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- Geodesic Domes as Business
Model in Hotel Management for
Local Economies Development
Geodesic Domes as Business
Model in Hotel Management for
Local Economies Development
Soares, Theska; Arruda, Amilton
Abstract: This research aims to present the Buckminster Fuller geodesics in a contemporary
context through a new hotel model, detailed by the case of the Ecocamp Hotel
(CHILE), a pioneer in the construction of hotel rooms with geodetic domes incorporating
aspects of local culture, sustainable development of the environment, and also, linking
concepts of environmental awareness. This project was chosen for analysis because it was
a great success, becoming a model for other ventures of the same segment, in other regions
of the country, as well as abroad. It is important to show this case study because its model
proves very promising also to be replicated in the context of the development of local
economies in Brazil or in underdeveloped countries.
Key words: Geodesic domes - new business models - development of local economies -
(*) Theska Soares. She is a graduate, Master and PhD student in Design from the Federal
University of Pernambuco (UFPE-BRA). She also majored in Product Design and Interior
Design at Faculdade Boa Viagem (FBV-BRA) in partnership with the Istituto Europeo di
Design (IEDBRA). During his professional career, he accumulated experience in several
areas of Design, such as graphic design, fashion, packaging, web design, interiors, ergonomics
and mainly industrial product design, where he focused on the creation and development
of new products for the Tramontina industry using the methodology of Strategic
Design. Currently she is a substitute professor in the Department of Design at the Federal
University of Pernambuco on the Agreste campus (BRA), through the disciplines of Design
History, Color Language and Three-Dimensional Representation System and also a
researcher at the Biodesign Laboratory (UFPE / BRA) through research involving areas of
Biomimetics and Strategic Design.
(**) Amilton José Vieira de Arruda. He holds a degree in Industrial Design from UFPE
(1982), a Master’s degree in Design and Bionics from the Ricerche Center of the European
Design Institute of Milan (1992) and a PhD in Industrial Design from Politecnico di Milan
(2002). He has been an international consultant for the Milan Institute of Design in
the implementation of lato sensu postgraduate courses at Ávila (Goiânia) and FBV (Recife)
and at the Institute of Higher Education in Brasília (DF). Since 1985, he is professor
of the UFPE Design course. Professor of the post graduate Program in Design at UFPE.
Coordinator of the research group Biodesign and Industrial Artifacts of CNPp. Has experience
in the area of strategic design with emphasis on design and bionics, biomimetics,
acting on our topics: product development, graphic design, editorial and strategic design.
coordinator and editor with the publisher Blucher, of the [designCONTEXTO] series. email@example.com
Krucken (2009) explains that countries with great diversity such as Brazil have a great
wealth of cultures and ethnicities as well as biodiversity resources [...]. Encouraging the
recognition of qualities and values related to the region - qualities related to the territory,
resources, knowledge embedded in the elaboration of the tourism business strategy of
experience and its importance to the local community - is a way of contributing to make
visible to society the history behind the experience. Telling this “story” means communicating
corresponding cultural and social elements, enabling the consumer to evaluate and
appreciate it even more, collaborating with the valorization of the region. It means developing
a favorable image of the territory in which the service originates. This visibility can
contribute to the protection of cultural heritage and the diversity of cultures, thus being
a factor in preserving cultural heritage, with a focus on the adoption and appreciation of
sustainable practices, commercialization and even more conscious consumption.
In this context stands out the case of the hotel located within the Torres del Paine natural
park (Patagonia-Chile) designed to promote ecological tourism with minimal impact on
the surroundings. The choice of the geodesic configuration is very well associated with the
idea of sustainability, since they are lighter structures, easy to assemble, saving materials and
energy to heat, and that in fact, they are also a reference for the original indigenous huts of
the region, which had the same hemispheric format, thus reinforcing aspects of local culture.
