Skip to content

Environmental Design Guidelines for Digital Fabrication (2016-11)

10.1016/j.jclepro.2016.10.190

 Agustí-Juan Isolda,  Habert Guillaume
Journal Article - Journal of Cleaner Production, Vol. 142, pp. 2780-2791

Abstract

Digital fabrication represents an innovative technology with the potential of expanding the boundaries of architecture. The potential to fabricate elements directly from design information is transforming many design and production disciplines. In particular, 3D printing has become the key of modern product development. As the use of additive manufacturing grows, research into large-scale processes is beginning to reveal potential applications in construction. The combined methods of computational design and robotic fabrication have the well-demonstrated potential to create formal and structural advances in architecture. However, their potential contribution to the improvement of sustainability in construction must be evaluated. In this study, we identified environmental guidelines to be considered during the design of digitally fabricated architecture. The key parameters were extracted from the Life Cycle Assessment (LCA) of three case studies. The environmental assessment performed indicated that the relative sustainability of the projects depended primarily on the building material production. Specifically, the impact of digital fabrication processes was negligible compared to the materials manufacturing process. Furthermore, the study highlighted the opportunities of integrating additional functions in structural elements with digital fabrication to reduce the overall environmental impact of these multi-functional elements. Finally, the analysis proved the potential of digital fabrication to reduce the amount of highly industrialized materials in a project, which are associated with high environmental impacts.

3 References

  1. Hack Norman, Lauer Willi (2014-04)
    Mesh Mould:
    Robotically Fabricated Spatial Meshes as Reinforced Concrete Formwork
  2. Lim Sungwoo, Buswell Richard, Le Thanh, Austin Simon et al. (2011-07)
    Developments in Construction-Scale Additive Manufacturing Processes
  3. Lloret-Fritschi Ena, Shahab Amir, Linus Mettler, Flatt Robert et al. (2014-03)
    Complex Concrete Structures:
    Merging Existing Casting Techniques with Digital Fabrication

