Recanalization and reperfusion in clinically-relevant porcine model of stroke

Stroke is a leading cause of death and long-term disability. Pigs have been considered an ideal large animal model in biomedicine; however, the complex vascular anatomy has posed challenges for stroke research. Nonetheless, we have previously overcome these limitations and demonstrated the feasibili...

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Published inFrontiers in neuroscience Vol. 19; p. 1572925
Main Authors Nowak, Błażej, Holak, Piotr, Małysz-Cymborska, Izabela, Chovsepian, Alexandra, Dening, Yanina, Olszewski, Jarosław, Piecuch, Aleksandra, Jasieniak, Maria, Jasieniak, Jakub, Szterk, Arkadiusz, Sady, Maria, Ferenc, Karolina, Berchtold, Daniel, Jabłoński, Artur, Zabielski, Romuald, Gajewski, Zdzisław, Magnus, Tim, Janowski, Mirosław, Walczak, Piotr, Meisel, Andreas, Pan-Montojo, Francisco, Gołubczyk, Dominika
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LanguageEnglish
Published Switzerland Frontiers Media S.A 05.06.2025
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Abstract Stroke is a leading cause of death and long-term disability. Pigs have been considered an ideal large animal model in biomedicine; however, the complex vascular anatomy has posed challenges for stroke research. Nonetheless, we have previously overcome these limitations and demonstrated the feasibility of endovascularly inducing stroke in pigs. Here, we study to further mimic clinical situation by achieving recanalization, which has not been previously accomplished. A stroke was induced in eight juvenile male domestic pigs. In anaestethised animals catheter was placed in the ascending pharyngeal artery near the rete mirabile (RM) under X-ray guidance. The animals were then transferred to an MRI scanner. Gadolinium-based contrast agent (GBCA) was infused at various speeds until transcatheter cerebral perfusion was visible on MRI. Subsequently, a mixture of thrombin and GBCA was infused, and the retention of contrast on MRI scans proved successful induction of thrombosis. Subsequent DWI and PWI MR images confirmed the successful induction of stroke. Two hours after ischemia, we intra-arterially infused rtPA (20 mg) and confirmed recanalization of the thrombosed vessels using MRI. One month later the stroke was confirmed through follow-up MRI scans and post-mortem histological and immunohistochemical analyses. We successfully induced stroke with an average lesion size based on ADC at 8.18 ± 4.98 cm , ranging from 3.27 to 17.33 cm . After recanalization, the severely hypoperfused area (Tmax>6) was only 1.168 ± 0.223 cm . Subsequent histological analysis revealed neuronal loss within the lesion, the formation of astrocytic scar tissue, and elevated levels of activated microglia. Our study demonstrates the successful recanalization of cerebral vasculature in porcine model of ischemic stroke. It makes the model highly relevant to the current clinical workflow and offers an attractive avenue for studying novel diagnostics, therapeutics and further exploration of the underlying pathomechanisms. The feasibility of continuous MR imaging throughout the entire procedure facilitates the achievement of the aforementioned goals more readily.
AbstractList Stroke is a leading cause of death and long-term disability. Pigs have been considered an ideal large animal model in biomedicine; however, the complex vascular anatomy has posed challenges for stroke research. Nonetheless, we have previously overcome these limitations and demonstrated the feasibility of endovascularly inducing stroke in pigs. Here, we study to further mimic clinical situation by achieving recanalization, which has not been previously accomplished. A stroke was induced in eight juvenile male domestic pigs. In anaestethised animals catheter was placed in the ascending pharyngeal artery near the rete mirabile (RM) under X-ray guidance. The animals were then transferred to an MRI scanner. Gadolinium-based contrast agent (GBCA) was infused at various speeds until transcatheter cerebral perfusion was visible on MRI. Subsequently, a mixture of thrombin and GBCA was infused, and the retention of contrast on MRI scans proved successful induction of thrombosis. Subsequent DWI and PWI MR images confirmed the successful induction of stroke. Two hours after ischemia, we intra-arterially infused rtPA (20 mg) and confirmed recanalization of the thrombosed vessels using MRI. One month later the stroke was confirmed through follow-up MRI scans and post-mortem histological and immunohistochemical analyses. We successfully induced stroke with an average lesion size based on ADC at 8.18 ± 4.98 cm , ranging from 3.27 to 17.33 cm . After recanalization, the severely hypoperfused area (Tmax>6) was only 1.168 ± 0.223 cm . Subsequent histological analysis revealed neuronal loss within the lesion, the formation of astrocytic scar tissue, and elevated levels of activated microglia. Our study demonstrates the successful recanalization of cerebral vasculature in porcine model of ischemic stroke. It makes the model highly relevant to the current clinical workflow and offers an attractive avenue for studying novel diagnostics, therapeutics and further exploration of the underlying pathomechanisms. The feasibility of continuous MR imaging throughout the entire procedure facilitates the achievement of the aforementioned goals more readily.
