When Sudden Cardiac Arrest (SCA) strikes, there’s no warning—and no time to waste. Within seconds, the heart stops beating effectively, cutting off blood flow to the brain and vital organs. Survival depends entirely on what happens in those first few minutes. This October, during Sudden Cardiac Arrest Awareness Month…
When Sudden Cardiac Arrest (SCA) strikes, there’s no warning—and no time to waste. Within seconds, the heart stops beating effectively, cutting off blood flow to the brain and vital organs. Survival depends entirely on what happens in those first few minutes. This October, during Sudden Cardiac Arrest Awareness Month…
In healthcare and emergency response, there’s a world of difference between what’s taught in the classroom and what happens in the field. Textbooks and lectures lay the foundation—but real-world emergencies demand fast thinking, precise coordination, and technical confidence…
Cardiac emergencies can strike suddenly and without warning. Whether it’s a heart attack or a cardiac arrest, knowing how to respond in these crucial moments can save a life.
In this blog, we’ll walk you through a step-by-step guide on what to do during a cardiac emergency, emphasizing quick actions and the importance of reliable medical equipment to assist in these life-threatening situations.
Step 1: Assess the Situation
When faced with a potential cardiac emergency, the first step is to assess the situation. Check for signs of cardiac arrest, such as unresponsiveness and abnormal and/or no breathing.
If the person is unresponsive and not breathing, this may indicate a cardiac arrest, which requires immediate action.
Step 2: Call for Help
Dial 911 immediately. This ensures that emergency services are on their way and can provide advanced care as quickly as possible. If you are in a healthcare setting, alert other medical professionals to the situation.
Step 3: Start Chest Compressions
Chest compressions are a critical first step in saving a life during a cardiac arrest. Place the heel of your hand on the center of the chest, just below the sternum.
Use your other hand to support it and begin compressing the chest at least 2 inches deep at a rate of 100-120 compressions per minute. Be sure to allow full chest recoil after each compression.
Step 4: Administer Defibrillation (If Available)
If an automated external defibrillator (AED) is nearby, turn it on immediately and follow the instructions provided. The AED is programmed to analyze the person’s heart rhythm and, if necessary, deliver a shock to restore normal heart activity. Continue CPR until the AED is ready to administer a shock or until emergency personnel arrive.
Step 5: Continue CPR
If an AED is not available, continue CPR until help arrives. If you are trained in advanced techniques, you may also consider performing rescue breaths, especially in cases where the person is a child or an infant.
For untrained responders, hands-only CPR (chest compressions without breaths) is still highly effective in improving survival outcomes.
Step 6: Provide Post-Resuscitation Care
Once emergency responders arrive, they will take over the care and transport the individual to the hospital for further treatment. Follow any additional instructions given by medical professionals, and ensure you remain calm throughout the process.
How Michigan Instruments Helps in Cardiac Emergencies
Cardiac emergencies demand rapid and effective interventions, and the right tools can significantly impact the outcomes. Michigan Instruments has been a leader in life-saving technology since 1964, supporting healthcare professionals and first responders with reliable and easy-to-use solutions.
Our automated CPR devices are designed to deliver precise and consistent compressions, allowing medical teams to focus on what matters most — saving lives. Whether in the field or at the hospital, Michigan Instruments empowers those on the front lines to provide optimal care in critical moments.
With over 60 years of experience, we remain committed to improving patient outcomes and supporting the heroes who respond to cardiac emergencies.
Learn more about how our advanced automated CPR devices can make a difference for your team.
In the early 1960s, a revolutionary concept was born in the unlikeliest of places and changed the world of emergency medicine forever. The groundbreaking idea, nurtured by Clare Barkalow, would later lead to the development of some of the most innovative CPR devices in history and the founding of Michigan Instruments.
The journey began in Grand Rapids, Michigan in the Advanced Engineering Projects department at Lear Siegler, where Barkalow was working as an engineer in 1962. It was here that Barkalow envisioned and developed a device that could automate chest compressions during cardiac arrest.
This invention, known as the External Cardiac Compressor (ECC), was initially tested on dogs and baboons, and the results were astonishing: 24 animals were successfully resuscitated after 90 minutes of fibrillation. These early successes hinted at the potential of automated CPR, but the full vision had yet to be realized.