111 Citations

  1. Faleschini Flora, Trento Daniel, Zanini Mariano (2025-11)
    Earth as a Building Material:
    From Traditional Building Techniques to Additive Manufacturing
  2. Jamjala Siva, Thulasirangan Lakshmidevi Manivannan, Reddy K., Kafle Bidur et al. (2025-10)
    A Critical Review on Synergistic Integration of Nanomaterials in 3D-Printed Concrete:
    Rheology to Microstructure and Eco-Functionality
  3. Murtaza Ghulam, Baldinelli Giorgio (2025-08)
    Revolutionizing Architecture:
    3D Printing in Large Construction Industry and Strategic Innovations for Enhanced Performance
  4. Kiyani Muhammad, Hussain Syed, Emaan Rajja, Kamal Muhammad et al. (2025-08)
    Influence of Process Parameters on 3D Concrete Printing:
    A Step Towards Standardized Approaches
  5. Xiao Yinan, Vandenberg Aileen, Lowke Dirk, Mai (née Dressler) Inka et al. (2025-08)
    Automated Robotic Assembly Planning of Space Trusses for Injection 3D Concrete Printing
  6. Gupta Souradeep, Sahana C., Soda Prabhath, Dwivedi Ashutosh (2025-06)
    Development of Carbon Sequestering 3D-Printable Stabilized Earth Materials:
    Investigation into Engineering Performance and Resistance Against Acid Attack
  7. Mohamed Osama, Mishra Anamika, Isam Fida (2025-05)
    An Overview of 3D Printed Concrete for Building Structures:
    Material Properties, Sustainability, Future Opportunities, and Challenges
  8. Casanova Euro, Hidalgo Nelson, Valdebenito Michael, Forcael Eric et al. (2025-04)
    Overturning Resistance of Concrete Curved Walls Manufactured with Additive Construction
  9. Mengistu Girum, Nemes Rita (2025-02)
    Evaluating the Performance of Recycled Aggregate Concrete Incorporating 3D-Printed Concrete Waste as Aggregate Using the Rebound Hammer Test
  10. Degen Robin, Dichtl Matthias (2025-02)
    Praxiseinblick in den 3D-Druck im Betonbau:
    Additives Bauen und CO2-Bilanzierung im Fokus
  11. Kuzmenko Kateryna, Roux Charlotte, Féraille Adélaïde (2025-01)
    Environmental Impact of 3D Concrete Printing
  12. Licciardello Lucia, Soto Alejandro, Kaufmann Walter, Metelli Giovanni (2025-01)
    Determining the Strength of 3D Printed Concrete with the Modified Slant-Shear-Test
  13. Posani Magda, Voney Vera, Odaglia Pietro, Du Yi et al. (2025-01)
    Low-Carbon Indoor Humidity Regulation via 3D Printed Superhygroscopic Building Components
  14. Thomsen Mette, Tamke Martin, Rossi Gabriella, Chiujdea Ruxandra-Stefania et al. (2024-11)
    Sustainable Construction:
    Additive Manufacturing in a Circular Design Framework
  15. Jin Willy, Roux Charlotte, Ouellet-Plamondon Claudiane, Caron Jean-François (2024-09)
    Life Cycle Assessment of Limestone-Calcined-Clay-Concrete:
    Potential for Low-Carbon 3D Printing
  16. Srinivas Dodda, Boddepalli Uday, Dey Dhrutiman, Choaudhary Bhavesh et al. (2024-09)
    Development of Outdoor Furniture Using 3D Concrete Printing
  17. Farrokhsiar Paniz, Gürsoy Benay, Duarte José (2024-08)
    A Comprehensive Review on Integrating Vision-Based Sensing in Extrusion-Based 3D Printing Processes:
    Toward Geometric Monitoring of Extrusion-Based 3D Concrete Printing
  18. Sahana C., Soda Prabhath, Dwivedi Ashutosh, Kumar Sandeep et al. (2024-07)
    3D Printing with Stabilized Earth:
    Material-Development and Effect of Carbon-Sequestration on Engineering-Performance
  19. Seifan Mostafa (2024-06)
    Sustainable Three-Dimensional Printing Concrete:
    Advances, Challenges, and Future Direction
  20. Assunção Badan Julie, Chadha Kunaljit, Vasey Lauren, Brumaud Coralie et al. (2024-06)
    Contribution of Production Processes in Environmental Impact of Low-Carbon Materials Made by Additive Manufacturing
  21. Dong Liang, Yang Yekai, Liu Zhongxian, Zhang Yan et al. (2024-06)
    Interface Bonding Characteristics of 3D Printed Ultra-High-Performance Concrete After Elevated Temperatures
  22. Mantha Bharadwaj, Sati Ala, Hosny Fatma, Abdallah Mohamed et al. (2024-06)
    A Generic 3D Printing Life Cycle Assessment (LCA) Framework for AEC Applications
  23. Thajeel Marwah, Sólyom Sándor, Balázs György (2024-05)
