49 Publications (Page 1 of 2)
2021
CRMP2 Is Involved in Regulation of Mitochondrial Morphology and Motility in Neurons.
Brustovetsky, TatianaBrustovetsky, TatianaKhanna, RajeshKhanna, RajeshBrustovetsky, NickolayBrustovetsky, Nickolay and Brustovetsky, Nickolay
Cells, vol. 10, (no. 10), October 17, 2021. | Journal Article
 
The effect of mitochondrial calcium uniporter and cyclophilin D knockout on resistance of brain mitochondria to Ca2+-induced damage.
Hamilton, JamesBrustovetsky, Tatiana and Brustovetsky, Nickolay
The Journal of biological chemistry, pp. 100669, April 14, 2021. | Journal Article
2020
Mutant huntingtin does not cross the mitochondrial outer membrane.
Hamilton, JamesHamilton, JamesBrustovetsky, TatianaBrustovetsky, TatianaKhanna, RajeshKhanna, RajeshBrustovetsky, Nickolay and Brustovetsky, Nickolay
Human molecular genetics, vol. 29, (no. 17), pp. 2962-2975, October 10, 2020. | Journal Article
 
The Role of Adenine Nucleotide Translocase in the Mitochondrial Permeability Transition.
Brustovetsky, Nickolay
Cells, vol. 9, (no. 12), December 15, 2020. | Journal Article
2019
Mutant huntingtin fails to directly impair brain mitochondria.
Hamilton, JamesBrustovetsky, Tatiana and Brustovetsky, Nickolay
Journal of neurochemistry, vol. 151, (no. 6), pp. 716-731, December 2019. | Journal Article
2017
Oxidative metabolism and Ca2+ handling in striatal mitochondria from YAC128 mice, a model of Huntington's disease.
Hamilton, JamesBrustovetsky, Tatiana and Brustovetsky, Nickolay
Neurochemistry international, January 3, 2017. | Journal Article
2016
Mutant Huntingtin and Elusive Defects in Oxidative Metabolism and Mitochondrial Calcium Handling
Brustovetsky, Nickolay
(pp. 2944-2953). Jul 2016
 
Oxidative metabolism and Ca2+handling in isolated brain mitochondria and striatal neurons from R6/2 mice, a model of Huntington’s disease
Hamilton, JamesPellman, Jessica JBrustovetsky, TatianaHarris, Robert A and Brustovetsky, Nickolay
Human Molecular Genetics, vol. 25, (no. 13), pp. 2775, 2016-04-30. | Journal Article
2015
Ca(2+) handling in isolated brain mitochondria and cultured neurons derived from the YAC128 mouse model of Huntington's disease.
Pellman, Jessica JHamilton, JamesBrustovetsky, Tatiana and Brustovetsky, Nickolay
Journal of neurochemistry, vol. 134, (no. 4), pp. 652-667, August 2015. | Journal Article
 
Enhancing Hematopoietic Stem Cell Transplantation Efficacy by Mitigating Oxygen Shock.
Mantel, Charlie RMantel, Charlie R.Mantel, Charlie RMantel, Charlie RO’Leary, Heather A.O'Leary, Heather AO’Leary, Heather AO’Leary, Heather AChitteti, Brahmananda RChitteti, Brahmananda RChitteti, Brahmananda RChitteti, Brahmananda R.Huang, XinXinHuang, Xin XinHuang, XinXinHuang, XinXinCooper, ScottCooper, ScottCooper, ScottCooper, ScottHangoc, GiaoHangoc, GiaoHangoc, GiaoHangoc, GiaoBrustovetsky, NickolayBrustovetsky, NickolayBrustovetsky, NickolayBrustovetsky, NickolaySrour, Edward FSrour, Edward F.Srour, Edward FSrour, Edward FLee, Man RyulLee, Man RyulLee, Man RyulLee, Man RyulMessina-Graham, StevenMessina-Graham, StevenMessina-Graham, StevenMessina-Graham, StevenHaas, David MHaas, David MHaas, David M.Haas, David MFalah, NadiaFalah, NadiaFalah, NadiaFalah, NadiaKapur, ReubenKapur, ReubenKapur, ReubenKapur, ReubenPelus, Louis MPelus, Louis MPelus, Louis M.Pelus, Louis MBardeesy, NabeelBardeesy, NabeelBardeesy, NabeelBardeesy, NabeelFitamant, JulienFitamant, JulienFitamant, JulienFitamant, JulienIvan, MirceaIvan, MirceaIvan, MirceaIvan, MirceaKim, Kye-SeongKim, Kye-SeongKim, Kye-SeongKim, Kye-SeongBroxmeyer, Hal EBroxmeyer, Hal E.Broxmeyer, Hal E and Broxmeyer, Hal E
Cell, vol. 161, (no. 7), pp. 1553-1565, June 18, 2015. | Journal Article
 
