- Department of Neurosurgery, General Hospital of Cayenne, French Guiana
Department of Neurosurgery, General Hospital of Cayenne, French Guiana
DOI:10.4103/2152-7806.107906Copyright: © 2013 Mostofi K This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
How to cite this article: Mostofi K. Neurosurgical management of massive cerebellar infarct outcome in 53 patients. Surg Neurol Int 27-Feb-2013;4:28
How to cite this URL: Mostofi K. Neurosurgical management of massive cerebellar infarct outcome in 53 patients. Surg Neurol Int 27-Feb-2013;4:28. Available from: http://sni.wpengine.com/surgicalint_articles/neurosurgical-management-of-massive-cerebellar-infarct-outcome-in-53-patients/
Background:Massive ischemic cerebellar infarct (MICI) is a main source of stroke, which can lead to severe morbidity and mortality. There is no consensus in medical literature for the management of MICI. The choice is made between placing an external ventricular drainage, suboccipital decompressive craniectomy, and removal of necrotic tissue or conservative treatment. There are not many prospective studies, done on this subject.
Methods:We retrospectively analyzed the clinical features, and imaging studies of 53 patients with MICI who had been treated by surgery or conservative treatment between January 2000 and December 2008 at the Department of Neurosurgery of the general hospital of Fort de France in Martinique. A total of 25 patients underwent surgery and 28 were treated medically.
Results:The results show significantly better outcomes in the operated patients compared with the patients treated medically; Operated comatose patients demonstrated significant improvement in their Glasgow coma score (GCS) score with only two deaths. Whereas, nonoperated comatose patients lost points in their GCS with four deaths.
Conclusion:The results of our study suggest that surgery may be an effective procedure and quite helpful for MICI in majority of cases.
Keywords: Cerebellar infarct, external ventricular derivation, neurovascular, suboccipital craniotomy
Cerebellar infarction was described at the beginning of the 20th century but the surgical treatment was introduced much more later. It constitutes between 1% and 9-10.5% of cases in the series of patients with cerebral infarction.[
The study was performed at the Department of Neurosurgery of the general hospital of Fort de France in Martinique (French West Indies). This regional unit provides neurosurgical service for a population of 600,000 (400,000 in Martinique and 200,000 in French Guyana). We retrospectively reviewed the medical charts of patients treated in our department during the 8-year period between January 2000 and December 2008 and included the patients who had been treated for a cerebellar infarct. We excluded the patients with the infarct involving the brain stem and secondary lesions due to tumor, trauma, or other major diseases. In each patient, case notes were reviewed to record history and clinical examinations and radiological findings. Statistical analysis was performed by EPI/INFO (version 6.04d ‘Epi Info) and MS Excel.
Baseline charactereistics of patients
A total of 53 patients were identified (32 male and 21 female). They had an average age of 58.73 years. Neurological signs and symptoms were: Gait disturbances, vertigo, nausea, vomiting, headache, drowsiness, dysarthria, neck pain, sensory disturbances, double vision, lower cranial involvement, 6th palsy, hemiparesis, gaze palsy, and extensor plantar response [
We reviewed the medical charts of patients during the 8-year period from January 2000 to December 2008. According to the protocol of our department, all the patients benefited from neurological supervision every 4 hours. We chose the Glasgow coma score (GCS) and the clinical examination and NIHSS as criteria of comparison for our study. Thus we compared these criteria at admission, at the 2-week mark, and again after 4 weeks [
All patients had an imaging evaluation. The computed tomography (CT) scan was performed in 49 cases. The MRI was performed in 25 cases. All patients had, after the surgery, a CT scan control at the 2-days mark, then again 1 week after. They also underwent MR imaging 1 month later. CT scan and MRI of patients were reviewed by the principal author to assess the size of lesion or presence of acute hydrocephalus and brain stem compression. We defined MICI as ischemic volume above 5 cm3 or/and when there was hydrocephalus or brain stem compression. Ischemic volume was measured by the workstation software used in department of Radiology at our facilities. Therapeutic decisions were taken by on-call neurosurgeon or in a clinical meeting of our department for each individual patient. A total of 28 patients were treated medically. A total of 25 patients underwent surgery, in which 22 patients underwent surgery immediately and 3 patients underwent surgery a second time after clinical deterioration. The surgical treatment consisted of a posterior fossa craniotomy (SODC) and/or a ventriculostomy (EVD). The medical treatment consisted of parenteral nutrition, symptomatic treatment including high blood pressure treatment, antiemetic treatment and if necessary the corticosteroid therapy, Mannitol therapy to preserve good hemodynamic and ventilation outcome.
A total of 15 patients were admitted with a GCS ≤7. Three criteria's were employed for reference to surgery: 1 – consciousness deterioration at admission (GCS) 2 – secondary deterioration of consciousness during hospitalization. 3 – infarct volume. A total of 22 patients underwent surgery as a matter of urgency. Two patients were operated on the day after admission because they had neurological deterioration and altered consciousness; and one patient underwent surgery within 2 days after admission for persistence of altered awareness and of neurological symptoms and ischemic infarct volume. The average age of operated patients was 59.67 years and for medically treated patients was 62.44 years [
The average age of operated patients is 2.77 years less than the patients who were medically treated. Tables
The patients with MICI less than 20 years and more than 80 years were extremely rare. The mean GCS in operated cases at admission was 9.4 and in medically treated patients was 11.36 [
A total of 16 patients underwent posterior fossa craniectomy (SODC). Only six patients were operated by EVD and three patients underwent SODC and EVD at the same time.
Study results show that nine patients were in a coma (GCS ≤7) for the operated group versus six patients for the medically treated group. Among the six medically treated patients, four died and two did not have improvement in GCS at the end of 4 weeks. Whereas for nine operated patients, we found two deaths and seven odemonstrated improvement in GCS score to ≥10. Therefore we think that early surgery is a good choice for MICI. However, considering the retrospective nature of study and the small number of patients, results must be interpreted cautiously [
In spite of many studies a low GCS score was not a pejorative factor for outcome.[
Besides direct signs of cerebellar infarct, cerebellum tissue affected by ischemic necrosis usually undergoes oedematous swelling. If it is voluminous enough, it provokes a mass effect on brain stem, fourth ventricle, cerebral aqueduct, and cisterna magna. This mass effect can potentially generate fatal complications including obstructive hydrocephalous and brain stem compression. In order to avoid complications, a rapid diagnosis and treatment planning is necessary. There is no specific data resulting from randomized trials in treatment of cerebellar infarct. Literature review gives different and at times contradictory results. In a series of 56 patients, Jüttler, et al.[
One of the largest studies of cerebellar infarct is the German–Austrian infarction study,[
Surgical treatment (SODC or EVD) should be considered based on timely identification of patients who will benefit from this intervention.
This study performed in our department with 53 surgically versus medically treated patients. The results corroborate that surgery can be quite helpful in majority of cases in MICI. Surgery seems to be more effective in younger patients. They actually had shorter recovery period. In spite of certain studies to have a GCS score lower than 7, it was not a pejorative factor for the outcome. We think that an early surgery is necessary to avoid a neurological deterioration in the great majority of cases.
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