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Challenges of stroke management in resource-limited settings: A case-based reflection


Yohane G. Gadama1, Gloria Mwangalika2, Louis B. Kinley3, Beth Jackson1, Henry C. Mwandumba2,4, Jane Mallewa5, Tom Solomon6, Rob Simister7, Laura A. Benjamin6,7, Maria I. Vargas8, Joseph Kamtchum-Tatuene2,6, Tamara Phiri5

1. Department of Medicine, Queen Elizabeth Central Hospital, Blantyre, Malawi

2. Malawi–Liverpool–Wellcome Trust Clinical Research Programme, College of Medicine, University of Malawi, Blantyre, Malawi

3. Department of Radiology, Queen Elizabeth Central Hospital, Blantyre, Malawi

4. Department of Clinical Sciences, Liverpool School of Tropical Medicine, Liverpool, United Kingdom

5. Department of Medicine, College of Medicine, University of Malawi, Blantyre, Malawi

6. Liverpool Brain Infections Group, Institute of Infection and Global Health, University of Liverpool, Liverpool, United Kingdom

7. Hyper-acute Stroke Unit, University College Hospital, London, United Kingdom

8. Department of Neuroradiology, Geneva University Hospital, Geneva, Switzerland

Correspondence: Dr Joseph Kamtchum-Tatuene (

Published June 2017:

ISSN: 1995-7262


A 19-year-old man presented with a 1-year history of headache, generalised body weakness, progressive memory loss, and disorientation. One month prior to admission, there was aggravation of the weakness of the right upper limb, with new-onset difficulty with mastication, speech impairment, apathy, and urinary incontinence. On clinical examination, the patient had a motor aphasia and a right-sided hemiparesis with increased muscle tone and hyperreflexia. A noncontrast computed tomography (CT) scan of the brain revealed large ischaemic strokes extending beyond the classical vascular territories. Cerebrospinal fluid analysis showed a mildly increased protein level. The electrocardiogram revealed an irregular sinus bradycardia. The remainder of the cardiovascular and laboratory workup was unremarkable. Considering a working diagnosis of central nervous system vasculitis, the patient was treated with aspirin, prednisolone, and physiotherapy. However, he died suddenly a few weeks later. Based on this case, we discuss the challenges of stroke management in resource-limited settings, provide practical tips for general practitioners, reflect on the potential avenues for short- and long-term action, and introduce the budding collaboration platform between the University College London, the University of Liverpool, the Queen Elizabeth Central Hospital, and the Malawi–Liverpool–Wellcome Trust Clinical Research Programme.

© 2017 The College of Medicine and the Medical Association of Malawi. This work is licensed under the Creative Commons Attribution 4.0 International License. This is an open access article under the CC BY-NC-ND license (


Stroke is the most common cause of disability and the second most common cause of death worldwide, after ischaemic heart diseases.1 In Malawi, it is the 6th biggest killer after infectious diseases.2 Although more common in the elderly, stroke also affects young adults and recent data suggest an increasing incidence of ischaemic stroke in young adults, with significant adverse socioeconomic consequences.3 Furthermore, stroke in young adults (those younger than 45 years of age) is often initially misdiagnosed by inexperienced clinicians because of its unexpectedness, leading to lost opportunities for intervention.4,5 In high-income countries, stroke is labelled as cryptogenic in up to one-third of cases.6–8 The challenge of appropriate diagnosis and management of stroke is even greater in low-income countries where there is a dearth of basic equipment, trained personnel, and specific drugs. In this paper, through a case managed at Queen Elizabeth Central Hospital (QECH) in Blantyre, we discuss the challenges of stroke management in resource-limited settings, provide practical tips for general practitioners, and reflect on the potential avenues for short- and long-term action.

QECH, which is Malawi’s largest referral hospital, does not house a stroke unit; therefore, all stroke cases are managed within the internal medicine department. The hospital has a Magnetic Resonance Imaging (MRI) department, the construction of which was funded by the Blantyre Malaria Project.9 However, computed tomography (CT) is only accessible in Lilongwe, the capital city, which is over 350 km away. There are in-house radiologists but neurology, neurosonology, and neuroradiology expertise is only provided sporadically by visiting researchers.

Case presentation

A 19-year-old man presented with a 1-year history of persistent headache of variable intensity, associated with generalised body weakness, progressive memory loss and disorientation, with the patient being unable to find his way back home whenever he went out of the house. One month prior to admission, he experienced an aggravation of the weakness of the right upper limb, with new-onset difficulty with mastication, speech impairment, excessive sleepiness, and urinary incontinence. During the course of his illness, the patient had been hospitalised several times and treated for meningitis, cerebral malaria, and psychosis, without clear evidence for these diagnoses. There was no fever, no seizures, no vomiting, and no visual symptoms. There was no history of hypertension, diabetes mellitus, or consumption of tobacco, alcohol, or drugs.

On clinical examination, the patient was found apathetic with a Glasgow Coma Scale score of 14 (eye opening to verbal command). He had a motor aphasia with right-sided hemiparesis, increased muscle tone and brisk reflexes without clonus or Babinski’s sign.