    Impact of Printing-Directions and Printing-Paths on the Compressive Strength of 3D Printed Concrete
  24. Mohamed Rania, Mohamed Abdelaziz (2024-05)
    Exploring the Environmental Benefits of 3D Printing Technology in Concrete Construction:
    A Review
  25. Liu Han, Laflamme Simon, Alessandro Antonella, Ubertini Filippo (2024-05)
    3D Printed Self-Sensing Cementitious Composites Using Graphite and Carbon-Micro-Fibers
  26. Zaid Osama, Ouni Mohamed (2024-04)
    Advancements in 3D Printing of Cementitious Materials:
    A Review of Mineral Additives, Properties, and Systematic Developments
  27. Soda Prabhath, Dwivedi Ashutosh, Sahana C., Gupta Souradeep (2024-03)
    Development of 3D Printable Stabilized Earth-Based Construction Materials Using Excavated Soil:
    Evaluation of Fresh and Hardened Properties
  28. Silva Guido, Quispe Axcel, Baldoceda Jordan, Kim Suyeon et al. (2024-02)
    Additive Construction of Concrete Deep Beams Using Low-Cost Characterization Methods and FEM-Based Topological Optimization
  29. Mengistu Girum, Nemes Rita (2024-01)
    Recycling 3D Printed Concrete Waste for Normal Strength Concrete Production
  30. Asaf Ofer, Bentur Arnon, Larianovsky Pavel, Sprecher Aaron (2023-10)
    From Soil to Printed Structures:
    A Systematic Approach to Designing Clay-Based Materials for 3D Printing in Construction and Architecture
  31. Zhou Wen, McGee Wesley, Gökçe H., Li Victor (2023-08)
    A Bio-Inspired Solution to Alleviate Anisotropy of 3D Printed Engineered Cementitious Composites (3DP-ECC):
    Knitting/Tilting Filaments
  32. Ramani Ayyagari, Chen Qian, Soto Borja (2023-08)
    Quantifying the Impact of Concrete 3D Printing on the Construction Supply Chain
  33. Chougan Mehdi, Kheetan Mazen, Ghaffar Seyed (2023-07)
    Additive Manufacturing and the Construction Industry
  34. Tu Haidong, Wei Zhenyun, Bahrami Alireza, Kahla Nabil et al. (2023-06)
    Recent Advancements and Future Trends in 3D Printing Concrete Using Waste-Materials
  35. Heywood Kate, Nicholas Paul (2023-06)
    Sustainability and 3D Concrete Printing:
    Identifying a Need for a More Holistic Approach to Assessing Environmental Impacts
  36. Fernandez Letízia, Caldas Lucas, Mendoza Reales Oscar (2023-05)
    Environmental Evaluation of 3D Printed Concrete Walls Considering the Life Cycle Perspective in the Context of Social Housing
  37. Leschok Matthias, Cheibas Ina, Piccioni Valeria, Seshadri Bharath et al. (2023-05)
    3D Printing Facades:
    Design, Fabrication, and Assessment Methods
  38. Fonseca Mariana, Matos Ana (2023-03)
    3D Construction Printing Standing for Sustainability and Circularity:
    Material-Level Opportunities
  39. Baigarina Akerke, Shehab Essam, Ali Md. (2023-02)
    Construction 3D Printing:
    A Critical Review and Future Research-Directions
  40. Pons-Valladares Oriol, Casanovas-Rubio Maria, Armengou Jaume, Fuente Albert (2023-02)
    Approach for Sustainability-Assessment for Footbridge Construction Technologies:
    Application to the First World D-Shape 3D Printed Fiber-Reinforced Mortar Footbridge in Madrid
  41. Li Zhengrong, Xing Wenjing, Sun Jingting, Feng Xiwen (2022-12)
    Multi-Scale Structural Characteristics and Heat-Moisture Properties of 3D Printed Building Walls:
    A Review
  42. Teixeira João, Schaefer Cecília, Rangel Bárbara, Maia Lino et al. (2022-11)
    A Road Map to Find in 3D Printing a New Design Plasticity for Construction:
    The State of Art
  43. Salaimanimagudam M., Jayaprakash Jaganathan (2022-11)
    Optimum Selection of Reinforcement, Assembly, and Formwork System for Digital Fabrication Technique in Construction Industry:
    A Critical Review
  44. Wang Dingyi, Zhang Tingting, Guo Xudong, Ling Dayi et al. (2022-10)
    The Potential of 3D Printing in Facilitating Carbon Neutrality
  45. Qaidi Shaker, Yahia Ammar, Tayeh B., Unis H. et al. (2022-10)
    3D Printed Geopolymer Composites:
    A Review
  46. Hansemann Georg, Holzinger Christoph, Schmid Robert, Tapley Joshua et al. (2022-09)
    Lightweight Reinforced Concrete Slab
