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Between 20 to 30 years of age. While smoking at any age is harmful to lung health, the risk of developing emphysema increases with prolonged exposure to tobacco smoke over many years. Emphysema is typically a disease of middle to older age, with symptoms often appearing after years of smoking.

Asthma is a chronic inflammatory condition of the airways characterized by reversible airflow obstruction and airway hyperresponsiveness. While asthma and emphysema are both respiratory diseases, they have distinct pathophysiological mechanisms and risk factors. Asthma is not a direct cause of emphysema, although some individuals with poorly controlled asthma may develop chronic obstructive pulmonary disease (COPD), which includes emphysema as one of its components.

Pollution is not correct. Environmental pollution, including air pollution from industrial emissions, vehicle exhaust, and particulate matter, can contribute to respiratory problems and exacerbate pre-existing lung conditions. While exposure to pollution can worsen respiratory symptoms and lung function, it is not the primary cause of emphysema. However, long-term exposure to certain pollutants may increase the risk of developing respiratory diseases, including COPD, which encompasses emphysema.

"Do panting breaths several times a day." This statement is inappropriate. Panting breaths involve rapid, shallow breathing similar to what a dog does when it's hot. This technique may not be as effective in clearing mucus or promoting lung expansion compared to deep coughing. While panting breaths may have some benefits in promoting ventilation and increasing lung volume, they may not be as targeted or efficient in preventing atelectasis as other techniques such as deep coughing

"Strengthen your chest muscles by performing therapy exercises." This statement is incorrect. While strengthening chest muscles through therapy exercises can be beneficial for overall respiratory health, it may not directly target the prevention of atelectasis. Atelectasis is primarily caused by the collapse of lung tissue due to mucus buildup or reduced lung expansion, rather than weakness of chest muscles. While therapy exercises may have other benefits such as improving respiratory function and endurance, they may not be the most effective strategy for preventing atelectasis in individuals with spinal cord injuries.

"Get plenty of rest throughout the day." This statement is incorrect. Rest is important for overall health and well-being, but it may not directly contribute to the prevention of atelectasis. Inactivity and prolonged bed rest can actually increase the risk of atelectasis by reducing lung expansion and promoting mucus accumulation in the airways. While adequate rest is necessary for recovery and energy conservation, it should be balanced with activities that promote lung expansion and airway clearance, such as deep breathing exercises and mobility.

Higher oxygen saturations of 98% to 99% is inappropriate. A pneumothorax involves the presence of air in the pleural space, which can compromise lung function and gas exchange. This compromised lung function typically leads to decreased oxygenation of the blood, resulting in lower oxygen saturations rather than higher saturations.

Lower energy expenditure is inappropriate. Energy expenditure is not typically affected by a pneumothorax. While the discomfort and respiratory distress associated with a pneumothorax may cause the individual to limit physical activity, there is no direct impact on overall energy expenditure.

Increased lung capacity is inappropriate. A pneumothorax results in partial or complete collapse of the affected lung, reducing lung capacity rather than increasing it. The presence of air in the pleural space creates positive pressure, which can compress the lung and decrease its ability to expand fully during inhalation.

Prothrombin time (PT) is a laboratory test that measures the time it takes for blood to clot is incorrect. While PT may be part of a comprehensive evaluation in some cases, it is not typically the initial diagnostic test performed for a TIA. A TIA is caused by a temporary disruption of blood flow to the brain, often due to an embolus or transient blockage in a cerebral artery, rather than a primary disorder of blood clotting.

Complete blood count (CBC) is incorrect. A complete blood count (CBC) is a common laboratory test that evaluates the cellular components of the blood, including red blood cells, white blood cells, and platelets. While CBC can provide valuable information about hematological conditions such as anemia or thrombocytosis, it is not specific to diagnosing the cause of a TIA. TIA is primarily a vascular event related to transient ischemia in the brain rather than a disorder of blood cell counts.

Transesophageal echocardiogram (TEE) is inappropriate. Transesophageal echocardiogram (TEE) is an imaging test that provides detailed images of the heart and major blood vessels using sound waves. While TEE may be indicated in some cases of TIA to evaluate for potential cardiac sources of emboli (blood clots), such as atrial fibrillation or cardiac valve abnormalities, it is not typically the first-line diagnostic test performed in the emergency department setting for evaluating a TIA. Initial imaging studies such as CTA or magnetic resonance imaging (MRI) of the brain are usually prioritized to assess for acute changes in cerebral blood flow and potential causes of the TIA.

Keeping lights turned to medium level in the evening is incorrect. This intervention is aimed at reducing environmental stimuli, which may be appropriate for some patients with neurological conditions to minimize sensory overload and promote rest. However, it is not a specific intervention for preventing cerebral aneurysm rupture.

Administering hypotonic intravenous solutions is incorrect. Hypotonic intravenous solutions have a lower osmolarity than blood plasma and can lead to cerebral edema, which may exacerbate intracranial pressure and increase the risk of cerebral aneurysm rupture. Isotonic solutions, such as normal saline (0.9% NaCl) or lactated Ringer's solution, are typically preferred for fluid resuscitation and maintenance in patients at risk of cerebral aneurysm rupture.

Reposition the client every shift is incorrect. Repositioning the client every shift helps prevent complications associated with immobility, such as pressure ulcers, pneumonia, and venous thromboembolism. While important for overall patient care, repositioning alone does not directly address the risk of cerebral aneurysm rupture.

The client has some movement but no sensation below the level of the injury is incorrect. This finding would be more indicative of an incomplete spinal cord injury, where there is partial preservation of sensory or motor function below the level of the injury. However, with a transection of the spinal cord at C7, it is less likely for the client to have retained movement below the level of injury.

The client has some movement and also some sensation below the level of the injury is incorrect. This finding is not typically associated with a spinal cord injury at the level of C7. With a transection of the spinal cord at this level, there is typically complete loss of sensory and motor function below the level of the injury.

The client has some sensation but no movement below the level of the injury is incorrect. This finding is more consistent with an incomplete spinal cord injury, where there may be partial preservation of sensory function but no motor function below the level of the injury. However, with a transection of the spinal cord at C7, it is less likely for the client to have retained sensation below the level of injury.