EMS In The News - Man Allegedly Shoots at Ambulance

"Falck medics who responded “to a call for a structure fire literally dodged a bullet,” Aurora Fire Rescue said in a statement."

In Aurora, Colorado, paramedics narrowly avoided injury when a man allegedly shot at their ambulance during a house fire response.

The incident occurred near South Chambers Road and East Quincy Avenue. The suspect ran from the burning house with a gun and fired at the arriving ambulance, hitting the windshield. Fortunately, none of the three paramedics were hurt.

Police apprehended the 34-year-old suspect using non-lethal rounds, and he faces charges of arson and attempted murder after his hospital release​.

For further information, access the article link here.

Lauren Penington - The Denver Post

EMS Equipment - The Power Paradox

Despite powered advancements in patient movement, the initial ground lift remains a manual task for EMS providers.

The attached JEMS article addresses a critical issue in EMS that despite heavy investments in advanced power stretchers and other power-assisted patient handling devices, the initial task of lifting a patient from the ground remains manual and risky. 

This inconsistency, termed the "power paradox," exposes EMS Providers to significant musculoskeletal injuries, with nearly half of EMS workers experiencing such injuries due to manual patient handling.

While EMS agencies have invested significantly in technologies like power stretchers, power loads, and power stair chairs, they often overlook the necessity of power patient lifts.

The lack of a comprehensive power-assisted patient handling approach leads providers to use makeshift solutions like bedsheets, increasing the risk of injuries to both the patient and the provider. 

Statistics from the National Institute for Occupational Safety and Health (NIOSH) highlight that nearly half of all EMS workers suffer from work-related musculoskeletal injuries, underscoring the need for a complete and integrated approach to patient lifting.

The solution lies in incorporating power patient lifts, which are affordable compared to the costs of potential injuries and liabilities. These lifts can significantly reduce the physical strain on EMS providers and enhance patient safety. 

The article emphasizes that EMS agencies need to prioritize injury prevention by embracing a holistic approach to powered patient handling. 

By doing so, they can protect their personnel, improve patient care, and mitigate liability risks, ensuring the sustainability and effectiveness of EMS operations​.

Journal of Emergency Medical Services 2024 

For more information, access the attached article link.

EMS In The News - Mom Wants Answers After Son Dies In Medics Care

Trea Ellinger could have died from the combined effects of being sedated and lying prone, experts say.

In Maryland, the family of a man who died after being sedated and restrained by medics is seeking answers. The incident involved 35-year-old Tony Ferrell, who was experiencing a mental health crisis.

Emergency responders administered ketamine and physically restrained him, leading to his subsequent death. The family questions the protocols and decisions made by the medics, raising concerns about the use of force and sedation in handling mental health emergencies.

This tragic case has sparked a broader conversation about the appropriate methods for managing such situations and ensuring patient safety.

For more information, visit the JEMS article.

Associated Press

EMS Operations - Rural Paramedics Making House Calls

In Terlingua, Texas, a new community paramedicine program is helping reduce emergency room visits by having paramedics regularly check on residents with chronic health issues.

This initiative addresses the lack of nearby hospitals and doctors, providing preventative care and support, especially for elderly and reclusive individuals.

Funded by a USDA grant, the program aims to prove its cost-effectiveness by lowering readmissions, despite current challenges with insurance reimbursements for paramedic house calls.

The goal is to sustain these programs through demonstrated economic and health benefits.

A recent NAEMT report listed more than 150 of these kinds of community paramedicine programs across the country yet economic models are challenging.

For more details, visit the article below.

https://www.marketplace.org/2024/06/28/community-paramedicine-visits-west-texas-ems-paramedics/? 

EMS Medfication Administration - Oral (PO) Route

EMS Providers should be well-informed about oral medication administration to ensure patient safety and effective treatment. 

Here are some key points they should know:

1. Indications and Contraindications

Indications:

Situations where the patient can safely swallow and absorb medications.

Management of mild to moderate pain, allergic reactions, nausea, or chronic conditions.

Administration of medications such as aspirin (for chest pain), glucose (for hypoglycemia), or activated charcoal (for certain poisonings).

Contraindications:

Altered mental status or decreased level of consciousness, posing a risk of aspiration.

Difficulty swallowing or a risk of choking.

Severe nausea or vomiting.

Certain medical conditions or contraindicated medications.

2. Types of Oral Medications

Tablets and Capsules: Solid dosage forms that may need to be swallowed whole or chewed.

Liquids: Solutions, suspensions, or syrups.

Orally Disintegrating Tablets (ODTs): Tablets that dissolve quickly in the mouth.

Buccal and Sublingual: Medications placed in the cheek pouch or under the tongue for rapid absorption.

