Literature DB >> 32657818

The Down Side of Prone Positioning: The Case of a Coronavirus 2019 Survivor.

Minh Quan Le1, Richard Rosales, Lauren T Shapiro, Laura Y Huang.   

Abstract

The coronavirus 2019 pandemic has resulted in a surge of patients with acute respiratory distress syndrome. Prone positioning may be used in such patients to optimize oxygenation. Severe infections may leave survivors with significant functional impairment necessitating rehabilitation. Those who have experienced prolonged prone positioning are at increased risk for complications not typically associated with critical illness. This case report describes the course and clinical findings of a survivor of acute respiratory distress syndrome due to coronavirus 2019 who was prone positioned while in intensive care and subsequently admitted to an inpatient rehabilitation facility. Her related complications, as well as those described in the literature, are reviewed. Critical elements of a comprehensive rehabilitation treatment plan for those who have been prone positioned, including implementation of preventive strategies, as well as early recognition and treatment of related injuries, will be described.

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Mesh:

Year:  2020        PMID: 32657818      PMCID: PMC7375183          DOI: 10.1097/PHM.0000000000001530

Source DB:  PubMed          Journal:  Am J Phys Med Rehabil        ISSN: 0894-9115            Impact factor:   3.412


Introduction

Survivors of acute respiratory distress syndrome (ARDS) secondary to infection with the novel coronavirus (COVID-19) often experience significant functional impairments necessitating rehabilitation.[1] Unique challenges may be encountered among survivors who have undergone prolonged prone-positioning to improve oxygenation. In this report, we present the case of an adult woman who developed complications secondary to prone-positioning while hospitalized for severe COVID-19 infection. This report highlights potential adverse effects from the use of this intervention that rehabilitation professionals caring for those with the virus should be aware of to aid in the implementation of preventive strategies while in intensive care settings as well to facilitate their prompt recognition and treatment while receiving rehabilitation.

Case Description

A 41 year-old woman presented to the emergency room in late March of 2020 with a two-day history of fevers, chills, and shortness of breath. She was morbidly obese with a past medical history notable for cardiomyopathy, type 2 diabetes mellitus, and hypertension. Her arterial blood gas revealed hypoxemia and hypercarbia, and chest x-ray revealed bibasilar opacities and a prominent interstitial pattern. She was intubated and admitted to an intensive care unit (ICU), where she received care for ARDS and multi-system organ failure in the setting of septic shock. Polymerase chain reaction analysis of her nasopharyngeal swab sample subsequently returned positive for COVID-19. Due to persistent hypoxemia despite full ventilatory support, she was prone-positioned six days following her admission. Supination was attempted two days later, but she was re-proned secondary to worsening oxygen saturation levels. Four days after being placed in prone position for the second time, she was noted to have a dilated, non-reactive left pupil. Prone positioning was aborted due to its potential to result in increased intracranial pressure. Computed tomography of her brain was without acute intracranial pathology at that time. Her condition improved and she was successfully extubated after six weeks in the ICU. Two weeks later, she was admitted for intensive inpatient rehabilitation. She was able to maintain adequate oxygen saturations on room air. She had persistent tachycardia, for which she required a beta blocker. She was alert, fully oriented, and able to follow complex commands. Both pupils were equal and reactive to light and accommodation. In addition to an unstageable sacral pressure injury, she had a large eschar over the sternum extending to the right ribs, as seen in Figure 1. Additionally, she had a number of facial wounds, including tissue loss of the lower lip, left nare and left maxillary region.
Figure 1

An unstable pressure ulcer covered in eschar, approximately 6x7x2 cm, overlays the inferior right sternal border and the costal portions of ribs 5-7.

An unstable pressure ulcer covered in eschar, approximately 6x7x2 cm, overlays the inferior right sternal border and the costal portions of ribs 5-7. Her physical examination was also remarkable for prominent left deltoid atrophy, weakness of left shoulder abduction and external rotation and left elbow flexion, and reduced sensation over the distal radial forearm. Her upper extremities reflexes were preserved and symmetric in the biceps, brachioradialis, and triceps. She had no current or prior history of cervical spine disorders and on physical examination, she had preserved and pain-free range of motion. She had limited and painful active range of motion of her left shoulder, however passive range of motion was full, and x-ray was without evidence of subluxation. Patient was referred for outpatient electrodiagnostic evaluation for suspected brachial plexopathy, a known potential complication of prone positioning.

