Sprout Cicitlaltepoztlacuahuitl ītēchcopa JunXiang Cheng and Yi Yang

Tlanāhuatīlli Sprout Cicitlaltepoztlacuahuitl ītēchcopa JunXiang Cheng and Yi Yang cē cencā mahuizzō tēmacēhualōni īpan huēyi 2022 Mahuizolli A' Design Award Tepoztli īpan Yexcan Tepoztlacuilolli Tlachihualli ihuan Tlachihualli Tlachihchihualiztli Nēhuilīztli Tlamantli.

TepoztliYexcan Tepoztlacuilolli· 2022

Sprout Cicitlaltepoztlacuahuitl

īpal JunXiang Cheng and Yi Yang

Tlanāhuatīlli: JunXiang Cheng,Yi Yang,AoDong Li,JingYao Huang,ZiYu Zhao

Mahuizolli A' Design Award Tepoztli Tēmacēhualōni īpan Yexcan Tepoztlacuilolli Tlamantli

31,470

Tlaneltīlīlli Tēmacēhualōni

Xictlaneltilia Tēmacēhualli ītēchcopa #137286

Xiquitta A' Design Award ītechcopa Āmatl Tēmachiyōtīliztli Tlamachiōtl

Tlapalli

Tlanēxtilistli

Ītechcopa Sprout Cicitlaltepoztlacuahuitl

Sprout in cicitlaltepoztlacuahuitl motlālia ika ēxcān-tlachīhualiztli mahuiztic. In tlaxēlōlli motlālia ika topología cualtiliztli, in quitēmoa zan ompa in tlein monequi in tlaxēlōlli, ihuan quitēmpachihuia in āxcāitl tlein monequi. In tlaonquīzāliztli ika finite element neltilia in chicāhualiztli īhuān in yōllōtl in tlaxēlōlli. In āxcān moxēxēlōlli motlālia ika nylon chicāhuac. In cicitlaltepoztlacuahuitl quipia 1630 mm īhuiyāc, 600 mm īpatlāhuac, ihuān 832 mm īacōc. In ēxcān-tlachīhualiztli quipōloa in tlein monequi ika moldes patiyoh, yeh ica cecen tlaxēlōlli huel motlālia ika iyōllōcopa tlamachiyōtl.

Tēixīmachōtiliztli

Ītechcopa Mahuizolli A' Design Award Tepoztli

Sprout Cicitlaltepoztlacuahuitl ca in quicuic in Mahuizolli A' Design Award Tepoztli, tlamahuizoliztli tlen momaca in cualli dizayno in quitlalia in tlen monequi ipan tequitl ihuan tlachihualiztli in quimaca in cualli tlachihualli. In quicuicah Tepoztli quinextia in hueyi tlamatiliztli, toltecayotl ihuan ihuelitiliztli intlachihuanime. Ca quinequi in Sprout Cicitlaltepoztlacuahuitl ca tlazohtli, mahuiztic, yancuic ihuan motequiuhtia. Ni dizayno in quicuic Tepoztli quihuelitia in tlamatiliztli ihuan quipia chicahualiztli tlen tepoztli. Sprout Cicitlaltepoztlacuahuitl quicualtia in nemiliztli ihuan quihuelitia in cemanahuac ica cualli.

Tlanēxtilistli Ītēixpan

Āmatl Tlanextīliztli

Tlapōhualli, tēquitqueh īwan tēchmachilīztli ōquinmaca in tlanēxtīlīlli.

Cē Zan Ītēchcopa: Bicycles made by traditional technology are often single in shape and lack of characteristics. After the introduction of 3D printing technology, the bicycle after topology optimization not only has a better lightweight design, but also gets rid of the high mold cost, and carries out an industrial mode of producing one piece for one design or even one piece for multiple designs.
Huēyiliztli īhuān Tlacualtepēhualli: Length 1630mm, width600mm, height 832mm
Tōcāitl: Topological Optimization, 3D Printing, bicycle, conceptual design, vehicle design
Tlachīhualiztli Māchiyōtl: The structure of the bicycle is optimized by means of topology optimization, and the design is carried out on the basis of the optimized model. Finally, the bicycle model is made of high density nylon material through 3D printing
Tlanāhuatīlli Nētēcahuilīztli: The most difficult part is the topology optimization of the bicycle, because it includes related mechanics such as statics. It's a whole new area for us, it's a whole new challenge.The second is to verify the feasibility of material technology, which takes a long time, the cost of changing material technology, the difficulty of production, and the acceptance of people in real life. These are the considerations for this design study.
Tlatēmōliztli: Research objectives: 1. How to optimize the structure of bicycle 2. Research methods of existing 3D printing materials and technologies and topology optimization methods: 1. Field investigation data analysis 2. Online data collection results: With the introduction of 3D printing technology, metal materials can be made into the form of car frames, just like sculptures, without the constraints of traditional processes. At the same time, 3D printing technology can get rid of the high cost of mold, and carry out the industrial model of one design producing one piece, or even multiple designs producing only one piece. Even the same design can be printed with different materials.
Tēyōllālīliztli: According to the investigation, in the long days of steel and aluminum tubes, the basic shape of the bicycle was a variety of subtle variations of the diamond frame under the linear structure. Bicycle product modeling language is relatively simple, in addition to the details of the process, the biggest surprise may be coating. From the point of view of design, it is hoped that through 3D printing design, people can obtain bicycles with better stability and more personality rather than the bicycles produced in industrial batches in the past. So that people's bikes get the best lightweight and reduce the loss of more resources.
Tēquitl Cāhuitl: The project started in March 2021 and ended in May 2021. Project duration: 2 months. Location: Wuhan City, Hubei Province, China.
Tēquitl Ōhuitl: By using a professional design system, the topology optimization of the bicycle frame is carried out, and then the optimization of the corresponding frame prototype is completed according to the corresponding optimization results, and the bicycle is produced by 3D printing. The bicycle frame after topology optimization not only reasonably plans the distribution of the material structure, reduces the amount of material, but also reduces the energy consumption rate and the emission of harmful substances in the exhaust. Secondly, the static stress analysis of the frame is carried out by applying the finite element method in topology optimization, so as to complete the design and stability verification of the frame structure more efficiently, shorten the product development cycle, and make new products more efficient in development.
Calpolli Tlācah: Designer：JunXiang Cheng
Designer：Yi Yang
Designer：AoDong Li
Designer：JingYao Huang
Designer：ZiYu Zhao