Quick guide

Diagnostic approach

  • ABCDE survey
  • GCS
  • Neurological exam
  • CT head without contrast
  • CBC
  • Coagulation studies
  • POC glucose

Red flag features

  • GCS score ≤ 8
  • Signs of brain herniation
  • Altered mental status
  • Severe headache
  • Symptoms of increased ICP
  • Focal neurological deficit
  • CT findings (e.g., midline shift, intraventricular extension)

Management checklist

  • Continuous monitoring of heart rate, BP, and SpO2
  • Airway management
  • If SBP > 220 mm Hg, lower to 140–180 mm Hg with nicardipine and/or labetalol.
  • Stop anticoagulants and antiplatelet agents.
  • Administer anticoagulant reversal agents if INR > 1.4.
  • Initiate neuroprotective measures.
  • ICP management as needed
  • Consult neurosurgery and neurology.

Summary

Intracerebral hemorrhage (ICH) refers to bleeding within the brain parenchyma. The term should not be confused with intracranial hemorrhage, which is a broader term that encompasses bleeding within any part of the skull, i.e., extradural, subdural, subarachnoid, or intracerebral bleeding. The most significant risk factor for spontaneous ICH is arterial hypertension. Symptoms are often nonspecific (e.g., headache); however, depending on the affected vessel and cerebral region, focal neurological deficits (e.g., hemiparesis) may occur. Compared with ischemic stroke, patients with ICH are more likely to present with severe headache and have rapidly progressing symptoms. The initial imaging investigation of choice is CT head without contrast, which typically shows a hyperdense mass lesion. Treatment involves management of the underlying and associated conditions (e.g., controlling hypertension, reversing coagulopathy) in order to limit hematoma expansion and prevent secondary brain injury. In severe cases, neurosurgical intervention may be required. Approximately half of patients with spontaneous ICH die within 30 days of symptom onset. Traumatic ICH may result from traumatic brain injury (TBI) and is managed similarly to spontaneous ICH.

See also “Overview of intracranial hemorrhage” and “Overview of stroke” for more information.

Definitions

  • Intracerebral hemorrhage (ICH): bleeding within the brain parenchyma
  • Intracranial hemorrhage: a broad term used to describe any bleeding within the skull (including intracerebral hemorrhage, subarachnoid hemorrhage, subdural hemorrhage, and epidural hemorrhage) due to traumatic brain injury or nontraumatic causes (e.g., hemorrhagic stroke, ruptured aneurysm, hypertensive vasculopathy)
  • Hemorrhagic stroke
    • Rupture of a blood vessel within the brain or the cerebrospinal fluid
    • Subtypes
      • Intracerebral hemorrhage (intraparenchymal hemorrhage): bleeding within the brain parenchyma
      • Subarachnoid hemorrhage: bleeding into the subarachnoid space
      • Intraventricular hemorrhage: bleeding within the ventricles

Epidemiology

  • ICH is responsible for approx. 10% of all strokes. [1]
  • Most commonly affects the deep structures of the brain [2]
  • Intraventricular extension occurs in approx. 30% of patients with ICH.

Epidemiological data refers to the US, unless otherwise specified.

Etiology

  • Nontraumatic (spontaneous)
    • Hypertension: most common cause of spontaneous ICH
    • Cerebral amyloid angiopathy: most common cause of spontaneous ICH in individuals > 60 years of age
    • Arteriovenous malformations: most common cause of spontaneous intracerebral hemorrhage in children
    • Vasculitis (e.g., giant cell arteritis)
    • Neoplasms (e.g., meningioma)
    • Ischemic stroke (due to reperfusion injury)
    • CNS infections (e.g., HSV encephalitis)
    • Septic emboli
    • Coagulopathy (e.g., hemophilia, anticoagulant use)
    • Stimulant use (e.g., cocaine and amphetamines; possibly also caffeine)
  • Traumatic: : see traumatic brain injury

References:[3][4][5]