Discussion

Since the first reported case of COVID-19 in December 2019, more than 5 million people worldwide have been infected.[2] Preliminary data reveals up to 17% of patients develop ARDS requiring mechanical ventilation.[3] Despite optimal medical management, ARDS carries a mortality rate as high as 60%.[4] Patients who are critically ill secondary to COVID-19 infection may have clinical characteristics that may render them refractory to conventional mechanical ventilation including: hypercapnia, hypoxemia, low lung expandability, and acute right heart dysfunction.[5] The use of prone positioning in such patients may result in improved oxygenation and survival. This was demonstrated in a multicenter, randomized, controlled trial by Guérin et al. in which 237 patients with severe ARDS underwent early prone positioning for at least 16 hours a day. 90-day mortality was significantly lower in the prone group compared to the group that was kept supine (23.6%, 41.0%, P<.001).[4] Though the benefits of its use likely far outweigh the risks, placing patients with ARDS in prone position may put them at risk for complications, including pressure injuries of the skin and soft tissues, displaced intravenous access, and endotracheal tube obstruction.[6] Such complications are rare, however, affected patients may have long-lasting impediments towards functional recovery without proper rehabilitation intervention.

Airway Complications

Intubated patients placed in prone position are at risk for endotracheal obstruction and impaired mucus clearance. A systematic and meta-analysis review by Munshi et al. evaluating three studies with 1,594 participants found that patients in prone position have an increased risk of endotracheal tube obstruction.[6] Moreover, intubation can cause derangement in mucociliary function leading to impaired mucus clearance. This is exacerbated by critically ill patients having decreased muscle strength to assist with mucus clearance resulting in retained secretions.[7] Early bedside interventions with therapies in the intensive care setting to preserve muscle function have been found to be safe and feasible.[8] Breathing techniques can assist in diaphragmatic training to strengthen expiratory muscles, prevent atelectasis, and complications such as pneumonia. Rehabilitation consultants evaluating COVID-19 patients prone-positioned in such settings should consider implementing such techniques when the affected patients are capable of performing them.

Pressure Injuries

Patients placed in prone position in intensive care settings are at increased risk for pressure injuries in comparison to those kept in supine position, and their injuries may occur in uncommon, ventral locations.[9] Anatomical locations exposed to prolonged pressure such as cheekbones and the anterior thorax are often involved, as they were in the patient described here. Other sites reported include the iliac crests, breasts, and knees.[10] Dudek et al. described a case of bilateral anterior superior iliac spine pressure injuries in a 27-year-old patient who spent 65 days in intensive care and underwent prone positioning.[11] The patient’s pressure injuries eventually healed after 9 months of wound care. Risk factors for the development of prone-related pressure injuries include high body mass index (>28.4 kg m2), male sex, and age greater than sixty.[9] Clinicians must remain astute and perform detailed skin examinations. Optimization of nutritional intake and proper wound care can prevent infections, as well decrease the hospital length of stay and risk of future complications. Early enteral nutritional support has been found to be safe; however, patients should be monitored for signs of aspiration, vomiting, or intolerance due to impaired gut motility.[12] Importantly, patient and family education on wound care and offloading techniques should be implemented early in the rehabilitation course.

