Volume Guarantee Initiation and ongoing clinical management of an infant supported by Volume Guarantee A Case Study

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D-32084-2011 Volume Guarantee Initiation and ongoing clinical management of an infant supported by Volume Guarantee A Case Study Robert DiBlasi RRT-NPS, FAARC Respiratory Care Manager of Research & Quality Improvement Seattle Children s Hospital

02 VOLUME GUARANTEE The patient is a premature female infant born at 25 4/7 weeks, weighing 452 grams, following premature rupture of membranes at a community hospital. She was supported briefly in the delivery room with CPAP following surfactant administration, and was transferred to a level IV NICU for further care on the second day of life. The infant arrived at the hospital with the neonatal transport team on CPAP with a pressure of 8 cm H 2 O and a set FiO 2 of 0.7. The infant was in distress and presented with the following: nasal flaring, intercostal and substernal retractions, and occasional apneic episodes responding to intermittent tactile stimulation. The chest x-ray showed diffuse bilateral infiltrates and profound hypoinflation, consistent with Respiratory Distress Syndrome (RDS). Due to the patient s deteriorating respiratory status on high CPAP settings, Non-Invasive Ventilation (NIV) was initiated using the Dräger Babylog VN500. Initial Settings Application Mode NIV Mode PC-CMV PIP 20 cm H 2 O PEEP 6 cm H 2 O Respiratory Rate 20/min Ti 0.4 s FiO 2 0.6 Initial arterial blood gas via Umbilical Artery Catheter ph 7.28 PaCO 2 55 mmhg PaO 2 55 mmhg HCO 3 19 mmhg NIV resulted in reduced work of breathing and avoided intubation for this patient. The patient was initially asynchronous with the non-invasive PC-CMV 1 breaths, so the respiratory rate (RR) was adjusted to match every other spontaneous effort being made by the patient (Figure 1). 1 Pressure Control - Continuous Mandatory Ventilation

VOLUME GUARANTEE 03 D-45978-2015 Figure 1: Graphical representation of airway pressure in the patient during NIV with the Babylog VN500 The red arrows in Figure 1 indicate small depressions in the baseline pressure where the patient is making an inspiratory effort. Adjusting the rate to provide fully supported breaths on every other spontaneous effort was useful for improving synchrony in this patient. The patient failed NIV after 10 hours due to apnea, desaturations, and bradycardia. The chest x-ray (Figure 2) after intubation revealed diffuse bilateral infiltrates consistent with RDS. The patient was given 2 ml/kg Curosurf for poor compliance (0.5 ml/cm H 2 O), refractory hypoxemia, and radiographic evidence of pulmonary atelectasis.

04 VOLUME GUARANTEE D-45979-2015 Figure 2: X-ray after intubation The application mode was changed to tube for invasive ventilation. The physician ordered PC-AC 2 with Volume Guarantee (VG) with the following settings: tidal volume (VT) of 4 ml/kg, PEEP of 8 cm H 2 O, an inspiratory time (Ti) of 0.3 s, RR 50 /min. The patient was spontaneously assisting all breaths and was breathing at a rate of 70/min. The transcutaneous CO 2 levels were 75 mmhg and these values correlated well with the arterial CO 2 levels observed with the last blood gas on nasal CPAP. Upon the physician's request, the Respiratory Therapist (RT) increased the VT to 5 ml/kg to account for the instrumental deadspace of the flow sensor and ET tube. The respiratory rate and CO 2 levels decreased in response to this change and the patient appeared comfortable. Following this change, an audible ET tube leak could be heard. The ventilator was registering a 50 60 percent leak and an alarm on the ventilator began reading VT low. This problem was remedied by changing the Pmax setting from 25 to 30 cm H 2 O in order to provide enough pressure to allow the tidal volume to be delivered. Twenty-four hours later, the patient s lung mechanics improved as reflected by lower Peak Inspiratory Pressure (PIP) values. However, the bedside Registered Nurse (RN) expressed concerns that the patient appeared tachypneic and had low PIP values. The bedside RT assured the nurse that this was related to the nursing care and usually the PIP values returned to normal after care was rendered. The RT presented a trend of the pressures and volumes (Figure 3) to the RN. She was then assured that this was a normal function of the ventilator and may be appropriate so that the patient isn t receiving too much pressure and volume during periods of anxiety. 2 Pressure Control - Assist Control