The Geodesic Summits are emblematic structures patented by the American architect
Buckminster Fuller, who gained a lot of visibility and became a symbol of modern architecture
in the 1950s. According to the Buckminster Fuller Institute, there are more
than 300,000 copies spread throughout the world, the EPCOT Center at Disney (USA). In
the current context, many companies have recently observed the potential of using these
structures in hotel projects linked to the concepts of sustainability and environmental
awareness, such as the Ecocamp hotel in Patagonia (Chile), a pioneer in the construction
of hotel rooms with geodetic domes.
The hotel is also an example of sustainable development of the environment, as it uses
local suppliers to: purchase of food; horses used in transport; most of the furniture, crafts
and decoration, and especially for the workforce, where 90% of the staff live in the area.
There is also a shop with products from local partners of wool and leather, guaranteeing
them a good monthly income. This case was so successful that it later became a model for
other ecotourism ventures within Chile itself and in other European countries, which also
raises the hypothesis of being an advantageous business model for the development of
preservation areas in Brazil, including its vast coastal areas.
2. The Geodesic Domes
In 1922, Bauersfeld, the German leading scientist of design for the optical industry Carl
Zeiss, developed the first geodesic dome lined with cement to house a planetarium. But it
was Buckminster Fuller who discovered the laws forming these structures, building and
disseminating their properties in numerous optimization studies, thereby achieving patent
no. 2,682,235 relating to the geodesic dome in 1954 and making it an icon of modern
architecture, decade 50 (Forlani, 1983).
The geodesic domes are polyhedra with flat triangular faces (which also generate pentagons
and hexagons) whose vertices coincide with the surface of an imaginary sphere that
circumscribes it. Most of them are derived from the icosahedron (20 triangular faces),
considered a geodetic sphere of frequency 1. To generate different geodesic structures of
the same diameter, simply increase the frequency, that is, subdivide the triangular faces
into smaller and smaller triangles, the more higher the number of triangles in which its
surface will be subdivided and the more its appearance becomes rounded.
For someone who does not know the story, a non-judgmental look at the geodesic domes
might not clearly translate the concepts and inspiration behind these structures. As the
form is too geometric and projected, this can lead to the misunderstanding that there is
no relation to nature, but as it has been said, in fact, the relation exists.
Gorman (2005) reveals that in Explorations of Synergistic Geometry, from the 1940s, Fuller
actually believed that he was investigating “the coordinate system of nature”, inspired by
the German naturalist Ernst Haeckel’s Kunstformen der Natur and On growth and form
by D’Arcy Thompson. In this way, the geodesic domes were inspired by the “macrocosm”,
considering the spherical celestial configurations, and in the “microcosm”, considering
the spherical microorganisms like those of Radiolaria. “Radiolarias are marine protozoa,
whose species present the cytoplasm surrounded by a delicate central siliceous capsule,
with perforations that let the pseudopods pass, simple or branchel” (Haeckel, 2005).
This class of protozoa living in marine plankton had its forms revealed in the studies illustrated
in Haeckel’s books that were first presented in 1904, the year of its first publication.
Some of these radiolaries were represented by a series of radial skeletons that form
geometric patterns, defining the reference and analogical bases of reference, analysis and
Not only Radiolarias, but he observed that several other natural structures also use the
principle of leaky structures and spherical protective shell and container as observed in
chapter 2. In this way, Fuller (1998) was convinced that the nature favors the spherical
pattern and that this would be a representation of the coordinate system of nature, which
triggered the study of mathematics for the engineering of this configuration.
Edmondson (2007), a Harvard professor who was a student of Fuller, reveals in Fuller’s
explanation: the synergetic geometry of R. Buckminster, that in fact, Fuller believed that
a high-frequency geodetic polyhedron provides the true model of physical systems that is
interpreted as spheres, since he did not agree with this notion of continuous surface equidistant
from a central point as stated, for example, in soap bubbles, for him this definition
was scientifically unacceptable and inconsistent with physical reality, as it justified that in some levels of resolution, all “spheres” consist of an incalculable number of energetic
events interconnected by an even greater number of vector relations or forces.
