The Delta Dispatch
Becoming Proficient in Oxygen Therapy: A Guide to Canadian Red Cross Oxygen Admiration Training with Delta Emergency in Calgary
If you're looking to become proficient in oxygen therapy, the Canadian Red Cross Oxygen Therapy course is the perfect choice. With Delta Emergency in Calgary, you'll get comprehensive training on how to safely administer supplemental oxygen in various emergency scenarios. Their experienced instructors bring real-world expertise and practical insights to the course, ensuring you receive the best education possible. Plus, with flexible scheduling options and on-site training available, you can easily fit the training into your busy schedule. Learn more about the Canadian Red Cross Oxygen Therapy course with Delta Emergency and take the first step towards enhancing your emergency response skills.
Are you ready to become proficient in oxygen therapy? Look no further than the Canadian Red Cross Oxygen Therapy course, offered by Delta Emergency in Calgary. Whether you're an industrial first aid worker, a health care provider, or part of a pre-hospital care group, this training will equip you with the essential knowledge and skills to confidently administer supplemental oxygen when needed. In this blog post, we'll delve into the details of the Canadian Red Cross Oxygen Therapy course and how Delta Emergency is your go-to expert for O2 training in Calgary. Let's get started!
close-up view of an oxygen tank with a non-rebreather mask attached to it. The tank has a pressure gauge, flow meter, and a regulator attached to it.
What is the Canadian Red Cross Oxygen Therapy Course?
The Canadian Red Cross Oxygen Therapy course is designed to provide participants with comprehensive training on how to properly and safely administer supplemental oxygen. The course covers a wide range of topics, including pulse oximetry, handling and assembly of oxygen equipment, oxygen delivery devices, and administering oxygen. Participants will learn the correct techniques for delivering oxygen to patients of different ages and conditions, and how to monitor its effectiveness. The course is based on the guidelines and standards set by the Canadian Red Cross, a trusted organization with a long history of providing high-quality first aid and emergency response training.
Why Choose Delta Emergency for O2 Training in Calgary?
Delta Emergency is a leading provider of first aid and emergency response training in Calgary, and their expertise extends to oxygen therapy training as well. Here are some reasons why Delta Emergency is the go-to choice for O2 training in Calgary:
Experienced Instructors: Delta Emergency instructors are highly experienced and knowledgeable in oxygen therapy and other emergency response techniques. They bring real-world expertise and practical insights to their training, ensuring participants receive the best education possible.
Comprehensive Course Content: Delta Emergency's Canadian Red Cross Oxygen Therapy course covers all the essential topics needed to master oxygen therapy, including pulse oximetry, handling and assembly of equipment, oxygen delivery devices, and administering oxygen. The course is designed to be comprehensive and relevant to various professional settings.
Flexibility and Convenience: Delta Emergency offers flexible scheduling options for their courses, making it easy for participants to find a training session that fits their busy schedule. They also provide training at their state-of-the-art training facility in Calgary or can arrange on-site training at your location for added convenience.
Customized Training Solutions: Delta Emergency understands that different professionals have different needs, and they can customize their training to meet specific requirements. Whether you're part of an industrial first aid team or a health care provider, Delta Emergency can tailor their training to suit your needs and ensure you get the most out of the course.
Accreditation and Certification: Upon successful completion of the Canadian Red Cross Oxygen Therapy course with Delta Emergency, participants will receive certification that is recognized nationally and meets industry standards. This certification can enhance your professional credentials and give you a competitive edge in your field.
How long will my Oxygen Tank last?
Oxygen tanks have a specific numeric value called a factor, that correlates with the tank size. There is a simple calculation that tells us how long a tank of oxygen will last before it is empty - based on the liter flow of the oxygen regulator. A “D tank” (the common used in EMS/Fire) has a factor of 0.16.
Oxygen Calculation Samples:
Here are some sample calculations for a D tank with 2000 psi, using different devices and flow rates, to estimate the minutes left in the tank:
With a Nasal Cannula at 2 LPM: The flow rate for a nasal cannula is typically between 1-6 LPM. Let's calculate for 2 LPM.
