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Cancer can occur in individuals with spinal cord injuries, particularly due to long-term factors such as chronic inflammation, smoking, or reduced screening access. However, it is not the leading cause of death in this population. Although life expectancy has improved, cancer-related deaths are still less frequent compared to respiratory complications.

Individuals with spinal cord injuries have a higher risk of depression, social isolation, and psychological distress, which can increase the risk of suicide. However, despite this elevated risk, suicide is not the most common cause of death when compared to medical complications such as respiratory infections.

Pulmonary embolism is a significant risk, particularly in the acute phase after injury due to immobility, venous stasis, and hypercoagulability. Preventive measures such as anticoagulation and compression devices have reduced its incidence. While it remains a serious complication, it is not the leading long-term cause of death compared to pneumonia.

The parietal bone primarily forms the sides and roof of the skull and is not closely associated with the facial, acoustic, or vestibular nerves. Fractures here are less likely to cause these specific nerve deficits.

The carotid canal transmits the internal carotid artery, not the facial or vestibulocochlear nerves. Injury here would more likely affect cerebral blood flow rather than cause facial, hearing, or balance dysfunction.

The occipital bone is associated with structures such as the foramen magnum and cranial nerves related to lower brainstem function (e.g., CN IX–XII). It is not primarily associated with the facial or vestibulocochlear nerves, so fractures here are less likely to produce the described deficits.

This describes a rapid responder, not a transient responder. Rapid responders maintain stable vital signs and adequate perfusion after initial resuscitation, indicating that significant ongoing bleeding is unlikely. These patients can often be monitored with less aggressive intervention.

This statement is incomplete and nonspecific. While transient responders may temporarily improve with fluids and even blood products, the defining feature is that the improvement is not sustained. Simply stating that the patient “responds” does not capture the transient nature or clinical significance of their response.

The classification is not based on the speed of response but on the durability of the response. A transient responder may initially respond quickly, but the key issue is that the improvement is temporary and followed by deterioration, indicating ongoing pathology such as hemorrhage.

Although FAST is often performed early in trauma evaluation, the acronym specifically stands for “Focused Assessment,” emphasizing its targeted and rapid nature rather than simply being the first step.

This option misrepresents the acronym. FAST is not a general evaluation of findings but a focused, protocol-driven assessment to detect internal bleeding in specific anatomical areas.

This option is inaccurate and does not reflect standard trauma terminology. FAST is part of the primary survey and is not defined by “secondary findings.”

Pulmonary embolism can cause sudden shortness of breath and tachypnea; however, in this trauma context, a PE is less likely immediately upon arrival unless the patient had a pre-existing clot. The acute presentation of trauma with hypotension and low hemoglobin makes internal thoracic or pulmonary injury more probable.

MI may cause dyspnea, chest pain, and hypotension, but the mechanism of injury (high-speed MVC with dashboard impact) and the rapid, shallow breathing pattern suggest trauma-related thoracic injury rather than a primary cardiac event.

While TBI can alter breathing patterns (e.g., Cheyne-Stokes, irregular respirations), the patient’s primary pattern is rapid and shallow, more consistent with thoracic compromise rather than central neurologic injury. Additionally, the hypotension and low hemoglobin support blood loss as a primary factor rather than isolated neurologic dysfunction.

External disasters are incidents that happen outside the hospital or healthcare campus, such as natural disasters (e.g., earthquakes, hurricanes), transportation accidents, industrial accidents, or acts of terrorism. These events require hospitals to respond by activating emergency plans to treat incoming patients and allocate resources appropriately.

Internal disasters originate within the hospital itself and can disrupt operations. Examples include fires, chemical spills, structural damage, equipment failure, or power outages. Internal disaster plans focus on staff safety, evacuation procedures, and maintaining patient care during facility emergencies.

A mass casualty incident (MCI) occurs when the number of casualties exceeds the immediate capacity of local medical facilities, requiring triage, prioritization of care, and sometimes external assistance from other hospitals, emergency medical services, or disaster response teams.

This is a correct IPEC competency. Effective communication among healthcare professionals is essential for safe, coordinated, and patient-centered care. IPEC emphasizes skills such as clear information exchange, active listening, and shared decision-making.

This is a correct IPEC competency. Understanding and respecting the roles and responsibilities of different healthcare professionals helps prevent duplication, ensures accountability, and improves patient outcomes.

This is a correct IPEC competency. IPEC promotes shared values and ethical principles, including respect, integrity, and patient-centered care, as the foundation for collaborative practice.