Fuller (1979) himself explains how these mistaken spherical sensations are produced:
Because of the matrices of polyhedral interferences identified as points very
nearly equidistant from a central point and because the mass-attractive or
mass-repulsive relations of all points between them are more economically
manifested by strings and not arcs ... the matrix spherical is actually produced
by points of omnitriangulated geodesic structures of very high frequency
Indeed, the eyes cannot see individual molecules in the transparency of a soap bubble, nor
can the chemical attractions be detected between molecules through these strings identified
by Fuller (at least not so far), however, such connections exist, the which makes its
According to Soares (2016), the American Institute of Architects (AIA) has designated the
geodesic dome as “the strongest, lightest and most efficient means of including space known
to man”. Verschleisser (2008) also reveals that the geodesic domes have self-support with
extraordinary resistance and lightness due to their spherical shape and the geometric forms
that constitute them, they communicate and support each other creating a system called
Fuller tensegrity integral), in which any force applied in one of them retransmits the tension
and distributes it equally between the others to its base, as well as the arcs in the engineering.
Moreover, much of this structural advantage comes from the enormous stability provided
by its triangular mesh. A triangle is a stable element independent of its size; they are the
only shapes that remain rigid, even when constructed with flexible connections, with each
vertex stabilizing on the opposite side. When forces generate a stabilized form, that is, able
to sustain itself, they create a Structure. In his book Synergetics, Fuller (1979) states that
the triangle is the only self-stabilizing polygon and that everything that is recognizable in
the Universe as a Pattern is identifiable as previously seen, and the triangle persists as a
constant pattern. Any other known patterns are inherently recognizable only by the virtue
of their triangular structural integrity, where structure means an omnitriangulation. Only
triangular structured patterns are regenerative patterns, and triangular structuring is a
standard of integrity in and of itself.
One of the ways Fuller (1979) describes force strength between a rectangle and a triangle
would be to apply pressure to both structures. The rectangle bends over its vertices and
would be unstable, but the triangle resists pressure and is about twice as strong and stiffer.
This principle guided his studies to the creation of the geodesic dome, in which he discovered
that if a spherical structure were created from triangles, it would have an unequaled
Thus, polyhedra formed entirely by regular triangular faces correspond to the more selfstabilized
structures, and therefore are the most indicated and used by Fuller in the geodesic
configurations, since other geometries such as squares, pentagons, hexagons, by the
inherent tendency the deformation at its vertices are more unstable, so the spherical solids
derived from meshes other than the triangular need to be rearranged within a triangular
logic or distributed together with it for more resistance (Pearce, 1980).
The triangle is a natural mathematical figure that, in combination with other triangles,
provides maximum efficiency with minimal structural effort. By bringing together a series
of identical geometric units that are self-sustaining and lightweight, Fuller has obtained
a dynamic construction in which the individual components contribute to the overall
structure, and it is no wonder that such a system is so used by engineering, in tetrahedral
applications, for example in the roofs of large sheds; or in non-apparent applications, such
as in beams.
Another geometrical advantage of these structures refers to the spherical configuration itself.
Fuller (1979) emphasizes the idea that when the diameter of the sphere is doubled, its
area will quadruple and expand by eight times the volume. Naturally the spheres perfectly
match the principle of “doing more with less” because they include the largest volume
with the least amount of surface area in the domes, this immediately reflects a material
saving guarantee. In addition, the spherical structure of a dome is one of the most efficient
indoor atmospheres for human dwellings, because air and energy can circulate without
obstruction, allowing both heating and cooling to occur naturally.
Still in relation to the specific configuration of the geodesics, there is also a considerable
advantage in the five or six bars coming out of each vertex: forces are instantaneously
distributed in many directions omniradially, reason why, they produce an unprecedented
force with respect to their weight (Edmondson, 2007).
