Abstract
We have developed a framework for the exploration, design, and planning of energy systems that combines interactive visualization with machine-learning based approximations of simulations through a general purpose dataflow API. Our system provides a visual inter- face allowing users to explore an ensemble of energy simulations representing a subset of the complex input parameter space, and spawn new simulations to 'fill in' input regions corresponding to new enegery system scenarios. Unfortunately, many energy simula- tions are far too slow to provide interactive responses. To support interactive feedback, we are developing reduced-form models via machine learning techniques, which provide statistically sound esti- mates of the full simulations at a fraction of the computational cost and which are used as proxies for the full-form models. Fast com- putation and an agile dataflow enhance the engagement with energy simulations, and allow researchers to better allocate computational resources to capture informative relationships within the system and provide a low-cost method for validating and quality-checking large-scale modeling efforts.
Original language | American English |
---|---|
Number of pages | 7 |
State | Published - 2017 |
Event | IEEE Data Systems for Interactive Analysis - Phoenix, Arizona Duration: 2 Oct 2017 → 6 Oct 2017 |
Conference
Conference | IEEE Data Systems for Interactive Analysis |
---|---|
City | Phoenix, Arizona |
Period | 2/10/17 → 6/10/17 |
Bibliographical note
See NREL/CP-2C00-72246 for paper as published in IEEE proceedingsNREL Publication Number
- NREL/CP-2C00-70112
Keywords
- artificial neural networks
- energy system simulation
- immersive visualization
- machine learning