
2025
3(83)
Anna Jaglarz*, Berkay Turgut**
Research through colour-based design:
Supporting the learning and well-being of children with autism
DOI: 10.37190/arc250313
Published in open access. CC BY NC ND license
Abstract
Planning an educational environment dedicated to children with autism presents a signiîżcant challenge for designers. The appropriate colour
arrangement of classroom interiors can inîuence, shape, and control their behaviour, activities, learning processes, skill development, and acqui-
sition of experiences. Furthermore, it can enhance the eî””ectiveness and productivity of their actions. It may also contribute to ensuring protection
and safety, as well as comfort and well-being in the spaces where children spend their daily lives. Numerous studies emphasize that the colours of
educational environments have physiological, emotional, and cognitive eî””ects on students, which is particularly relevant when designing interiors for
educational institutions dedicated to children with cognitive disorders. Appropriate colours can have a signiîżcant impact on their interaction with the
environment, which is often limited or impaired. The aim of the present study was to explore and expand the scientiîżc foundations for the selection
of colour schemes in educational environments designed for children with neurodevelopmental disorders, including children with autism spectrum
disorder (ASD). The research process employs a literature review method, analyzing and reviewing scientiîżc sources related to the application of
colours in educational spaces and environments dedicated to individuals with autism. Additionally, the study utilizes survey methodology and the
âResearch Through Designâ approach, integrating design activities into the research process. A crucial source of knowledge is the stimulus material
created by the designers, which facilitates the acquisition of new insights into the needs, preferences, and expectations of autistic children in their
educational environment.
Key words: architecture, research through design, colour perception, autism-friendly classroom, well-being in learning spaces
Introduction
Ergonomic interior design ensures human health, physical
condition, mental well-being, and social interactions. A cru-
cial aspect of interior design is analyzing and controlling
the psycho-physical eî””ects of a given space on its users.
The interior environment can inîuence moods, behaviours,
activities, productivity, and overall well-being. A speciîżc
interior can have either a positive or negative impact on its
users; therefore, it is essential to examine the factors that
may beneîżt speciîżc users in particular spaces. Interior de-
sign involves selecting and arranging various elements
such
as forms, lines, divisions, textures, colours, and lighting.
Among these, colours hold special signiîżcance as they de
-
îżne spatial diversity, help diî””erentiate individual elements,
highlight diî””erent zones, emphasize divisions, and create
a speciîżc mood, climate, and atmosphere within the space.
Properly planning a colour-based design concept is crucial,
especially when the users of a given space include individ-
uals with special needs, such as those with cogni
tive im-
pairments (Nair et al. 2022). Findings from previous studies
suggest that scientists and designers should pay more atten-
tion to the interiors where autistic children and individuals
with psychological disorders reside, including those with
cognitive processing diî”¶culties. Aisha Issa Al-Badrani and
Reham A. Sanad (2022) emphasize that appropriate colours
can signiîżcantly inîuence their interaction with the envi-
ronment, which is often limited or impaired.
Designing an educational environment for children with au -
tism presents a major challenge for designers. A well-structured
* ORCID: 0000-0001-9869-2655. Faculty of Architecture, Wro-
cĆaw University of Science and Technology, Poland, e-mail: anna.jaglarz
@
pwr.edu.pl.
** ORCID: 0009-0002-0082-1784. Faculty of Architecture, Wro -
cĆaw University of Science and Technology, Poland.
132 Anna Jaglarz, Berkay Turgut
classroom interior can shape, inîuence, and regulate their be -
haviour, activities, learning processes, skill development, and
ex perience acquisition. Moreover, it can enhance the eî”¶-
ciency and productivity of their actions while contributing to
their sense of security, comfort, and well-being in their daily
environment. Architectural design that takes into account the
sensory needs of individuals with autism signiîżcantly impacts
concentration, community functioning skills, and the educa-
tional eî””ectiveness of children. Such environments can posi-
tively inîuence behaviour by enabling children with autism to
better develop skills and acquire experiences while simultane-
ously fostering a sense of comfort and safety. Factors such as
the sensory quality of the environment, its intelligibility, and
predictability are critical for designing spaces tailored to the
needs of children with ASD. Scientiîżc literature consistently
indicates that the design of a well-organized, safe, and stim-
ulating classroom interior is essential for supporting the de-
velopment, learning, and overall well-being of children with
autism (Tola et al. 2021).
The design of facilities and interiors intended for indi-
viduals with autism requires specialized knowledge from
designers. As such, classroom design, particularly colour
planning should be rooted in both psychological theory and
empirical user feedback. However, many design decisions
in educational interiors are still based on intuition or gen-
eralized aesthetic preferences rather than direct input from
neurodivergent users. This gap has prompted a growing
interest in participatory and user-informed research meth-
ods. Understanding how children with ASD perceive and
respond to diî””erent colour palettes is essential for formu-
lating design strategies that enhance their comfort, focus,
and inclusion.
Autism Spectrum Disorder (ASD) is a complex neurode-
velopmental condition characterized by diî””erences in com-
munication, behaviour, and sensory processing. Individuals
with autism spectrum disorder, including those with As-
pergerâs syndrome, frequently experience signiîżcant diî”¶-
culties with sensory processing. These challenges typically
manifest as hypersensitivity (i.e., overstimulation) and hy-
posensitivity (i.e., understimulation). Hypersensitivity re-
fers to an increased sensitivity to sensory stimuli, where an
excessive inîux of sensory input can become overwhelm-
ing, potentially leading to stress, anxiety, or behavioural
disturbances. In contrast, hyposensitivity denotes a reduced
sensory responsiveness, wherein insuî”¶cient visual or other
sensory stimulation may result in social withdrawal, dimin-
ished interaction, and decreased cognitive alertness. Indi-
viduals with ASD often display either hyper- or hypo-sen-
sitivities to sensory inputs such as light, sound, and colour.
In classroom settings, these sensitivities can signiîżcantly
aî””ect a studentâs ability to concentrate, interact, and learn.
Given this, the design of educational environments should
not only accommodate these diî””erences but actively sup-
port students in achieving optimal cognitive and emotional
functioning. In educational settings, where children with
autism spend signiîżcant time, thoughtful colour selection
can improve emotional regulation, reduce overstimulation,
and support learning. Conversely, the wrong colour choices
may lead to sensory overload, emotional distress, or disen-
gagement (Ben-Sasson et al. 2009).
