Oxygen-powered automated CPR devices like the Life-Stat® 1008 integrate mechanical compressions and ventilation into hospital workflows, supporting consistent, guideline-aligned resuscitation performance during critical care events.
Automated CPR in hospitals helps reduce staff fatigue while delivering consistent, guideline-aligned chest compressions during cardiac arrest. By minimizing interruptions and supporting uninterrupted performance during extended codes, mechanical CPR devices improve efficiency and clinical focus. Learn how automated CPR supports both patient outcomes and safer working conditions for care teams.
Respiratory emergencies like ARDS and COPD evolve quickly, demanding rapid clinical judgment and adaptability. Dynamic lung simulation allows educators and care teams to train for changing compliance, resistance, and disease progression—building the confidence and problem-solving skills needed when real patients don’t follow a script.
In medical training, precision matters—but so does endurance. Simulation tools need to perform accurately today, tomorrow, and for years to come. When they don’t, programs stall, lessons lose impact, and confidence fades.That’s why durability is at the heart of every simulator we build at Michigan Instruments.
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…
When cardiac arrest happens, every second counts. Performing CPR while a patient is in motion—whether down a stairwell, across uneven ground, or inside an ambulance—presents unique challenges for both patient and provider. Manual chest compressions remain a vital skill, but today’s emergency environments…
Manual CPR can be very effective, but it’s also physically exhausting and hard to maintain at the right rhythm, especially during transport or extended resuscitation efforts. That’s where mechanical CPR devices step in. These systems provide reliable, consistent compressions that support patient survival and protect the healthcare providers delivering care.
Here are seven reasons your facility should consider automated CPR devices like Michigan Instruments’ Life-Stat and Thumper.
1. More Reliable Blood Flow to the Brain
Automated CPR ensures compressions are delivered at the ideal rate and depth, without fatigue or inconsistency. This helps maintain steady blood flow to the brain and other organs, giving patients a better chance of recovery.
2. Fast Setup, Less Delay
Mechanical CPR systems can be applied in just a few seconds. That means fewer pauses between compressions and more time for your team to focus on airway management, medications, and other critical interventions.
3. Built-In Ventilation Support
Michigan Instruments’ Life-Stat is the only device that offers both compressions and automatic ventilation. This unique combination reduces the need for additional personnel and helps streamline the entire resuscitation process.
4. Continuous CPR During Transport
Whether you’re moving a patient through a hallway, or down the stairs, automated CPR devices stay securely in place and keep working. There’s no loss in compression quality, even on the move.
5. Fewer Injuries, Less Fatigue
Manual CPR is physically demanding—and that strain can lead to caregiver fatigue or injury. Automated devices take over this effort, lowering risk for your team while maintaining consistent care for your patient.
6. One Size Fits Most
Michigan Instruments’ devices are designed with an open frame, making them easy to fit on a wide range of patients. From smaller adults to larger individuals, the flexible design ensures broad usability in emergency situations.
7. Built to Last, Easy to Maintain
These devices are powered by oxygen and simple 9-volt batteries, with no need for complicated charging systems. They’re durable, cost-effective, and ready to go when you need them most.
Supporting Recovery from the First Compression
Improving survival outcomes during cardiac arrest starts with consistent, high-quality CPR. With tools like the Life-Stat and Thumper, your team can respond faster, work safer, and support better recovery from the first compression.
At Michigan Instruments, we’re proud to support the caregivers and healthcare teams working to improve patient outcomes every day.
Learn more about our automated CPR devices and how they can support your resuscitation efforts.
When a patient experiences cardiac arrest, timely and effective CPR is critical to maintaining blood flow to the brain and vital organs. In both pre-hospital and in-hospital settings, resuscitation protocols are often guided by a range of clinical factors. However, one common question remains: How long should CPR be performed?
