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. 2021 Sep 24;47(10):100992. doi: 10.1016/j.cpcardiol.2021.100992

COVID-19 and Peripheral Artery Thrombosis: A Mini Review

Ehsan Goudarzi a, Fateme Yousefimoghaddam a, Alireza Ramandi b, Isa Khaheshi a,
PMCID: PMC8462005  PMID: 34571103

Abstract

For more than 2 years, health care systems have been floundering in a massive crisis of coronavirus disease 2019 (COVID-19) pandemic. While acute respiratory distress syndrome is the main complication in patients with COVID-19, as the pandemic continues, more data about the nonrespiratory effects of the coronavirus is obtained, including developing Coagulopathy-related manifestations, in the form of venous and arterial thromboembolism. Although arterial thrombosis a rare complication of this disease, it proves to be an effective factor in the mortality and morbidity of COVID-19 patients. The pathophysiology of thrombosis reveals a complex relation between hemostasis and immune system that can be disrupted by COVID-19. Thrombectomy, anticoagulant therapy, and thrombolysis are the main treatments in these patients. In addition, appropriate thromboprophylaxis treatment should be considered in COVID-19 patients. In this article, we have successfully reviewed the arterial thrombotic events in patients reported around the world, including the diagnostic and management method of choice.

Introduction

Emerging in December 2019, Coronavirus Disease 19 (COVID-19) has been declared as a pandemic by WHO; reporting 198,778,175 confirmed cases and 4,235,559 deaths by August 4 2021.1 COVID-19 shows a wide spectrum of clinical presentation and continues to intrigue medical professionals with its variety of symptoms ranging from mostly asymptomatic to fatal conditions following multi-organ involvement mainly involving respiratory system.2 Prior outbursts of coronaviruses, (ie, severe acute respiratory syndrome coronavirus 1 [SARS-CoV-1] and Middle-Eastern respiratory syndrome [MERS]) have shown a significant association with increased risk of thrombosis.3 Likewise, COVID-19 appears to generate a prothrombotic state as evidenced by a surge in global pulmonary embolisms, deep vein thrombosis, cardiac thrombosis, catheter related thrombosis, and arterial thrombosis. Moreover, laboratory tests of COVID-19 patients demonstrate the prothrombic state of patients; including increased level of D-dimer, fibrinogen, factor VIII, and von Willebrand factor.4 Although there has been an extensive focus on deep vein thrombosis and pulmonary embolism as the complications of the COVID-19, there is limited number of studies in fields of peripheral arterial thrombosis. Furthermore, the studies performed on arterial thrombotic events are majorly along with the studies of venous thromboembolism, which decreases the focus on diagnostic and treatment options for this complication. We aim to investigate the literature focusing on arterial thrombotic complications, including the location, method of localization and diagnosis, and management procedure.

Methods

In order to achieve an accelerated qualitative analysis, we performed PubMed search using MeSH (medical subject headings) terms in search strategies mentioned below:

(1 "COVID-19″[Mesh] OR "SARS-CoV-2″[Mesh], (2) "Arteries"[Mesh], "Thrombosis"[Mesh], and "Blood Coagulation"[Mesh], (3) combination and snowballing of (1) and (2). We select the relevant articles to arterial thrombotic events for the purpose of this review. In order to decrease the level of bias, data were extracted independently by FY and EG in a double data extraction method, followed by a thorough reassessment of included articles by AR and IK.

Pathophysiology

COVID-19 may lead to an increased risk of thrombotic events through various pathophysiological means (Fig 1 ):

  • 1.

    Disseminated intravascular coagulation: Disseminated intravascular coagulation is commonly observed in critically ill patients. Generally, it elicits the initiation of the tissue factor pathway of the coagulation cascade and deposition of platelet-fibrin thrombi in the microvasculature. This ultimately consummates the platelets and the procoagulant factors, resulting in a correlated bleeding diathesis.5

  • 2.