Facial Injuries

Facial edema and ocular complications have also been reported in patients who have been put in prone position for surgical procedures and/or respiratory failure.[13] Vision loss can occur as a result of increased orbital pressure or direct trauma to underlying structures.[14] Additionally, oropharyngeal edema can arise from prolonged pronation.[14] As a result, patients may have difficulty with communication or swallowing due to localized edema. Trejo-Gabriel-Galan et al. described a case of dysphagia in a 48 year old man following prone positioning for 18 hours a day for 2 days.[15] The authors hypothesized that cranial nerves IX-XII could have been damaged as a result of compression from the U-shape padding used on the face or hyperextension of the neck causing traction on the cranial nerves. Preventive techniques such as the use of silicone face foams and other head and neck supports are vital to avoid facial injuries, including pressure injuries.[16] Early ophthalmologic intervention may be warranted with new deficits such as blurry vision or impaired extraocular movements. Therapy sessions to educate patients on compensatory swallowing techniques and safely advancing a patient’s diet are crucial for the timely restoration of function and prevention of aspiration pneumonitis.

Peripheral Nerve Injuries

Nerve injuries are uncommon following prone positioning, but brachial plexus injuries have been reported. Less than one percent of patients sustain neurological injuries when prone positioning is used during surgery.[17,18] Goettler et al. described two cases of brachial plexopathy from prone position ventilation with gradual improvement following therapy. Their report highlights two individuals, a 34-year-old woman prone for 12 hours daily for 6 days due to severe ARDS and a 52-year-old man prone for 90 minutes daily for dressing changes due to necrotizing fasciitis.[18] Brachial plexus injuries often develop in patients whose shoulders are positioned in abduction with external rotation and posteriorly displaced.[18] This position causes compression and stretching of the brachial plexus, usually affecting the upper nerve roots or trunk.[19] As such, unilateral deficits in sensation or strength should alert clinicians to the possibility of brachial plexus injury. Preventive efforts with proper positioning can mitigate the risk of neurological injury. Rehabilitation of plexus injuries should focus on preventing muscle atrophy, pain management, and address impairments related to activities of daily living or prior occupation.[20] The optimal multidisciplinary team may include physiatry for oversight of therapy services, medication prescriptions and pain control procedures; physical therapy for mobility, functional electrical stimulation and strengthening; occupational therapy for activity and work-related modifications; and psychology for adjustment and coping mechanisms.

Other Complications

Critically ill patients with COVID-19 are at risk for a multitude of neurological and musculoskeletal conditions, including critical illness polyneuropathy and myopathy, ICU-acquired weakness, and contractures.[1] It is noted that shoulder and hip contractures, in particular, have been reported as complications of prone positioning.[18]

Conclusion

Prone position may improve oxygenation and survival among patients with acute respiratory distress syndrome secondary to COVID-19 infection. As rehabilitation professionals are increasingly being called upon to provide care to the critically ill as well as survivors of the disease, it is essential for them to be aware of potential complications of prone positioning, including airway obstruction, pressure injuries, and brachial plexopathies. Preventive measures, including instruction in breathing techniques, offloading pressure points, and avoidance of pressure and traction on the shoulder while proning, should be implemented in intensive care settings whenever possible. Rehabilitation physicians caring for COVID-19 survivors who were kept in prone position should be vigilant in the inspection of skin of the face and anterior body as well as the examination of the upper extremities to identify and treat resulting pressure and brachial plexus injuries.
  19 in total

1.  Preventing Facial Pressure Ulcers in Acute Respiratory Distress Syndrome (ARDS).

Authors:  Ruth S Kim; Kimberly Mullins
Journal:  J Wound Ostomy Continence Nurs       Date:  2016 Jul-Aug       Impact factor: 1.741

2.  Lower Cranial Nerves Paralysis Following Prone-Position Mechanical Ventilation.

Authors:  Jose M Trejo-Gabriel-Galan; Maria Eugenia Perea-Rodriguez; Irene Aicua-Rapun; Esther Martinez-Barrio
Journal:  Crit Care Med       Date:  2017-08       Impact factor: 7.598

3.  Prone positioning in severe acute respiratory distress syndrome.

Authors:  Claude Guérin; Jean Reignier; Jean-Christophe Richard; Pascal Beuret; Arnaud Gacouin; Thierry Boulain; Emmanuelle Mercier; Michel Badet; Alain Mercat; Olivier Baudin; Marc Clavel; Delphine Chatellier; Samir Jaber; Sylvène Rosselli; Jordi Mancebo; Michel Sirodot; Gilles Hilbert; Christian Bengler; Jack Richecoeur; Marc Gainnier; Frédérique Bayle; Gael Bourdin; Véronique Leray; Raphaele Girard; Loredana Baboi; Louis Ayzac
Journal:  N Engl J Med       Date:  2013-05-20       Impact factor: 91.245

