Nursing practice questions with comprehensive rationales
NurseDive Free Nursing Practice Question
A pregnant woman presents to the emergency department complaining of persistent nausea and vomiting. She is diagnosed with hyperemesis gravidarum. The nurse should include which information when teaching about diet for hyperemesis? (Select all that apply)
A. Eat three larger meals a day.
Eating three larger meals a day is not recommended for hyperemesis gravidarum, as it may increase the nausea and vomiting. Instead, the nurse should advise the woman to eat small, frequent meals throughout the day.
B. Ice cream may stay down better than other foods.
Ice cream may stay down better than other foods, as it is cold, bland, and soothing. The nurse should encourage the woman to try foods that are appealing to her and avoid foods that trigger nausea.
C. Eat what sounds good to you even if your meals are not well-balanced.
Eating what sounds good to the woman even if her meals are not well-balanced is acceptable for hyperemesis gravidarum, as the priority is to maintain hydration and nutrition. The nurse should reassure the woman that she can resume a balanced diet once her symptoms improve.
D. Avoid ginger tea or sweet drinks.
Avoiding ginger tea or sweet drinks is not necessary for hyperemesis gravidarum, as some women may find them helpful in reducing nausea. The nurse should suggest the woman to experiment with different beverages and see what works for her.
E. Eat a high-protein snack at bed.
Eating a high-protein snack at bedtime is beneficial for hyperemesis gravidarum, as it can prevent low blood sugar levels and morning sickness. The nurse should recommend the woman to have a protein-rich food, such as cheese, yogurt, nuts, or eggs, before going to bed.
This question is an excerpt from Nurse Dive's nursing test bank - Ati Maternal Newborn Midterm Proctored Exam 1. Take the full exam now
Full Explanation
Choice A reason: Eating three larger meals a day is not recommended for hyperemesis gravidarum, as it may increase the nausea and vomiting. Instead, the nurse should advise the woman to eat small, frequent meals throughout the day.
Choice B reason: Ice cream may stay down better than other foods, as it is cold, bland, and soothing. The nurse should encourage the woman to try foods that are appealing to her and avoid foods that trigger nausea.
Choice C reason: Eating what sounds good to the woman even if her meals are not well-balanced is acceptable for hyperemesis gravidarum, as the priority is to maintain hydration and nutrition. The nurse should reassure the woman that she can resume a balanced diet once her symptoms improve.
Choice D reason: Avoiding ginger tea or sweet drinks is not necessary for hyperemesis gravidarum, as some women may find them helpful in reducing nausea. The nurse should suggest the woman to experiment with different beverages and see what works for her.
Choice E reason: Eating a high-protein snack at bedtime is beneficial for hyperemesis gravidarum, as it can prevent low blood sugar levels and morning sickness. The nurse should recommend the woman to have a protein-rich food, such as cheese, yogurt, nuts, or eggs, before going to bed.
Similar Questions
What are the maternal and neonatal risks associated with gestational diabetes mellitus?
A. Maternal placenta previa and fetal prematurity.
Maternal placenta previa is not a common complication of gestational diabetes mellitus. Placenta previa is a condition in which the placenta covers the cervix, which can cause bleeding and preterm labor. The risk factors for placenta previa include previous cesarean delivery, multiple pregnancy, advanced maternal age, and smoking.
B. Maternal hyperemesis and neonatal low birth weight.
Maternal hyperemesis and neonatal low birth weight are not directly related to gestational diabetes mellitus. Hyperemesis is a severe form of nausea and vomiting during pregnancy that can cause dehydration and weight loss. The causes of hyperemesis are not well understood, but it may be influenced by hormonal changes, genetic factors, and psychological factors². Neonatal low birth weight is defined as a birth weight of less than 2,500 grams, which can be caused by many factors, such as prematurity, intrauterine growth restriction, maternal infection, and maternal malnutrition.
C. Maternal premature rupture of membranes and neonatal sepsis.
Maternal premature rupture of membranes and neonatal sepsis are not specific to gestational diabetes mellitus. Premature rupture of membranes is a condition in which the amniotic sac breaks before labor begins, which can increase the risk of infection and preterm delivery. The causes of premature rupture of membranes are not clear, but some possible factors include infection, inflammation, stress, and trauma. Neonatal sepsis is a life-threatening infection in newborns, which can be caused by bacteria, viruses, or fungi. The risk factors for neonatal sepsis include prematurity, low birth weight, maternal infection, and invasive procedures⁵.