Formula: (Tank Pressure in psi / Flow rate in LPM) x Constant Factor = Minutes Left
Calculation: (2000 psi / 2 LPM) x 0.16 = 160 minutes
So, with a nasal cannula at 2 LPM, you can estimate that the D tank will last approximately 160 minutes or 2 hours and 40 minutes.
With a Non-Rebreather Mask at 10 LPM: The flow rate for a non-rebreather mask is typically between 10-15 LPM. Let's calculate for 10 LPM.
Formula: (Tank Pressure in psi / Flow rate in LPM) x Constant Factor = Minutes Left
Calculation: (2000 psi / 10 LPM) x 0.16 = 32 minutes
So, with a non-rebreather mask at 10 LPM, you can estimate that the D tank will last approximately 32 minutes.
With a Bag-Valve-Mask (BVM) at 15 LPM: The flow rate for a BVM is typically between 10-15 LPM, depending on the specific device and oxygen concentration desired. Let's calculate for 15 LPM.
Formula: (Tank Pressure in psi / Flow rate in LPM) x Constant Factor = Minutes Left
Calculation: (2000 psi / 15 LPM) x 0.16 = 21.33 minutes
So, with a BVM at 15 LPM, you can estimate that the D tank will last approximately 21.33 minutes or approximately 21 minutes and 20 seconds.
Note: The constant factor of 0.16 is an estimated conversion factor used to convert tank pressure (psi) to minutes of oxygen supply remaining. It may vary slightly depending on factors such as temperature, altitude, and type of oxygen delivery device used. It's always important to refer to the manufacturer's guidelines and consult with a healthcare professional for accurate calculations and usage of oxygen therapy.
The Tank Factor
Tank factor, also known as the constant factor, is a value used to estimate the remaining minutes of oxygen supply in a compressed gas cylinder based on its pressure and the flow rate of oxygen being administered. The tank factor is specific to the type of gas cylinder being used and is determined by the manufacturer.
The tank factor is used in the formula:
Minutes Left = (Tank Pressure in psi / Flow rate in LPM) x Tank Factor
The tank factor is a constant value that is multiplied by the ratio of the tank pressure to the flow rate to estimate the remaining minutes of oxygen supply. It takes into account the volume of gas stored in the cylinder and the flow rate of oxygen being delivered to the patient.
For example, a tank factor of 0.16 means that for every 1 psi decrease in tank pressure, approximately 0.16 minutes (or 9.6 seconds) of oxygen supply is used when delivering oxygen at a flow rate of 1 LPM. So, if you have a tank pressure of 2000 psi and you are delivering oxygen at a flow rate of 1 LPM, the estimated time remaining in the tank would be approximately 320 minutes (or 5 hours and 20 minutes) using the tank factor of 0.16.
It's important to note that the tank factor may vary depending on factors such as temperature, altitude, and type of oxygen delivery device used. Therefore, it's crucial to refer to the manufacturer's guidelines and consult with a healthcare professional for accurate calculations and usage of oxygen therapy.
If you're looking to master oxygen therapy and enhance your emergency response skills, the Canadian Red Cross Oxygen Therapy course with Delta Emergency in Calgary is the perfect choice. With experienced instructors, comprehensive course content, flexibility, customization options, and accreditation, Delta Emergency is your trusted expert in O2 training. Enroll in their course today and take a step towards becoming a pro in oxygen therapy. You can breathe easy knowing you're in capable hands with Delta Emergency.
At Delta Emergency Support Training we are happy to answer any questions you may have about oxygen training. We provide training sessions for individuals or classes. We have options for in person, hybrid or online classes for Oxygen Therapy, Standard First Aid (SFA), Advanced First Aid (AFA), Emergency Medical Responder (EMR), and more courses. For all inquiries please email info@deltaemergency.com
Understanding Hypoxia: A Firefighters guide
Hypoxia is a serious medical condition that can be caused by a range of factors, including respiratory conditions, cardiac emergencies, trauma, and drug overdose. However, one potential cause that is often overlooked is smoke inhalation and carbon monoxide (CO) poisoning.
