vowel.
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### Common stress patterns
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- **Two syllables:** **Trochee** (first-syllable stress) *never, window, sprinkle*; **Iamb** (second-syllable stress) *indeed, perhaps, amuse*.
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- **Three syllables:** **Final** (*introduce, guarantee, comprehend*), **Penultimate** (*bandana, December, regardless*), **Antepenultimate** (*excellent, festival, happily*).
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> **Names & stress:** Try naming examples that fit each pattern; note why some shortened forms are impossible (*Jennifer -> Jen*, but not *Je*; *Alfred -> Al/Alf*, but not *Alfr*).
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title: Naming Change & Blends
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date: 2025-09-16/18/23
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---
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# Naming & Change - How tastes shift over time
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**Themes**
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- Names behave like fashion: popular tastes evolve in orderly, progressive ways, then reverse once saturation is reached (“ratchet effect”).
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- External events can nudge trends, but broad patterns often diffuse socially without central coordination.
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- US given names have diversified over time.
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**Explore**
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- Try NameGrapher to visualize: a *fad* name (spike), a *U-shaped* revival, an *obsolete* fade-out, and a *new* spelling post-1980s.
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- Compare wording variants in corpora (e.g., Google Books Ngram Viewer) to see analogous “fashion cycles” in language.
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**Discussion prompts**
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- Why do many families independently converge on similar name choices?
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- What mechanisms could explain progression -> reversal -> slow cyclic return?
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---
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# Name Blends - Portmanteaux of personal names
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**Idea**: Proper names can blend (e.g., *Kim Kardashian* + *Kanye West* -> **Kimye**), following phonological and orthographic pressures.
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**Probabilistic constraints (tendencies, not rules)**
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1. **Overlap**: Blend where sounds/spelling overlap.
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2. **Onset conservation**: The name with the more complex onset tends to come first.
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3. **Lexical neighborhood**: Prefer outputs that sound like existing words (avoid negative associations).
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4. **Orthographic transparency**: Keep common sound↔spelling correspondences.
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5. **Understandability**: Result should clearly reveal both sources (match syllable count or stress when helpful).
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**Try it**
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- Justify given celebrity blends using the constraints above.
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- For pairs with two candidate blends, argue which is “better” and why.
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- Create and defend your own blends for the provided pairs.
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---
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# Trends in Name Data
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**Setup**
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- Copy the provided US and UK “Top 100/Top 10 by decade” sheets -> *File -> Make a copy*.
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- Inspect structure (esp. the **Rank** column). Use *Data -> Create a filter*.
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**String utilities**
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- Extract edges: `=RIGHT(cell, n)` and `=LEFT(cell, n)` -> build **First letter** / **Last letters** helper columns.
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- Fill formulas efficiently -> drag the **fill handle**.
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**Count/average by criteria (slow path)**
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- `=COUNTIFS(range1, "A", range2, "F", range3, "1904")` -> e.g., count girls’ names starting with **A** in 1904.
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- `=AVERAGEIFS(rank_range, first_letter_range, "A", sex_range, "F", year_range, "1904")`.
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**Pivot tables (fast path)**
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- *Insert -> Pivot table* -> set **Rows -> Year**, optionally **Columns -> Sex**.
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- **Values -> COUNTA** on a flag column (e.g., “Monarch name?”) to count; **Values -> AVERAGE** on **Rank** to track average rank over time.
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- Chart it: select pivot output -> *Insert -> Chart*.
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**Mini-project**
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- UK: Are girls’ **A-initial** names more/less common in 2014 vs. 1904?
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- US: Build a grouped flag for names ending with the **[o]** sound (various spellings) -> pivot by **Year** to see trend.
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---
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## References
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- Lieberson, *A Matter of Taste* (2000)
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- Labov (2010) on diffusion and ratchet-like change
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title: Naming & Gender
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date: 2025-09-25/30
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---
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# Broader patterns in Naming & Gender
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**Cross-linguistic cues**
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- Many languages use overt gender markers in names (e.g., Latin **-a** vs. **-us**; Lahu **cà-** vs. **nā-**).
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**English tendencies (probabilistic)**
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- Female names more likely to **start with a vowel**, **end in a vowel**, and be **longer** or **iambic**; male names more likely to end in a consonant or have voicing patterns that differ in initial segments.
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- Are these still visible today? Use the datasets above to test.
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**Psycholinguistic evidence**
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- Listeners use stress/length/finality cues to infer a novel name’s gender; such knowledge parallels other category-sound correlations (e.g., noun/verb stress biases).
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---
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# Trends
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**Task 1 - Final-sound “genderedness” (Barry & Harper scale)**
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- Score each unique name by final sound:
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+2 -> ends in [ə]; +1 -> ends in any other vowel; 0 -> final liquid/nasal; −1 -> final fricative/affricate; −2 -> final stop.
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- Then *Insert -> Pivot table* on **Top 10 by decade**: **Rows -> Year**, **Columns -> Sex**, **Values -> Average(B&H scale)** -> *Insert -> Chart*.
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- Interpret: Do average scores by sex drift over 1890–2020?
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**Task 2 - Syllable count**
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- Enter **syllables per name** -> pivot (**Rows -> Year**, **Columns -> Sex**, **Values -> Average(syllables)**) -> chart.
