2022
3(71)
Julia Pogoda*, Joanna Majczyk**
Educational spaces for students with autism spectrum disorders
Introduction and state of research
Schools are basic educational and care institutions in
every community – they are a meeting place, a place to
gain knowledge, and often they are a local centre also for
people not related to them. Their main function, however,
is education and preparation of children to function in so-
ciety. One of the determinants of the education process is
the way in which a specic school building is designed.
In a well-formed space, not only is it easier to assimilate
knowledge, but also the level of well-being of students
and the ability to interact and build relationships increas-
es. Given the huge role that schools play in human de-
velopment, it is crucial to ensure that buildings in which
they are located provide equal opportunities to every user.
This is of particular importance for children with autism
spectrum disorders – an appropriate environment can sig-
nicantly support the therapeutic process and aect their
functioning later in life [1].
The conditions prevailing in the overwhelming number
of Polish schools and kindergartens make it dicult, and
in some cases completely prevent children with autism
spectrum disorders from education on an equal basis. The
main problems occurring in this type of institutions are:
inadequate lighting, wrong choice of colours, lack of zon-
ing and their appropriate marking. Often, the classroom
equipment is also not adapted to the dierent needs of its
users. The inspections carried out in 2019 showed that
publicly accessible schools educating students with au-
tism […] struggled with space diculties, rarely had the
opportunity to allocate special rooms for revalidation or
so-called quiet areas [2, p. 11]
1
. Limiting distracting stim-
uli, as well as creating places to isolate from excess stim-
ulants allows children to concentrate on their activities for
a longer time, increases independence and a sense of secu-
rity. In today’s world saturated with sensory stimuli, it is
also justied to introduce similar solutions in workplaces,
public facilities, as well as on an urban scale.
A pioneer in research on design for people with autism
spectrum disorders is Magda Mostafa, who for over 20
years has been describing the relationship between the
functioning of autistic people and the space they live in
[3], [4]. So far, she has developed numerous designs and
guides, but most of all she has created a set of principles
supporting inclusive design (ASPECTSS™) [4]. Refer-
ring to the research of psychiatrists, Mostafa dened the
essence of design for people with autism spectrum disor-
ders, which is the control of the user-sensory environment
relationship with its sounds, textures, patterns, shapes and
chiaroscuro [3, p. 144]. Later research focused on the indi-
vidual discussion of “sensory phenomena”, paying atten-
tion, among others, to the need for special lighting design
[5], as well as a conscious selection of nishing materials
[6]. It was found that students with ASDs feel safe and
stable in buildings with a simple, orderly and predictable
interior layout [7].
Based on the seven recommendations of Mostafa (acous -
tics, spatial sequencing, escape space, compartmentaliza-
tion, transition space, sensor zoning, safety [3]), in 2019
American scientists developed detailed guidelines for the
design of vocational centres for people with autism spec-
trum disorders. It was also noted that the Americans with
Disabilities Act denes the standards of construction ac-
cessible to people with limited physical abilities, but it is
1
It is worth noting that architectural solutions used to minimize the
eects related to sensory integration problems do not adversely aect
children with no autism spectrum disorders, and may have a positive
impact on their functioning.
* ORCID: 0000-0001-8131-6231. Faculty of Architecture, Wro-
cław University of Science and Technology, Poland.
** ORCID
: 0000-0002-7660-3161. Faculty of Architecture, Wrocław
University of Science and Technology, Poland, e-mail: joanna. majczyk
@
pwr.edu.pl
DOI: 10.37190/arc220307
Published in open access. CC BY NC ND license

70 Julia Pogoda, Joanna Majczyk
not a sucient indicator for design for people with au-
tism spectrum disorders [8]. Based on, among others, the
above-mentioned recommendations, Tomasz Bojęć, Joan-
na Erbel and Marta Wierusz discussed the basic principles
of design for people with emotional and/or developmental
disorders, such as autism, ADHD or dyslexia [9]. In 2017,
Keith McAllister and Sean Sloan described experimental
workshops where children with ASDs consulted school de-
signs. As a result, school rooms were grouped in a non-stan-
dard way, however, increasing the sense of security and
comfort of sensory-sensitive children [10]. In Poland, there
are no publications on the design of educational institutions
for children with autism spectrum disorders, but the topic
is taken up during architectural studies, as reported by, for
example, Maria Bielak-Zasadzka and Agnieszka Bugno-
-Ja nik from the Silesian University of Technology [11].
