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UNH-RVAT 3-D SST RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions using the k-omega SST RANS model in OpenFOAM 2.3.x (590d57f32fed). See the link below for case files and download instructions.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D SST RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions using the k-omega SST RANS model in OpenFOAM 2.3.x (590d57f32fed). See the link below for case files and download instructions.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

ARRIS estimates of individual simulated trials.

Greg Jensen, Fabian Muñoz & Vincent Ferrera
Estimates of the firing rate during three trials (5, 25, 45), given an optimized dynamic smoothing bandwidth. The firing rate responsible for the data is shown as a dotted line, whereas the ARRIS estimate is shown as a solid line. The dark and light shaded overlays represent the 80% and 99% confidence intervals, respectively.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

Simulation of discontinuous multimodal firing.

Greg Jensen, Fabian Muñoz & Vincent Ferrera
50 trials of simulated spike trains were generated using a function that changed over time. A. The veridical firing rate, varying from 0 to 20 Hz, over the 50 simulated trials. B. The spike raster resulting from the simulation. C. The ARRIS estimate of the firing rate, using optimized dynamic bandwidths. D. The optimal fixed (dashed line) and dynamic (solid line) bandwidths for these data, as determined using kernel density approximation and generalized cross- validation.

UNH-RVAT 3-D SST RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions using the k-omega SST RANS model in OpenFOAM 2.3.x (590d57f32fed). See the link below for case files and download instructions.

UNH-RVAT 3-D SST RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions using the k-omega SST RANS model in OpenFOAM 2.3.x (590d57f32fed). See the link below for case files and download instructions.

Estimated dynamics of firing as a function of response accuracy.

Greg Jensen, Fabian Muñoz & Vincent Ferrera
The peak estimated firing rate from Figure 11 (black), compared to a smoothed estimate of response accuracy over the course of the session (red). Shaded regions correspond to the 80% and 99% confidence intervals, respectively. The dashed line corresponds to chance levels of accuracy.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

Hydria.jpg

Archaeology and Greek vase painting history: Naple 2422 Vase and Classical pottery description and meaning https://www.academia.edu/22470068/The_Kleophrades_Sack_of_Troy_on_Vivenzio_funerary_hydria_and_fragmented_skeletons_from_Veyrier

UNH-RVAT 3-D Spalart--Allmaras RANS simulation results

Peter Bachant & Martin Wosnik
Results from simulating the UNH-RVAT cross-flow turbine in three dimensions with the Spalart--Allmaras RANS model in OpenFOAM 2.3.x (590d57f32fed). See link below for case files (note: use the `SpalartAllmaras` branch), which include a script for downloading and extracting, as well as scripts for post-processing.

Bold Signals 02.01: Down by the Riparian Area with Liz Perkin

John Borghi
This episode features a conversation with ecologist Liz Perkin. Liz is currently a visiting biology professor at Willamette University. In our interview we talk about life as a riparian ecologist, doing science communication in a famous nightclub, and about the curious similarities in the lab work done by someone studying rivers and someone studying the human brain.Liz's website: www.LizPerkin.org
Bold Signals on Twitter: Twitter.com/BoldSignalsPod
Bold Signals on Tumblr www.BoldSignalsPodcast.tumblr.comLinks and show notes: http://goo.gl/W0NCQH
Music in this episode:
"Enterprise" by...

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