Pathophysiology

  • Nontraumatic mechanisms of hemorrhage
    • Chronic arterial hypertension → lipohyalinosis of lenticulostriate vessels (which supply the basal ganglia) and/or formation and rupture of Charcot-Bouchard microaneurysmslacunar strokes (ischemia) of the basal ganglia
      • Putamen most commonly affected
      • Other locations: thalamus (second most common) and infratentorial parts of the brain (e.g., pons, cerebellum)
    • Cerebral amyloid angiopathy: deposition of β-amyloid peptides in vessel walls focal damage with formation of microaneurysms → rupture → recurrent lobar intracerebral hemorrhage
    • Structural abnormalities (e.g., vascular malformations) → exposure of parts of the abnormal vascular segment to excessive strain → rupture
    • Venous outflow obstruction and stimulant use (e.g., cocaine) → acute arterial hypertension
    • Coagulopathies: impaired hemostasis → vascular microtrauma
    • Inflammatory tissue necrosis → damage to vessels
  • Traumatic: blunt or penetrating injury damage to vessels

Clinical features

  • Headache
    • Absent in small hemorrhages
    • Most common in cerebellar and lobar hemorrhages [2][6]
  • Focal neurologic signs and symptoms may occur, depending on the location and size of the hemorrhage (see “Stroke symptoms by affected vessel” and “Stroke symptoms by affected region”) [2]
    • Putaminal hemorrhage: contralateral hemiparesis or hemiplegia with less severe contralateral hemisensory loss; eyes deviate toward the side of the hematoma
    • Thalamic hemorrhage: contralateral hemiparesis, contralateral hemisensory loss, decreased consciousness, wrong way eyes
  • Course
    • Symptoms typically progress gradually over minutes to a few hours
    • Focal deficits worsen with expansion of the hematoma
    • Late: symptoms of increased ICP
      • Nausea and vomiting
      • Confusion and loss of consciousness
      • Bradycardia
      • Fixed pupils

Management

For the approach to patients with suspected traumatic ICH, see “Management of traumatic ICH.”

Initial evaluation [7][8][9]

Consider the sudden onset of focal neurological deficits a vascular event until proven otherwise and evaluate patients as promptly as possible (preferably within the so-called “golden hour”). [10][11][12]

  • Perform an ABCDE survey.
  • Initiate neuroprotective measures: These take precedence over diagnostics if they cannot be performed in parallel.
  • Take a focused history, perform a neurological examination, and measure the GCS score.
  • Order immediate diagnostic studies.
    • Neuroimaging: CT head without contrast or MRI head
    • Laboratory studies: coagulation panel, platelets, and POC glucose
  • Admit or urgently transfer the patient to a neurocritical care unit.
  • Urgent consultations
    • Neurosurgery: to evaluate if urgent operative intervention is indicated
    • Neurology
    • Hematology: if the patient is taking antiplatelet agents or anticoagulants

Patients with signs of brain herniation should be evaluated immediately for neurosurgical intervention!

Monitoring

  • All patients should receive:
    • Continuous cardiac telemetry
    • Blood pressure (BP) monitoring
    • Continuous pulse oximetry
    • Hourly POC glucose monitoring
  • Consider:
    • An arterial line
    • ICP monitoring (see “Acute stabilization” for indications)
    • Continuous EEG monitoring

Acute stabilization

Acute stabilization should begin immediately after symptom onset, in parallel with diagnostic measures, with the goal of reducing hematoma expansion and limiting secondary brain injury. [7]