Autism spectrum
Autism, often mistakenly called a disease, is a holistic
developmental disorder according to the ICD-10 interna-
tional classication. We can distinguish childhood autism,
which is diagnosed up to the age of three, atypical autism
– if the symptoms appear later, and Asperger’s syndrome,
when there are no speech disorders [12]. The newer classi-
cation, ICD-11, refers to autism spectrum disorders [13].
The aforementioned types of disorders are listed on the
scale depending on the severity of symptoms, but they do
not have separate names. This classication method high-
lights how diverse the autistic community is. There are
highly functioning people, often with above-average IQ,
but also people with serious diculties in communication
and independent functioning [14, p. 13]. Each of these
people needs a dierent degree of support.
Although the disorder has dierent degrees of severity,
which of course dierentiates the symptoms, there are fea-
tures that characterize people with autism spectrum disor-
ders. One of them is the diculty in recognizing emotions
[15], although, contrary to popular belief, it is not a total
inability – most autistic people are able to read simple
emotions, such as sadness. The problem begins with more
complex emotions such as irritation or sarcasm. Confu-
sion can also be caused by subtle gestures – for example,
a blink of an eye or a wry face. Some people with autism,
however, are able to learn to recognize ways of expressing
emotions, it is simply not a natural skill for them as it is
for neurotypical people.
Another characteristic sign of autism is a greater in-
terest in inanimate objects than in humans [16]. It is of-
ten possible to observe children with autism spectrum
disorders arranging objects in a tower or in a linear ar-
rangement, which is caused by their perceived need for
repeatability and predictability [17]. Children may not
feel the dierence when the people around them change
(e.g. when the class is taken over by another teacher), but
it is very likely that a change in the schedule of activities
to which they are accustomed will cause anxiety or anger.
Another factor inuencing the functioning of people
with autism spectrum disorders is high sensitivity to sen-
sory stimuli. Each impulse coming from the environment
is perceived more clearly and more intensely, and with
the simultaneous lack of the ability to selectively perceive
them, functioning in public spaces becomes a huge chal-
lenge. Children with autism often perceive sounds more
clearly, although sometimes they do not react to them at
all. In the past, they were often misdiagnosed as deaf for
this reason [18]. Instead, they are able to pick up very soft
sounds that are ignored by neurotypical people. They also
have a specic texture preference, which applies to the
items that surround them. Smooth surfaces resembling
natural textures are usually perceived as pleasant. Re-
search published in 2012 also showed that in the case of
textures classied as pleasant or neutral, subsequent ex-
posure causes a similar reaction, but in the case of further
contact with the texture indicated by the participants of the
study as unpleasant, the negative reaction intensies [19].
People with autism spectrum disorders are often unable
to ignore stimuli from the environment, such as ashing
lights, fan noise or other reverberations, which often lead
to over-stimulation, which in turn leads to strong emo-
tions or panic attacks in children. In such situations, it is
important to rst try to prevent them by providing a place
without excess stimulants where the child can hide, and to
provide a space for safe emotional discharge once overex-
posure to external factors has occurred. In an environment
full of stimulants and not providing safe hideouts, such as
schools that are not adapted to people with autism spec-
trum disorders, it is dicult for a child to stay focused,
which exacerbates the dierences between neurotypical
and autistic children.
Design for autistic people
Autism has so far been a misunderstood disorder and
although it aects an estimated 1 in 100 people in Europe
[2], it is still not included in accessibility regulations.
Adapting designs to autistic people is not a common prac-
tice, and there are relatively few specialists conducting re-
search on this topic. While taking into account the needs
of people with physical disabilities in architectural and ur-
ban designs, especially in public facilities, is now obvious
– thanks to clearly dened requirements – there is still no
similar awareness or ocial guidelines for autism-friendly
design. Autism is a spectrum, so formulating design prin-
ciples is not an easy task, but it is worth the eort, because
introducing appropriate solutions can signicantly aect
the functioning of people aected by this disorder [2].