Oxidative metabolism in YAC128 mouse model of Huntington's disease.
Hamilton, JamesPellman, Jessica JBrustovetsky, TatianaHarris, Robert A and Brustovetsky, Nickolay
Human molecular genetics, vol. 24, (no. 17), pp. 4862-4878, September 1, 2015. | Journal Article
2014
Ferroxitosis: a cell death from modulation of oxidative phosphorylation and PKM2-dependent glycolysis in melanoma.
Lakhter, Alexander JLakhter, Alexander JLakhter, Alexander JLakhter, Alexander JLakhter, Alexander JHamilton, JamesHamilton, JamesHamilton, JamesHamilton, JamesHamilton, JamesDagher, Pierre CDagher, Pierre CDagher, Pierre CDagher, Pierre CDagher, Pierre CMukkamala, SureshMukkamala, SureshMukkamala, SureshMukkamala, SureshMukkamala, SureshHato, TakashiHato, TakashiHato, TakashiHato, TakashiHato, TakashiDong, X. CharlieDong, X. CharlieDong, X. CharlieDong, X CharlieDong, X. CharlieMayo, Lindsey DMayo, Lindsey DMayo, Lindsey DMayo, Lindsey DMayo, Lindsey DHarris, Robert AHarris, Robert AHarris, Robert AHarris, Robert AHarris, Robert AShekhar, AnanthaShekhar, AnanthaShekhar, AnanthaShekhar, AnanthaShekhar, AnanthaIvan, MirceaIvan, MirceaIvan, MirceaIvan, MirceaIvan, MirceaBrustovetsky, NickolayBrustovetsky, NickolayBrustovetsky, NickolayBrustovetsky, NickolayBrustovetsky, NickolayNaidu, Samisubbu RNaidu, Samisubbu RNaidu, Samisubbu RNaidu, Samisubbu R and Naidu, Samisubbu R
Oncotarget, vol. 5, (no. 24), pp. 12694-12703, December 30, 2014. | Journal Article
2013
Loss of calcium/calmodulin-dependent protein kinase II activity in cortical astrocytes decreases glutamate uptake and induces neurotoxic release of ATP.
Ashpole, Nicole MAshpole, Nicole MChawla, Aarti RChawla, Aarti RMartin, Matthew PMartin, Matthew PBrustovetsky, TatianaBrustovetsky, TatianaBrustovetsky, NickolayBrustovetsky, NickolayHudmon, Andy and Hudmon, Andy
The Journal of biological chemistry, vol. 288, (no. 20), pp. 14599-611, 2013/May/17. | Journal Article
2012
Calcium/calmodulin-dependent protein kinase II (CaMKII) inhibition induces neurotoxicity via dysregulation of glutamate/calcium signaling and hyperexcitability.
Ashpole, Nicole MAshpole, Nicole MSong, WeihuaSong, WeihuaBrustovetsky, TatianaBrustovetsky, TatianaEngleman, Eric AEngleman, Eric ABrustovetsky, NickolayBrustovetsky, NickolayCummins, Theodore RCummins, Theodore RHudmon, Andy and Hudmon, Andy
The Journal of biological chemistry, vol. 287, (no. 11), pp. 8495-506, 2012/Mar/9. | Journal Article
 
Delayed calcium dysregulation in neurons requires both the NMDA receptor and the reverse Na+/Ca2 + exchanger
Brittain, Matthew KBrittain, Matthew KBrustovetsky, TatianaBrustovetsky, TatianaSheets, Patrick LSheets, Patrick LBrittain, Joel MBrittain, Joel MKhanna, RajeshKhanna, RajeshCummins, Theodore RCummins, Theodore RBrustovetsky, Nickolay and Brustovetsky, Nickolay
Neurobiology of Disease, vol. 46, (no. 1), pp. 109-117, 2012. | Journal Article
 