This research aims to explore how children with ASD
respond to colour in educational spaces by combining the-
oretical literature with empirical investigation. Speciîżcally,
the study integrates academic îżndings with a school-based
colour preference survey to identify which colour palettes
align with sensory comfort and perceived well-being. Rather
than focusing solely on functional performance, this project
adopts a phenomenological lens, seeking to understand how
spatial experience, perception, and emotional resonance in-
tersect in colour-related design choices. Additionally, this
study raises important questions: Do children with autism
prefer muted or vibrant colour palettes? Are there univer-
sal colour strategies that can accommodate both autistic and
neurotypical users? Can controlled contrasts or moderate
complexity be beneîżcial in certain sensory proîżles? By
addressing these questions, the study aims to inform inclu-
sive and responsive design strategies for autism-supportive
classrooms.
The following research questions were formulated:
â What types of interior colour palettes are most pre-
ferred by children with Autism Spectrum Disorder in learn-
ing environments?
â How do these preferences correspond with commonly
recommended colour guidelines for ASD-friendly spaces?
â
Can visual preference surveys inform evidence-based
design strategies for autism-supportive educational interiors?
The îżndings of studies can directly serve as guidelines
for designers, helping to improve the overall functioning of
autistic children in society.
The impact of interior colours
on autistic children and individuals
with psychological disorders
Many studies have attempted to decipher the physiolo gi-
cal and psychological eî””ects of colours observed in children
with autism. Numerous behavioural changes are attributed
to the colours present in their immediate surroundings. Co-
lours can also inîuence emotions and determine learning
outcomes. Autistic children are highly sensitive to colours,
which aî””ects their perception. Most of them perceive co-
lours with greater intensity. Therefore, colours used in in-
terior spaces inîuence their mood, behavior, activity, learn-
ing, and development, making careful selection essential
(Franklin et al. 2008). Both an environment that lacks stim-
ulation and one that is overly stimulating can be detrimen-
tal to students. Classrooms should be visually engaging to
stimulate the learning process and improve the behaviour of
students with ASD. Some studies suggest that neutral co-
lours are essential to prevent overstimulation, while others
argue that white and bright work-spaces reduce eî”¶ciency
and cause anxiety. So far, no deîżnitive formula has been
established for the optimal use of colours in classrooms.
However, the strong impact of colour and its key role in
designing educational spaces for autistic children is widely
emphasized (Gaines et al. 2014).
The chosen colour scheme in interiors must account for
visual sensitivity, which is of utmost importance for autistic
children with sensory processing disorders, as it can inîu-
ence their mood, learning ability, and overall functioning
Research through colour-based design: Supporting the learning and well-being of children with autism 133
(Nair et al. 2022). It is crucial to emphasize the impact of
colours and the importance of using colour therapy to sup-
port autistic children, allowing them to function without
discomfort in a calming environment while also correcting
behavioural irregularities (AltenmĂŒller-Lewis 2017; Gha-
zali, Sakip and Samsuddin 2018).
Positive effects of appropriate colour choices
Analysis of colour preferences among autistic children
has shown that pastel, matte, and muted hues are the most
suitable, as they do not distract and have a calming eî””ect
(Nair et al. 2022). The use of neutral and uncomplicated
colour palettes is recommended (Black et al. 2022). Im-
plementing autism-friendly colour schemes such as pastel,
neutral, and subdued shades can create soothing sensory
experiences within interiors (AltenmĂŒller-Lewis 2017).
Some researchers suggest using light, soft, natural tones
of oî””-white and pale pink, emphasizing that the choice
should depend on the functional level of autistic children
and their sensory sensitivities (Tola et al. 2021). The use of
neutral and relaxing tones derived from natural and organ-
ic materials is considered appropriate for autism-friendly
educational environments, as such colours foster learning,
increase concentration and attention, and enhance energy
levels (AltenmĂŒller-Lewis 2017). Research recommends
the use of pastel, neutral, and calming colours with low
arousal properties, as well as the incorporation of natural
materials for walls, îoors, and ceilings (Ghazali, Sakip and
Samsuddin 2018). Observational studies indicate that stu-
dents with autism prefer gentle and natural colours, such as
blue and green, among which light blue is identiîżed as the
most appropriate colour for classrooms (Black et al. 2022).
Research conducted by Sardar S. Shareef and Guita Fari-
varsadri (2019) conîżrms that the use of grey, green, blue,
and white in classroom environments has positive eî””ects
on students with autism.
Problematic colour combinations
and their negative impact
Unfavourable and undesirable colours (including overly
dark shades) and poorly perceived colour combinations can
cause extreme behavioural changes, such as agitation, irri-
tability, disorientation, anxiety, anger, and aggression (Nair
et al. 2022). Most researchers strongly emphasize the need
to limit strong colour contrasts (Tola et al. 2021). They in-
dicate that overly stimulating, arousing colours should be
avoided, as they can cause distress and irritation. Bright co-
lours are not recommended (Ghazali, Sakip and Samsuddin
2018). It is advised to refrain from using bold and over-
ly bright colours, as they may overstimulate and disrupt
a sense of calm, potentially causing autistic children to be-
come tense and aggressive (AltenmĂŒller-Lewis 2017). Psy-
chological eî””ects have been linked to speciîżc colours. Red
and yellow can be problematic as they may cause anxiety,
distress, or confusion in autistic children, leading them to
withdraw (AltenmĂŒller-Lewis 2017). The harmful impact
of red and yellow has been observed by over 70% of teach-
ers working with autistic children. Additionally, patterns in
interior spaces should be used sparingly, as excessive visu
-
al complexity may negatively impact autistic individuals
(Black et al. 2022).
Individual colour preferences and aversions
Autistic children may have speciîżc preferences and aver-
sions to colours, which are associated with complex emo-
tional connections to certain colours. Their visual percep-
tion of colours can inîuence their emotions and behaviour
(Ludlow et al. 2014). The observed aversion to yellow may
indicate a hypersensitivity in children with ASD. Psychol-
ogists suggest that yellow is one of the most visually fa-
tiguing colours. Its perception may be overwhelming for
children with ASD, whose sensitivity to sensory stimuli is
heightened. ASD children are often hypersensitive to tactile,
auditory, and visual stimuli, including colour perception.
Their advanced visual discrimination abilities can make yel-
low an overstimulating sensory trigger, leading to sensory
overload. As a result, they may naturally avoid such a strong
stimulus as an aversive reaction. This avoidance may mani-
fest in unusual colour preferences observed in autistic chil-
dren (Grandgeorge, Masataka 2016). Studies also conîżrm
that colour preferences and obsessions in autistic children
can be linked to their favourite objects, leading to a high-
er-than-usual preference for speciîżc colours. This is an area
that requires further research, as îżndings could be valuable
for developing teaching methods for autistic children, such
as colour-based learning associations (Ludlow et al. 2014).
