Lionel John Clarke
Lionel John Clarke
This paper examines the potential role of engineering biology in contributing to climate mitigation through the de-fossilisation of fuels, chemicals, materials and food systems. Although significant progress is being made in de-fossilising ...
Paige E Erpf,Bill D Kinder,Edward Archer et al.
Paige E Erpf et al.
The budding yeast Saccharomyces cerevisiae has moved beyond an evolved and domesticated single-celled microorganism into a deliberately engineered biological substrate. Advances in synthetic genomics, illustrated by the international Synthe...
Software System Design to Support Scale in Mammalian Cell Line Engineering [0.03%]
用于支持哺乳动物细胞系工程规模的软件系统设计
David W McClymont,Baird McIlwraith,Althea Green et al.
David W McClymont et al.
Cell line engineering (CLE) is the process of gene editing cell lines for a variety of purposes including research and development or bioproduction processes. Traditionally, CLE workflows have been manual and low throughput. Here, we descri...
Jacob Beal,Tessa Alexanian
Jacob Beal
Although there is broad agreement among biosecurity experts that nucleic acid synthesis providers should screen orders for potential threats, there is no agreed upon mechanism to verify whether a provider is implementing effective screening...
Plant Cell Strain Improvement Through Engineering Biology for Industrial Plant Cell Culture [0.03%]
工程生物学在植物细胞工业培养中的应用及植物细胞菌种的优化筛选
Yuan Li,Andrew Mark Hall-Ponselè
Yuan Li
Plant cell culture (PCC) presents a promising and sustainable alternative to traditional agricultural methods for producing specialty bioactive compounds. However, its widespread industrial application has been hindered by challenges such a...
If You're Not Thinking About Intellectual Property, You're Not Thinking About Impact [0.03%]
不考虑知识产权 就是不考虑影响力
Sara L Holland
Sara L Holland
Many of us went into research to do something good-to cure cancer or to save the world-and in engineering biology, we really are doing that, solving some of the world's most pressing problems, from plastic degradation to chemical manufactur...
Synthetic and Engineering Biology in Australia: Advances in Infrastructure, Coordination and Impact [0.03%]
澳大利亚合成与工程生物学：基础设施、协调及影响方面的新进展
Robert E Speight
Robert E Speight
Synthetic and engineering biology in Australia is a vibrant and expanding area, with the potential to contribute to Australian priorities, industry growth and international initiatives. This paper provides a progress update on the field in ...
Synthetic biology in Mexico: Brief history, current landscape, and perspectives towards a bio-based economy [0.03%]
墨西哥的合成生物学：从简史、现状到生物经济愿景的概述
Uriel E Barboza-Pérez,Ma de L Pérez-Zavala,José E Barboza-Corona
Uriel E Barboza-Pérez
Synthetic biology (SynBio) makes biology easier by leveraging engineering principles and other disciplines to design and construct biological systems with novel or enhanced functions. SynBio has led to the development of more sustainable bi...
Engineering biology and automation-Replicability as a design principle [0.03%]
工程生物学和自动化——以可重复性为设计原则
Matthieu Bultelle,Alexis Casas,Richard Kitney
Matthieu Bultelle
Applications in engineering biology increasingly share the need to run operations on very large numbers of biological samples. This is a direct consequence of the application of good engineering practices, the limited predictive power of cu...
Sébastien Lambertucci,Faye Deakin
Sébastien Lambertucci
Breakthroughs in engineering biology will solve the challenges facing humanity, by harnessing life itself. Standing in the way of these breakthroughs are the technical challenges of collecting the requisite data. Data variability and reprod...