  • Airway management
    • Immediately initiate basic airway maneuvers for airway compromise, e.g., signs of partial airway obstruction.
    • Intubate if airway protective reflexes are lost.
    • Intubation of patients with high ICP can be very risky and requires a specialized approach.
  • Standard neuroprotective measures
    • Provide supplemental O2 as needed to maintain target SpO2 > 94%.
    • If mechanical ventilation is required: maintain long-term normocapnia (PaCO2 35–45 mm Hg). [13]
    • Maintain normoglycemia (see also “Treatment of hypoglycemia” and “Management of hyperglycemia in critically ill patients”). [7][13]
    • Maintain normothermia: e.g., prevent neurogenic fever.
  • Blood pressure management in ICH: The optimal approach is unclear. [7][14][15][16][17];
    • If systolic BP is > 220 mm Hg, promptly lower to 140–180 mm Hg; , e.g., using nicardipine AND/OR labetalol
    • If systolic BP is 150–220 mm Hg and no contraindications to antihypertensive agents: Consider BP lowering on an individual basis in consultation with a specialist.
    • Alternative antihypertensive agents include: [9][18]
      • ACE inhibitors, e.g., enalapril or ARBs
      • Furosemide
      • Hydralazine
    • Avoid systemic hypotension (e.g., MAP < 65 mm Hg).
  • Anticoagulation reversal
    • Stop all anticoagulants and antiplatelet agents.
    • Administer reversal agents as soon as possible to patients with an INR > 1.4 to reduce the risk of hematoma expansion.
  • Platelet transfusion in intracranial bleeding: only for severe thrombocytopenia [7]
  • ICP management
    • Considering invasive ICP monitoring if:
      • The patient's GCS score is ≤ 8
      • Significant intraventricular hemorrhage or hydrocephalus is present
      • There is evidence of transtentorial herniation
    • Consider measures to maintain ICP < 20 mm Hg and a cerebral perfusion pressure of 60–70 mm Hg: e.g., head elevation to 30°, hyperosmolar therapies for ICP management (mannitol, hypertonic saline), placement of an external ventricular drain or VP shunt for hydrocephalus [8]
    • Avoid corticosteroids. [19]

Remember to stop all anticoagulants and antiplatelet medication, including aspirin, in patients with ICH.

Platelet transfusion is not routinely indicated in patients with normal platelet counts taking antiplatelet agents (e.g., aspirin, clopidogrel). [7][20][21]

Diagnostics

Approach to ICH diagnostics [7][9][13]
Time interval from initial presentation Laboratory studies Imaging
Within the first hour
  • Coagulation screen including INR
  • CBC to rule out thrombocytopenia
  • POC glucose
  • CT head without contrast
  • MRI head (alternative)
Hours to days
  • Electrolyte
  • BUN and creatinine
  • Serum glucose
  • Cardiac troponins [7][22]
  • Serum or urine toxicology
  • Serum or urine pregnancy test
  • Urinalysis and urine culture [23]
  • CT angiography
  • Magnetic resonance angiography (alternative)
  • Consider:
    • CT or MRI venogram in suspected cerebral venous thrombosis
    • Cerebral angiography if there is strong suspicion for an underlying structural lesion

Characteristic neuroimaging findings [24]

  • Hematoma within the cerebral parenchyma (i.e., intraaxial lesion)
    • Typical locations
      • Supratentorial: lobar, or within the thalamus or basal ganglia
      • Infratentorial: in the cerebellum or brainstem
    • The density of the hematoma varies depending on the imaging modality used and age of the hematoma.
Variation in ICH density on imaging over time [25][26]
Time since ICH Hematoma density
CT without contrast MRI (T2 weighted)
Hyperacute (< 24 hours) Hyperdense Hyperintense
Acute (1–3 days) Hyperdense with fluid level and hypodense perifocal edema Hypointense with a hyperintense border
Early subacute (> 3 days to 1 week) Hyperdense becoming isodense Hypointense
Late subacute (weeks to months) Isodense or hypodense Hyperintense
Chronic (> months) Hypodense Hypointense
  • Additional possible features
    • Midline shift and/or mass effect; (if significant, this should raise suspicion for impending herniation)
    • Intraventricular extension [9]

Angiography findings

Angiography may be performed to assess for signs of further bleeding and structural abnormalities in patients with suspected underlying pathology (e.g., patients aged < 55 years and those without risk factors for ICH). [7]

  • CTA spot sign [27]
    • Definition: localized area of enhancement visible within an intracerebral hemorrhage only after administration of IV contrast
    • Implication: indicates active hemorrhage; is a predictor of hematoma expansion [7][27][28]
  • Aneurysms or other vascular lesions

Treatment

Approach

  • Most patients are managed conservatively, with treatment focused on prevention of secondary brain injury.
  • Patients should be screened for common complications.
  • Select patients may benefit from neurosurgical intervention.

