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16 December 2021

29 Pages

Inside a Microapartment: Design Solutions to Support Future Sustainable Lifestyles

and
1
Faculty of Architecture, Wroclaw University of Science and Technology, 27 Wybrzeze Wyspianskiego St., 50-370 Wroclaw, Poland
2
Faculty of Civil Engineering and Architecture, Opole University of Technology, ul. Prószkowska 76, 45-758 Opole, Poland
*
Authors to whom correspondence should be addressed.

Abstract

The purpose of this study wass to assess the interior design solutions of residential microflats built in large European cities in countries from the Organisation for Economic Co-operation and Development (OECD). A sample consisting of thirty representative microflats with a floor area below 35 m2 was selected for the study. The flats were intended for either permanent or temporary occupancy and were built over the past fifteen years. The research field covered several large European cities, where demand for such units is high. Comparative analyses of different microflat interior design models were performed. The objective of the study was to determine which contemporary microflat interior design solutions (such as space layout, furniture layout, and design, color, and material design) are optimal and the most commonly used. Sets of design solutions applied in microflats were collected and documented. The study used a range of research methods, including a review of the literature, websites, field research, and comparative analysis. The set of presented interior design solutions and the conclusions drawn from the analyses can be useful to architects and interior designers who design microflats and residential units with greater floor areas, or flats where effective use of floor area is crucial (e.g., student housing). It is also worth mentioning that the existing literature on microflats focuses primarily on the United States and Australia and not Europe, and discusses the economics and ecology of inhabiting microflats.

1. Introduction

The twenty-first century is a period of dynamic effect changes in the design of the housing environment [1,2,3]. In recent years, there has been an observable and highly dynamic increase in interest in microhouses and microflats, which have slowly started being defined as a new form of housing [2,4,5]. This increase is primarily caused by two groups of factors: the first consists of economic factors, such as high housing prices [3], and the second are demographic and social factors. The demographic and societal changes that affect microflat popularity include:
  • Changes in the family model—people are entering relationships later in life and families tend to have fewer children, which leads to an increase rise in the number of single-person households [1,3,5,6];
  • The aging of society and a corresponding increase in the number of senior citizens [7] the elderly often live alone, in units that are too large for them [8]
  • Changes in how residential spaces are used—certain needs that were previously satisfied in flats such as dining or entertainment have been moving outside, or to other spaces [9,10].
  • Changes in flat furnishings—many elements of everyday interior furnishing have become smaller due to technological progress, e.g., flatscreen television sets, laptop computers, e-book readers, music, and photographs stored in digital form [3].
  • Greater environmental awareness leads to more eco-friendly lifestyles [11] and attempts at reducing the number of possessions or the conservation of natural resources [12]
  • The popularity and development of the so-called sharing economy, which favorably align itself with the idea of residential microspaces [10].
  • New forms of living such as ‘co-living’ where often the private space is minimalized and complemented with shared space [13]

1.1. Microflat—Definition

Residential microspaces are a new phenomenon that is just beginning to be defined. In the literature, we can find many different definitions and classifications of terms that concern microflats. The term microapartment (also: micro-unit or microflat) can have a very broad meaning. Such a unit has no strictly defined size and is typically defined in the context of other units in a given place (country, region, city). This is why the sizes of European, American, or Asian microflats can differ considerably. Typically, a microflat is smaller than a standard single-room flat in a given area, and its size typically does not exceed 35–40 m2 [14]. Here we can see a correlation of this size with studies of minimum residential space conducted by Cohen [15]. This study concluded that a comfortable and safe space for a single person should be around 14–20 m2, and for four persons it should be around 42–80 m2.
Independence is also crucial—a microflat is an independent unit, with its own entrance, has a dedicated space for living/sleeping, and a bathroom and place to cook (a kitchenette) [10].
In this study, we assumed the following definition of a microflat—a flat that has a floor area lower than 35 m2, is independent, self-sufficient, used in various ways (it can be used as a temporary residence), located in a large city and equipped in a manner that allows living comfortably on a small area. This study investigates the furnishing of such a flat.
This paper has the following structure. In the introduction, defines the term ‘microflat’, documents the previous literature on microflats, and defines the objective of the study. The following section presents the sample selection criteria, the research method, and the categories of arrangement solutions that were used to analyze the selected microflats. The final section documents the findings of the analysis and presents an attempt at explaining them.