There are two main trends in designing for people with
autism spectrum disorders. The rst one is the neurotypical
approach, which is based on the weakened generalization
ability
2
in autistic people [20]. The design assumptions are
based on the hypothesis that people with autism spectrum
disorders staying in spaces with a signicantly limited
amount of sensory stimuli will not be able to apply the skills
2
Generalization of a stimulus is a phenomenon in which a reaction
conditioned on an experimental stimulus also manifests itself in relation
to many other stimuli present in the environment; reaction to similar
stimuli in the same way; the strength of the reaction is determined by the
similarity of stimuli (generalization gradient).

Educational spaces for students with autism spectrum disorders 71
acquired there to other spaces. This is particularly import-
ant in the case of educational facilities, where we assim-
ilate the most knowledge, also practical knowledge, and
shape habits. Schools designed in the neurotypical trend
are to map places and create situations with which autistic
children may come into contact outside the institution.
An example of a facility designed according to a neu-
rotypical approach is the Morris-Union Jointure Commis-
sion’s Developmental Learning Center by USA Architects
in Warren, near New York [21]. The main school corri-
dor imitates a typical busy street, full of service premises,
among which you can nd a bank, shops (Fig. 1), as well
as a number of dierent types of public toilets. Learning
everyday activities is an essential element of therapy,
but it is hard to resist the impression that a mock-up of
city life in the school building may make it dicult to
concentrate and introduce unnecessary confusion. Oppo-
nents of this trend are of a similar opinion, and among
the disadvantages of this method, they also list the multi-
tude of colours and textures, a hazy functional system or,
paradoxically, hindering the generalization of the function
that the school performs [23]. What is more, the interior
design follows the style of postmodernism, with eclecti-
cism, accumulation of random forms, as well as a certain
exaggeration dicult to perceive for children with autism
spectrum disorders written into its genetic code.
Another project mapping the neurotypical environment
is Celebrate the Children School in Denville, USA. As an
integrated school, it has facilities for disabled people, but
it also deliberately duplicates many solutions from public
schools. Such behaviour is again argued with the need to
improve generalization and adaptation of children to func-
tion at universities and at work. Analysing the functioning
of kindergartens and public schools, it can be observed
that many of them do not provide sucient conditions,
even for neurotypical children [24] – inadequate acous-
tics or lighting in classrooms signicantly impede the ac-
quisition of knowledge. Therefore, when designing in the
neurotypical trend, one has to make a choice whether one
wants to reproduce the averaged existing environments
or an ideal, model school. In the rst case, a not entirely
friendly learning environment is created for children, but
similar to the one where they will end up after complet-
ing their education. In the second version, generalization
is made dicult as most schools do not meet the model
standards. The key question to be asked is: should chil-
dren with disabilities be taught to adapt to inappropriate
conditions, or should they be able to use spaces that are
comfortable and inclusive at every stage of their lives?
The second trend in designing for children with autism
spectrum disorders diers from the neurotypical approach
and takes into account their high sensory sensitivity with
particular care. The concepts of this trend create sensory
dierentiated spaces that enable the gradual development
of adaptive skills of children with autism. An example of
the implementation of an educational institution in the
sensory design trend is the Pond Meadows integrated
school in Guildford, Great Britain, designed by DSDHA
(Fig. 2). It is a single-story building, which signicantly
reduces the number of architectural barriers. Spatial se-
quencing is clearly visible – the school consists of three
parts, diering in the number of sensory stimuli – ranging
from the generally accessible common part to classrooms
requiring concentration, which are additionally arranged
according to age categories. Each of the zones is orga-
nized around an internal courtyard, which provides addi-
tional lighting for the school, but can also act as a hideout.
Hideouts constitute an essential part of any autism-friend-
ly space – they are places to rest from excess stimuli. Like
the transition zone, which connects spheres with dierent
levels of limitation of sensory factors, hideouts should re-
main sensory-neutral. It is also recommended to diversify
them so that they can be a place of isolation, but also of
group interactions in a safe space. Green courtyards intro-
duce vegetation to the interior of the school and allow for
self-stimulation – observing the shadows cast by plants or
touching their textures. The classrooms are located along
the outer perimeter of the building, which allows for the
optimization of access to natural light and ventilation, as
well as direct access to safe outdoor spaces, constituting
a potential hideout. The alternately falling and rising shape
of the roof aects the acoustic comfort in the building and
the dierentiation of room heights – those with a lower
height are characterized by a limited number of stimuli.
