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We partnered up with the world's largest independent 3D printing social platformMyMiniFactory to smooth the way for you to create and share printable 3D models. Our Online 3D Printing Services allows you to Upload, Get a Quote & Order your 3D Printed Models online with Fast Delivery. 3DCompare also offers CAD Design services.

Import and export models from the Vectary editor directly to Myminifactory.com

We partnered up with the world's largest independent 3D printing social platform MyMiniFactory to smooth the way for you to create and share printable 3D models!

The collaboration between VECTARY and MyMiniFactory came about quite naturally, with both companies sharing the same vision of getting more people around the world to 3D model and 3D print. By bringing our communities together we believe that we're one step closer to making 3D modeling accessible to everyone and slowly, but surely change the face of the 3D industry.

Share your printable 3D models and get recognized

We integrated in the tool's editor two plugins — one for exporting of printable 3D models to MyMiniFactory, and the other for import — both of which you can access with just one click to save you plenty of time and let you focus more on 3D modeling.

Export and import

The Export plugin allows you to share your VECTARY projects with MyMiniFactory's large audience of designers and 3D printer owners. With lots of companies going there in search for inspiration and solutions, this makes a great opportunity for your work to get featured and noticed.

The platform also houses design competitions on a regular basis (we have a surprise for you coming soon!). Besides the consistent prizes that you can win, you can also get recognized by big brands and add value to your portfolio.

The Import plugin is meant to bring more diversity and inspiration to your design projects. You can choose from over 30,000 3D objects to import from MyMiniFactory to VECTARY. All of the 3D designs are pre-tested and guaranteed for 3D printing so you don't waste time handling broken files.

Once in VECTARY, you can edit their design, customize them to your liking or completely re-shape them, and then you can download the .stl file for your 3D printer or order a 3D print directly from our tool.

Export:

Once you're done and happy with your 3D model in VECTARY, you can share it to MyMiniFactory's 3D printing platform right from the editor. To activate the plugin, click +Add plugin at the bottom right of the scene and, from My Plugins, select the MyMiniFactory Exporter plugin. In the box that appears, log in to MyMiniFactory and then click Send to MyMiniFactory. This will send the model for approval to be uploaded under your MyMiniFactory profile. Once you receive the email confirmation, click on the link in the email to see your model on the MMF page.

Import:

You can also import thousands of guaranteed 3D printable models from MyMiniFactory directly to our free, online 3D modeling tool. To activate the Import plugin, click +Add plugin at the bottom right of the scene and, from My Plugins, select the MyMiniFactory Import plugin. In the box that appears, log in to MyMiniFactory and then find a model using the keyword search. Choose from the gallery the object that you want and click it to add it to the scene. You can opt to edit it further or 3D print it using our Shapeways plugin.

We made available video tutorials for those of you who would like to put to good use the MyMiniFactory plugins, so go ahead and check them out. Ready to share your 3D models with the world and become a superstar designer?!

Studying of technology of 3D-printing of separate designs, buildings and constructions as a whole. Analysis of existing methods of creating physical objects by 3D printing and improvement of technology and equipment for printing buildings and structures.

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УДК 66.001.5:693.546

3D-PRINTING OF BUILD OBJECTS

Savytskyi M.V.1 , Dr. Sc. (Tech.), Prof.,

SHATOV S. V.2* Dr. Sc. (Tech.), Ass. Prof,

OZHYSHCHENKO O. A.3, Cand. Sc. (Tech.), Ass. Prof.

