Abstract
Animal models of traumatic brain injury are primarily utilized for the purpose of either (a) conducting basic research—for instance regarding the neurocognitive organization of the brain or (b) the development and evaluation of therapeutic interventions—such as pharmacological and behavioral methods as well as environmental manipulations. While studies focusing on development of therapeutic methods may primarily call for the use of more “ecologically valid” models, studies of the neurocognitive organization of the brain may primarily benefit from the use of focal and anatomically restricted lesions. The present chapter focuses on such models. The primary focus of the chapter is a model in which the fimbria-fornix is selectively transected and hippocampal function consequently severely impaired. The method of this transection is described, and the neural and functional consequences of the lesion are reviewed. In order to best utilize such focal lesions in the analysis of neurocognitive organization additional methods are needed. These methods include combined and simultaneously inflicted focal lesions as well as the use of both organic and behavioral “challenge” techniques. Such an approach enables a deeper understanding of the mediating mechanisms at the level of anatomical structure and/or neurotransmitter system and prevents premature conclusions regarding the neurocognitive organization.
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References
Mogensen J (2011) Animal models in neuroscience. In: Hau J, Schapiro SJ (eds) Handbook of laboratory animal science, Animal models, vol 2, 3rd edn. CRC Press LLC, Boca Raton, FL, pp 47–73
Xiong Y, Mahmood A, Chopp M (2013) Animal models of traumatic brain injury. Nat Rev Neurosci 14:128–142
Bolkvadze T, Pitkänen A (2012) Development of post-traumatic epilepsy after controlled cortical impact and lateral fluid-percussion-induced brain injury in the mouse. J Neurotrauma 29:789–812
Frey LC, Hellier J, Unkart C et al (2009) A novel apparatus for lateral fluid percussion injury in the rat. J Neurosci Methods 177:267–272
Wahab RA, Neuberger EJ, Lyeth BG et al (2015) Fluid percussion injury device for the precise control of injury parameters. J Neurosci Methods 248:16–26
Flierl MA, Stahel PF, Beauchamp KM et al (2009) Mouse closed head injury model induced by a weight-drop device. Nat Protoc 4:1328–1337
Marmarou A, Foda MAA, van den Brink W et al (1994) A new model of diffuse brain injury in rats. Part I: Pathophysiology and biomechanics. J Neurosurg 80:291–300
Davidsson J, Risling M (2011) A new model to produce sagittal plane rotational induced diffuse axonal injuries. Front Neurol 2:41. https://doi.org/10.3389/fneur.2011.00041
Risling M, Plantman S, Angeria M et al (2011) Mechanisms of blast induced brain injuries, experimental studies in rats. NeuroImage 54:589–597
Rostami E, Davidsson J, Ng KC et al (2012) A model for mild traumatic brain injury that induces limited transient memory impairment and increased levels of axon related serum biomarkers. Front Neurol 3:115. https://doi.org/10.3389/fneur.2012.00115
Huh JW, Widing AG, Raghupathi R (2007) Repetitive mild non-contusive brain trauma in immature rats exacerbates traumatic axonal injury and axonal calpain activation: a preliminary report. J Neurotrauma 24:15–27
Williams AJ, Hartings JA, Lu X-CM et al (2005) Characterization of a new rat model of penetrating ballistic brain injury. J Neurotrauma 22:313–331
Williams AJ, Hartings JA, Lu X-CM et al (2006) Penetrating ballistic-like brain injury in the rat: differential time courses of haemorrhage, cell death, inflammation, and remote degeneration. J Neurotrauma 23:1828–1846
Gaskin S, White NM (2007) Unreinforced spatial (latent) learning is mediated by a circuit that includes dorsal entorhinal cortex and fimbria fornix. Hippocampus 17:586–594
Mogensen J, Lauritsen KT, Elvertorp S et al (2004) Place learning and object recognition by rats subjected to transection of the fimbria-fornix and/or ablation of the prefrontal cortex. Brain Res Bull 63:217–236
Mogensen J, Holm S (1994) The prefrontal cortex and variants of sequential behaviour: indications of functional differentiation between subdivisions of the rat’s prefrontal cortex. Behav Brain Res 63:89–100
de Bruin JPC, Sànchez-Santed F, Heinsbrock RPW et al (1994) A behavioural analysis of rats with damage to the medial prefrontal cortex using the Morris water maze: evidence for behavioural flexibility, but not for impaired spatial navigation. Brain Res 652:323–333
Sullivan RM, Gratton A (2002) Behavioral effects of excitotoxic lesions of ventral medial prefrontal cortex in the rat are hemisphere-dependent. Brain Res 927:69–79
Mogensen J, Iversen IH, Divac I (1987) Neostriatal lesions impaired rats’ delayed alternation performance in a T-maze but not in a two-key operant chamber. Acta Neurobiol Exp 47:45–54
Divac I, Markowitsch HJ, Pritzel M (1978) Behavioral and anatomical consequences of small intra-striatal injections of kainic acid in the rat. Brain Res 151:523–532
Mogensen J, Malá H (2009) Post-traumatic functional recovery and reorganization in animal models. A theoretical and methodological challenge. Scand J Psychol 50:561–573
Gram MG, Gade L, Wogensen E et al (2015) Equal effects of typical environmental and specific social enrichment on posttraumatic cognitive functioning after fimbria-fornix transection in rats. Brain Res 1629:182–195
Bigler ED, Blatter DD, Anderson CV et al (1997) Hippocampal volume in normal aging and traumatic brain injury. Am J Neuroradiol 18:11–23
Christidi F, Bigler ED, McCauley SR et al (2011) Diffusion tensor imaging of the perforant pathway zone and its relation to memory function in patients with severe traumatic brain injury. J Neurotrauma 28:711–725
Gale SD, Burr RB, Bigler ED et al (1993) Fornix degeneration and memory in traumatic brain injury. Brain Res Bull 32:345–349
Tate DF, Bigler ED (2000) Fornix and hippocampal atrophy in traumatic brain injury. Learn Mem 7:442–446
Yallampalli R, Wilde EA, Bigle ED et al (2013) Acute white matter differences in the fornix following mild traumatic brain injury using diffusion tensor imaging. J Neuroimaging 23:224–227
Aggleton JP, Vann SD, Saunders RC (2005) Projections from the hippocampal region to the mammillary bodies in macaque monkeys. Eur J Neurosci 22:2519–2530
Amaral DG, Lavenex P (2007) Hippocampal neuroanatomy. In: Andersen P, Morris RGM, Amaral T, Bliss T, O’Keefe J (eds) The hippocampus book. Oxford University Press, New York, pp 37–114
Amaral DG, Witter MP (1989) The three-dimensional organization of the hippocampal formation: a review of anatomical data. Neuroscience 31:571–591
Figenschou A, Hu GY, Storm JF (1996) Cholinergic modulation of the action potential in rat hippocampal neurons. Eur J Neurosci 8:211–219
Hasselmo ME (2006) The role of acetylcholine in learning and memory. Curr Opin Neurobiol 16:710–715
Hasselmo ME, Giocomo LM (2006) Cholinergic modulation of cortical function. J Mol Neurosci 30:133–135
Mann EO, Tominaga T, Ichikawa M et al (2005) Cholinergic modulation of the spatiotemporal pattern of hippocampal activity in vitro. Neuropharmacology 48:118–133
Roland JJ, Savage LM (2009) The role of cholinergic and GABAergic medial septal/diagonal band cell populations in the emergence of diencephalic amnesia. Neuroscience 160:32–41
Roland JJ, Janke KL, Servatius RJ et al (2014) GABAergic neurons in the medial septum-diagonal band of Broca (MSDB) are important for acquisition of the classically conditioned eyeblink response. Brain Struct Funct 219:1231–1237
Thinschmidt JS, Frazier CJ, King MA et al (2005) Septal innervation regulates the function of alpha7 nicotinic receptors in CA1 hippocampal interneurons. Exp Neurol 195:342–352
Hasselmo ME, Schnell E, Barkai E (1995) Dynamics of learning and recall at excitatory recurrent synapses and cholinergic modulation in rat hippocampal region CA3. J Neurosci 15:5249–5262
Hasselmo ME, Giocomo LM, Brandon MP et al (2010) Cellular dynamical mechanisms for encoding the time and place of events along spatiotemporal trajectories in episodic memory. Behav Brain Res 215:261–274
Bassant MH, Apartis E, Jazat-Poindessous FR et al (1995) Selective immunolesion of the basal forebrain cholinergic neurons: effects on hippocampal activity during sleep and wakefulness in the rat. Neurodegeneration 4:61–70
Burgess N, O’Keefe J (2005) The theta rhythm. Hippocampus 15:825–826
Buzsaki G (2002) Theta oscillations in the hippocampus. Neuron 33:325–340
Manns JR, Zilli EA, Ong KC et al (2007) Hippocampal CA1 spiking during encoding and retrieval: relation to theta phase. Neurobiol Learn Mem 87:9–20
Ikonen S, McMahan R, Gallagher M et al (2002) Cholinergic system regulation of spatial representation by the hippocampus. Hippocampus 12:386–397
Hasselmo ME, Eichenbaum H (2005) Hippocampal mechanisms for the context-dependent retrieval of episodes. Neural Netw 18:1172–1190
Roland JJ, Stewart AL, Janke KL et al (2014) Medial septum-diagonal band of Broca (MSDB) GABAergic regulation of hippocampal acetylcholine efflux is dependent on cognitive demands. J Neurosci 34:506–514
Gould E, Tanapat P, Rydel T et al (2000) Regulation of hippocampal neurogenesis in adulthood. Biol Psychiatry 48:715–720
Rolando C, Taylor V (2014) Neural stem cell of the hippocampus: development, physiology regulation, and dysfunction in disease. Curr Top Dev Biol 107:183–206
Shors TJ, Miesegaes G, Beylin A et al (2001) Neurogenesis in the adult is involved in the formation of trace memories. Nature 410:372–376
Shors TJ, Townsend DA, Zhao M et al (2002) Neurogenesis may relate to some but not all types of hippocampal-dependent learning. Hippocampus 12:578–584
Paxinos G, Watson BD (2006) The rat brain in stereotaxic coordinates, 6th edn. Academic, Amsterdam
Ginsberg SD, Martin LJ (2002) Axonal transection in adult rat brain induces transsynaptic apoptosis and persistent atrophy of target neurons. J Neurotrauma 19:99–109
Ginsberg SD, Portera-Cailliau C, Martin LJ (1999) Fimbria-fornix transection and excitotoxicity produce similar neurodegeneration in the septum. Neuroscience 88:1059–1071
Frotscher M, Deller T, Heimrich B et al (1996) Survival, regeneration and sprouting of central neurons: the rat septohippocampal projection as a model. Ann Anat 178:311–315
Naumann T, Kermer P, Frotscher M (1994) Fine structure of rat septohippocampal neurons. III. Recovery of choline acetyltransferase immunoreactivity after fimbria-fornix transection. J Comp Neurol 350:161–170
Naumann T, Deller T, Frotscher M (1996) Multiple projections are unlikely to account for the survival of rat medial septal neurons after axotomy. Neurosci Lett 211:117–120
Peterson GM, Lanford GW, Powell EW (1990) Fate of septohippocampal neurons following fimbria-fornix transection: a time course analysis. Brain Res Bull 25:129–137
Ginsberg SD, Martin LJ (1998) Ultrastructural analysis of the progression of neurodegeneration in the septum following fimbria-fornix transection. Neuroscience 86:1259–1272
Lahtinen H, Miettinen R, Ylinen A et al (1993) Biochemical and morphological changes in the rat hippocampus following transection of the fimbria-fornix. Brain Res Bull 31:311–318
Blaker SN, Armstrong DM, Gage FH (1988) Cholinergic neurons within the rat hippocampus: response to fimbria-fornix transection. J Comp Neurol 272:127–138
Lee J, Chai SY, Morris MJ et al (2003) Effect of fimbria-fornix lesion on 125I-angiotensin IV (Ang IV) binding in the guinea pig hippocampus. Brain Res 979:7–14
Cooper-Kuhn CM, Winkler J, Kuhn HG (2004) Decreased neurogenesis after cholinergic forebrain lesion in the adult rat. J Neurosci Res 77:155–165
Van der Borght K, Mulder J, Keijser JN et al (2005) Input from the medial septum regulates adult hippocampal neurogenesis. Brain Res Bull 67:117–125
Mohapel P, Leanza G, Kokaia M et al (2005) Forebrain acetylcholine regulates adult hippocampal neurogenesis and learning. Neurobiol Aging 26:939–946
Zou L, Jin G, Zhang X et al (2010) Proliferation, migration, and neuronal differentiation of the endogenous neural progenitors in hippocampus after fimbria fornix transection. Int J Neurosci 120:192–200
Zhang X, Jin G, Wang L et al (2009) Brn-4 is upregulated in the deafferented hippocampus and promotes neuronal differentiation of neural progenitors in vitro. Hippocampus 19:176–186
Shimazaki T, Arsenijevic Y, Ryan AK et al (1999) A role for the POU-III transcription factor Brn-4 in the regulation of striatal neuron precursor differentiation. EMBO J 18:444–456. https://doi.org/10.1093/emboj/18.2.444
Dijkhuizen RM, Muller HJ, Tamminga KS et al (1992) 1H-NMR imaging of fimbria fornix lesions in the rat brain. Brain Topogr 5:147–151
Dijkhuizen RM, Muller HJ, Josephy M et al (1996) Mechanical lesions of the fimbria fornix in rat brain studied by 1H-magnetic resonance imaging. Evidence for long-lasting dynamic alterations in the ipsilateral ventricular system. Eur Neuropsychopharmacol 6:21–27
Almaguer W, Capdevila V, Ramirez M et al (2005) Post-training stimulation of the basolateral amygdala improves spatial learning in rats with lesion of the fimbria-fornix. Restor Neurol Neurosci 23:43–50
Cain DP, Boon F, Corcoran ME (2006) Thalamic and hippocampal mechanisms in spatial navigation: a dissociation between brain mechanisms for learning how versus learning where to navigate. Behav Brain Res 170:241–256
de Bruin JP, Moita MP, de Brabander HM et al (2001) Place and response learning of rats in a Morris water maze: differential effects of fimbria fornix and medial prefrontal cortex lesions. Neurobiol Learn Mem 75:164–178
Hannesson DK, Skelton RW (1998) Recovery of spatial performance in the Morris water maze following bilateral transection of the fimbria/fornix in rats. Behav Brain Res 90:35–56
Mogensen J, Miskowiak K, Sørensen TA et al (2004) Erythropoietin improves place learning in fimbria-fornix-transected rats and modifies the search pattern of normal rats. Pharmacol Biochem Behav 77:381–390
Mogensen J, Moustgaard A, Khan U et al (2005) Egocentric spatial orientation in a water maze by rats subjected to transection of the fimbria-fornix and/or ablation of the prefrontal cortex. Brain Res Bull 65:41–58
Wörtwein G, Saerup LH, Charlottenfeld-Starpov D et al (1995) Place learning by fimbria-fornix transected rats in a modified water maze. Int J Neurosci 82:71–81
Mogensen J, Pedersen TK, Holm S et al (1995) Prefrontal cortical mediation of rats’ place learning in a modified water maze. Brain Res Bull 38:425–434
Mogensen J, Christensen LH, Johansson A et al (2002) Place learning in scopolamine treated rats: the roles of distal cues and catecholaminergic mediation. Neurobiol Learn Mem 78:139–166
Malá H, Alsina CG, Madsen KS et al (2005) Erythropoietin improves place learning in an 8-arm radial maze in fimbria-fornix transected rats. Neural Plast 12:329–340
Malá H, Castro MR, Jørgensen KD et al (2007) Effects of erythropoietin on posttraumatic place learning in fimbria-fornix transected rats after a 30-day postoperative pause. J Neurotrauma 24:1647–1657
Malá H, Castro MR, Knippel J et al (2008) Therapeutic effects of a restraint procedure on posttraumatic place learning in fimbria-fornix transected rats. Brain Res 1217:221–231
Sziklas V, Petrides M (2002) Effects of lesions to the hippocampus or the fornix on allocentric conditional associative learning in rats. Hippocampus 12:543–550
Mogensen J, Hjortkjaer J, Ibervang KL et al (2007) Prefrontal cortex and hippocampus in posttraumatic functional recovery: spatial delayed alternation by rats subjected to transection of the fimbria-fornix and/or ablation of the prefrontal cortex. Brain Res Bull 73:86–95
Bussey TJ, Duck J, Muir JL et al (2000) Distinct patterns of behavioural impairments resulting from fornix transection or neurotoxic lesions of the perirhinal and postrhinal cortices in the rat. Behav Brain Res 111:187–202
Mumby DG (2001) Perspectives on object-recognition memory following hippocampal damage: lessons from studies in rats. Behav Brain Res 127:159–181
Charles DP, Gaffan D, Buckley MJ (2004) Impaired recency judgments and intact novelty judgments after fornix transection in monkeys. J Neurosci 24:2037–2044
Hudon C, Dore FY, Goulet S (2002) Spatial memory and choice behavior in the radial arm maze after fornix transection. Prog Neuropsychopharmacol Biol Psychiatry 26:1113–1123
Malá H, Andersen LG, Christensen RF et al (2015) Prefrontal cortex and hippocampus in behavioural flexibility and posttraumatic functional recovery: reversal learning and set-shifting in rats. Brain Res Bull 116:34–44
Bannerman DM, Gilmour G, Norman G et al (2001) The time course of the hyperactivity that follows lesions or temporary inactivation of the fimbria-fornix. Behav Brain Res 120:1–11
Kwok SC, Buckley MJ (2006) Fornix transection impairs exploration but not locomotion in ambulatory macaque monkeys. Hippocampus 16:655–663
Oddie SD, Kirk IJ, Gorny BP et al (2002) Impaired dodging in food-conflict following fimbria-fornix transection in rats: a novel hippocampal formation deficit. Brain Res Bull 57:565–573
Aggleton JP, Poirier GL, Aggleton HS et al (2009) Lesions of the fornix and anterior thalamic nuclei dissociate different aspects of hippocampal-dependent spatial learning: implications for the neural basis of scene learning. Behav Neurosci 123:504–519
Brasted PJ, Bussey TJ, Murray EA et al (2002) Fornix transection impairs conditional visuomotor learning in tasks involving nonspatially differentiated responses. J Neurophysiol 87:631–633
Brasted PJ, Bussey TJ, Murray EA et al (2003) Role of the hippocampal system in associative learning beyond the spatial domain. Brain 126:1202–1223
Vann SD, Erichsen JT, O’Mara SM et al (2011) Selective disconnection of the hippocampal formation projections to the mammillary bodies produces only mild deficits on spatial memory tasks: implications for fornix function. Hippocampus 21:945–957
Parslow DM, Rose D, Brooks B et al (2004) Allocentric spatial memory activation of the hippocampal formation measured with fMRI. Neuropsychology 18:450–461
Parslow DM, Morris RG, Fleminger S et al (2005) Allocentric spatial memory in humans with hippocampal lesions. Acta Psychol (Amst) 118:123–147
Shrager Y, Bayley PJ, Bontempi B et al (2007) Spatial memory and the human hippocampus. Proc Natl Acad Sci U S A 104:2961–2966
Mogensen J (2014) Reorganization of Elementary Functions (REF) after brain injury and in the intact brain: a novel understanding of neurocognitive organization and reorganization. In: Costa J, Villalba E (eds) Horizons in neuroscience research, vol 15. Nova Science Publishers, Inc, New York, pp 99–140
Buller DJ, Hardcastle VG (2000) Evolutionary psychology, meet developmental neurobiology: against promiscuous modularity. Brain Mind 1:307–325
Carney N, Chesnut RM, Maynard H et al (1999) Effect of cognitive rehabilitation on outcomes for persons with traumatic brain injury: a systematic review. J Head Trauma Rehabil 14:277–307
León-Carrión J, Machuca-Murga F (2001) Spontaneous recovery of cognitive functions after severe brain injury: when are neurocognitive sequelae established? Revista Española de Neuropsicologia 3:58–67
Mogensen J (2011) Almost unlimited potentials of a limited neural plasticity: levels of plasticity in development and reorganization of the injured brain. J Conscious Stud 18:13–45
Mogensen J (2011) Reorganization in the injured brain: implications for studies of the neural substrate of cognition. Front Psychol 2:7. https://doi.org/10.3389/fpsyg.2011.00007
Overgaard M, Mogensen J (2011) A framework for the study of multiple realizations: the importance of levels of analysis. Front Psychol 2:79. https://doi.org/10.3389/fpsyg.2011.00079
Panksepp J, Panksepp JB (2000) The seven sins of evolutionary psychology. Evol Cogn 6:108–131
Ramachandran VS, Blakeslee S (1998) Phantoms in the brain: probing the mysteries of the human mind. William Morrow, New York
Rohling ML, Faust ME, Beverly B et al (2009) Effectiveness of cognitive rehabilitation following acquired brain injury: a meta-analytic re-examination of Cicerone et al.’s (2000, 2005) systematic reviews. Neuropsychology 23:20–39
Olton DS (1978) The function of septo-hippocampal connections in spatially organized behaviour. In: Functions of the septo-hippocampal system, Ciba, Fdn. Symp. 58. Elsevier, New York, pp 327–342
Cassel J-C, Cassel S, Galani R et al (1998) Fimbria-fornix vs selective hippocampal lesions in rats: effects on locomotor activity and spatial learning and memory. Neurobiol Learn Mem 69:22–45
DiMattia BD, Kesner RP (1988) Spatial cognitive maps: differential role of parietal cortex and hippocampal formation. Behav Neurosci 102:471–480
Morris RGM, Garrud P, Rawlins JNP et al (1982) Place navigation impaired in rats with hippocampal lesions. Nature 297:681–683
Morris RG, Hagan JJ, Rawlins JN (1986) Allocentric spatial learning by hippocampectomised rats: a further test of the “spatial mapping” and “working memory” theories of hippocampal function. Q J Exp Psychol 38:365–395
Packard MG, McGaugh JL (1992) Double dissociation of fornix and caudate nucleus lesions on acquisition of two water maze tasks: further evidence for multiple memory systems. Behav Neurosci 106:439–446
Sutherland RJ, Rodriguez AJ (1989) The role of the fornix/fimbria and some related subcortical structures in place learning and memory. Behav Brain Res 32:265–277
Sutherland RJ, Kolb B, Whishaw IQ (1982) Spatial mapping: definitive disruption by hippocampal or medial frontal cortical damage in the rat. Neurosci Lett 31:271–276
Sutherland RJ, Whishaw IQ, Kolb B (1983) A behavioural analysis of spatial localization following electrolytic, kainate- or colchicine-induced damage to the hippocampal formation in the rat. Behav Brain Res 7:133–153
Whishaw IQ, Jarrard L (1995) Similarities vs differences in place learning and circadian activity in rats after fimbria-fornix transection or ibotenate removal of hippocampal cells. Hippocampus 5:595–604
Whishaw IQ, Cassel JC, Jarrard LE (1995) Rats with fimbria-fornix lesions display a place response in a swimming pool: a dissociation between getting there and knowing where. J Neurosci 15:5779–5788
Kolb B, Pittman K, Sutherland RJ et al (1982) Dissociation of the contributions of the prefrontal cortex and dorsomedial thalamic nucleus to spatially guided behavior in the rat. Behav Brain Res 6:365–378
Kolb B, Sutherland RJ, Whishaw IQ (1983) A comparison of the contributions of the frontal and parietal association cortex to spatial localization in rats. Behav Neurosci 97:13–27
Kolb B, Buhrmann K, McDonald R et al (1994) Dissociation of the medial prefrontal, posterior parietal, and posterior temporal cortex for spatial navigation and recognition in the rat. Cereb Cortex 4:664–680
Greene E (1971) Comparison of hippocampal depression and hippocampal lesion. Exp Neurol 31:313–325
Greene E, Stauff C (1974) Behavioural role of hippocampal connections. Exp Neurol 45:141–160
Greene E, Stauff C, Walters J (1972) Recovery of function with two-stage fornix lesions. Exp Neurol 37:14–22
Means LW, Leander JD, Isaacson RL (1971) The effect of hippocampectomy on alteration behaviour and response to novelty. Physiol Behav 6:17–22
Racine RJ, Kimble DP (1965) Hippocampal lesions and delayed alternation in the rat. Psychon Sci 3:285–286
Larsen JK, Divac I (1978) Selective ablations within the prefrontal cortex of the rat and performance of delayed alternation. Physiol Psychol 6:15–17
Mogensen J (1991) Influences of the rearing conditions on functional properties of the rat’s prefrontal system. Behav Brain Res 42:135–142
Wikmark RGE, Divac I, Weiss R (1973) Retention of spatial delayed alternation in rats with lesions in the frontal lobes. Brain Behav Evol 8:329–339
Wörtwein G, Mogensen J, Divac I (1993) Retention and relearning of spatial delayed alternation in rats after combined or sequential lesions of the prefrontal and parietal cortex. Acta Neurobiol Exp 53:357–366
Wörtwein G, Mogensen J, Divac I (1994) Retention and relearning of spatial delayed alternation in rats after ablation of the prefrontal or total non prefrontal isocortex. Behav Brain Res 63:127–131
Berger TW, Orr WB (1983) Hippocampectomy selectively disrupts discrimination reversal conditioning of the rabbit nictitating membrane response. Behav Brain Res 8:49–68
Brady AM (2009) Neonatal ventral hippocampal lesions disrupt set-shifting ability in adult rats. Behav Brain Res 205:294–298
Fitz NF, Gibbs RB, Johnson DA (2008) Selective lesion of septal cholinergic neurons in rats impairs acquisition of a delayed matching to position T-maze task by delaying the shift from a response to a place strategy. Brain Res Bull 77:356–360
Jarrard LE, Luu LP, Davidson TL (2012) A study of hippocampal structure-function relations along the septo-temporal axis. Hippocampus 22:680–692
Kosaki Y, Watanabe S (2012) Dissociable roles of the medial prefrontal cortex, the anterior cingulate cortex, and the hippocampus in behavioural flexibility revealed by serial reversal of three-choice discrimination in rats. Behav Brain Res 227:81–90
Marquis JP, Goulet S, Dore FY (2008) Neonatal ventral hippocampus lesions disrupt extra-dimensional shift and alter dendritic spine density in the medial prefrontal cortex of juvenile rats. Neurobiol Learn Mem 90:339–346
Silveira JM, Kimble DP (1968) Brightness discrimination and reversal in hippocampally lesioned rats. Physiol Behav 3:625–630
Winocur G, Olds J (1978) Effects of context manipulation on memory and reversal learning in rats with hippocampal lesions. J Comp Physiol Psychol 92:312–321
Birrell JM, Brown VJ (2000) Medial frontal cortex mediates perceptual attentional set shifting in the rat. J Neurosci 20:4320–4324
Floresco SB, Magyar O (2006) Mesocortical dopamine modulation of executive functions: beyond working memory. Psychopharmacology (Berl) 188:567–585
Floresco SB, Magyar O, Ghods-Sharifi S et al (2006) Multiple dopamine receptor subtypes in the medial prefrontal cortex of the rat regulate set-shifting. Neuropsychopharmacology 31:297–309
Floresco SB, Block AE, Tse MT (2008) Inactivation of the medial prefrontal cortex of the rat impairs strategy set-shifting, but not reversal learning, using a novel, automated procedure. Behav Brain Res 190:85–96
Granon S, Poucet B (1995) Medial prefrontal lesions in the rat and spatial navigation: evidence for impaired planning. Behav Neurosci 109:474–484
Joel D, Weiner I, Feldon J (1997) Electrolytic lesions of the medial prefrontal cortex in rats disrupt performance on an analog of the Wisconsin Card Sorting Test, but do not disrupt latent inhibition: implications for animal models of schizophrenia. Behav Brain Res 85:187–201
Lee I, Solivan F (2008) The roles of the medial prefrontal cortex and hippocampus in a spatial paired-association task. Learn Mem 15:357–367
Mogensen J, Jespersen KH, Nielsen NH et al (2003) Shifts between responses and strategies in rats after ablations of the prefrontal cortex. Homeostasis 42:29–37
Mogensen J, Malá H, Vangkilde SA et al (2003) Retention and reversals of a sequential behavioural task after prefrontal cortical lesions in the rat. Homeostasis 42:110–121
Ragozzino ME, Detrick S, Kesner RP (1999) Involvement of the prelimbic-infralimbic areas of the rodent prefrontal cortex in behavioral flexibility for place and response learning. J Neurosci 19:4585–4594
