The macrocytic anaemia revealed by the full blood count is indicative of a megaloblastic anaemia, as per the blood films. This type of anaemia can be caused by a deficiency in folate or B12. Given that folic acid deficiency is prevalent during pregnancy, it is the most probable cause in this instance. Additionally, the likelihood of coeliac disease exacerbating malabsorption further supports this conclusion.

Folic Acid: Importance, Deficiency, and Prevention

Folic acid is a vital nutrient that is converted to tetrahydrofolate (THF) in the body. It is found in green, leafy vegetables and plays a crucial role in the transfer of 1-carbon units to essential substrates involved in the synthesis of DNA and RNA. However, certain factors such as phenytoin, methotrexate, pregnancy, and alcohol excess can cause a deficiency in folic acid. This deficiency can lead to macrocytic, megaloblastic anemia and neural tube defects.

To prevent neural tube defects during pregnancy, it is recommended that all women take 400mcg of folic acid until the 12th week of pregnancy. Women at higher risk of conceiving a child with a neural tube defect should take 5mg of folic acid from before conception until the 12th week of pregnancy. Women are considered higher risk if they or their partner has a neural tube defect, they have had a previous pregnancy affected by a neural tube defect, or they have a family history of a neural tube defect. Additionally, women with certain medical conditions such as coeliac disease, diabetes, or thalassaemia trait, or those taking antiepileptic drugs, or who are obese (BMI of 30 kg/m2 or more) are also considered higher risk.

In summary, folic acid is an essential nutrient that plays a crucial role in DNA and RNA synthesis. Deficiency in folic acid can lead to serious health consequences, including neural tube defects. However, taking folic acid supplements during pregnancy can prevent these defects and ensure a healthy pregnancy.

To determine if induction is necessary, the Bishop scoring system evaluates cervical characteristics such as position, consistency, effacement, dilation, and foetal station. If the score is less than 5, induction is likely required. However, if the score is above 9, spontaneous labour is expected.

Induction of labour is a process where labour is artificially started and is required in about 20% of pregnancies. It is indicated in cases of prolonged pregnancy, prelabour premature rupture of the membranes, maternal medical problems, diabetic mother over 38 weeks, pre-eclampsia, obstetric cholestasis, and intrauterine fetal death. The Bishop score is used to assess whether induction of labour is necessary and includes cervical position, consistency, effacement, dilation, and fetal station. A score of less than 5 indicates that labour is unlikely to start without induction, while a score of 8 or more indicates a high chance of spontaneous labour or response to interventions made to induce labour.

Possible methods of induction include membrane sweep, vaginal prostaglandin E2, oral prostaglandin E1, maternal oxytocin infusion, amniotomy, and cervical ripening balloon. The NICE guidelines recommend vaginal prostaglandins or oral misoprostol if the Bishop score is less than or equal to 6, while amniotomy and an intravenous oxytocin infusion are recommended if the score is greater than 6.

The main complication of induction of labour is uterine hyperstimulation, which refers to prolonged and frequent uterine contractions that can interrupt blood flow to the intervillous space and result in fetal hypoxemia and acidemia. Uterine rupture is a rare but serious complication. Management includes removing vaginal prostaglandins and stopping the oxytocin infusion if one has been started, and considering tocolysis.

Placental abruption is a critical obstetric emergency that requires immediate attention to prevent severe blood loss and potential harm to both the mother and baby. While patients have the right to choose their doctor, this right does not apply in emergency situations where prompt treatment is necessary to save the patient’s life. Therefore, suggesting that the patient wait for a female doctor or return in an hour is inappropriate and could result in a dangerous delay in medical care. It is also unnecessary to label the comment as sexist and document it in the patient’s notes. While it is important to respect the patient’s preferences, the priority in this situation is to provide urgent medical attention. Similarly, asking a midwife to take on the role of a doctor is not a safe or appropriate solution, as their training and responsibilities differ. Ultimately, if a female doctor is not available, the patient must be treated by a male doctor to address the emergency as quickly and effectively as possible.

Placental Abruption: Causes, Symptoms, and Risk Factors

Placental abruption is a condition that occurs when the placenta separates from the uterine wall, leading to maternal bleeding into the space between them. Although the exact cause of this condition is unknown, certain factors have been associated with it, including proteinuric hypertension, cocaine use, multiparity, maternal trauma, and increasing maternal age. Placental abruption is not a common occurrence, affecting approximately 1 in 200 pregnancies.

The clinical features of placental abruption include shock that is disproportionate to the visible blood loss, constant pain, a tender and tense uterus, and a normal lie and presentation of the fetus. The fetal heart may be absent or distressed, and there may be coagulation problems. It is important to be aware of other conditions that may present with similar symptoms, such as pre-eclampsia, disseminated intravascular coagulation (DIC), and anuria.

In summary, placental abruption is a serious condition that can have significant consequences for both the mother and the fetus. Understanding the risk factors and symptoms of this condition is important for early detection and appropriate management.

The management of anaemia in pregnancy involves different cut off values for Hb levels depending on the trimester. For first trimester anaemia with Hb less than 110 g/L, the recommended first step is a trial of oral iron tablets. Further investigations are only necessary if there is no rise in Hb after 2 weeks. Parenteral iron is only used if oral iron is not effective or tolerated. Blood transfusion is not appropriate at this level of Hb without active bleeding.

