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Radial artery access for bilateral ischemic embolic stroke

Vipulkumar V Patel

Mayo Clinic, Jacksonville 4500 San Pablo Rd S, Jacksonville, FL 32224, USA

E-mail : bhuvaneswari.bibleraaj@uhsm.nhs.uk

Robert Dana Tomalty

Radiology of Huntsville, 2006 Franklin st SE #200, Huntsville AL, 35801, USA

Charles A Ritchie

Mayo Clinic, Jacksonville 4500 San Pablo Rd S, Jacksonville, FL 32224, USA

DOI: 10.15761/TEC.1000192

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Abstract

Acute ischemic stroke is a very common cause of disability and death in developed countries. Intravascular thrombolysis and mechanical thrombectomy are effective mode of care for patient with acute ischemic stroke due to large vessels occlusion. Mechanical thrombectomy in a case of an acute ischemic stroke lead to favorable functional outcomes when done early. A 58-year-old man was seen in consultation after 24 hours of vascular surgery for acute aortic syndrome. The patient developed left side hemiparesis from embolic stroke after surgical intervention. We choose the radial artery access to approach the cerebral vessels for mechanical thrombectomy because of compromised femoral artery due to surgical intervention which is different from the traditional femoral artery approach. Patient had a full neurologic recovery within 12 hours after the mechanical thrombectomy.

Key words

acute ischemic stroke, radial artery access, mechanical thrombectomy

Abbreviations

NIHHS: National Institute of Health Stroke Scale; ACA: Anterior cerebral artery; MCA: Middle cerebral artery; TICI: Thrombolysis in cerebral infarction; tPA: Tissue plasminogen activator

Introduction

Stroke is a frequent presentation in emergency departments, and it is the fifth leading cause of death in the United States and is a major cause of serious disability for adults [1]. About 795,000 people in the United States have a stroke each year [1]. The country′s highest death rates from stroke are in the southeastern Unites States [1]. This case involved a 58-year-old man experiencing severe neurological deficit post operatively due to bilateral acute ischemic stroke develop from embolic occlusion of right middle cerebral artery and left internal carotid artery. Following mechanical thrombectomy patients National Institute of Health Stroke Scale (NIHSS) and local deficit improved within 12 hours of post treatment. Acute ischemic stroke is associated with significant morbidity and mortality; up to 50-80% of survivors has neurological deficit, most commonly hemiparesis, but also long-term neuropsychiatric and behavior issues. We report a case in which mechanical thrombectomy was done for the successful treatment of acute ischemic embolic stroke in a post-operative period of acute aortic syndrome and approached by right radial artery route without any complication.

Case report

A 58-year-old man was seen in consultation 24 hours after vascular surgery, bilateral open femoral artery cut down with embolectomy for acute aortic syndrome (Figure 1).The patient was placed on Clopidogrel (Bristol-Myers Squibb Co, New York, NY, USA) post operatively, no heparin. The next morning, the patient developed left sided hemiplegia and subsequently becomes obtunded requiring intubation. NIHSS was 18 prior to intubation. Non contrast computed tomography of head showed no any signs of hemorrhage. Worsening clinical presentation necessitated cerebral angiography and possible thrombectomy.

Figure 1. Contrast-enhanced coronal abdomen image demonstrates a large acute thrombus in descending aorta (arrow)

Because of the bilateral femoral cut down procedure, the right radial arterial access was used to place a 6Fr Neuro max (Pneumbra, Inc. Alameda, California, USA) sheath for the assumed right carotid distribution embolism.AS2 selection catheter and Jet 7 aspiration catheter (Pneumbra, Inc) where used to select the distal right internal carotid artery. Initial diagnostic angiography demonstrates a right middle cerebral artery 1st order (M1) clot and cross filling into left anterior cerebral artery (ACA) demonstrating a filling defect in the left ACA/middle cerebral artery (MCA) (Figure 2A). A Velocity micro catheter (Pneumbra, Inc.) and Aristotle 0.14 wire (Scientia Vascular, UT, USA) were used to access the right M2 vessels. A Solitaire 6mm x 40mm (Medtronic, Inc. Dublin, Ireland) was deployed in the clot and retracted. After 4 minutes of removing the emboli and resulting in a thrombolysis in cerebral infarction (TICI) grade 3 on follow up angiogram (Figure 2B). The catheter system was then manipulated into the left internal carotid artery (figure 2C) and a single pass with the Solitaire 6mm x 40mm/Jet 7 restored flow on left side, TICI grade 3 (figure 2D).

