1.Analyzing the characteristics of epilepsy, electroencephalographic activity and brain lesions after intracranial hemorrhage in infant
Thang Van Nguyen ; Giang Thi Thu Do
Journal of Medical Research 2007;55(6):51-57
Background: The intracranial hemorrhage (lCH) in infant due to vitamin K deficiency were been informed a lot at all over the world since the year of 80's. In Viet Nam, in recent years, this disease still most occurs which account for 110-130 children/100000 alive infant. The intracranial hemorrhage (lCH) in infant causes severe neurological, psychiatric sequelae. Objectives: This study aims to analyze the characteristics of epilepsy, changing of electroencephalogram and lesions of brain after intracranial hemorrhage in infant. Subjects and method:A descriptive, cross sectional study was conducted on 97 infant patients with the age ranged from 8 days to 3 months years old whom treated in National Hospital for Peadiatric. Results: Epilepsy was common (45.3%), with generalized seizures in 24.7% , partial seizures in 20.6%. The main intracranial lesions were cerebral cyst and atrophy in right or left hemisphere or both sides. Electroencephalic activity was found impaired in most of patients: Disorder of background waves in 19.6 %, low localized waves in 31%, proxystic ativity with spike in 45.3% and decrease in electroencephalographic amplitude in cystic areas. Conclusion: The epilepsy, abnormal electroencephalographic activities, severe lesions of brain were common after intracranial hemorrhage in infant.
Intracranial Hemorrhages/ diagnosis
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pathology
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therapy
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Infant
3.Severe pathological manifestation of cerebral amyloid angiopathy correlates with poor outcome from cerebral amyloid angiopathy related intracranial hemorrhage.
Ya-juan TANG ; Shuo WANG ; Ming-wei ZHU ; Yi-lin SUN ; Ji-zong ZHAO
Chinese Medical Journal 2013;126(4):603-608
BACKGROUNDCerebral amyloid angiopathy (CAA) is one of the main causes of spontaneous intracranial hemorrhage (ICH). No established link is available between pathological scores of CAA and its outcome. This study aimed to identify the correlations between pathological severity and poor postoperative outcome in the Chinese population.
METHODSBetween May 2006 and April 2011, 367 consecutive patients who underwent surgery for CAA-related ICH in 71 hospitals throughout the mainland of China were enrolled in this study. Twelve months after surgery, we evaluated these patients' outcomes according to the modified Rankin Scale (mRS) and statistically correlated risk factors (demographics, medical history, pathological results, and surgical details) that are associated with a favorable (mRS < 3) and poor (mRS ≥ 3) outcome groups.
RESULTSRisk factors for poor postoperative outcome in 367 patients with CAA-related ICH included advanced age (OR 1.034, 95%CI 1.001 - 1.067, P = 0.042), CAA pathology severity (OR 2.074, 95%CI 7.140 - 16.25, P < 0.001), lobar hematoma (OR 0.225, 95%CI 0.104 - 0.486, P < 0.001), presence of intraventricular hemorrhage (OR 0.478, 95%CI 0.229 - 1.001, P = 0.050), and/or subarachnoid hemorrhage (OR 2.629, 95%CI, 1.051 - 6.577, P = 0.039).
CONCLUSIONSPoor postoperative outcome of patients with CAA-related ICH was more related to the severe pathological manifestation instead of other factors. Prior ischemia may present an early stage of CAA.
Aged ; Cerebral Amyloid Angiopathy ; pathology ; physiopathology ; China ; Female ; Humans ; Intracranial Hemorrhages ; pathology ; physiopathology ; Male ; Middle Aged ; Risk Factors
4.Clinical and pathological analysis of 41 cases of acute leukemia combined with intracranial hemorrhage.
Jing-Hua LIU ; Fan ZHOU ; Xiao-Lin ZHANG ; Su-Fen ZHANG ; Fu-Lin SONG ; Yan-Qin LIU ; Ji-Gang WANG ; Xi-Mei LI ; Bo TANG
Journal of Experimental Hematology 2013;21(6):1409-1412
This study was aimed to summarize the clinical and pathological features of patients with acute leukemia combined with intracranial hemorrhage. The clinical and pathological data of 41 adult patients diagnosed as acute leukemia in our hospital from 1953 to 1990 year were analyzed retrospectively. The results showed that there were 35 cases of AML, 6 cases of ALL; 9 cases in clinical hematologic remission, 32 cases in non-remission, 3 cases of AL with hypertension, 2 cases of AL with diabetes, 4 cases of AL with sepsis, 19 cases with WBC ≥ 100×10(9)/L; the pathologic examination showed 4 cases of AL accompanied with disseminated intravascular coagulation, 10 cases with prothrombin time INR ≥ 1.5, 26 cases with multifocal intracranial hemorrhage, 7 cases with single intracranial hemorrhage, 8 cases with diffused spotting intracranial hemorrhage; the examination also showed that 84 hemorrhage foci were found in 41 cases of AL, among them 46 foci located under cerebral cortex, 23 foci in cerebellum, 6 in basal ganglia, 5 foci in pons, 2 foci in thalamus, 2 foci in spinal cord. It is concluded that the intracranial hemorrhage is a major cause resulting in death of AL patients which should be think highly, and the diagnosis and treatment should be conducted through comprehensive analysis.
