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Recording, analysis, and interpretation of spreading depolarizations in neurointensive care: Review and recommendations of the COSBID research group

Authors :
Dreier, Jens P.
Fabricius, Martin
Ayata, Cenk
Sakowitz, Oliver W.
Shuttleworth, C. William
Dohmen, Christian
Graf, Rudolf
Vajkoczy, Peter
Helbok, Raimund
Suzuki, Michiyasu
Schiefecker, Alois J.
Major, Sebastian
Winkler, Maren K. L.
Kang, Eun-Jeung
Milakara, Denny
Oliveira-Ferreira, Ana I.
Reiffurth, Clemens
Revankar, Gajanan S.
Sugimoto, Kazutaka
Dengler, Nora F.
Hecht, Nils
Foreman, Brandon
Feyen, Bart
Kondziella, Daniel
Friberg, Christian K.
Piilgaard, Henning
Rosenthal, Eric S.
Westover, M. Brandon
Maslarova, Anna
Santos, Edgar
Hertle, Daniel
Sanchez-Porras, Renan
Jewell, Sharon L.
Balanca, Baptiste
Platz, Johannes
Hinzman, Jason M.
Lueckl, Janos
Schoknecht, Karl
Schoell, Michael
Drenckhahn, Christoph
Feuerstein, Delphine
Eriksen, Nina
Horst, Viktor
Bretz, Julia S.
Jahnke, Paul
Scheel, Michael
Bohner, Georg
Rostrup, Egill
Pakkenberg, Bente
Heinemann, Uwe
Claassen, Jan
Carlson, Andrew P.
Kowoll, Christina M.
Lublinsky, Svetlana
Chassidim, Yoash
Shelef, Ilan
Friedman, Alon
Brinker, Gerrit
Reiner, Michael
Kirov, Sergei A.
Andrew, R. David
Farkas, Eszter
Gueresir, Erdem
Vatter, Hartmut
Chung, Lee S.
Brennan, K. C.
Lieutaud, Thomas
Marinesco, Stephane
Maas, Andrew I. R.
Sahuquillo, Juan
Dahlem, Markus A.
Richter, Frank
Herreras, Oscar
Boutelle, Martyn G.
Okonkwo, David O.
Bullock, M. Ross
Witte, Otto W.
Martus, Peter
van den Maagdenberg, Arn M. J. M.
Ferrari, Michel D.
Dijkhuizen, Rick M.
Shutter, Lori A.
Andaluz, Norberto
Schulte, Andre P.
MacVicar, Brian
Watanabe, Tomas
Woitzik, Johannes
Lauritzen, Martin
Strong, Anthony J.
Hartings, Jed A.
Dreier, Jens P.
Fabricius, Martin
Ayata, Cenk
Sakowitz, Oliver W.
Shuttleworth, C. William
Dohmen, Christian
Graf, Rudolf
Vajkoczy, Peter
Helbok, Raimund
Suzuki, Michiyasu
Schiefecker, Alois J.
Major, Sebastian
Winkler, Maren K. L.
Kang, Eun-Jeung
Milakara, Denny
Oliveira-Ferreira, Ana I.
Reiffurth, Clemens
Revankar, Gajanan S.
Sugimoto, Kazutaka
Dengler, Nora F.
Hecht, Nils
Foreman, Brandon
Feyen, Bart
Kondziella, Daniel
Friberg, Christian K.
Piilgaard, Henning
Rosenthal, Eric S.
Westover, M. Brandon
Maslarova, Anna
Santos, Edgar
Hertle, Daniel
Sanchez-Porras, Renan
Jewell, Sharon L.
Balanca, Baptiste
Platz, Johannes
Hinzman, Jason M.
Lueckl, Janos
Schoknecht, Karl
Schoell, Michael
Drenckhahn, Christoph
Feuerstein, Delphine
Eriksen, Nina
Horst, Viktor
Bretz, Julia S.
Jahnke, Paul
Scheel, Michael
Bohner, Georg
Rostrup, Egill
Pakkenberg, Bente
Heinemann, Uwe
Claassen, Jan
Carlson, Andrew P.
Kowoll, Christina M.
Lublinsky, Svetlana
Chassidim, Yoash
Shelef, Ilan
Friedman, Alon
Brinker, Gerrit
Reiner, Michael
Kirov, Sergei A.
Andrew, R. David
Farkas, Eszter
Gueresir, Erdem
Vatter, Hartmut
Chung, Lee S.
Brennan, K. C.
Lieutaud, Thomas
Marinesco, Stephane
Maas, Andrew I. R.
Sahuquillo, Juan
Dahlem, Markus A.
Richter, Frank
Herreras, Oscar
Boutelle, Martyn G.
Okonkwo, David O.
Bullock, M. Ross
Witte, Otto W.
Martus, Peter
van den Maagdenberg, Arn M. J. M.
Ferrari, Michel D.
Dijkhuizen, Rick M.
Shutter, Lori A.
Andaluz, Norberto
Schulte, Andre P.
MacVicar, Brian
Watanabe, Tomas
Woitzik, Johannes
Lauritzen, Martin
Strong, Anthony J.
Hartings, Jed A.
Publication Year :
2017

Abstract

Spreading depolarizations (SD) are waves of abrupt, near-complete breakdown of neuronal transmembrane ion gradients, are the largest possible pathophysiologic disruption of viable cerebral gray matter, and are a crucial mechanism of lesion development. Spreading depolarizations are increasingly recorded during multimodal neuromonitoring in neuro-critical care as a causal biomarker providing a diagnostic summary measure of metabolic failure and excitotoxic injury. Focal ischemia causes spreading depolarization within minutes. Further spreading depolarizations arise for hours to days due to energy supply-demand mismatch in viable tissue. Spreading depolarizations exacerbate neuronal injury through prolonged ionic breakdown and spreading depolarization-related hypoperfusion (spreading ischemia). Local duration of the depolarization indicates local tissue energy status and risk of injury. Regional electrocorticographic monitoring affords even remote detection of injury because spreading depolarizations propagate widely from ischemic or metabolically stressed zones; characteristic patterns, including temporal clusters of spreading depolarizations and persistent depression of spontaneous cortical activity, can be recognized and quantified. Here, we describe the experimental basis for interpreting these patterns and illustrate their translation to human disease. We further provide consensus recommendations for electrocorticographic methods to record, classify, and score spreading depolarizations and associated spreading depressions. These methods offer distinct advantages over other neuromonitoring modalities and allow for future refinement through less invasive and more automated approaches.

Details

Database :
OAIster
Notes :
English
Publication Type :
Electronic Resource
Accession number :
edsoai.on1201324011
Document Type :
Electronic Resource