Figure 2. Demonstrates pre and post procedure angiogram of cerebral vessels. (A) Initial antero-posterior right internal carotid artery angiogram demonstrating complete occlusion of right MCA (arrow) with retrograde filling defect of the left ACA/MCA (asterisk) concerning of an additional thrombus. (B) Post treatment right internal carotid artery angiogram demonstrating complete reperfusion of the right MCA territories-TICI grade 3 (arrowhead) and continued retrograde filling defect in left ACA/MCA (asterisk). (C) Lateral projection of left internal carotid artery angiogram pre- intervention shows complete carotid terminus occlusion (T lesion) (asterisk) and no filling of left ACA/MCA territories with a large posterior communicating artery (arrow) and left ophthalmic artery present (arrowhead). (D) Post treatment left internal carotid artery antero-posterior cerebral angiogram shows complete reperfusion in left carotid artery branches- TICI grade 3 (arrowhead)

The patient tolerates the procedure well and after removal of clot burden from right MCA and left carotid artery terminus (Figure 3), he had a full neurologic recovery within 12 hours.

Figure 3. Post thrombectomy clot burden from the right middle cerebral artery (arrowhead) and left carotid artery terminus (arrow)

Discussion

There is a narrow window period in which restoration of cerebral blood flow is achieved by using reperfusion therapy to salvage the ischemic brain tissue but not yet infarcted. Most important factor in successful reperfusion therapy of acute ischemic stroke is early intervention. Majority of stroke is ischemic in origin 80% versus 20% due to brain hemorrhage. Ischemic causes are classified into intrinsic to vessels such as atherosclerosis, inflammation of vessel wall, dissection and embolism that may originate a part and travel to brain vessels or it may be the consequence of persistent hypotension because of condition like hypovolemic, cardiogenic and septic shock. However, treatment depends on the underlying etiology as well as time spent from clearly defined symptoms onset. Alteplase (recombinant tissue plasminogen activator or tPA) is the mainstay of treatment of acute ischemic stroke, provided that treatment is initiated within 4.5 hours of clearly defined symptoms onset. Mechanical thrombectomy is indicated for patient with acute ischemic stroke due to large artery occlusion in the anterior circulation who can be treated within 24 hours of the times last known to be well at neurological baseline. Patient should receive intravenous Alteplase without delay, if eligible, even if considered for mechanical thrombectomy [2].

Several studies are conducted to show the importance of endovascular treatment in anterior circulation acute ischemic stroke. MR CLEAN, EXTEND-IA, and SWIFT PRIME proved the value of intrarterial thrombectomy in anterior circulation acute ischemic stroke within the first 6 hours of symptoms onset [3-5]. MR CLEAN, randomized trial of 500 patients, eligible patients are randomly assigned intraarterial treatment plus usual care or usual care alone. Arterial occlusion of anterior circulation is confirmed on vessel imaging and that could be treated within 6 hours of symptoms onset. They found an absolute difference of 13.5 percentage point in the rate of functional independence (modified Rankin score, 0 to 2) in favor of intervention (32.6% vs. 19.1%). EXTEND-IA clinical trial, randomly assigned patient with ischemic stroke with standard thrombolysis tPA treatment versus endovascular thrombectomy with solitare flow restoration stent retriever. Endovascular therapy, initiated at 210 minutes after the stroke onset, increased early neurological improvement at 3 days (80% vs 37%; p=0.002) and improved functional outcome at 90 days, with more patient achieving functional independence (modified Rankin score 0 to 2, 71% vs 40%; P=0.01). SWIFT PRIME randomized clinical trial also concluded that thrombectomy with a stent retriever within 6 hours of symptoms onset improved functional outcome at 90 days. THRACE provided additional data for thrombectomy up to 5 hours (53% of patient with thrombectomy achieved a good clinical outcome vs 42% with medical management, OR=1.55) [6]. Two another trials REVASCAT and ESCAPE provide evidence of extended time of 8 and 12 hours, respectively for mechanical thrombectomy in anterior circulation acute ischemic stroke with good clinical outcomes with mechanical thrombectomy [7,8]. Two recent multicenter randomized controlled trials DEFUSE 3 and DAWN suggest a late time window of 16 hours and 24 hours, respectively with a favorable outcome with mechanical thrombectomy [9,10].

