Simplicity and Safety Prevention Efficiency and Biocompatibility

Similar documents
Mechanical Ventilation of the Patient with ARDS

OPEN LUNG APPROACH CONCEPT OF MECHANICAL VENTILATION

VENTILATION STRATEGIES FOR THE CRITICALLY UNWELL

Driving Pressure. What is it, and why should you care?

3100A Competency Exam

Lung recruitment maneuvers

Underlying Principles of Mechanical Ventilation: An Evidence-Based Approach

Why we should care (I)

INTRODUCTION TO BI-VENT (APRV) INTRODUCTION TO BI-VENT (APRV) PROGRAM OBJECTIVES

INSPIRE Min.I. Redefining minimally invasive approach to perfusion. Expand your choices with INSPIRE Min.I.

Accumulation of EEV Barotrauma Affect hemodynamic Hypoxemia Hypercapnia Increase WOB Unable to trigger MV

A complete family of Pediatric Perfusion Systems

Basics of Mechanical Ventilation. Dr Shrikanth Srinivasan MD,DNB,FNB,EDIC Consultant, Critical Care Medicine Medanta, The Medicity

EMS INTER-FACILITY TRANSPORT WITH MECHANICAL VENTILATOR COURSE OBJECTIVES

Mechanical Ventilation

Using the Lifebox oximeter in the neonatal unit. Tutorial 1 the basics

Chapter 4: Ventilation Test Bank MULTIPLE CHOICE

Sumit Ray Senior Consultant & Vice-Chair Critical Care & Emergency Medicine Sir Ganga Ram Hospital

excellence in care Procedure Management of patients with difficult oxygenation. For Review Aug 2015

Notes on BIPAP/CPAP. M.Berry Emergency physician St Vincent s Hospital, Sydney

Flight Medical presents the F60

Gas exchange. Tissue cells CO2 CO 2 O 2. Pulmonary capillary. Tissue capillaries

What is Lung Protective Ventilation? NBART 2016

PROBLEM SET 9. SOLUTIONS April 23, 2004

ONLINE DATA SUPPLEMENT. First 24 hours: All patients with ARDS criteria were ventilated during 24 hours with low V T (6-8 ml/kg

INSPIRE Oxygenator Family

INSPIRE TM Inspired choice

Lung Volumes and Ventilation

Prof. Javier García Fernández MD, Ph.D, MBA.

CHAPTER 6. Oxygen Transport. Copyright 2008 Thomson Delmar Learning

Difficult Oxygenation Distribution: Sydney X Illawarra X Orange X

I Physical Principles of Gas Exchange

Alveolus and Respiratory Membrane

Volume Diffusion Respiration (VDR)

RSPT 1060 OBJECTIVES OBJECTIVES OBJECTIVES EQUATION OF MOTION. MODULE C Applied Physics Lesson #1 - Mechanics. Ventilation vs.

Mechanical Ventilation

Section Two Diffusion of gases

Test Bank for Pilbeams Mechanical Ventilation Physiological and Clinical Applications 6th Edition by Cairo

Supporting you in saving lives!

TESTCHEST RESPIRATORY FLIGHT SIMULATOR SIMULATION CENTER MAINZ

Capnography in the Veterinary Technician Toolbox. Katie Pinner BS, LVT Bush Advanced Veterinary Imaging Richmond, VA

Chapter 3: Invasive mechanical ventilation Stephen Lo

INTELLiVENT -ASV. The world s first Ventilation Autopilot

1 out of every 5,555 of drivers dies in car accidents 1 out of every 7692 pregnant women die from complications 1 out of every 116,666 skydives ended

Average Volume Assured Pressure Support

Supplementary Appendix

Removal During Acute Lung Injury

Objectives. Respiratory Failure : Challenging Cases in Mechanical Ventilation. EM Knows Respiratory Failure!

C - The Effects of Mechanical Ventilation on the Development of Acute Respiratory Distress Syndrome LIBRARIES ARCHIVES.

