Crossref Citations
This article has been cited by the following publications. This list is generated based on data provided by
Crossref.
Milivojevic, B
Johnson, B.W
Hamm, J.P
and
Corballis, M.C
2003.
Non-identical neural mechanisms for two types of mental transformation: event-related potentials during mental rotation and mental paper folding.
Neuropsychologia,
Vol. 41,
Issue. 10,
p.
1345.
Johansson, Mikael
and
Mecklinger, Axel
2003.
The late posterior negativity in ERP studies of episodic memory: action monitoring and retrieval of attribute conjunctions.
Biological Psychology,
Vol. 64,
Issue. 1-2,
p.
91.
Núñez-Peña, M.I.
Aznar, J.A.
Linares, D.
Corral, M.J.
and
Escera, C.
2005.
Effects of dynamic rotation on event-related brain potentials.
Cognitive Brain Research,
Vol. 24,
Issue. 2,
p.
307.
Jansen-Osmann, Petra
and
Heil, Martin
2006.
Violation of pure insertion during mental rotation is independent of stimulus type, task, and subjects’ age.
Acta Psychologica,
Vol. 122,
Issue. 3,
p.
280.
Thayer, Zoë C.
and
Johnson, Blake W.
2006.
Cerebral processes during visuo‐motor imagery of hands.
Psychophysiology,
Vol. 43,
Issue. 4,
p.
401.
Houck, J.M.
Martin, T.
Bish, J.P.
Moses, S.N.
Woodruff, C.C.
Kičić, D.
and
Tesche, C.D.
2007.
Early cerebellar activation predicts response time.
International Congress Series,
Vol. 1300,
Issue. ,
p.
413.
Jansen-Osmann, Petra
and
Heil, Martin
2007.
Developmental aspects of parietal hemispheric asymmetry during mental rotation.
NeuroReport,
Vol. 18,
Issue. 2,
p.
175.
Jansen-Osmann, Petra
and
Heil, Martin
2007.
Maintaining readiness for mental rotation interferes with perceptual processes in children but with response selection in adults.
Acta Psychologica,
Vol. 126,
Issue. 3,
p.
155.
Lamm, Claus
Windischberger, Christian
Moser, Ewald
and
Bauer, Herbert
2007.
The functional role of dorso-lateral premotor cortex during mental rotation.
NeuroImage,
Vol. 36,
Issue. 4,
p.
1374.
Heil, Martin
and
Jansen-Osmann, Petra
2007.
Children's left parietal brain activation during mental rotation is reliable as well as specific.
Cognitive Development,
Vol. 22,
Issue. 2,
p.
280.
Danker, Jared F.
and
Anderson, John R.
2007.
The roles of prefrontal and posterior parietal cortex in algebra problem solving: A case of using cognitive modeling to inform neuroimaging data.
NeuroImage,
Vol. 35,
Issue. 3,
p.
1365.
Anderson, John R.
Carter, Cameron S.
Fincham, Jon M.
Qin, Yulin
Ravizza, Susan M.
and
Rosenberg‐Lee, Miriam
2008.
Using fMRI to Test Models of Complex Cognition.
Cognitive Science,
Vol. 32,
Issue. 8,
p.
1323.
Heil, Martin
and
Jansen-Osmann, Petra
2008.
Sex Differences in Mental Rotation with Polygons of Different Complexity: Do Men Utilize Holistic Processes whereas Women Prefer Piecemeal Ones?.
Quarterly Journal of Experimental Psychology,
Vol. 61,
Issue. 5,
p.
683.
Riečanský, Igor
and
Jagla, Fedor
2008.
Linking performance with brain potentials: Mental rotation-related negativity revisited.
Neuropsychologia,
Vol. 46,
Issue. 13,
p.
3069.
Gootjes, Liselotte
Bruggeling, Emma C.
Magnée, Tessa
and
Van Strien, Jan W.
2008.
Sex differences in the latency of the late event-related potential mental rotation effect.
NeuroReport,
Vol. 19,
Issue. 3,
p.
349.
Milivojevic, Branka
Hamm, Jeff P.
and
Corballis, Michael C.
2009.
Functional Neuroanatomy of Mental Rotation.
Journal of Cognitive Neuroscience,
Vol. 21,
Issue. 5,
p.
945.
Zhang, Hong
Sun, Yu
Yan, Jing
Wang, Jingjie
Qiu, Yihong
Zhu, Yisheng
and
Tong, Shanbao
2009.
Cortical interactive network during mental rotation of Chinese character.
Neuroscience Letters,
Vol. 461,
Issue. 2,
p.
185.
Yu, Qingbao
Tang, Yiyuan
Li, Jian
Lu, Qilin
Wang, Huili
Sui, Danni
Zhou, Li
Wang, Yan
and
Heil, Martin
2009.
Sex differences of event-related potential effects during three-dimensional mental rotation.
NeuroReport,
Vol. 20,
Issue. 1,
p.
43.
Milivojevic, Branka
Hamm, Jeff P.
and
Corballis, Michael C.
2009.
Hemispheric dominance for mental rotation: it is a matter of time.
NeuroReport,
Vol. 20,
Issue. 17,
p.
1507.
Mappus, Rudolph L.
Corballis, Paul M.
and
Jackson, Melody M.
2009.
Enhancing brain-machine interface throughput using simultaneous activation detection.
p.
3697.