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• Reengineering cellular components and machineries
• Engineering new biological processes for specific
industrial applications
• Engineering a novel organism from existing and newly designed parts
• Engineering of biological systems with structures and functions not found in nature
• Application of engineering principles to biology, redesigning biological materials and using them as new
substrates
• Application of engineering principles
• Engineer novel biological systems with useful and predictable functions by combining modular, well-
characterised genetic parts in a rational and systematic manner
• Design and engineer biologically based parts, novel devices and systems; redesigning existing, natural
biological systems
• Application of systematic design – using engineering principles
• Engineering biological systems or modules
• Apply engineering principles
to biological studies
• Engineering of biological entities not found in nature
• Reverse engineer and redesign pre-existing biological parts and devices
• Engineer predicted outputs
• Combine knowledge and techniques of biology,
chemistry, computer science, and engineering.
•
De novo engineering of regulatory systems
• Engineering-driven building of increasingly complicated biological entities (parts, devices and systems)
from simple and basic building blocks
• Engineering artificial biological systems with the ultimate goal of programming novel cell and organism
behaviour
• Engineering DNA based biological circuits by using standardised biological parts; identifying the minimal
genome; constructing protocells; creating orthogonal biological systems through chemical synthetic
biology
• Systematic construction of biological systems with cells being build module by module (bottom up
engineering strategy)
• Application of engineering principles toward the construction of novel biological systems
• Central goal is to transform biology into a system that can be engineered
• Application of the principles of engineering to the construction of life with desired properties in a
rational
and systematic way
• Engineering novel cell activities
• Engineer and create complex biological systems for practical applications from lesser understood and
unreliable basic components
• Engineering challenge with interchangeable parts joined to yield novel pathways
• Modular, well-characterised biological parts to predictably construct novel genetic devices and complex
cell-based systems following engineering principle
• Engineering of biology (bottom up and top down approaches)
• Design and construction of biological systems guided
by engineering principles
•
De novo engineering of regulatory systems with desired behaviour
• Reverse-engineering the design rules governing the machinery of cells and cell circuits
• Synthetic biology is at the interface of engineering and biology
• Integration of computational analysis, biological data and the systems engineering paradigm
• Reverse-engineer naturally evolved systems and to build new systems
• Engineering of genetic molecular machines with a specific predefined function
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• Routine engineering of
complex biological systems
• Newly engineered organism functions as a machine
Construction
• Construct new parts, modify existing biological systems
• Reconstruct the decision-making
networks
• Design and construction of new biological components such as enzymes, genetic circuits, and cells,
redesign of existing biological systems
• The design and construction of new biological parts, devices and systems and redesign of existing,
natural biological
systems for useful purposes
• Redesign and fabrication of existing biological systems, construction of new biological parts, devices and
systems that do not occur in nature
• New tools that support pathway construction and optimisation.
• Piece together biological components from several different origins, re-design a natural or construct a
novel pathway that the host uses to synthesise a valuable chemical
• Design and construction of new biological functions that are not found in nature
• Functional stand-alone elements, reconstructed in
novel configurations
• Reconstruction of entire cellular genomes from virtual sequence information and using chemical
components
• Engineering DNA based biological circuits by using standardised biological parts; identifying the minimal
genome; constructing protocells; creating orthogonal biological systems through chemical synthetic
biology
• Systematic construction of biological systems with cells being build module by module (bottom up
engineering strategy)
• Application of engineering principles toward the construction of novel biological systems
• Application of the principles of engineering to the construction of life with desired properties in a
rational and systematic way
• Modular, well-characterised biological parts to predictably construct novel genetic devices and complex
cell-based systems following engineering principle
• Design and construction of biological systems guided by engineering principles
• Novel synthetic networks
• Improve biological systems
• Modify existing cells and organisms so that they work as cell factories
Trans- and inter-disciplinarity
• Emerging transdisciplinary field
• Interdisciplinary attempts
• Mixing and matching genetic parts
Chemistry
• Chemical synthetic biology – chemical and biochemical technology
• Bio-engineering, chemical synthetic biology
• Extension of synthetic chemistry – development of novel molecules
Aims
• To generate industrially scalable systems with a defined purpose
• Exploit the potential further by generating novel pathways, novel products, by combining different
biosynthetic steps originating from different bacteria