    Inflammatory cytokines: Excessive cytokine release is assumed to be the cause of the severe illness noted in adolescent patients without prior comorbidities. Higher serum levels of several inflammatory cytokines and chemokines have been related to severe illness and death in several studies.6

  • 3.

    Macrophage activation syndrome (MAS): MAS may contribute to the aspects of the cytokine storm and hypercoagulopathy observed in COVID-19 patients. MAS occur when activated antigen presenting cells cannot be lysed by CD8+ T cells or natural killer cells. After an initial inflammatory trigger, elevated IL-6 has been shown to diminish natural killer cells cytolytic capacity. Hence, there is a substantial interaction among innate and adaptive immune system that additionally promotes cytokine storm, phagocytosis, and multiorgan dysfunction.7

  • 4.

    Complement system activation: Complement system activation may also recruit and activate leukocytes, resulting in significant release of the proinflammatory cytokines (ie, IL-1, IL-6, IL-8, and interferon-γ) and promoting microvascular damage. Complement system is strongly activated in sepsis and inhibiting the complement cascade can improve coagulopathy and endothelial dysfunction in animal models with sepsis.8

  • 5.

    Renin angiotensin system (RAS) overactivation: Angiotensin-converting enzyme 2 (ACE2) is a membrane-bound protein mainly distributed in the lungs, heart, arteries, and veins.9 Angiotensin II(Ang II), the product of ACE2, promotes vasoconstriction, proinflammation, and prothrombotic effects via the Angiotensin II receptor type I (AT1R) and Angiotensin II receptor type IV (AT4R). ACE2 inhibits the RAS activity in 2 ways. First, ACE2 degrades Ang I and Ang II, reducing the substrate for activation of AT1R via the classical RAS. Secondly, Ang II is directly degraded into Angiotensin-(1-7), a vasodilatory peptide with anti-inflammatory effects. COVID-19 uses ACE2 for cellular entry. Through this process, it is assumed that the downregulation of pulmonary of ACE2 is followed by moving the balance towards proinflammatory and prothrombotic effects of Ang II and AT1R.10

  • 6.

    Hypoxia: Hypoxia-inducible factors can activate platelets and coagulation factors, causing an increased expression of tissue factor and plasminogen activator inhibitor 1, meanwhile inhibiting the endogenous anticoagulant protein leading to worsening of the hypercoagulable state.11

FIG 1.

FIG 1

Mechanisms of thrombosis in Covid-19.

Review of Cases

We reviewed 46 patients ranging from 24 to 83 years old with average and median of 61.4 and 61 years old, respectively. Covid 19 infection was confirmed in all patients included in the study by using standard methods that are acceptable worldwide; including polymerase chain reaction, chest X ray, chest computer tomography scan (CT), and serological tests. Details of each case are provided in Table 1 . Male sex, smoking, hypertension, diabetes, chronic kidney disease, and obesity are corelated with preexisting endothelial dysfunction which is a risk factor for thrombosis.12 , 13 We illustrated these risk factors in Figure 2 . We divided these thromboses to 5 groups based on location: 1- head and neck, 2- aorta, 3- abdomen, 4- upper limb, and 5- lower limb. Each group includes several arteries which is illustrated bellow:

TABLE 1.

Review of literature on Covid-19 peripheral artery thrombosis, and what kind of diagnosis modality and management method was chosen.

