Key chalenges in consedering energy in self adaptive systems ?
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Key challenges in considering energy in self-adaptive systems include managing power supply for battery-operated devices in large-scale networks , optimizing performance/energy trade-offs in heterogeneous system architectures , testing adequately due to the flexibility of self-organizing systems , ensuring adaptations do not impact system functionality in self-adaptive systems , and efficiently managing the software layer in IoT systems with limited resources . These challenges encompass aspects such as wireless power transfer, energy harvesting, system complexity, performance optimization, and software reconfiguration. Addressing these challenges requires innovative approaches to balance energy efficiency, system performance, adaptability, and reliability in self-adaptive systems, especially in the context of evolving technologies and increasing demands for sustainable and autonomous operation.
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| Papers (5) | Insight |
|---|---|
| Key challenges in considering energy in self-adaptive systems include state space explosion, interleaved feedback loops, and error masking, as highlighted in the research on self-organizing, adaptive systems. | |
| Key challenges in considering energy in self-adaptive systems include limited resources, efficient software management, and energy consumption impact during code dissemination for IoT applications. | |
| Not addressed in the paper. | |
| Key challenges in self-adaptive systems include optimizing energy consumption, maintaining battery life, and achieving autonomous energy supply through wireless power transfer, as highlighted in the research. | |
14 Mar 2016 3 Citations | Key challenges in considering energy in self-adaptive systems include managing varying workloads, optimizing performance/energy trade-offs, and efficiently exploiting specialized resources for a reduced carbon footprint. |
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