Acute Disease
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Adolescent
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Adult
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Female
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Humans
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Intracranial Hemorrhages
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complications
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pathology
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Leukemia
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complications
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pathology
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Male
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Middle Aged
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Retrospective Studies
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Young Adult
5.Behavioral change and cell proliferation in the subventricular zone in adult rats after intracerebral hemorrhage.
Jianjun SUN ; Yong LIU ; Pengbo ZHANG ; Xinlin CHEN ; Zhenyu GUO ; Jianshui ZHANG ; Pengbo YANG
Journal of Central South University(Medical Sciences) 2009;34(3):236-241
OBJECTIVE:
To investigate the relationship between behavioral changes and cell proliferation in subventricular zone (SVZ) after intracerebral hemorrhage (ICH) in adult rats.
METHODS:
Forty male Sprague-Dawley rats were randomly assigned into a behavioral test group (n = 19) and a bromodeoxyuridine (Brdu) immunohistochemical staining group (n = 21). ICH was induced by stereotactial injection of collagenase type VII into straitum. Proliferating cells were labeled by injection intrapenitoneally of bromodeoxyuridine in a pulse protocal. Rats were killed on day 2, 7, 14, and 28 after the ICH. Behavioral test and bromodeoxyuridine immunohistochemical staining were performed.Behavioral change was tested by forelimb placing test, Berderson's grade and corner turn test in rats. Cell counting of bromodeoxyuridine immunoreactive cells in SVZ was performed.
RESULTS:
There were marked neurological deficits by day 2 after the ICH, with progressive recovery of function over 4 weeks. A significant increase in the number of bromodeoxyuridine immunoreactive cells in the ipsilateral and cortralateral SVZ was observed from 2 to 14 days with a peak at day 7 after the ICH compared with the sham group.The bromodeoxyuridine immunoreactive cells decreased to control level 28 days after the ICH.
CONCLUSION
Proliferation of cells in SVZ corresponds well with behavioral recovery after the ICH, which indicates SVZ cells may be involved in the repairing process after the ICH.
Animals
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Behavior, Animal
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physiology
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Cell Proliferation
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Cerebral Ventricles
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pathology
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Intracranial Hemorrhages
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pathology
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physiopathology
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Male
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Random Allocation
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Rats
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Rats, Sprague-Dawley
6.Prevention and treatment of drug-related stroke.
Yong-jie WANG ; Jian-min ZHANG
Journal of Zhejiang University. Medical sciences 2015;44(4):361-365
Stroke classified into ischemic and hemorrhagic subtypes, is among the most devastating diseases for human being. Certain drugs could increase the blood viscosity, thereby increasing the potential risk of ischemia. Anti-platelet and anti-coagulation drugs, as the treatment of first choice, increase the risk of intracranial hemorrhage and death. Here, we are the first to propose the concept of drug-related stroke, and discuss the treatment strategy for patients who are complicated with intracranial hemorrhage or plan to receive neurosurgical operation during either anti-platelet or anti-coagulation medication. We hope to arouse the attention for drug related stroke among the clinicians and offer recommendation for clinical intervention.
Drug-Related Side Effects and Adverse Reactions
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pathology
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Humans
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Intracranial Hemorrhages
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complications
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Stroke
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chemically induced
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prevention & control
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therapy
8.Comparison of Image-Guided Surgery Techniques for the Surgical Treatment of Intracerebral Hemorrhage : The Usefulness of Intraoperative Ultrasonography.
