Recycling of platinum electrodes demonstrating particulate electrochemical printing - PEP 3d Pt

该项目的目的是研究氢气、电化学和电化学工程领域，从而演示利用回收的铂进行颗粒电化学打印。关键材料的使用，工业废物的再生，以及未来可持续能源基础设施中的氢经济，都是需要研究突破的基本领域。本博士学位将重点研究一种利用关键资源的新方法，这种方法如何减少关键材料的使用量，回收产生的材料的潜力，以及使用新方法再生工业废物。博士学位的进一步阶段将考察形成的新材料在氢经济中的表现。拟议的项目符合EPSRC的职权范围及其战略优先事项；工程、制造和技术的前沿；工程净零；以及物理和数学科学的发源地。这一领域的研究对于实现循环经济、实现氢经济、提供先进材料和开发未来的制造技术至关重要。该项目将首先着眼于形成和表征新型铂基电化学材料，然后将这些材料开发成图案化电极。将调查从工业废物中使用原料的能力和回收所产生的材料的能力。PHD的基本目标是展示以废料为初始原料的铂基电极的闭路制造，用于氢经济。

The aim of this project is to investigate the fields of hydrogen, electrochemistry and electrochemical engineering leading to the demonstration of particulate electrochemical printing with recycled platinum. The use of critical materials, the regeneration of industrial wastes, and the hydrogen economy within a sustainable energy infrastructure of the future are fundamental areas in need of research breakthroughs. This Phd will focus on a new method for the utilising key resources, how this method can reduce the amount of critical materials used, the potential for recycling the materials produced, and using the new method to regenerate industrial waste. The further stages of the Phd will look at how the novel materials formed perform within the hydrogen economy. The proposed project is aligned to the remit of EPSRC and its strategic priorities; the frontiers in engineering, manufacturing and technology; engineering net zero; and the physical and mathematical sciences powerhouse. Research in this area is critical to achieve a circular economy, to enable the Hydrogen economy, to provide advanced materials and to develop manufacturing techniques of the future. The project will first look at forming and characterizing novel platinum based electrochemical materials before developing these materials into patterned electrodes. The ability to use feed stock materials from industrial wastes and the ability to recycle the material produced will be investigated. The fundamental aim of the Phd is to demonstrate closed loop manufacture of platinum based electrodes for the hydrogen economy with an initial feed-stock of waste materials.