Summary

Raising of problem. Today, in all spheres of our life we can constate the permanent search for new, modern methods and technologies that meet the principles of sustainable development. New approaches need to be, on the one hand more effective in terms of conservation of exhaustible resources of our planet, have minimal impact on the environment and on the other hand to ensure a higher quality of the final product. Construction is not exception. One of the new promising technology is the technology of 3D -printing of individual structures and buildings in general. 3Dprinting - is the process of real object recreating on the model of 3D. Unlike conventional printer which prints information on a sheet of paper, 3D-printer allows you to display three-dimensional information, i.e. creates certain physical objects. Currently, 3D-printer finds its application in many areas of production: machine building elements, a variety of layouts, interior elements, various items. But due to the fact that this technology is fairly new, it requires the creation of detailed and accurate technologies, efficient equipment and materials, and development of common vocabulary and regulatory framework in this field. Research Aim. The analysis of existing methods of creating physical objects using 3D-printing and the improvement of technology and equipment for the printing of buildings and structures. Conclusion. 3D-printers building is a new generation of equipment for the construction of buildings, structures, and structural elements. A variety of building printing technics opens up wide range of opportunities in the construction industry. At this stage, printers design allows to create low-rise buildings of different configurations with different mortars. The scientific novelty of this work is to develop proposals to improve the thermal insulation properties of constructed 3D-printing objects and technological equipment. The list of key terms and notions of construction by 3D-printing and 3D-modeling. Practical value. Developed in this work equipment and materials allows in the nearest future to move from theory to practice and implement such effective method of construction as the technology 3D-printing.

Keywords: 3D-printing, printer, printing head, extruder, energy-efficient materials, building

Department of Reinforced-Concrete and Masonry Structures, State Higher Educational Establishment «Prydniprovs'ka State

Academy of Civil Engineering and Architecture», 24-A, Chernishevskogo str., Dnipropetrovsk 49600, Ukraine, tel. +38 (0562) 47-02-98, e-mail: sav15@ukr.net, ORCID ID: 0000-0001-0002-0003

Department Construction and Road-Building Machines, State Higher Educational Establishment «Prydniprovs'ka State Academy of Civil Engineering and Architecture», 24-A, Chernishevskogo str., Dnipropetrovsk 49600, Ukraine, tel. +38 (056) 756-33-47, e-mail: shatovsv@yandex.ua, ORCID ID: 0000-0002-1697-2547

Department of Reinforced-Concrete and Masonry Structures, State Higher Educational Establishment «Prydniprovs'ka State

Academy of Civil Engineering and Architecture», 24-A, Chernishevskogo str., Dnipropetrovsk 49600, Ukraine, tel. +38 (0562) 47-44-17, e-mail: olga.ozhyshchenko@gmail.com, ORCID ID: 0000-0003-0950-4582

3D-ПЕЧАТЬ СТРОИТЕЛЬНЫХ ОБЪЕКТОВ

САВИЦКИЙ lit. В.1, д.т.н, проф,

ШАТОВ С. В.2*, д.т.н, доц.,

ОЖИЩЕНКО О. А.3, к.т.н, доц.

Кафедра железобетонных и каменных конструкций, Государственное высшее учебное заведение «Приднепровская государственная академия строительства и архитектуры», ул. Чернышевского, 24-а, 49600, Днепропетровск, Украина, тел. +38 (0562) 47-02-98, e-mail: sav15@ukr.net, ORCID ID: 0000-0001-0002-0003

Кафедра строительных и дорожных машин, Государственное высшее учебное заведение «Приднепровская государственная академия строительства и архитектуры», ул. Чернышевского, 24-а, 49600, Днепропетровск, Украина, тел. +38 (056) 756-33-47, e-mail: shatovsv@yandex.ua, ORCID ID: 0000-0002-1697-2547

Кафедра железобетонных и каменных конструкций, Государственное высшее учебное заведение «Приднепровская государственная академия строительства и архитектуры», ул. Чернышевского, 24-а, 49600, Днепропетровск, Украина, тел. +38 (0562) 47-44-17, e-mail: olga.ozhyshchenko@gmail.com, ORCID ID: 0000-0003-0950-4582