1.2. Literature Review

Previous studies on microflats identified the users of such spaces. They are typically:
  • Persons who live alone or couples [6,16];
  • People who spend a lot of time outside the home and believe that the city is an extension of their flat [10];
  • Persons forced to change their place of residence because of a divorce [3];
  • Senior citizens;
  • Seasonal workers [16];
  • People are inclined to limit the number of their possessions and to use the so-called sharing economy, e.g., they do not own cars but use car-sharing services [10].
Buildings with microflats are often complemented with additional common spaces such as living rooms, dining rooms, and co-working spaces [10], as well as areas that enhance the comfort of living, such as patios, rooftop terraces, and lobby-type or reception spaces in the ground-floors [3]
Microflats can be eco-friendly as they need less energy and resources to build, maintain, cool, or heat. Their siting in city centers means that the residents of such spaces often forgo the use of cars in favor of walking or using public transport [3,5,10,17]. Microflats have a positive impact on reducing urban sprawl as they enable denser development in central areas [5,10,16]. Unfortunately, due to their extremely small floor areas, microflats can generate a range of threats. The threats that have been documented in the literature include physiological ones—associated with the need to fold furniture—or psychological ones—linked to the overcrowding in a small space [18,19].
Studies on motivations behind choosing microflats for a home point to the main reasons for doing so being the lower price of such units, the possibility of living alone [3,10,20], and a good location, typically in a downtown area [20]. Many scholars highlighted the maladaptation of contemporary construction codes to development that includes microflats. Barriers that hinder the construction of such forms of housing include requirements concerning the minimum number of parking spaces, the size of external spaces, the size of common spaces, or minimum residential unit floor area values [3,10,16,21].
In terms of studying the interiors of microflats, an interesting aspect was investigated by Fisher-Gewirtzman [22], who explored the perception of space in small flats. In her study, Fisher-Gewirtzman used elements of virtual reality, proving that a small apartment is perceived by its residents as larger if one can see a window from the side of the entrance, and as more private when the bed is on a mezzanine. In a second study from 2017 [23], it was observed that apartments with windows placed opposite the entrance and with a place to sleep on a mezzanine are perceived as larger (the introduction of natural light and expansion of the view). The units perceived as the smallest were divided into many small spaces, with a blocked view of the window.
A link between good well-being in microflats and their furnishing has also been observed [24]. According to Thøgersen, furniture in microflats should be adapted to user needs, be custom-made, provide room for personalization, be simple to use, provide an illusion of greater space, it should not clutter the space, and be light and moveable.

1.3. Research Aim

This paper aims to supplement the research gap identified in the literature review by presenting an analysis of microflat interior design. The main purpose is to investigate the current interior design of microflats and assess their functionality and program. The detailed objectives of the study were: (1) to isolate and systematize microflat design methods, and (2) to define the common traits and differences between microflat designs of varying size and designed for different users.
To perform the analysis, we selected designs by renowned architectural firms that were awarded prizes, published in the trade press, and placed on websites. The collected arrangement and design solutions are a set of good practices in microflat design and can serve as an application basis that could prove useful in the first phase of the design process. Such a set could be used by design specialists (architects, interior designers), as well as the residents of such spaces.

2. Materials and Methods

2.1. Materials

The objects chosen for investigation were microflats located in different large European cities in countries from the Organisation for Economic Co-operation and Development (OECD), which were built over the past fifteen years (2005–2020). We decided to confine the selection of cities to the two largest groups defined by the OECD as functional urban areas (FUA)—large metropolitan areas (with populations above 1.5 million) and metropolitan areas (with populations between 250,000 and 1.5 million) [25]. We chose high-quality cases that received prizes and were reported on in architectural trade magazines and by trade websites. Following the previously adopted microflat definitions, we chose microflats that were independent (had their own entrance) and self-sufficient (had a living/sleeping space and a bathroom and kitchen/kitchenette). The maximum floor area for the cases was assumed at 35 m2. No minimum floor area value was assumed. The price criterion, although very important, was not included in this study due to the lack of availability of such data. However, because the examined projects were made by professional architectural offices, often awarded and published in the architectural press, it can be concluded that these are generally luxury apartments, being a place of residence by choice and not by necessity.
After an initial analysis of the microflats, we proposed an original division of the cases under study into three size groups:
  • S—floor area between 35 and 25 m2 (typical flats with a separate sleeping area);
  • XS—floor area between 25 and 15 m2 (single-space flats);
  • XXS—floor area lower than 15 m2 (extremely small units).
There were over 100 microflats preliminary studied. Then the 30 (10 in each group), that met the assumed conditions (size, location, time of realization), were selected for further study. All selected apartments were selected based on the designs of architectural studios. However, in some cases, the best information was obtained from websites such as ArchDaily (https://www.archdaily.com/, accessed on 18 December 2020), DesignMilk (https://design-milk.com/, accessed on 20 December 2020) or DeZeen (https://www.dezeen.com/, accessed on 20 December 2020) collecting and presenting current projects of various architects (Table 1 and Table A1).
Table 1. The list of the analyzed microapartments with basic information.