Design and educational strategies
in the context of the use of colours in interiors
Colour therapy plays a crucial role in helping autistic
children function comfortably and correct behavioural ir-
regularities. Proper design elements can contribute to an au-
tism-friendly environment. Best practices include avoiding
bright, highly saturated colours, as the perception of intense
hues can vary signiîżcantly among autistic individuals. Their
application should be limited to minimal elements, such
as way-îżnding maps and visual signage. It is also recom-
mended to minimize dramatic contrasts. To create a sooth-
ing sensory experience, it is recommended to use a palette
of pastel, neutral, and subdued colours. Research suggests
that shades of blue and green are preferred, while yellow
may trigger aversion due to its potentially overstimulating
eî””ect (as it can be perceived as too intense). Gradual colour
transitions and the use of soft complementary gradients are
recommended, with contrast restricted to functional purpos-
es, such as functional zoning. Colour can be used to deîżne
spatial boundaries and establish relationships between dif-
ferent areas. It can also assist in dividing spaces into distinct
zones without the need for physical barriers. Additionally,
colours can facilitate navigation by incorporating îuid, uni-
form colour pathways on the îoor or subtle colour contrasts
along edges, which visually anchor the autistic user within
the space (Mohamed, Almaz 2024). Observations indicate
that the use of colour-coded markers in interior spaces for
clear functional zoning and highlighting certain elements
can make spaces more accessible and easier to navigate for
134 Anna Jaglarz, Berkay Turgut
autistic children (AltenmĂŒller-Lewis 2017; Ghazali, Sakip
and Samsuddin 2018; Tola et al. 2021). Environments with
diî””erent sensory stimulation levels can be associated with
colours that oî””er varying degrees of stimulation. Person-
alizing spaces with individual colours or objects may help
autistic children create stronger associations with their sur-
roundings (Ghazali, Sakip and Samsuddin 2018).
To enhance architectural studentsâ and designersâ un-
derstanding of the emotional impact of colours on autistic
children, realistic research and testing must be conducted
among autistic and psychiatrically diagnosed children. Ac-
curate and comprehensive îżndings regarding their colour
preferences may guide the selection of appropriate colours
for their interior environments. Studies are needed to de-
termine the inîuence of colours on learning and the com-
pletion of speciîżc, complex tasks. Research should also
ex plore the psychological impact and its eî””ect on cogni-
tive function development in autistic children (Al-Badrani,
Sanad 2022).
Scientists also emphasize the importance of active en-
gagement and participation from parents, caregivers, teach-
ers, and young designers in research and intervention ac-
tivities to better understand autistic childrenâs behaviour.
This involvement is essential for productive experiments,
testing, and initiatives aimed at improving developmental,
behavioural, and educational outcomes for autistic children
(Fearns et al. 2022).
Detailed observations could contribute to the develop-
ment of architectural design strategies that support growth,
facilitate social interaction, and improve integration within
various facilities, including educational institutions. Aware-
ness and understanding of the speciîżc needs, preferences,
challenges, and expectations of autistic children will enable
architects and interior designers to incorporate these es-
sential psychological and physiological aspects, including
colour perception, when designing ergonomic, inclusive,
and supportive spaces for children on the autism spectrum
(Alten mĂŒller-Lewis 2017; Fabri, Satterîżeld 2019).
The importance and effects of colours
in the educational environment
The colour design of educational environments deter-
mines how supportive and stimulating these spaces are for
learning and daily life. It should facilitate identiîżcation and
well-being, support individual and social development pro-
cesses, and enhance pedagogical approaches and activities.
Colour concepts for educational institutions should be de-
veloped to ensure that colours and materials align with the
following fundamental themes:
â familiarity with the environment and a sense of se-
curity,
â eî””ective communication,
â stimulation, diî””erentiation, and heightened percep-
tion,
â motivation,
â attention and concentration,
â relaxation,
â movement,
â creativity.
The prevailing atmosphere of an educational environment
should be characterized by openness. It should foster a sense
of security and trust while radiating friendliness and accessi-
bility (Meerwein, Rodeck and Mahnke 2007). A classroom
is a shared space for teachers and students, where most of
the school day is spent. It is a place for learning, working,
communicating, and collaborating. The atmosphere should
promote a sense of security and support concentration
(Meerwein, Rodeck and Mahnke 2007). The design of class-
room interiors as educational spaces is considered one of the
most decisive factors inîuencing studentsâ behaviour and
acade mic performance. The choice of colours in classrooms
is crucial in creating an eî””ective learning environment. It
is evident that colour is not merely an aesthetic element but
plays a signiîżcant and inîuential role in shaping the rela-
tionship between users and their educational environment.
Based on empirical evidence, it has been concluded that co-
lour balance in classrooms is essential to support learning
processes. Both excessive and insuî”¶cient stimulation can
have negative consequences (Gaines et al. 2014). This chap-
ter highlights blue as a positive physical and psychological
stimulus in educational spaces, recognizing it as one of the
key design factors.
Numerous studies have examined the emotional eî””ects
of warm and cool colours and their inîuence on usersâ per-
ception. The îżndings provide insights into which colour
ranges and speciîżc hues are most eî””ective in educational
environments, shaping studentsâ perception and behaviour.
Research indicates that cool colours evoke feelings of re-
laxation, tranquility, spaciousness, comfort, security, peace,
and harmony. Additionally, it has been conîżrmed that peo-
ple feel more introverted in cool-coloured environments,
which can enhance their focus on visual and cognitive tasks.
A study analyzing studentsâ perception of colour in a class-
room environment found that the use of diî””erent colours in
the classroom interior had a statistically signiîżcant impact
on studentsâ perceptual performance. The results demon-
strated that blue-coloured spaces were perceived more pos-
itively, being described as joyful, spacious, calm, pleasant,
quiet, and comfortable compared to spaces in other colours.
Therefore, it is recommended to incorporate shades of blue
to enhance comfort conditions, improve the quality of the
educational environment, and create an eî””ective learning
space for students (Yildirim, Cagatay and Ayalp 2015).
