Simulating the Efficiency of Thermoelectrical Generators for Sensor Nodes
Title | Simulating the Efficiency of Thermoelectrical Generators for Sensor Nodes |
Publication Type | Conference Paper |
Year of Publication | 2019 |
Authors | Rudolph, Hendryk, Lan, Tian, Strehl, Konrad, He, Qinwei, Lan, Yuanliang |
Conference Name | 2019 4th IEEE Workshop on the Electronic Grid (eGRID) |
Date Published | nov |
ISBN Number | 978-1-7281-5704-7 |
Keywords | autarkic energy supply, Batteries, composability, computational fluid dynamics, computational fluid dynamics model converter, Conductivity, converter, converter station, course means, CPS modeling, electric vehicles, electrical vehicles, Electricity, energy harvesting, environmental factors, Europe, fossil fuels, Generators, green electrical power, Grid Security, high voltage direct current technology, HVDC power convertors, HVDC power transmission, Mathematical model, Metrics, power grids, power system security, precise monitoring, production site, pubcrawl, renewable energy sources, renewable sources, resilience, Resiliency, sensor node, simulation, simulations, specific environment, Substations, Temperature sensors, thermoelectric conversion, thermoelectrical generator, Wireless sensor networks, wireless sensor nodes |
Abstract | In order to be more environmentally friendly, a lot of parts and aspects of life become electrified to reduce the usage of fossil fuels. This can be seen in the increased number of electrical vehicles in everyday life. This of course only makes a positive impact on the environment, if the electricity is produced environmentally friendly and comes from renewable sources. But when the green electrical power is produced, it still needs to be transported to where it's needed, which is not necessarily near the production site. In China, one of the ways to do this transport is to use High Voltage Direct Current (HVDC) technology. This of course means, that the current has to be converted to DC before being transported to the end user. That implies that the converter stations are of great importance for the grid security. Therefore, a precise monitoring of the stations is necessary. Ideally, this could be accomplished with wireless sensor nodes with an autarkic energy supply. A role in this energy supply could be played by a thermoelectrical generator (TEG). But to assess the power generated in the specific environment, a simulation would be highly desirable, to evaluate the power gained from the temperature difference in the converter station. This paper proposes a method to simulate the generated power by combining a model for the generator with a Computational Fluid Dynamics (CFD) model converter. |
URL | https://ieeexplore.ieee.org/document/9092674 |
DOI | 10.1109/eGRID48402.2019.9092674 |
Citation Key | rudolph_simulating_2019 |
- Resiliency
- Mathematical model
- Metrics
- power grids
- power system security
- precise monitoring
- production site
- pubcrawl
- renewable energy sources
- renewable sources
- resilience
- HVDC power transmission
- sensor node
- simulation
- simulations
- specific environment
- Substations
- Temperature sensors
- thermoelectric conversion
- thermoelectrical generator
- wireless sensor networks
- wireless sensor nodes
- electrical vehicles
- batteries
- composability
- computational fluid dynamics
- computational fluid dynamics model converter
- Conductivity
- converter
- converter station
- course means
- CPS modeling
- Electric Vehicles
- autarkic energy supply
- electricity
- energy harvesting
- environmental factors
- Europe
- fossil fuels
- Generators
- green electrical power
- Grid Security
- high voltage direct current technology
- HVDC power convertors