2.2. Methods

The following research methods were applied: in order to collect a research material a review of the literature (queries, research of direct and indirect sources, review of digital libraries, electronic databases, and websites) and field research (site visits, photographic and descriptive documentation, interviews) were done. The analysis of the research material was carried out on the basis of diagnostic and prognostic methods, a multiple-case study [26], and a comparative analysis of selected cases. The microflats were investigated based on descriptions and iconographic materials (design drawings, floor plans, cross-sections, axonometric projections, diagrams, photographs) available either in the literature or online, on the websites of the designers of specific units, and on-site investigation. To exhaustively explore the subject of microflat interior design, we chose a relatively extensive study group (30 units) in a variety of geographical locations (14 large cities from European OECD member states).
In the study presented, we analyzed microflats in terms of their functional layout, interior composition, and interior design methods applied. We collected essential data about the units in tables, listing: floor area, volume, residential area, ancillary area, number of levels that feature residential functions, user number, presence, and size of external space (Table 2).
Table 2. Microapartments—size and dimensions.
Based on our personal design experience, the observation of existing architectural solutions, and analyses of the literature [27,28,29,30,31], we formulated a reference list of solutions with which one can design and arrange a minimum residential area.
The process of interior design can vary greatly and can depend on both the architect and the user. The model of activity (design phases) is presented in the diagram in Figure 1.
Figure 1. Model of activity/design phases.
The individual tasks (phases) sometimes overlap or there can be a return to initial tasks, which is why the scheme has an iterative character. In reference to the interior design phases, the architectural solutions applied in microflats were divided into four categories, depending on the design means used and when they can be used during the design process: F—functional solutions, P—spatial solutions, M—furniture and interior design solutions, O—optical solutions.

2.3. F—Functional Solutions

Solutions from this group apply to a unit’s functional program. These are decisions that must typically be made early, during the pre-design stage, which is when all types of changes and corrections can be made. Such solutions are typically applied in new constructions or general renovations and are rare in adaptive reuse projects.
Below is an overview of changes in functional solutions:
  • F1—room count reduction—deciding not to section off certain functions, e.g., the lack of a dedicated dining room, no full kitchen (a solution for persons who eat outside the home));
  • F2—room size-reduction—designing space with the minimum possible floor area, dictated by ergonomics or the size of furniture/appliances, which have to be installed in a given space, e.g., a bedroom designed as a bed-sized niche for sleeping;
  • F3—circulation space reduction (circulation space is provided by parts of spaces with other functions, e.g., crossing from one space to another via a different space, no dedicated vestibule, hallway, etc.);
  • F4—combining functions, multi-purpose rooms, with no wall divisions—one space can feature zones with different functions, e.g., combining a kitchen with a dining area, a kitchen with a dining area and living area, etc.
  • F5—a single space that functions differently at different times—depending on furniture layout, partition setting, and interior rearrangement, can fulfill various functions (contrary to F4, here there is rearrangement, i.e., furniture is moved, hidden and retractable furniture is opened, etc.);
  • F6—creating functional blocks (combining elements with similar functions into blocks and placing them nearby or together, to free up space).

2.4. P—Spatial Solutions

Design solutions from this group concern the dimensions and shape of the unit or room and are typically used during building design. It is difficult to apply them to existing buildings, where room dimensions and shapes have already been defined.
The following spatial solutions in the design of residential microspaces were identified:
  • P1—stacking functions—the use of a room’s height, introducing a mezzanine or additional story so as to add another function, e.g., a bedroom on a mezzanine, above a bathroom or kitchen;
  • P2—not building walls—partitioning spaces using other means than walls, e.g., using furniture, stairs, an openwork screen, the space’s shape, a local widening/narrowing of space, a lowering of the ceiling, etc.;
  • P3—vertical space use—for instance by using furniture that extends along with the entire height of a wall, the use of space under the stairs, the bed, etc. This solution differs from P1 in that functions are not stacked on top of each other (e.g., a bedroom above a bathroom), but merely occupy the space in the upper parts of walls for shelving, storage spaces, etc. or occupy the space under other interior furnishing elements (under the stairs, the bed, etc.);
  • P4—simple plan geometry—interiors are designed to have simple floor plans, e.g., in the shape of a rectangle or square, without acute angles, corners, etc.