Age/Sex Medical history Sign and symptoms related to thrombosis Localization of thrombosis (arteries) Timing of thrombosis Diagnosis of thrombosis Complications treatments Outcome and follow up
Case 118 60, M HTN, DLP, CAD, COPD Painless vision loss in right eye Right central retinal 12 days after covid test + assessment of intraocular pressure None NR NR
Case 219 59, M HTN, hyperuricemia, sickle cell anemia Painless vision loss in left eye left central retinal 14 days after covid symptoms Optical coherence tomography None NR NR
Case 320 48, M Obese, sleep apnea Painless vision loss in right eye Right ophthalmic 38 days after covid test + Funduscopic examination DVT LMWH Discharged
Case 421 61, M HTN, asthma left hand weakness and numbness right common carotid 14 days after covid symptoms CTA None Endarterectomy, UFH, LMWH Discharged
Case 522 76, M HTN, DLP, DM Right sided loss of strength, aphasia, hemiplegia Left internal carotid, multiple thrombosis in ascending aorta 28 days after covid symptoms CTA None LMWH Discharged
Case 623 76, F HTN, DLP, psoriasis None Aortic arch, left common carotid 15 days after covid symptoms CTA Cerebral infraction UFH Discharged
Case 724 56, NR NR Abdominal pain, vomiting Right middle cerebral, aortic arch, superior mesenteric Same day as covid test + CT None Thrombectomy, resection of small intestine NR
Case 825 69, M Stroke, ET, HTN Accidentally found Aortic arch, descending thoracic aorta 14 days after covid symptoms CTA PE Medical treatments* NR
Case 926 59, M Schizophrenia, epilepsy, PAD Mottled skin of lower limb extending to sub umbilical Midaorta 9 days after covid symptoms ultrasound DVT Norepinephrine, thrombolysis, UFH Expired
Case 1023 69, M None Accidentally found Descending thoracic aorta 15 days after covid symptoms CTA PE anticoagulant Discharged
Case 1127 53, F None Dyspnea Aortic arch 10 days after covid symptoms CT PE UFH, thrombolysis, argatroban NR
Case 1222 78, M DLP, urothelial carcinoma None Aortic arch, descending aorta 9 days after covid symptoms CTA Multiple PE LMWH Expired
Case 1322 64, M Former smoker, HTN, obstructive sleep apnea, hepatitis B, obese None Multiple thrombosis in Descending aorta 11 days after covid symptoms CT None UFH bridged to LMWH NR
Case 1425 58, F HTN, DM Accidentally found Descending aorta Same day as covid test + CTA Non Medical treatment* NR
Case 1528 61, F DM2, HTN, DLP, GERD, and bipolar disorder Abdominal pain Thoracic aorta, abdominal aorta 14 days after covid symptoms CTA RV thrombosis thrombolysis, LMWH bridged to rivaroxaban Discharged
Case 1629 49, M DM, CAD, obese Pain and loss of heat in right lower limb Descending aorta, right femoral 40 days after covid symptoms CT none Thrombectomy, fasciotomy, right below knee amputation Discharged
Case 1730 71, M None Left iliac fossa and flank pain Ascending aorta, left renal 23 days after covid symptoms CTA None UFH bridged to apixaban, clopidogrel Discharged
Case 1831 83, F HTN, DM2 Cyanotic and pale lower limbs, distended abdomen Descending thoracic aorta, abdominal aorta, iliac, superior mesenteric, renal Same day as covid test + CT PE Comfort measures NR
Case 1932 75, M None Abdominal pain, vomiting Descending thoracic aorta, superior mesenteric 16 days after covid symptoms CTA None thrombolysis, resection of small intestine NR
Case 2033 56, M DM2, HTN, obese Weakness and hypoesthesia in left lower limb Aortic arch, aortoiliac, deep femoral, bilateral popliteal Same day as covid test + CT, angiography Recurrent thrombosis UFH, thrombectomy Still admitted in ICU
Case 2123 50, M None NR Aortoiliac 12 days after covid symptoms CTA DVT, cerebellar infarction Bilateral thrombectomy Discharged
Case 2223 67, M HTN pain, coldness, and paleness in lower limbs Aortoiliac 17 days after covid symptoms CTA None Bilateral thrombectomy, limb amputation Expired
Case 2334 73, M HTN, smoker Bilateral hip and buttock pain, lower limb paresthesia and paralysis Aortoiliac, common deep and superficial femoral, bilateral popliteal, tibial Same day as covid test + CT Thrombosis at aortic aneurysm site thrombolysis, thrombectomy, UFH expired
Case 2432 60, M NR Weakness, hypoesthesia, and ischemia in lower limbs Aortoiliac 14 days after covid symptoms CTA None Thrombectomy NR