VOLUME GUARANTEE 05 D-45980-2015 Figure 3: Trend of Tidal volume and airway pressure The trending of pressure and volume show reduced inspiratory pressures due to increased volumes during periods of nursing care (red arrows). The patient s efforts are reduced after nursing care, resulting in smaller volumes and higher PIP values. A month later, the infant was still supported with the Babylog VN500 in the PC-AC mode with Volume Guarantee activated. The infant gradually started showing signs of increased work of breathing on the ventilator and increased FiO 2 requirement following upsizing of the ET tube. Settings Application Mode Tube Mode PC-AC with VG PIP 7 cm H 2 O Vt 14.4 ml (set) 17.5 ml (measured) PEEP 6 cm H 2 O Respiratory Rate 20/min Ti 0.30 s FiO 2 0.29

06 VOLUME GUARANTEE Venous Blood Gas ph 7.23 PaCO 2 68 mmhg PaO 2 23 mmhg HCO 3 29 mmhg Airway graphics revealed consistently low PIP values with tidal volumes greater than that set on the ventilator (Figure 4A). The chest x-ray showed low lung volumes with increasing atelectasis and air bronchograms (Figure 4B) from the previous exam. The patient developed retractions, nasal flaring, and SpO 2 78-89 percent. Breath sounds were reduced in the bases with fine inspiratory crackles throughout. D-45981-2015 Figure 4A: Inadequate support during PC-AC D-45977-2015 Figure 4B: Strong infiltration constant with atelectasis

VOLUME GUARANTEE 07 Based on the clinical deterioration, the RT chose to assess the appropriateness of the tidal volume setting. The attending neonatologist wanted to place the patient in PC-AC without Volume Guarantee, so that the patient could get a higher level of support. During this time, the NICU team discovered that the dose-calculated weight in the ventilator hadn t been updated in over a month. When the new weight was entered, it became obvious that the patient was only receiving a tidal volume ~3.5 ml/kg. This prompted the team to increase the set tidal volume targeted from 14 to 19 ml. This resulted in an immediate reduction in the observed high levels of work of breathing and increased in PIP values (Figure 5A) as well as radiographic improvement in lung inflation (Figure 5B). D-45974-2015 Figure 5A: Airway graphic following setting change D-45982-2015 Figure 5B: X-ray following setting change A week later the PIP values were again reduced to only 1 cm H 2 O above the PEEP level during PC-AC with Volume Guarentee. However, with the exception of this time, the patient had normal breathing and acceptable gas exchange. Based on this, the patient was extubated to non-invasive CPAP. Subsequently, five days later, the patient was transferred home utilizing oxygen therapy at 0.5 L/min via nasal cannula.

08 VOLUME GUARANTEE Robert DiBlasi RRT-NPS, FAARC, Respiratory Care Manager of Research & Quality Improvement at Seattle Children's Hospital. Rob is also a Principle Investigator for the Center for Developmental Therapeutics at the Seattle Children s Hospital Research Institute. His research interests include: neonatal pulmonary mechanics monitoring, patient/ventilator interaction, ventilator induced lung injury, neonatal lung protective strategies, mechanical ventilator performance, and aerosolization of respiratory medications. Rob is an inventor for multiple life support devices designed for use in resource limited settings, receiving much of the funding for implementing these devices in the clinical setting from the Bill and Melinda Gates Foundation. He has authored 25 peer reviewed papers, 12 textbook chapters on neonatal and pediatric mechanical ventilation, and co-editor for the 4th edition of Perinatal/Pediatric Respiratory Care Textbook. He also serves on the Editorial Board for RESPIRATORY CARE journal. He is also a fellow of the American Association for Respiratory Care. 90 72 930 18.08-2 KB LL Subject to modifications 2018 Drägerwerk AG & Co. KGaA CORPORATE HEADQUARTERS Drägerwerk AG & Co. KGaA Moislinger Allee 53 55 23558 Lübeck, Germany www.draeger.com USA Draeger, Inc. 3135 Quarry Road Telford, PA 18969-1042 Tel +1 800 4DRAGER (+1 800 437 2437) Fax +1 215 723 5935 info.usa@draeger.com Manufacturer: Drägerwerk AG & Co. KGaA Moislinger Allee 53 55 23558 Lübeck, Germany Locate your Regional Sales Representative at: www.draeger.com/contact