Intelligent Ventilation solution from ICU to MRI

Neonatal tidal volume targeted ventilation

INSPIRE TM C The integrated closed system oxygenator for gentle perfusion

Solutions for transcutaneous monitoring

High Frequency Ventilation. Neil MacIntyre MD Duke University Medical Center Durham NC USA

Selecting the Ventilator and the Mode. Chapter 6

Introduction. Respiration. Chapter 10. Objectives. Objectives. The Respiratory System

ASV. Adaptive Support Ventilation

Initiation and Management of Airway Pressure Release Ventilation (APRV)

Respiratory physiology II.

Respiration (revised 2006) Pulmonary Mechanics

Collin County Community College. Lung Physiology


Author: Thomas Sisson, MD, 2009

Invasive mechanical ventilation:

Rodney Shandukani 14/03/2012

SEP-1 Additional Notes for Abstraction for Version 5.0b


Essential Skills Course Acute Care Module. Respiratory Day 2 (Arterial Blood Gases) Pre course Workbook

D Beyond essentials DRÄGER SAVINA 300 SELECT

Lung Volumes and Capacities

Respiratory system & exercise. Dr. Rehab F Gwada

Respiratory Physiology Gaseous Exchange

Blood gas adventures at various altitudes. Friedrich Luft Experimental and Clinical Research Center, Berlin-Buch

QUESTIONNAIRE FOR MEMBERS OF THE PUBLIC

Respiratory Medicine. A-A Gradient & Alveolar Gas Equation Laboratory Diagnostics. Alveolar Gas Equation. See online here

Anatomy and Physiology Part 11: Of Blood and Breath by: Les Sellnow

Physiological Basis of Mechanical Ventilation

Disclosures. The Pediatric Challenge. Topics for Discussion. Traditional Anesthesia Machine. Tidal Volume = mls/kg 2/13/14

PICU Resident Self-Study Tutorial The Basic Physics of Oxygen Transport. I was told that there would be no math!


Mechanical Ventilation

CHAPTER 3: The cardio-respiratory system

ENT 318/3 Artificial Organ. Artificial Lung. Lecturer Ahmad Nasrul bin Norali

RESPIRATORY REGULATION DURING EXERCISE

Indications for Mechanical Ventilation. Mechanical Ventilation. Indications for Mechanical Ventilation. Modes. Modes: Volume cycled

Javier García Fernández. MD. Ph.D. MBA. Chairman of Anaesthesia and Critical Care Service Puerta de Hierro University Hospital Associate Professor.

Respiratory Failure & Mechanical Ventilation. Denver Health Medical Center Department of Surgery and the University Of Colorado Denver

Human gas exchange. Question Paper. Save My Exams! The Home of Revision. Cambridge International Examinations. 56 minutes. Time Allowed: Score: /46

CEEA 2015, Kosice Luciano Gattinoni, MD, FRCP Università di Milano Fondazione IRCCS Ca Granda Ospedale Maggiore Policlinico Milan, Italy

respiratory cycle. point in the volumes: 500 milliliters. for men. expiration, up to 1200 milliliters extra makes breathing Respiratory

HAMILTON-C2 HAMILTON-C2. The universal ventilation solution

Title: Maximization of oscillatory frequencies during arteriovenous extracorporeal lung assist: a large-animal model of respiratory distress

Considerations in Circuit Miniaturization

What can we learn from high-frequency ventilation?

REVISION: GASEOUS EXCHANGE 24 SEPTEMBER 2014 Lesson Description

The Basics of Ventilator Management. Overview. How we breath 3/23/2019

V8600 Ventilator. Integrated Invasive & Noninvasive Ventilation

VENTILATORS PURPOSE OBJECTIVES

Pressure -Volume curves in ARDS. G. Servillo

GASEOUS EXCHANGE IN HUMANS 06 AUGUST 2014

Transcription:

