Rapid Learning of Odor–Value Association in the Olfactory Striatum

Por Millman, Daniel J., Murthy, Venkatesh N.
Publicado no J Neurosci (2020)

Self-organized criticality occurs in non-conservative neuronal networks during Up states

Por Millman, Daniel, Mihalas, Stefan, Kirkwood, Alfredo, Niebur, Ernst
Publicado em 2010

Identification of genetic markers for cortical areas using a Random Forest classification routine and the Allen Mouse Brain Atlas

Por Weed, Natalie, Bakken, Trygve, Graddis, Nile, Gouwens, Nathan, Millman, Daniel, Hawrylycz, Michael, Waters, Jack
Publicado no PLoS One (2019)

The maturation of GABAergic transmission in visual cortex requires endocannabinoid-mediated LTD of inhibitory inputs during a critical period

Por Jiang, Bin, Huang, Shiyong, de Pasquale, Roberto, Millman, Daniel, Song, Lihua, Lee, Hey-Kyoung, Tsumoto, Tadaharu, Kirkwood, Alfredo
Publicado em 2010

Decrease in gamma-band activity tracks sequence learning

Por Madhavan, Radhika, Millman, Daniel, Tang, Hanlin, Crone, Nathan E., Lenz, Fredrick A., Tierney, Travis S., Madsen, Joseph R., Kreiman, Gabriel, Anderson, William S.
Publicado no Front Syst Neurosci (2015)

Aberration-free multi-plane imaging of neural activity from the mammalian brain using a fast-switching liquid crystal spatial light modulator

Por Liu, Rui, Ball, Neil, Brockill, James, Kuan, Leonard, Millman, Daniel, White, Cassandra, Leon, Arielle, Williams, Derric, Nishiwaki, Shig, de Vries, Saskia, Larkin, Josh, Sullivan, David, Slaughterbeck, Cliff, Farrell, Colin, Saggau, Peter
Publicado no Biomed Opt Express (2019)

VIP interneurons in mouse primary visual cortex selectively enhance responses to weak but specific stimuli

Por Millman, Daniel J, Ocker, Gabriel Koch, Caldejon, Shiella, Kato, India, Larkin, Josh D, Lee, Eric Kenji, Luviano, Jennifer, Nayan, Chelsea, Nguyen, Thuyanh V, North, Kat, Seid, Sam, White, Cassandra, Lecoq, Jerome, Reid, Clay, Buice, Michael A, de Vries, Saskia EJ
Publicado no eLife (2020)

A large-scale standardized physiological survey reveals functional organization of the mouse visual cortex

Por de Vries, Saskia E. J., Lecoq, Jerome A., Buice, Michael A., Groblewski, Peter A., Ocker, Gabriel K., Oliver, Michael, Feng, David, Cain, Nicholas, Ledochowitsch, Peter, Millman, Daniel, Roll, Kate, Garrett, Marina, Keenan, Tom, Kuan, Leonard, Mihalas, Stefan, Olsen, Shawn, Thompson, Carol, Wakeman, Wayne, Waters, Jack, Williams, Derric, Barber, Chris, Berbesque, Nathan, Blanchard, Brandon, Bowles, Nicholas, Caldejon, Shiella D., Casal, Linzy, Cho, Andrew, Cross, Sissy, Dang, Chinh, Dolbeare, Tim, Edwards, Melise, Galbraith, John, Gaudreault, Nathalie, Gilbert, Terri L., Griffin, Fiona, Hargrave, Perry, Howard, Robert, Huang, Lawrence, Jewell, Sean, Keller, Nika, Knoblich, Ulf, Larkin, Josh D., Larsen, Rachael, Lau, Chris, Lee, Eric, Lee, Felix, Leon, Arielle, Li, Lu, Long, Fuhui, Luviano, Jennifer, Mace, Kyla, Nguyen, Thuyanh, Perkins, Jed, Robertson, Miranda, Seid, Sam, Shea-Brown, Eric, Shi, Jianghong, Sjoquist, Nathan, Slaughterbeck, Cliff, Sullivan, David, Valenza, Ryan, White, Casey, Williford, Ali, Witten, Daniela M., Zhuang, Jun, Zeng, Hongkui, Farrell, Colin, Ng, Lydia, Bernard, Amy, Phillips, John W., Reid, R. Clay, Koch, Christof
Publicado no Nat Neurosci (2019)