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Developing Digital Technology for Healthcare Relevant Algal Biorenewables Manufacturing

Developing Digital Technology for Healthcare Relevant Algal Biorenewables Manufacturing
开发医疗保健相关藻类生物可再生能源制造的数字技术
批准号:
EP/T031123/1
负责人:
Dongda Zhang
金额:
$3.95万
依托单位:
依托单位国家:
英国
项目类别:
Research Grant
财政年份:
2020
资助国家:
英国
项目状态:
已结题
起止时间:
2020 至 --

项目摘要

项目成果

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中文摘要
翻译
我们的目标是应用最近在我们的研究中开发的基于最先进的机器学习的数字技术,以促进三种用于高价值生物可再生能源(即螺旋藻生物质、叶黄素和花生四烯酸)生产的光生产工艺的大规模制造。微藻光产法直接将太阳能和二氧化碳转化为与医疗保健相关的商业化合物,被认为是未来产业的一种有前途的可持续生物技术。预计到2024年,该项目调查的三种产品的销售额将达到11.3亿GB。预计到2023年,全球光生化学品的市场需求将达到350亿GB,年增长率为5.2%。发展数字技术,构建用于生产有价值的生物材料的自动化生物制造系统,对英国经济具有重要意义。英国的生物经济目前价值2200亿GB,预计到2030年将翻一番。该部门还支持500多万个工作岗位。为了保持英国在工业生物技术和数字经济方面的领先地位,开发具有成本效益和自我维持的光能生产工艺,以减少对石油化学品和化石燃料的依赖是至关重要的。这将巩固英国在智能制造和颠覆性生物技术领域的世界先驱地位,不仅在创造高质量的产品和服务方面受益,而且通过制造与医疗保健相关的化学品和创造新的就业机会来促进国民经济。厦门大学的两个研究小组中国是国家领先的专家,在可持续照相生产工艺设计、扩大和优化方面拥有丰富的工业经验。在他们的团队中有一系列的实验设备和光生物反应器,从实验室规模到工业规模。我们已经与中国的团队建立了初步的合作关系。为了确保成功,我们将:(I)开发不同的建模工具来量化三个摄影生产系统,并测试其在过程预测和状态估计方面的准确性;(Ii)将先进的在线优化技术集成到模型中,形成用于过程监控和优化控制的数字框架,并通过实验室和中试规模实验验证框架的性能;(3)更新数字框架并将其安装到大型制造系统中,同时在数字框架中嵌入深度学习技术,将过程行为在不同的时间和空间可视化。大部分数字技术都是在曼彻斯特大学研发的,厦门大学有足够的实验资源和实验设施。这一国际合作提供了一个将英国发明的前沿数字技术与中国开发的先进工业生物技术联系起来的绝佳机会,并将启动首次全面调查,将新型数字技术用于照相生产过程实时监测和状态估计、在线优化和控制以及生物反应器可视化。该项目将促进曼彻斯特大学和厦门大学之间的合作,并将极大地惠及参与该项目的学者和博士生。研究结果将被用作证据:i)申请未来的长期合作助学金,如牛顿机构链接助学金、高级别外国专家计划、UKRI-中国研发基金;ii)共同监督博士生和理科硕士学生在实验和模拟领域扩展他们的知识;iii)获得海外公司和中国奖学金委员会的博士生奖学金;iv)将先进的工业技能引入英国中小企业生物技术公司,促进照片制作工艺和工业生物技术在国内的发展。
英文摘要
Our aim is to apply state-of-the-art machine learning based digital technology recently developed in our research to facilitate large scale manufacturing of three photo-production processes for high-value biorenewables (i.e. Spirulina biomass, lutein, and arachidonic acid) production. Microalgal photo-production processes directly convert solar energy and CO2 into healthcare relevant commercial compounds, and are considered as a promising sustainable biotechnology for future industry. Sales of the three products investigated in this project have been estimated to be £1.13 billion by 2024. The global market demand of photo-production based chemicals has been expected to reach £35 billion by 2023, with an annual growth rate of 5.2%.Developing digital technologies to construct automated biomanufacturing systems for valuable biomaterials production is of great importance to the UK's economy. The UK's Bioeconomy is currently worth ~£220 billion and is predicted to double by 2030. This sector also supports over 5 million jobs. In order for the UK to retain its leadership in industrial biotechnology and digital economy, it is crucial to develop cost-effective and self-sustained photo-production processes to reduce dependency on petroleum chemicals and fossil fuels. This will cement the UK as a world-pioneer in 'smart' manufacturing and disruptive biotechnology, with benefits not only in generating high quality products and services, but also boosting the national economy through the manufacture of healthcare relevant chemicals and creation of new job opportunities.The two research groups at Xiamen University, China are national leading experts and have rich industrial experience in sustainable photo-production process design, scale-up, and optimisation. There are a range of experimental facilities and photobioreactors from lab scale to industrial scale available at their groups. We have established initial collaborations with the groups in China. To guarantee success, we will: (i) develop different modelling tools to quantify the three photo-production systems, and test their accuracy for process prediction and state estimation; (ii) integrate advanced online optimisation techniques into the models to form a digital framework for process monitoring and optimal control, and verifies the framework's performance through lab and pilot scale experiments; (3) update the digital framework and install it into the large scale manufacturing systems, meanwhile embed a deep learning technology into the digital framework to visualise process behaviour at different temporal and spatial space. Most of the digital technologies have been developed in the University of Manchester, and there are sufficient experimental resources and experimental facilities at Xiamen University. This international collaboration provides an excellent opportunity to link frontier digital technologies invented in the UK with advanced industrial biotechnologies developed in China, and will initiate the first thorough investigation in using novel digital technologies for photo-production process real-time monitoring and state estimation, online optimisation and control, and bioreactor visualisation. This project will boost collaborations between the University of Manchester and Xiamen University, and will significantly benefit the academics and PhD students involved in this project. Outcome will be used as evidence to: i) apply for future long-term collaborative grants such as the Newton Institutional Links Grants, the High-level Foreign Experts Plan, and the UKRI-China R&D fund; ii) co-supervise PhD and MSc students to extend their knowledge in fields of experimentation and simulation; iii) secure PhD studentships from overseas companies and the China Scholarship Council; iv) bring advanced industrial skills into UK SME biotech companies to facilitate the domestic development of photo-production processes and industrial biotechnologies.
期刊论文(2)
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会议论文
DOI: 10.1002/bit.28262
发表时间: 2023-01
期刊: BIOTECHNOLOGY AND BIOENGINEERING
影响因子: 3.8
作者: [Mowbray, Max R., Wu, Chufan, Rogers, Alexander W., Del Rio-Chanona, Ehecatl A., Zhang, Dongda]
通讯作者: Zhang, Dongda
国内基金
海外基金
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