D. Maternal preeclampsia and fetal macrosomia.
Maternal preeclampsia and fetal macrosomia are the most common and serious complications of gestational diabetes mellitus. Preeclampsia is a condition characterized by high blood pressure and protein in the urine, which can lead to organ damage, seizures, and death. The exact cause of preeclampsia is unknown, but it may be related to abnormal placental development, immune system dysfunction, and genetic factors⁶. Fetal macrosomia is a condition in which the baby is larger than normal, usually weighing more than 4,000 grams at birth. This can cause difficulties during labor and delivery, such as shoulder dystocia, birth trauma, and cesarean section. The main cause of fetal macrosomia is excessive maternal glucose, which stimulates fetal insulin production and growth.
Full Explanation
Choice A reason: Maternal placenta previa is not a common complication of gestational diabetes mellitus. Placenta previa is a condition in which the placenta covers the cervix, which can cause bleeding and preterm labor. The risk factors for placenta previa include previous cesarean delivery, multiple pregnancy, advanced maternal age, and smoking.
Choice B reason: Maternal hyperemesis and neonatal low birth weight are not directly related to gestational diabetes mellitus. Hyperemesis is a severe form of nausea and vomiting during pregnancy that can cause dehydration and weight loss. The causes of hyperemesis are not well understood, but it may be influenced by hormonal changes, genetic factors, and psychological factors². Neonatal low birth weight is defined as a birth weight of less than 2,500 grams, which can be caused by many factors, such as prematurity, intrauterine growth restriction, maternal infection, and maternal malnutrition.
Choice C reason: Maternal premature rupture of membranes and neonatal sepsis are not specific to gestational diabetes mellitus. Premature rupture of membranes is a condition in which the amniotic sac breaks before labor begins, which can increase the risk of infection and preterm delivery. The causes of premature rupture of membranes are not clear, but some possible factors include infection, inflammation, stress, and trauma. Neonatal sepsis is a life-threatening infection in newborns, which can be caused by bacteria, viruses, or fungi. The risk factors for neonatal sepsis include prematurity, low birth weight, maternal infection, and invasive procedures⁵.
Choice D reason: Maternal preeclampsia and fetal macrosomia are the most common and serious complications of gestational diabetes mellitus. Preeclampsia is a condition characterized by high blood pressure and protein in the urine, which can lead to organ damage, seizures, and death. The exact cause of preeclampsia is unknown, but it may be related to abnormal placental development, immune system dysfunction, and genetic factors⁶. Fetal macrosomia is a condition in which the baby is larger than normal, usually weighing more than 4,000 grams at birth. This can cause difficulties during labor and delivery, such as shoulder dystocia, birth trauma, and cesarean section. The main cause of fetal macrosomia is excessive maternal glucose, which stimulates fetal insulin production and growth.
What are the possible consequences of inadequate weight gain during pregnancy for the infant?
A. Diabetes mellitus.
Diabetes mellitus is not a direct consequence of inadequate weight gain during pregnancy for the infant. However, maternal diabetes can increase the risk of fetal macrosomia (large birth weight), congenital anomalies, and neonatal hypoglycemia (low blood sugar) in the infant.
B. Down syndrome.
Down syndrome is not a direct consequence of inadequate weight gain during pregnancy for the infant. Down syndrome is a genetic disorder caused by an extra copy of chromosome 21 in the cells of the fetus. The risk of having a baby with Down syndrome increases with maternal age, but it is not related to maternal weight or nutrition².
C. Spina bifida.
Spina bifida is not a direct consequence of inadequate weight gain during pregnancy for the infant. Spina bifida is a neural tube defect that occurs when the spine and spinal cord do not form properly in the fetus. The main risk factor for spina bifida is a lack of folic acid (a B vitamin) in the mother's diet before and during pregnancy.
D. Intrauterine growth restriction.
Intrauterine growth restriction (IUGR) is a condition in which the fetus does not grow as expected and has a low birth weight. IUGR can have many causes, such as placental problems, infections, chromosomal abnormalities, and maternal factors. One of the maternal factors that can contribute to IUGR is inadequate weight gain during pregnancy, especially in underweight women. IUGR can increase the risk of complications for the infant, such as preterm birth, low Apgar score, hypothermia, hypoglycemia, and breathing problems⁵.