Аннотация. Постановка проблемы. На сегодняшний день во всех сферах нашей жизни идет перманентный поиск новых, более современных методов и технологий, отвечающих принципам устойчивого развития. Новые подходы должны быть с одной стороны более эффективными с точки зрения сохранения небезграничных ресурсов нашей планеты, иметь минимальное влияние на окружающую среду, а с другой стороны обеспечивать более высокое финальное качество продукции. Строительство не является исключением. Одной из новых перспективных технологий является технология 3D -печати как отдельных конструкций, так и зданий и сооружений в целом. 3D -печать - это процесс воссоздания реального объекта по образцу 3D -модели. В отличие от обычного принтера, который выводит информацию на лист бумаги, 3D -принтер позволяет выводить трёхмерную информацию, т.е. создавать определённые физические объекты. На данный момент 3D- принтер находит свое применение во многих сферах производства: элементы машиностроения, разнообразные макеты, элементы интерьера, различные детали. Но в связи с тем, что эта технология достаточно новая, она требует создания точных и детально проработанных технологий, эффективного оборудования и материалов, а также разработки общепринятой лексики и нормативной базы данной сферы. Цель. Анализ существующих методов создания физических объектов 3D-печатанием и усовершенствование технологии и оборудования для печати зданий и сооружений. Вывод. Строительные 3D-принтеры - это оборудование нового поколения для возведения зданий и сооружений, а также элементов конструкций. Разнообразие строительной печатной техники открывает широкие возможности в строительной индустрии. На данном этапе конструкции принтеров позволяют создавать малоэтажные постройки различных конфигураций с применением разных строительных смесей. Научная новизна данной работы состоит в разработке предложения по повышению теплоизоляционных свойств возводимых 3D-печатанием объектов и усовершенствованию технологического оборудования. Предложен перечень основных терминов и понятий строительной 3D-печати и 3D- моделирования. Практическая значимость. Разработанное в рамках данной работы оборудование и материалы позволят уже в ближайшем будущем перейти от теории к практике и внедрить такой эффективный метод строительства, как технология 3D -печати.

Ключевые слова: SD-печать, принтер, печатная головка, экструдер, энергоэффективные материалы, здание

print construction design building

SD-ДРУК БУДІВЕЛЬНИХ ОБ'ЄКТІВ

САВИЦЬКИЙ М. В.1, д. т. н, проф.,

ШАТОВ С. В.2*, д. т. н, доц.,

ОЖИЩЕНКО О. А.3, к. т. н, доц.

Кафедра залізобетонних та кам'яних конструкцій, Державний вищий навчальний заклад «Придніпровська державна

академія будівництва та архітектури», вул. Чернишевського, 24-а, 49600, Дніпропетровськ, Україна,

тел. +38 (0562) 47-02-98, e-mail: sav15@ukr.net, ORCID ID: 0000-0001-0002-0003

Кафедра будівельних та дорожніх машин, Державний вищий навчальний заклад «Придніпровська державна академія будівництва та архітектури», вул. Чернишевського, 24-а, 49600, Дніпропетровськ, Україна, тел. +38 (056) 756-33-47, e-mail: shatovsv@yandex.ua, ORCID ID: 0000-0002-1697-2547

Кафедра залізобетонних та кам'яних конструкцій, Державний вищий навчальний заклад «Придніпровська державна академія будівництва та архітектури», вул. Чернишевського, 24-а, 49600, Дніпропетровськ, Україна,

тел. +38 (0562) 47-44-17, e-mail: olga.ozhyshchenko@gmail.com, ORCID ID: 0000-0003-0950-4582