Fuller’s objective with these eccentric constructions was to create versatile, cheap, energy
efficient, lightweight and flexible shelters: living machines, capable of being modified according
to the needs of those who inhabited them and is what seems to be happening
through the rescue of these structures for various purposes today
3. The business model of the Ecocamp Hotel
The Ecocamp is a hotel located inside a natural park in Patagonia (Chile) with a privileged
view to the mountainous region Torres del Paine. Founded in 2001 by the engineers and
owners of the Cascada Expediciones (adventure tour company) Javier Lopez, Yerko Ivelic
and Nani Astorga, was the pioneer in building hotel rooms with geodesic domes based on
Fuller’s derived model, although the hemispherical shape is also an indigenous hut of the
Similar as in the traditional hotels that have several options of rooms, in the Ecocamp
there are 4 options of domes for lodging: Standard with 10sqm, Suite with 28sqm, Loft
with 37sqm and Superior with 23sqm. The dining venues, yoga classes, shop and bar are
community geodesic domes that provide a meeting place where guests can share stories
with each other and plan future excursions.
Parameters of Ergonomics of the built environment such as: thermal, acoustic and luminous
comfort; accessibility and environmental perception will be presented below; as well
as the sustainable aspects of the hotel that address the current trends and urgencies will be
addressed. The purpose of these analyzes is to facilitate the visualization and understanding
of the context in which the applications of constructions with geodesics generally fit.
Starting with the thermal, acoustic and luminous aspects of comfort, it can be said that the
geometry of the geodesics favors an improved flow of air, the concentration of light and
heat and a more uniform temperature than in a conventional dwelling. The surface area
exposed on the outside in the domes is also smaller, allowing less heat exchange with the
environment; In addition to this, the volume of air inside the dome is also smaller, which
translates into economy to keep you cool in the winter, saving up to 50% in energy to heat.
The excellent distribution of the airflow inside the domes further avoids areas of air stagnation
and, therefore, there is a proliferation of fungi, bacteria and moisture.
The translucent areas of the roof of the domes naturally make them excellent collectors of
solar energy, reflecting the light and heat into the structure as a greenhouse, avoiding the
loss of heat by irradiation. This situation becomes very useful for regions with severe winter
as in Patagonia, allowing even without masonry walls, with the help of the wood burning
fireplace, solar heating, and the apparent structure of galvanized iron with the outer cover
of green tarpaulin and transparent, plus an inner layer of insulation pad are efficiently
sufficient to ensure heat and protection from the strong and cold winds of the place. Combined
with this, thermal comfort is also guaranteed by a gas system for heating the water.
On the acoustic comfort, Lotufo (1981) also emphasizes the acoustic quality provided
inside the domes, the geometry favors that the sound is reverberated within them and that
it becomes a barrier for the sounds from outside. In the case of the hotel, this quality can
be used within the domes for social interaction with musical performances and privacy
can be guaranteed with the distance given between these domes. Being in a region of
strong winds, the format helps to reduce the external noise a bit, although still allowing
the sounds of nature to be used, which is a positive point.
Already the lighting of the hotel privileges natural light for most of the day. Inside the
domes there are skylights that facilitate the capture of daylight and at night there is the
illumination by lamps and led torches from the green energy solar capturing. It is enough,
but a negative point is that in the version of the Standard dome is necessary to request
flashlights because the lighting is non-existent, getting compromised in other areas of
the hotel on strict winter days when solar illumination is precarious, even with electric
Regarding accessibility, although the hotel’s proposal is clearly aimed at an active public
seeking adventure, sportsmanship, which is evidenced by the programs of activities available
at the hotel such as walking, cycling or horseback riding on uneven terrain, peaks,
bridges or even yoga, canoeing, it is also important to discuss the ease of movement between
the built environment of the hotel, for people with mobility difficulties, such as
wheelchair users and the elderly. Here, this becomes a negative point, as there are no ramps
and as the constructions are suspended, even by relatively low wooden platforms, there are
always stairs and stops making passage difficult. The Standard version with only 10sqm is
also not suitable for wheelchairs, although in other areas, the fact that the domes are larger
and free of internal walls contributes to an unobstructed movement. Seniors may also
feel discouraged to stay in the domes furthest from community areas as they would have
to take long walks to and fro, though for some this may not be an exclusionary problem.