Fig. 1. Warren/NJ, USA, Morris-Union Jointure Commission’s
DLC school corridor (designed by USA Architects)
(photo by R. Faulkner, source: [22])
Il. 1. Warren/NJ, USA, korytarz szkoły Morris-Union Jointure
Commission’s DLC (proj. USA Architects)
(fot. R. Faulkner, źródło: [22])

72 Julia Pogoda, Joanna Majczyk
Fig. 2. Guildford, Great Britain, Pond Meadows school:
a) ground level layout (©DSDHA, source: [25]),
b) inside corridor (photo by ©Timothy Soar),
c) entry zone (photo by ©Timothy Soar), d) sectional view (designed by ©DSDHA, source: [25])
Il. 2. Guildford, Wielka Brytania, szkoła Pond Meadow:
a) rzut przyziemia (©DSDHA, źródło: [25]),
b) korytarz wewnętrzny (fot. ©Timothy Soar),
c) strefa wejściowa (fot. ©Timothy Soar), d) przekrój poprzeczny (proj. ©DSDHA, źródło: [25])
a
c
b
d

Educational spaces for students with autism spectrum disorders 73
When describing the sensory approach, it is worth pre-
senting the work of Simon Humphreys. The British ar-
chitect has designed many specialized facilities for autis-
tic people. One of them is the Thomas Bewick School in
Newcastle (Fig. 3).
In addition to the previously discussed guidelines re-
sulting indirectly from the principles of universal design,
Humphreys emphasizes proportion and proxemics, intro-
ducing, among others, the golden ratio in his designs. This
solution helps maintain harmony and a sense of order,
as well as repeatability, which is desired by people with
autism spectrum disorders. On the other hand, rounded
“spiral” walls are designed to soften the corners and en-
sure smooth transitions between spaces and safe commu-
nication. The school’s corridors, situated around internal
courtyards, allow for a permanent, external point of refer-
ence that facilitates locating oneself in the building. The
invariable features of his designs include moderation in
the choice of colours, arrangement of hideouts and special
care for acoustic conditions. The architect also supports
the introduction of a large amount of natural light into
the rooms, but stipulates the need to diuse it in order to
avoid excessive contrasts [27].
Due to the diculties in social interactions, spaces for
autistic people should be relatively large so that it is pos-
si
ble to maintain physical distance, while also maintaining
comfortable acoustic conditions. In the case of schools, it is
reasonable to design space in such a way as to enable dis-
creet supervision, not disrupting the functioning of users.
Both the neurotypical approach and the sensory approach
are based on a comprehensive analysis of the needs of peo-
ple with autism spectrum disorders. Both approaches, apart
from clear values, also have disadvantages. Never theless,
in recent years there has been a signicant increase in in-
terest in autism-friendly architecture. Further research may
include the development of existing trends, their synthesis
or the development of a completely dierent approach.
Examples of solutions for educational facilities
for autistic children in Poland
In the 1980s, when autism diagnostics was only started
in Poland, the statistics showed the occurrence of this dis-
order in 2–4 per 10,000 people. Currently, we can observe
the so-called autism epidemic – an increasing number of
people are diagnosed with autism spectrum disorders each
year. At the moment, the disorder occurs in 1 in 100 people
[2]. Despite various theories concerning the increase, it is
mainly due to a change in diagnostic criteria. Until now,
the ICD-10 International Classication of Diseases and
Health Problems was in force in Poland, but in 2022 a new
ICD-11 classication system was introduced, which in-
cludes many important changes, such as, for example, res-
ignation from the division into childhood autism, atypical
autism and Asperger’s syndrome. Instead, an autism spec-
trum disorder is diagnosed, perceiving autism as a contin-
uum, taking into account dierent levels of severity [28].
This system has been functioning in the United States for
many years. It can be expected that in Poland it will be-
come popular in medical practice in two-three years.
Cognitive, social and communication abilities of people
with autism spectrum disorders are varied, and therefore
their education can take place in mainstream, integrated
or special needs school. Research shows that after com-
pleting education, people with autism who are within the
intellectual norm are able to achieve independence [29].