Анотація. Постановка проблеми. На сьогоднішній день у всіх сферах нашого життя йде перманентний пошук нових, більш сучасних методів і технологій, що відповідають принципам сталого розвитку. Нові підходи повинні бути з одного боку більш ефективними з точки зору збереження небезмежних ресурсів нашої планети, мати мінімальний вплив на навколишнє середовище, а з іншого боку забезпечувати вищу кінцеву якість продукції. Будівництво не є винятком. Однією з нових перспективних технологій є технологія 3D-друку як окремих конструкцій, так і будівель і споруд в цілому. 3D-друк - це процес відтворення реального об'єкта за зразком 3D-моделі. На відміну від звичайного принтера, який виводить інформацію на аркуш паперу, 3D- принтер дозволяє виводити тривимірну інформацію, тобто створювати певні фізичні об'єкти. На даний момент 3D-принтер знаходить своє застосування в багатьох сферах виробництва: елементи машинобудування, різноманітні макети, елементи інтер'єру, різні деталі. Але в зв'язку з тим, що ця технологія досить нова, вона вимагає створення точних та детально опрацьованих технологій, ефективного обладнання і матеріалів, а також розробки загальноприйнятої лексики і нормативної бази даної сфери. Мета. Аналіз існуючих методів створення фізичних об'єктів 3D-друкуванням та удосконалення технології та обладнання для друку будівель і споруд. Висновок. Будівельні 3D-принтери - це обладнання нового покоління для зведення будівель і споруд, а також елементів конструкцій. Різноманітність будівельної друкарської техніки відкриває широкі можливості в будівельній індустрії. На даному етапі конструкції принтерів дозволяють створювати малоповерхові будівлі різних конфігурацій із застосуванням різних будівельних сумішей. Наукова новизна даної роботи полягає в розробці пропозиції щодо підвищення теплоізоляційних властивостей зводяться 3D-друком об'єктів і вдосконалення технологічного обладнання. Запропоновано перелік основних термінів і понять будівельного 3D-друку і 3D-моделювання. Практична значимість. Розроблене в рамках даної роботи обладнання і матеріали дозволять вже в найближчому майбутньому перейти від теорії до практики і запровадити такий ефективний метод будівництва, як технологія 3D-друк.

Ключові слова: SD-друкування, принтер, головка для друкування, екструдер, енергоефективні матеріали, будівля

Today, in all spheres of our life we can constate the permanent search for new, moderner methods and technologies that meet the principles of sustainable development.

New approaches need to be, on the one hand more effective in terms of conservation of exhaustible resources of our planet, have minimal impact on the environment and on the other hand to ensure a higher quality of the final product. Construction is not exception. One of the new promising technology is the technology of 3D -printing of individual structures and buildings in general. 3D-printing - is the process of real object recreating on the model of 3D. Unlike conventional printer which prints information on a sheet of paper, 3D-printer allows you to display three-dimensional information, i.e. creates certain physical objects. Currently, 3D-printer finds its application in many areas of production: machine building elements, a variety of layouts, interior elements, various items. But due to the fact that this technology is fairly new, it requires the creation of detailed and accurate technologies, efficient equipment and materials, and development of common vocabulary and regulatory framework in this field. These objectives and the focus of this work.

Findings. Key technologies of 3D-printing are [1-3]:

Layer Object Manufacturing, LOM. The main idea is to cut the sheet of various materials with a laser beam (paper, laminates, metal foil, ceramic), and then heated rollers glue the layers between each other (Fig. 1a). The disadvantages are: a rough surface products, the possibility of bundling and mistaking if sheet is not completely cuted (damaged layers are needed to be removed, and done again);

Fused Deposition Modeling, FDM -- This is three-dimensional printing technology, in which the object is created of the melting the plastic thread it fed through the extruder on a work surface and is hardened there later. After the first layer, the working platform is lowered and the process continues again (Fig. 1b). It is the only technology of «cultivation» 3D-objects using industrial thermoplastics which can withstand high temperatures and mechanical loads. Layering allows to receive parts of complex geometry. The method has such disadvantages: plastic melts and spreads in all directions, so the models have pronounced relief surface, so the object precision is lost;

laser stereolithography, SLA - this is three-dimensional printing technique in which liquid photopolymer under the action of laser light changes its physical properties and solidifies. The three-dimensional object is grown layer by layer, the thickness of layer in an average is 0.1 mm, which ensures high print quality. The disadvantages of the technology is high cost of equipment and low printing speed (a few millimeters per hour);

- selective laser sintering, SLS, is like the previous technology, but the basic material is powdered thermoplastic, sintering with laser beam.

Fig. 1. 3D-printers with print technology [3]: а -- production of object by layers: 1 --foil; 2 -- heated roller; 3 -- laser beam; 4 -- scanning prism; 5 -- laser device; 6 -- layers; 7 -- mobile platform; 8 -- remains; б -- modeling by melting method

3d Objects To Print

The powder in the chamber is heated till the nearly melting point temperature, than it is leveled and the laser beam draws the required contour on it. At the point of contact of the beam and powder the particles melt and sinter with each another and with the previous layer. Then the platform is lowered a new layer of the powder is poured in the chamber, it is leveled, and the process is repeated. The technology is characterized by high speedy printing (up to 35 mm / hour), but it requires a lot of time to prepare to heat the powder and stabilize the temperature while resulting models have rough and porous structure.