There is evidence that the colours of architectural envi-
ronments have physiological, emotional, and cognitive ef-
fects on students. The latest research îżndings indicate that
classrooms with cool, low-saturation wall colours (e.g.,
light blue) are perceived more positively by school-aged
students compared to classrooms with warm, low-satura-
tion wall colours (e.g., cream or pink). Studies also con-
îżrm that cool colours enhance student concentration, and
shades of blue are particularly beneîżcial for completing
diî”¶cult tasks and achieving higher IQ test scores. Both
psychological and neurophysiological îżndings suggest that
cool tones improve attention and memory performance
more eî””ectively than warm tones. This can be explained
at the neurophysiological level as the eî””ect of an optimal
activation level of the sympathetic nervous system, which
supports higher alertness and cognitive eî”¶ciency. Grow-
Research through colour-based design: Supporting the learning and well-being of children with autism 135
ing evidence suggests that the colour of classroom walls
inîuences student performance. Research results indicate
that cool-toned colours increase stimulation and improve
performance in tasks related to attention and memory; these
îżndings can serve as a foundation for developing design
guidelines (Llinares et al. 2021). Based on previous studies,
it is possible to track îżndings regarding the impact of co-
lours on learning, cognitive task performance, and creativi-
ty. These insights are valuable in supporting the ergonomic
design of educational environments.
Most studies in this îżeld have focused on two of the
three primary colours, i.e., red versus blue. A word associ-
ation test conîżrmed that people generate diî””erent associa-
tions with red compared to blue in the domain of cognitive
tasks. It has been shown that red and blue activate diî””erent
motivations, which in turn enhance performance in diî””er-
ent types of cognitive tasks.
Red, due to its association with danger and mistakes (e.g.,
red-marked errors, stop signs, and warning signals), is expect-
ed to trigger avoidance motivation, which has been shown to
increase alertness and risk aversion. As a result, red should
improve performance in detail-oriented tasks (i.e., tasks re-
quiring focused, careful attention) compared to blue.
Conversely, blue has positive associations in the natural
world (e.g., the sky, water oceans, seas) and is commonly
linked to openness, calmness, and tranquility. It is likely to
activate approach motivation, as these associations signal
a safe and welcoming environment, encouraging individ-
uals to adopt innovative rather than conventional prob-
lem-solving strategies. Indeed, studies on approach motiva-
tion have shown that people behave in a more exploratory
and even risk-taking manner under the inîuence of blue.
Associated with openness and freedom, blue can activate
a promotion-focused mindset, encouraging individuals to
strive for positive outcomes, which in turn enhances per-
formance in creative tasks. Thus, blue, in contrast to red, is
more beneîżcial for tasks that require creativity and imag-
ination. The avoidance motivation triggered by red leads
to lower performance as it suppresses attempts to answer
more complex questions. The positive eî””ect of blue on
creativity should be recognized and utilized (Mehta, Zhu
2009; Elliot, Maier, 2014).
Another study examining the impact of colour on cog-
nitive task performance not only considered task type but
also task diî”¶culty. The study investigated the eî””ects of
three environmental colours red, blue, and grey on two
types of cognitive tasks (detail-oriented tasks and creative
tasks) at two diî”¶culty levels (simple or diî”¶cult). The
îżndings showed that red improved performance in simple
detail-oriented tasks. Meanwhile, blue improved perfor-
mance in diî”¶cult detail-oriented tasks as well as in cre-
ative tasks, regardless of whether the task was simple or
diî”¶cult. This research highlights the critical role of blue
in educational environments (Xia et al. 2016). Blue is per-
ceived as a motivator for intellectual and logical thinking,
supporting clarity of thought and enhancing concentration,
which is why its use is recommended in classrooms and
learning spaces. It has a positive eî””ect on studentsâ percep-
tion, instilling a sense of hope, curiosity, and satisfaction
within a group. Some studies even suggest that blue has an
awakening eî””ect on students, increasing their performance
in educational environments (Baper, Husein and Salim
2021). Some research conîżrms that colour serves as a cue
that helps students recall information. For example, blue in-
creases the likelihood that transmitted information will be
remembered. Therefore, using it in educational settings can
support knowledge retention (Chang, Xu and Watt 2018).
Other studies analyze the perception of blue as a crucial
factor in educational environments, positively inîuencing
studentsâ emotions and moods, which is particularly rele-
vant in designing interior spaces for children with cognitive
disorders. The classroom atmosphere can impact childrenâs
emotions, helping them calm down and focus on learning.
Blue is often associated with peace, tranquility, and harmo-
ny, as it creates a calming eî””ect in the environment, mak-
ing it an ideal colour for a peaceful and soothing classroom
setting.
This calming, relaxing eî””ect fosters positive emotions
and promotes childrenâs rest. It may even have healing prop-
erties, which is why it is frequently used in pediatric hos pi-
tal rooms. Studies show that children feel more relaxed and
at ease in cool-coloured environments, such as light blue,
especially in medical facilities (Thung, Ahmad 2022).
Analyzing the connection between colours, emotions, and
cognitive learning, it is crucial to emphasize that positive
emotions triggered by colours can improve cognitive and
aî””ective performance. Understanding how colours inîuence
studentsâ emotions, moods, and behaviors is valuable for
de-
signers. As a cool and passive colour, blue should be used to
maintain a sense of calm among students, fostering positive
emotions that enhance knowledge acquisition. It has been
conîżrmed that blue classroom walls provide the highest
level of relaxation and comfort (Chang, Xu and Watt 2018;
Liu et al. 2022). This positive eî””ect of blue can be con-
îżrmed by the ecological theory of colour preference, which
suggests that an individualâs preference for a particular co-
lour is inîuenced by their positive associations with objects
and entities related to that colour. As a result, this theory
predicts (and research supports) that people tend to favour
colours that remind them of objects they like (e.g., saturated
blue, often associated with positive elements such as clear
skies and clean water). One of the potentially signiîżcant
factors inîuencing colour preferences is symbolic associ-
ations and abstract conceptual connections. Blue is often
described as a calming colour because it reminds us of the
ocean and the sky. For children, object-based associations
(e.g., the sea or a lake being linked to blue) are more rele-
vant than symbolic associations (e.g., associating blue with
peace) (Schloss, Palmer 2017). Common colour preference
patterns in a population may indicate either âhardwiredâ
preferences established over evolutionary timescales or
individual, îexible preferences shaped through shared ex-
posure to common stimuli that evoke similar emotions for
example, the pleasure of seeing a clear, blue sky might be
as widespread today as it was millennia ago. Any resulting
preference for blue may thus have both contemporary and
ancient roots (Best 2017; Hurlbert, Ling 2012).
The scientiîżc interest in the relationship between colour
and psychological functioning can be traced back to the
German poet and polymath Johann Wolfgang von Goethe.
136 Anna Jaglarz, Berkay Turgut
In his classic work âTheory of Coloursâ (1840), Goethe
proposed intuitive speculations on how colour perception
inîuences emotional experience. These speculations were
later expanded upon in the 20
th
century by psychiatrist Kurt
Goldstein. Goldstein integrated Goetheâs ideas with his cli-
nical observations, suggesting that colour perception trig-
gers physiological responses in the body, which manifest in
emotions, cognitive concentration, and motor behaviours.