Numerous problems in the education system of autistic
people hinder this process. These include, among others,
the lack of a procedural curriculum, shortage of sta and
their insucient qualications [30]. Persons with autism
spectrum disorders are not provided with continuity of
support – the continuation of education at a later stage is
dicult due to the lack of integrated secondary schools
and the non-adaptation of those generally available to
students with autism. Another obstacle for children with
Fig. 3. Newcastle, Great Britain,
Thomas Bewick School
(designed by S. Humphreys,
source: [26])
Il. 3. Newcastle, Wielka
Brytania, szkoła Thomas Bewick
(proj. S. Humphreys,
źródło: [26])

74 Julia Pogoda, Joanna Majczyk
autism spectrum disorders and their parents is the short-
age of specialized facilities, dicult access to those al-
ready existing (locations in selected large cities, queues
for diagnosticians and therapists) and social barriers.
Education of children with autism requires adapting the
environment and working methods to their needs, there-
fore, for each child with an autism spectrum disorder the
highest educational subsidy is granted – 9.5 times great-
er than the amount of the educational standard, i.e. about
PLN 6,000 per month. Nevertheless, a signicant part of
the schools audited by the Supreme Audit Oce in 2019
did not fully take advantage of the possibilities to support
students with autism [2].
Spatial exclusion is a common problem of public schools,
however, high sensory sensitivity of children with autism
is often overlooked in the designs of specialized schools.
In recent years, schools and kindergartens focused on stu-
dents with autism spectrum disorders have been estab-
lished more frequently, but most of these activities simply
involve the adaptation of existing facilities or new build-
ings built based on the model of typical public facilities.
As part of these projects, it is usually not the space that is
comprehensively planned, but only the curriculum.
Based on the available guidelines and the analysis of the
needs of people with autism spectrum disorders, an origi-
nal classroom design for preschool children was developed
(Fig. 4). A division into a quiet zone was proposed, where
activities requiring concentration take place, and a play
zone, which is also an adaptive zone after entering the
classroom. The classroom is preceded by a transition zone
that is a buer between it and the noisier spaces. The zones
inside the room have not been separated by permanent,
vertical partitions, but their functions are legible, among
others, thanks to the change of the oor – a soft undercoat
was used in the play area, so that the change could be felt
with the use of dierent senses. Additionally, the lighting
a
b
Fig. 4. Diagram showing
the classroom adapted to children
with autism spectrum disorders:
a) layout, b) sectional view
(designed and drawn by J. Pogoda)
Il. 4. Schemat przedstawiający
klasę lekcyjną dostosowaną
do dzieci w spektrum autyzmu:
a) rzut, b) przekrój
(proj. i rys. J. Pogoda)

Educational spaces for students with autism spectrum disorders 75
is varied – in the play zone, the horizontal window intro-
duces a large amount of natural light and provides a view
of the natural landscape. In the education zone, the priority
was to reduce distracting external factors, therefore upper
lighting was planned. Both parts can constitute one space
or be separated by movable acoustic partitions. The equip-
ment of the classroom also allows for its exible use – the
student can at any time choose to work independently or
in a group, as well as rest in the second part of the room
or in a hideout on the covered terrace adjacent to the class-
rooms. The sensory garden located there provides the pos-
sibility of self-stimulation.
Emerging designs of specialized schools, which do not
only address autistic children, are an optimistic forecast.
An example of such a facility is a special school in the
Pawlikowski estate in Żory. The facility, designed by the
Toprojekt studio, complements the existing buildings on
the plot – L. Krzemieniecka Kindergarten No. 23 and Spe-
cial School No. 22. The main assumptions were to provide
specialized teaching spaces, a new gymnasium, and to im-
prove the conditions for caring for children with mild and
moderate intellectual disabilities (Fig. 5).
Due to the neurodiversity that occurs in children, the
facility has been divided into three zones: for users with
moderate mental disabilities, for students with mild dis-
abilities, and a buer between them composed of common
areas. In the middle part there are rooms that require less
concentration – a dining room or a gymnasium. The class-
rooms are separated by atriums, which provide lighting,
constant contact with nature and improve acoustic com-
fort. Green elements in the form of internal courtyards
and external terraces, divide – as stated in the description
of the design – classrooms, provide light to rooms and
have a therapeutic function, creating sensory gardens,
accessible directly from the rooms, separated individual-
ly for individual zones [31]. It should be noted, however,
a
b
Fig. 5. Żory, Pawlikowskiego
estate, special school design:
a) ground floor plan,
b) visualization of one of the
inner courtyards (designed by
Toprojekt studio, source: [31])
Il. 5. Żory, Osiedle
Pawlikowskiego, projekt szkoły
specjalnej: a) rzut przyziemia,
b) wizualizacja jednego
z wewnętrznych dziedzińców
(proj. Pracownia Toprojekt,
źródło: [31])
76 Julia Pogoda, Joanna Majczyk
that the presented examples are exceptions – in Poland,
there is no program of building kindergartens and schools
adapted to the specic needs of children with autism spec-
trum disorders.