Full Explanation
Choice A reason: Diabetes mellitus is not a direct consequence of inadequate weight gain during pregnancy for the infant. However, maternal diabetes can increase the risk of fetal macrosomia (large birth weight), congenital anomalies, and neonatal hypoglycemia (low blood sugar) in the infant.
Choice B reason: Down syndrome is not a direct consequence of inadequate weight gain during pregnancy for the infant. Down syndrome is a genetic disorder caused by an extra copy of chromosome 21 in the cells of the fetus. The risk of having a baby with Down syndrome increases with maternal age, but it is not related to maternal weight or nutrition².
Choice C reason: Spina bifida is not a direct consequence of inadequate weight gain during pregnancy for the infant. Spina bifida is a neural tube defect that occurs when the spine and spinal cord do not form properly in the fetus. The main risk factor for spina bifida is a lack of folic acid (a B vitamin) in the mother's diet before and during pregnancy.
Choice D reason: Intrauterine growth restriction (IUGR) is a condition in which the fetus does not grow as expected and has a low birth weight. IUGR can have many causes, such as placental problems, infections, chromosomal abnormalities, and maternal factors. One of the maternal factors that can contribute to IUGR is inadequate weight gain during pregnancy, especially in underweight women. IUGR can increase the risk of complications for the infant, such as preterm birth, low Apgar score, hypothermia, hypoglycemia, and breathing problems⁵.
Which finding meets the criteria of a reassuring fetal heart rate (FHR) pattern?
A. Variability averages between 6 and 10 beats/min.
Variability refers to the fluctuations in the FHR that are irregular in amplitude and frequency. It reflects the balance between the sympathetic and parasympathetic nervous systems of the fetus. A normal variability is between 6 and 10 beats/min, which indicates a healthy and well-oxygenated fetus.
B. Mild late deceleration patterns occur with some contractions.
Late decelerations are decreases in the FHR that begin after the peak of a contraction and return to the baseline after the contraction ends. They are caused by uteroplacental insufficiency, which means that the placenta is not delivering enough oxygen and nutrients to the fetus. Mild late decelerations are not reassuring and may indicate fetal hypoxia or acidosis².
C. FHR does not change as a result of fetal activity.
FHR should change as a result of fetal activity, such as movement, sleep, or stimulation. A change in the FHR indicates a responsive and well-oxygenated fetus. A lack of change in the FHR may indicate fetal distress or compromise.
D. Average baseline rate ranges between 100 and 140 beats/min.
The average baseline rate is the mean FHR rounded to increments of 5 beats/min during a 10-minute window, excluding periods of marked variability, accelerations, or decelerations. A normal baseline rate is between 110 and 160 beats/min. A baseline rate between 100 and 140 beats/min is not necessarily abnormal, but it may indicate fetal bradycardia (slow heart rate) or tachycardia (fast heart rate), depending on the gestational age and other factors.
Full Explanation
Choice A reason: Variability refers to the fluctuations in the FHR that are irregular in amplitude and frequency. It reflects the balance between the sympathetic and parasympathetic nervous systems of the fetus. A normal variability is between 6 and 10 beats/min, which indicates a healthy and well-oxygenated fetus.
Choice B reason: Late decelerations are decreases in the FHR that begin after the peak of a contraction and return to the baseline after the contraction ends. They are caused by uteroplacental insufficiency, which means that the placenta is not delivering enough oxygen and nutrients to the fetus. Mild late decelerations are not reassuring and may indicate fetal hypoxia or acidosis².
Choice C reason: FHR should change as a result of fetal activity, such as movement, sleep, or stimulation. A change in the FHR indicates a responsive and well-oxygenated fetus. A lack of change in the FHR may indicate fetal distress or compromise.
Choice D reason: The average baseline rate is the mean FHR rounded to increments of 5 beats/min during a 10-minute window, excluding periods of marked variability, accelerations, or decelerations. A normal baseline rate is between 110 and 160 beats/min. A baseline rate between 100 and 140 beats/min is not necessarily abnormal, but it may indicate fetal bradycardia (slow heart rate) or tachycardia (fast heart rate), depending on the gestational age and other factors.