3. Preparation and Technique

Verification:

Verify the “Six Rights” of medication administration: right patient, right medication, right dose, right route, right time and right documentation

Patient Positioning:

Ensure the patient is in an upright position to facilitate swallowing and reduce the risk of aspiration.

Medication Administation:

For tablets/capsules: Provide a full glass of water and instruct the patient to swallow the medication.

For liquids: Measure the correct dose using an appropriate measuring device and ensure the patient drinks it all.

For ODTs, buccal, and sublingual: Place the medication in the patient’s mouth as directed and ensure they do not chew or swallow it prematurely.

4. Patient Communication and Education

Explain the Medication: Inform the patient about the medication’s purpose, expected effects, and any potential side effects.

Instructions: Provide clear instructions on how to take the medication, including any specific considerations (e.g., take with food or on an empty stomach).

5. Monitoring and Follow-Up

Observe for Effects: Monitor the patient for expected therapeutic effects and any adverse reactions.

Reassessment: Regularly reassess the patient's condition to determine the effectiveness of the medication and any need for additional intervention.

6. Complications and Management

Aspiration: Recognize signs of aspiration (e.g., coughing, choking) and know how to manage it (e.g., positioning, suction, airway management).

Allergic Reactions: Be prepared to manage allergic reactions, including anaphylaxis, by monitoring for symptoms and having emergency medications available.

Gastrointestinal Upset: Some oral medications can cause nausea or gastrointestinal discomfort; provide supportive care as needed.

7. Special Considerations

Pediatric and Geriatric Patients: Adjust dosages appropriately and consider additional challenges in administering oral medications to these populations (e.g., difficulty swallowing, altered taste).

Patients with Chronic Conditions: Be aware of any chronic conditions that may affect medication administration or absorption.

Medication Interactions: Understand potential interactions with other medications the patient is taking.

8. Legal and Ethical Considerations

Scope of Practice: Adhere to the legal scope of practice for their certification level and local regulations.

Informed Consent: Obtain informed consent from the patient or guardian whenever possible.

Documentation: Accurate documentation of medication name, dose, route, time of administration, and any observed effects or adverse reactions.

Conclusion

Effective oral medication administration requires EMS providers to combine theoretical knowledge with practical skills.

Continuous training, adherence to protocols, and understanding the indications, techniques, and potential complications are essential for safe and effective patient care.

Further Reading:

Alexander, M. & Belle, R. (2017) Advanced EMT: A Clinical Reasoning Approach (2nd Ed). Hoboken, New Jersey: Pearson Education

Bledsoe, B. E., Cherry, R. A. & Porter, R. S (2023) Paramedic Care: Principles and Practice (6th Ed) Boston, Massachusetts: Pearson

Bledsoe, B. E. & Clayden, D. (2018) Prehospital Emergency Pharmacology (8th Ed). Boston, Massachusetts: Pearson.

Guy, J. S. (2019) Pharmacology for the Prehospital Professional (2nd Ed) Burlington, Massachusetts: Jones & Bartlett Learning.

Mistovich, J. J. & Karren, K. J. (2014) Prehospital Emergency Care (11th Ed). Hoboken, New Jersey: Pearson Education

Peate, I. & Sawyer, S (2024) Fundamentals of Applied Pathophysiology for Paramedics. Hoboken, New Jersey:  Wiley Blackwell

EMS HazMat Emergencies - I Smell A Pool...We Don't Have A Pool...!

The article addresses the dangers of accidentally creating chlorine gas by mixing household bleach and vinegar, a common mistake due to misleading cleaning tips seen on social media. 

Chlorine gas exposure can lead to severe respiratory issues, including tachypnea, cyanosis, wheezing, and potentially fatal pulmonary edema. The Centers for Disease Control (CDC) warns of the risks, highlighting the need for immediate mitigation by removing the victim from the contaminated area and utilizing positive pressure ventilation (PPV) fans for decontamination.

EMS Providers must avoid exposure to chlorine gas without proper protective equipment like SCBA (Self-Contained Breathing Apparatus). They should prioritize ventilating the area and conducting a risk-benefit analysis before attempting rescues. 

The primary treatment for chlorine gas exposure involves removing contaminated clothing, administering oxygen, and using bronchodilators for wheezing. Long-term management may include monitoring for Reactive Airway Dysfunction Syndrome (RADS), a lifelong condition caused by chemical-induced asthma.

Effective communication with medical facilities and poison control is crucial during such incidents. The article emphasizes public education to prevent mixing household chemicals and highlights the historical and industrial uses of chlorine. 

Proper handling and awareness can prevent accidental poisonings and ensure safety in both residential and industrial settings.

Read the full article by accessing the link:

https://www.foamfrat.com/post/i-smell-a-pool-we-don-t-have-a-pool

EMS Equipment - Mechanical Chest Compression Devices

EMS providers should be familiar with the LUCAS (Lund University Cardiopulmonary Assist System) device and similar mechanical chest compression devices as they can significantly impact the management of patients in cardiac arrest. 