Conclusion
The design concepts presented in the study are based,
among others, on the paradigms of universal design,
which takes into account various needs and limitations of
users, as well as how their functioning changes at sub-
sequent stages of life. The Universal Design Code con-
sists of seven principles. The rst one concerns equal
access – the facility is to be available to everyone by
default, without the need to use additional solutions for
individual groups. The exibility of solutions should pro-
vide users with freedom in the use of space, and at the
same time the use of the building must be simple and
intuitive. This will be facilitated by legible information
provided in various forms, which includes, among others,
clear communication and markings. Another rule – error
tolerance – reminds us that the designer should predict
possible errors and minimize their negative eects. The
facility planned according to the principles of universal
design requires little eort by the user and provides suf-
cient space for comfortable use by a person of any size
and varying degrees of mobility. Under the inuence of
the research, the set of guidelines presented was rened or
transformed in the designs for children with autism spec-
trum disorders. This shows that universal design turned
out to be insucient. Attempting to satisfy the needs of
all users generates many problematic situations, and the
elements facilitating the use of one group may make other
groups uncomfortable. Moreover, such conicts of inter-
est also exist within a single group – the development of
high-functioning students with autism spectrum disorders
could be limited by isolation from neurotypical peers, and
children with ASDs on the opposite end of the spectrum
would not be able to develop eectively in an integrated
school. Therefore, are we able to design universal schools,
or will it remain just a utopian desire? We are still at the
beginning of the road in terms of designing for autistic
people, and the answer to this question may come along
with the intensication of research and evaluation of the
impact of architecture on autistic users.
It seems, however, that today there are several elements
and activities worthy of being included in the universal
design code in the concepts of school buildings for chil-
dren with autism spectrum disorders. The most important
activities include:
– space sequencing (creating simple room layouts in
an order related to the building use schedule, as well as
similar in terms of sensory control),
– design of buer zones, sensory neutral between spac-
es with dierent functions and/or levels of sensory control,
– attention to acoustic conditions, the use of subdued
colours and diused light,
– designing “hideouts” – places to calm down.
The buildings of kindergartens and schools should not
imitate the neurotypical “reality”, they should consti-
tute safe and friendly space that responds to the needs of
autistic people, supports their therapy and development
through consciously applied design procedures.
Translated by
Junique Justin Nnorom
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Educational spaces for students with autism spectrum disorders 77
Abstract
Educational spaces for students with autism spectrum disorders
This study aims to present the relationship between the architectural surroundings and the needs of children with autism spectrum disorders in
the educational environment. Therefore, it began with identifying the special needs of children with ASDs (Autism Spectrum Disorder) and the ways
in which these needs are addressed in school designs carried out in the USA and Great Britain. The study also shows a few Polish attempts to create
autism-friendly schools. Finally, an attempt was made to extend the paradigms of “universal design” with activities necessary to increase the comfort
of using educational institutions by children with autism spectrum disorders.
Key words: education, school design, autism spectrum, inclusivity, universal design
Streszczenie
Przestrzenie edukacyjne dla uczniów w spektrum autyzmu
W niniejszym opracowaniu przedstawiono zależności między otoczeniem architektonicznym a potrzebami dzieci ze spektrum autyzmu w śro-
dowisku edukacyjnym. Rozpoczęto od wskazania specjalnych potrzeb dzieci z ASD (Autism Spectrum Disorder) i sposobów, w jaki odpowiada się
na te potrzeby w projektach szkół zrealizowanych w USA i w Wielkiej Brytanii. W artykule pokazano też nieliczne polskie próby tworzenia szkół
przyjaznych autystykom, a na końcu podjęto próbę rozszerzenia paradygmatów „projektowania uniwersalnego” o działania konieczne do zwiększe-
nia komfortu użytkowania placówek edukacyjnych przez dzieci ze spektrum autyzmu.
Słowa kluczowe: edukacja, projektowanie szkół, spektrum autyzmu, inkluzywność, projektowanie uniwersalne
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