  47. Zhou Wen, McGee Wesley, Zhu He, Gökçe H. et al. (2022-08)
    Time-Dependent Fresh Properties Characterization of 3D Printing Engineered Cementitious Composites:
    On the Evaluation of Buildability
  48. Dong Liang, Yang Yekai, Liu Zhongxian, Ren Quanchang et al. (2022-07)
    Microstructure and Mechanical Behavior of 3D Printed Ultra-High-Performance Concrete after Elevated Temperatures
  49. Kuzmenko Kateryna, Ducoulombier Nicolas, Féraille Adélaïde, Roussel Nicolas (2022-05)
    Environmental Impact of Extrusion-Based Additive Manufacturing:
    Generic Model, Power-Measurements and Influence of Printing-Resolution
  50. Zhou Wen, Zhang Yamei, Ma Lei, Li Victor (2022-04)
    Influence of Printing Parameters on 3D Printing Engineered Cementitious Composites
  51. Ennab Lena, Dixit Manish, Birgisson Bjorn, Kumar Pranav (2022-04)
    Comparative Life Cycle Assessment of Large-Scale 3D Printing Utilizing Kaolinite-Based Calcium-Sulfoaluminate-Cement Concrete and Conventional Construction
  52. Bedarf Patrick, Szabó Anna, Zanini Michele, Heusi Alex et al. (2022-04)
    Robotic 3D Printing of Mineral Foam for a Lightweight Composite Concrete Slab
  53. Tinoco Matheus, Mendonça Érica, Fernandez Letízia, Caldas Lucas et al. (2022-04)
    Life Cycle Assessment and Environmental Sustainability of Cementitious Materials for 3D Concrete Printing:
    A Systematic Literature Review
  54. Fuente Albert, Blanco Ana, Galeote Eduardo, Cavalaro Sergio (2022-04)
    Structural Fiber-Reinforced Cement-Based Composite Designed for Particle-Bed 3D Printing Systems:
    Case Study Parque De Castilla Footbridge in Madrid
  55. Nodehi Mehrab, Ozbakkaloglu Togay, Gholampour Aliakbar (2022-04)
    Effect of Supplementary Cementitious Materials on Properties of 3D Printed Conventional and Alkali-Activated Concrete:
    A Review
  56. Qi Li-gang, Bai Jie, Huang Qing-long, Yang Yan et al. (2022-03)
    Mobile 3D Printing-Techniques for Construction Engineering:
    Outdoor Navigation and Printing Quality-Control
  57. Mohan Manu, Rahul Attupurathu, Dam Benjamin, Zeidan Talina et al. (2022-02)
    Performance Criteria, Environmental Impact and Cost-Assessment for 3D Printable Concrete Mixtures
  58. Guamán-Rivera Robert, Martínez-Rocamora Alejandro, García-Alvarado Rodrigo, Muñoz-Sanguinetti Claudia et al. (2022-02)
    Recent Developments and Challenges of 3D Printed Construction:
    A Review of Research Fronts
  59. Boscaro Federica, Quadranti Elia, Wangler Timothy, Mantellato Sara et al. (2022-02)
    Eco-Friendly, Set-on-Demand Digital Concrete
  60. Dey Dhrutiman, Srinivas Dodda, Panda Biranchi, Suraneni Prannoy et al. (2022-02)
    Use of Industrial Waste-Materials for 3D Printing of Sustainable Concrete:
    A Review
  61. Gomaa Mohamed, Jabi Wassim, Soebarto Veronica, Xie Yi (2022-01)
    Digital Manufacturing for Earth Construction:
    A Critical Review
  62. Amran Mugahed, Abdelgader Hakim, Onaizi Ali, Fediuk Roman et al. (2021-12)
    3D Printable Alkali-Activated Concretes for Building Applications:
    A Critical Review
  63. Weger Daniel, Stengel Thorsten, Gehlen Christoph, Maciejewski Yannick et al. (2021-12)
    Approval for the Construction of the First 3D Printed Detached House in Germany:
    Significance of Large-Scale Element Testing
  64. Chen Yu, He Shan, Gan Yidong, Çopuroğlu Oğuzhan et al. (2021-11)
    A Review of Printing-Strategies, Sustainable Cementitious Materials and Characterization Methods in the Context of Extrusion-Based 3D Concrete Printing
  65. Gantner Stefan, Rothe Tom, Hühne Christian, Hack Norman (2021-11)
    Reinforcement-Strategies for Additive Manufacturing in Construction Based on Dynamic Fiber Winding:
    Concepts and Initial Case Studies
  66. Abdalla Hadeer, Fattah Kazi, Abdallah Mohamed, Tamimi Adil (2021-10)
    Environmental Footprint and Economics of a Full-Scale 3D Printed House
  67. Mai (née Dressler) Inka, Brohmann Leon, Freund Niklas, Gantner Stefan et al. (2021-10)
    Large Particle 3D Concrete Printing:
    A Green and Viable Solution
  68. Abdallah Yomna, Estévez Alberto (2021-10)