Imaging criteria varies according to the time of symptoms onset to determine the appropriate candidacy of patient. In above mentioned study they use different imaging criteria depending on the time lapse after onset of symptoms. Stroke severity assessed by the NIHSS to determine the eligibility for thrombectomy. MR CLEAN trials has lowest NIHSS score of 2, ESCAPE and EXTEND-IA set no specific score threshold. However, other trials have variable ranges of NIHSS score from 6 to 10. The benefits of mechanical thrombectomy in posterior circulation stroke is uncertain, but it may a reasonable treatment option for patient with posterior circulation occlusion when performed at center with appropriate expertize. Weber et al conducted an analysis on prospective multicenter revascularization in ischemic stroke patient registry and concluded that mechanical thrombectomy in posterior circulation shows a lower risk of symptomatic intracranial hemorrhage and similar effectiveness compared to anterior circulation stroke [11].

Conclusion

Our exclusive case report provides support for acute mechanical thrombectomy as a safe, effective and minimal invasive approach for occlusive acute ischemic stroke performed via radial artery access.

Disclosure

The authors whose names are listed above certify that they have NO affiliations with or involvement in any organization or entity with any financial interest (such as honoraria; educational grants; participation in speakers' bureaus; stock ownership, or other equity interest; and expert testimony or patent-licensing arrangements), or non-financial interest (such as personal or professional relationships, affiliations, knowledge or beliefs) in the subject matter or materials discussed in this manuscript.

References

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Editorial Information

Editor-in-Chief

Guo-Gang Xing
Perking University

Article Type

Case Report Article

Publication history

Received: March 30, 2020
Accepted: April 08, 2020
Published: April 13, 2020

Copyright

©2020 Patel VV. 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.

Citation

Patel VV, Tomalty RD, Ritchie CA (2020) Radial artery access for bilateral ischemic embolic stroke. Trauma Emerg Care 5: DOI: 10.15761/TEC.1000192

Corresponding author

Charles Ritchie, M.D

Department of Radiology, Mayo Clinic | 4500 San Pablo Rd S| Jacksonville, FL 32224, USA

E-mail : bhuvaneswari.bibleraaj@uhsm.nhs.uk

Figure 1. Contrast-enhanced coronal abdomen image demonstrates a large acute thrombus in descending aorta (arrow)

Figure 2. Demonstrates pre and post procedure angiogram of cerebral vessels. (A) Initial antero-posterior right internal carotid artery angiogram demonstrating complete occlusion of right MCA (arrow) with retrograde filling defect of the left ACA/MCA (asterisk) concerning of an additional thrombus. (B) Post treatment right internal carotid artery angiogram demonstrating complete reperfusion of the right MCA territories-TICI grade 3 (arrowhead) and continued retrograde filling defect in left ACA/MCA (asterisk). (C) Lateral projection of left internal carotid artery angiogram pre- intervention shows complete carotid terminus occlusion (T lesion) (asterisk) and no filling of left ACA/MCA territories with a large posterior communicating artery (arrow) and left ophthalmic artery present (arrowhead). (D) Post treatment left internal carotid artery antero-posterior cerebral angiogram shows complete reperfusion in left carotid artery branches- TICI grade 3 (arrowhead)

Figure 3. Post thrombectomy clot burden from the right middle cerebral artery (arrowhead) and left carotid artery terminus (arrow)