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- Compare trajectories with Task 1.
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---
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## References
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- Barry & Harper (1995/2000/2010) on final-sound scale and gendered endings
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- Lieberson & Bell (1992); Lieberson (2000) on fashion dynamics and diversity
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- Cutler, McQueen & Robinson (1990) on phonological distinctiveness of names
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- Wright et al. (2005); Slepian & Galinsky (2016) on segmental correlates
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- Cassidy, Kelly & Sharoni (1999) on judgments of novel names
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- Kiesling (2019); Handschuh (2019) for gender categories/markers across languages
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title: Naming & Sound Symbolism
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date: 2025-10-02
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---
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# Sound Symbolism
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**Warm-up (Bouba/Kiki)**
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Two shapes, two names. One is *bouba*, one is *kiki*.
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**Definition**
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*Sound symbolism*: when a sound or pattern of sounds “expresses a certain meaning directly and intrinsically.”
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This challenges the traditional notion of the *arbitrariness of the sign* (that sound↔meaning pairings are mostly conventional, not iconic).
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---
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## Cross-linguistic tendencies
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**Size**
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High/front vowels and palatal/voiceless segments often feel “smaller,” while low/back vowels and voiced/stop segments often feel “larger.”
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Illustrations in multiple languages (English, Spanish, French, Greek, Ewe).
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**Proximity**
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Pairs like “this” vs. “that” often show vowel contrasts that pattern with near vs. far across languages (English, French, German, Malay).
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**Emotion and connotation**
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Clusters with [ʌ] in English (e.g., *mud, grumble, ugh*) skew toward “heavy/dull/negative” meanings.
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**Shape (rounded vs. angular)**
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Bouba/kiki mappings: round sounds (e.g., /b, m, l, o, u/) -> round shapes; sharp sounds (e.g., /k, t, i, e/) -> spiky shapes.
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*All of the above are tendencies, not hard rules.*
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---
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## Names show sound symbolism too
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**Domains**
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- **Animal names**: systematic differences track perceived creature properties.
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- **Chosen names / nicknames**: speakers pick sounds that match desired persona.
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- **Invented names (e.g., Pokémon)**: systematic correlations with in-world size/power.
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---
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## Evidence from studies highlighted in class
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**Baseball player names (1920–2017)**
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“League-registered” first names show measurable correlations between phonology and player size proxies:
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- More high vowels / shorter names / more sonorants often pattern with perceived “smaller/lighter” impressions, and vice versa.
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Interpretation: when people select the public form of their name, they (probabilistically) align sound patterns with identity cues.
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**Pokémon across languages**
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Correlations between name phonology and character **size/power**:
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- Longer names, more voiced obstruents -> higher power.
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- Fewer sonorants / different place features track with evolutionary stage.
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- In Japanese data, more **labial** consonants associate with *smaller/cuter* items (mirrors broader Japanese branding tendencies).
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**“Round” vs. “sharp” names and gendered perception**
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Experimental tasks with novel names:
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- “Round-sounding” names (e.g., /b, l, m, n, u, o, ɑ/) are more often judged as fitting round/soft characters and are perceived as more feminine.
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- “Sharp-sounding” names (e.g., /k, p, t, i, e, ɛ, ʌ/) map to angular characters and are perceived as more masculine.
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Hypothesis: cultural associations (e.g., size dimorphism) + articulatory/acoustic cues -> implicit gendered expectations.
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---
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## In-class activities
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1. **Bouba/Kiki on Names**
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Given pairs like *Milo* vs. *Kai*, *Noelle* vs. *Tia*, decide: round vs. sharp, and match to shapes. Explain which segments drove your judgment.
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2. **Nickname design**
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Design a nickname that shifts the persona of a base name along a size/softness axis (e.g., from “tough/edgy” -> “cute/approachable”). Document which phonological changes you used and why.
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3. **Mini corpus test**
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Take a list of names partitioned by gender from a public top-names list. Compute quick proxies:
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- Number of high vowels, number of sonorants, number of voiced obstruents, length (in segments).
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Report which features differ by group and whether they match the tendencies above.
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---
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## Takeaways
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- Sound symbolism provides **probabilistic** mappings from form -> meaning (size, shape, emotion, social categories).
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- These mappings appear in **names** because names are curated social signals.
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- Effects are cross-linguistic but **not universal** and are mediated by culture, phonotactics, and orthography.
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- Good practice: treat them as testable hypotheses, not rules.
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---
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## References
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- Taylor (1976). On sound symbolism and arbitrariness.
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- Berlin (1995). Huambisa zoological nomenclature and sound symbolism.
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- Shih & Rudin (2021). Phonological properties of league-registered baseball player names.
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- Shih, Kawahara, et al. (2019). Cross-linguistic sound symbolism in Pokémon names.
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- Kumagai & Kawahara (2017). Labial consonants in Japanese diaper brand names.
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- Cutler, McQueen & Robinson (1990). Phonological distinctiveness of name categories.
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- Slepian & Galinsky (2016). Sound symbolism and social perception.
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- Sidhu & Pexman (2015). Round vs. sharp sounds in name gender judgments.

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