Based on these studies, blue was recognized as a relaxing
colour, promoting introspection and eliciting calm and sta-
ble reactions. This state, induced by blue, was found to pos-
itively impact cognitive task performance, making it easier
to complete complex tasks (Elliot, Maier 2014).
Research objectives,
materials, and methods
This study aimed to expand the scientiîżc foundations
for selecting colours in educational environments designed
for children with autism spectrum disorder. Throughout the
research process, a literature review method was employed,
analyzing and examining scientiîżc sources related to the
application of colours in educational spaces, particularly
those designed for individuals with autism. Additionally,
a survey methodology and the âResearch Through Designâ
approach were applied, integrating design activities into the
research process. A crucial source of knowledge was the
stimulus material created by the designer, which enabled
the acquisition of new insights into the needs, preferences,
and expectations of autistic children in their educational
environment.
Before conducting the study, the research process was
consulted with the Research Ethics Committee at WrocĆaw
University of Science and Technology. It was determined
that, despite the sensitivity of the group of children involv-
ed in the study, the applied method was entirely safe as it
did not interfere with, harm, or exhaust the children, and it
respected their needs, limitations, and disabilities.
The conducted study was associated with the modern-
ization of classroom interiors in a school for children with
autism spectrum disorder (Horyzont Primary School in ƻo -
ry). To create an environment that positively inîuences
childrenâs behaviour, emotions, and learning outcomes, it
was necessary to examine the scientiîżc foundations for se-
lecting colours in educational settings and to identify the
colour preferences of autistic children and children with
Aspergerâs syndrome. To achieve this, the study aimed to
determine which colours were most liked and desired by
these children in their immediate surroundings, as well as
which colours were recommended due to their positive im-
pact. The study reviewed existing research îżndings in this
îżeld and surveyed a primary school for children with au-
tism and Aspergerâs syndrome. A total of 44 children, aged
8 to 14, participated in the study (all diagnosed with neu-
rodevelopmental disorders). They were shown various co-
lour scheme concepts for childrenâs rooms, allowing them
to choose the one they would most like to live in. The idea
of the childrenâs room in the îżrst stage of the study was
based on its role and signiîżcance in the childâs daily life,
as a space with which they have the closest contact and in
which they perform all their activities. It is also a space that
serves an educational function from the earliest moments of
the childâs life, even before the preschool and school stag-
es. Afterward, a survey was conducted regarding their fa-
vourite colour. This sequence of actions was intentional by
observing various colour combinations in interior spaces,
the children could recall colours more eî””ectively, making
it easier for them to select their preferred colour. Based on
the results of the study, it was determined that blue was the
most favoured colour among autistic children.
In subsequent stages of the research process, the study
aimed to determine which colours were recommended in
educational settings. A literature review on the impact of
colours on emotions, moods, behaviours, eî””ectiveness, and
productivity in the learning process regardless of studentsâ
psychophysical condition allowed for the conclusion that
blue is the most recommended colour for educational en-
vironments. This led to a suggestion and hypothesis, which
the study sought to verify: that planning school interiors us-
ing the colour blue could be a universal approach. By ensur-
ing a generally positive inîuence on students, this strategy
could also accommodate the special needs and expectations
of autistic children. Taking into account autistic childrenâs
preference for the colour blue and its signiîżcant role in ed-
ucational spaces, a design concept for a classroom interior
in a school for children with autism spectrum disorder was
developed. Among these design concepts, 12 variations
were created, featuring diî””erent shades and combinations
of blue. Additionally, one concept was developed without
the colour blue, instead incorporating a monochromatic
palette of light, warm, and muted shades such as beige, yel-
low, orange, salmon-pink, and light brown. Accent nuances
within this palette included light grey, black, muted red,
and a honey-toned wood shade. The children studying in
this classroom (every child participated in the îżrst stage of
the study) were presented with all 13 design concepts and
were asked to choose the one they liked the most.
Research process
The îżrst stage of the research experiment involved as-
sessing which colours were most liked and preferred by
autistic children. To achieve this, a set of stimulus materials
was prepared, consisting of visual representations of chil-
drenâs rooms designed in various colour schemes. These
visualizations were created by students in the Faculty of
Architecture at WrocĆaw University of Science and Tech-
nology as part of the âInterior Designâ course. The chil-
drenâs room concepts were printed on high-quality paper
to ensure easy and eî””ective presentation to the children.
The survey was conducted at Horyzont School in ƻory,
a primary school for children with autism spectrum disor-
der. The school follows the national curriculum for primary
education (grades 1â8) in accordance with the guidelines of
the Ministry of National Education (MEN) and implements
individualized therapeutic programs. Currently, the school
educates 56 children. As part of the survey, 44 children
aged 8 to 14 were examined by presenting them with vari-
ous colour concepts for childrenâs rooms, allowing them to
choose the one in which they would most like to live. The

Research through colour-based design: Supporting the learning and well-being of children with autism 137
childrenâs room concept that received the highest prefer-
ence is presented in Figure 1.
In the next stage of the test, a survey was conducted to
determine the preferred colour as each child selected a cray-
on in their favourite shade. The sequence of these activities
was deliberate: by viewing visual representations of chil-
drenâs rooms, the children were exposed to various colour
combinations in interior spaces. This process helped them
recall colours more eî””ectively and make a more informed
choice. The visual stimulation played a key role in facilitat-
ing their selection of a preferred colour. Based on the study
results, shades of blue emerged as the most favoured among
autistic children. A summary of the colour preference re-
sults is presented in Table 1.
Based on literature studies, the results of the conducted
research, and an on-site inspection, design guidelines were
developed for the colour concept of one of the classrooms
at Horyzont Primary School for Children on the Autism
Spectrum in ƻory. Materials from the on-site inspection are
presented in Figure 2.
Design Guidelines for the Classroom Modernization Con-
cept in Terms of Colour Selection, Considering the Need to
Create an Autism-Friendly Educational Environment.
Based on literature studies:
â Use of pastel, neutral, and muted colour palettes.
â Minimization of bright, intense, and highly saturated
colours (limited to small elements or visual markers).
â Reduction of strong contrasts, including highly con-
trasting patterns.
â Application of blue shades based on the colour prefer-
ences of autistic children.
â Use of blue shades due to their positive impact on au-
tistic children.
â Implementation of blue shades for their beneîżcial ef-
fects on students in an educational environment (inîuenc-
ing behaviour, mood, and learning outcomes).
â Use of gradual colour and tonal transitions.
â Application of complementary (opposite) colours in
soft, muted, subdued gradients/shades.
