MetaVibes: Metamaterials for Superior Vibration Attenuation
MetaVibes: Metamaterials for Superior Vibration Attenuation
批准号:
10075414
负责人:
金额:
$6.37万
依托单位:
依托单位国家:
英国
项目类别:
Grant for R&D
财政年份:
2023
资助国家:
英国
项目状态:
已结题
起止时间:
2023 至 --
中文摘要
MetaVibes的目标是开发一种具有成本效益的创新解决方案,以应对工业机械,运输,消费电子和医疗设备等各个行业的振动所带来的挑战。振动会对设备性能产生负面影响,增加维护成本,并导致停机。现有的振动隔离解决方案通常价格昂贵,体积庞大,通用性不足以满足不同行业的独特需求。为了解决这个问题,我们建议开发专门用于宽带振动隔离的先进超材料。我们的解决方案包括创建一系列具有刚性框架和软材料芯的单元格,这些单元格由能够耗散能量和阻尼振动的粘弹性材料组成。我们的方法的关键创新在于周期性和非周期性结构的结合,这使我们能够实现宽带振动阻尼,并根据特定的应用要求定制性能。利用增材制造技术,我们的目标是以具有成本效益和高效的方式生产超材料,使其成为潜在客户负担得起的投资选择。超材料的轻量化和耐用性确保了其易于安装和维护,同时其多功能性增强了其价值主张。该项目将涉及以下关键阶段:1.超材料设计的研究和开发,包括计算建模和设计参数的优化.使用先进技术(如增材制造)制造超材料3。实验测试和验证超材料在各种动态载荷和环境条件下的性能.探索不同行业的潜在应用,并与行业合作伙伴合作,以确定最有前途的机会。我们提出的超材料的成功开发和实施有可能彻底改变各个领域的结构设计方式,为振动隔离提供更有效和高效的解决方案。我们的超材料项目专注于可持续制造,为英国的环境、经济和社会带来益处。我们的超材料项目致力于为英国的客户提供可持续制造的解决方案,为客户提供高性价比的解决方案,从而显著提高设备性能,降低维护成本,最大限度地减少停机时间,最终造福于各个行业和终端用户。我们采用节能的增材制造工艺,减少能源消耗和排放。精确的材料使用最大限度地减少浪费,降低环境影响和材料成本。我们的超材料在设计时考虑到了可回收性,可以在其生命周期结束时重新利用。这种创新的、可持续的方法有助于英国的绿色经济,创造就业机会,并增强其在先进材料领域的全球竞争力。有关我们工作的更多详细信息,请访问www.metamaterials.uk
英文摘要
The aim of MetaVibes is to develop a cost-effective and innovative solution to address the challenges posed by vibrations in various industries, including industrial machinery, transportation, consumer electronics, and medical devices. Vibrations can negatively impact equipment performance, increase maintenance costs, and cause downtime. Existing vibration isolation solutions are often expensive, bulky, and not versatile enough to meet the unique needs of different industries.To tackle this problem, we propose the development of advanced metamaterials designed specifically for broadband vibration isolation. Our solution involves creating a series of unit cells with rigid frames and soft material cores, composed of viscoelastic materials capable of dissipating energy and dampening vibrations. The key innovation in our approach is the combination of periodic and aperiodic structures, which allows us to achieve broadband vibration damping and tailor the performance to specific application requirements.Utilizing additive manufacturing techniques, we aim to produce the metamaterial in a cost-effective and efficient manner, making it an affordable and investable option for potential customers. The lightweight and durable nature of the metamaterial ensures ease of installation and maintenance, while its versatility enhances its value proposition.The project will involve the following key stages:1. Research and development of the metamaterial design, including computational modeling and optimization of design parameters.2. Manufacturing of the metamaterial using advanced techniques such as additive manufacturing3. Experimental testing and validation of the metamaterial's performance in various dynamic loads and environmental conditions.4. Exploration of potential applications across different industries and collaboration with industry partners to identify the most promising opportunities.The successful development and implementation of our proposed metamaterial have the potential to revolutionise the way structures are designed across various fields, offering a more effective and efficient solution for vibration isolation. By providing a versatile and cost-effective alternative to existing solutions, our metamaterial can significantly improve equipment performance, reduce maintenance costs, and minimize downtime, ultimately benefiting various industries and end-users.Our metamaterials project focuses on sustainable manufacturing, benefiting the UK environmentally, economically, and socially. We employ energy-efficient additive manufacturing processes, reducing energy consumption and emissions. Precise material usage minimizes waste, decreasing environmental impact and material costs. Designed with recyclability in mind, our metamaterials can be repurposed at their lifecycle's end. This innovative, sustainable approach contributes to the UK's green economy, creating jobs, and bolstering its global competitiveness in advanced materials. More details about our work can be found at www.metamaterials.uk
期刊论文(0)
专著(0)
科研奖励(0)
会议论文
国内基金
海外基金
登录
查看更多内容
基于石墨烯的新型复合结构特异材料(metamaterials)实现对THz波的全新操控机制研究
-
批准号:11664025
-
项目类别:地区科学基金项目
-
资助金额:42.0万元
-
批准年份:2016
-
负责人:邓新华
-
依托单位:
由单负美特材料(metamaterials)组成的复合结构中电磁波的非线性传播与调控研究
-
批准号:U1504110
-
项目类别:联合基金项目
-
资助金额:27.0万元
-
批准年份:2015
-
负责人:冯团辉
-
依托单位:
三维微纳螺旋结构电磁超介质(Metamaterials)的光学特性研究
-
批准号:11104094
-
项目类别:青年科学基金项目
-
资助金额:25.0万元
-
批准年份:2011
-
负责人:杨振宇
-
依托单位:
Metamaterials中共振结构诱导的干涉现象
-
批准号:11074187
-
项目类别:面上项目
-
资助金额:40.0万元
-
批准年份:2010
-
负责人:江海涛
-
依托单位:
近红外和可见光区Metamaterials的制备及应用研究
-
批准号:10974263
-
项目类别:面上项目
-
资助金额:43.0万元
-
批准年份:2009
-
负责人:金崇君
-
依托单位: