Summary
Rodent stroke models provide the experimental backbone for the in vivo determination of the mechanisms of cell death and neural repair, and for the initial testing of neuroprotective compounds. Less than 10 rodent models of focal stroke are routinely used in experimental study. These vary widely in their ability to model the human disease, and in their application to the study of cell death or neural repair. Many rodent focal stroke models produce large infarcts that more closely resemble malignant and fatal human infarction than the average sized human stroke. This review focuses on the mechanisms of ischemic damage in rat and mouse stroke models, the relative size of stroke generated in each model, and the purpose with which focal stroke models are applied to the study of ischemic cell death and to neural repair after stroke.
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American Heart Association, Heart Disease and Stroke Statistics Update 2004.http://www.americanheart.org/presenter.jhtml?identifier=3000090.
Carmichael ST. Plasticity of cortical projections after stroke. Neuroscientist 9: 64–75, 2003.
Gladstone DJ, Black SE, Hakim AM. Heart and Stroke Foundation of Ontario Centre of Excellence in Stroke Recovery. Toward wisdom from failure: lessons from neuroprotective stroke trials and new therapeutic directions. Stroke 33: 2123–2236, 2003.
Cheng YD, Al-Khoury L, Zivin JA. Neuroprotection for ischemic stroke: two decades of success and failure. NeuroRx 1: 36–45, 2004.
Sugawara T, Fujimura M, Noshita N, Kim GW, Saito A, Hayashi T, et al. Neuronal death/survival signaling pathways in cerebral ischemia. NeuroRx 1: 17–25, 2004.
Stroke Therapy Academic Industry Roundtable. Recommendations for standards regarding preclinical neuroprotective and restorative drugs. Stroke 30: 2752–2758, 1999.
Brott T, Marler JR, Olinger CP, Adams HP Jr, Tomsick T, Barsan WG, et al. Measurements of acute cerebral infarction: lesion size by computed tomography. Stroke 20: 871–875, 1989.
Lyden PD, Zweifler R, Mahdavi Z, Lonzo L. A rapid, reliable, and valid method for measuring infarct and brain compartment volumes from computed tomographic scans. Stroke 25: 2421–2428, 1994.
Nopoulos P, Flaum M, O’Leary D, Andreasen NC. Sexual dimorphism in the human brain: evaluation of tissue volume, tissue composition and surface anatomy using magnetic resonance imaging. Psychiatry Res 98: 1–13, 2000.
Sowell ER, Peterson BS, Thompson PM, Welcome SE, Henkenius AL, Toga AW. Mapping cortical change across the human life span. Nat Neurosci 6: 309–315, 2003.
National Institute of Neurological Disorders and Stroke (NINDS) rt-PA Stroke Study Group. Effect of intravenous recombinant tissue plasminogen activator on ischemic stroke lesion size measured by computed tomography. Stroke 31: 2912–2919, 2000.
Lindgren A, Norrving B, Rudling O, Johansson BB. Comparison of clinical and neuroradiological findings in first-ever stroke. A population-based study. Stroke 25: 1371–1377, 1994.
Kissela B, Broderick J, Woo D, Kothari R, Miller R, Khoury J, et al. Greater Cincinnati/Northern Kentucky Stroke Study: volume of first-ever ischemic stroke among blacks in a population-based study. Stroke 32: 1285–1290, 2001.
Hacke W, Schwab S, Horn M, Spranger M, De Georgia M, von Kummer R. “Malignant” middle cerebral artery territory infarction: clinical course and prognostic signs. Arch Neurol 53: 309–315, 1996.
Berrouschot J, Sterker M, Bettin S, Koster J, Schneider D. Mortal of space-occupying (“malignant”) middle cerebral artery infarction under conservative intensive care. Intensive Care Med 24: 620–623, 1998.
Schwab S, Steiner T, Aschoff A, Schwarz S, Steiner HH, Jansen O, et al. Early hemicraniectomy in patients with complete middle cerebral artery infarction. Stroke 29: 1888–1893, 1998.
Molina CA, Montaner J, Abilleira S, Ibarra B, Romero F, Arenillas JF, et al. Timing of spontaneous recanalization and risk of hemorrhagic transformation in acute cardioembolic stroke. Stroke 32: 1079–1084, 2001.
Kassem-Moussa H, Graffagnino C. Nonocclusion and spontaneous recanalization rates in acute ischemic stroke: a review of cerebral angiography studies. Arch Neurol 59: 1870–1873, 2002.
Bisschops RH, Klijn CJ, Kappelle LJ, van Huffelen AC, van der Grond J. Collateral flow and ischemic brain lesions in patients with unilateral carotid artery occlusion. Neurology 60: 1435–1441, 2003.
Kim JJ, Fischbein NJ, Lu Y, Pham D, Dillon WP. Regional angiographic grading system for collateral flow: correlation with cerebral infarction in patients with middle cerebral artery occlusion. Stroke 35: 1340–1844, 2004.
Brozici M, van der Zwan A, Hillen B. Anatomy and functionality of leptomeningeal anastomoses: a review. Stroke 34: 2750–2762, 2003.
Ringelstein EB, Biniek R, Weiller C, Ammeling B, Nolte PN, Thron A. Type and extent of hemispheric brain infarctions and clinical outcome in early and delayed middle cerebral artery recanalization. Neurology 42: 289–298, 1992.
Arnold M, Nedeltchev K, Mattle HP, Loher TJ, Stepper F, Schroth G, et al. Intra-arterial thrombolysis in 24 consecutive patients with internal carotid artery T occlusions. J Neurol Neurosurg Psych 74: 739–742, 2003.
Schramm P, Schellinger PD, Fiebach JB, Heiland S, Jansen O, Knauth M, et al. Comparison of CT and CT angiography source images with diffusion-weighted imaging in patients with acute stroke within 6 hours after onset. Stroke 33: 2426–2432, 2002.
Sherman DG, Atkinson RP, Chippendale T, Levin KA, Ng K, Futrell N, et al. Intravenous ancrod for treatment of acute ischemic stroke: the STAT study: a randomized controlled trial. Stroke Treatment with Ancrod Trial. JAMA 283: 2395–2403, 2002.
Burton A. Abciximab extends treatment window for stroke. Lancet Neurol 2: 390, 2003.
Schellinger PD, Kaste M, Hacke W. An update on thrombolytic therapy for acute stroke. Curr Opin Neurol 17: 69–77, 2004.
Corbett D, Nurse S. The problem of assessing effective neuroprotection in experimental cerebral ischemia. Prog Neurobiol 54: 531–548, 1998.
Crafton KR, Mark AN, Cramer SC. Improved understanding of cortical injury by incorporating measures of functional anatomy. Brain 126: 1650–1659, 2003.
Traversa R, Cicinelli P, Bassi A, Rossini PM, Bemardi G. Mapping of motor cortical reorganization after stroke. A brain stimulation study with focal magnetic pulses. Stroke 28: 110–117, 1997.
Karbe H, Thiel A, Weber-Luxenburger G, Herholz K, Kessler J, Heiss WD. Brain plasticity in poststroke aphasia: what is the contribution of the right hemisphere? Brain Lang 64: 215–230, 1998.
Nelles G, Spiekramann G, Jueptner M, Leonhardt G, Muller S, Gerhard H, et al. Evolution of functional reorganization in hemiplegic stroke: a serial positron emission tomographic activation study. Ann Neurol 46: 901–919, 1999.
Marshall RS, Perera GM, Lazar RM, Krakauer JW, Constantine RC, DeLaPaz RL. Evolution of cortical activation during recovery from corticospinal tract infarction. Stroke 31: 656–661, 2000.
Calautti C, Leroy F, Guincestre JY, Marie RM, Baron JC. Sequential activation brain mapping after subcortical stroke: changes in hemispheric balance and recovery. Neuroreport 12: 3883–3886, 2001.
Liepert J, Bauder H, Wolfgang HR, Miltner WH, Taub E, Weiller C. Treatment-induced cortical reorganization after stroke in humans. Stroke 31: 1210–1216, 2000.
Schaechter JD, Kraft E, Hilliard TS, Dijkhuizen RM, Benner T, Finklestein SP, et al. Motor recovery and cortical reorganization after constraint-induced movement therapy in stroke patients: a preliminary study. Neurorehabil Neural Repair 16: 326–338, 2002.
Wittenberg GF, Chen R, Ishii K, Bushara KO, Eckloff S, Croarkin E, et al. Constraint-induced therapy in stroke: magnetic-stimulation motor maps and cerebral activation. Neurorehabil Neural Repair 17: 48–57, 2003.
Koizumi J, Yoshida Y, Nakazawa T, Ooneda G. Experimental studies of ischemic brain edema. I. A new experimental model of cerebral embolism in which recirculation can introduced into the ischemic area. Jpn J Stroke 8: 108, 1986.
Belayev L, Alonso OF, Busto R, Zhao W, Ginsberg MD. Middle cerebral artery occlusion in the rat by intraluminal suture. Neurological and pathological evaluation of an improved model. Stroke 27: 1616–622, 1996.
Schmid-Elsaesser R, Zausinger S, Hungerhuber E, Baethmann A, Reulen HJ. A critical reevaluation of the intraluminal thread model of focal cerebral ischemia: evidence of inadvertent premature reperfusion and subarachnoid hemorrhage in rats by laser-Doppler flowmetry. Stroke 29: 2162–2170, 1998.
Chen TY, Goyagi T, Toung TJ, Kirsch JR, Hum PD, Koehler RC, et al. Prolonged opportunity for ischemic neuroprotection with selective κ-opioid receptor agonist in rats. Stroke 35: 1180–1185, 2004.
Dittmar M, Spruss T, Schuierer G, Horn M. External carotid artery territory ischemia impairs outcome in the endovascular filament model of middle cerebral artery occlusion in rats. Stroke 34: 2252–2257, 2003.
Garcia JH, Liu KF, Ho KL. Neuronal necrosis after middle cerebral artery occlusion in Wistar rats progresses at different time intervals in the caudoputamen and the cortex. Stroke 26: 636–642, 1995.
Kanemitsu H, Nakagomi T, Tamura A, Tsuchiya T, Kono G, Sano K. Differences in the extent of primary ischemic damage between middle cerebral artery coagulation and intraluminal occlusion models. J Cereb Blood Flow Metab 22: 1196–1204, 2002.
Williams AJ, Berti R, Dave JR, Elliot PJ, Adams J, Tortella FC. Delayed treatment of ischemia/reperfusion brain injury: extended therapeutic window with the proteosome inhibitor MLN519. Stroke 35: 1186–1191, 2004.
Li F, Omae T, Fisher M. Spontaneous hyperthermia and its mechanism in the intraluminal suture middle cerebral artery occlusion model of the rat. Stroke 30: 2464–2471, 1999.
Yamashita K, Busch E, Wiessner C, Hossmann KA. Thread occlusion but not electrocoagulation of the middle cerebral artery causes hypothalamic damage with subsequent hyperthermia. Neurol Med Chir (Tokyo) 37: 723–727, 1997.
Reglodi D, Somogyvari-Vigh A, Maderdrut JL, Vigh S, Arimura A. Postischemic spontaneous hyperthermia and its effects in middle cerebral artery occlusion in the rat. Exp Neurol 163: 399–407, 2000.
Gerriets T, Stolz E, Walberer M, Kaps M, Bachmann G, Fisher M. Neuroprotective effects of MK-801 in different rat stroke models for permanent middle cerebral artery occlusion: adverse effects of hypothalamic damage and strategies for its avoidance. Stroke 34: 2234–2239, 2003.
Li Y, Chopp M, Jiang N, Zhang ZG, Zaloga C. Induction of DNA fragmentation after 10 to 120 minutes of focal cerebral ischemia in rats. Stroke 26: 1252–1257, 1995.
Mohamed AA, Gotoh O, Graham DI, Osbome KA, McCulloch J, Mendelow AD, et al. Effect of pretreatment with the calcium antagonist nimodipine on local cerebral blood flow and histopathology after middle cerebral artery occlusion. Ann Neurol 18: 705–711, 1985.
Buchan AM, Xue D, Huang ZG, Smith KH, Lesiuk H. Delayed AMPA receptor blockade reduces cerebral infarction induced by focal ischemia. Neuroreport 2: 473–476, 1991.
Sydserff SG, Borelli AR, Green AR, Cross AJ. Effect of NXY-059 on infarct volume after transient or permanent middle cerebral artery occlusion in the rat; studies on dose, plasma concentration and therapeutic time window. Br J Pharmacol 135: 103–112, 2002.
Minematsu K, Fisher M, Li L, Davis MA, Knapp AG, Cotter RE, McBumey RN, et al. Effects of a novel NMDA antagonist on experimental stroke rapidly and quantitatively assessed by diffusion-weighted MRI. Neurology 43: 397–403, 1993.
Yrjanheikki J, Tikka T, Keinanen R, Goldsteins G, Chan PH, Koistinaho J. A tetracycline derivative, minocycline, reduces inflammation and protects against focal cerebral ischemia with a wide therapeutic window. Proc Natl Acad Sci USA 96: 13496–13500, 1999.
Linnik MD, Miller JA, Sprinkle-Cavallo J, Mason PJ, Thompson FY, Montgomery LR, et al. Apoptotic DNA fragmentation in the rat cerebral cortex induced by permanent middle cerebral artery occlusion. Brain Res Mol Brain Res 32: 116–124, 1995.
Li Y, Chopp M, Jiang N, Yao F, Zaloga C. Temporal profile of in situ DNA fragmentation after transient middle cerebral artery occlusion in the rat. J Cereb Blood Flow Metab 15: 389–397, 1995.
Takagi K, Zhao W, Busto R, Ginsberg MD. Local hemodynamic changes during transient middle cerebral artery occlusion and recirculation in the rat: a [14C]iodoantipyrine autoradiographic study. Brain Res 691: 160–168, 1995.
Gillardon F, Lenz C, Waschke KF, Krajewski S, Reed JC, Zimmermann M, Kuschinsky W. Altered expression of Bcl-2, Bcl-X, Bax, and c-Fos colocalizes with DNA fragmentation and ischemic cell damage following middle cerebral artery occlusion in rats. Brain Res Mol Brain Res 40: 254–260, 1996.
Schmidt-Kastner R, Truettner J, Zhao W, Belayev L, Krieger C, Busto R, et al. Differential changes of bax, caspase-3 and p21 mRNA expression after transient focal brain ischemia in the rat. Brain Res Mol Brain Res 79: 88–101, 2000.
Sharp FR, Lu A, Tang Y, Millhom DE. Multiple molecular penumbras after focal cerebral ischemia. J Cereb Blood Flow Metab 20: 1011–1132, 2000.
Wang XK, Yue T-L, Barone FC, White RF, Young PR, McDonnell PC, et al. Concomitant cortical expression of TNFα and IL-1β mRNA following transient focal ischemia. Mol Chem Neuropathol 23: 103–114, 1994.
Zhang Rl, Chopp M, Chen H, Garcia JH. Temporal profile of ischemic damage, neutrophil response, and vascular plugging following permanent and transient (2H) middle cerebral artery occlusion in the rat. J Neurol Sci 125: 3–10, 1994.
Yokota C, Kaji T, Kuge Y, Inoue H, Tamaki N, Minematsu K. Temporal and topographic profiles of cyclooxygenase-2 expression during 24 h of focal brain ishemia in rats. Neurosci Lett 357: 219–222, 2004.
Zhu DY, Deng Q, Yao HH, Wang DC, Deng Y, Liu GQ. Inducible nitric oxide synthase expression in the ischemic core and penumbra after transient focal cerebral ischemia in mice. Life Sci 71: 1985–1996, 2002.
Nagayama T, Lan J, Henshall DC, Chen D, O’Horo C, Simon RP, Chen J. Induction of oxidative DNA damage in the peri-infarct region after permanent focal cerebral ischemia. J Neurochem 75: 1716–1728, 2000.
Tsuchiya D, Hong S, Kayama T, Panter SS, Weinstein PR. Effect of suture size and carotid clip application upon blood flow and infarct volume after permanent and temporary middle cerebral artery occlusion in mice. Brain Res 970: 131–139, 2003.
Barber PA, Hoyte L, Colboume F, Buchan AM. Temperature-regulated model of focal ischemia in the mouse: a study with histopathological and behavioral outcomes. Stroke 5: 1720–1725, 2004.
Connolly ES, Winfree CJ, Stem DM, Solomon RA, Pinsky DJ. Procedural and strain-related variables signficantly affect outcome in a murine model of focal cerebral ischemia. Neurosurgery 38: 523–532, 1996.
Maeda K, Hata R, Hossmann KA. Regional metabolic disturbances and cerebrovascular anatomy after permanent middle cerebral artery occlusion in C57Black/6 and SV129. Neurobiol Dis 6: 101–108, 1999.
Yang G, Kitagawa K, Matshushita K, Mabuchi T, Yagita Y, Yanagihara T, Matsumoto M. C57BL/6 stain is most susceptible to cerebral ischemia following bilateral common carotid occlusion among seven mouse strains: selective neuronal death in the murine transient forebrain ischemia. Brain Res 752: 209–218, 1997.
Majid A, He YY, Gidday JM, Kaplan SS, Gonzales ER, Park TS, et al. Differences in ischemic vulnerability to permanent cerebral ischemia among 3 common mouse strains. Stroke 31: 2707–2714, 2001.
Lambertsen KL, Gregersen R, Finsen B. Microglial-macrophage synthesis of tumor necrosis factor after focal cerebral ischemia in mice is strain dependent. J Cereb Blood Flow Metab 22: 785–797, 2002.
Sugimori H, Yao H, Ooboshi H, Ibayashi S, Iida M. Krypton laser-induced photothrombotic distal middle cerebral artery occlusion without craniectomy in mice. Brain Res Brain Res Protoc 13: 189–196, 2004.
Beckmann N. High resolution magnetic resonance angiography non-invasively reveals mouse strain differences in the cerebrovascular anatomy in vivo. Magn Reson Med 44: 252–258, 2000.
McColl BW, Carswell HV, McCulloch J, Horsburgh K. Extension of cerebral hypoperfusion and ischaemic pathology beyond MCA territory after intraluminal filament occlusion in C57B1/6J mice. Brain Res 997: 15–23, 2004.
Furuya K, Kawahara N, Kawai K, Toyoda T, Maeda K, et al. Proximal occlusion of the middle cerebral artery in C57Black6 mice: relationship of patency of the posterior communicating artery, infarct evolution, and animal survival. J Neurosurg 100: 97–105, 2004.
Schauwecker PE, Steward O. Genetic determinants of susceptibility to excitotoxic cell death: implications for gene targeting approaches. Proc Natl Acad Sci USA 94: 4103–4108, 1997.
Femandes C, Paya-Cano JL, Sluyter F, D’Souza U, Plomin R, Schalkwyk LC. Hippocampal gene expression profiling across eight mouse inbred strains: towards understanding the molecular basis for behaviour. Eur J Neurosci 19: 2576–2582, 2004.
Wu C, Zhan R, Qi S, Fujihara H, Taga K, Shimoji K. A forebrain ischemic preconditioning model established in C57Black/Crj6 mice. J Neurosci Methods 107: 101–106, 2001.
Belayev L, Busto R, Zhao W, Fernandez G, Ginsberg MD. Middle cerebral artery occlusion in the mouse by intraluminal suture coated with poly-L-lysine: neurological and histological validation. Brain Res 833: 181–190, 1999.
Hermann DM, Kilc E, Hata R, Hossman KA, Mies G. Relationship between metabolic dysfunctions, gene responses and delayed cell death after mild focal cerebral ischemia in mice. Neurosience 104: 947–955, 2000.
Hata R, Maeda K, Hermann D, Mies G, Hossmann KA. Dynamics of regional brain metabolism and gene expression after middle cerebral artery occlusion in mice. J Cereb Blood Flow Metab 20: 306–315, 2000.
Hata R, Maeda K, Hermann D, Mies G, Hossmann KA. Evolution of brain infarction after transient focal cerebral ischemia in mice. J Cereb Blood Flow Metab 20: 937–946, 2000.
Vexler ZS, Roberts TP, Bollen AW, Derugin N, Arieff AI. Transient cerebral ischemia. Association of apoptosis induction with hypoperfusion. J Clin Invest 99: 1453–1459, 1997.
Toyota S, Graf R, Valentino M, Yoshimine T, Heiss WD. Malignant infarction in cats after prolonged middle cerebral artery occlusion: glutamate elevation related to decrease of cerebral perfusion pressure. Stroke 33: 1383–1391, 2002.
Dohman C, Bosche B, Graf R, Staub F, Kracht L, Sobesky J, et al. Prediction of malignant course in MCA infarction by PET and microdialysis. Stroke 34: 2152–2158, 2003.
Thomalla G, Kucinski T, Schoder V, Fiehler J, Knab R, Zeummer H, et al. J. Prediction of malignant middle cerebral artery infarction by early perfusion-and diffusion-weighted magnetic resonance imaging. Stroke 34: 1892–1900, 2003.
Tamura A, Graham DI, McCulloch J, Teasdale GM. Focal cerebral ischemia in the rat: 1. Description of technique and early neuropathological consequences following middle cerebral artery occlusion. J Cereb Blood Flow Met 1: 53–60, 1981.
Herz RC, Kasbergen CM, Hillen B, Versteeg DH, de Wildt DJ. Rat middle cerebral artery occlusion by an intraluminal thread compromises collateral blood flow. Brain Res 791: 223–228, 1998.
Guegan C, Sola B. Early and sequential recruitment of apoptotic effectors after focal permanent ischemia in mice. Brain Res 856: 93–100, 2000.
Chen ST, Hsu CY, Hogan EL, Marico H, Balentine JD. A model of focal ischemic stroke in the rat: reproducible extensive cortical infarction. Stroke 17: 738–743, 1986.
Rubino GJ, Young W. Ischemic cortical lesions after permanent occlusion of the individual middle cerebral artery branches in rats. Stroke 19: 870–877, 1988.
Brint S, Jacewicz M, Kiessling M, Tanabe J, Pulsinelli W. Focal brain ischemia in the rat: methods for reproducible neocortical infarction using tandem occlusion of the distal middle cerebral and ipsilateral common carotid arteries. J Cereb Blood Flow Metab 8: 474–483, 1988.
Yanamoto H, Nagata I, Niitsu Y, Xue J, Zhang Z, Kikuchi H. Evaluation of MCAO stroke models in normotensive rats: standardized neocortical infarction by the 3VO tecnique. Exp Neurol 182: 261–274, 2003.
Buchan AM, Xue D, Slivka A. A new model of temporary focal neocortical ischemia in the rat. Stroke 23: 273–279, 1992.
Lin TN, Sun SW, Cheung WM, Li F, Chang C. Dynamic changes in cerebral blood flow and angiogenesis after transient focal cerebral ischemia in rats. Stroke 33: 2985–2991, 2002.
Herz RC, Hillen B, Versteeg DH, De Wildt DJ. Collateral hemodynamics after middle cerebral artery occlusion in Wistar and Fischer-344 rats. Brain Res 793: 289–296, 1998.
Gerriets T, Li F, Silva MD, Meng X, Brevard M, Sotak CH, Fisher M. The macrosphere model: evaluation of a new stroke model for permanent middle cerebral artery occlusion in rats. J Neurosci Methods 122: 201–211, 2003.
Miyake M, Takeo S, Kaijihara H. Sustained decrease in regional blood flow after microsphere injection in rats. Stroke 24: 415–420, 1993.
Mayzel-Oreg O, Omae T, Kazemi M, Li F, Fisher M, Cohen Y, et al. Microsphere-induced embolie stroke: an MRI study. Magn Reson Med 51: 1232–1238, 2004.
Zhang Z, Zhang RL, Jiang Q, Raman SB, Cantwell L, Chopp M. A new rat model of thrombotic focal cerebral ischemia. J Cereb Blood Flow Metab 17: 123–135, 1997.
Beech JS, Williams SC, Campbell CA, Bath PM, Parsons AA, Hunter AJ, et al. Further characterisation of a thromboembolic model of stroke in the rat. Brain Res 895: 18–24, 2001.
Wang CX, Todd KG, Yang Y, Gordon T, Shuaib A. Patency of cerebral microvessels after focal embolie stroke in the rat. J Cereb Blood Flow Metab 21: 413–421, 2001.
Niessen F, Hilger T, Hoehn M, Hossmann KA. Differences in clot preparation determine outcome of recombinant tissue plasminogen activator treatment in experimental thromboembolic stroke. Stroke 34: 2019–2024, 2003.
Watson BD, Dietrich WD, Busto R, Wachtel MS, Ginsberg MD. Induction of reproducible brain infarction by photochemically initiated thrombosis. Ann Neurol 17: 497–504, 1985.
Dietrich WD, Ginsberg MD, Busto R, Watson BD. Photochemically induced cortical infarction in the rat. 2. Acute and subacute alterations in local glucose utilization. J Cereb Blood Flow Metab 6: 195–202, 1986.
Dietrich WD, Watson BD, Busto R, Ginsberg MD. Metabolic plasticity following cortical infarction: a 2-deoxyglucose study. In: Cerebrovascular disorders (Raichel ME, Powers WJ, eds), pp 285–295. New York: Raven Press, 1987.
Que M, Schiene K, Witte OW, Zilles K. Widespread up-regulation of N-methyl-D-aspartate receptors after focal photothrombotic lesion in rat brain. Neurosci Lett 273: 77–80, 1999.
Braun JS, Jander S, Schroeter M, Witte OW, Stoll G. Spatiotemporal relationship of apoptotic cell death to lymphomonocytic infiltration in photochemically induced focal ischemia of the rat cerebral cortex. Acta Neuropathol (Bert) 92: 255–263, 1996.
Kim GW, Sugawara T, Chan PH. Involvement of oxidative stress and caspase-3 in cortical infarction after photothrombotic ischemia in mice. J Cereb Blood Flow Metab 20: 1690–1701, 2000.
Schroeter M, Jander S, Huitinga I, Witte OW, Stoll G. Phagocytic response in photochemically induced infarction of rat cerebral cortex. The role of resident microglia. Stroke 28: 382–386, 1997.
Jander S, Schroeter M, Stoll G. Role of NMDA receptor signaling in the regulation of inflammatory gene expression after focal brain ischemia. J Neuroimmunol 109: 181–187, 2000.
Hayashi T, Sakurai M, Itoyama Y, Abe K. Oxidative damage and breakage of DNA in rat brain after transient MCA occlusion. Brain Res 832: 159–163, 1999.
Katsman D, Zheng J, Spinelli K, Carmichael ST. Tissue micro-environments within functional cortical subdivisions adjacent to focal stroke. J Cereb Blood Flow Metab 23: 997–1009, 2003.
van Bruggen N, Cullen BM, King MD, Doran M, Williams SR, Gadian DG, et al. T2- and diffusion-weighted magnetic resonance imaging of a focal ischemic lesion in rat brain. Stroke 23: 576–582, 1992.
Lee VM, Burdett NG, Carpenter A, Hall LD, Pambakian PS, Patel S, Wood NI, James MF. Evolution of photochemically induced focal cerebral ischemia in the rat. Magnetic resonance imaging and histology. Stroke 27: 2110–2118, 1996.
Provenzale JM, Jahan R, Naidich TP, Fox AJ. Assessment of the patient with hyperacute stroke: imaging and therapy. Radiology 229: 347–359, 2003.
Albensi BC, Knoblach SM, Chew BG, O’Reilly MP, Faden AI, Pekar JJ. Diffusion and high resolution MRI of traumatic brain injury in rats: time course and correlation with histology. Exp Neurol 162: 61–72, 2000.
Schneider G, Fries P, Wagner-Jochem D, Thome D, Laurer H, Kramann B, et al. Pathophysiological changes after traumatic brain injury: comparison of two experimental animal models by means of MRI. MAGMA 14: 233–241, 2003.
Hu X, Wester P, Brannstrom T, Watson BD, Gu W. Progressive and reproducible focal cortical ischemia with or without late spontaneous reperfusion generated by a ring-shaped, laser-driven photothrombotic lesion in rats. Brain Res Brain Res Protoc 7: 76–85, 2001.
Witte OW, Stoll G. Delayed and remote effects of focal cortical infarctions: secondary damage and reactive plasticity. Adv Neurol 73: 207–227, 1997.
Hagemann G, Redecker C, Neumann-Haefelin T, Freund HJ, Witte OW. Increased long-term potentiation in the surround of experimentally induced focal cortical infarction. Ann Neurol 44: 255–258, 1998.
Neumann-Haefelin T, Staiger JF, Redecker C, Zilles K, Fritschy JM, Mohler H, et al. Immunohistochemical evidence for dysregulation of the GABAergic system ipsilateral to photochemically induced cortical infarcts in rats. Neuroscience 87: 871–879, 1998.
Carmichael ST, Wei L, Rovainen CM, Woolsey TA. New patterns of intracortical projections after focal cortical stroke. Neurobiol Dis 8: 910–922, 2001.
Arvidsson A, Collin T, Kirik D, Kokaia Z, Lindvall O. Neuronal replacement from endogenous precursors in the adult brain after stroke. Nat Med 8: 963–970, 2002.
Parent JM, Vexler ZS, Gong C, Derugin N, Ferriero DM. Rat forebrain neurogenesis and striatal neuron replacement after focal stroke. Ann Neurol 52: 802–813, 2002.
Nudo RJ, Wise BM, SiFuentes F, Milliken GW. Neural substrates for the effects of rehabilitative training on motor recovery after ischemic infarct. Science 272: 1791–1794, 1996.
Longa EZ, Weinstein PR, Carlson S, Cummins R. Reversible middle cerebral artery occlusion without craniectomy in rats. Stroke 20: 84–91, 1989.
Cox SB, Woolsey TA, Rovainen CM. Localized dynamic changes in cortical blood flow with whisker stimulation corresponds to matched vascular and neuronal architecture of rat barrels. J Cereb Blood Flow Metab 13: 899–913, 1993.
Wei L, Rovainen CM, Woolsey TA. Ministrokes in rat barrel cortex. Stroke 26: 1459–1462, 1995.
Li S, Zheng J, Carmichael ST. Increased oxidative protein and DNA damage but decreased stress response in the aged brain following experimental stroke. Neurobiol Dis 18: 432–440, 2005.
Carmichael ST, Archibeque I, Luke L, Nolan T, Momiy J, Li S. Growth-associated gene expression after stroke: evidence for a regenerative zone in peri-infarct cortex. Exp Neurol, in press.
Masaki T, Yanagisawa M. Endothelins. Essays Biochem 27: 79–89, 1992.
Hughes PM, Anthony DC, Ruddin M, Botham MS, Rankine EL, Sablone M, et al. Focal lesions in the rat central nervous system induced by endothelin-1. J Neuropathol Exp Neurol 62: 1276–1286, 2003.
Fuxe K, Bjelke B, Andbjer B, Grahn H, Rimondini R, Agnati LF. Endothelin-1 induced lesions of the frontoparietal cortex of the rat. A possible model of focal cortical ischemia. Neuroreport 8: 2623–2629, 1997.
Adkins-Muir DL, Jones TA. Cortical electrical stimulation combined with rehabilitative training: enhanced functional recovery and dendritic plasticity following focal cortical ischemia in rats. Neurol Res 25: 780–788, 2003.
Luke LM, Allied RP, Jones TA. Unilateral ischemic sensorimotor cortical damage induces contralesional synaptogenesis and enhances skilled reaching with the ipsilateral forelimb in adult male rats. Synapse, in press.
Gilmour G, Iversen SD, O’Neill MF, Bannerman DM. The effects of intracortical endothelin-1 injections on skilled forelimb use: implications for modelling recovery of function after stroke. Behav Brain Res 150: 171–183, 2004.
Nakagomi S, Kiryu-Seo S, Kiyama H. Endothelin-converting enzymes and endothelin receptor B messenger RNAs are expressed in different neural cell species and these messenger RNAs are coordinately induced in neurons and astrocytes respectively following nerve injury. Neuroscience 101: 441–449, 2000.
Naidoo V, Naidoo S, Mahabeer R, Raidoo DM. Cellular distribution of the endothelin system in the human brain. J Chem Neuroanat 27: 87–98, 2004.
Uesugi M, Kasuya Y, Hama H, Yamamoto M, Hayashi K, Masaki T, Goto K. Endogenous endothelin-1 initiates astrocytic growth after spinal cord injury. Brain Res 728: 255–259, 1996.
Uesugi M, Kasuya Y, Hayashi K, Goto K. SB209670, a potent endothelin receptor antagonist, prevents or delays axonal degeneration after spinal cord injury. Brain Res 786: 235–259, 1998.
Tagaya M, Liu KF, Copeland B, Seiffert D, Engler R, Garcia JH, et al. DNA scission after focal brain ischemia. Temporal differences in two species. Stroke 28: 1245–1254, 1997.
Fukuda S, del Zoppo GJ. Models of focal cerebral ischemia in the nonhuman primate. ILAR J 44: 96–104, 2004.
Belayev L, Khoutorova L, Xhang Y, Belayev A, Zhao W, Busto R, et al. Caffeinol confers cortical but not subcortical neuroprotection after transient focal cerebral ischemia in rats. Brain Res 1008: 278–283, 2004.
Inoue S, Drummond JC, Davis DP, Cole DJ, Patel PM. Combination of isoflurane and caspase inhibition reduces cerebral injury in rats subjected to focal cerebral ischemia. Anesthesiology 101: 75–81, 2004.
Matucz E, Moricz K, Gigler G, Simo A, Barkoczy J, Levay G, et al. Reduction of cerebral infarct size by non-competitive AMPA antagonists in rats subjected to permanent and transient focal ischemia. Brain Res 1019: 210–216, 2004.
Cervera A, Justicia C, Reverter JC, Planas AM, Chamorro A. Steady plasma concentration of unfractionated heparin reduces infarct volume and prevents inflammatory damage after transient focal cerebral ischemia in the rat. J Neurosci Res 77: 565–572, 2004.
Virley D, Beech JS, Smart SC, Williams SC, Hodges H, Hunter AJ. A temporal MRI assessment of neuropathology after transient middle cerebral artery occlusion in the rat: correlations with behavior. J Cereb Blood Flow Metab 20: 563–582, 2000.
Andrabi SA, Spina MG, Lorenz P, Ebmeyer U, Wolf G, Horn TF. Oxyresveratrol (trans-2,3′,4,5′-tetrahydroxystilbene) is neuroprotective and inhibits the apoptotic cell death in transient cerebral ischemia. Brain Res 1017: 98–107, 2004.
Petty MA, Neumann-Haefelin C, Kalisch J, Sarhan S, Wettstein JG, Juretschke HP. In vivo neuroprotective effects of ACEA 1021 confirmed by magnetic resonance imaging in ischemic stroke. Eur J Pharmacol 474: 53–62, 2003.
Williams AJ, Hale SL, Moffett JR, Dave JR, Elliott PJ, Adams J, et al. Delayed treatment with MLN519 reduces infarction and associated neurologic deficit caused by focal ischemic brain injury in rats via antiinflammatory mechanisms involving nuclear factor-κB activation, gliosis, and leukocyte infiltration. J Cereb Blood Flow Metab 23: 75–87, 2003.
Andersen M, Overgaard K, Meden P, Boysen G, Choi SC. Effects of citicoline combined with thrombolytic therapy in a rat embolie stroke model. Stroke 30: 1464–1471, 1999.
Takamatsu H, Tatsumi M, Nitta S, Ichise R, Muramatsu K, Iida M, et al. Time courses of progress to the chronic stage of middle cerebral artery occlusion models in rats. Exp Brain Res 146: 95–102, 2002.
Boutin H, LeFeuvre RA, Horai R, Asano M, Iwakura Y, Rothwell NJ. Role of IL-1α and IL-1β in ischemic brain damage. J Neurocsi 21: 5528–5534, 2001.
Borsello T, Clarke PG, Hirt L, Vercelli A, Repici M, Schorderet DF, Bogousslavsky J, Bonny C. A peptide inhibitor of c-Jun N-terminal kinase protects against excitotoxicity and cerebral ischemia. Nat Med 9: 1180–1186, 2003.
Yu F, Sugawara T, Chan PH. Treatment with dihydroethidium reduces infarct size after transient focal cerebral ischemia in mice. Brain Res 978: 223–227, 2003.
Gibson CL, Murphy SP. Progesterone enhances functional recovery after middle cerebral artery occlusion in male mice. J Cereb Blood Flow Metab 24: 805–813, 2004.
Luo Y, Qin Z, Hong Z, Zhang X, Ding D, Fu JH, et al. Astragaloside IV protects against ischemic brain injury in a murine model of transient focal ischemia. Neurosci Lett 363: 218–223, 2004.
Wexler EJ, Peters EE, Gonzales A, Gonzales ML, Slee AM, Kerr JS. An objective procedure for ischemic area evaluation of the stroke intraluminal thread model in the mouse and rat. J Neurosci Methods 113: 51–58, 2002.
Shichinohe H, Kuroda S, Abumiya T, Ikeda J, Kobayashi T, Yoshimoto T, et al. FK506 reduces infarct volume due to permanent focal cerebral ischemia by maintaining BAD turnover and inhibiting cytochrome c release. Brain Res 1001: 51–519, 2004.
Yanamoto H, Nagata I, Hashimoto N, Kikuchi H. Three-vessel occlusion using a micro-clip for the proximal left middle cerebral artery produces a reliable neocortical infarct in rats. Brain Res Brain Res Protoc 3: 209–220, 1998.
McDaniel B, Sheng H, Warner DS, Hedlund LW, Benveniste H. Tracking brain volume changes in C57BL/6J and ApoE-deficient mice in a model of neurodegeneration: a 5-week longitudinal micro-MRI study. Neuroimage 14: 1244–1255, 2001.
Saver JL, Johnston KC, Homer D, Wityk R, Koroshetz W, Truskowski LL, Haley EC. Infarct volume as a surrogate or auxiliary outcome measure in ischemic stroke clinical trials. The RANT-TAS Investigators. Stroke 30: 293–298, 1999.
Mori K, Aoki A, Yamamoto T, Horinaka N, Maeda M. Aggressive decompressive surgery in patients with massive hemispheric embolie cerebral infarction associated with severe brain swelling. Acta Neurochir (Wien) 143: 483–491, 2001.
Oppenheim C, Samson Y, Manai R, Lalam T, Vandamme X, Crozier S, et al. Prediction of malignant middle cerebral artery infarction by diffusion-weighted imaging. Stroke 31: 2175–2181, 2000.
Foerch C, Otto B, Singer OC, Neumann-Haefelin T, Yan B, Berkefeld J, et al. Serum S100B predicts a malignant course of infarction in patients with acute middle cerebral artery occlusion. Stroke 35: 2160–2164, 2004.
Kim JH, Yenari MA, Giffard RG, Cho SW, Park KA, Lee JE. Agmatine reduces infarct area in a mouse model of transient focal cerebral ischemia and protects cultured neurons from ischemia-like injury. Exp Neurol 189: 122–130, 2004.
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Carmichael, S.T. Rodent models of focal stroke: Size, mechanism, and purpose. Neurotherapeutics 2, 396–409 (2005). https://doi.org/10.1602/neurorx.2.3.396
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DOI: https://doi.org/10.1602/neurorx.2.3.396