Fig. 1. The concept of a childrenâs room
was the most popular among autistic children
(visualization by M. Sobeczko, M. Ciesielska)
Il. 1. Koncepcja pokoju dzieciÄcego,
ktĂłry cieszyĆ siÄ najwiÄkszÄ
popularnoĆciÄ
wĆrĂłd dzieci autystycznych
(wizualizacja: M. Sobeczko, M. Ciesielska)
Colour Number of preferences
Blue 12
Red 8
Green 6
Light brown/ocher 5
Pink 5
Black 5
Purple 2
Yellow 1
Total 44
Table 1. Childrenâs favourite colours based on their choice of crayon
(but in different shades)
(elaborated by A. Jaglarz)
Tabela 1. Barwy preferowane przez dzieci na podstawie wyboru kredki
w ulubionym kolorze (o rĂłĆŒnych odcieniach)
(oprac. A. Jaglarz)
Fig. 2. Existing condition of the classroom at Horyzont Primary School for Children on the Autism Spectrum in ƻory:
(photo by A. Jaglarz)
Il. 2. Stan istniejÄ
cy klasy w Szkole Podstawowej Horyzont dla dzieci ze spektrum autyzmu w ƻorach:
(fot. A. Jaglarz)

138 Anna Jaglarz, Berkay Turgut
â Use of more pronounced contrasts for functional pur-
poses, such as zoning, emphasizing key elements, deîżning
boundaries and divisions, and establishing relationships be-
tween diî””erent areas.
Based on the conducted research experiment/survey:
â Use of shades of blue (including navy blue) based on
the selected concept of the childrenâs room.
â Use of shades of blue based on the colour of the cray-
on chosen by the children.
â Use of shades of blue as colours associated with a ga-
lactic, cosmic, and celestial style and design.
Based on the on-site inspection:
â Use of colours matching the existing îoor îżnish
(sand-coloured ceramic tiles with pink and blue accents).
â Suggestion to change the îoor îżnish and introduce
a diî””erent colour scheme.
â Incorporation of the burgundy colour of the existing
window joinery into the proposed colour scheme.
â Use of the existing colour scheme of the technical in-
stallation/ventilation (steel-coloured spiro pipes).
â Suggestion to paint the technical elements in a diî””er-
ent colour.
â Retention of the current wood colour in the proposed
palette (with the option to replace or renovate the current
furniture).
â Changing the wall colour (white is considered inap-
propriate in an educational environment as it reîects light,
distracts the eye, causes discomfort when looking, and in-
terferes with concentration and learning).
Taking into account the design assumptions, various
colour concepts for the school classroom were developed.
From these, 12 concepts were selected that most closely
matched the design guidelines derived from literature stud-
ies, survey results, and site inspection. Additionally, one ex-
tra concept was included, featuring a monochromatic palette
without any blue shades. This alternative palette consisted
of light, warm, and subdued shades of beige, yellow, or-
ange, salmon-pink, and light brown. Accent nuances in this
palette included light gray, black, subdued red, and a honey
shade of wood. All 13 concepts were presented to students
of the modernized classroom as part of a homeroom lesson
(Table 2 presents the 13 colour concepts for the classroom
along with a description of the colour palette used.) The
homeroom teacher asked the students to choose their pre-
ferred concept. Surprisingly, the unanimous choice was the
concept that did not include the colour blue at all.
Results and discussion
The îżndings from previous scientiîżc studies conîżrm
the positive eî””ects of blue on the moods and behaviours
of autistic children. Similarly, researchers consider blue to
be the most beneîżcial colour in educational environments,
as it eî””ectively supports studentsâ learning and cognitive
processes. The colour preference survey conducted among
autistic children at Horyzont Primary School also identiîżed
blue as their most favoured colour. However, the childrenâs
îżnal selection of a classroom design concept that does not
include the colour blue was unexpected and surprising.
Figure 3 illustrate the îżnal design concept of the school
classroom, featuring a colour composition tailored to the
needs, requirements, and expectations of children with au-
tism and Aspergerâs syndrome.
When comparing the selected classroom design concept
(Fig. 3) with the previously chosen childrenâs room con-
cept (Fig. 1) and analyzing the colour schemes used, a no-
table similarity emerges in terms of yellowish shades, light
browns, and black elements. The deep navy blue present in
No. Visualization of the colour concept The colour palette used
1
Triadic colour palette: Yellow, blue, red
(three colours located at equal distances from each other
on the colour wheel)
Main colours: Yellow and blue (walls and large surfaces)
Accent colours: Golden brown of wood, beige pink, various
shades of blue (colours emphasizing, enhancing and accentuating
the main colours based on harmony,
selected based on the similarity of shades and similarity
of colours to the main colours)
Contrasting colour: Red (appearing on details and exposing
the main colours based on contrast, the most eye-catching colour)
Contrasts: Brightness contrast (dark shades, e.g., dark blue
against light shades: light yellow, white), complementary contrast
(yellow vs. blue), saturation contrast (saturated red and muted
beige-pink light shade), tonal contrast (is based on a combination
of three primary colours â red, blue and yellow), temperature
contrast (warm shades, e.g., yellow or red vs. cool tones
â shades of blue), quantitative contrast (yellow and blue vs. red,
contrasting colour patterns on the floor relative to the smooth
surfaces of the walls and ceiling)
Table 2. Colour concepts for the classroom at Horyzont Primary School for Children on the Autism Spectrum in ƻory
(elaborated by A. Jaglarz and B. Turgut)
Tabela 2. Koncepcje kolorystyczne klasy w Szkole Podstawowej Horyzont dla dzieci ze spektrum autyzmu w ƻorach
(oprac. A. Jaglarz i B. Turgut)

Research through colour-based design: Supporting the learning and well-being of children with autism 139
No. Visualization of the colour concept The colour palette used
2
Complementary colour palette: Yellow and blue
(colours located on opposite sides of the colour wheel)
Main colours: Warm yellow and beige (walls, large surfaces)
Accent colours: Shades of blue, shades of beige, light brown
and white (furniture, details)
Contrasting colour: Intense yellow
Contrasts: brightness contrast (deep navy vs. yellow, white),
saturation contrast (saturated yellow and muted yellow),