    3D Printed Biodigital Clay Bricks
  69. Wi Kwangwoo, Wang Kejin, Taylor Peter, Laflamme Simon et al. (2021-09)
    Properties and Microstructure of Extrusion-Based 3D Printing Mortar Containing a Highly Flowable, Rapid Set Grout
  70. Rehman Asif, Sglavo Vincenzo (2021-08)
    3D Printing of Portland-Cement-Containing Bodies
  71. Lowke Dirk, Vandenberg Aileen, Pierre Alexandre, Thomas Amaury et al. (2021-07)
    Injection 3D Concrete Printing in a Carrier Liquid:
    Underlying Physics and Applications to Lightweight Space Frame Structures
  72. Bhattacherjee Shantanu, Basavaraj Anusha, Rahul Attupurathu, Santhanam Manu et al. (2021-06)
    Sustainable Materials for 3D Concrete Printing
  73. García-Alvarado Rodrigo, Moroni-Orellana Ginnia, Banda-Pérez Pablo (2021-06)
    Architectural Evaluation of 3D Printed Buildings
  74. Kloft Harald, Gehlen Christoph, Dörfler Kathrin, Hack Norman et al. (2021-06)
    TRR 277:
    Additive Manufacturing in Construction
  75. Baz Bilal, Aouad Georges, Kleib Joelle, Bulteel David et al. (2021-04)
    Durability-Assessment and Micro-Structural Analysis of 3D Printed Concrete Exposed to Sulfuric-Acid Environments
  76. Ning Xin, Liu Tong, Wu Chunlin, Wang Chao (2021-04)
    3D Printing in Construction:
    Current Status, Implementation Hindrances, and Development Agenda
  77. Dielemans Gido, Briels David, Jaugstetter Fabian, Henke Klaudius et al. (2021-04)
    Additive Manufacturing of Thermally Enhanced Lightweight Concrete Wall Elements with Closed Cellular Structures
  78. Zahabizadeh Behzad, Pereira João, Gonçalves Claúdia, Pereira Eduardo et al. (2021-03)
    Influence of the Printing-Direction and Age on the Mechanical Properties of 3D Printed Concrete
  79. Schuldt Steven, Jagoda Jeneé, Hoisington Andrew, Delorit Justin (2021-03)
    A Systematic Review and Analysis of the Viability of 3D Printed Construction in Remote Environments
  80. Cui Peng, Wu Chun-ran, Chen Jie, Luo Fuming et al. (2021-02)
    Preparation of Magnesium-Oxysulfate Cement as a 3D Printing Material
  81. Pessoa Ana Sofia, Guimarães Ana, Lucas Sandra, Simões Nuno (2021-02)
    3D Printing in the Construction Industry:
    A Systematic Review of the Thermal Performance in Buildings
  82. Weger Daniel, Pierre Alexandre, Perrot Arnaud, Kränkel Thomas et al. (2021-01)
    Penetration of Cement-Pastes into Particle-Beds:
    A Comparison of Penetration Models
  83. Kloft Harald, Gehlen Christoph, Dörfler Kathrin, Hack Norman et al. (2021-01)
    TRR 277:
    Additive Manufacturing in Construction
  84. Muñoz Ivan, Madrid Javier, Muñiz Manuel, Uhart Maylis et al. (2021-01)
    Life Cycle Assessment of Integrated Additive-Subtractive Concrete 3D Printing
  85. Mohammad Malek, Masad Eyad, Ghamdi Sami (2020-12)
    3D Concrete Printing Sustainability:
    A Comparative Life Cycle Assessment of Four Construction Method Scenarios
  86. Kaszyńska Maria, Skibicki Szymon, Hoffmann Marcin (2020-12)
    3D Concrete Printing for Sustainable Construction
  87. Joh Changbin, Lee Jungwoo, Bui The, Park Jihun et al. (2020-11)
    Buildability and Mechanical Properties of 3D Printed Concrete
  88. Mohan Manu, Rahul Attupurathu, Schutter Geert, Tittelboom Kim (2020-10)
    Extrusion-Based Concrete 3D Printing from a Material Perspective:
    A State of the Art Review
  89. Hossain Md., Zhumabekova Altynay, Paul Suvash, Kim Jong (2020-10)
    A Review of 3D Printing in Construction and Its Impact on the Labor Market
  90. Kuzmenko Kateryna, Gaudillière-Jami Nadja, Féraille Adélaïde, Dirrenberger Justin et al. (2020-09)
    Assessing the Environmental Viability of 3D Concrete Printing Technology
  91. Souza Marcelo, Ferreira Igor, Moraes Elisângela, Senff Luciano et al. (2020-09)
    3D Printed Concrete for Large-Scale Buildings:
    An Overview of Rheology, Printing Parameters, Chemical Admixtures, Reinforcements, and Economic and Environmental Prospects
  92. Kuzmenko Kateryna, Féraille Adélaïde, Baverel Olivier, Roussel Nicolas (2020-07)
    Environmental Impacts of 6-Axis Robotic Arm for 3D Concrete Printing