Historically, resuscitation efforts were frequently halted after a certain duration if spontaneous circulation was not achieved. But in recent years, emerging studies suggest that longer resuscitation efforts may improve outcomes in select cases.
In this blog, we’ll explore the evidence behind prolonged CPR and how mechanical CPR devices can support extended, high-quality resuscitation.
Evidence Supporting Longer Resuscitation Efforts
Recent studies have indicated that longer durations of CPR can lead to increased survival rates in patients who suffer from in-hospital cardiac arrest. One study published in The Lancet found that hospitals with longer average resuscitation times tended to have higher rates of patient survival. Another Japanese study revealed that continuing CPR for 30 minutes or more resulted in better neurological outcomes in some cases.
These findings challenge the notion that prolonged CPR efforts are unlikely to result in positive outcomes. While every resuscitation case is unique, current research indicates that sustained efforts—particularly in controlled, hospital-based environments—may be beneficial under the right circumstances.
A Case of Extended Resuscitation Using the Life-Stat Device
In one instance, Michigan Instruments’ Life-Stat® Automated CPR Device was used for nearly four hours to assist in the revival of a 56-year-old male patient found unresponsive in the snow. The patient had a Glasgow Coma Scale (GCS) score of 6, non-reactive pupils, and did not respond to NARCAN® administration.
EMS personnel deployed the Life-Stat to deliver uninterrupted, guideline-compliant CPR while additional interventions, including active rewarming, were administered. After 3 hours and 45 minutes of continuous mechanical CPR, the patient regained consciousness and began following commands while on ventilatory support.
This case illustrates the value of mechanical CPR devices in maintaining high-quality compressions during prolonged resuscitation efforts, particularly when manual compressions are not sustainable over time.
Challenges of Manual CPR Over Time
Manual CPR requires significant physical effort and can lead to rescuer fatigue within minutes. Over time, the quality of chest compressions can decline, potentially impacting patient outcomes. In addition, long-duration resuscitations can disrupt other aspects of patient care, as healthcare professionals are required to focus on compressions instead of addressing the underlying cause of arrest.
In both pre-hospital and hospital environments, this creates a critical need for reliable, automated solutions that can maintain consistent compression quality while freeing clinicians to manage the broader aspects of patient resuscitation.
The Role of Mechanical CPR Devices in Extended Resuscitation
Michigan Instruments’ Life-Stat and Thumper® Automated CPR Devices are designed to deliver uninterrupted, guideline-compliant compressions and, in the case of the Life-Stat, controlled ventilation support. These devices can be deployed quickly and operate continuously during transport, diagnostics, and treatment. With no batteries to rely on, once the Michigan Instruments CPR devices are attached to an O’2 source, they will operate indefinitely, offering the extended CPR without fail or overheating.
By using Michigan Instruments mechanical CPR devices during extended resuscitation:
- Compression depth and rate remain consistent within AHA guidelines.
- Easier placement of CPR massager pad and more stable compressions.
- Providers experience reduced physical strain and can better focus on critical care tasks.
- CPR can continue uninterrupted for hours, improving the likelihood of favorable outcomes in prolonged cases.
Improving Outcomes with Automated CPR
In cases where extended resuscitation is clinically appropriate, the ability to maintain high-quality CPR over time is essential. Mechanical CPR devices can support these efforts by delivering consistent, hands-free compressions that are not subject to human fatigue or error.
At Michigan Instruments, we are committed to equipping healthcare providers with reliable tools that enhance patient care and support improved survival rates during cardiac arrest. Our automated CPR devices are trusted by professionals in both pre-hospital and in-hospital settings for their performance, durability, and ease of use.
Learn more about how the Life-Stat and Thumper can support your team’s resuscitation protocols and improve outcomes in time-critical situations.
Effective CPR is critical for patient survival in the ICU, where every second counts during a cardiac emergency. However, even with trained healthcare professionals and established protocols, challenges such as fatigue, inconsistent compressions, and workflow interruptions can impact resuscitation outcomes.