Detection and management of complications

Common complications following spontaneous ICH [7]
Complication Screening and management
Dysphagia [29]
  • Keep all patients NPO until they have been assessed for dysphagia.
  • Perform a clinical swallow assessment.
  • If the patient fails a clinical swallow assessment, see “Dysphagia” for further management.
Seizures
  • Consider continuous EEG monitoring in patients with unexplained depressed mental status.
  • If seizures occur (or are detected on EEG), start anticonvulsants (see “Anticonvulsants in secondary brain injury” for dosages)
  • Avoid prophylactic anticonvulsants in patients without seizure history.
Cardiac abnormalities
  • Concurrent MI, arrhythmias, and heart failure can occur. [7]
  • Recommended monitoring
    • Serial ECGs [30][31]
    • Serial troponin measurements [32]
Electrolyte abnormalities
  • Consider serial BMP monitoring
    • Sodium and potassium abnormalities are common after ICH. [33]
    • Acute kidney injury is common regardless of whether contrast is used during imaging.
  • See also “Electrolyte management in secondary brain injury” and “Electrolyte repletion.”
Venous thromboembolism (VTE)
  • Patients are at increased risk for VTE.
  • Oral and parenteral anticoagulants for VTE prophylaxis are contraindicated.
  • Start intermittent pneumatic compression of the legs on the day of admission.
  • If surgery is performed, consult the operating neurosurgeon regarding indications for postoperative pharmacological VTE prophylaxis. [34]
Hematoma expansion
  • Perform regular neurological examinations.
  • Consider: [35]
    • Early CTA (within 3 hours of assessment) to assess for hematoma expansion [26]
    • CT without contrast 24 hours after presentation to determine the final size of the hematoma
    • Transcranial duplex ultrasonography

Prophylactic anticonvulsants are not recommended in patients with ICH. [7]

Surgical management [7]

Neurosurgical consultation is advised for acute ICP management (see “Acute stabilization”) and definitive management. Evacuation of the hematoma may be appropriate depending on the size, location, and associated clinical features of the ICH.

Hematoma evacuation

  • Can be performed using standard craniotomy or minimally invasive surgical techniques [7][36]
  • Hematoma evacuation is recommended in patients with infratentorial hemorrhage who have any of the following: [7]
    • Large hematoma (> 3 cm)
    • Declining neurological status
    • Hydrocephalus
    • Signs of brain herniation (e.g., Cushing triad)
  • Consider in patients with supratentorial hemorrhage and a declining GCS score or an initial GCS score of 10–13. [37]

Decompressive craniotomy

  • Decompressive craniotomy may be performed alone or in combination with hematoma evacuation.
  • Consider in patients with supratentorial hemorrhage and any of the following: [7]
    • Refractory elevated ICP
    • Large hematoma with a significant midline shift
    • GCS score ≤ 8

Reducing subsequent stroke risk

  • Manage hypertension and address lifestyle risk factors.
  • Provide lipid-lowering therapy for ASCVD.
    • Statin therapy increases the risk of recurrent hemorrhagic stroke but is nonetheless typically indicated. [38]
    • PCSK9 inhibitors can be considered as an alternative. [39]
  • Avoid long-term use of NSAIDs and use SSRIs with caution. [40]

Individuals often have overlapping risk factors for both ischemic stroke and hemorrhagic stroke; assess recurrence risk with a thorough history and examination, laboratory studies, and possibly imaging. [40]

Management of traumatic ICH

The management of traumatic ICH is similar to the management of spontaneous ICH, with some modifications.