  93. Lowke Dirk, Talke Daniel, Mai (née Dressler) Inka, Weger Daniel et al. (2020-05)
    Particle-Bed 3D Printing by Selective Cement-Activation:
    Applications, Material and Process Technology
  94. Menna Costantino, Mata-Falcón Jaime, Bos Freek, Vantyghem Gieljan et al. (2020-04)
    Opportunities and Challenges for Structural Engineering of Digitally Fabricated Concrete
  95. Jagoda Jeneé, Diggs-McGee Brandy, Kreiger Megan, Schuldt Steven (2020-04)
    The Viability and Simplicity of 3D Printed Construction:
    A Military Case Study
  96. Perrot Arnaud, Jacquet Yohan, Rangeard Damien, Courteille Eric et al. (2020-03)
    Nailing of Layers:
    A Promising Way to Reinforce Concrete 3D Printing Structures
  97. Kontovourkis Odysseas, Tryfonos George (2019-11)
    Robotic 3D Clay Printing of Prefabricated Non-Conventional Wall Components Based on a Parametric-Integrated Design
  98. Bhardwaj Abhinav, Jones Scott, Kalantar Negar, Pei Zhijian et al. (2019-06)
    Additive Manufacturing Processes for Infrastructure Construction:
    A Review
  99. Wangler Timothy, Roussel Nicolas, Bos Freek, Salet Theo et al. (2019-06)
    Digital Concrete:
    A Review
  100. Kontovourkis Odysseas, Tryfonos George, Georgiou Christos (2019-06)
    Robotic Additive Manufacturing (RAM) with Clay Using Topology-Optimization Principles for Tool-Path-Planning:
    The Example of a Building Element
  101. Perrot Arnaud, Rangeard Damien (2019-04)
    3D Printing with Concrete:
    Impact and Designs of Structures
  102. Geneidy Omar, Ismaeel Walaa, Abbas Ayman (2019-04)
    A Critical Review for Applying Three-Dimensional Concrete Wall Printing Technology in Egypt
  103. Agustí-Juan Isolda, Jipa Mihail-Andrei, Habert Guillaume (2018-11)
    Environmental Assessment of Multi-Functional Building Elements Constructed with Digital Fabrication Techniques
  104. Schutter Geert, Lesage Karel, Mechtcherine Viktor, Nerella Venkatesh et al. (2018-08)
    Vision of 3D Printing with Concrete:
    Technical, Economic and Environmental Potentials
  105. Lowke Dirk, Dini Enrico, Perrot Arnaud, Weger Daniel et al. (2018-07)
    Particle-Bed 3D Printing in Concrete Construction:
    Possibilities and Challenges
  106. Reiter Lex, Wangler Timothy, Roussel Nicolas, Flatt Robert (2018-06)
    The Role of Early-Age Structural Build-Up in Digital Fabrication with Concrete
  107. Soto Borja, Agustí-Juan Isolda, Hunhevicz Jens, Joss Samuel et al. (2018-05)
    Productivity of Digital Fabrication in Construction:
    Cost and Time-Analysis of a Robotically Built Wall
  108. Rippmann Matthias, Liew A., Mele Tom, Block Philippe (2018-03)
    Design, Fabrication and Testing of Discrete 3D Sand-Printed Floor Prototypes
  109. Kontovourkis Odysseas, Tryfonos George (2017-07)
    Integrating Parametric Design with Robotic Additive Manufacturing for 3D Clay Printing:
    An Experimental Study
  110. Loveridge Russell, Coray Tanja (2017-04)
    Robots on Construction Sites:
    The Potential and Challenges of On-Site Digital Fabrication
  111. Agustí-Juan Isolda, Müller Florian, Hack Norman, Wangler Timothy et al. (2017-04)
    Potential Benefits of Digital Fabrication for Complex Structures:
    Environmental Assessment of a Robotically Fabricated Concrete Wall

BibTeX
@article{agus_habe.2017.EDGfDF,
  author            = "Isolda Agustí-Juan and Guillaume Habert",
  title             = "Environmental Design Guidelines for Digital Fabrication",
  doi               = "10.1016/j.jclepro.2016.10.190",
  year              = "2017",
  journal           = "Journal of Cleaner Production",
  volume            = "142",
  pages             = "2780--2791",
}
Formatted Citation

I. Agustí-Juan and G. Habert, “Environmental Design Guidelines for Digital Fabrication”, Journal of Cleaner Production, vol. 142, pp. 2780–2791, 2017, doi: 10.1016/j.jclepro.2016.10.190.

Agustí-Juan, Isolda, and Guillaume Habert. “Environmental Design Guidelines for Digital Fabrication”. Journal of Cleaner Production 142 (2017): 2780–91. https://doi.org/10.1016/j.jclepro.2016.10.190.