A noncontrast CT scan of the brain revealed multiple large, hypodense lesions, extending beyond the classical vascular territories and involving the lenticular nucleus and the frontal operculum on the right, the insula and the frontal lobe on the left, and both putamina and temporal lobes. The lesions were suggestive of recurrent ischaemic strokes and the one in the left frontal lobe seemed more recent and associated with a mild haemorrhagic transformation (Figure 1).

fig 1

The full blood count, liver function tests, random blood sugar, and the HIV and syphilis tests were unremarkable. Cerebrospinal fluid analysis revealed a mild increase of the protein level (0.66 g/L; normal range: 0.2–0.4) but a normal white blood cell count (1/mm3; normal range: 0–5). The carotid–vertebral ultrasound was unremarkable. The transcranial Doppler could not be performed because there was no temporal window. The electrocardiogram revealed a sinus bradycardia (56 beats per minute), with supraventricular extrasystoles. The transthoracic cardiac ultrasound showed a mild dilatation of the right atrium but there was no valvulopathy, myxoma, or intracardiac thrombus. There was no sign of right-to-left shunt, even after microbubble injection at rest (the patient could not perform the Valsalva manoeuvre).

Considering a working diagnosis of recurrent strokes secondary to central nervous system vasculitis, the patient was started on oral low-dose aspirin (75 mg/day) and prednisolone (60 mg/day). He was also offered some physiotherapy. A noncontrast brain MRI (0.35 T) performed 2 weeks after admission did not show any additional lesions. He was discharged with a schedule for close neurological follow-up. However, the patient’s parents reported his sudden death 2 weeks later.


The patient described in this report was diagnosed with recurrent strokes, but the young age, the atypical presentation (chronic headache and alteration of cognitive function, with focal neurological symptoms only appearing at a later stage), the absence of cardiovascular risk factors (diabetes mellitus, hypertension, obesity, smoking, dyslipidaemia), the absence of HIV infection, and the limited accessibility of brain imaging techniques led to recurrent misdiagnosis with ensuing failure to initiate adequate preventive therapy. At first sight, given the distribution of lesions in space (bilateral with cortical involvement) and time (lesions of different ages), one could think of cardioembolism as the primary mechanism of the ischaemic lesions. However, their size, confluence, and extension beyond classical vascular territories speak against this hypothesis and instead suggest either a primary or secondary central nervous system vasculitis, a coagulopathy, or a metabolic or mitochondrial encephalopathy.

Besides the radiological findings, other arguments in favour of a primary central nervous system vasculitis would be the presence of a chronic headache (which is the most common symptom), the insidious progression of disease, the presence of cognitive impairment (which is the second most common symptom), the absence of constitutional symptoms (fever, weight loss, night sweats—as would be seen in systemic vasculitides), and the high protein level in the cerebrospinal fluid.10,11 A coagulopathy seems less probable in the absence of past or present thrombotic events in other organs, or episodes of abnormal bleeding—but a definitive conclusion would require a comprehensive assessment of the coagulation profile. The negative family history, the absence of myopathy, and the normal psychomotor development do not support the diagnosis of mitochondrial encephalopathy, but genetic tests would be needed to formally rule out a sporadic case with atypical presentation. Thus, given the limited diagnostic resources, the final cause of the recurrent strokes remains uncertain. The irregular bradycardia found on admission could be related to the lesions of the left insula. Association between insular lesions and arrhythmias have been consistently demonstrated, with left insular lesions most often causing bradycardia.12 These perturbations of the cardiac rhythm may explain the patient’s sudden death (in the absence of a pacemaker).

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This case illustrates a few of the numerous diagnostic and therapeutic challenges related to stroke diagnosis and management in resource-limited settings, as summarised in Table 1. A few practical messages could be formulated for clinicians on the frontline. First, strokes may occur at all ages and should not be considered as only a disease of the elderly. In children and young adults, the clinical presentation is often atypical, with chronic headache, seizures, and neurobehavioural symptoms.13 Hence, a thorough neurological examination must always be performed to look for discrete signs (for example, speech disturbances, sensory deficits, or abnormal or asymmetric muscle tone or reflexes) suggesting a structural brain lesion, and the threshold for brain imaging should be low. The identification of the aetiology of stroke in young adults is more challenging, because on one hand, classical cardiovascular risk factors are usually absent, and on the other hand, the numerous alternative causes are rare conditions that are difficult to diagnose in low-to-middle income countries. In order to get the best out of the limited resources at their disposal, clinicians should use a stepwise approach, based on epidemiologic data and specific clinical clues (Table 2). Advice should be sought from a physician with expertise in stroke medicine whenever possible, especially for patients with recurrent or cryptogenic strokes.

While waiting for resource and infrastructure improvements, low-to-middle income countries like Malawi can implement some simple solutions to improve stroke care in their local settings. These include raising population awareness about stroke symptoms and risk factors using well-designed communication strategies,14 investing in telemedicine for teaching and case management,15,16 and strengthening partnerships with high-income countries for the financial, logistic, and training support. There are ongoing discussions between Queen Elizabeth Central Hospital, the Malawi–Liverpool–Wellcome Trust Clinical Research Programme, and international partners (University College London Hospitals and the University of Liverpool), in view of initiating a collaborative platform to address some of these challenges in the short term.17 The actions implemented will aim to improve clinical care through the creation of a stroke unit, as well as support local stroke research and staff training.


The authors are grateful to the patient and his parents for granting the permission to use their medical information for teaching and scientific publication.

Competing interests

All authors declare that they have no competing interests related to this work.


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