Fig. 2. 3D-printers with print technology [3]: а - stereoscopic printing; б - photopolymer sintering

- Three-Dimensional Printing, 3DP, is based on inkjet technology. This kind of printers is provided with two ingredients powdered mass and liquid binder. The working chamber of each printer consists of two parts (Figure 2, a.): The first part is a powder feed chamber (model material is loaded), and the second part is the construction chamber where necessary 3D-model is grown. Initially, the material is distributed uniformly on the entire surface of chamber construction. Then, on the first thin layer special binder is applied that glues all the particles of the material together. After the platform is displaced. The supply chamber platform is lifted up, and the construction field platform is lowered down. Dislocation must be made on the same height. After this, immediately the offset printing head again begins to move, building up the model.

- Solid Ground Curing, SGC, is based on the fact that the special tonic creates the specific model template on a glass plate (Fig. 2b). Formed photomask is located over a thin layer of photopolymer situated on the desktop, further it should be exhibited by UV lamp. The layer corresponding photopolymer pattern hardens, and all liquid stocks are removed. In the next step all inside cavities must be filled with molten wax, solidifying enough quickly. Then the process is repeated again, but the template for the next section is already used. The advantage of the technology is that the process can be paused at any time and then be restarted from the same moment (this is important when you need to remove the defective layers or contamination). The printer creates the model with a moving component parts. A lot of noise, large weight and the constant presence of the operator are disadvantages of this type of printing.

Constructions 3D-printing is a new technology of building, which allows to build a house on an individual project using different materials in a short terms. Building 3D-printer uses extrusion technology, where each new layer of building material is squeezed out of the printer on the previous one. Construction printers are divided into two groups, printers, printing the entire building (Figure 3, b.), and printers, printing separate elements (Figure 3 in.). An example can serve models of buildings from the real building materials, elements of landscape design, etc.

Application of printers producing separate structural elements eliminates the seasonality of the construction, i.e., it is possible to print the buildings parts, to cure them in the warehouses till concrete sets necessary strength and then to assemble them into a building on the construction site (Fig. 3d).

Before start building mixture must be prepared in accordance with the requirements of the equipment. Accept the place for 3D-printer, it is also required to provide land for: mixture preparation, its supply to the printer printing head, pre-drying station, warehouses and loading site. To install the manufacturing equipment, the area or equipment room should have connection points to service lines (power, water supply).

аб

в

г

Fig. 3. 3D-printing of constructions [11]: а, б - building; в - printing of construction; г - assembly of printed building structures

In the process of creating a ready-made objects at least two people are involved : the operator (directly controls the printer) and a worker (prepares a mixture, reinforces the products in the process of printing, prepares equipment for use at the beginning and the end of shift). The number of workers is up tothe equipment size and the complexity of the process, depending on design solutions manufactured object.

Printers for 3D-printing are of different dimensions and weight, for example, a printer format of 12 x 12 meters for printing elements of buildings, landscape items up to 3 meters high, is a large-size 120-ton structure (Figure 4a.). To print individual structures in the enclosed space we can use small-format printers with the capacity of the head storage device 18 ... 32 liters, dimensions of 4 x 6 meters and weight of 620 kg (Fig. 4b). At this stage, the design of printers allows to create low-rise buildings of different configurations using different construction mixtures.

It is reasonable to simulate the shape of the construction and verify the printing process of the object (3D-modeling) before the construction using technology of 3D-printing. This can be made by small format equipement using real building mixes, allowing to check the adopted architectural design and solutions. To print the building model plaster mixes are used, while cement mixture are used to create products designed for outdoor use. The process of horizontal and vertical reinforcement, installation of reinforcing skeletons inside wall cavities, laying of communications is worked out on models. An important aspect is that printed patterns are convenient for carrying out laboratory tests on various parameters.

