This document discusses various sustainable and innovative materials including those inspired by nature like spider silk, abalone, and lotus leaves. It covers materials that are strong yet lightweight, change properties based on stimuli, can exchange or generate energy, and are sourced from renewable and recycled sources. The goal is to highlight materials that can meet needs without compromising future generations' abilities.

1. TERUG NAAR DE BASIS Inspiring materials Els Zijlstra- Materia

2. Relevance of Materia manufacturers Creative professionals M

10. synergy of art, science, and technology

11. Hernan Diaz Alonso

12. Quirin Krumbholz CHICAGO’s SLICK COMPOUND

13. Rem Koolhaas Foam for Prada

14. Chapel Peter Zumthor

15. 40 Bond New York – Herzog & de Meuron

17. Lacefence de makers van..

18. Multisensorial

25. Mandy van Elzen Algue vase

26. Geke Wouters

27. Nature squared

28. Felt Claudy Jongstra

30. Energie 20/2 Collaborative Philadelphia

31. Energie 20/2 Collaborative

33. Cork

35. Onder druk en stoom expandeerd de kurk tot 2 maal zijn volume. Net als popcorn. De natuurlijke surbine werkt als lijm.

37. Black cork or nero

38. Xiriton: elephant grass and olivine

39. Flock Julia Lohmann

42. Bio Glass by coveringsetc.

43. Bio luminum by coveringsetc.

46. materials used exterior primary construction:redundant textile machine secondary construction: second hand wooden beams floors and roof: dismanteledwooden floorboards insulation: EPS-sheets from disassembly-site cladding: wasted cable reels moistregulation :seashells foundation : concrete (sorry, new) interior elevator: second hand construction-lift shelvings: partly buildingsite-signs(waterproof multiplex) lightfixtures: construction of broken umbrellaparts(by en-fer) bathroom walls: smileplastic (compressed coffecups) environmental gain co2 emissions including transport and processing: cladding: 85% reduction compared to new simple wooden cladding steel construction: 95% reduction compared to same construction with new steel

49. Spider silk The strength of a biological material such as spider silk lies in the specific geometric configuration of structural proteins, which have small clusters of weak hydrogen bonds that work together to resist force and dissipate energy. The Massachusetts Institute of Technology’s Civil and Environmental Engineering (CEE) department, in collaboration with SDSC researcher Ross Walker, found that this structure is as strong as steel, even though the "glue" of hydrogen bonds that hold spider silk together at the molecular level is 100 to 1,000 times weaker than steel's metallic bonds or Kevlar's covalent bonds

50. Kevlar aramid spidersilk

51. Aerogel

52. Aerogel

53. Alusion

54. Jacob Alkema

55. Isotruss

57. Gumnetic; Anna Bulus

58. Duralmond

59. Vissenleer

63. Interactive materials

66. Cornstarch – D3O

67. Cornstarch – D3O

68. Biomimicry

69. Gekko

70. Abalone - Ceramic

71. Mussel shell glue

72. Nutscode Thermographics

74. Polar bear - Stosolar

77. Fenestrariam - Lighttubes

78. Seapurse - Biosignal

79. Lotusleaf – Lotusan - Greenshield