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SIVEH: numerical computing simulation of wireless energy-harvesting sensor nodes
Antonio Sanchez1, Sara Blanc, Salvador Climent
1ITACA Institute, Universitat Politècnica de València, Valencia 46022, Spain. antoniosanchez@itaca.upv.es
Sensors (Basel, Switzerland)
|September 7, 2013
Summary
This study introduces SIVEH, a novel numerical energy harvesting model for sensor nodes. It uses I-V tracking for superior accuracy in predicting energy performance over long durations, optimizing for energy neutrality.
Area of Science:
- Electrical Engineering
- Computer Science
- Energy Systems
Background:
- Traditional energy modeling for sensor nodes often lacks accuracy due to component variations.
- Accurate energy harvesting predictions are crucial for the long-term operation of autonomous sensor networks.
Purpose of the Study:
- To present SIVEH (Simulator I-V for EH), a numerical energy harvesting model for sensor nodes.
- To demonstrate the enhanced accuracy of I-V hardware tracking over conventional methods.
- To enable fast, long-term simulations of energy harvesting systems.
Main Methods:
- Developed a numerical energy harvesting model, SIVEH, utilizing I-V hardware tracking.
- Integrated dynamic adjustment of sleep time rates for energy-neutral operation.
- Performed functional verification and comparison with classic energy modeling approaches.
Main Results:
- SIVEH shows higher accuracy than traditional models, especially with varying power dissipation.
- The model allows rapid simulation of extended periods (days to years) using real solar data.
- Enhanced modeling with dynamic sleep time adjustment aids in achieving energy-neutral operation.
Conclusions:
- SIVEH provides a more accurate and efficient tool for energy harvesting modeling in sensor nodes.
- The I-V tracking approach is superior for components with voltage- or current-dependent power dissipation.
- The model facilitates the design of sustainable, energy-neutral sensor systems.
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