Product Safety Risk Assessment Approach to Sustainable Design

He, Bin; Wu, Jiachi; Xiao, Jinglong

doi:10.1007/s40684-022-00490-4

Cited by 9 publications

(4 citation statements)

References 23 publications

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“…Sustainable manufacturing, food packaging innovations, and designs for underground environments, warm mix asphalt, and natural fiber composites underline the need for ecocentric practices. Additionally, integrated sustainable supply chains and education tailored towards green recovery emphasize holistic sustainability [18,19] .…”

Section: Literature Reviewmentioning

confidence: 99%

Emerging trends in sustainable design: Integrating museums for a resilient future

Wang,

Lin,

2023

Build. Eng.

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The paper unfolds the intricate tapestry of sustainable design, weaving in the pivotal role of renewable energy systems and astutely tying it to the eco-conscious blueprint of modern museums. The introduction sheds light on the potent impact of sustainable design in mitigating environmental hurdles and fostering a greener, more sustainable future, with a nuanced nod towards sustainability in museum management and design. Motivated by an aspiration to traverse diverse viewpoints and methodologies in sustainable design, the research stretches across numerous sectors—encompassing construction, architecture, engineering, manufacturing, software development, and notably, museum design, intending to carve out energy-sparing and ecologically mindful solutions. This paper underscores the imperative of astute design practices that optimize structures, such as museums, to maximize the utilization of renewable energy resources like solar arrays, wind turbines, and geothermal systems. It advocates for a burgeoning need to escalate the horizon of sustainable design beyond singular buildings, intertwining standalone energy systems at multiple tiers—from community power grids to expansive urban networks—ensuring a streamlined energy distribution and curbing waste. Wading through the literature review, an exploration of varied sustainable design strategies unfolds, encompassing facets like supply chain management, product safety, architectural design, manufacturing, food packaging, transportation, and pedagogy, with a specific lens on embedding sustainability in museum infrastructure and operations. The culmination of the paper discerns ten cardinal trends in sustainable design, spanning from the integration of renewable energy systems to the infusion of sustainable education and positive psychological interventions in educational institutions, thereby spotlighting the metamorphosing terrain of sustainable design across an array of disciplines.

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Section: Literature Reviewmentioning

confidence: 99%

Emerging trends in sustainable design: Integrating museums for a resilient future

Wang,

Lin,

2023

Build. Eng.

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“…A product's production cycle heavily depends on the carbon impact it leaves behind. Low-carbon design study, in contrast to eco-design, concentrates on building carbon footprint models (He, Wu, & Xiao, 2023), while taking into consideration a variety of variables like procurement, recycling, and remanufacturing to determine the best design path for a low-carbon product by evaluating the product's carbon footprint. Urban planning, life cycle evaluation, smart buildings, and many other design techniques and instruments are now frequently employed.…”

Section: Introductionmentioning

confidence: 99%

“…Low-carbon manufacturing refers to sustainable manufacturing by optimizing production processes and reducing carbon emissions (He, Qian, & Li, 2023). Several low-carbon manufacturing technologies are currently being used in a variety of sectors, including smart manufacturing, sustainable energy, and energy-efficient materials.…”

Section: Introductionmentioning

confidence: 99%

Product low‐carbon design, manufacturing, logistics, and recycling: An overview

Yuan

Qian

et al. 2023

WIREs Energy & Environment

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Due to the worsening world climate crisis, reducing carbon emissions throughout product operations has become an issue that the manufacturing industry must face. In order to gain competitive advantage, this paper aims to explore low carbon design techniques for product life cycle: including low carbon design, low carbon manufacturing, low carbon logistics and low carbon recycling, as they are highly relevant to reducing carbon emissions. This paper proposes a portfolio structure for low carbon operations, consisting of a target layer, a strategy layer, and a support layer, aimed at improving energy efficiency and reducing carbon emissions. To emphasize the maximization of economic, environmental, and social advantages, the objective layer establishes a system of goals for low‐carbon product design. The strategy layer proposes four low‐carbon product design technologies: low‐carbon product design, manufacturing, transportation, and recycling. The support layer emphasizes the importance of operational systems and support platforms for low‐carbon products, such as low‐carbon design systems, energy information collection systems, energy optimization support systems, carbon emission monitoring and control systems, and low‐carbon management systems. However, successful implementation of low carbon manufacturing is challenging due to the complexity of low carbon manufacturing and the uniqueness of each company. Therefore, this paper suggests applying a life‐cycle‐oriented low‐carbon operation model to various manufacturing enterprises and exploring models that reflect actual manufacturing practices to achieve the goal of low‐carbon manufacturing.This article is categorized under: Sustainable Development > Goals

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“…The offshore wind power installation platform is a necessary piece of equipment for the installation of offshore wind turbines, and the suitability of the platform directly affects the construction efficiency of offshore wind farms, as some existing wind power installation platforms cannot adapt to deep-water operation [ 1 , 2 ]. Based on a project involving the construction of a 2000-ton offshore wind power installation platform, the risk characteristics of offshore platforms during the design stage have been systematically studied [ 3 ], and a significant stabilization of these platforms in terms of pitching angle and nacelle acceleration due to the installation of a gyro has been achieved [ 4 ]. Previous studies have analyzed the dynamic characteristics of offshore platforms [ 5 , 6 ], summarized the key technologies of offshore platforms [ 7 ], proposed that one of the most relevant cost items is the floating substructure [ 8 ], and presented the fuzzy control method as an alternative solution for the installation platform [ 9 ].…”

Section: Introductionmentioning

confidence: 99%

Research on Pneumatic Control of a Pressurized Self-Elevating Mat for an Offshore Wind Power Installation Platform

Cui,

Shi,

Lin

et al. 2023

Sensors

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Efficient deep-water offshore wind power installation platforms with a pressurized self-elevating mat are a new type of equipment used for installing offshore wind turbines. However, the unstable internal pressure of the pressurized self-elevating mat can cause serious harm to the platform. This paper studies the pneumatic control system of the self-elevating mat to improve the precision of its pressure control. According to the pneumatic control system structure of the self-elevating mat, the pneumatic model of the self-elevating mat is established, and a conventional PID controller and fuzzy PID controller are designed and established. It can be seen via Simulink simulation that the fuzzy PID controller has a smaller adjustment time and overshoot, but its anti-interference ability is relatively weak. The membership degree and fuzzy rules of the fuzzy PID controller are optimized using a neural network algorithm, and a fuzzy neural network PID controller based on BP neural network optimization is proposed. The simulation results show that the overshoot of the optimized controller is reduced by 9.71% and the stability time is reduced by 68.9% compared with the fuzzy PID. Finally, the experiment verifies that the fuzzy neural network PID controller has a faster response speed and smaller overshoot, which improves the pressure control accuracy and robustness of the self-elevating mat and provides a scientific basis for the engineering applications of the self-elevating mat.

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Product Safety Risk Assessment Approach to Sustainable Design

Cited by 9 publications

References 23 publications

Emerging trends in sustainable design: Integrating museums for a resilient future

Emerging trends in sustainable design: Integrating museums for a resilient future

Product low‐carbon design, manufacturing, logistics, and recycling: An overview

Research on Pneumatic Control of a Pressurized Self-Elevating Mat for an Offshore Wind Power Installation Platform

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