Case 2535 70, F HTN, DM2 cold, pulseless, mottled, and pale left limb Abdominal aorta, left common iliac, internal iliac, external iliac, popliteal Same day as covid test + CTA Splenic vein, SMV and IMV thrombosis Thrombectomy, thrombolysis, UFH bridged to warfarin Discharged
Case 2629 70, M HTN, smoker, DLP Abdominal and lower limbs pain Abdominal aorta 29 days after covid symptoms CT None thrombectomy Expired
Case 2736 46, M None Abdominal pain, diarrhea right renal branches 1 day after covid symptoms CT None UFH bridged to LMWH Discharged
Case 2837 82, F atrial fibrillation for over 4 years, CKD, HTN abdominal pain and distention Superior mesenteric 3 days after covid test + CT None None Expired during preparation for surgery
Case 2938 45, M None abdominal pain, vomiting Superior mesenteric 5 days after covid symptoms CTA SMV thrombosis UFH, thrombectomy, resection of small intestine NR
Case 3039 79, F None Epigastric pain, diarrhea Superior mesenteric, jejunal 8 days after covid symptoms CT Portal vein thrombosis resection of small intestine and right colon, thrombolysis, thrombectomy Expired
Case 3140 52, M NR Diarrhea, vomiting, abdominal pain superior mesenteric 23 days after covid symptoms CT None resection of small intestine Discharged
Case 3241 69, M NR epigastric pain, constipation, eructation superior mesenteric, ileocolic branches NR CTA None resection of small intestine, thrombectomy Discharged
Case 3342 61, F DM, HTN abdominal pain with distention, vomiting distal superior mesenteric 4 days after covid test + CT None UFH, ecosprin, clopidogrel, resection of small intestine Expired
Case 3443 44, M Uncontrolled DM pain and paresthesia in right upper limb, hypoesthesia in fingers, gangrene of distal arm, forearm, and hand Right axillary 13 days after covid symptoms CTA, ultrasound Recurrent thrombosis First time: thrombectomy Second time: steroids, LMWH, antibiotics, right limb amputation above elbow Discharged
Case 3544 50, F HTN, DLP, DM1, CKD, MGUS Swelling and ischemic signs in the right upper limb Distal radial 6 days after covid test + CTA None heparin, iloprost, Amlodipine Forearm amputation NR
Case 3645 71, M DM Severe pain in right upper limb right brachiocephalic, subclavian, axillary, brachial, radial, ulnar More than 15 days after covid symptoms ultrasound, CTA None UFH bridged to LMWH, thrombectomy, endarterectomy Expired
Case 3746 68, M HTN, ESRD Cold and mottled right upper limb Right brachial, radial, ulnar 1 day after covid test + NR None thrombectomy, heparin Expired
Case 3847 46, M HTN, DM Left sided weakness mainly in lower limb, right upper limb pain, weakness, cyanosis, and coolness, fourth right finger necrosis Brachial, radial, ulnar NR CTA None Anticoagulant, limb heating, antibiotics, corticosteroids Discharged
Case 3948 31, M CF, bilateral lung transplantation, chronic lung allograft dysfunction, SVC syndrome Painful and cold limbs, loss of motricity, and sensitivity on the right side left internal iliac, Common femoral 39 days after covid symptoms CTA LV thrombosis thrombectomy, LMWH bridged to vitamin K antagonist, aspirin Discharged
Case 4025 82, M AF, CKD, HTN, PAOD Ischemia of right lower limb Right iliac, right femoral, left deep femoral Right 15 and left 18 days after covid symptoms CTA, ultrasound None Medical treatment*, thrombectomy, amputation NR
Case 4149 70, M lung cancer surgery 4 years ago ecchymosis of the right lower limb, bluish-purple swelling, and pain to palpation of the lower limb right femoral, superficial femoral 23 days after covid symptoms ultrasound None LMWH, lower right extremity amputation Expired
Case 4225 59, M HTN, COPD, smoker, obese, flutter Ischemia of the right lower limb Left common femoral Same day as covid test + CTA None Medical treatments* NR
Case 4325 64, M HTN, PAOD, former smoker Ischemia of the right lower limb Right femoropopliteal Same day as covid test + CTA, ultrasound None Medical treatments*, amputation NR
Case 4450 24, M NR right lower limb pain, intermittent claudication right common femoral, profunda femoral, tibial posterior, popliteal Few days after covid symptoms ultrasound None LMWH, aspirin, thrombectomy Discharged
Case 4525 71, M HTN, DVT, obese, homozygous factor V Leiden mutation Ischemia of the right lower limb Right popliteal 4 days after covid symptoms Ultrasound DVT Medical treatments* NR
Case 4651 40, M NR Left lower limb pain Right popliteal NR Ultrasound None NR NR