Inhaling smoke from a fire can expose individuals to high levels of CO, a poisonous gas that can cause hypoxia by binding to hemoglobin in the blood and reducing the amount of oxygen that can be carried to the body's tissues. It's important to note that carbon monoxide poisoning can cause the SpO2 monitor to read a normal oxygen saturation level, even when the individual is experiencing hypoxia. Therefore, administering high-flow oxygen is crucial for any fire patient, as it can help displace carbon monoxide and increase the amount of oxygen available to the body's tissues.
As an advanced first aider, it's important to be familiar with the signs and symptoms of hypoxia, particularly in cases of smoke inhalation and CO poisoning. Symptoms may include cyanosis, shortness of breath, and altered mental status. Administering high-flow oxygen and working closely with emergency medical services personnel and hospital staff can help ensure that individuals receive appropriate care and follow-up treatment for their condition.
Overall, understanding the potential for hypoxia in smoke inhalation and carbon monoxide poisoning is critical for providing effective care in the prehospital setting. Administering high-flow oxygen and working closely with other healthcare providers can help ensure that individuals receive timely and effective treatment for their condition.
What is Hypoxia?
Hypoxia is a condition where there is a decrease in the amount of oxygen reaching the body's tissues.
a small medical device that is used to measure oxygen saturation levels in the blood. The device features a digital display screen and clips onto a person's finger. The screen displays a 98% SPO2 reading.
Causes of Hypoxia
Hypoxia can be caused by a variety of factors, including pulmonary disorders, cardiovascular disease, trauma, carbon monoxide poisoning, and drug overdose. Given the frequency of these causes in their work, firefighters must be prepared to recognize and manage hypoxia in emergency situations.
Overall, understanding the potential causes of hypoxia and being prepared to manage this potentially life-threatening condition is critical for firefighters and other first responders.
Respiratory emergencies:
Conditions such as asthma, chronic obstructive pulmonary disease (COPD), and pneumonia can impair the lungs' ability to transfer oxygen to the blood, leading to hypoxia.
Individuals with respiratory conditions may experience shortness of breath, rapid breathing, and wheezing, which can indicate a lack of oxygen in the body. These symptoms can worsen during periods of physical exertion, stress, or exposure to environmental triggers such as allergens or pollutants.
Cardiac emergencies:
Cardiac emergencies are another potential cause of hypoxia in the prehospital setting. Conditions such as heart failure, heart attack, and pulmonary embolism can reduce blood flow to the body's tissues, leading to hypoxia.
When the heart is unable to pump blood effectively, the body may not receive sufficient oxygen, resulting in hypoxia. Individuals with cardiac emergencies may experience symptoms such as chest pain, shortness of breath, and rapid or irregular heartbeat, which can indicate a lack of oxygen to the tissues.
Trauma:
When an individual experiences severe trauma, such as from a motor vehicle accident or a fall, they may sustain injuries that impede their ability to breathe and deliver oxygen to their tissues.
Injuries such as broken ribs or a collapsed lung can interfere with the normal mechanics of breathing, preventing sufficient oxygen intake. Additionally, traumatic injuries can cause significant bleeding, reducing the body's ability to transport oxygen to the tissues. In some cases, trauma can also lead to shock, which can result in decreased oxygen delivery to the tissues.
Carbon monoxide poisoning:
When individuals inhale smoke from a fire, they may be exposed to high levels of carbon monoxide, a poisonous gas that can cause hypoxia by binding to the hemoglobin in the blood, reducing the amount of oxygen that can be carried to the body's tissues.
A complication with carbon monoxide poisoning is that it can lead to a false readings when using an SpO2 monitor. This is because carbon monoxide can bind to hemoglobin in a similar way to oxygen, which can cause the SpO2 monitor to read a normal oxygen saturation level, such as 99%. However, even if the SpO2 reading appears normal, the individual may still be experiencing hypoxia due to carbon monoxide poisoning.
Therefore, it's important to always administer high-flow oxygen to any fire patient, including those who have potentially been exposed to carbon monoxide. Providing high-flow oxygen can help to displace carbon monoxide from hemoglobin and increase the amount of oxygen available to the body's tissues.