Advantages of 3D-printing are: the ability to create objects of any shape and complexity;

speed of building;

the use of different materials, including environmentally friendly materials; wasteless production; the simplicity of the process; reduction of the human factor, and thus quality improvement and construction accuracy.

The disadvantages of this construction technology are:

lack of common terminology; constructed facilities do not have an effective thermal insulation and have a high energy consumption;

tooling elements require further improvement.

аб

Fig. 4. Building printers [11]:

а - format 12 х 12 metres; б - format 4 х 6 metres

Research purpose. is to analyze the existing methods of creating physical objects by 3Dprinting and the improvement of technology and equipment for the printing of buildings and structures.

Results of the study. Based on the analysis of publications and research, authors suggest, the following key terms and notions in the field of 3D-printing building.

3D-printing - the process of real object recreating based on the 3D-model.

Technology of 3D- printing - is based on the principle of layered growing (creation) of solid model.

3D-modelling - the process of construction object physical model creating.

3D-printer - device to recreate real object per sample of 3D-model.

Printing head - a component of the printer, delivering the mixture to the object of construction.

Extruder - part of the printing head, forming a thick layer of extruded mortar.

Extrusion - technological process, when each new layer of building material is extruded from the printer over the previous.

During the construction of the building by any known at present method it is necessary to ensure high energy efficiency of building envelopes as well as the whole building. Alternative building wall structure created by 3D-printing, makes it necessary to search for alternative methods of energy efficiency. In this paper, we propose to increase the thermal insulation properties of objects created by 3D-printing, and reduce the overall energy losses of the building by laying energy-efficient thermal insulation ofecological materials in empty wall structures (Fig. 5) (on the basis of cut reed, pressed straw, hemp shives, adobe, lightweight adobe, lightweight concrete on the base of boon of hemp). All these materials have been created in our laboratory [9, 10] and passed preliminary tests. Their main properties are shown in Table 1.

а

б

Fig. 5. Building hollow structure [11]: а - reinforced with fiber; б - reinforced by partitions

As for the technology, the printing process by different mortars basically differs by thickness of the printed layer and the total height of the product. The thickness of the extruded layer formes extruder. During the printing we can adjust the geometry of the extruded layer, change the speed of printing to obtain high- quality products.

To increase the efficiency of printing it is proposed to use printing head with several extruders set at different levels one after the another (Fig. 6).

Table 1

Fig. 6. Printing head with multiple extruders:

1, 3, 4 -- extruders; 2, 5, 6 -- cavity of mixture feed

Taking into account the properties of a stacked mixture the distance between extruders 1, 3 and 4 can regulated extending the possibilities of printing technology and capacity of construction projects.

Originality and Practical value. Developed in this work equipment and materials allows in the nearest future to move from theory to practice and implement such effective method of construction as the technology of 3Dprinting and make the process of building fast, efficient and modern.

Conclusions

Building 3D printers is a new generation of equipment for the construction of buildings structures, and structural elements. A variety of building printing technologies opens up wide range of opportunities in the construction industry. At this stage, printer design allows to create low-rise buildings of different configurations with different mortars.

The proposals for improvement of the thermal insulation properties of constructed 3D-printing objects and improvement of technological equipment are developed.

The list of key terms and notions of construction by 3D-printing and 3D-modeling technology are proposed.

References

3d Printing Design Objects Download

1. Khoshnevis B. Automated Construction by Contour Crafting-Related Robotics and Information Technologies. Automation in Construction. 2004, vol. 13, iss. 1, pp. 5-19. Available at:http://www.sciencedirect.com/science/article/pii/S0926580503000736.

2. Lipson Н. and Kurman M. Fabricated. The New World of 3D Printing. Indiana: Wiley, 2013, 320 p.

3. Alwi A., Karayiannis S., Starkey B., Gardner M., Reodique K. and Varley Th. Contrucktion. MegaScale 3D Printing. Group 1. Final Report, 11th January 2013. Faculty of Engineering and Physical Sciences University of Surrey.. 201 p. Available at:http://personal.ee.surrey.ac.uk/Personal/R.Webb/MDDP/2012/Report/3D%20Building%20Printer%20%20Group%2 01.pdf.

