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- 01GR2VR33YT14XBNDYC1FWGKVV classification A1.
- 01GR2VR33YT14XBNDYC1FWGKVV date "2023".
- 01GR2VR33YT14XBNDYC1FWGKVV language "eng".
- 01GR2VR33YT14XBNDYC1FWGKVV type journalArticle.
- 01GR2VR33YT14XBNDYC1FWGKVV hasPart 01GR2VWFNJE149CJTJAVCDM99Z.pdf.
- 01GR2VR33YT14XBNDYC1FWGKVV subject "Biology and Life Sciences".
- 01GR2VR33YT14XBNDYC1FWGKVV subject "Physics and Astronomy".
- 01GR2VR33YT14XBNDYC1FWGKVV subject "Technology and Engineering".
- 01GR2VR33YT14XBNDYC1FWGKVV doi "10.3390/jfb14010035".
- 01GR2VR33YT14XBNDYC1FWGKVV issn "2079-4983".
- 01GR2VR33YT14XBNDYC1FWGKVV issue "1".
- 01GR2VR33YT14XBNDYC1FWGKVV volume "14".
- 01GR2VR33YT14XBNDYC1FWGKVV abstract "Realizing the neurological information processing by analyzing the complex data transferring behavior of populations and individual neurons is one of the fast-growing fields of neuroscience and bioelectronic technologies. This field is anticipated to cover a wide range of advanced applications, including neural dynamic monitoring, understanding the neurological disorders, human brain-machine communications and even ambitious mind-controlled prosthetic implant systems. To fulfill the requirements of high spatial and temporal resolution recording of neural activities, electrical, optical and biosensing technologies are combined to develop multifunctional bioelectronic and neuro-signal probes. Advanced two-dimensional (2D) layered materials such as graphene, graphene oxide, transition metal dichalcogenides and MXenes with their atomic-layer thickness and multifunctional capabilities show bio-stimulation and multiple sensing properties. These characteristics are beneficial factors for development of ultrathin-film electrodes for flexible neural interfacing with minimum invasive chronic interfaces to the brain cells and cortex. The combination of incredible properties of 2D nanostructure places them in a unique position, as the main materials of choice, for multifunctional reception of neural activities. The current review highlights the recent achievements in 2D-based bioelectronic systems for monitoring of biophysiological indicators and biosignals at neural interfaces.".
- 01GR2VR33YT14XBNDYC1FWGKVV author 1691148C-4207-11E5-8B23-0205B5D1D7B1.
- 01GR2VR33YT14XBNDYC1FWGKVV author E18AE612-251F-11E6-9733-1E97B5D1D7B1.
- 01GR2VR33YT14XBNDYC1FWGKVV author urn:uuid:123eae0b-09a9-4383-8089-31f1e6573f57.
- 01GR2VR33YT14XBNDYC1FWGKVV author urn:uuid:2d3acfe6-7c21-4d27-a498-230c38d8abe1.
- 01GR2VR33YT14XBNDYC1FWGKVV author urn:uuid:61803d3a-f75c-4044-a466-7e42d3df0bd6.
- 01GR2VR33YT14XBNDYC1FWGKVV author urn:uuid:93ff92a1-7392-458f-a233-bffeec3e9f8b.
- 01GR2VR33YT14XBNDYC1FWGKVV dateCreated "2023-01-31T02:50:55Z".
- 01GR2VR33YT14XBNDYC1FWGKVV dateModified "2024-12-12T17:39:26Z".
- 01GR2VR33YT14XBNDYC1FWGKVV name "Functional two-dimensional materials for bioelectronic neural interfacing".
- 01GR2VR33YT14XBNDYC1FWGKVV pagination urn:uuid:9c451c0c-cc40-46ec-9e6f-32a9f004144a.
- 01GR2VR33YT14XBNDYC1FWGKVV sameAs LU-01GR2VR33YT14XBNDYC1FWGKVV.
- 01GR2VR33YT14XBNDYC1FWGKVV sourceOrganization urn:uuid:a3b528ae-c392-489d-ab21-1cfaf1470d7f.
- 01GR2VR33YT14XBNDYC1FWGKVV sourceOrganization urn:uuid:b92f1b92-76da-4dea-ac58-046a1c283efd.
- 01GR2VR33YT14XBNDYC1FWGKVV type A1.