Regarding this accessibility for people with visual impairments, these would also feel certain
difficulties because of the stops and stairs, but also would not be a total impediment, especially if they are accompanied. The hearing impaired would have no problems with
the hotel’s surroundings, since they are very intuitive with the wooden walkways connecting
all the domes, but they may feel difficult to communicate if they are unaccompanied
and there is no hotel person capable of speaking of signs, yet nothing that a notepad does
However, a positive point of the hotel refers to accessibility more comprehensively, worrying
about the surrounding environment, and this can be observed in planning the construction
of the domes on raised platforms and in the absence of fences around the Ecocamp,
which allows that the passage of animals under the structures is not blocked and that
horses and other animals of the park can enter freely. Solar lamps illuminate the catwalks
and domes at night, being very subtle, so as not to disturb the nocturnal animals so that
they do not feel threatened by the hotel. Not only thinking about the accessibility of man
in the design of the built environment, but also that of the animals that live in the place
remains an innovative approach, according to current trends of environmental concern.
On environmental perception, the domes offer a very different and attractive look to the
layout of the hotel and the radial pattern allows the creation of more sociable spaces. With
self-supporting roofs, it is possible to have ample unobstructed spaces without the need
for beams, columns or support walls inside, and this tends to approach rather than separate
people. Another pertinent perception is that psychologically the concave curvature
inside the dome is more welcoming than the flat ceiling.
All sleeping domes are comfortable, even the smaller version, Standard, in which the bathroom
is shared and has no heating system or lighting. The other versions have a spacious
area for beds, a fireplace, private bathroom, gas water heating and electric power for cell
phones and laptops, but a negative point for some is the fact that there is no Wi-Fi available
(only in communal areas) , or dryers, since the energy consumption is limited and
the goal is to have a more natural experience possible within what is possible in terms of
comfort of interaction with nature, since everything is thought so that one notices the
premise of the hotel concern and environmental responsibility.
The social aspect is one of its most celebrated attributes, which promotes activities, walks
in groups and stimulates the conviviality. There are four domes for community use, they
are attached to the other sleeping domes by hanging wooden walkways. One is the cafeteria
where everyone eats together, the other a bar / lounge, a third is dedicated to yoga and
the last one contains a shop and a small library. In them, guests can interact, sit, read, talk,
do yoga, enjoy the good gastronomy of the hotel, relax, share their stories and adventures
of the day, etc. Guides usually also use the community library dome to show guests trail
maps and wildlife viewing points. All community domes are surrounded by terraces, with
ample room to favor social interaction.
Despite having a different configuration from the usual, the domes are very well seen by
the visitors that show the original design inside beautiful geometric forms, besides the approval
of the idea of green hotel. In 2016, its facebook page has reached more than 20,000
tannings and an approval of almost 5 stars, same approval on Tripadvisor’s website with
almost 500 comments from guests satisfied with their experiences, whose packages range
from $ 2600 to $ 5300 dollars, (including: activities, hotel, meals and transfers).
4. Geodesic Domes: Portable and Economical Design
The geodesic dome shape is very advantageous, because it optimizes the load, displacing
the forces throughout its structure, for this it is ergonomic, aerodynamic and strong to
withstand extreme situations like: strong winds, storms, earthquakes and accumulation of
snow. The stronger the wind, not having suction surfaces, surrounds it and says more on
the ground, including in the region of the hotel the speed of the winds can reach 200km
/ h. In addition, the sphere has 25% less surface area per closed volume than any other
shape. The dome combines the inherent stability of the triangles with the advantageous
volume / surface area ratio of a sphere which results in less building materials to include
more space. There is an estimated 30% reduction in materials and 50% energy compared
to a conventional masonry construction of the same built area. It also reduces labor costs,
since assembly and maintenance is easier, simpler and faster.