In this blog, we’ll explore some practices for improving CPR effectiveness in the ICU and highlight how Michigan Instruments’ automated CPR devices can enhance resuscitation efforts by ensuring consistent, high-quality compressions.
Best Practices for Effective CPR in the ICU
To maximize the effectiveness of CPR in the ICU, healthcare providers should focus on the following key practices:
- Minimize Interruptions in Chest Compressions: Continuous chest compressions are vital. Any interruption should be limited to under 10 seconds to maintain coronary perfusion pressure.
- Ensure Adequate Compression Rate and Depth: Adhere to the recommended compression rate of 100–120 compressions per minute with a depth of at least 2 inches (5 cm) for adults.
- Allow Full Chest Recoil: Permit the chest to fully recoil between compressions to facilitate optimal cardiac filling.
- Avoid Excessive Ventilation: Provide ventilation at appropriate rates to prevent hyperventilation, which can increase intrathoracic pressure and decrease venous return.
- Utilize Feedback Devices: Employ real-time feedback mechanisms to monitor compression quality, ensuring adherence to guidelines and improving performance.
- Train Healthcare Staff on CPR Devices: Proper training on CPR equipment, including automated CPR devices, is essential for ensuring that staff can deploy them quickly and effectively during an emergency. Hands-on practice and regular refresher courses help build confidence and competence in using these devices, ultimately improving patient outcomes. Michigan Instruments provides training resources and realistic simulation tools to help healthcare teams integrate automated CPR devices into their resuscitation protocols seamlessly. (Read more about CPR training)
Enhancing CPR with Michigan Instruments’ Automated Devices
Michigan Instruments’ automated CPR devices, the Life-Stat and Thumper, are engineered to support and enhance these best practices.
- Consistent, High-Quality Compressions: These devices deliver continuous, guideline-compliant chest compressions, reducing variability and eliminating rescuer fatigue.
- Adjustable Compression Depth: From 0 to 3.2 inches (8cm)
- Quick Transition from Manual to Automated CPR: Designed for rapid deployment, these devices allow for a seamless switch with minimal interruption to compressions, crucial for maintaining perfusion.
- Hands-Free Operation: By automating compressions, healthcare providers can focus on other critical aspects of patient care during resuscitation efforts.
- Ventilation Integration: The Life-Stat model includes built-in ventilation, ensuring synchronized compressions and ventilations, which is essential for effective resuscitation.
Advantages of Implementing Automated CPR in the ICU
Integrating Michigan Instruments’ automated CPR devices into ICU protocols offers several benefits:
- Improved Patient Outcomes: Consistent and uninterrupted compressions enhance the likelihood of return of spontaneous circulation (ROSC) and survival.
- Enhanced Safety for Healthcare Providers: Hands-free operation reduces physical strain and exposure to potential hazards during resuscitation.
- Operational Efficiency: Automated devices free up staff to perform other critical tasks, optimizing resource utilization during emergencies.
For a visual demonstration of the Life-Stat automated CPR device in a hospital setting, check out this video.
How Michigan Instruments Supports Effective ICU Resuscitation
Delivering high-quality CPR in the ICU is essential for improving patient outcomes, but challenges such as rescuer fatigue, inconsistent compressions, and workflow interruptions can impact effectiveness. By integrating automated CPR devices like the Life-Stat and Thumper, hospitals can ensure continuous, guideline-compliant compressions while allowing healthcare providers to focus on critical patient care.
At Michigan Instruments, we are dedicated to providing healthcare professionals with the tools they need to enhance resuscitation efforts and improve survival rates. Our automated CPR devices are designed for reliability, ease of use, and seamless integration into ICU protocols. With advanced solutions like ours, your team can optimize CPR performance and deliver the best possible care to patients in critical conditions.
Learn more about our automated CPR devices and how they can enhance your ICU resuscitation protocols.