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PERCEPTUAL PHENOMENA IN ENGLISH
Karabayeva Barno Bobir kizi
PhD in Philology, doctorate
Uzbekistan state world languages university
https://doi.org/10.5281/zenodo.15362313
Abstract.
Perception verbs (
see, hear, feel, taste, smell
) anchor the relation between
bodily experience and linguistic expression in English. This article surveys the scientific and
theoretical bases that explain how these verbs encode sensory information, epistemic stance,
and metaphorical meaning. It synthesises four major strands – generative event-structure
models, cognitive-linguistic embodiment theories, usage-based corpus findings, and
psycholinguistic evidence on sensorimotor simulation – and shows how each illuminates
different facets of perceptual language. By integrating these perspectives, the paper offers a
comprehensive framework for analysing perception in English and identifies research
directions in pedagogy, cross-linguistic comparison, and multimodal natural-language
processing.
Keywords:
perceptual lexicon, generative semantics, cognitive linguistics, usage-based
models, neural activation, evidentiality, sensory hierarchy, language pedagogy.
Although perception is universally grounded in sensorimotor experience, the linguistic
coding of sensory events varies across languages. English displays a striking asymmetry:
visual verbs dominate epistemic and metaphorical domains (
I see your point
), while auditory
and tactile verbs remain semantically narrower. Understanding the scientific foundations of
this pattern is essential for descriptive linguistics, second-language pedagogy, and
computational modelling. This article traces the “why” behind perceptual encodings in
English, examining theoretical proposals and empirical data that collectively explain their
semantic flexibility and syntactic versatility.
Early generative semantics treated perception verbs as statives that could nevertheless
enter causative alternations (
I saw him run
vs.
He was seen running
). Dowty (1979)
decomposed
see
into an experiencer predicate with an evidential component, predicting the
complementiser
that
in
see that + clause
contexts. Pustejovsky’s (1995) “generative lexicon”
refined this by introducing qualia roles; the agentive role of
hear
entails sound emission,
while the telic role of
taste
presupposes ingestion. Such event-structure analyses capture
argument-structure alternations but underplay embodiment, paving the way for cognitive
models.
Cognitive grammar posits that linguistic meaning arises from embodied image schemas.
Langacker (2008) models
look across the valley
as a conceptual path traversed by the
perceiver’s attentional vector. Johnson’s (1987)
container
and
path
schemas elucidate how
spatial configurations extend to abstract reasoning (
in sight
,
out of touch
). Embodied cognition
claims that language comprehension recruits sensorimotor brain regions; Barsalou (1999)
argues that understanding
rough voice
partially activates tactile cortex. Neuroimaging
confirms this: reading
sweet melody
elicits gustatory-auditory co-activation (Citron &
Goldberg, 2014). Usage-based linguistics emphasises frequency-driven entrenchment. Corpus
studies show
see
outnumbers
hear
by a factor of three in the British National Corpus,
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mirroring English speakers’ reliance on visual evidence (Deignan, 2010). Goldberg’s (1995)
Construction Grammar explains why
feel
alternates between Experiencer-Subject (
I feel the
fabric
) and Experiencer-Object (
The fabric feels soft
): constructions impose semantic roles
independent of verb subclass. Polysemy networks of
see
– literal, cognitive (“understand”),
and managerial (“supervise”) – exhibit radial organisation, with metaphorical senses radiating
from the prototypical visual core (Tyler & Evans, 2003).
Reaction-time experiments reveal modality biases: Winter (2019) found faster
processing for visual metaphors than auditory ones, supporting a “vision-as-knowledge”
hierarchy (Sweetser, 1990). Eye-tracking shows longer fixations when metaphoric verbs
mismatch context (
taste victory
) versus literal usage, highlighting the cognitive load of
cross-modal transfer (Faber & Gunter, 2017). fMRI studies document sensorimotor
simulation; Pulvermüller (2018) reports that verbs of motion and perception co-activate
premotor areas, evidencing neural reuse. English places visual perception at the apex of
sensory reliability. This hierarchy permeates evidential constructions (
It appears that …
,
It
sounds like …
) where
appear
is perceived as more authoritative than
sound
. Such asymmetry
informs pragmatic interpretation in discourse and media, shaping how speakers attribute
credibility.
Perception verbs occur in small-clause and raising constructions (
I heard him playing
/
He seems tired
). Levin & Rappaport-Hovav (2005) link these patterns to eventivity: non-finite
complements capture ongoing perception, aligning syntax with the temporal unfolding of
sensory input. At the discourse level, journalists deploy perception verbs to distance
themselves from claims (
witnesses say they saw
), demonstrating how grammatical choice
encodes stance (Bednarek, 2006). Comparative data show that Uzbek employs auditory verbs
for rumor-based evidentials (
Eshitishimcha …
“I’ve heard that …”), whereas English prefers
cognitive verbs (
I heard that …
). Such contrasts underscore the culture-specific mapping of
perception onto epistemology, bearing implications for translation and intercultural
pragmatics.
Pedagogy:
Awareness of perception alternations aids learners in mastering subtle
aspectual distinctions (
I listened to her sing
vs.
I heard her singing
).
Computational Linguistics:
Multimodal embeddings integrating vision and language
benefit from embodied semantics, improving tasks like caption generation (Lu
et al., 2019).
Neuroscience:
Longitudinal fMRI studies on bilinguals could test whether
second-language acquisition restructures sensory cortices, probing neuroplasticity in
perceptual semantics.
Discourse Studies:
Analysing perception verbs in misinformation contexts may reveal
how evidential strategies influence belief.
The scientific foundations of perceptual language in English emerge at the intersection
of generative syntax, cognitive embodiment, corpus frequency, and neural simulation. These
complementary lenses explain why perception verbs are semantically rich, syntactically
flexible, and pragmatically powerful. Future work that blends corpus analytics, experimental
methods, and cross-linguistic comparison will deepen our understanding of how language
encodes the human sensorium..
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Используемая литература:
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