CPR Medical Devices, Inc. CPR Medical Devices, Inc.
CPR Medical Devices, Inc.
CPR Medical Devices Inc. address
E-mail CPR Medical Devices Inc.
 
Search

Menu Tools: Open All  Close All  Locate  Move Previous  Move Next 

Home
Oxylator® Product Series
Overview
Oxylator® EM-100
Introduction
Brochure (PDF)
Operating Manual (PDF)
Algorithms and Charts
Components



Disassembly for Cleaning



Comparison of Features among Ventilation Devices


How to Use Effectively
Photographs
Publications


Patents, Approvals, and Clearances
Case Studies



St. Gallen Cantonal Hospital, Switzerland (PDF)



Hospital Princeps d'Espanya Bellvitge, Barcelona, Spain



Royal Victoria Hospital and McGill University, Montreal, QC, Canada



Montérégie's EMS System, Longueil, QC, Canada



NTV a Nederlands Tijdschrift Voor Anesthesi- medewerkers, Netherlands



Helicopter Emergency Medical Services, University Hospital Rotterdam, Netherlands



University of Massachussetts Medical Center, Worcester, MA, U.S.A.



Emergency Scientific Medical Center, Yerevan, Armenia


CPR Medical Devices Inc., Toronto, ON, Canada
Testimonials


Carter County Emergency & Rescue Squad, Inc., Elizabethton, TN, U.S.A.


University of Massachusetts Medical Center, Worcester, MA, U.S.A.


U.S. Department of Veteran Affairs, Dublin, GA, U.S.A.


Croft Rescue Squad, Spartanburg, SC, U.S.A.


Lenoir Memorial Hospital, Kinston, NC, U.S.A.


Dunn Rescue Squad, Inc., Dunn, NC, U.S.A.

Jefferson County EMS, Dandridge, TN, U.S.A.
Oxylator® FR-300
Introduction
Brochure (PDF)
Operating Manual (PDF)
Usage Guide
Photographs
Publications


Patents, Approvals, and Clearances
Case Studies


St. Elisabeth Hospital, Tilburg, NL (PDF)

University of Massachussetts Medical School, Worcester, MA, U.S.A. (PDF)
Oxylator® EMX
Introduction
Brochure (PDF)
Operating Manual (PDF)
Usage Guide
Photographs
Publications

Patents, Approvals, and Clearances
Oxylator® HD
Introduction
Brochure (PDF)
Operating Manual (PDF)
Photographs
Publications
Case Studies


St. Michael's Hospital, Toronto, ON, Canada (PDF)

Patents, Approvals, and Clearances
Distributors
Demonstration Videos
Brochures
Oxylator® EM-100 (PDF)
Oxylator® FR-300 (PDF)
Oxylator® EMX (PDF)
Oxylator® HD (PDF)
Operating Manuals
Oxylator® EM-100 (PDF)
Oxylator® FR-300 (PDF)
Oxylator® EMX (PDF)
Oxylator® HD (PDF)
Usage Guides
Oxylator® FR-300 (PDF)
Oxylator® EMX (PDF)
Publications
Oxylator® EM-100
Oxylator® FR-300
Oxylator® EMX
Oxylator® HD
Case Studies
Oxylator® EM-100


St. Gallen Cantonal Hospital, Switzerland (PDF)


Hospital Princeps d'Espanya Bellvitge, Barcelona, Spain


Royal Victoria Hospital and McGill University, Montreal, QC, Canada


Montérégie's EMS System, Longueil, QC, Canada


NTV a Nederlands Tijdschrift Voor Anesthesi- medewerkers, Netherlands


Helicopter Emergency Medical Services, University Hospital Rotterdam, Netherlands


University of Massachussetts Medical Center, Worcester, MA, U.S.A.


Emergency Scientific Medical Center, Yerevan, Armenia

CPR Medical Devices, Inc., Toronto, ON, Canada
Oxylator® FR-300


St. Elisabeth Hospital, Tilburg, NL (PDF)

University of Massachussetts Medical School, Worcester, MA, U.S.A. (PDF)
Oxylator® HD
St. Michael's Hospital, Toronto, ON, Canada (PDF)
Testimonials
Oxylator® EM-100

Carter County Emergency & Rescue Squad, Inc., Elizabethton, TN, U.S.A.

University of Massachusetts Medical Center, Worcester, MA, U.S.A.

U.S. Department of Veteran Affairs, Dublin, GA, U.S.A.

Croft Rescue Squad, Spartanburg, SC, U.S.A.

