IEEE Standard Data Model for Nanoscale Communication Systems
IEEE Std 1906.1.1-2020
| contributor author | IEEE - The Institute of Electrical and Electronics Engineers, Inc. | |
| date accessioned | 2022-02-15T19:00:01Z | |
| date available | 2022-02-15T19:00:01Z | |
| date copyright | 7 Dec. 2020 | |
| date issued | 2020 | |
| identifier other | 09285373.pdf | |
| identifier uri | http://yse.yabesh.ir/std;quessioutho4703177793325273135A68A10958014A/handle/yse/300199 | |
| description abstract | A set of YANG modules describing nanoscale communication systems and their associated physical quantities in conformance with IEEE Std 1906.1-2015--a common framework for all nanoscale communication technologies--are comprised by this data model. Physics unique to the nanoscale are represented by the model. The physics are referred to as non-standard, required by IEEE Std 1906.1-2015. Remote configuration and management for remote simulation, operation, and analysis of nanoscale communication systems are defined by the model. A self-describing data structure is defined by the model for datastores and repositories of nanoscale communication experimental data enabling a common understanding of the data from a wide variety of nanoscale communication media and technologies. Augmentation of the IEEE Std 1906.1-2015 common core components with details specific to the physics of the nanoscale communication system is allowed by the model. Techniques used by the model facilitate reuse and augmentation. In addition, extensions to IEEE Std 802.1Q and Internet Engineering Task Force (IETF) interfaces--allowing reusability within existing networks, which implies a macroscale to nanoscale interface, and defines nanoscale communication as a feature for bridge ports as defined in IEEE Std 802.1 - are provided. The model is composed of simple, required core components while allowing optional, device-specific components and metrics to be added. There is conformity with best practices as defined by the IEEE 802 YANG editors' coordination committee and IETF RFC 6087, and consideration of coexistence and interoperability with existing domain models and tools, such as the Systems Biology Markup Language (SBML). | |
| language | English | |
| title | IEEE Standard Data Model for Nanoscale Communication Systems | en |
| title | IEEE Std 1906.1.1-2020 | num |
| type | Standard | |
| page | 142 | |
| tree | IEEE - The Institute of Electrical and Electronics Engineers, Inc.:;2020 | |
| contenttype | Fulltext | |
| subject keywords | nanowires | |
| subject keywords | nanobioscience | |
| subject keywords | molecular communication | |
| subject keywords | nanomedicine | |
| subject keywords | nanoscale | |
| subject keywords | IEEE 1906.1 | |
| subject keywords | communication systems | |
| subject keywords | simulation | |
| subject keywords | nanoelectromechanical systems | |
| subject keywords | nanotube devices | |
| subject keywords | nanoscale communication framework | |
| subject keywords | data model | |
| subject keywords | nanophysics | |
| subject keywords | nanoscale devices | |
| subject keywords | communication standards | |
| subject keywords | network management | |
| subject keywords | nanofluidics | |
| subject keywords | standards development | |
| subject keywords | nanotechnology | |
| subject keywords | nanobots | |
| subject keywords | nanopositioning | |
| subject keywords | nanostructured materials | |
| subject keywords | nanobiotechnology | |
| subject keywords | YANG | |
| subject keywords | nanosensors | |
| subject keywords | nanodevice | |
| subject keywords | nanoelectrochemical systems | |
| subject keywords | communication networks | |
| subject keywords | quantum mechanics | |
| subject keywords | multi-scale network |

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