I just wrote a post for the Yelp Data Blog:
https://www.yelpblog.com/2018/04/predicting-business-revenue-with-yelp-consumer-metrics
A digital lab notebook. Topics range from scientific computing using Python to neurobiology of Drosophila.
Showing posts with label publications. Show all posts
Showing posts with label publications. Show all posts
Tuesday, April 24, 2018
Monday, April 2, 2018
Tim's polarization vision paper is out!
Tons of data in this one: http://jeb.biologists.org/content/early/2018/03/23/jeb.177550
Monday, April 4, 2016
Photoreceptor paper accepted!
Our paper on polarization processing by photoreceptors is out in the Journal of Neuroscience! Here is some supplementary information that describes our process for mounting flies for simultaneous functional imaging and behavioral experiments.
Tuesday, September 8, 2015
Functional divisions for visual processing in the central brain of flying Drosophila
Tuesday, April 22, 2014
New paper out!
The 'integrator paper' is out in PNAS. I made a video and put it up on the lab website. There was also a nice write-up in the 'In this issue' section, complete with a photo I took (no photo credit, though).
Saturday, October 12, 2013
My new paper is out!
I just checked, and it looks like my paper on central complex visual responses during flight has been out since Wednesday! Here is the link to it on the Journal of Neurophysiology website:
http://jn.physiology.org/content/early/2013/10/04/jn.00593.2013.long
and here is the link to it on pubmed:
http://www.ncbi.nlm.nih.gov/pubmed/24108792
In it we report responses in the ExFl1 (aka F1) neurons in the ventral-most layer of the fan-shaped body. They respond with increased activity to front-to-back motion of stripes or other types of progressive optic flow while the animal is flying. While it is quiescent, however, the cells are unresponsive to identical stimuli. We used both two-photon calcium imaging and patch-clamp electrophysiology to measure the neuronal responses. Hope you enjoy it! Below are some additional images related to the work:
This is a schematic based on a single dye-filled neuron showing the position of ExFl1 neurons with respect to other central complex neuropils.
This is a view of the CAD model of the 2-photon rig that I used to conduct the imaging experiments The camera (top right) views a mirror that reflects an image of the fly, so that I can monitor its wing stroke amplitudes. The objective views the fly head from the posterior direction. The blue LED array allows me to show arbitrary visual stimuli to the fly. I can also deliver gentle air puffs via the tube below the fly to initiate flight.
I will post some videos on the lab website and vimeo.
http://jn.physiology.org/content/early/2013/10/04/jn.00593.2013.long
and here is the link to it on pubmed:
http://www.ncbi.nlm.nih.gov/pubmed/24108792
In it we report responses in the ExFl1 (aka F1) neurons in the ventral-most layer of the fan-shaped body. They respond with increased activity to front-to-back motion of stripes or other types of progressive optic flow while the animal is flying. While it is quiescent, however, the cells are unresponsive to identical stimuli. We used both two-photon calcium imaging and patch-clamp electrophysiology to measure the neuronal responses. Hope you enjoy it! Below are some additional images related to the work:
This is a schematic based on a single dye-filled neuron showing the position of ExFl1 neurons with respect to other central complex neuropils.
This is a view of the CAD model of the 2-photon rig that I used to conduct the imaging experiments The camera (top right) views a mirror that reflects an image of the fly, so that I can monitor its wing stroke amplitudes. The objective views the fly head from the posterior direction. The blue LED array allows me to show arbitrary visual stimuli to the fly. I can also deliver gentle air puffs via the tube below the fly to initiate flight.
I will post some videos on the lab website and vimeo.
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