Type. person
No circumstances recorded.
recommend · D2 - S3
Labor induction may be recommended if the health of the mother or fetus is at risk.
identify · D6 - S4
Evaluating an infant for macrosomia or LGA can help identify risks associated with their birth, including labor complications of both the parent and the child, potential long-term health complications of the child, and infant mortality.
include · D6 - S4
Evaluating an infant for macrosomia or LGA can help identify risks associated with their birth, including labor complications of both the parent and the child, potential long-term health complications of the child, and infant mortality.
associate · D6 - S4
Evaluating an infant for macrosomia or LGA can help identify risks associated with their birth, including labor complications of both the parent and the child, potential long-term health complications of the child, and infant mortality.
help · D6 - S4
Evaluating an infant for macrosomia or LGA can help identify risks associated with their birth, including labor complications of both the parent and the child, potential long-term health complications of the child, and infant mortality.
evaluate · D6 - S4
Evaluating an infant for macrosomia or LGA can help identify risks associated with their birth, including labor complications of both the parent and the child, potential long-term health complications of the child, and infant mortality.
lead · D6 - S13
LGA or macrosomic births can lead to complications for both the mother and the infant.
occur · D6 - S15
Shoulder dystocia occurs when the infant's shoulder becomes impacted on the mother's pubic symphysis during birth.
impact · D6 - S15
Shoulder dystocia occurs when the infant's shoulder becomes impacted on the mother's pubic symphysis during birth.
increase · D6 - S17
Both increased birth weight and diabetes in the gestational parent are independent risk factors seen to increase risk of shoulder dystocia.
see · D6 - S17
Both increased birth weight and diabetes in the gestational parent are independent risk factors seen to increase risk of shoulder dystocia.
have · D6 - S21
LGA babies are at higher risk of low blood sugar (hypoglycemia) in the neonatal period, independent of whether the mother has diabetes.
include · D6 - S26
Complications of the pregnant mother include: emergency cesarean section, postpartum hemorrhage, and obstetric anal sphincter injury.
weigh · D6 - S27
Compared to pregnancies without macrosomia, pregnant women giving birth to newborns weighing between 4,000 grams and 4,500 grams are at twice the risk of complications, and those giving birth to infants over 4,500 grams are at three times greater risk.
give · D6 - S27
Compared to pregnancies without macrosomia, pregnant women giving birth to newborns weighing between 4,000 grams and 4,500 grams are at twice the risk of complications, and those giving birth to infants over 4,500 grams are at three times greater risk.
show · D6 - S28
Multiple factors have been shown to increase the likelihood of infant macrosomia, including preexisting obesity, diabetes, or dyslipidemia of the mother, gestational diabetes, post-term pregnancy, prior history of a macrosomic birth, genetics, and other factors.
increase · D6 - S28
Multiple factors have been shown to increase the likelihood of infant macrosomia, including preexisting obesity, diabetes, or dyslipidemia of the mother, gestational diabetes, post-term pregnancy, prior history of a macrosomic birth, genetics, and other factors.
include · D6 - S28
Multiple factors have been shown to increase the likelihood of infant macrosomia, including preexisting obesity, diabetes, or dyslipidemia of the mother, gestational diabetes, post-term pregnancy, prior history of a macrosomic birth, genetics, and other factors.
have · D6 - S30
The risk of having a macrosomic fetus is three times greater in mothers with diabetes than those without diabetes.
recommend · D6 - S31
Obesity before pregnancy and maternal weight gain above recommended guidelines during pregnancy are other key risk factors for macrosomia or LGA infants.
increase · D6 - S43
This explanation proposes that impaired glucose control in the mother leads to a hyperglycemic state for the fetus, which leads to a hyperinsulinemia response, in turn causing increased glucose metabolism, fat deposition, and excess growth.
cause · D6 - S43
This explanation proposes that impaired glucose control in the mother leads to a hyperglycemic state for the fetus, which leads to a hyperinsulinemia response, in turn causing increased glucose metabolism, fat deposition, and excess growth.
lead · D6 - S43
This explanation proposes that impaired glucose control in the mother leads to a hyperglycemic state for the fetus, which leads to a hyperinsulinemia response, in turn causing increased glucose metabolism, fat deposition, and excess growth.
propose · D6 - S43
This explanation proposes that impaired glucose control in the mother leads to a hyperglycemic state for the fetus, which leads to a hyperinsulinemia response, in turn causing increased glucose metabolism, fat deposition, and excess growth.
impair · D6 - S43
This explanation proposes that impaired glucose control in the mother leads to a hyperglycemic state for the fetus, which leads to a hyperinsulinemia response, in turn causing increased glucose metabolism, fat deposition, and excess growth.
grow · D6 - S46
During pregnancy, the levels of fat (lipids) in a mother's blood can influence how the baby grows.
influence · D6 - S46
During pregnancy, the levels of fat (lipids) in a mother's blood can influence how the baby grows.
affect · D6 - S48
Later in pregnancy, higher total cholesterol in the mother's blood has also been linked to higher birthweight, supporting the idea that maternal lipid levels can directly affect the baby's growth.
link · D6 - S48
Later in pregnancy, higher total cholesterol in the mother's blood has also been linked to higher birthweight, supporting the idea that maternal lipid levels can directly affect the baby's growth.
support · D6 - S48
Later in pregnancy, higher total cholesterol in the mother's blood has also been linked to higher birthweight, supporting the idea that maternal lipid levels can directly affect the baby's growth.
measure · D6 - S54
Clinical methods for estimating fetal weight involve measuring the mother's symphysis-fundal height and performing Leopold's maneuvers, which can help with determining the fetus's position in utero in addition to size.
help · D6 - S54
Clinical methods for estimating fetal weight involve measuring the mother's symphysis-fundal height and performing Leopold's maneuvers, which can help with determining the fetus's position in utero in addition to size.
perform · D6 - S54
Clinical methods for estimating fetal weight involve measuring the mother's symphysis-fundal height and performing Leopold's maneuvers, which can help with determining the fetus's position in utero in addition to size.
estimate · D6 - S54
Clinical methods for estimating fetal weight involve measuring the mother's symphysis-fundal height and performing Leopold's maneuvers, which can help with determining the fetus's position in utero in addition to size.
involve · D6 - S54
Clinical methods for estimating fetal weight involve measuring the mother's symphysis-fundal height and performing Leopold's maneuvers, which can help with determining the fetus's position in utero in addition to size.
determine · D6 - S54
Clinical methods for estimating fetal weight involve measuring the mother's symphysis-fundal height and performing Leopold's maneuvers, which can help with determining the fetus's position in utero in addition to size.
estimate · D6 - S56
Fetal weight can also be estimated through a mother's subjective assessment of the fetus's size, but this method is dependent on a mother's experience with past pregnancies and may not be clinically useful.
Unmatched incident ids: 6aedd76e6cf7c08d00fd4a66#S29