Disruption of NMDAR-CRMP-2 signaling protects against focal cerebral ischemic damage in the rat middle cerebral artery occlusion model.
Brittain, Joel MPan, RuiYou, HaitaoBrustovetsky, TatianaBrustovetsky, NickolayZamponi, Gerald WLee, Wei-Hua and Khanna, Rajesh
Channels (Austin, Tex.), vol. 6, (no. 1), pp. 52-9, 2012 Jan-Feb. | Journal Article
 
Ifenprodil, a NR2B-selective antagonist of NMDA receptor, inhibits reverse Na+/Ca2+ exchanger in neurons.
Brittain, Matthew KBrittain, Matthew KBrustovetsky, TatianaBrustovetsky, TatianaBrittain, Joel MBrittain, Joel MKhanna, RajeshKhanna, RajeshCummins, Theodore RCummins, Theodore RBrustovetsky, Nickolay and Brustovetsky, Nickolay
Neuropharmacology, vol. 63, (no. 6), pp. 974-82, 2012/Nov. | Journal Article
2011
KB-R7943, an inhibitor of the reverse Na+/Ca2+ exchanger, blocks N-methyl-D-aspartate receptor and inhibits mitochondrial complex I
Brustovetsky, TatianaBrustovetsky, TatianaBrittain, Matthew KBrittain, Matthew KSheets, Patrick LSheets, Patrick LCummins, Theodore RCummins, Theodore RPinelis, VsevolodPinelis, VsevolodBrustovetsky, Nickolay and Brustovetsky, Nickolay
British Journal of Pharmacology, vol. 162, (no. 1), pp. 255-270, 2011. | Journal Article
 
Suppression of inflammatory and neuropathic pain by uncoupling CRMP-2 from the presynaptic Ca²⁺ channel complex.
Brittain, Joel MBrittain, Joel MBrittain, Joel MBrittain, J.M.Brittain, Joel MBrittain, Joel MDuarte, D.B.Duarte, Djane BDuarte, Djane BDuarte, Djane BDuarte, Djane BDuarte, Djane BWilson, Sarah MWilson, Sarah MWilson, Sarah MWilson, Sarah MWilson, S.M.Wilson, Sarah MZhu, WeiguoZhu, WeiguoZhu, WeiguoZhu, WeiguoZhu, WeiguoZhu, W.Ballard, CarrieBallard, CarrieBallard, CarrieBallard, CarrieBallard, CarrieBallard, C.Johnson, Philip LJohnson, P.L.Johnson, Philip LJohnson, Philip LJohnson, Philip LJohnson, Philip LLiu, NaikuiLiu, NaikuiLiu, NaikuiLiu, NaikuiLiu, N.Liu, NaikuiXiong, WenhuiXiong, WenhuiXiong, WenhuiXiong, W.Xiong, WenhuiXiong, WenhuiRipsch, Matthew SRipsch, Matthew SRipsch, Matthew SRipsch, M.S.Ripsch, Matthew SRipsch, Matthew SWang, YuyingWang, YuyingWang, YuyingWang, Y.Wang, YuyingWang, YuyingFehrenbacher, Jill CFehrenbacher, Jill CFehrenbacher, J.C.Fehrenbacher, Jill CFehrenbacher, Jill CFehrenbacher, Jill CFitz, S.D.Fitz, Stephanie DFitz, Stephanie DFitz, Stephanie DFitz, Stephanie DFitz, Stephanie DKhanna, MayKhanna, MayKhanna, MayKhanna, MayKhanna, MayKhanna, M.Park, C.-K.Park, Chul-KyuPark, Chul-KyuPark, Chul-KyuPark, Chul-KyuPark, Chul-KyuSchmutzler, Brian SSchmutzler, Brian SSchmutzler, Brian SSchmutzler, Brian SSchmutzler, Brian SSchmutzler, B.S.Cheon, Bo MCheon, B.M.Cheon, Bo MyungCheon, Bo MyungCheon, Bo MyungCheon, Bo MyungDue, Michael RDue, Michael RDue, Michael RDue, Michael RDue, M.R.Due, Michael RBrustovetsky, T.Brustovetsky, TatianaBrustovetsky, TatianaBrustovetsky, TatianaBrustovetsky, TatianaBrustovetsky, TatianaAshpole, Nicole MAshpole, Nicole MAshpole, N.M.Ashpole, Nicole MAshpole, Nicole MAshpole, Nicole MHudmon, A.Hudmon, AndyHudmon, AndyHudmon, AndyHudmon, AndyHudmon, AndyMeroueh, Samy OMeroueh, Samy OMeroueh, S.O.Meroueh, SamyMeroueh, Samy OMeroueh, Samy OHingtgen, Cynthia MHingtgen, Cynthia MHingtgen, Cynthia MHingtgen, Cynthia MHingtgen, Cynthia MHingtgen, C.M.Brustovetsky, NickolayBrustovetsky, NickolayBrustovetsky, NickolayBrustovetsky, NickolayBrustovetsky, N.Brustovetsky, NickolayJi, Ru-RongJi, Ru-RongJi, Ru-RongJi, Ru-RongJi, R.-R.Ji, Ru RongHurley, Joyce HHurley, Joyce HHurley, Joyce HHurley, Joyce HHurley, J.H.Hurley, Joyce HJin, XiaomingJin, XiaomingJin, XiaomingJin, X.Jin, XiaomingJin, XiaomingShekhar, AnanthaShekhar, AnanthaShekhar, AnanthaShekhar, A.Shekhar, AnanthaShekhar, AnanthaXu, Xiao-MingXu, Xiao-MingXu, Xiao-MingXu, Xiao-MingXu, Xiao-MingXu, X. M.Oxford, Gerry SOxford, Gerry SOxford, Gerry SOxford, Gerry SOxford, Gerry SOxford, G.S.Vasko, Michael RVasko, Michael RVasko, Michael RVasko, M.R.Vasko, Michael RVasko, Michael RWhite, Fletcher AWhite, F.A.White, Fletcher AWhite, Fletcher AWhite, Fletcher AWhite, Fletcher AKhanna, RajeshKhanna, RajeshKhanna, RajeshKhanna, RajeshKhanna, R. and Khanna, Rajesh
Nature medicine, vol. 17, (no. 7), pp. 822-9, 2011/Jul. | Journal Article
2010
BAX insertion, oligomerization, and outer membrane permeabilization in brain mitochondria: role of permeability transition and SH-redox regulation.
Brustovetsky, TatianaLi, TsyregmaYang, YouyunZhang, Jiang TingAntonsson, Bruno and Brustovetsky, Nickolay
Biochimica et biophysica acta, vol. 1797, (no. 11), pp. 1795-806, 2010/Nov. | Journal Article
 