Going Solo: The Founding of Michigan Instruments
Despite the promising results and groundbreaking potential, Lear Siegler was not interested in pursuing the ECC further. Undeterred, Barkalow took a bold step. In 1963, he left the company and founded Michigan Instruments in Grand Rapids, where he continued to refine his invention, turning his vision into reality. By 1965, the first ECC for human use, the Model 1001, was released, setting the stage for a new era in cardiac resuscitation.
A Perfect Alignment: The Birth of CPR
The late 1960s were a time of rapid development, not only for Michigan Instruments, but for healthcare in general. To put into perspective just how groundbreaking the idea of mechanical CPR was, it should be noted that the ECC was invented at the same time that manual CPR itself was formally endorsed by the American Heart Association (AHA), marking the beginning of a new era in life-saving technology.
The ECC, featuring a pneumatically powered chest compressor, marked a significant advancement with about 100 units being sold across the United States, highlighting a growing recognition of automated resuscitation.
Michigan Instruments seized the momentum. The Model 1001 was soon joined by the Model 1002, a ventilator designed to work alongside the ECC. This paved the way for a unified device capable of both chest compressions and ventilation.
In 1968, the two models were combined to create the Model 1003, initially known as Life-Aid® CPR. Life-Aid® CPR represented a monumental advancement in emergency medical care, as it was the first hands-free CPR system to integrate both chest compression and ventilation. The device was so successful that it gained international attention, being marketed globally under various names, including The Thumper® by Dixie USA and Sier Pulse by Siemens.
Pioneering Advances in Emergency Medicine
Over the next two decades, we continued to refine and improve our devices. For example, the Model 1004, which was introduced in 1974, featured a color-coded system for prescribing chest compression depth based on patient size, further enhancing the precision and effectiveness of CPR.
Clinical studies, like John R. Allen’s “The use of the life aid cardiopulmonary resuscitator– preliminary report” (British Journal of Clinical Practice), began to validate the superiority of mechanical CPR over manual methods. These evaluations of the MII Life-Aid demonstrated clinical safety and the inadequacies of manual CPR, while underlining the advantages of the Life-Aid. These clinical studies helped to solidify Michigan Instruments’ reputation as a pioneer in the field, and soon led to MI listing the device with the FDA.
Clinical Studies Continue to Roll In
- 1978: “Dallas EMS System Advocates Mechanical CPR in Emergency Medical Services” was published in July and August of 1978 by Bill G. Roberts and Jane M. Bryan. It showed how favorable the results of using the mechanical CPR devices were over manual CPR.
- 1978: “External cardiac compression. A randomized comparison of mechanical and manual techniques” was published by Taylor, George J.; Richard Rubin; Michael Tucker; H. Leon Greene; Michael T. Rudikoff; and Myron L. Weisfeldt, and found that MI mechanical CPR compares with best of manual CPR and is indicated for longer term resuscitation or when manual CPR is difficult to perform.
- 1979: “Machine vs. manual cardiopulmonary resuscitation in moving vehicles” (Roberts, B.G.) was published in The EMT Journal, showing that MI mechanical CPR performs better CPR in a vehicle than manual CPR. It also showed fewer interruptions, plus a constant depth of compression with no pause, no risk of fatigue, with less personnel, and the ability to be more patient-accessible.
- 1979: “Clinical assessment of patients undergoing CPR in the emergency department”, published in JACEP by Lilja, G. Patrick; Martin Hill; Ernest Ruiz; and Joseph Clinton found that MI mechanical CPR performs well over long resuscitations and calms down hectic cardiac arrest situations.
- 1982: “Mechanical cardiopulmonary resuscitation” (Harmon, Annette L.) is published in Medical Instrumentation. At this point, MI mechanical CPR has been in use for 20 years and is proven more effective with less patient injury.
These clinical studies demonstrated the superiority of mechanical CPR over manual CPR, especially during prolonged resuscitation efforts or in challenging environments like moving vehicles. They also aided to further prove that it is a valuable tool in defining effective CPR, including AHA Guideline protocols.
The Innovations Continue
The 1970’s and 1980s saw Michigan Instruments expand product lines and continue to push the boundaries of what was possible in CPR technology. These innovations further demonstrated our commitment to advancing both training and practical application in the medical field.
- 1976: Michigan Instruments recognized the need for comprehensive training and simulation in respiratory care, and released the Dual Adult Training & Test Lung under the trademark TTL® and VentAid®
- 1982: The Adult Infant Lung was developed and released under the trademark LifeSpan®
- 1984: The Programmable Thumper®, based on a 6502 embedded microprocessor system, was developed. It incorporated a microprocessor system and set a new standard for CPR research tools, helping to define effective CPR protocols.