Drug overdose:
Many drugs, particularly opioids and sedatives, can cause respiratory depression, which means that an individual's breathing rate is reduced and they may not receive enough oxygen.
Symptoms of Hypoxia
The symptoms of hypoxia can vary depending on the severity of the condition and the underlying cause. Some common symptoms of hypoxia include shortness of breath, rapid or shallow laboured breathing, cyanosis (bluish tint to the skin), confusion or disorientation, headache, fatigue, nausea, rapid heartbeat, and dizziness or lightheadedness.
How to Check for Hypoxia Using an SpO2 Monitor
As an advanced first aider who is allowed to treat with oxygen, it's important to understand how to check for hypoxia using an SpO2 monitor. An SpO2 monitor measures the oxygen saturation in the blood, which can help determine if an individual is experiencing hypoxia.
To use an SpO2 monitor, follow these steps:
Turn on the monitor and place the sensor on the individual's fingertip.
Wait for the monitor to display the oxygen saturation percentage.
Take note of the percentage and compare it to normal levels.
What Percentage of Oxygen on the Monitor Indicates Different Severities of Hypoxia?
Normal oxygen saturation levels are typically between 95-100%. If the oxygen saturation level is below 95%, it may indicate hypoxia. The severity of hypoxia can be determined by the following percentage ranges:
Mild hypoxia: Oxygen saturation level between 90-94%.
Moderate hypoxia: Oxygen saturation level between 80-89%.
Severe hypoxia: Oxygen saturation level below 80%.
It's important to note that an SpO2 monitor is not a definitive diagnosis of hypoxia and should be used in conjunction with other symptoms and clinical assessments.
Treatment of Hypoxia
As an advanced first aider who is allowed to treat with oxygen, your first step in treating hypoxia is to administer high flow O2 via NRB (Non Rebreather) or BVM (Bag Valve Mask).
Administering supplemental oxygen is a key treatment measure for hypoxia, but it's also important to address the underlying condition that is causing the hypoxia. This may involve working closely with other healthcare providers, such as respiratory therapists or emergency medical services personnel, to provide comprehensive care.
Overall, as an advanced firefighter, being familiar with the causes, symptoms, treatment, and prevention of hypoxia can help you provide effective care and support to individuals who are experiencing this potentially life-threatening condition.
Managing Respiratory Distress: Essential Techniques for First Responders
First responders play a critical role in emergency situations, including managing the breathing of patients. In this blog, we will discuss the importance of breathing management for first responders and provide tips for ensuring the best possible outcomes for patients.
As a first responder, proper breathing management is essential for providing effective care to patients in respiratory distress. Understanding the anatomy of the respiratory system, recognizing signs and symptoms of respiratory distress, and maintaining normal breathing rates are all important aspects of breathing management. In this post, we'll explore these topics in the context of first responders.
The first responder has placed an oxygen mask, known as a non-rebreather, over the patient's nose and mouth. The non-rebreather has a bag that fills with oxygen, which allows the patient to receive a high concentration of oxygen with each breath. The non-rebreather mask is used to treat patients who are experiencing respiratory distress or who require high levels of oxygen.
Anatomy of the Respiratory System
As a first responder, it's important to have a basic understanding of the anatomy of the respiratory system. The respiratory system consists of several parts that work together to facilitate breathing. The main organs involved in breathing are the lungs, which are located in the chest. The lungs are made up of millions of tiny air sacs called alveoli, which are responsible for exchanging gases with the blood. The trachea, or windpipe, connects the lungs to the mouth and nose, while the diaphragm is a muscle that helps with breathing by contracting and relaxing. The bronchi are the tubes that branch off from the trachea and lead to the lungs, and the bronchioles are smaller tubes that branch off from the bronchi and lead to the alveoli.
Signs and Symptoms of Respiratory Distress
As a first responder, it's important to recognize the signs and symptoms of respiratory distress. These may include:
Shortness of breath:
Feeling like you can't get enough air, or struggling to breathe, is a common symptom of respiratory distress.
