A 40-year-old man developed acute brainstem dysfunction 3 days after hospital admission with symptoms of the novel SARS-CoV-2 infection (COVID-19). Magnetic resonance imaging showed changes in keeping with inflammation of the brainstem and the upper cervical cord, leading to a diagnosis of rhombencephalitis. No other cause explained the patient's abnormal neurological findings. He was managed conservatively with rapid spontaneous improvement in some of his neurological signs and was discharged home with continued neurology follow up.A 40-year-old never-smoker with minimum alcohol intake, originally from Nigeria and now settled in the UK with his family after moving here 7 years ago, attended the emergency department reporting a 10-day history of persistent fever and progressive dyspnoea on exertion while self-isolating at home during the COVID-19 crisis. He was on long-term treatment with ramipril and amlodipine for hypertension and on dorzolamide (a carbonic anhydrase inhibitor) with timolol maleate eye drops for closed angle glaucoma. He reported malaise, a new cough with yellow sputum and diarrhoea (non-bloody) over 3 days. There was no recent foreign travel or family history of medical conditions but he shared the concern that his wife was currently pregnant.On presentation, temperature was 38.4°C, heart rate regular at 86 beats/minute, blood pressure 129/83 mmHg; oxygen saturation 93% on room air as he was tachypnoeic at 32 breaths/minute. On auscultation, heart sounds were normal but there were bi-basal ABSTRACT Authors: A ST4 Respiratory Medicine, The Shrewsbury and Telford Hospital NHS Trust, Telford, UK; B clinical fellow, The Shrewsbury and Telford Hospital NHS Trust, Telford, UK; C consultant neurologist, The Shrewsbury and Telford Hospital NHS Trust, Telford, UK; D consultant respiratory physician, The Shrewsbury and Telford Hospital NHS Trust, Telford, UKcrackles. There was no gross focal neurological deficit. Initial 12-lead electrocardiography showed sinus tachycardia and chest X-ray showed a right lower zone consolidation. Arterial blood gas on room air revealed hypoxia (PaO 2 8.77 kPa) with pH 7.432, PaCO 2 4.21 kPa, HCO 3-20.6 mmol/L, base excess 2.6 mmol/L, lactate 0.98 mmol/L. Haemoglobin was 139 g/L, white cell count 7.0 × 10 9 /L (lymphocytes 1.2 × 10 9 /L) and C-reactive protein (CRP) marginally raised at 50 mg/L, and similar slight increases were seen in serum gamma glutamyl transferase (GGT) 107 U/L (range 0-75) and alanine aminotransferase (ALT) 88 U/L (range 0-45), with other liver tests and urinary electrolytes within the normal ranges.
BackgroundBritish Thoracic Society (BTS) guidelines state that oxygen should be used to treat hypoxaemia and prescribed to a target saturation range.1 Patients at risk of type 2 respiratory failure should target 88–92%, with the rest 94–98%. In the BTS national audit in 2013, out of 6214 patients, 55% had oxygen prescribed and 52% were prescribed and delivered to within a target saturation range.2 MethodsWe ran a Quality Improvement Project (QIP) involving three PDSA cycles to improve the delivery of oxygen to patients on the Respiratory Ward at the Princess Royal Hospital, Telford.We set our standards as:90% of patients receiving oxygen have it prescribed on a drug chart100% of patients prescribed oxygen have a documented target saturation range100% of patients have oxygen delivered appropriately to targetThe QIP process commenced in Autumn 2015. After the first cycle we used bedside prompt cards and delivered teaching sessions with doctors, nurses and healthcare assistants (HCAs). After the second cycle we appointed a nurse, HCA and two FY1 doctors as ‘O2 Ninjas’ . Data were collected at three points after each cycle from drug charts and VitalPaC.ResultsSee TableAbstract P204 Table 1National Audit 2013National Audit 2015Telford Audit Autumn 2015Telford Re-audit Spring 2016Telford Re-audit Summer 2016Target StandardsNumber of patients on oxygen 62147741707531–Prescribed 55%58%61%79%84%90%Prescribed & Targeted –53%95%98%100%100%Prescribed, Targeted & Delivered 52%69%63%62%62%100%ConclusionsOur QIP shows that education and empowerment of ‘grass root’ healthcare workers can improve oxygen prescription on a Respiratory ward. We suggest this QIP is replicated in other trusts and specialties to improve safe oxygen delivery.ReferencesO’Driscoll BR, Howard LS, Davison AG. BTS guideline for emergency oxygen use in adult patients. Thorax 2008;63(Suppl VI):vi1–vi68.BTS Oxygen Audit 2013. https://www.brit-thoracic.org.uk/document-library/audit-and-quality-improvement/audit-reports/bts-emergency-oxygen-audit-report-2013/(accessed 21 January 2016).
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