Here are some key points regarding both advantages and disadvantages:

Advantages:

Consistency: Mechanical chest compression devices like LUCAS can provide consistent and uninterrupted compressions, ensuring that the quality and depth of compressions are maintained throughout resuscitation efforts. This consistency is often challenging to achieve with manual compressions, especially during prolonged resuscitation attempts.

Reduced Fatigue: Manual chest compressions can quickly lead to provider fatigue, resulting in decreased effectiveness over time. Mechanical devices alleviate this issue by delivering continuous compressions without fatigue, ensuring that high-quality compressions are maintained for extended periods.

Standardization: Mechanical devices offer standardized compression rates and depths, reducing the variability that can occur with manual compressions performed by different providers. This standardization helps optimize perfusion during cardiac arrest and improves outcomes.

Safety: Mechanical devices reduce the risk of injury to EMS providers during transport and resuscitation efforts, particularly in challenging environments such as moving ambulances or confined spaces where manual compressions may be difficult to perform safely.

Multitasking: By automating chest compressions, EMS providers can focus on other critical aspects of patient care, such as airway management, medication administration, and team coordination, without compromising the quality of compressions.

Disadvantages:

Cost: Mechanical chest compression devices like LUCAS can be expensive to purchase and maintain, potentially limiting their availability in some EMS systems. The initial investment in these devices and ongoing maintenance costs should be considered when evaluating their implementation.

Training Requirements: Proper training is essential for EMS providers to effectively use mechanical chest compression devices. Training should include device operation, troubleshooting, and integration into resuscitation protocols to ensure optimal patient outcomes.

Device Limitations: Mechanical devices may not be suitable for all patients, particularly those with certain anatomical characteristics or injuries. EMS providers must be aware of the device's limitations and know when manual chest compressions may be more appropriate.

Interruptions: Although mechanical devices aim to provide continuous compressions, interruptions may still occur during battery changes, device malfunctions, or transfer between care providers or settings. EMS providers should be prepared to quickly address and minimize these interruptions to maintain effective resuscitation efforts.

Patient Considerations: Some patients may experience discomfort or injury from mechanical chest compressions, such as rib fractures or skin abrasions. EMS providers should assess each patient's condition and adjust device settings or techniques accordingly to minimize potential harm.

Overall, mechanical chest compression devices like LUCAS offer several advantages in the management of patients in cardiac arrest, including consistency, reduced provider fatigue, standardization, safety, and the ability to multitask. 

However, EMS providers must also be aware of the associated disadvantages, such as cost, training requirements, device limitations, interruptions, and patient considerations, to ensure appropriate and effective use in clinical practice.

Further Reading:

Bledsoe, B. E., Cherry, R. A. & Porter, R. S (2023) Paramedic Care: Principles and Practice (6th Ed) Boston, Massachusetts: Pearson

Frascone, R. J. (2014) The Risk Versus Benefit of LUCAS: Is It Worth It? Anesthesiology 120: 797–798

Peate, I. & Sawyer, S (2024) Fundamentals of Applied Pathophysiology for Paramedics. Hoboken, New Jersey:  Wiley Blackwell

Vitali (2022) The Lucas Device Explained  https://www.vitalipartners.com/blog/2022/08/the-lucas-device-explained-chest-compression-system/ Accessed May 12, 2024

EMS Particular Patient Populations - Cerebral Palsy

EMS Providers should be knowledgeable about cerebral palsy (CP) to effectively assess and provide care for patients with this condition.

Here are some key points they should know:

1. Understanding Cerebral Palsy:

   • Cerebral palsy is a group of permanent movement disorders that appear in early childhood. It is caused by abnormal development or damage to the parts of the brain that control movement, balance, and posture.
   • CP can manifest in various ways, including spasticity (stiff muscles), dyskinesia (involuntary movements), ataxia (poor balance and coordination), or a combination of these symptoms.
   • The severity of CP can vary widely, ranging from mild motor impairments to profound physical disabilities.

2. Assessment and Management:

   • Conduct a thorough assessment of the patient's vital signs, airway, breathing, and circulation while being mindful of their motor impairments and positioning needs.
   • Recognize that patients with CP may have difficulty with communication and may require alternative methods of expressing pain or discomfort.
   • Be prepared to provide appropriate pain management and comfort measures tailored to the individual patient's needs.

3. Mobility and Positioning:

   • Patients with CP may have mobility aids such as wheelchairs, walkers, or orthotic devices. Familiarize yourself with these devices and assist the patient in maintaining their mobility and independence.
   • Be mindful of the patient's positioning to prevent contractures, pressure ulcers, and discomfort during transport. Use supportive cushions or padding as needed to maintain proper alignment and comfort.