- 1985: Model 1005 was released with an improved pneumatic control system, increased capacity for patient size, and increased adjustable compression force.
These advancements not only improved patient outcomes but also highlighted the limitations of manual CPR—such as rescuer fatigue and inconsistent compression depth—solidifying the importance of mechanical solutions in emergency care.
Expanding Horizons for Global Impact
We didn’t stop there; Michigan Instruments’ first trip to Japan in 1988 kicked off a field study and the introduction of the Thumper® to the medical community, expanding our reach to a global market. Over the next couple of decades, we continued to innovate, introducing new models and expanding our reach globally.
- 1991: PneuView® DOS software with electronic instrumentation was integrated into the TTL product line.
- 1997: PneuView® Windows software was introduced. It was also in this year that the single lung TTL was released.
- 2000s: MII’s products were in use not only in the United States but also in countries like Japan, France, and Ireland.
- 2005 – Introduction of the Thumper 1007CCV and Thumper 1007CC
- 2008: The introduction of the Life-Stat® Model 1008, featuring an electronic control system, marked another leap forward in automated CPR technology.
- 2014: The PneuView and TTL products were updated. Updating the design and functionality of the device and particularly the Pneuview software.
- 2022: The Spontaneous Breathing Lung was introduced
With innovations and software integrations like PneuView®, our lung simulation products became essential tools for teaching, training, and equipment testing in universities, hospitals, and EMS services worldwide.
A Legacy of Life-Saving Technology, Innovation and Excellence
As a company, Michigan Instruments stands as a testament to the power of innovation and perseverance. From Clare Barkalow’s initial idea in 1962, our devices have been instrumental in advancing CPR practices, aligning perfectly with the evolution of CPR guidelines over the decades.
Today, Michigan Instruments continues to impact global markets, including the USA, China, Europe, India, Brazil, and the Middle East. Our product lines have expanded to meet the diverse needs of healthcare professionals in many areas, emphasizing both quality and innovation.
Join the Revolution in CPR Practices
For over half a century, Michigan Instruments has been revolutionizing the way the world approaches cardiac resuscitation. Our automated CPR devices have proven time and time again to offer superior performance, reliability, and outcomes compared to manual methods.
Isn’t it Time You Upgraded your CPR Practice?
For healthcare professionals looking to revolutionize their own CPR practices, we offer decades of proven expertise and cutting-edge technology. To this day, we are inspired by Barkalow’s determination to bring his idea to life, despite his employer declining to pursue it, and will continue to be at the forefront of developing lifesaving technology.
With Michigan Instruments on your team, you can ensure that you’re equipped with the best tools for saving lives.
Partner with us to enhance your emergency response capabilities, improve patient survival rates, and stay ahead with cutting-edge technology that’s been trusted for decades.
Contact Michigan Instruments today to learn how our automated CPR devices and lung simulation products can transform your approach to emergency care.
Technological advancements continue to shape the way professionals acquire critical skills in medical education and research.
One such innovation that stands out is the integration of respiratory training simulators, specifically lung simulators, into the educational toolkit of medical professionals, ventilator manufacturers, and educators.
Among the pioneers in this field is Michigan Instruments, offering state-of-the-art lung simulators paired with PneuView Software.
What Sets Our Lung Simulators and PneuView Software Apart?
Michigan Instruments takes pride in providing lung simulators that are fully to scale, offering realistic residual lung volumes and capacities. The range of settings for compliance and resistance on TTL® and PneuView® systems surpasses most other available simulators. What makes these devices truly exceptional is their ability to move and “feel” like real lungs when ventilated.
Unlike basic test lungs that perform only a handful of simulations and lack full scalability, Michigan Instruments’ lung simulators offer a superior level of realism.
This realism is not just a feature; it is a crucial aspect that enhances the utility of these devices for hands-on training, product testing, and research and development.
Unparalleled Realism for Lifesaving Education
The combination of Michigan Instruments’ Lung Simulators and the PneuView Software creates a more realistic environment for medical professionals and students.
These devices go beyond basic simulations, providing an experience that more closely replicates the complexities of the human pulmonary system.
The realistic representation of adult and infant lung conditions allows for a diverse range of simulations, enhancing understanding and clinical skills development.
Why Choose Michigan Instruments?
There are several reasons to choose Michigan Instruments, just as facilities around the world have.