  • Diagnostics [41]
    • Follow the management approach for TBI and exclude concurrent injuries.
    • TBI diagnostics include CT head without contrast and additional imaging as needed.
  • Management [8][10][41]
    • Focuses on the prevention of complications in brain injuries
    • Early surgical intervention can improve outcomes; consult neurosurgery as soon as possible. [42]
    • Recommendations for neuroprotective measures include seizure prophylaxis for severe TBI.
    • Follow-up neuroimaging is usually indicated; timing depends on injury severity.
    • For details, see “Management of moderate and severe TBI.”

Differential diagnoses

See “Differential diagnoses of stroke.”

The differential diagnoses listed here are not exhaustive.

Complications

  • Elevated ICP and brain herniation
  • Intraventricular hemorrhage → hydrocephalus
  • Recurrent hemorrhage
  • Vasospasm and cerebral ischemia
  • Dysphagia; : can lead to aspiration of food and pneumonia
  • Seizures
  • Hydrocephalus
  • SIADH
  • Deep vein thrombosis
  • See “Complications of stroke.”

We list the most important complications. The selection is not exhaustive.

Prognosis

  • 30-day mortality ranges from 25% to 50%. [44][45]
  • Patients aged > 65 years and those with large hematomas and low GCS scores (≤ 11) typically have poor outcomes. [44][45]
  • The ICH score is used to assess the severity of bleeds, and, in conjunction with other features, to estimate the patient's prognosis. [7]
ICH score [46][47]
Variable Findings Points
GCS score 3–4 2
5–12 1
13–15 0
ICH volume ≥ 30 cm3 1
< 30 cm3 0
Intraventricular hematoma Yes 1
No 0
ICH of infratentorial origin Yes 1
No 0
Patient age ≥ 80 years 1
< 80 years 0
Total ICH score: 0–6 Predicted 30-day mortality
  • Score = 0: 0%
  • Score = 1: 13%
  • Score = 2: 26%
  • Score = 3: 72%
  • Score = 4: 97%
  • Score = 5: 100%
  • Score = 6: estimated to be 100%

The ICH score was designed to assess ICH severity and aid clinical communication; it should not be used in isolation to determine prognosis!

Prevention

See ”Primary prevention of stroke.”

Related One-Minute Telegram

  • One-Minute Telegram 122-2025-2/3: Lower the pressure, not the perfusion: intensive BP management after intracerebral hemorrhage
  • One-Minute Telegram 100-2024-3/3: Blood pressure management in undifferentiated stroke: one size does not fit all

Interested in the newest medical research, distilled down to just one minute? Sign up for the One-Minute Telegram in “Tips and links” below.