Rapid breathing:
Breathing faster than normal, or taking shallow breaths, may be a sign of respiratory distress.
Chest pain:
Pain or discomfort in the chest can be a sign of a serious respiratory problem.
Wheezing/Stridor:
A high-pitched whistling sound when breathing may indicate narrowing of the airways.
Cyanosis:
This can indicate a lack of oxygen in the blood.
Confusion:
Lack of oxygen can cause confusion or disorientation.
Fatigue:
Difficulty breathing can cause fatigue or weakness.
Maintaining Normal Breathing Rates
As a first responder, it's important to know the normal breathing rates for adults and children. The normal breathing rate for an adult is around 12-20 breaths per minute, while the normal breathing rate for a child is higher, around 20-40 breaths per minute. However, certain conditions can cause abnormal breathing rates. For example, respiratory distress can cause rapid, shallow breathing, while other conditions, such as sleep apnea, can cause periods of slowed or paused breathing.
Breathing Management
Proper breathing management is essential for providing effective care to patients in respiratory distress. As a first responder, here are some tips for managing breathing:
Administer oxygen:
Depending on the severity of the patient's respiratory distress, administering oxygen may be necessary. The appropriate oxygen delivery device should be used based on the patient's level of respiratory distress.
Position the patient:
Positioning the patient in a way that maximizes their breathing capacity can be helpful. For example, placing the patient in a sitting position with their head slightly elevated may make it easier for them to breathe.
Provide assisted ventilation:
In some cases, conscious bagging with a bag valve mask may be necessary to help the patient normalize their breathing rate.
Transport the patient to a medical facility:
If the patient's respiratory distress is severe, transport them to a medical facility for further treatment.
Oxygen masks and flow rates
Breathing masks are a crucial piece of equipment for first responders, as they allow them to provide oxygen to patients in respiratory distress. There are several types of breathing masks available, each with its own specific use and oxygen flow rate. In this post, we'll explore the different types of breathing masks commonly used by first responders, including the nasal cannula, simple face mask, non-rebreather mask, and bag valve mask.
Nasal Cannula
The nasal cannula is a type of oxygen delivery device that is used to provide oxygen to patients with mild to moderate respiratory distress. It is a thin tube that is inserted into the nostrils and is held in place by a strap that goes around the patient's head. The nasal cannula is typically used to deliver low to medium oxygen flow rates, typically ranging from 1 to 6 liters per minute (LPM).
Simple Face Mask
The simple face mask is another type of oxygen delivery device that is used to provide oxygen to patients with respiratory distress. It covers the nose and mouth and is held in place by an elastic strap that goes around the patient's head. The simple face mask is typically used to deliver medium to high oxygen flow rates, typically ranging from 5 to 10 LPM.
Non-Rebreather Mask
The non-rebreather mask is a type of face mask that is used to deliver high concentrations of oxygen to patients with severe respiratory distress. It covers both the nose and mouth and has a one-way valve that allows the patient to inhale oxygen from a reservoir bag. The non-rebreather mask is typically used to deliver high oxygen flow rates, ranging from 10 to 15 LPM.
Bag Valve Mask
The bag valve mask, also known as a manual resuscitator, is a handheld device that is used to provide positive pressure ventilation to patients in respiratory distress. It consists of a bag that is attached to a mask and is used to deliver oxygen to the patient's lungs. The bag valve mask is typically used to deliver high oxygen flow rates, ranging from 10 to 15 LPM.
By following proper breathing management techniques, first responders can help ensure that patients receive the oxygen they need to survive, while also ensuring their own safety in emergency situations.
At Delta Emergency Support Training, we understand the importance of being prepared for medical emergencies. We offer a range of training sessions to help individuals and classes develop the skills and knowledge they need to respond to emergency situations. Our courses include Standard First Aid (SFA), Advanced First Aid (AFA), and Emergency Medical Responder (EMR), and we offer in-person, hybrid, and online options to suit different needs.
If you have any questions about our training sessions or medical emergencies in general, please don't hesitate to reach out to us. You can contact us at info@deltaemergency.com and we'll be happy to assist you.