The project is called SABRE (Self-healing cellular Architectures for Biologically-inspired highly Reliable Electronic systems). The part of the project to be carried out in Bristol will be based at Bristol Robotics lab (BRL), which is jointly run by the University of Bristol and UWE.
Increasingly, our lives are intertwined with digital electronic equipment. From gadgets to household appliances, computers, and the life-saving systems which ensure that cars and planes are safe, these devices can be extremely complex and often have hundreds of thousands of components on a single chip. However, if one component fails this commonly causes catastrophic failure of the whole system. Electronic hardware designers have achieved fantastic levels of reliability so far but, as such devices become more and more complex, such instances can only become more common. Under fault conditions it would, therefore, be highly desirable for the system to be able to cope with faults, and continue to operate effectively even if one or more components have failed; but this is not the way electronic systems are currently designed.
Drawing on inspiration from nature, the researchers at York and Bristol will look for ways to create electronic systems based on a structure of ‘cells’ which have the ability to work together to defend system integrity, diagnose faults, and heal themselves. The researchers will be looking at the way complex biological systems, such as the defence mechanism of the human body, are able to deal with faults and still keep functioning.
Dr. Tony Pipe, (Bristol Robotics Laboratory) explains, “When an electronic system malfunctions it should be able to cope with minor faults and continue to operate effectively even if one or more components fail. Currently, those few electronic systems that are designed to be fault-tolerant either replicate whole sub-systems at a high level in the overall architecture (similar to having two lungs), or roll back to a simpler, safer mode when there is a malfunction, but still replicate the whole system or a large part of it in a simplified form. This is a vital function in current safety-critical systems such as anti-lock breaking, fly-by-wire aircraft, space exploration, as well as industrial control and shutdown systems.
“However highly complex living organisms such as the human body are able to deal with malfunctions at a much lower level, that of the cells, defending the system overall by repairing damage to cells, thus maintaining normal functionality. The human body is both reliable and highly complex. It is this ability that we want to try to replicate in electronic systems. By studying the multi-cellular structure of living organisms and their protective immune systems, we hope to be able to design ‘nature-like’ fault tolerant architectures for electronics. This research has the potential to influence the way complex electronic systems are designed in the future, creating a new generation of electronic systems which are fault tolerant and self healing.”
The research will pave the way for a biologically inspired unique design approach for electronic systems across a wide range of applications, from communication through computing and control, to systems operating in safety-critical or hostile environments.
The project is funded by EPSRC.
Jane Kelly | alfa
Energy-efficient spin current can be controlled by magnetic field and temperature
17.08.2018 | Johannes Gutenberg-Universität Mainz
Scientists create biodegradable, paper-based biobatteries
08.08.2018 | Binghamton University
New design tool automatically creates nanostructure 3D-print templates for user-given colors
Scientists present work at prestigious SIGGRAPH conference
Most of the objects we see are colored by pigments, but using pigments has disadvantages: such colors can fade, industrial pigments are often toxic, and...
Scientists at the University of California, Los Angeles present new research on a curious cosmic phenomenon known as "whistlers" -- very low frequency packets...
Scientists develop first tool to use machine learning methods to compute flow around interactively designable 3D objects. Tool will be presented at this year’s prestigious SIGGRAPH conference.
When engineers or designers want to test the aerodynamic properties of the newly designed shape of a car, airplane, or other object, they would normally model...
Researchers from TU Graz and their industry partners have unveiled a world first: the prototype of a robot-controlled, high-speed combined charging system (CCS) for electric vehicles that enables series charging of cars in various parking positions.
Global demand for electric vehicles is forecast to rise sharply: by 2025, the number of new vehicle registrations is expected to reach 25 million per year....
Proteins must be folded correctly to fulfill their molecular functions in cells. Molecular assistants called chaperones help proteins exploit their inbuilt folding potential and reach the correct three-dimensional structure. Researchers at the Max Planck Institute of Biochemistry (MPIB) have demonstrated that actin, the most abundant protein in higher developed cells, does not have the inbuilt potential to fold and instead requires special assistance to fold into its active state. The chaperone TRiC uses a previously undescribed mechanism to perform actin folding. The study was recently published in the journal Cell.
Actin is the most abundant protein in highly developed cells and has diverse functions in processes like cell stabilization, cell division and muscle...
17.08.2018 | Event News
08.08.2018 | Event News
27.07.2018 | Event News
17.08.2018 | Physics and Astronomy
17.08.2018 | Information Technology
17.08.2018 | Life Sciences