External Resources

References

  1. Kasper DL, Fauci AS, Hauser S, et al. "Harrisons Principles of Internal Medicine ". McGraw-Hill Medical Publishing Division. 19. (2016). ISBN: 9780071802154
  2. Berlit P. "Diagnosis and treatment of cerebral vasculitis". Ther Adv Neurol Disord. 3(1). :29–42. (2010)
  3. Chen M. "Stroke as a Complication of Medical Disease". Semin Neurol. 29(2). :154-162. (2009)
  4. Daroff RB, et al. "Bradley's Neurology in Clinical Practice". Elsevier. ISBN: 9780323287838
  5. Delcourt et al. "Intracerebral hemorrhage location and outcome among INTERACT2 participants". Neurology. 88(15). :1408–1414. (2017)
  6. Hemphill JC, Greenberg SM, Anderson CS et al. "Guidelines for the Management of Spontaneous Intracerebral Hemorrhage". Stroke. 46(7). (2015)
  7. Balami JS, Buchan AM. "Complications of intracerebral haemorrhage". Lancet Neurol. 11(1). :101-118. (2012)
  8. Carney N, Totten AM, O’Reilly C, et al. "Guidelines for the Management of Severe Traumatic Brain Injury, Fourth Edition". Neurosurgery. 80(1). :6-15. (2016)
  9. Claude Hemphill J, Lam A. "Emergency Neurological Life Support: Intracerebral Hemorrhage". Neurocrit Care. 27(S1). :89-101. (2017)
  10. American College of Surgeons and the Committee on Trauma. "ATLS Advanced Trauma Life Support". American College of Surgeons. (2018). ISBN: 9780996826235
  11. E. Brooke Lerner, Ronald M. Moscati. "The Golden Hour: Scientific Fact or Medical "Urban Legend"?". Academic Emergency Medicine. 8(7). :758-760. (2001)
  12. Rogers FB, Rittenhouse KJ, Gross BW. "The golden hour in trauma: Dogma or medical folklore?". Injury. 46(4). :525-527. (2015)
  13. De Oliveira Manoel AL, Goffi A, Zampieri FG, et al. "The critical care management of spontaneous intracranial hemorrhage: a contemporary review". Crit Care. 20(1). (2016)
  14. Hays A, Diringer MN. "Elevated troponin levels are associated with higher mortality following intracerebral hemorrhage.". Neurology. 66(9). :1330-4. (2006)
  15. Mu J, Ni C, Wu M, et al. "A Retrospective Study on Risk Factors for Urinary Tract Infection in Patients with Intracranial Cerebral Hemorrhage". BioMed Research International. 2020. :1-7. (2020)
  16. Morotti A, Goldstein JN. "Diagnosis and Management of Acute Intracerebral Hemorrhage.". Emerg Med Clin North Am. 34(4). :883-899. (2016)
  17. Aguilar MI, Brott TG. "Update in intracerebral hemorrhage.". The Neurohospitalist. 1(3). :148-59. (2011)
  18. Macellari F, Paciaroni M, Agnelli G, Caso V. "Neuroimaging in intracerebral hemorrhage.". Stroke. 45(3). :903-8. (2014)
  19. Wada R, Aviv RI, Fox AJ, et al. "CT Angiography “Spot Sign” Predicts Hematoma Expansion in Acute Intracerebral Hemorrhage". Stroke. 38(4). :1257-1262. (2007)
  20. Peng W-J, Reis C, Reis H, Zhang J, Yang J. "Predictive Value of CTA Spot Sign on Hematoma Expansion in Intracerebral Hemorrhage Patients". BioMed Research International. 2017. :1-9. (2017)
  21. Rabinstein AA. "Optimal Blood Pressure After Intracerebral Hemorrhage". Stroke. 49(2). :275-276. (2018)
  22. Divani AA, Liu X, Di Napoli M, et al. "Blood Pressure Variability Predicts Poor In-Hospital Outcome in Spontaneous Intracerebral Hemorrhage". Stroke. 50(8). :2023-2029. (2019)
  23. Boulouis G, Morotti A, Goldstein JN, Charidimou A. "Intensive blood pressure lowering in patients with acute intracerebral haemorrhage: clinical outcomes and haemorrhage expansion. Systematic review and meta-analysis of randomised trials". Journal of Neurology, Neurosurgery & Psychiatry. 88(4). :339-345. (2017)
  24. Minhas JS, Moullaali TJ, Rinkel GJE, Anderson CS. "Blood Pressure Management After Intracerebral and Subarachnoid Hemorrhage: The Knowns and Known Unknowns". Stroke. 53(4). :1065-1073. (2022)
  25. Dastur CK, Yu W. "Current management of spontaneous intracerebral haemorrhage". BMJ. 2(1). :21-29. (2017)