2.5. M—Furniture/Equipment Solutions

Furniture and equipment solutions are based on using items such as furniture, windows, doors, divisions between spaces. Solutions from this group can be applied both in newly designed buildings and in adaptive reuse projects.
The following furniture and equipment methods of designing minimum residential spaces were identified:
  • M1—the design of retractable or hidable furniture—furniture whose elements can be hidden or that change their geometry;
  • M2—using built-in furniture (furniture built into a wall or that form a partition between spaces themselves, e.g., kitchen furniture or built-in wardrobes);
  • M3—the use of sliding doors or windows;
  • M4—the design of movable walls that can change the shape of the space, or either combine or separate neighboring spaces.

2.6. O—Optical Solutions

Optical solutions are a group of solutions that are the cheapest and easiest to apply, and which are independent of the architecture of a given building or interior. They can be applied both in newly designed buildings and in adaptive reuse projects. Optical solutions concern the apparent impression of a space’s size, associated with, among others, color or wall patterns. Such solutions do not change the size of spaces but provide a visual impression of either a small or large space.
The following optical means of designing minimal residential spaces were identified:
  • O1—using bright colors;
  • O2—designing simple or hidden details and joints—retractable handles, knobs, simple connections between elements that produce an impression of visual calmness and order;
  • O3—using smooth surfaces, a lack of patterns;
  • O4—maximizing daylight—the best possible use of means of admitting daylight, not a space—e.g., by placing functions that require greater insolation near windows (in existing buildings), or the design of very large glazing and windows (in existing buildings adapted into microflats), the use of transparent partitions between spaces, etc.
  • O5—the use of mirrors or reflective surfaces;
  • O6—introducing openings in walls between spaces (so that we can see a different space while being in another).
The interiors of the studied objects were carefully analyzed in terms of the occurrence of solutions from each of the groups. The occurrence of a given method of designing residential micro-spaces in the examined facilities is marked in Table A2, Table A3, Table A4 and Table A5.

3. Results

The analysis of the microspaces and their arrangement enabled the grouping of each arrangement solution in terms of frequency of use (Figure 2, Figure 3, Figure 4 and Figure 5).
Figure 2. The frequency of occurrence of functional solutions in the tested microapartments.
Figure 3. The frequency of occurrence of spatial solutions in the tested microapartments.
Figure 4. The frequency of occurrence of furniture/equipment solutions in the tested microapartments.
Figure 5. The frequency of occurrence of optical solutions in the tested microapartments.

3.1. M.S

The solutions that were the most popular in the M.S group were spatial ones (P). Among spatial solutions (P), those most frequently used were based on using space vertically (P3)—space under the stairs and the bed was used for storage.
Functional solutions (F) were also popular, including reducing room numbers (F1) or sizes (F3), as well as reducing circulation spaces (F3) and combining functions (F4), in addition to optical solutions (O). In the case of combining functions, it was the most common to form multifunctional living rooms combined with kitchens and dining spaces, with the addition of sleeping spaces being less common. From among optical solutions (O), popular ones included attention to the optimal use of daylight (O4), the application of furnishings with simple details (O2), bright surfaces (O1), and smooth surfaces with no patterns (O3).
The least common solutions were from the furniture and interior design group (M), here the exception was the use of built-in furniture (M2), which were present in all of the cases from this group. Typically this applied to kitchen furniture and wardrobes, and sometimes to beds. Movable walls (M4) were used once only.

