Preliminary Study on Evaluation of Smart-Cities Technologies and Proposed UV Lifestyles

Shengsheng Cao, Yanxi Chen, Guanghua Cheng, Fuxin Du, Wen Gao, Ziyan He, Shuqing Li, Shijun Lun, Haoran Ma, Qikai Su, Chuyuan Zhang, Tianyi Zhang, Zejun Zhang, Jie Zheng, Longfei Zhou, Yajun Fang
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引用次数: 7

Abstract

Our current society is facing challenges in both sustainability and environmental pollution due to fast urbanization, limited resources, and increasing senior population. Smart cities which aim to increase efficiency and convenience would not be able to solve fundamental challenges caused by urban lifestyles. In 2013, the Universal Village concept was proposed to enhance human-nature harmony through prudent use of technologies and to address the eco-challenges due to fast urbanization.This paper first studies the environmental implications due to urban lifestyles and proposes the suitable UV framework and detailed content of universal village lifestyle in order to address the eco-challenges. The paper then evaluates the development of current smart city technologies and assesses their validity with regard to the concept of Universal Village through systematic studies of several major intelligent systems.Specifically, this paper discusses the subject of connectivity from four perspectives: mutual interaction, feedback loop, dynamic information loop, and material cycle. The paper evaluates whether information feedback loops could be formed for these major systems, and also explores the mutual interaction and dependence among the seemingly independent major systems. We discover that mutual interaction connects the aforementioned systems into an interconnected network and naturally forms dynamic information loops in which the decision of one system may be the required input of another system or vice versa. This implies that proper functioning of these systems requires extensive information sharing among them. One event might dynamically trigger different events. The last connectivity is a material cycle. We explore the whole life cycle of products, including impact from lifestyle, customers’ need, product design, cloud manufacturing, sale channel, feedback collection from customers, reuse and recycling, scrapping, to final waste-disposal, etc., and study how to reduce the demand for resource and waste during the procedure. The idea is to include the perspective of UV lifestyle when designing products: considering the possibility in proactively reducing the need, sharing a product with different people, reusing product parts into the manufacturing, recycling reusable components of finished products before the products’ being fully disassembled, etc. The advantage is to reduce the need for products and to avoid manufacturing the same components from raw materials directly, which demands less resource.In summary, connectivity, as discussed from the four perspectives, would greatly contribute to the effectiveness and efficiency of our connected smart systems. Dynamic information loop helps coordinate resource allocation, decreases the collective costs, and reduces demand of natural resources from the natural environment, resulting in less damage to the environment which ultimately enhances system-wide harmony between human and its natural environment, and leads to human happiness in general.
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智慧城市技术评价与紫外线生活方式的初步研究
快速的城市化、有限的资源和不断增加的老年人口使我们的社会面临着可持续性和环境污染的双重挑战。以提高效率和便利为目标的智慧城市将无法解决城市生活方式带来的根本挑战。2013年,地球村的概念被提出,旨在通过谨慎使用技术来促进人与自然的和谐,并应对快速城市化带来的生态挑战。本文首先研究了城市生活方式对环境的影响,并提出了适合的紫外线框架和普遍性村庄生活方式的详细内容,以应对生态挑战。然后,本文评估了当前智慧城市技术的发展,并通过对几个主要智能系统的系统研究,评估了它们在宇宙村概念方面的有效性。具体而言,本文从相互作用、反馈回路、动态信息回路和物质循环四个角度探讨了互联互通的主题。本文评估了这些主要系统是否可以形成信息反馈回路,并探讨了看似独立的主要系统之间的相互作用和依赖关系。我们发现,相互作用将上述系统连接成一个相互连接的网络,并自然形成动态信息循环,其中一个系统的决策可能是另一个系统的所需输入,反之亦然。这意味着这些系统的正常运作需要它们之间广泛的信息共享。一个事件可能会动态触发不同的事件。最后一个连接性是物质循环。我们探索产品的整个生命周期,包括生活方式、客户需求、产品设计、云制造、销售渠道、客户反馈收集、再利用和回收、报废、最终废物处理等,并研究如何在这一过程中减少对资源和废物的需求。我们的想法是在设计产品时包含紫外线生活方式的观点:考虑主动减少需求的可能性,与不同的人共享产品,在制造中重复使用产品部件,在产品完全拆卸之前回收成品的可重复使用组件等。其优点是减少了对产品的需求,避免了直接用原材料制造相同的部件,这需要更少的资源。综上所述,从这四个角度讨论的互联互通将极大地促进互联智能系统的有效性和效率。动态的信息循环有助于协调资源配置,降低集体成本,减少自然环境对自然资源的需求,从而减少对环境的破坏,最终促进人类与自然环境的全系统和谐,从而实现人类的普遍幸福。
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