  26. Cook AM, Morgan Jones G, Hawryluk GWJ, et al. "Guidelines for the Acute Treatment of Cerebral Edema in Neurocritical Care Patients". Neurocrit Care. 32(3). :647-666. (2020)
  27. Baharoglu MI, Cordonnier C, Salman RA-S, et al. "Platelet transfusion versus standard care after acute stroke due to spontaneous cerebral haemorrhage associated with antiplatelet therapy (PATCH): a randomised, open-label, phase 3 trial". The Lancet. 387(10038). :2605-2613. (2016)
  28. Al-Shahi Salman R, Law ZK, Bath PM, Steiner T, Sprigg N. "Haemostatic therapies for acute spontaneous intracerebral haemorrhage". Cochrane Database Syst. Rev.. 2018(4). (2018)
  29. Fogelholm R, Murros K, Rissanen A, Avikainen S. "Long term survival after primary intracerebral haemorrhage: a retrospective population based study.". J Neurol Neurosurg Psychiatry. 76(11). :1534-8. (2005)
  30. Safatli D, Günther A, Schlattmann P, et al. "Predictors of 30-day mortality in patients with spontaneous primary intracerebral hemorrhage". Surg Neurol Int. 7(19). :510. (2016)
  31. Hemphill JC 3rd, Bonovich DC, Besmertis L, Manley GT, Johnston SC. "The ICH score: a simple, reliable grading scale for intracerebral hemorrhage.". Stroke. 32(4). :891-7. (2001)
  32. Greenberg MS. "Handbook of Neurosurgery". Thieme Medical Publishers. (2020). ISBN: 9781684201372
  33. Kasper DL, Fauci AS, Hauser SL, et al. "Harrison's Principles of Internal Medicine". McGraw-Hill Education. (2015). ISBN: 9780071802161
  34. Joundi RA, Martino R, Saposnik G, et al. "Dysphagia screening after intracerebral hemorrhage". International Journal of Stroke. 13(5). :503-510. (2017)
  35. Junttila E, Vaara M, Koskenkari J, et al. "Repolarization abnormalities in patients with subarachnoid and intracerebral hemorrhage: predisposing factors and association with outcome.". Anesth Analg. 116(1). :190-7. (2013)
  36. Hasegawa K, Fix ML, Wendell L, et al. "Ischemic-appearing electrocardiographic changes predict myocardial injury in patients with intracerebral hemorrhage.". Am J Emerg Med. 30(4). :545-52. (2012)
  37. Sandhu R, Aronow WS, Rajdev A, et al. "Relation of cardiac troponin I levels with in-hospital mortality in patients with ischemic stroke, intracerebral hemorrhage, and subarachnoid hemorrhage.". Am J Cardiol. 102(5). :632-4. (2008)
  38. Koivunen R-J, Haapaniemi E, Satopää J, et al. "Medical Acute Complications of Intracerebral Hemorrhage in Young Adults". Stroke Res Treat. 2015. :1-7. (2015)
  39. Farr S, Toor H, Patchana T, et al. "Risks, Benefits, and the Optimal Time to Resume Deep Vein Thrombosis Prophylaxis in Patients with Intracranial Hemorrhage". Cureus. (2019)
  40. Ovesen C, Havsteen I, Rosenbaum S, Christensen H. "Prediction and Observation of Post-Admission Hematoma Expansion in Patients with Intracerebral Hemorrhage". Front Neurol. 5. (2014)
  41. De Oliveira Manoel AL. "Surgery for spontaneous intracerebral hemorrhage". Crit Care. 24(1). (2020)
  42. Gregson BA, Mitchell P, Mendelow AD. "Surgical Decision Making in Brain Hemorrhage.". Stroke. 50(5). :1108-1115. (2019)
  43. Diener HC, Hankey GJ. "Primary and Secondary Prevention of Ischemic Stroke and Cerebral Hemorrhage". J Am Coll Cardiol. 75(15). :1804-1818. (2020)
  44. Sanz-Cuesta BE, Saver JL. "Lipid-Lowering Therapy and Hemorrhagic Stroke Risk". Stroke. 52(10). :3142-3150. (2021)
  45. Greenberg SM, Ziai WC, Cordonnier C, et al. "2022 Guideline for the Management of Patients With Spontaneous Intracerebral Hemorrhage: A Guideline From the American Heart Association/American Stroke Association". Stroke. 53(7). (2022)
  46. Walls R, Hockberger R, Gausche-Hill M. "Rosen's Emergency Medicine". Elsevier Health Sciences. (2018). ISBN: 9780323354790
  47. Kvint S, Gutierrez A, Blue R, Petrov D. "Surgical Management of Trauma-Related Intracranial Hemorrhage—a Review". Curr Neurol Neurosci Rep. 20(12). (2020)