4.  Paresis acquired in the intensive care unit: a prospective multicenter study.

Authors:  Bernard De Jonghe; Tarek Sharshar; Jean-Pascal Lefaucheur; François-Jérome Authier; Isabelle Durand-Zaleski; Mohamed Boussarsar; Charles Cerf; Estelle Renaud; Francine Mesrati; Jean Carlet; Jean-Claude Raphaël; Hervé Outin; Sylvie Bastuji-Garin
Journal:  JAMA       Date:  2002-12-11       Impact factor: 56.272

Review 5.  Positioning patients for spine surgery: Avoiding uncommon position-related complications.

Authors:  Ihab Kamel; Rodger Barnette
Journal:  World J Orthop       Date:  2014-09-18

6.  Bilateral anterior superior iliac spine pressure ulcers: a case report.

Authors:  Nancy L Dudek; Usha R Buenger; Guy Trudel
Journal:  Arch Phys Med Rehabil       Date:  2002-10       Impact factor: 3.966

Review 7.  The prone position during surgery and its complications: a systematic review and evidence-based guidelines.

Authors:  Melissa M Kwee; Yik-Hong Ho; Warren M Rozen
Journal:  Int Surg       Date:  2015-02

8.  A prospective international observational prevalence study on prone positioning of ARDS patients: the APRONET (ARDS Prone Position Network) study.

Authors:  C Guérin; P Beuret; J M Constantin; G Bellani; P Garcia-Olivares; O Roca; J H Meertens; P Azevedo Maia; T Becher; J Peterson; A Larsson; M Gurjar; Z Hajjej; F Kovari; A H Assiri; E Mainas; M S Hasan; D R Morocho-Tutillo; L Baboi; J M Chrétien; G François; L Ayzac; L Chen; L Brochard; A Mercat
Journal:  Intensive Care Med       Date:  2017-12-07       Impact factor: 17.440

Review 9.  Rehabilitation of brachial plexus injuries in adults and children.

Authors:  N Smania; G Berto; E La Marchina; C Melotti; A Midiri; L Roncari; A Zenorini; P Ianes; A Picelli; A Waldner; S Faccioli; M Gandolfi
Journal:  Eur J Phys Rehabil Med       Date:  2012-09       Impact factor: 2.874

Review 10.  Comprehensive physiotherapy management in ARDS.

Authors:  N Ambrosino; D N Makhabah
Journal:  Minerva Anestesiol       Date:  2013-01-10       Impact factor: 3.051

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  13 in total

1.  Approach to new-onset facial nerve palsy in a critically ill patient: A case report.

Authors:  Saumitra Misra; Saurabh Kumar; Nitin Rai; Sai Saran
Journal:  Int J Crit Illn Inj Sci       Date:  2022-06-24

2.  Predicting responders to prone positioning in mechanically ventilated patients with COVID-19 using machine learning.

Authors:  Tariq A Dam; Luca F Roggeveen; Fuda van Diggelen; Lucas M Fleuren; Ameet R Jagesar; Martijn Otten; Heder J de Vries; Diederik Gommers; Olaf L Cremer; Rob J Bosman; Sander Rigter; Evert-Jan Wils; Tim Frenzel; Dave A Dongelmans; Remko de Jong; Marco A A Peters; Marlijn J A Kamps; Dharmanand Ramnarain; Ralph Nowitzky; Fleur G C A Nooteboom; Wouter de Ruijter; Louise C Urlings-Strop; Ellen G M Smit; D Jannet Mehagnoul-Schipper; Tom Dormans; Cornelis P C de Jager; Stefaan H A Hendriks; Sefanja Achterberg; Evelien Oostdijk; Auke C Reidinga; Barbara Festen-Spanjer; Gert B Brunnekreef; Alexander D Cornet; Walter van den Tempel; Age D Boelens; Peter Koetsier; Judith Lens; Harald J Faber; A Karakus; Robert Entjes; Paul de Jong; Thijs C D Rettig; Sesmu Arbous; Sebastiaan J J Vonk; Tomas Machado; Willem E Herter; Harm-Jan de Grooth; Patrick J Thoral; Armand R J Girbes; Mark Hoogendoorn; Paul W G Elbers
Journal:  Ann Intensive Care       Date:  2022-10-20       Impact factor: 10.318