Jae Hoon BYEON ; Jae Taek HONG ; Sang Won LEE ; Byung Chul SON ; Jae Hoon SUNG ; In Soo KIM ; Hyeon Cheol CHOI ; Il Seob KIM ; Moon Chan KIM
Korean Journal of Cerebrovascular Surgery 2005;7(4):293-297
OBJECTIVE: The authors undertook a study to compare three intraoperative guidance systems, which are intraoperative ultrasonography, stereotaxy and computer-assisted image-guided surgery (neuronavigation) in terms of time consuming during the preparation of these procedures. In this operative case-based study, we have investigated the ability and benefits of intraoperative grey-scale sonographic examination in the localizing of intracranial hemorrhage (ICH) in the brain. METHODS: We used B-mode ultrasonography (5-MHz, 1.2x2.5 mm sized probe) during 23 procedures (craniotomy or craniectomy ; 17, hematoma aspiration : 6) performed in the acute stage after head injury, hypertensive ICH, ruptured cerebral aneurysm. Seventeen patients who suffered from spontaneous ICH underwent stereotactic hematoma aspiration and fourteen patients underwent hematoma removal using neuronavigation system (spontaneous ICH ; 11, Arteriovenous malformation and aneurysm ; 3). We compared intraoperative ultrasonography-assisted hematoma removal with procedures with stererotaxy or neuronavigation system in respect of detection of the pathology and time consuming for preparation. RESULTS: Mean preparation time for stereotactic hematoma aspiration was 71.2 minutes (50-90 minutes), and mean preparation time for neuronavigation-guided surgery was 52.5 minutes (30-70 minutes). However, only 7.4 minutes (4-20 minutes) were needed for the preparation time of intraoperative ultrasonography. Moreover, intraoperative ultrasonography-guided surgery had many advantages compared to other image-guide surgery, such as capability of real-time monitoring and independency of brain shifting. However, there were several limitations too, which were relatively low resolution, artifact by air bubble during the procedure, and the lower echogenecity of liquified hematomas when a delay of several days was needed. Nevertheless, ultrasound-guided hematoma surgery could serve as minimally invasive treatment whenever hematoma evacuation seems to be advisable, at least as a first attempt. CONCLUSION: Based on this preliminary result, we concluded that intraoperative ultrasonographic examination during the surgical treatment of ICH was a non-invasive, useful, and simple diagnostic tool in the detection of the components and accompanying parts of the lesion. It was more useful than stereotaxy or neuronavigation system in the situation of emergent case such as an impending brain herniation.
Aneurysm
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Arteriovenous Malformations
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Artifacts
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Brain
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Cerebral Hemorrhage*
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Craniocerebral Trauma
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Hematoma
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Humans
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Intracranial Aneurysm
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Intracranial Hemorrhages
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Neuronavigation
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Pathology
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Surgery, Computer-Assisted*
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Ultrasonography*
9.The application of cerebral angiography in the forensic postmortem examination.
Tong-Li XU ; Xu-Fu YI ; Xiao-Gang CHEN
Journal of Forensic Medicine 2007;23(6):450-452
As a "Gold Standard" in clinical diagnosis of cerebrovascular disease, cerebral angiography also plays an important role in forensic postmortem examination. The key roles of identifying the site of cerebrovascular disease and the cause of death as well as providing guidance for autopsy and postmortem sampling and the broad future application of cerebral angiography in forensic practice are reviewed.
Autopsy
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Cause of Death
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Cerebral Angiography
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Cerebrovascular Disorders/diagnostic imaging*
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Forensic Pathology/methods*
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Humans
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Intracranial Hemorrhages/etiology*
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Postmortem Changes
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Wounds and Injuries/pathology*
10.Imaging of Intracranial Hemorrhage.
Jeremy J. HEIT ; Michael IV ; Max WINTERMARK
Journal of Stroke 2017;19(1):11-27
Intracranial hemorrhage is common and is caused by diverse pathology, including trauma, hypertension, cerebral amyloid angiopathy, hemorrhagic conversion of ischemic infarction, cerebral aneurysms, cerebral arteriovenous malformations, dural arteriovenous fistula, vasculitis, and venous sinus thrombosis, among other causes. Neuroimaging is essential for the treating physician to identify the cause of hemorrhage and to understand the location and severity of hemorrhage, the risk of impending cerebral injury, and to guide often emergent patient treatment. We review CT and MRI evaluation of intracranial hemorrhage with the goal of providing a broad overview of the diverse causes and varied appearances of intracranial hemorrhage.
Arteriovenous Malformations
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Central Nervous System Vascular Malformations
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Cerebral Amyloid Angiopathy
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Cerebral Infarction
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Craniocerebral Trauma
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Hematoma, Subdural
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Hemorrhage
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Humans
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Hypertension
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Intracranial Aneurysm
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Intracranial Hemorrhages*
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Magnetic Resonance Imaging
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Neuroimaging
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Pathology
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Sinus Thrombosis, Intracranial
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Subarachnoid Hemorrhage
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Vasculitis