Having less material, less surface area, no internal walls and composed of lighter materials
than masonry, such as galvanized iron pipes, tarpaulins, insulation pads and wood,
this portable design does not need a complicated foundation, in the case of the Ecocamp
a hanging platform of pine was enough, this facilitated that in 2005 the hotel changed of
place, going to the foot of the Towers without leaving vestiges in the previous place. Being
easy to mount, it is well suited even to remote places like there, but it is also for deserts,
poles, forests, beaches, mountains, etc. Another interesting observation about the visual
composition of the hotel is that by the domes being green, the platforms of wood and of
limited height, camouflam harmoniously in the natural landscape.
5. The Ecocamp Hotel and its aspects of Sustainability
In 2008, it became a company with carbon-free certificate. This certificate is possible for
companies aiming to minimize CO² emissions as much as possible. The estimate is that in
1 year hotel policies offset some 230,000 tonnes of CO² emissions. Buying from local suppliers
also avoids issuance by transport, since other hotels in the region receive deliveries
on flights from the capital or abroad. And as they offer adventure expeditions, the means
of transport that they provide are also free of emission, such as horses, bicycles, canoes
and legs for hiking on the trails, being necessary the use of cars only for the arrival and
departure of the guests.
All electrical energy from the hotel comes from water turbines and photovoltaic panels,
that is, obtaining energy from 100% renewable sources, being 40% solar, since it is very
efficient in the summer, when Patagonia receives up to 17 hours of sunshine per day, and
60% hydro. The capture of energy by the water turbines is done by 5 l / s of river water that
pass through the turbines delivering a constant power of 800 Watts. An inverter is used to
switch batteries from 24V to 220V, the standard voltage in Chile. Allied to this, an array
of 1700 photovoltaic panels also connected to the battery bank complete the amount of
energy required for the operation of the Ecocamp hotel.
Thus, these batteries power all refrigerators, lighting, appliances, stereos, etc. Propane gas
is only used to heat the water and the upper cupolas, but there is a pilot project to heat the shower water also with solar energy. With the hotel’s energy-saving policy, it is limited
and is only available for guests to carry their gadgets, and it is not possible to use it for hair
dryers or shavers, for example.
The implementation and maintenance of this whole sustainable structure is a direct work
of the owners and engineers Javier and Yerko. They not only designed the whole concept,
but also taught, qualified, and supervised a whole team to maintain these resources.
In addition, the hotel has waste management that aims to reduce paper, cans and plastic
waste to the maximum, until the suppliers are chosen with great care, ensuring that they
are aware of complying with the environmental standards of the hotel that seeks to buy
in bulk, so as to limit individual packaging to a minimum to be brought into the park. All
waste is separated according to the recycling status: organic, paper, glass and hazardous
or toxic materials. The nonorganic are removed and shipped to the nearest town of Punta
Arenas for recycling, and the organic material serves as pig feed on a nearby farm.
Guides take care to prevent guests from throwing rubbish on the routes while hiking,
bringing back all non-biodegradable material back to the hotel. There are re-use of the
lunch zip-lock and water bottles and there is a manual at all domes informing ecological
practices which include: standing on the wooden walkways, not smoking inside the
domes, using biodegradable hygiene products, not discarding batteries, minimize time in
the shower and share the transport.
And it also works with the most modern composting device in the world, being the first in
the hotel industry throughout Chile and Patagonia. The chambers collect waste from the
toilets and separate the solid material from the liquid. The solid is mixed with paper and
wood chips and receives heat to keep microorganisms alive and the composting process
active. Already the liquid material passes through the cleaning chamber where it is filtered,
then passed to earth. Due to the low temperatures in Patagonia, there is a great effort to
maintain this process.