Simplicity and Safety Prevention Efficiency and Biocompatibility Bibliography 1. Gattinoni L, Kolobow T, Damia G, Agostani A, Pesenti A: Extracorporeal carbon dioxide removal (ECCO2R): a new form of respiratory assistence. Int J Artif Organs 1979; 2: 183-185. 2. Gattinoni L, Pesenti A, Mascheroni D, et al: Low frequency positive pressure ventilation with extracorporeal CO 2 removal in severe acute respiratory failure. Jama 1986; 256: 881-886. 3. The Acute Respiratory Distress Syndrome Network. Ventilation with lower tidal volume as compared with traditional tidal volume for acute lung injury and the acute respiratory distress syndrome. N Engl J Med 2000; 342: 1301-1308. 4. Beatmung, 3 Auflage. Reinhard L, Ziegenfuss T: Springer-Verlag Berlin Heidelberg 1997, 1999, 2004. 5. Sonetto C, Terragni P, Ranieri V.M: Does high tidal volume generate ALI/ARDS in healthy lungs? Intensive Care Med (2005) 31:893-895. 6. Livigni S, Maio M, Ferretti E, Longobardo A, Potenza R, Rivalta L, Selvaggi P, Vergano M, Bertolini G: Efficacy and safety of a low-flow veno-venous carbon dioxide removal device: results of an experimental study in adult sheep. Critical Care 2006; 10: R151. 7. Deja M, Hommel M, Weber-Carstens S, Moss M, Von Dossow V, Sander M, Pille C, Spies C: Evidence-based therapy of severe acute respiratory distress syndrome: an algorithm-guided approach. The Journaul of International Medical Research 2008; 36: 211-221. 8. Terragni PP, Del Sorbo L, Mascia L, Urbino R, Martin EL, Birocco A, Faggiano C, Quintel M, Gattinoni L, Ranieri VM: Tidal volume lower than 6 ml/kg enhances lung protection: role of extracorporeal carbon dioxide removal. Anesthesiology 2009; 111: 826-835. 9. Ricci D, Boffini M, Del Sorbo L, El Qarra S, Comoglio C, Ribezzo M, Bonato R, Ranieri V.M, Rinaldi M: The use of CO 2 removal devices in patients awaiting lung transplantation: an initial experience. Transplantation Proceedings 2010; 42: 1255-1258. ABYLCAP ADV. DEPT. 07-2011 IBSPR0840 REV. 01

The therapeutic strategy aimed at protective ventilation Simplicity and Safety Prevention Efficiency and Biocompatibility

THE THERAPEUTIC STRATEGY AIMED AT PROTECTIVE VENTILATION Abylcap allows quickly, easily and effectively removing CO 2 in full safety at the same time optimizing the mechanical ventilation and protecting the patient s lungs. Bellco proposes this new method integrated with the Lynda system for elective treatment of patients suffering from ALI (Acute Lung Injury), ARDS (Acute Respiratory Distress Syndrome), possibly caused by other diseases, such as SEPSIS, MOF (Multi Organ Failure), COPD (Chronic Obstructive Pulmonary Disease) and MULTITRAUMA. VILI: Ventilator-Induced Lung Injury Mechanical ventilation, a life support therapy for care of critical patients suffering from acute respiratory failure (ARF), poses some potential risks of lung injury (even irreversible) induced by alveolar overdistention or by the inspiration/expiration cycle. These risks can in their turn lead to damage, such as barotrauma, volutrauma and atelectrauma. Further possible consequences are inflammation, not only of the pulmonary tissue, but also of other organs, such as the liver and the kidneys, because of damage to the alveolar-capillary barrier. These processes may be summarised as VILI (ventilator-induced lung injury). In order to prevent potential injury as demonstrated by clinical studies mechanical ventilation can be used at low pressure values (plateau pressure < 30 cmh 2 O) or exchange volumes (approx 6 ml/kg of ideal body weight) (8). This type of treatment is by now accepted for patients suffering from ARF (Acute Respiratory Failure), however, there is an associated risk of hypercapnia and respiratory acidosis. To facilitate the removal of excess carbon dioxide, extra-pulmonary devices are used to help the lungs function and to maintain an acceptable alveolar gaseous exchange. Why CO 2 removal systems The possibility of using CO 2 removal systems represents a major clinical advantage to protect the lungs (and not only) from injury caused by mechanical ventilation and, more in general, the patient from dangerous states of respiratory acidosis. The excess CO 2 removal systems are an important component for the survival of patients suffering from respiratory failure. A correct CO 2 value, apart from determining the basic acid balance, is an inescapable component of cellular respiration and contributes to short-term regulation of the local tissue blood flow (microcirculation) in order to ensure and maintain an appropriate blood flow in terms of optimal perfusion of the organs. Abylcap for the prevention of lung injury in patients in respiratory failure Abylcap is intended for preventive CO 2 removal to reduce the aggressiveness of mechanical ventilation, contain VILI, favour weaning from mechanical ventilation and extubation, reduce the days of sedation and the risk of complications. The treatment is suitable for patients that respond to oxygenation therapy but are unable to independently maintain a balanced CO 2. Abylcap functions according to a simple and safe mechanism: the blood aspirated from the patient is directed to the oxygenator, which by means of a special phosphorylcholine-coated membrane progressively removes the CO 2 bringing it to optimal values. In addition, the heater in the system allows recovering the heat lost mainly resulting from oxygen expansion, thus preventing patient hypothermia. The operator has the possibility of removing the CO 2 using a mini-invasive treatment and the most suitable type of oxygenation: protective low-volume ventilation (Pplat < 30 cmh2o and VT = 6 ml/kg) or non-invasive ventilation (NIV).