4. Warszawski A. and Navon R. Implementation of Robotics in Building: Current Status and Future Prospects. Journal of Construction Engineering and Management. 1998, vol. 124, tes. 1, pp. 31-41. Available at: http://dx.doi.org/10.1061/(ASCE)0733-9364(1998)124:1(31).

5. Savitskii N.V., Kulichenko I.I., Benderskij E.B. and Novichenko N.V. Printsipy ekologicheskogo industrial'nogo stroitel'stva maloetazhnykh zhilykh zdanij [The principles of ecological industrial building low-rise residential buildings]. Budivelni konstruktsii [Building structures]. Derzh. n.-d. m-t bud. konstruktsn M-va regmn. rozvytku, bud-va ta zhitlovo-komun. gosp-va Ukrainy [State scientific research institute of building structures of Ministry of region development, construction and housing and utilities infrastructure of Ukraine]. Kyiv, 2013, iss. .77, pp. 72-76. (in Russian).

6. Kulichenko I.I., Savytskyi M.V, Skladanovska M.G, Benderskyj Yu.B. Teoretyko-metodologichni zasady rozrobky proektu suchasnogo ekoposelennia [Theoretical and methodological foundations of modern ecovillage development project]. Stroitel'stvo, materialovedenie, mashynostroenie [Construction, materials science, mechanical engineering]. Prydnepr. akad. str-va i arhitektury [Prydniprovs'ka State Academy of Civil Engineering and Architecture]. Dnepropetrovsk, 2013, iss. 68, pp. 203-210. (in Russian).

7. Savitskii N.V., Panchenko N.V. Chumak Yu.G., Medgauz B.A. and Chernets V.A. Effektivnaya konstruktivno- tekhnologicheskaya sistema dlya stroitel'stva dostupnogo zhil'ya [Effective structural and technological system for affordable housing]. Stroitel'stvo, materialovedenie, mashynostroenie [Construction, materials science, mechanical engineering]. Prydnepr. akad. str-va i arhitektury [Prydniprovs'ka State Academy of Civil Engineering and Architecture]. Dnepropetrovsk, 2013, iss. 68, pp. 355-357. (in Russian).

8. Evseeva G.P. Natsionalno-ideologichni zasadi ekobudivnitstva v Ukraini [The national and ideological principles of eco-construction in Ukraine]. Stroitel'stvo, materialovedenie, mashynostroenie [Construction, materials science, mechanical engineering]. Prydnepr. akad. str-va i arhitektury [Prydniprovs'ka State Academy of Civil Engineering and Architecture]. Dnepropetrovsk, 2014, iss. 75, pp. 70-80. (in Ukrainian).

9. Konoplyanik A.Yu., Savitskii N.V., Sobinova N.V., Novichenko N.V. and Dashnor O. Legkie teploizolyatsionnye betony na osnove solomy zlakovykh kul'tur [Lightweight insulating concrete on the basis of straw cereals]. Stroitel'stvo, materialovedenie, mashynostroenie [Construction, materials science, mechanical engineering]. Prydnepr. akad. str-va i arhitektury [Prydniprovs'ka State Academy of Civil Engineering and Architecture]. Dnepropetrovsk, 2014, iss. 75, pp. 102-105. (in Russian).

10. Savytskyi M.V., Bondarenko O.I., Babenko M.M. and Benderskyi Yu.B. Options of sustainable development of region's territory. Naukovyi visnyk Natsionalnogo hirnychogo universytetu [Scientific bulletin of National Mining University]. Dnipropetrovsk, 2015, no. 4, pp. 157-161.

11. Joop de Boer. Which Architect Is Winning The 3D Printing Rat Race?. Pop-Up City. 2014, 1 July. Available at: http://popupcity.net/which-architect-is-winning-the-3d-printing-rat-race/.

3d Printing Design Objects Free

Використана література

1. Khoshnevis B. Automated Construction by Contour Crafting-Related Robotics and Information Technologies / Behrokh Khoshnevis // Automation in Construction. - 2004. - Vol. 13, iss. 1. - P. 5-19. - Available at: http://www.sciencedirect.com/science/article/pii/S0926580503000736.