3.2. M.XS

In units from the M.XS group, spatial solutions (P) were the most popular. The most common solution was designing an interior with simple geometry (P4) and the avoidance of walls in favor of a different form of partitioning spaces with different functions (P2). In microflats, areas with different functions were separated from each other using built-in furniture, the shape of the space, or level differences.
The second-most popular group were functional solutions (F): the reduction of the number of rooms (F1), reducing room size (F2), and combining room functions (F4). In the case of combining functions, the most popular solution involved combining the living room with the kitchen and dining area. Uncommon combinations were also found, such as combining the vestibule with the shower (M.XS.4 Mieszkanie na Tamce) and introducing elements of the bathroom into the kitchen (M.XS.9 Mini Studio et Pans de Bois and M.XS.10 Hermes City Plaza Student Housing).
In this group, optical solutions proved to be slightly less popular—the maximum use of daylight (O4), bright colors (O1), and simple or hidden details (O2). Furniture and interior design solutions (M) were used the most rarely. Built-in furniture (M2) was the exception here, as it appeared in every case studied (this was typically kitchen furniture and wardrobes, but there was also a built-in bed).

3.3. M.XXS

In the group with the smallest units, functional solutions (F) were the most prevalent. All units featured a reduced number (F1) and size of rooms (F2), and the combination of functions (F4) (typically the bathroom was the only isolated space). All units featured the combining of a living room with a kitchen or dining space, and there were also interesting combinations of a vestibule with a workstation (M.XXS.8) or a living room with a wardrobe and laundry area, and of a kitchen with a vestibule (M.XXS.4).
Other arrangement solutions were less rarely used in this group. Among spatial solutions (P), it was popular to have no walls and isolate spaces in a different way (P2), stacking functions by placing a bed on a mezzanine (P1) and using the space under other elements (P3). From among optical solutions (O), the use of bright colors (O1) and a simple or hidden detail (O2) predominated, in addition to the avoidance of patterns and the use of smooth surfaces (O3), and the maximum possible use of daylight (O4).
Furniture and equipment solutions (M) were relatively the least popular in this group. The exception here, as in the other groups, was the use of built-in furniture (kitchens and wardrobes), and in one case (M.XXS.9) all furniture was designed as built-in. In many cases, built-in-furniture (M2) was also retractable or hidden (M1). Half of the investigated cases from this group featured sliding doors (M3) (all led to bathrooms).