Stroke is a leading cause of death and long-term disability. Pigs have been considered an ideal large animal model in biomedicine; however, the complex vascular anatomy has posed challenges for stroke research. Nonetheless, we have previously overcome these limitations and demonstrated the feasibility of endovascularly inducing stroke in pigs. Here, we study to further mimic clinical situation by achieving recanalization, which has not been previously accomplished.IntroductionStroke is a leading cause of death and long-term disability. Pigs have been considered an ideal large animal model in biomedicine; however, the complex vascular anatomy has posed challenges for stroke research. Nonetheless, we have previously overcome these limitations and demonstrated the feasibility of endovascularly inducing stroke in pigs. Here, we study to further mimic clinical situation by achieving recanalization, which has not been previously accomplished.A stroke was induced in eight juvenile male domestic pigs. In anaestethised animals catheter was placed in the ascending pharyngeal artery near the rete mirabile (RM) under X-ray guidance. The animals were then transferred to an MRI scanner. Gadolinium-based contrast agent (GBCA) was infused at various speeds until transcatheter cerebral perfusion was visible on MRI. Subsequently, a mixture of thrombin and GBCA was infused, and the retention of contrast on MRI scans proved successful induction of thrombosis. Subsequent DWI and PWI MR images confirmed the successful induction of stroke. Two hours after ischemia, we intra-arterially infused rtPA (20 mg) and confirmed recanalization of the thrombosed vessels using MRI. One month later the stroke was confirmed through follow-up MRI scans and post-mortem histological and immunohistochemical analyses.MethodsA stroke was induced in eight juvenile male domestic pigs. In anaestethised animals catheter was placed in the ascending pharyngeal artery near the rete mirabile (RM) under X-ray guidance. The animals were then transferred to an MRI scanner. Gadolinium-based contrast agent (GBCA) was infused at various speeds until transcatheter cerebral perfusion was visible on MRI. Subsequently, a mixture of thrombin and GBCA was infused, and the retention of contrast on MRI scans proved successful induction of thrombosis. Subsequent DWI and PWI MR images confirmed the successful induction of stroke. Two hours after ischemia, we intra-arterially infused rtPA (20 mg) and confirmed recanalization of the thrombosed vessels using MRI. One month later the stroke was confirmed through follow-up MRI scans and post-mortem histological and immunohistochemical analyses.We successfully induced stroke with an average lesion size based on ADC at 8.18 ± 4.98 cm3, ranging from 3.27 to 17.33 cm3. After recanalization, the severely hypoperfused area (Tmax>6) was only 1.168 ± 0.223 cm3. Subsequent histological analysis revealed neuronal loss within the lesion, the formation of astrocytic scar tissue, and elevated levels of activated microglia.ResultsWe successfully induced stroke with an average lesion size based on ADC at 8.18 ± 4.98 cm3, ranging from 3.27 to 17.33 cm3. After recanalization, the severely hypoperfused area (Tmax>6) was only 1.168 ± 0.223 cm3. Subsequent histological analysis revealed neuronal loss within the lesion, the formation of astrocytic scar tissue, and elevated levels of activated microglia.Our study demonstrates the successful recanalization of cerebral vasculature in porcine model of ischemic stroke. It makes the model highly relevant to the current clinical workflow and offers an attractive avenue for studying novel diagnostics, therapeutics and further exploration of the underlying pathomechanisms. The feasibility of continuous MR imaging throughout the entire procedure facilitates the achievement of the aforementioned goals more readily.DiscussionOur study demonstrates the successful recanalization of cerebral vasculature in porcine model of ischemic stroke. It makes the model highly relevant to the current clinical workflow and offers an attractive avenue for studying novel diagnostics, therapeutics and further exploration of the underlying pathomechanisms. The feasibility of continuous MR imaging throughout the entire procedure facilitates the achievement of the aforementioned goals more readily.