Pioneer in Respiratory Care and Emergency Medical Industries
Michigan Instruments has established itself as a pioneer in the respiratory care and emergency medical industries.
Our lung simulators and automated CPR devices have been recognized as breakthrough innovations in the medical profession.
Gold Standard of Respiratory Simulation
With thousands of users worldwide, Michigan Instruments’ lung simulators are considered the gold standard of respiratory simulation.
The devices have proven their efficacy in various applications, from medical education to testing to research and development.
Applications Across Industries
Classroom Simulation: Michigan Instruments’ TTL and PneuView Lung Simulators facilitate “Aha Moments!” in classrooms, offering hands-on experiences that enhance understanding and develop valuable clinical skills in students.
Research and Development: The lung simulators play a crucial role in the design, engineering, evaluation, and manufacturing of respiratory devices. They contribute to making these devices more user-friendly and effective.
Testing: Evaluate the performance of respiratory devices, even in the face of changing pulmonary dynamics. PneuView Systems enable the collection and display of ventilation data through advanced software.
Request a Quote: Join the Ranks of Professionals Choosing Excellence
Discover why thousands of educators, researchers, manufacturers, and quality assurance professionals worldwide trust Michigan Instruments’ lung simulation devices.
Experience high-quality lung simulators that you can touch, see, and modify to meet the evolving demands of respiratory care and medical education.
Michigan Instruments is at the forefront of transforming respiratory training in the digital age, providing cutting-edge solutions that bridge the gap between theory and practice in the lifesaving field of respiratory care.
Asthma is a chronic condition that inflames and narrows the airways in the lungs. In fact, nearly 26 million people in the U.S. have asthma, making it one of the most common forms of respiratory disease in the country.
Fortunately, you can easily replicate asthma attack simulation on a lung simulator for education and research purposes.
Why Use Michigan Instruments Lung Simulation for Learning about Asthma?
There are several reasons why our Lung Simulators are a fantastic tool for learning and teaching about asthma; including, but not limited to:
- Safety: Simulation-based education ensures patient safety. This allows the user to make mistakes and gives them the ability to correct them, without harm to a patient.
- Reduced Errors: Simulation provides opportunity for continued practice. This results in less error while working with humans.
- Preparation for Several Scenarios: Simulation devices offer a wide range of lung compliance and airway resistance settings. This offers the students and professionals an immersive and nearly hands-on experience.
Settings For An Asthma Attack Simulation
By creating a severely restricted airway and pairing it with a slightly compliant lung, you can provide settings that simulate an acute asthma attack.
Here are the settings we recommend (using our lungs) to create a successful simulation:
- Functional Residual Capacity: Should be between 860mL and 990mL per adult lung and 80mL to 200mL for the infant lung.
- Please note that residual capacity is only considered functional if it’s downstream (during inspiration) of the airway resistor.
- Airway Resistance: A resistance of 50cmH2O/L/s should be used to simulate this condition in adults. The user should use 500cmH2O/L/s to simulate this condition in infants.
- Dynamic Compliance: Use a lung compliance of .04L/cmH2O for adults and .004L/cmH2O for infants. It’s important that this value is “dynamic” so that the compliance of the simulated lung will decrease as breaths begin to stack.
How is This Simulation Beneficial?
During normal ventilation, the increased airway resistance creates the high proximal pressure seen in victims of an acute asthma attack.
Additionally, the above-average compliance of the simulated patient will cause breath stacking unless the breaths delivered are properly regulated.
You can test many simulations in a number of ways. This allows students to get hands-on experience with rare conditions, replicate case-specific failures in ventilators, identify pros and cons of different ventilation techniques and more.
Organizations around the world use our test lungs for a plethora of educational purposes. The flexibility of our equipment allows our devices to replicate hundreds of healthy and diseased lung conditions, like asthma, while providing accurate measurements and data that inform your testing, research, and training.
Learn More About Our Lung Simulation Capabilities
If there is a specific symptom or condition that you would like to replicate, please let us know. We’d love to put together a simulation for you.
For questions or more information about simulations, contact us today.
Did you know that our lung simulator is used in many facilities that offer Respiratory Therapy programs—throughout the United States—and around the world?
Designed and manufactured by Michigan Instruments, our Lung Simulators are utilized in colleges, universities, hospitals and training schools. Their accurate and reliable human pulmonary system simulation capabilities make them an incredible tool for training and education.
Here are 10 reasons why we believe our equipment is a great solution for respiratory therapy programs.
Why Choose Our Lung Simulator for Respiratory Therapy Programs?