4. Discussion and Conclusions

This paper presents a study of 30 residential units with a floor area lower than 35 m2, which were independent and intended for either permanent or temporary residence and was built over the past fifteen years in several large European cities in OECD member states.
Based on the analyses conducted, it was observed that the most frequently used methods of arranging such minimal residential spaces were from the functional (F) and spatial (P) groups. One could also observe a tendency wherein the smaller the unit, the greater the frequency of applying methods from the functional group (F), while spatial group solutions (P) were more often used in larger units (Figure 6 and Figure 7).
Figure 6. The frequency of the occurrence of functional solutions.
Figure 7. The frequency of the occurrence of spatial solutions.
Even though decisions on functional solutions must typically be made very early, already during the stage of formulating the functional program, they were used very often. This was most probably caused by their potentially high effectiveness. For instance, forgoing certain functions (F1) or combining them (F4) eliminates entire spaces from the functional program, which can produce significant usable floor area savings. The effectiveness of functional solutions can also be confirmed by the fact that these were the solutions applied in units with the most beneficial ratio of the residential area to total floor area. Combining functions (F4) was observed to be popular not only in small residential spaces but also in larger flats or houses. For many years, it has been a standard to combine the living room with the kitchen and dining area (and not just in small apartments). In the cases under study, more atypical function combinations could be observed, such as relocating portions of the bathroom function to other spaces (a shower in a vestibule, a washbasin, and a kitchen sink) or arranging a study in the vestibule. Such functional combinations can be risky and not always acceptable by users. However, in highly specific types of interiors such as microunits, especially those for a single resident, they can be justified. Among spatial solutions (P), one of the most popular procedures was function stacking (P1) by placing a bed on a mezzanine, which confirmed the findings of earlier studies [22,23].
The most rarely used methods of arranging a minimal residential space (in all size groups) were furniture and interior design solutions (M) (Figure 8). The low popularity of solutions from this group can stem from the fact that they can be relatively expensive (e.g., hidden or retractable furniture—M1), troublesome to use (movable walls—M4), or produce little in the way of floor area savings (sliding windows or doors—M3). In addition, in the smallest of apartments, typically the only space to be isolated is the bathroom, and thus the entire space only has one door and how they open will have a minimum impact on the interior’s design. The exception in this group is built-in furniture (M2), which was present in all of the cases studied. Built-in furniture is a relatively popular and well-known solution, which has been successfully used even in apartments with greater floor areas for a long time. Thøgersen [24] argued that furniture in microapartments should be light and movable, while this study shows that the most popular furniture in a microapartment is of the built-in type, and thus impossible to move. The difference in findings can be based on the fact that in the cases studied the built-in furniture typically includes the largest pieces in a flat (kitchen furniture and wardrobes) and having them built-in allows one to “hide” them from the resident’s view, while smaller pieces of furniture like chairs, tables, etc., are typically freestanding.
Figure 8. The frequency of the occurrence of furniture/equipment solutions.
In the case of optical solutions (Figure 9), it was observed that the most commonly used solutions were the application of bright colors (O1), hidden or simple details (O2), and efforts to maximize daylight inside the unit (O4), which confirms the findings of earlier studies [22,23] that concluded that residents see interiors with unobscured windows opposite the entrance as larger. Mirrors (O5) were used the least frequently (they can be troublesome in small residential spaces, e.g., they can produce optical illusions) and openings in walls between spaces (O6) (perhaps due to attempts at producing a feeling of intimacy in even the smallest flats). The group of optical solutions is the most affected by the designer’s/client’s taste or current fashion (e.g., bright colors (O1), simple or hidden details (O2), or smooth surfaces without patterns (O3)) (Figure 5).
Figure 9. The frequency of the occurrence of optical solutions.
As the cities expand and housing prices increase, microapartments can become a convenient housing alternative for people choosing to live in the city center and willing to sacrifice the size of the apartment for other advantages [3,10,20],. In addition microapartments fit into the idea of sustainable development—e.g., smaller apartments reduce the carbon footprint (lower heating or cooling, less construction materials) [3,5,10,17], or savings connected with a location in city centers (lower infrastructure costs, reducing the commute to the centers) [5,10,16]. Therefore it is crucial to learn about good ways of designing such apartments, so that reducing their size does not reduce the quality of life.
Based on the analyses presented in the study, it was concluded that microflats can take on a diverse range of forms and have a very rich functional program, which depends on the user, location, and primary function. There are a great many ways in which microunits can be designed. The manner of arrangement of a minimal residential space should be adapted to the building under design and approved by or tailored to the user. However, it can be observed that when extremely small microflats are concerned, the best arrangement solutions are those from the functional (F) and spatial group (P) (Figure 2, Figure 3, Figure 6 and Figure 7). More decorative solutions, such as color, material (the optical solutions group—O), or furniture/equipment (M) (Figure 4, Figure 5, Figure 8 and Figure 9), play a secondary role. They can supplement other solutions, they can improve occupant wellbeing, but are less impactful when a microunit interior is well-designed. The key learning for the architects and interior designers is that the best effects in microunit design can be achieved by performing a comprehensive analysis of external conditions and user needs, which will allow for the introduction of bold and sometimes non-standard functional solutions. Further research in this field will explore the acceptance of proposed interior solutions by potential residents.

Author Contributions

Conceptualization, B.E.G. and A.S.; methodology, B.E.G. and A.S.; software, A.S.; validation, B.E.G. and A.S.; formal analysis, B.E.G. and A.S.; investigation, B.E.G. and A.S.; resources, B.E.G.; data curation, A.S.; writing—original draft preparation, B.E.G. and A.S.; writing—review and editing, B.E.G. and A.S.; visualization, A.S.; supervision, B.E.G.; project administration, B.E.G. and A.S.; All authors have read and agreed to the published version of the manuscript.

Funding

This research received no external funding.

Institutional Review Board Statement

Not applicable.

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A

Table A1. Plan schemes—original work based on the sources given.
Figure A1. Interior views of M.S.5 Długi Lokal, design Mili Młodzi Ludzie, [photos PION Studio, reprodused with permission from Mili Młodzi Ludzie [31].
Figure A2. Interior views of M.XS.3 Mieszkanie na Tamce, design Jakub Szczęsny, [photos Radek Wojnar, styling Eva Milczarek, reprodused with permission fromJakub Szczęsny [40].
Figure A3. Interior views of M.XXS.4 13 m2, design Szymon Hanczar, [reprodused with permission from Szymon Hanczar [52].
Table A2. Flats—interior design analysis, functional solutions.
Table A3. Flats—interior design analysis, spatial solutions.
Table A4. Flats—interior design analysis, furniture, and equipment solutions.
Table A5. Flats—interior design analysis, optical solutions.

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