6. The Ecocamp Hotel and the development of the local economy
Thinking about sustainable development of the environment, the most logical social support
the hotel can offer is to buy locally and employ local residents, guaranteeing them a
good monthly income. For this reason, even horses are hired from nearby farmers, most
of the furniture, crafts and decoration are also from Punta Arenas and all food is bought
from the region (eggs, meats, fish, cheeses, dried fruits, grains, marmalade, breads, fruits
and vegetables). In addition, it also has a store that sells clothing from local producers,
mainly wool and leather.
About 90% of all employees are from the local region, most of them from Puerto Natales
and Punta Arenas, including specialized guides who grew up in the region and studied at
ecotourism universities in areas such as geology, ornithology and botany. The owners and
the manager are from Santiago. All live an eco-friendly life, taking care of energy, water
and waste management. They share the environmentally sustainable philosophy over the
years and encourage their customers, suppliers and shareholders to think and act in the
same way. It also fosters this understanding of the importance of nature among neighbors, sharing their strategies and sustainable innovations with the region’s development body to
help other entrepreneurs follow the same path.
To use the geodesics as an innovative business model in hotels that have been shown more
coherent for the sustainability that is urgent and that can be replicated in other regions
of preservation, both in Brazil and in other places of the world. Energy from renewable
sources, domes that maximize heat and solar lighting, walkways designed to minimize
disruption of the land to the environment, toilets with composting devices, minimization
of waste and waste, environmental respect, social responsibility, a whole strategy of
designed to create spaces where travelers can connect with nature and explore Torres del
Paine minimizing the impact on the environment, it is even a path full of possibilities to
be explored and undoubtedly, essential and of utmost importance for it to be replicated in
other places in conditions of preservation or that uses the business model that promotes
And it is this thinking projectual making that should be brought to the discussion. It is
necessary to understand the design of spaces in the various dimensions that surround it,
attending them equally to the extent that they will interfere in the future performance of
the project and even more so in the future of humanity. It is necessary to expand horizons,
not only to stick to the functionality of spaces, usability and accessibility and think not
only of segments perfectly harmonized with the man who inhabits and lives the environments,
but go beyond and think also in their surroundings, bring to the take up these new
issues and assume that in this way man can collaborate with a larger whole, where the
benefits are more comprehensive.
In this sense, Ecocamp Hotel has proven itself a great example, being a leader in environmentally
responsible travel, seeking to minimize the impact of each visitor in Torres del
Paine National Park and is constantly studying, testing, buying and installing sustainable
technologies for green energy supply and waste management, with the premise of bringing
comfort to the limits of only what is sustainable, resisting the concept of luxury that
so many other hotels aspire to, because environmental conservation is a priority over any
practices that could be detrimental to the park, and this is a very interesting point of view,
because to protect the park is to be responsible in a broader way, is to be worried about the
future of the next generations.
The summits and all the vision behind EcoCamp Hotel is admirable, other companies have
used this example as a basic design for other business models in hotels such as Punta de
Domos, Magma Lodge and Elqui Domos in Chile; as well as Whitepod (Switzerland) and
Aurora Dome (Finland) in Europe. With this, it is concluded that this model has many
arguments to be replicated in a similar way for the development of regional in Brazil, both
coastal regions, with its vast and exuberant beaches, as well as the interior, through the
great potential of application to the sustainable tourism of environmental preservation
regions such as the Pantanal, the Amazon, Foz do Iguaçu, Chapada Diamantina, among
many other areas of natural beauty in the country.
Still, other parts of the world could follow your example and use the hotel model to contribute
ideas and values for the preservation of Earth’s natural resources through these
strategies because caring for the environment is as important as it is promising to inspire
Edmondson, A. C. (2007). A Fuller explanation: the synergetic geometry of R. Buckminster
Fuller. Pueblo: EmergentWorld.
Forlani, M. C. (1983). Materiali Strutture Forme. Firenze: Alinea.
Fuller, R. B. (1998). Manual de instruções para a nave espacial Terra. Porto: Via Optima.