1. Lung Condition Simulation
Facilitators can simulate a wide variety of healthy and diseased lung conditions by altering the lung compliance and airway resistance in a one or two-lung simulation.
The flexibility of the devices provide accurate measurements and data that inform testing, research, and training for any and all lungs!
2. Realistic Volumes
Students work with a realistic total lung volume and residual volume—especially when using the Dual Adult Lung Training & Test Lung.
This is one of the many features that allows the devices to provide the best representation of the functions of the human pulmonary system.
3. Versatility
There is great versatility in regard to introducing gasses, tapping into the lungs or airways, and connecting auxiliary devices, like CO2 monitors.
This makes teaching easy and convenient, while providing a physical demonstration.
4. Ventilation Dynamics
With the Dual Adult Training & Test Lung, facilitators can simulate unilateral lung disease and the resulting ventilation dynamics.
This contributes to easy demonstration of mechanical ventilation and laboratory exercises with ventilators.
5. Spontaneous Breathing
You can simulate a spontaneous breathing patient and evaluate the response of devices in various support modes.
Spontaneous breathing simulations are especially helpful for designing, testing, and providing training on non-invasive and supportive modes of ventilation and oxygenation. Our SBL™ allows control of the breath rate, tidal volume, inspiratory time, and inspiratory flow pattern.
6. Multiple Techniques
Our SBL™ also facilitates education and studies with various oxygen delivery systems, and with the addition non-invasive ventilation devices & techniques.
7. Helpful Displays
When you add the PneuView software, you are able to see real-time data and waveform displays of pressure, volume, and flow, even when using simple ventilation devices like bag-valve-mask (BVMs), emergency ventilators, and CPAP systems.
8. Recordings
When using the PneuView software, facilitators and educators have the ability to capture ventilation data. This data can be graphed, tabulated, or digitally recorded and retrieved for later review, demonstration, and analysis.
9. Save Data
Students should have a simple and convenient way to perform research and keep track of their findings—and our software is more than capable of achieving that. With our PneuView systems, students can conduct research and easily save their data.
10. Easy and Durable
Last but not least, and probably the best benefit of our equipment in Respiratory Therapy Programs, is that it’s easy to use—and built to stand the test of time.
Many facilities have been using our products for years. The PneuView software was designed with simplicity in mind, and our software continues to evolve based on the needs of our customers.
Our customers have been vocal about how our equipment has been able to benefit them:
“We have been using Michigan Instruments Training Lung Simulators in our Respiratory Care program for many years and we love them. The lung simulator easily provides simulation of a variety of lung conditions that students can adjust to complete a variety of lab exercises. They are versatile, and a great tool for giving students hands-on experience with mechanical ventilation techniques, simulation of disease states for understanding pathology, and much more!”
– Dr. Ann Flint, Program Director, Respiratory Care – Jackson College
Learn More About How Our Lung Simulators Benefit Respiratory Therapy and Other Educational Programs
Medical professionals, directors, and educators around the world have chosen to partner with us and use our equipment in their programs. Our Lung Simulation product line continues to expand to better service Respiratory Therapy Programs everywhere.
If you’re interested in learning more about our lung simulation devices, the PneuView Software, or any of our additional products, contact us anytime for more information.
After doing extensive research, we’ve found the top tips to help you to attract and retain patients.
Perhaps the two most important factors in the longevity of your hospital’s success are attracting new patients and retaining ones for future medical procedures they need.
Patient satisfaction is what drives hospitals forward in funding, reputation, and much more—therefore, it’s important to know how to keep them satisfied. This practice is complex, but when executed properly, can result in great success for your hospital.
Keep reading to learn about some tips we found for attracting and retaining patients.
Tips to Attract Patients
Marketing hospitals requires brand-building and sales support, but there’s more to it than that. Making positive connections is the key factor.
Here are some tips for making those connections:
1. Know Your Niche
Consumers have several choices when it comes to products and services, including hospitals. Understanding the distinctions among different types of healthcare facilities can help you address them more effectively.
2. Learn What Patients Want
When a patient chooses a healthcare provider, they have a lot to consider. Therefore, it takes time to make the decision.
Listen to your patients and what they’re looking for. This is a sure way to draw in new patients, and keep your current ones happy.
3. Consider Your Online Presence
Social media and website upkeep is one of the most important factors for marketing any service.
Top Patient Retention Strategies
Did you know that there’s a 60-70% chance that an existing patient will continue visiting a healthcare provider after their first appointment?