complementary contrast (yellow and blue),
temperature contrast (warm yellow vs. cool blue)
3
Complementary colour palette: Yellow and blue
Main colours: Deep blue and light beige (walls, large areas)
Accent colours: Shades of blue, beige yellow,
shades of grey, white
Contrasting colour: None (the colour scheme is based
on the complementary contrast of yellow and blue)
Contrasts: Brightness contrast (deep navy and light beige,
white), complementary contrast (yellow and blue),
temperature contrast (warm shades of beige
and yellow against cool shades of blue and grey)
4
Triadic colour palette: Blue, yellow and red
Main colours: Blue and beige yellow
(large areas)
Accent colours: Shades of blue and gray, light brown wood,
muted, light, pinkish shades of red
Contrasting colour: None (no colour dominates, the scheme
is harmonious due to the equal proportions of shades
of three complementary colours)
Contrasts: Brightness contrast
(dark blue against light yellow and white,
dark red against white),
complementary contrast (blue and yellow),
tonal contrast (is based on a combination
of three primary colours â red, blue and yellow),
temperature contrast (warm red/yellow vs. cool blue)
5
Triadic colour palette: Blue, yellow, pink
Main colours: soft blue and beige (walls, surfaces)
Accent colours: Shades of blue, shades of pink,
light brown wood, white
Contrasting colour: None (harmonious complementary scheme)
Contrasts: Complementary contrast (blue and light yellow),
temperature contrast (cool blue vs. warm pink/yellow)
6
Complementary colour palette: Pink and blue
Main colours: Soft pink and beige, blue (walls, large areas)
Accent colours: Light blue, shades of pink, white,
light brown wood
Contrasting colour: None (harmonious complementary scheme)
Contrasts: Temperature contrast
(warm pink/light brown wood vs. cool blue)

140 Anna Jaglarz, Berkay Turgut
Table 2 cont. Colour concepts for the classroom at Horyzont Primary School for Children on the Autism Spectrum in ƻory
(elaborated by A. Jaglarz and B. Turgut)
Tabela 2 cd. Koncepcje kolorystyczne klasy w Szkole Podstawowej Horyzont dla dzieci ze spektrum autyzmu w ƻorach
(oprac. A. Jaglarz, B. Turgut)
No. Visualization of the colour concept The colour palette used
7
Complementary colour palette: Orange and blue
Main colours: Warm coral and blue (walls, dominant surfaces)
Accent colours: Light pink and white, shades of blue
Contrasting colour: None (as blue and coral provide the main
complementary contrast)
Contrasts: Saturation contrast
(rich coral against subdued pink and beige),
temperature contrast (warm coral contrasts with cool blue)
8
Triadic colour palette: Yellow, blue and red
Main colours: Deep blue and light yellow
Accent colours: shades of blue, gray, white, pink, yellow
and light brown wood
Contrasting colour: Red (appearing on details and exposing
the main colours on the basis of contrast,
the colour that catches the eye the most)
Contrasts: Brightness contrast (deep blue vs. light yellow),
saturation contrast (saturated red against muted light pink),
tonal contrast (is based on a combination of three primary colours
â red, blue and yellow),
temperature contrast (warm yellow/red vs. cool blue),
quantitative contrast (yellow and blue vs. red, contrasting colour
divisions/patterns on the floor relative to the smooth surfaces
of the walls and ceiling)
9
Triadic colour palette: Yellow, blue and red
Main colours: Deep blue and light yellow
(walls, large surfaces)
Accent colours: Shades of blue, shades of yellow, light brown
wood, light pink, white, grey
Contrasting colour: Red (appearing on details and exposing
the main colours on the basis of contrast,
the colour that catches the eye the most)
Contrasts: Brightness contrast (deep blue vs. light yellow),
saturation contrast (saturated red against a diluted light pink,
saturated yellow against a light, subtle yellow), tonal contrast
(is based on a combination of three primary colours
â red, blue and yellow),
temperature contrast (warm yellow/red vs. cool blue),
quantitative contrast (yellow and blue vs. red,
contrasting colour divisions/patterns on the floor relative
to the smooth surfaces of the walls and ceiling)
10
Triadic colour palette: Yellow, blue and red
Main colours: Deep blue and light yellow/beige
(walls, large surfaces)
Accent colours: shades of blue, pink, light shade of wood
Contrasting colour: Red (appearing on details and exposing
the main colours on the basis of contrast,
the colour that catches the eye the most)
Contrasts: Brightness contrast (deep blue vs. yellow),
saturation contrast (saturated red against light pink,
saturated blue against light blue),
tonal contrast (is based on a combination of three primary colours
â red, blue and yellow),
temperature contrast (warm yellow/red contrasts with cool blue),
quantitative contrast (yellow and blue dominate,
red used in smaller accents)

Research through colour-based design: Supporting the learning and well-being of children with autism 141
the selected childrenâs room design, typically categorized
as a shade of blue, was likely perceived by the children as
nearly black especially since its darkness was accentuated
by the contrast with white.
Interpretation of contradictory findings
on colour preferences
While blue was the most selected crayon colour, the pre-
ferred interior concept excluded blue altogether. This contra-
diction may result from several factors. Firstly, children may
associate blue as a favourite in isolation (e.g., crayons) but
perceive it diî””erently when integrated into larger, immersive
spatial contexts. Secondly, the dominant yellow-beige pal-
ette in the selected design might have evoked a warmer, saf-
er, more âhome-likeâ feeling, aligning with sensory comfort
rather than abstract preference. Thirdly, visual complexity,
lighting, or contrast levels in the visualizations may have
inîuenced childrenâs perception subconsciously, overriding
their previously stated preferences. This highlights the fact
that favourite colours in abstract do not always translate into
preferred spatial environments, especially in neurodiverse
children. It suggests that emotional comfort and perceived
warmth in interior design can override isolated colour pref-
erences. This divergence underscores the complexity of de-
sign decisions for neurodiverse users and emphasizes the
importance of testing spatial experience rather than relying
on isolated colour preferences.