IntroductionStroke is a leading cause of death and long-term disability. Pigs have been considered an ideal large animal model in biomedicine; however, the complex vascular anatomy has posed challenges for stroke research. Nonetheless, we have previously overcome these limitations and demonstrated the feasibility of endovascularly inducing stroke in pigs. Here, we study to further mimic clinical situation by achieving recanalization, which has not been previously accomplished.MethodsA stroke was induced in eight juvenile male domestic pigs. In anaestethised animals catheter was placed in the ascending pharyngeal artery near the rete mirabile (RM) under X-ray guidance. The animals were then transferred to an MRI scanner. Gadolinium-based contrast agent (GBCA) was infused at various speeds until transcatheter cerebral perfusion was visible on MRI. Subsequently, a mixture of thrombin and GBCA was infused, and the retention of contrast on MRI scans proved successful induction of thrombosis. Subsequent DWI and PWI MR images confirmed the successful induction of stroke. Two hours after ischemia, we intra-arterially infused rtPA (20 mg) and confirmed recanalization of the thrombosed vessels using MRI. One month later the stroke was confirmed through follow-up MRI scans and post-mortem histological and immunohistochemical analyses.ResultsWe successfully induced stroke with an average lesion size based on ADC at 8.18 ± 4.98 cm3, ranging from 3.27 to 17.33 cm3. After recanalization, the severely hypoperfused area (Tmax>6) was only 1.168 ± 0.223 cm3. Subsequent histological analysis revealed neuronal loss within the lesion, the formation of astrocytic scar tissue, and elevated levels of activated microglia.DiscussionOur study demonstrates the successful recanalization of cerebral vasculature in porcine model of ischemic stroke. It makes the model highly relevant to the current clinical workflow and offers an attractive avenue for studying novel diagnostics, therapeutics and further exploration of the underlying pathomechanisms. The feasibility of continuous MR imaging throughout the entire procedure facilitates the achievement of the aforementioned goals more readily.
Author Gajewski, Zdzisław
Berchtold, Daniel
Jabłoński, Artur
Nowak, Błażej
Chovsepian, Alexandra
Sady, Maria
Walczak, Piotr
Małysz-Cymborska, Izabela
Dening, Yanina
Janowski, Mirosław
Olszewski, Jarosław
Zabielski, Romuald
Jasieniak, Maria
Pan-Montojo, Francisco
Jasieniak, Jakub
Magnus, Tim
Meisel, Andreas
Ferenc, Karolina
Gołubczyk, Dominika
Szterk, Arkadiusz
Holak, Piotr
Piecuch, Aleksandra
AuthorAffiliation 7 Department of Pathology and Veterinary Diagnostics, Warsaw University of Life Sciences , Warsaw , Poland
5 Center for Translational Medicine, Warsaw University of Life Sciences , Warsaw , Poland
2 Department of Surgery and Roentgenology With a Clinic, Faculty of Veterinary Medicine, University of Warmia and Mazury in Olsztyn , Olsztyn , Poland
6 Department of Neurology with Experimental Neurology, Charité - Universitätsmedizin Berlin, Corporate Member of Freie Universität Berlin and Humboldt-Universität Zu Berlin , Berlin , Germany
12 Department of Psychiatry and Psychotherapy, Ludwig-Maximilian University Hospital , Munich , Germany
11 IIS Biogipuzkoa, Donostia University Hospital , San Sebastian , Spain
10 Department of Neurology, Neurological Clinic am Sorpesee , Sundern , Germany
8 Department of Neurology, University Medical Center Hamburg-Eppendorf , Hamburg , Germany
9 Program in Image Guided Neurointerventions, Department of Diagnostic Radiology and Nuclear Medicine, University of Mar
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Copyright © 2025 Nowak, Holak, Małysz-Cymborska, Chovsepian, Dening, Olszewski, Piecuch, Jasieniak, Jasieniak, Szterk, Sady, Ferenc, Berchtold, Jabłoński, Zabielski, Gajewski, Magnus, Janowski, Walczak, Meisel, Pan-Montojo and Gołubczyk. 2025 Nowak, Holak, Małysz-Cymborska, Chovsepian, Dening, Olszewski, Piecuch, Jasieniak, Jasieniak, Szterk, Sady, Ferenc, Berchtold, Jabłoński, Zabielski, Gajewski, Magnus, Janowski, Walczak, Meisel, Pan-Montojo and Gołubczyk
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– notice: Copyright © 2025 Nowak, Holak, Małysz-Cymborska, Chovsepian, Dening, Olszewski, Piecuch, Jasieniak, Jasieniak, Szterk, Sady, Ferenc, Berchtold, Jabłoński, Zabielski, Gajewski, Magnus, Janowski, Walczak, Meisel, Pan-Montojo and Gołubczyk. 2025 Nowak, Holak, Małysz-Cymborska, Chovsepian, Dening, Olszewski, Piecuch, Jasieniak, Jasieniak, Szterk, Sady, Ferenc, Berchtold, Jabłoński, Zabielski, Gajewski, Magnus, Janowski, Walczak, Meisel, Pan-Montojo and Gołubczyk
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Keywords ischaemic stroke
MRI
radiology
rtPA
thrombolysis
acute stroke therapy
reperfusion
stroke
Language English
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Snippet Stroke is a leading cause of death and long-term disability. Pigs have been considered an ideal large animal model in biomedicine; however, the complex...
IntroductionStroke is a leading cause of death and long-term disability. Pigs have been considered an ideal large animal model in biomedicine; however, the...
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SubjectTerms acute stroke therapy
ischaemic stroke
MRI
Neuroscience
radiology
reperfusion
rtPA
Title Recanalization and reperfusion in clinically-relevant porcine model of stroke
URI https://www.ncbi.nlm.nih.gov/pubmed/40538860
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