Abylcap integrates low ventilation volumes and CO 2 removal for the prevention of lung injury in patients suffering from respiratory failure Abylcap is the therapeutic strategy aimed at reducing intubation incidence and time, an important condition that can contribute to improving patient survival. Reducing the need for orotracheal intubation also reduces the relative side effects, such as - amongst others - trauma of the upper airways, speech and swallowing impairment and especially pneumonia, which have a 30% incidence on mortality. Healthy pulmonary tissue Healthy alveolus Pulmonary emphysema Acute pulmonary emphysema Exudative phase of ARDS where there is a loss of alveolarepithelial cells and intra-alveolar hyaline and neutrophil membranes are present

Simplicity and Safety Preassembled kit system Easy and fast installation and reduced risk of error. Blood flow Possibility of varying the blood flow rate up to a maximum of 450 ml/min. Fully automatic preparation Priming, filling, rinsing and air removal from the circuit. Continual HCT and SO 2 measurement Possibility of directly and continuously reading the hematocrit and oxygen saturation measurements. Real-time safety monitoring Possibility of representing the arterial pressure, reinfusion pressure and oxygenator input pressure trends at the inlet of the oxygenator by means of graphs in order to continuously monitor circuit efficiency and patient connection. Plate heater Heater for recovery of the heat lost as a result of oxygen expansion and CO 2 removal on oxygenator membrane level. High Performance and Biocompatibility Oxygenator Lilliput 2 ECMO*, developed for carbon dioxide removal with a mini-invasive approach High biocompatibility Polymenthylpentene membrane coated with a phosphorylcholine-based biomimetic treatment (PH.i.S.i.O coating system) for greater membrane hemocompatibility and containment of thrombotic effects. High gaseous exchange capacity Gas transfer occurs by diffusion (not in direct contact with the blood) through a membrane not subject to hydrophilization. This membrane is as thick as the alveolar membrane. Four consecutive days of treatment guaranteed The system is guaranteed for four consecutive days of treatment thanks to the properties of the membrane that does not alter its performance. Lilliput 2 ECMO stands out for: Low priming volume (90 ml) Gas exchange surface area (0.67 m 2 ) Heater surface area Prevention Mini-invasive and personalised CO 2 removal Reduced need for intubation Reduced synthetic surface area in contact with the blood Reduced activation of inflammatory response Flexibility of use for a wide range of patients Functionality and ease of use Containment of side effects Potential to improve survival *manufactured by Sorin Group Italia Mirandola