Summary
Modern society has an ever-increasing need for long-term, high density data encoding and storage. DNA technology allows to store data at unprecedented density, and functionalized DNA integrates digital bits placed along a single strand to encode information, which is available at low cost with natural (not-synthetic) DNA. DNA-FAIRYLIGHTS will raise this concept of functionalized natural DNA for data encoding and storage to a completely new level by decorating DNA carriers with a precise sequence of metallic nanomaterials with well-defined optical responses. These hybrid DNA structures will allow for direct optical readout, and the different resonance wavelengths will allow to go far beyond (0,1) encoding. In DNA-FAIRYLIGHTS we will design ultrasmall plasmonic and light-emitting particles with at least 9 different distinct optical responses that will enable multiplexed data encoding. We will develop concepts for linking/unlinking and orientational reconfiguration by external stimuli that will allow for reconfigurable memories and computation. The DNA-FAIRYLIGHTS project will provide: (i) a revolutionary technology that utilizes the DNA to arrange metallic nanomaterials in sequences with with nm precision; (ii) a novel approach to fabricate functionalized DNA that allows for integration of metal nanomaterials for data storage and manipulation; (iii) a next-generation model to encode and store information along the DNA; (iv) an optoelectronic/microfluidic system to modulate the arrangement of the metallic nanostructures along the DNA in order to dynamically control the information content; (v) readout devices with single particle sensitivity with fast response and decoding of the stored information in one functional unit. Each result of DNA-FAIRYLIGHTS will provide mile stones for novel technologies in next generation biomolecular synthesis, hybrid solid-state / biological systems, bioimaging, nanoplasmonics, DNA data storage, steganography and bio-optoelectronics.
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Web resources: | https://cordis.europa.eu/project/id/964995 |
Start date: | 01-09-2021 |
End date: | 28-02-2025 |
Total budget - Public funding: | 3 116 536,25 Euro - 3 116 536,00 Euro |
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Original description
Modern society has an ever-increasing need for long-term, high density data encoding and storage. DNA technology allows to store data at unprecedented density, and functionalized DNA integrates digital bits placed along a single strand to encode information, which is available at low cost with natural (not-synthetic) DNA. DNA-FAIRYLIGHTS will raise this concept of functionalized natural DNA for data encoding and storage to a completely new level by decorating DNA carriers with a precise sequence of metallic nanomaterials with well-defined optical responses. These hybrid DNA structures will allow for direct optical readout, and the different resonance wavelengths will allow to go far beyond (0,1) encoding. In DNA-FAIRYLIGHTS we will design ultrasmall plasmonic and light-emitting particles with at least 9 different distinct optical responses that will enable multiplexed data encoding. We will develop concepts for linking/unlinking and orientational reconfiguration by external stimuli that will allow for reconfigurable memories and computation. The DNA-FAIRYLIGHTS project will provide: (i) a revolutionary technology that utilizes the DNA to arrange metallic nanomaterials in sequences with with nm precision; (ii) a novel approach to fabricate functionalized DNA that allows for integration of metal nanomaterials for data storage and manipulation; (iii) a next-generation model to encode and store information along the DNA; (iv) an optoelectronic/microfluidic system to modulate the arrangement of the metallic nanostructures along the DNA in order to dynamically control the information content; (v) readout devices with single particle sensitivity with fast response and decoding of the stored information in one functional unit. Each result of DNA-FAIRYLIGHTS will provide mile stones for novel technologies in next generation biomolecular synthesis, hybrid solid-state / biological systems, bioimaging, nanoplasmonics, DNA data storage, steganography and bio-optoelectronics.Status
SIGNEDCall topic
FETOPEN-01-2018-2019-2020Update Date
27-04-2024
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