Rich EL, Shapiro ML (2007) Prelimbic/infralimbic inactivation impairs memory for multiple task switches, but not flexible selection of familiar tasks. J Neurosci 27:4747–4755
Mogensen J (2015) Recovery, compensation and reorganization in neuropathology—levels of conceptual and methodological challenges. In: Tracy JI, Hampstead BM, Sathian K (eds) Cognitive plasticity in neurologic disorders. Oxford University Press, New York, pp 3–28
Mogensen J, Wörtwein G, Plenge P et al (2003) Serotonin, locomotion, exploration, and place recall in the rat. Pharmacol Biochem Behav 75:381–395
Patterson K, Plaut DC (2009) “Shallow draughts intoxicate the brain”: lessons from cognitive science for cognitive neuropsychology. Top Cogn Sci 1:39–58
Barrett HC, Kurzban R (2006) Modularity in cognition: framing the debate. Psychol Rev 113:628–647
Fodor J (2000) The mind doesn’t work that way: the scope and limits of computational psychology. MIT Press, Cambridge, MA
Pinker S (1999) How the mind works. Penguin Books, London
Carandini M (2012) From circuits to behavior: a bridge too far? Nat Neurosci 15:507–509
Marr D (1982) Vision: a computational investigation into the human representation and processing of visual information. W.H. Freeman, San Francisco, CA
Marr D, Poggio T (1977) From understanding computation to understanding neural circuitry. Neurosci Res Progr Bull 15:470–488
Mogensen J (2012) Cognitive recovery and rehabilitation after brain injury: mechanisms, challenges and support. In: Agrawal A (ed) Brain injury—functional aspects, rehabilitation and prevention. InTech, Rijeka, Croatia, pp 121–150
Mogensen J (2012) Reorganization of Elementary Functions (REF) after brain injury: implications for the therapeutic interventions and prognosis of brain injured patients suffering cognitive impairments. In: Schäfer AJ, Müller J (eds) Brain damage: causes management and prognosis. Nova Science Publishers, Inc., Hauppauge, NY, pp 1–40
Brines ML, Ghezzi P, Keenan S et al (2000) Erythropoietin crosses the blood-brain barrier to protect against experimental brain injury. Proc Natl Acad Sci U S A 97:10526–10531
Calapai G, Marciano MC, Corica F et al (2000) Erythropoietin protects against brain ischemic injury by inhibition of nitric oxide formation. Eur J Pharmacol 401:349–356
Siren AL, Fratelli M, Brines M et al (2001) Erythropoietin prevents neuronal apoptosis after cerebral ischemia and metabolic stress. Proc Natl Acad Sci U S A 98:4044–4049
Alafaci C, Salpietro F, Grasso G et al (2000) Effect of recombinant human erythropoietin on cerebral ischemia following experimental subarachnoid hemorrhage. Eur J Pharmacol 406:219–225
Buemi M, Grasso G, Corica F et al (2000) In vivo evidence that erythropoietin has a neuroprotective effect during subarachnoid hemorrhage. Eur J Pharmacol 392:31–34
Grasso G (2001) Neuroprotective effect of recombinant human erythropoietin in experimental subarachnoid hemorrhage. J Neurosurg Sci 45:7–14
Springborg JB, Ma XD, Rochat P et al (2002) A single subcutaneous bolus of erythropoietin normalizes cerebral blood flow autoregulation after subarachnoid haemorrhage in rats. Br J Pharmacol 135:823–829
Mogensen J, Jensen C, Kingod SC et al (2008) Erythropoietin improves spatial delayed alternation in a T-maze in fimbria-fornix transected rats. Behav Brain Res 186:215–221
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The present study was supported by a grant from the Danish Council for Independent Research.
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Mogensen, J., Malá, H. (2019). Focal and Restricted Traumatic Injury Models in the Rodent Brain: Limitations, Possibilities, and Challenges. In: Risling, M., Davidsson, J. (eds) Animal Models of Neurotrauma. Neuromethods, vol 149. Humana, New York, NY. https://doi.org/10.1007/978-1-4939-9711-4_2
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DOI: https://doi.org/10.1007/978-1-4939-9711-4_2
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