Lenoir Memorial Hospital, Kinston, NC, U.S.A.

Dunn Rescue Squad, Inc., Dunn, NC, U.S.A.
Jefferson County EMS, Dandridge, TN, U.S.A.
Distributors
Demonstration Videos
News and Newsworthy

Helicopter Emergency Medical Services, University Hospital Rotterdam, Netherlands
REA 2000, Ostschweizer Bildungsaustellung, St. Gallen, Switzerland
Downloads
Brochures
Operating Manuals
Usage Guides
Publications
Demonstration Videos
FAQs
Acknowledgments
Site Map
Contact

Features
Oxylator® outperforms bag-valve, in the European Journal of Anaesthesiology Oxylators® reviewed in the Journal of Emergency Medical Services
Oxylator® bests bag-valve in peer-review studies Oxylators® reviewed in JEMS magazine
Oxylators®
Oxylator® EM-100
are patient-responsive, oxygen-powered resuscitation/inhalation devices intended to provide emergency ventilatory support for patients weighing more than 10 kg (22 lb). Utilizing patented technology, Oxylators® are simple, safe and effective and give the care giver utmost flexibility in airway management during emergencies and attended short-term ventilation.

The Food and Drug Administration (FDA) classifies Oxylators® in Class II (two) under the Product Code 73 BTL. The devices meet the performance standards as set out in ASTM F920-85 and ISO 8382. The Oxylator® is a Class I (one) device a referenced in JAMA 'Guidelines for Cardiopulmonary Resuscitation and Emergency Cardiac Care', American Heart Association (AHA).

Oxylators® are patient responsive resuscitators that incorporate two distinct functional elements during a ventilatory cycle.

The first, during the inspiratory phase of a ventilatory cycle, is a selectable pressure limit which initiates the second, a passive expiratory phase, which is flow controlled.

The Oxylator® will not start a new inspiratory cycle until exhalation is complete. That point is reached between 2-4 cmH2O of PEEP in automatic or continuous mode, and at baseline in manual mode. This eliminates 'stacked' breaths and their associated complications. The end of the expiratory phase then triggers the next inspiratory cycle, hence the new inspiratory phase is flow triggered.

The design of the Oxylator® provides various unique features, some of which can otherwise be found only on higher priced ventilators. In the hands of a trained caregiver administering cpr, Oxylators® are resuscitation management systems.

The Oxylator® was designed to provide utmost flexibility, safety and effectiveness by combining all the features of a resuscitator and a first response ventilator in a small, handheld unit.

Key features of the Oxylator® technology:

It is able to select the maximum pressure limit during the inspiratory phase of a ventilatory cycle.
As a constant flow generator, it provides safe administration of oxygen or compressed air with either a mask or an endotracheal tube.
It provides the caregiver with 'feedback' to alert instantly of airway blockage and inadequate ventilation, thereby improving airway management.
It allows the caregiver to use both hands to maintain a better mask seal and reduces fatigue when used in its 'automatic mode'.
When the device is used simultaneously during chest compressions, it automatically synchronizes the cycling rhythm to the compressions administered, providing safe and effective two person cpr.
Minimal PEEP is maintained (< 4 cmH2O) when used in automatic mode.
It allows the caregiver to switch to manually activated ventilatory cycles if confronted with patients that demonstrate abnormal lung compliance.
It provides inhalation function when resuscitation is no longer required. This can be overridden automatically if resuscitation needs to be re-initiated.
Simple construction allows the user to disassemble the top and bottom components instantly — without tools — to ensure proper cleaning and disinfection of the system.
The trained caregiver can monitor and detect deterioration or improvement of a patient's lung condition from cycling rate changes.
A disposable viral-bacterial filter can be inserted into the patient connection of the device, if desired.
The Oxylator® eliminates the potential of 'stacked' breaths, or gradual increase in PEEP levels which may occur with time/volume cycled systems. Its expiratory phase allows for passive, unassisted exhalation.
Minute volume will always be maintained when used in automatic mode, regardless of pressure settings or lung compliance.
During the ventilatory cycle, the system always maintains a positive pressure in the airway, unless a negative pressure is initiated by the patient’s own effort at which point it allows the patient to satisfy his or her own 'demand'.
Due to its patented technology, the Oxylator® will automatically cycle with a patient’s own rhythm and wastes no time in 'detecting' failure of a patient’s own inspiratory effort.
No oxygen is wasted to power the device.
Malfunction is reduced to a minimum since the Oxylator® utilizes ONLY ONE moving component which 'floats' as it cycles.
  ^ Top