2. Lipson Н. Fabricated. The New World of 3D Printing / Hod Lipson, Melba Kurman. - [Indiana] : Wiley, 2013. - 320 p.

3. «Contrucktion». MegaScale 3D Printing, Group 1 : Final Report, 11th January 2013 / Alwi A., Karayiannis S., Starkey B., Gardner M., Reodique K., Varley Th. ; Faculty of Engineering and Physical Sciences University of Surrey. - 2013. - 201 p. - Available at:http://personal.ee.surrey.ac.uk/Personal/R.Webb/MDDP/2012/Report/3D%20Building%20Printer%20- %20Group%201 .pdf.

4. Warszawski A. Implementation of Robotics in Building: Current Status and Future Prospects / Warszawski A., Navon R. // Journal of Construction Engineering and Management. - 1998. -Vol. 124, tes. 1. - Р. 31-41. - Available at: http://dx.doi.org/10.1061/(ASCE)0733-9364(1998)124:1(31).

5. Принципы экологического индустриального строительства малоэтажных жилых зданий / Н. В. Савицкий, И. И. Куличенко, Е. Б. Бендерский, Н. В. Новиченко // Будівельні конструкції : міжвід. наук.-техн. зб. / Держ. н.-д. ін-т буд. конструкцій М-ва регіон. розвитку, буд-ва та житлово-комун. госп-ва України. - Київ, 2013. - Вип. 77. - С. 72-76.

6. Теоретико-методологічні засади розробки проекту сучасного екопоселення / І. І. Куліченко, М. В. Савицький, М. Г. Складановська, Ю. Б. Бендерський // Строительство, материаловедение, машиностроение : сб. науч. тр. / Приднепр. акад. стр-ва и архитектуры. - Днепропетровск, 2013. - Вып. 68: Создание высокотехнологических экокомплексов в Украине на основе концепции сбалансированного (устойчивого) развития. - С. 203-210.

7. Эффективная конструктивно-технологическая система для строительства доступного жилья / Н. В. Савицкий, Н. В. Панченко, Ю. Г. Чумак, Б. А. Медгауз, В. А. Чернец // Строительство, материаловедение, машиностроение : сб. науч. тр. / Приднепр. акад. стр-ва и архитектуры. - Днепропетровск, 2013. - Вып. 68 : Создание высокотехнологических экокомплексов в Украине на основе концепции сбалансированного (устойчивого) развития. - С. 355-357.

8. Євсєєва Г. П. Національно-ідеологічні засади екобудівництва в Україні / Г. П. Євсєєва // Строительство, материаловедение, машиностроение : сб. науч. тр. / Приднепр. гос. акад. стр-ва и архитектуры. - Днепропетровск, 2014. - Вып. 75 : Создание высокотехнологических экокомплексов в Украине на основе концепции сбалансированного (устойчивого) развития. - С. 70-80.

9. Легкие теплоизоляционные бетоны на основе соломы злаковых культур/ А. Ю. Конопляник, Н. В. Савицкий, К. С. Собинова, Н. В. Новиченко, Дашнор Окса // Строительство, материаловедение, машиностроение : сб. науч. тр / Приднепр. гос. акад. стр-ва и архитектуры. - Днепропетровск, 2014. - Вып. 75 : Создание высокотехнологических экокомплексов в Украине на основе концепции сбалансированного (устойчивого) развития. - С. 102-105.

10. Options of sustainable development of region's territory / M. V. Savytskyi, O. I. Bondarenko, M. M. Babenko, Yu. B. Benderskyi // Науковий вісник Національного гірничого університету : зб. наук. праць. - Дніпропетровсьвск, 2015. - № 4. - С. 157-161.

11. Joop de Boer. Which Architect Is Winning The 3D Printing Rat Race? / Joop de Boer // Pop-Up City. - 2014. - 1 July. - Available at: http://popupcity.net/which-architect-is-winning-the-3d-printing-rat-race/.

Рецензент: д-р т. н., проф. В. Р. Млодецький

Надійшла до редколегії: 11.02.2016 р. Прийнята до друку: 15.02.2016 р.

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