AF, atrial fibrillation; CAD, coronary artery disease; CF, cystic fibrosis; CKD, chronic kidney disease; COPD; chronic obstructive pulmonary disease; CT, computer tomographic; CTA, computer tomographic angiogram; DVT, deep venous thrombosis; DLP, dyslipidemia; DM, diabetes mellitus; ESRD, end stage renal disease; ET, essential thrombocytopenia; F, female; GERD, gastroesophageal reflux disease; HTN, hypertension; IMV, inferior mesenteric vein; LMWH, low molecular weight heparin; LV, left ventricle; M, male, MGUS, monoclonal gammopathy of undetermined significance; NR, not reported; PAD, peripheral arterial disease; PAOD, peripheral arterial occlusive disease; PE, pulmonary embolism; RV, right ventricle; SVC, superior vena cava; SMV, superior mesenteric vein; UFH, unfractionated heparin.

Medical treatments: exact treatment was not mentioned in the original literature.

FIG 2.

FIG 2

Risk factors of arterial thrombosis in Covid-19. The numbers represent the count of each risk factor associated with 46 cases.

Head and Neck

We reviewed 7 cases of thrombosis in central retinal artery, ophthalmic artery, internal carotid artery, common carotid, and middle cerebral artery. CT-angiography (CTA) was used as the diagnostic method for 3 patients, CT for 1 patient, and other methods in 3 patients. For treatment, low molecular weight heparin (LMWH) was given in 3 patients, unfractionated heparin (UFH) in 2 patients, and thrombectomy and endarterectomy were performed each in 1 patient.

Thoracic Aorta

We observed 16 cases of arterial thrombosis localized in the thoracic Aorta as a result of covid-19 infection; Of which ascending aorta (n = 2), aortic arch (n = 6), and descending aorta (n = 8) were specifically mentioned as the region of involvement. Two studies did not mention the exact region of the thrombosis. CTA was the method of choice for diagnosis in 9 patients, CT in 6, angiography in 1, and ultrasound in 1 patient. For treatment purposes UFH was given in 6 patients, LMWH in 4, thrombolysis in 4, and thrombectomy in 3. Other treatments that were not commonly used include norepinephrine, clopidogrel, direct oral anticoagulants, and argatroban. Two case reports did not accomplish to address the exact treatment and management method.

Abdomen

We reviewed 20 cases of abdominal thrombosis occurring in abdominal aorta, superior mesenteric, jejunal, ileocolic branch arteries, and renal arteries. The most common diagnostic method included CT (n = 10) and CTA (n = 9), followed by angiography (n = 1) and ultrasound (n = 1). Common treatment choices consisted of thrombectomy (n = 10), resection (n = 7), UFH administration (n = 7), thrombolysis (n = 5), clopidogrel (n = 2), and LMWH administration (n = 2). Less frequent treatments were apixaban, warfarin, vit K antagonist, aspirin, and ecosprin.

