"종이접기의 수학"의 두 판 사이의 차이

수학노트
둘러보기로 가기 검색하러 가기
(→‎노트: 새 문단)
 
(→‎메타데이터: 새 문단)
36번째 줄: 36번째 줄:
 
===소스===
 
===소스===
 
  <references />
 
  <references />
 +
 +
== 메타데이터 ==
 +
 +
===위키데이터===
 +
* ID :  [https://www.wikidata.org/wiki/Q3299105 Q3299105]

2020년 12월 26일 (토) 05:06 판

노트

위키데이터

말뭉치

  1. Origami and paper folding can provide a particularly accessible, visual means of inspiring and exciting children and older students about mathematics.[1]
  2. Origami models of geometric 2D and 3D objects can provide a practical starting point for exploring mathematics.[1]
  3. For younger children (Reception, Years 1 and 2), it may be best to use a venue with plenty of space to spread out 2D paper folding activities, such as a hall or gym.[1]
  4. Origami is great for thinking about shapes and space.[2]
  5. A quick search online will lead you to lots of origami guides.[2]
  6. One uncut square of paper can, in the hands of an origami artist, be folded into a bird, a frog, a sailboat, or a Japanese samurai helmet beetle.[3]
  7. The art of origami has been going through a renaissance over the past 30 years, with new designs being created at ever-increasing levels of complexity.[3]
  8. Indeed, if you take an origami model, of a bird for example, and carefully unfold it, you’ll see the pattern of creases that act as a blueprint for the model.[3]
  9. Most traditional origami models fold flat, meaning you could press the model in a book without crumpling it.[3]
  10. The wonders of mathematical origami can be easily seen in its application.[4]
  11. “Using origami design principles to fold reprogrammable mechanical metamaterials,” Science, 345, 647-650.[4]
  12. It’s easy to get a feel for origami-mathematics for yourself.[4]
  13. One of the first books to explore the mathematics behind paper folding in the West is T. Sundara Row’s Geometrical Exercises in Paper Folding, published in Madras, India in 1893.[4]
  14. From the Brief History of the Ancient Art of Paperfolding I gather that Origami gained acceptance in the West in the early 1950s.[5]
  15. In the geometry of paper folding, a straight line becomes a crease or a fold.[5]
  16. As in the usual Geometry, the distinction is being made between experimentation with the physical paper and the abstract theory of "paper folding".[5]
  17. In the Paper Folding Geometry, a straight line - a fold - is clearly a primary object; a point is defined as the intersection of two folds.[5]
  18. Paper folding played an integral role in Chinese ceremonial purposes, especially funerals.[6]
  19. That’s great if you already have an origami figure.[6]
  20. Origami has changed the ways we’ve thought about art, math, and science.[6]
  21. How has origami impacted your life?[6]
  22. The art of origami or paper folding has received a considerable amount of mathematical study.[7]
  23. This work was inspired by the use of origami in the kindergarten system.[7]
  24. The construction of origami models is sometimes shown as crease patterns.[7]
  25. The classical problem of doubling the cube can be solved using origami.[7]
  26. A few questions immediately arise: Why did paper folding become a non-instrument?[8]
  27. In traditional origami, constructions are done using a single sheet of colored paper that is often, though not always, square.[9]
  28. In modular origami, a number of individual "units," each folded from a single sheet of paper, are combined to form a compound structure.[9]
  29. Origami is an extremely rich art form, and constructions for thousands of objects, from dragons to buildings to vegetables have been devised.[9]
  30. Many mathematical shapes can also be constructed, especially using modular origami.[9]

소스

메타데이터

위키데이터