Calpain activation and Na+/Ca2+ exchanger degradation occur downstream of calcium deregulation in hippocampal neurons exposed to excitotoxic glutamate
Brustovetsky, TatianaBolshakov, Alexey and Brustovetsky, Nickolay
Journal of Neuroscience Research, vol. 88, (no. 6), pp. 1317-1328, 2010. | Journal Article
 
Dissimilar mechanisms of cytochrome c release induced by octyl glucoside-activated BAX and by BAX activated with truncated BID.
Li, TsyregmaBrustovetsky, TatianaAntonsson, Bruno and Brustovetsky, Nickolay
Biochimica et biophysica acta, vol. 1797, (no. 1), pp. 52-62, 2010/Jan. | Journal Article
 
Neuroprotective Effect of KB-R7943 Against Glutamate Excitotoxicity is Related to Mild Mitochondrial Depolarization
Storozhevykh, TPSenilova, YaEBrustovetsky, T.Pinelis, VG and Brustovetsky, Nickolay
Neurochemical Research, vol. 35, (no. 2), pp. 323-335, 2010. | Journal Article
2009
Role of cyclophilin D-dependent mitochondrial permeability transition in glutamate-induced calcium deregulation and excitotoxic neuronal death
Li, ViacheslavBrustovetsky, Tatiana and Brustovetsky, Nickolay
Experimental Neurology, vol. 218, (no. 2), pp. 171-182, 2009. | Journal Article
 
Stimulation of glutamate receptors in cultured hippocampal neurons causes Ca2+-dependent mitochondrial contraction.
Brustovetsky, TatianaLi, Viacheslav and Brustovetsky, Nickolay
Cell calcium, vol. 46, (no. 1), pp. 18-29, 2009/Jul. | Journal Article