Patient loyalty indicates trust that has been built throughout their visits. Additionally, they’re more likely to consider recommendations or other valuable services, therefore contributing to a stronger reputation.
There are many patient retention strategies. Here are a few:
1. Deliver Excellent Service
Like any other business, good service is not just recommended—it’s essential.
2. Show Your Patients You Care
Patients deserve a healthcare professional that truly cares about them.
All patients are different and require different needs, so take the time to explain why you believe your chosen plan meets those needs.
3. Ask For Feedback
Requesting feedback from your patients is a great way to better your services. Use the responses to assess which areas your facility is doing well in, and which areas you need to improve in.
Key Investments to Make in Your Hospital To Attract Patients
There are a couple investments you could make that will increase your chances of attracting new patients to your hospital. Here are some ideas:
1. Invest In Comfort
One thing patients and their loved ones look for when searching for new healthcare is comfort, both before and during the visit. Consider modernizing your waiting room with new TVs, more comfortable chairs, or vending machines.
2. Invest In Your Employees
Employees are the ones directly providing care and services to patients. Listen to them, address their concerns, and treat them with the utmost respect, because their concerns often affect the safety of all employees and patients.
3. Invest In Education And Research
As you know, healthcare is a field that is constantly evolving with new techniques, guidelines, and protocols.
Continuing education is necessary to broaden the skills of your staff and better equip them to solve problems, which increases productivity, lowers fatigue, and positive patient outcomes. In addition to training, there must be a demonstration of competency and classes to refresh the minds of your staff.
Our Devices Can Help The Success Of Your Hospital
Education and relief among employees can be the key to drawing in new patients, or improving the satisfaction of your current patients.
Our Lung Simulators could be your first step to the education and training your organization needs. Additionally, our automated CPR devices give caregivers a little extra relief, ensuring the best possible care for your patients. Contact us today for more information!
The human lungs work in miraculous ways. Whether your lungs function naturally, or you have a condition that requires breathing assistance, it’s important to make sure you have a healthy breathing process.
There are many ways the lungs can take in oxygen. Two of these ways include spontaneous breathing, and mechanical ventilation.
Below, we discuss how these breathing methods work, what the differences are, and how lung simulators can mimic both.
What Is Spontaneous Breathing?
Spontaneous breathing is a term used to describe psychological breathing.
Controlled by the involuntary nervous system, spontaneous breathing is a reflex. Healthy lungs will automatically breathe air in at all times, while we’re awake and while we’re asleep.
There are many ways that patients can keep their lungs in good shape to promote healthy breathing. These include, but are not limited to:
- Regular exercise
- Balanced diet
- Watching your weight
- Practice breathing exercises
- Keep the air inside your home clean
What Is Mechanical Ventilation?
Mechanical ventilation is a form of life support that helps you breathe when you can’t breathe on your own. It doesn’t directly treat illnesses, but it can stabilize you while other treatments and medications help your body recover.
Mechanical ventilation keeps your airways open, delivers oxygen and removes carbon dioxide. This treatment method dates back to the late 18th century. However, within the last century, it has become widely introduced into routine clinical practice.
Thus, it’s become much more sophisticated, expanding its application from the ICU to emergency medicine and even in long-term care.
Examples Of When Mechanical Ventilation Is Needed
There are several reasons why mechanical ventilation might be needed, including to:
- Deliver high concentrations of oxygen into the lungs
- Help get rid of carbon dioxide
- Decrease the amount of energy a patient uses on breathing so their body can concentrate on fighting infection or recovering
- Breathe for a person who has injury to the nervous system or who has very weak muscles
- Breathe for a patient who is unconscious because of a severe infection, build up of toxins, or drug overdose
How Our Lung Simulators Are Making A Difference
Michigan Instruments has played a role in the development and research for mechanical ventilation with our lung simulators. As respiratory care continues to grow and develop, Michigan Instruments continues to contribute with versatile, easy-to-set-up lung simulators.
All of our lung simulators, though versatile in capabilities, aid in the design, engineering, testing, and manufacturing of ventilation devices.
By offering a wide range of calibrated lung compliance and airway resistance settings, our lung simulators also simulate dynamic spontaneous breathing and breathing efforts. This flexibility allows our devices to replicate hundreds of healthy and diseased lung conditions, while providing highly accurate measurements and data.
Questions? Contact Us Today
For more information about how our lung simulators can benefit your institution’s research and treatment development, reach out to our team today!