Upper Limb

We reviewed 5 patients of the upper limb thrombosis in brachiocephalic, subclavian, axillary, brachial, radial, ulnar as a result of covid-19 infection. The diagnostic method was CTA alone (n = 2) or CTA and Doppler-ultrasound (n = 2). UFH (n = 3) and LMWH (n = 2) were administered to the patients for treatment. Thrombectomy was performed in 3 patients. Amputation was carried out in 2 patients.

Lower Limb

We reviewed 16 cases of lower limb thrombosis in common iliac, internal, and external iliac, deep, and superficial femoral, popliteal, tibial, and posterior tibial as a result of covid-19 infection. Diagnostic methods included CTA (n = 8), ultrasound (n = 6), CT (n = 4), and angiography (n = 1). For management, thrombectomy (n = 9) and amputation (n = 6) were performed. The remaining patients underwent medical treatment with LMWH (n = 3), UFH (n = 2), thrombolysis (n = 1), and aspirin (n = 1).

Concomitant Venous Thrombosis and Pulmonary Embolism

Overall, there were 4 patients with pulmonary embolism and 8 patients with venous thrombotic events classified in 4 patients with deep vein thrombosis, 3 with inferior/superior mesenteric vein and 1 with portal vein thrombosis. there were also 2 patients with cardiac thrombosis with thrombi located in the ventricles.

Discussion and Conclusions

Thrombotic events are frequently seen in COVID-19 and contribute to poorer outcome.7 As for the other reviews have frequently discussed pulmonary embolism, vein thrombosis and cardiovascular thrombotic events, the purpose of this review is to fill the gap in the literature about arterial thrombosis along with future perspectives regarding diagnostic and therapeutic methods. Here we summarized 46 cases of arterial thrombosis categorized into 5 groups based on location of event.

Cheruiyot et al14 reported the majority of the COVID-19 patients with arterial thrombosis have been male patients, and the median age has been 50 years old. However, due to the fact that venous and arterial involvement has not been separated in this literature, the data reported for arterial involvement have been missing the age-sex information. The other possible pitfall in this field is that the prevalence of COVID-19 infection is more in male population and the median age of infection is 50 years old.3 Hence, it should be further investigated whether the male sex and age is indeed a risk factor for arterial thrombosis, or the predominance of arterial thrombosis in male patients in certain age group is merely a result of age-sex prevalence of COVID-19 infected patients.

Comparing the venous thromboembolism, arterial thrombosis is an uncommon event. Di Minno et al15 reported the incidence of venous thromboembolism 24.3-39.2% in a meta-analysis, whereas the incidence of arterial thrombosis is 4.4%.14 Higher D-dimer value is mentioned as a risk factor of both venous and arterial thromboembolic events.15 , 16 Both asymptomatic and symptomatic venous thrombosis show high levels of D-dimer. Contrarily, there are limitations in studying d-Dimer level in asymptomatic arterial thrombosis, as a result of lower prevalence rate of arterial thrombosis in COVID-19 patients.

Most frequently used diagnostic methods were CTA, CT, and ultrasound. CTA was the most used diagnostic method with 24 times in all discussed categories, followed by CT (n = 13), and ultrasound (n = 9). The therapeutic method of choice was thrombectomy with total of 18 times. In the next place UFH with 13 and LMWH with 12 times were used. Additionally, amputation or resection were performed 14 times and thrombolysis therapy 7 times.

Future Therapeutic Targets and Areas of Research

Elevated levels of D-dimer were seen at least in 31 patients. Previously collected data clearly suggests that an elevated D-dimer, and presence of coagulopathy, indicates a poorer prognosis in COVID-19 patients.2 , 17 Heightened clinical vigilances and observation of D-dimer levels is needed in hospitalized covid-19 patients, although the decision-making process should be case-based for every individual. Thrombosis is a major complication in COVID-19 patients with optimal thromboprophylaxis being unknown. At least 14 patients were given anticoagulant as prophylaxis which was proven inadequate and highlights the necessity of novel or additional therapeutic approaches.

Footnotes

The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.

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