Comparative synthesis of literature
and empirical findings
While the literature widely supports the use of blue as
a calming and cognitively supportive colour, this study re-
veals that autistic children may prefer non-blue environments
when spatial, emotional, and sensory aspects are collectively
No. Visualization of the colour concept The colour palette used
11
Triadic colour palette: Blue, yellow, red
Main colours: deep blue and light yellow/white
(walls, large surfaces)
Accent colours:
Light brown wood, shades of grey, shades of blue
Contrasting colour: Red (appearing on details
and exposing the main colours on the basis of contrast,
the colour that catches the eye the most)
Contrasts: Brightness contrast (deep blue vs. yellow/white),
saturation contrast (saturated blue against muted grey-blue),
tonal contrast (is based on a combination of three primary colours
â red, blue and yellow),
temperature contrast (warm red/yellow vs. cool blue),
quantitative contrast (blue and yellow dominate,
red used strategically, contrasting colour divisions/patterns
on the floor relative to the smooth surfaces of the walls and ceiling)
12
Complementary colour palette: Blue and golden brown/yellow
Main colours: Blue and off-white (walls, largest spaces)
Accent colours: Warm wooden tones, brown, orange, muted red,
shades of yellow
Contrasting colour: Saturated yellow
Contrasts: brightness contrast (light walls vs. deep blue elements),
saturation contrast (saturated blue vs. light muted blue),
temperature contrast (cool blue contrasts
with warm wooden and yellow),
quantitative contrast (blue surfaces vs. yellow elements)
13
Analogous colour palette: Beige, apricot yellow, golden orange,
light brown (closely related colours in the colour wheel)
Main colours: Light beige and soft apricot yellow
(walls, largest surfaces)
Accent colours: Brown, muted red, grey (shade similarity
and colour similarity in relation to the main colour)
Contrasting colour: Black
Contrasts: Brightness contrast (light yellow vs. black),
quantitative contrast (black is used in small details
but strongly stands out),
saturation contrast (the black is deep and intense compared
to the remaining shades), temperature contrast (warm yellow
and apricot tones contrasted with cooler grey and black)

142 Anna Jaglarz, Berkay Turgut
considered. This suggests a divergence betwe en abstract
preferences and holistic environmental perception. Design-
ers should thus avoid rigid generalizations based on isolated
colour studies and instead adopt a îexible, context-sensitive
approach informed by real user engagement. Therefore, in-
terior design strategies for autism-supportive environments
should integrate both abstract colour preferences and experi-
ential spatial perceptions, ensuring a ba lance between theo-
retical guidelines and real-world emotional responses.
Conclusions
The results of this study provide valuable insights that
can serve as guidelines for architects and interior design-
ers when planning educational spaces for autistic children.
When designing the colours of educational spaces dedicat-
ed to autistic children, it is advisable to consider:
â
the use of monochromatic or analogous colour schemes,
in which there are shades of one colour or closely related
colours that are adjacent on the colour wheel,
â the preference for warm colour tones,
â the application of light, pastel colours,
â the avoidance of highly saturated colours in favour of
muted and subdued shades,
â the minimization of strong colour contrasts,
â
the incorporation of neutral or monochromatic shades,
such as black, grey, white, or deep navy, to introduce subtle
emphasis or complementary elements in the overall colour
composition.
Fig. 3. The classroom design concept selected by children with autism
(visualization by B. Turgut)
Il. 3. Koncepcja projektowa sali lekcyjnej wybrana przez dzieci z autyzmem
(wizualizacja: B. Turgut)
Due to certain discrepancies in the results of previous
studies, there remains a need to analyze and test the impact
of various colour schemes on psychological, behavioural,
and task-related outcomes among children with cognitive
disorders, such as autism or Aspergerâs syndrome. Design-
ing interiors with appropriate colour combinations may
also support children with other neurological conditions,
including ADHD, hyperactivity, or attention deîżcits. The
prevalence of these disorders has increased over the past
century, underscoring the necessity of improving interior
spaces to accommodate the special needs of children, with
the aim of facilitating their preparation for and fostering
healthy interactions with the community. It is also important
to emphasize that modifying colour schemes in the indoor
environments of educational institutions catering to chil-
dren with autism and other neurodevelopmental disorders
potentially enhancing their psychological, behavioural, and
task-related patterns often involves relatively simple ad-
justments that require minimal eî””ort and cost (Attia 2020).
In justifying the aims and signiîżcance of the conducted
research, it is essential to underscore its applicability with-
in professional practice for architects and interior design-
ers, oî””ering them concrete design directives. Moreover,
the obtained îżndings can serve as a valuable pedagogical
resource and a theoretical framework for students and ac-
ademic faculty engaged in architectural design education.
Translated by
Anna Jaglarz and Berkay Turgut

Research through colour-based design: Supporting the learning and well-being of children with autism 143
Streszczenie
Badania poprzez projektowanie kolorystyczne:
wspieranie uczenia siÄ i dobrostanu dzieci ze spektrum autyzmu
Planowanie Ćrodowiska edukacyjnego dla dzieci z autyzmem stanowi istotne wyzwanie dla projektantĂłw. Odpowiednia aranĆŒacja kolorystyczna
wnÄtrz sal lekcyjnych moĆŒe wpĆywaÄ na ich zachowanie, aktywnoĆÄ, procesy uczenia siÄ, rozwĂłj umiejÄtnoĆci oraz zdobywanie doĆwiadczeĆ. Ponadto
moĆŒe zwiÄkszaÄ skutecznoĆÄ i efektywnoĆÄ ich dziaĆaĆ, a takĆŒe przyczyniaÄ siÄ do zapewnienia ochrony, bezpieczeĆstwa, komfortu i dobrostanu w prze-
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144 Anna Jaglarz, Berkay Turgut
strzeniach, w ktĂłrych dzieci spÄdzajÄ
czas. Autorzy wielu badaĆ podkreĆlajÄ
, ĆŒe kolory Ćrodowiska edukacyjnego wywierajÄ
îżzjologiczny, emocjonalny
i poznawczy wpĆyw na uczniĂłw, co jest szczegĂłlnie istotne w kontekĆcie projektowania wnÄtrz instytucji edukacyjnych przeznaczonych dla dzieci
z zaburzeniami poznawczymi. Odpowiednio dobrane kolory mogÄ
znaczÄ
co wpĆywaÄ na ich interakcje ze Ćrodowiskiem, ktĂłre czÄsto sÄ
ograniczo-
ne lub zaburzone. Celem niniejszego badania byĆo zgĆÄbienie i uzupeĆnienie naukowych podstaw doboru kolorystyki w Ćrodowiskach edukacyjnych
przeznaczonych dla dzieci z zaburzeniami neurorozwojowymi, w tym dzieci ze spektrum autyzmu. Proces badawczy opieraĆ siÄ na metodzie przeglÄ
du
literatury â analizie i ocenie ĆșrĂłdeĆ naukowych dotyczÄ
cych zastosowania kolorĂłw w przestrzeniach edukacyjnych dla osĂłb z autyzmem. Ponadto
wykorzystano ankiety oraz podejĆcie âresearch through designâ, integrujÄ
ce dziaĆania projektowe z procesem badawczym. Istotnym ĆșrĂłdĆem wiedzy
byĆ materiaĆ stymulujÄ
cy, stworzony przez projektantĂłw, ktĂłry umoĆŒliwiĆ zdobycie nowych informacji na temat potrzeb, preferencji i oczekiwaĆ dzieci
autystycznych w kontekĆcie ich Ćrodowiska edukacyjnego.
SĆowa kluczowe: architektura, percepcja kolorĂłw, autyzm, klasa, edukacja