Home Technology The role of biologically inspired design to 4D printing development
Chapter
Licensed
Unlicensed Requires Authentication

The role of biologically inspired design to 4D printing development

  • Silvia Titotto
Become an author with De Gruyter Brill
Frontiers of Science and Technology
This chapter is in the book Frontiers of Science and Technology

Abstract

Additive manufacturing allows the assembly of objects layer-by-layer via ejection of proper material. It leads to an accurate programming of the properties as well as dimensions of intricate printed objects. Whereas 3D printing manufactures motionless structures, the novel 4D printing empowers the fabrication of animated structures. In this kind of additive manufacturing, the printed objects change their shape over time via passive energy while in contact with certain external stimuli. Therefore, it has deep relations with the self-assembly concept that is a process frequently experienced in nature in that the disordered parts fabricate an organized structure via local association. The reason for that is those beings are prone to reorder their shape according to specific challenges imposed by the environment itself and by customized needs for growth and survival along their life span. Technological innovative solutions can be created from the observation of living beings’ biomechanics and biological systems that are responsive to environmental stimuli. Avenues for that are the hybrid technologies that enable new functionalities where shape adaptation and reaction to stimuli are key requirements. This may happen via the partnership between deployment mechanisms and sustainable materials. This field totally integrates the digital creation process and manufacturing with materials design within the context of self-assembly. Bioinspired self-assembly has already enabled advances in applications in fields such as material science, medicine, software, robotics, transportation, manufacturing, infrastructure and aerospace. It is also expected to impact even the food sector and the creative industry in the next few years.

Abstract

Additive manufacturing allows the assembly of objects layer-by-layer via ejection of proper material. It leads to an accurate programming of the properties as well as dimensions of intricate printed objects. Whereas 3D printing manufactures motionless structures, the novel 4D printing empowers the fabrication of animated structures. In this kind of additive manufacturing, the printed objects change their shape over time via passive energy while in contact with certain external stimuli. Therefore, it has deep relations with the self-assembly concept that is a process frequently experienced in nature in that the disordered parts fabricate an organized structure via local association. The reason for that is those beings are prone to reorder their shape according to specific challenges imposed by the environment itself and by customized needs for growth and survival along their life span. Technological innovative solutions can be created from the observation of living beings’ biomechanics and biological systems that are responsive to environmental stimuli. Avenues for that are the hybrid technologies that enable new functionalities where shape adaptation and reaction to stimuli are key requirements. This may happen via the partnership between deployment mechanisms and sustainable materials. This field totally integrates the digital creation process and manufacturing with materials design within the context of self-assembly. Bioinspired self-assembly has already enabled advances in applications in fields such as material science, medicine, software, robotics, transportation, manufacturing, infrastructure and aerospace. It is also expected to impact even the food sector and the creative industry in the next few years.

Chapters in this book

  1. Frontmatter I
  2. Preface V
  3. Contents VII
  4. About the editors XI
  5. Part I: Future cities
  6. Biopotent social technology: occupations park and university extensions 1
  7. Performance potentials: the optimization of buildings in operation 21
  8. Climate culture building: comparison of different computer generated building envelope designs for different Brazilian climate zones 35
  9. Electrical energy efficiency in urban infrastructure systems: nonintrusive smart meter for electrical energy consumption monitoring 47
  10. Distinct approaches to reproduce hygrothermal behavior of building materials based black-box models 61
  11. Part II: Modern urban agriculture
  12. Investigating the challenges and opportunities of urban agriculture in global north and global south countries 95
  13. Social technology and urban agriculture in Brazil: the social technology network and the social technology DataBank project 111
  14. Orchards from the forest: Urban agriculture as a lab for multiple learning 121
  15. Part III: Renewable energy
  16. The challenges of the new energy revolution 137
  17. Synthesis of inorganic energy materials 159
  18. Part IV: Sustainable smart materials
  19. Nature-inspired smart materials for multifunctional applications 177
  20. Smart fiber-reinforced polymer composites and their resource-efficient production by means of sensor integration 191
  21. The role of biologically inspired design to 4D printing development 205
  22. Influence of different carbon nanotubes types in dynamic-mechanical properties of lightweight carbon felt/CNTs composites 215
  23. Light-assisted synthesis of colloids and solid films of metallic nanoparticles 225
  24. The influence of polymeric interlayers on damping behavior of a fiber metal laminate 239
  25. Piezoresistivity of low carbon nanotubes content in elastomeric polymer matrix 259
  26. Improvement of fatigue strength of carbon fiber reinforced polymers by matrix modifications for ultrafast rotating flywheels 279
  27. Experimental study of thermal conductivity, viscosity and breakdown voltage of mineral oil-based TiO2 nanofluids 290
Downloaded on 8.12.2025 from https://www.degruyterbrill.com/document/doi/10.1515/9783110584455-013/html
Scroll to top button