4. Communication:

   • Patients with CP may have difficulty with speech or may use alternative communication methods such as augmentative and alternative communication (AAC) devices, sign language, or gestures.
   • Take the time to communicate with the patient using methods that they are comfortable with and ensure that their caregivers or family members are involved in the communication process.

5. Seizure Management:

   • Some individuals with CP may have coexisting epilepsy and may be at risk of seizures. Be prepared to manage seizures promptly and effectively, following established seizure protocols and providing appropriate medical interventions as needed.

6. Psychosocial Support:

   • Recognize the psychosocial impact of CP on patients and their families, including potential challenges related to caregiving, social isolation, and stigma.
   • Provide emotional support and reassurance to patients and their caregivers, and connect them with appropriate community resources and support networks as needed.

7. Collaboration with Healthcare Providers:

   • Collaborate with healthcare providers familiar with the patient's medical history and ongoing management of CP, including pediatricians, neurologists, physical therapists, and occupational therapists.
   • Ensure that relevant information about the patient's condition and care needs is communicated effectively during handoffs and transitions of care.

By understanding the unique challenges and needs of patients with cerebral palsy, EMS providers can deliver compassionate, patient-centered care that promotes optimal outcomes and enhances the overall well-being of these individuals.

Further Reading:

Alexander, M. & Belle, R. (2017) Advanced EMT: A Clinical Reasoning Approach (2nd Ed). Hoboken, New Jersey: Pearson Education

Bledsoe, B. E., Cherry, R. A. & Porter, R. S (2023) Paramedic Care: Principles and Practice (6th Ed) Boston, Massachusetts: Pearson

Mistovich, J. J. & Karren, K. J. (2014) Prehospital Emergency Care (11th Ed). Hoboken, New Jersey: Pearson Education

Peate, I. & Sawyer, S (2024) Fundamentals of Applied Pathophysiology for Paramedics. Hoboken, New Jersey:  Wiley Blackwell

EMS Particular Patient Populations - Patients With Sensory Disabilities

EMS providers should be prepared to effectively communicate with and provide care for patients with sensory disabilities, including those who are blind, deaf, or have other sensory impairments.

Here are some important considerations:

1. Communication:

   • For patients who are blind or have low vision, use verbal descriptions to provide information about surroundings, procedures, and actions being taken.
   • For patients who are deaf or hard of hearing, use clear and simple gestures, facial expressions, and written communication when possible.
   • Use communication aids and assistive devices, such as communication boards, text-to-speech apps, or sign language interpreters, as needed to facilitate effective communication.

2. Respect & Dignity:

   • Treat patients with sensory disabilities with respect, dignity, and sensitivity to their individual needs and preferences.
   • Avoid making assumptions about a patient's capabilities or independence based on their sensory disability.

3. Assessment & History Taking:

   • Gather information about the patient's medical history, allergies, medications, and any specific needs related to their sensory disability.
   • Adapt assessment techniques to accommodate the patient's sensory disability, such as using alternative methods to assess vital signs or perform physical examinations.

4. Safety Considerations:

   • Ensure the safety of patients with sensory disabilities during the assessment, treatment, and transport process.
   • Provide clear instructions and guidance to assist the patient in moving safely, particularly if they have mobility impairments in addition to sensory disabilities.

5. Environment:

   • Create a calm and comfortable environment for patients with sensory disabilities, minimizing unnecessary noise, distractions, and bright lights.
   • Consider the patient's sensory preferences and sensitivities when selecting a location for assessment and treatment.

6. Collaboration & Advocacy:

   • Collaborate with family members, caregivers, or companions who may assist in communication or provide important information about the patient's needs and preferences.
   • Advocate for the patient's rights and access to appropriate accommodations, such as sign language interpreters or accessible medical equipment.

7. Training & Education:

   • Receive training on interacting with patients with sensory disabilities, including communication techniques, cultural competence, and disability awareness.
   • Stay informed about available resources, assistive technologies, and support services for patients with sensory disabilities in your community.

By being proactive, compassionate, and attentive to the unique needs of patients with sensory disabilities, EMS providers can ensure that these individuals receive high-quality care and support during emergency situations.

Further Reading:

Alexander, M. & Belle, R. (2017) Advanced EMT: A Clinical Reasoning Approach (2nd Ed). Hoboken, New Jersey: Pearson Education

Bledsoe, B. E., Cherry, R. A. & Porter, R. S (2023) Paramedic Care: Principles and Practice (6th Ed) Boston, Massachusetts: Pearson

Mistovich, J. J. & Karren, K. J. (2014) Prehospital Emergency Care (11th Ed). Hoboken, New Jersey: Pearson Education

Peate, I. & Sawyer, S (2024) Fundamentals of Applied Pathophysiology for Paramedics. Hoboken, New Jersey:  Wiley Blackwell