3.  Central and peripheral nervous system complications of COVID-19: a prospective tertiary center cohort with 3-month follow-up.

Authors:  Vardan Nersesjan; Moshgan Amiri; Anne-Mette Lebech; Casper Roed; Helene Mens; Lene Russell; Lise Fonsmark; Marianne Berntsen; Sigurdur Thor Sigurdsson; Jonathan Carlsen; Annika Reynberg Langkilde; Pernille Martens; Eva Løbner Lund; Klaus Hansen; Bo Jespersen; Marie Norsker Folke; Per Meden; Anne-Mette Hejl; Christian Wamberg; Michael E Benros; Daniel Kondziella
Journal:  J Neurol       Date:  2021-01-13       Impact factor: 4.849

Review 4.  Musculoskeletal involvement of COVID-19: review of imaging.

Authors:  Santhoshini Leela Ramani; Jonathan Samet; Colin K Franz; Christine Hsieh; Cuong V Nguyen; Craig Horbinski; Swati Deshmukh
Journal:  Skeletal Radiol       Date:  2021-02-18       Impact factor: 2.128

5.  Imaging Review of Peripheral Nerve Injuries in Patients with COVID-19.

Authors:  Claire E Fernandez; Colin K Franz; Jason H Ko; James M Walter; Igor J Koralnik; Shivani Ahlawat; Swati Deshmukh
Journal:  Radiology       Date:  2020-12-01       Impact factor: 11.105

6.  Pedal Gangrene in a Patient with COVID-19 Treated with Prone Positioning and Extracorporeal Membrane Oxygenation.

Authors:  Amanda Siegel; Ammar Al Rubaiay; Andrew Adelsheimer; John Haight; Scott Gawlik; Alisha Oropallo
Journal:  J Vasc Surg Cases Innov Tech       Date:  2021-03-04

7.  Effects of prone and lateral positioning alternate in high-flow nasal cannula patients with severe COVID-19.

Authors:  Yang Chong; Chuanchuan Nan; Wenjing Mu; Changsong Wang; Mingyan Zhao; Kaijiang Yu
Journal:  Crit Care       Date:  2022-01-25       Impact factor: 9.097

8.  COVID-19 atypical Parsonage-Turner syndrome: a case report.

Authors:  Maria Beatrice Zazzara; Anna Modoni; Alessandra Bizzarro; Alessandra Lauria; Francesca Ciciarello; Cristina Pais; Vincenzo Galluzzo; Francesco Landi; Matteo Tostato
Journal:  BMC Neurol       Date:  2022-03-16       Impact factor: 2.474

Review 9.  Providing rehabilitation to patients recovering from COVID-19: A scoping review.

Authors:  Marina B Wasilewski; Stephanie R Cimino; Kristina M Kokorelias; Robert Simpson; Sander L Hitzig; Lawrence Robinson
Journal:  PM R       Date:  2021-10-07       Impact factor: 2.218

10.  Post-extubation dysphagia and dysphonia amongst adults with COVID-19 in the Republic of Ireland: A prospective multi-site observational cohort study.

Authors:  Julie Regan; Margaret Walshe; Sarah Lavan; Eanna Horan; Patricia Gillivan Murphy; Anne Healy; Caoimhe Langan; Karen Malherbe; Breda Flynn Murphy; Maria Cremin; Denise Hilton; Jenni Cavaliere; Alice Whyte
Journal:  Clin Otolaryngol       Date:  2021-07-18       Impact factor: 2.729

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