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Sir Henry Royce Institute - Oxford Equipment

亨利·莱斯爵士研究所 - 牛津设备

基本信息

批准号：
EP/R010145/1
负责人：
Patrick Grant
金额：
$ 1274.2万
依托单位：
University of Oxford
依托单位国家：
英国
项目类别：
Research Grant
财政年份：
2017
资助国家：
英国
起止时间：
2017 至无数据
项目状态：
已结题

来源：
https://gtr.ukri.org/projects?ref=EP%2FR010145%2F1
关键词：
Sir Henry Royce Institute Oxford

项目摘要

Energy storage (ES) is at the heart of the energy trilemma for clean, secure, and cost effectivesupply. The UK is strong in advanced materials engineering combined with unique geographicalopportunities for sustainable energy storage. Technology integration and strategic deployment areessential for the UK to be world leading and to exploit material technology globally. According toGE: "the development of energy storage technology is going to be one of the defining features of the21st centuries energy landscape....it is going to be a huge market and is going to render the utilitiesbusiness unrecognisable within a few decades". Fundamentally, the most critical and enablingaspect of energy storage devices are the materials from which they are made. For example, inlithium ion batteries, the anode, cathode, separator, electrolyte and current collectors are all highlyoptimised and compatible materials that are integrated at large scale ~5 B Li ion cells in 2016) usingbespoke manufacturing expertise.Energy storage is a key enabler for clean transport and completes the renewable energy cycle. Froma historical perspective, there has been a disparate and 'polarised' approach to renewable energygeneration and use - the focus has been on the two 'extremes': on one side, generation (e.g. windturbines, solar PV) and on the other side, end uses and applications (e.g. electric vehicles). However,the bridge to connect these into a working system is energy storage. Both mobile and stationaryenergy storage offer significant potential for the UK; on the other hand, without energy storage itwill be difficult to decarbonise the electricity grid and achieve the UK targets for CO2 mitigation. Theimportance of ES was highlighted in the Department for Business, Energy & Industrial Strategy greenpaper Building our Industrial Strategy in January 2017 that stated "Given the UK's underlyingstrengths in science and energy technology, we want to be a global leader in battery technology."ES comprises a wide variety of technologies, all particularly dependent on advances in materialsscience. Resources need to be carefully allocated on selected technologies in order to achieve theworld leading status. Following Oxford-led stakeholder meetings, workshops and discussion, theRoyce ES theme will focus on (i) electrochemical energy storage technologies such as batteries,supercapacitors and flow cells and (ii) thermoelectric and piezoelectric devices.

能源储存(ES)是清洁、安全和经济的能源供应三难问题的核心。英国在先进材料工程和独特的地理位置相结合方面实力雄厚，为可持续能源储存提供了良好的机遇。技术整合和战略部署对于英国成为世界领先者和在全球开发材料技术至关重要。根据Toge的说法：“储能技术的发展将成为21世纪能源格局的主要特征之一……这将是一个巨大的市场，并将在几十年内使公用事业业务面目全非。”从根本上说，储能设备最关键和最重要的方面是制造它们的材料。例如，在锂离子电池中，负极、阴极、隔膜、电解液和集流器都是高度优化和兼容的材料，利用定制的制造专业知识在2016年大规模集成~5B锂离子电池)。储能是清洁运输的关键推动因素，完成了可再生能源循环。从历史的角度来看，对于可再生能源的发电和使用，一直存在一种截然不同的“两极”方法--重点放在两个“极端”上：一方面是发电(例如风力涡轮机、太阳能光伏)，另一方面是终端用途和应用(例如电动汽车)。然而，将这些连接到一个工作系统中的桥梁是能量存储。移动式和固定式能源储存为英国提供了巨大的潜力；另一方面，如果没有能源储存，电网将很难脱碳，也很难实现英国的二氧化碳减排目标。2017年1月，商业、能源和工业策略部绿皮书《构建我们的工业战略》强调了ES的重要性，该绿皮书称，“鉴于英国在科学和能源技术方面的潜在优势，我们希望成为电池技术的全球领先者。”ES包含多种技术，所有这些技术都特别依赖于材料科学的进步。需要在选定的技术上谨慎分配资源，才能达到世界领先地位。在牛津大学牵头的利益攸关方会议、研讨会和讨论之后，罗伊斯ES主题将集中于(I)电池、超级电容器和流量电池等电化学储能技术，以及(Ii)热电和压电装置。

项目成果

期刊论文数量（10）

专著数量（0）

科研奖励数量（0）

会议论文数量（0）

专利数量（0）

Effect of Microstructure on the Cycling Behavior of Li-In Alloy Anodes for Solid-State Batteries

DOI：
10.1021/acsenergylett.3c02274
发表时间：
2024-01-26
期刊：
ACS ENERGY LETTERS
影响因子：
22
作者：
Aspinall，Jack;Chart，Yvonne;Pasta，Mauro
通讯作者：
Pasta，Mauro

Solvent-in-Salt Electrolytes for Fluoride Ion Batteries.

DOI：
10.1021/acsenergylett.3c00493
发表时间：
2023-06-09
期刊：
ACS ENERGY LETTERS
影响因子：
22
作者：
Alshangiti, Omar;Galatolo, Giulia;Rees, Gregory J.;Guo, Hua;Quirk, James A.;Dawson, James A.;Pasta, Mauro
通讯作者：
Pasta, Mauro

EBSD-coupled indentation: nanoscale mechanics of lithium metal