Fuller, R. B. (1979). Synergetics 2: Further explorations in the geometry of thinking. New
Gorman, J. M. (2005). Buckminster Fuller: Designing for mobility. Milano: Skira Editore S.p.A.
Krucken, L. (2009). Design e Território: Valorização de Identidade e Produtos Locais. São
Paulo: Studio Nobel.
Haeckel, E. (2005). Art Forms from the Ocean. New York: Prestel.
Lotufo, V. A.; Lopes, J. M. A. (1981). Geodésicas & Cia, 1ª ed. São Paulo: Projeto Editores
Pearce, P. (1980). Structure in Nature is a Strategy for Design. Massachusetts: The MIT Press.
Soares, T. A. (2016). Biomimética e a Geodésica de Buckminster Fuller: Uma Estratégia de
Biodesign. Dissertação (mestrado) - Universidade Federal de Pernambuco, Recife, Departamento
de Design do Centro de Artes de Comunicação.
Soares, T.; Arruda, A. (2016). As estruturas Geodésicas do Ecocamp na Patagônia: Um estudo
sobre seus aspectos ergonômicos e Sustentáveis. In: 1º Congresso Internacional de
Ergonomia Aplicada, 2016, Recife. Blucher Engineering Proceedings. São Paulo: Editora
Blucher. V3. pp. 216-227.
Soares, T.; Arruda, A.; Hartkoff, C.; Barbosa, J.; Balestra, R. A. (2016). Relação entre a
Biomimética e a Geodésica de Buckminster Fuller no Planejamneto de Construções Sustentáveis.
7º Congresso Luso Brasileiro para o Planejamento Urbano, Regional, Integrado
e Sustentável. Maceió.
Verschleisser, R. (2008). Aplicação de Estruturas de Bambu no Design de Objetos. Como
Construir Objetos Leves, Resistentes, Ecológicos, e de Baixo Custo, Tese (Doutorado). Rio
de Janeiro: Pontifícia Universidade Católica do Rio de Janeiro.
Resumen: Esta investigación tiene como objetivo presentar las cúpulas geodésicas de
Buckminster Fuller en un contexto contemporáneo a través del caso del Hotel Ecocamp
(CHILE), un pionero en la construcción de habitaciones de hotel con cúpulas geodésicas
incorporando aspectos de la cultura local, desarrollo sostenible y conceptos de conciencia
ambiental. Este proyecto fue elegido para el análisis porque fue un gran éxito, convirtiéndose
en un modelo para otras empresas del mismo segmento, en otras regiones del país, así como en el extranjero. Es importante mostrar este estudio de caso porque su modelo
resulta muy prometedor y también se puede replicar en el contexto del desarrollo de las
economías locales en Brasil o en los países subdesarrollados.
Palabras clave: cúpulas geodésicas - nuevos modelos de negocios - desarrollo de economías
locales - sostenibilidad.
Resumo: Esta pesquisa tem como objetivo apresentar as cúpulas geodésicas de Buckminster
Fuller num contexto contemporâneo através do caso do Ecocamp Hotel (CHILE), pioneiro
na construção de quartos de hotel com cúpulas geodésicas que incorporam aspectos
da cultura local, desenvolvimento sustentável e conceitos de consciência ambiental. Este
projeto foi escolhido para análise porque foi um grande sucesso, tornando-se um modelo
para outras empresas no mesmo segmento, em outras regiões do país, bem como no exterior.
É importante mostrar este estudo de caso porque seu modelo é muito promissor
e também pode ser replicado no contexto do desenvolvimento das economias locais no
Brasil ou em países subdesenvolvidos.
Palavras chave: cúpulas geodésicas - novos modelos de negócios - desenvolvimento de
economias locais - sustentabilidade.
Geodesic Domes as Business
Model in Hotel Management for
Local Economies Development fue publicado de la página 111 a página122 en Cuadernos del Centro de Estudios en Diseño y Comunicación Nº80
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