14 January 2020: Bio4Comp part of Science Outreach Day by Linnaeus University
The research about actin/myosin in muscle function and the use of its motility for biological computing will be presented to school classes in the Kronoberg County. Venukumar Vemula will be among the 40 researchers that will tour schools to explain what a researcher is and what their research is about for pupils in grade 4-9 in the Kronoberg County. The Science Outreach is a collaboration between the County Administrative Board, Region Kronoberg and Linnaeus University to increase interest in technology, science and mathematics among school pupils. The day has become a success among pupils, teachers and researchers, and will now be arranged for the third time.
SMART>SOS is a video and sound installation revealing the new paradigm of computation based on the research performed in Bio4Comp. Follow the realization of this exciting artwork at imachination projects.
This co-production with the artist Tim Otto Roth was possible thanks to the VERTIGO-project. This initiative facilitates cooperation between artists and research projects within information and computation technologies. The proposal SMART>SOS by Tim Otto Roth has been selected by an international jury of experts for cooperation with Bio4Comp.
The addition of sound and the use of the Bio4Comp technology in an artistic way adds a new dimension to biocomputation which makes the computational processes visually and acoustically tangible. The work with the artist during phase one of the project, inspired the researchers to new insights.THe video documents tthe creation phase.
IDEA COMPETITION: SUBMIT YOUR IDEA
TO VISUALIZE ALGORITHMS
The challenge is to visualize algorithms or to find algorithms that can be efficiently solved by network-based biocomputation. Everyone can participate except employees of the Bio4Comp partner organizations. Deadline is the 15th of February 2020. The prize sum is 5000 Euro (minus income tax if applicable).
Call information: second open-innovation Bio4Comp Award
A new method to regenerate bionanodevices forms an important milestone to saving material and energy and thus, towards sustainable alternative chip technology. The devices do not need to be disassembled, but are treted with proteinase K and washed with mild detergent. Thereafter the surfaces can be functionalized with motility proteins again and used for subsequent gliding assays.
Regeneration of Assembled, Molecular-Motor-Based Bionanodevices
M.A. Rahman, et al. Nano Letters 2019
Biophysical Studies of the Actin-Myosin Motor System and Applications
Congratulations to Mohammad Ashikur Rahman, who graduated on September 05, 2019!
This thesis shows that actin is a dynamic filament upon myosin binding and this information is useful when using actin filaments for Biocomputing.
To control actin filament velocity myosin inhibitors, such as blebbistatin, can be useful for the in vitro motility assays in biocomputation network.
Presence of dead myosin heads negatively affect the actin filament gliding in the in vitro motility assay used in a biocomputation network. This thesis describes and analyses two methods to remove the dead heads to provide good quality assay with nearly 100% fraction of motile filaments recovered.
Biocomputation devices are expensive and time consuming to produce. This thesis describes a method where it is shown that the use of proteinase K with a suitable detergent can be useful to recycle nanodevices for several times.
This thesis studied different ways to immobilize engineered light controlled myosin motor on TMCS derivatized surfaces that shed lights to develop a future programmable gate for a biocomputation network.
On 7th June 2019, Frida Lindberg defended her doctoral thesis in front of an international committee of examiners and opponent Dr. Mihai Irimia-Vladu from Joanneum Research in Austria. "The energy efficient computing of the biological molecules is an important contribution to sustainable chip technology." said Dr. Irimia-Vladu during his overview talk.
Two important techological developments form
the cornerstones of Frida Lindberg's doctoral thesis:
See also Publications
This project has received funding from the European Union’s
Horizon 2020 research and innovation programme under grant agreement No 732482.
Call: FETPROACT-2016; Type of Action: RIA (Research and Innovation Action)