Delete search term


Quick navigation

Main navigation

ACDC – Artificial Cells with Distributed Cores to Decipher Protein Function

At a glance


ACDC will employ a rapidly expanding living technology platform of transformational artificial cell technologies
towards the next generation of small molecule drug discovery, protein biophysics, and biochemical energy
production. This will be executed through a future paradigm of sensory and synthesis regimes, based on
programmable and re-configurable, (bio)chemical processes, built with precision, order, and as hierarchical cellular
constructs, in a design mirrored in living systems. In effect, we aim to emulate the structure and dynamics of living
cells and cellular tissues by embedding biochemical and biophysical systems capable of sensing, reconfiguration,
synthesis, electrochemical gradient production and biochemical energy production - all essential processes of living
cells - built from the bottom up and middle-out approaches. We will accomplish this by producing microscale,
liquid-based, chemical compartmentalisation (cores), with inter-compartmental (core-core) communication, just as
one finds in organelles, cells and tissues. In the future, the resulting technology will enable creation of simplified
artificial cell technologies based on cores as a platform for technical innovation, precisely for 1) the high
throughput screening of small molecule libraries against defined protein targets, such as membrane proteins, 2) the
definition of precise biophysical aspects of targeted protein systems, 3) the elucidation of targets for future
antibiotics, 4) the definition of a scale-up of this core technology, and 5) the development of the multi-level
mathematics underpinning the complexity of such artefacts of living technology but also of natural living systems.
ACDC will focus on developing this next generation technology through a detailed workplan that heavily involves
the nontrivial tasks of integrating diverse state of the art technologies including microfluidics, microwave
resonators, DNA-based supramolecular assembly, in vitro gene expression and the integration of membrane
channels into a functional platform. To exemplify the future potential of this integrated platform we will perform
initial tests using high throughput screening of a small molecule library against the membrane protein target FeoB
in phospholipid vesicles. Once demonstrated, a future implementation includes genetic mutation screening of ion
channels for high value targets. The development of in situ protein expression systems for expressing target
proteins, will be further applicable beyond screening and biophysical characterisation, to repurposing as bespoke
sensing and communication components. This will enable the creation of modular pathways within programmable
capsules for applications, in a future embodiment of this project, that includes using artificial cell technology as
programmable and reconfigurable matter for specific applications including theranostics and personalized
medicine, sensing and actuation in the environments for bioremediation, and discovery of potential antibiotics from
complex soil environments. All of these future applications will rely on the fundamental functionalities developed
in ACDC including modular functional capsules, reconfiguration, remote read-out, core-core and core-environment
We have assembled an international, interdisciplinary team from academia, industry and public engagement
including expertise in engineering, physics, computer science, and chemical biology, to undertake this work. Our
outreach and engagement programme will define the impact in both the public and economic sectors. Further,
building upon 55 years of collective start-up enterprise experience, we will explore a new, agile, innovative vehicle
to accelerate the translation of new intellectual property generated into commercial advantage and job creation for
the European Union.
The overall objective of the ACDC project is to manufacture compartmentalised, liquid-based chemistries, as
discrete, yet interactive and multifunctional cores, within micro-scale containment capsules as communicating
micro-laboratories. Analogous to current ICT, we imagine the tremendous opportunities and potentialities that exist
when chemical and biochemical processes are miniaturized in programmable discrete units that provide on demand
functionality. For example, we hope one day to be able to produce biochemical apps that could be installed in a
portable chemical laboratory the size of a mobile phone that can then produce insulin, antibiotics or other high
value medicines on demand. Another app could in principle detect toxins or disease in the environment or user.
Another app would monitor daily nutritional parameters including mental or physical performance. As the first
steps towards that future vision, we aim to produce an artificial technological construct and process that
recapitulates some aspects of living systems on the microscale, and therefore this project will produce exemplars of
secondary living technologies concentrating on the wetware class [1] but also a multi-level mathematical