During pregnancy, women are checked for anaemia twice – once at the initial booking visit (usually around 8-10 weeks) and again at 28 weeks. The National Institute for Health and Care Excellence (NICE) has set specific cut-off levels to determine if a pregnant woman requires oral iron therapy. These levels are less than 110 g/L in the first trimester, less than 105 g/L in the second and third trimesters, and less than 100 g/L postpartum.

If a woman’s iron levels fall below these cut-offs, she will be prescribed oral ferrous sulfate or ferrous fumarate. It is important to continue this treatment for at least three months after the iron deficiency has been corrected to allow the body to replenish its iron stores. By following these guidelines, healthcare professionals can help ensure that pregnant women receive the appropriate care to prevent and manage anaemia during pregnancy.

If a patient has continuous dribbling incontinence after prolonged labor and comes from an area with limited obstetric services, it is important to consider the possibility of vesicovaginal fistulae.

Understanding Urinary Incontinence: Causes, Classification, and Management

Urinary incontinence (UI) is a common condition that affects around 4-5% of the population, with elderly females being more susceptible. Several risk factors contribute to UI, including advancing age, previous pregnancy and childbirth, high body mass index, hysterectomy, and family history. UI can be classified into different types, such as overactive bladder (OAB)/urge incontinence, stress incontinence, mixed incontinence, overflow incontinence, and functional incontinence.

Initial investigation of UI involves completing bladder diaries for at least three days, vaginal examination, urine dipstick and culture, and urodynamic studies. Management of UI depends on the predominant type of incontinence. For urge incontinence, bladder retraining and bladder stabilizing drugs such as antimuscarinics are recommended. For stress incontinence, pelvic floor muscle training and surgical procedures such as retropubic mid-urethral tape procedures may be offered. Duloxetine, a combined noradrenaline and serotonin reuptake inhibitor, may also be used as an alternative to surgery.

In summary, understanding the causes, classification, and management of UI is crucial in providing appropriate care for patients. Early diagnosis and intervention can significantly improve the quality of life for those affected by this condition.

A complete miscarriage occurs when the entire fetus is spontaneously aborted and expelled through the cervix. Once the fetus has been expelled, the pain and uterine contractions typically cease. An ultrasound can confirm that the uterus is now empty.

Miscarriage is a common complication that can occur in up to 25% of all pregnancies. There are different types of miscarriage, each with its own set of symptoms and characteristics. Threatened miscarriage is painless vaginal bleeding that occurs before 24 weeks, typically at 6-9 weeks. The bleeding is usually less than menstruation, and the cervical os is closed. Missed or delayed miscarriage is when a gestational sac containing a dead fetus is present before 20 weeks, without the symptoms of expulsion. The mother may experience light vaginal bleeding or discharge, and the symptoms of pregnancy may disappear. Pain is not usually a feature, and the cervical os is closed. Inevitable miscarriage is characterized by heavy bleeding with clots and pain, and the cervical os is open. Incomplete miscarriage occurs when not all products of conception have been expelled, and there is pain and vaginal bleeding. The cervical os is open in this type of miscarriage.

Referral to a maternal fetal medicine unit is recommended if there are no fetal movements felt by 24 weeks. While most women feel their baby moving around 18-20 weeks, it can range from 16-24 weeks. If there is a lack of fetal movement, it could be due to various reasons, including miscarriages and stillbirth, which can be distressing. Therefore, it is important to check the fetal heartbeat and consider an ultrasound to detect any abnormalities if no fetal movements are felt by 24 weeks.

Understanding Reduced Fetal Movements

Introduction:
Reduced fetal movements can indicate fetal distress and are a response to chronic hypoxia in utero. This can lead to stillbirth and fetal growth restriction. It is believed that placental insufficiency may also be linked to reduced fetal movements.

Physiology:
Quickening is the first onset of fetal movements, which usually occurs between 18-20 weeks gestation and increases until 32 weeks gestation. Multiparous women may experience fetal movements sooner. Fetal movements should not reduce towards the end of pregnancy. There is no established definition for what constitutes reduced fetal movements, but less than 10 movements within 2 hours (in pregnancies past 28 weeks gestation) is an indication for further assessment.

Epidemiology:
Reduced fetal movements affect up to 15% of pregnancies, with 3-5% of pregnant women having recurrent presentations with RFM. Fetal movements should be established by 24 weeks gestation.

Risk factors for reduced fetal movements:
Posture, distraction, placental position, medication, fetal position, body habitus, amniotic fluid volume, and fetal size can all affect fetal movement awareness.

Investigations:
Fetal movements are usually based on maternal perception, but can also be objectively assessed using handheld Doppler or ultrasonography. Investigations are dependent on gestation at onset of RFM. If concern remains, despite normal CTG, urgent (within 24 hours) ultrasound can be used.

Prognosis:
Reduced fetal movements can represent fetal distress, but in 70% of pregnancies with a single episode of reduced fetal movement, there is no onward complication. However, between 40-55% of women who suffer from stillbirth experience reduced fetal movements prior to diagnosis. Recurrent RFM requires further investigations to consider structural or genetic fetal abnormalities.

The patient’s symptoms suggest a gynecological issue, possibly ovarian hyperstimulation syndrome, which can occur as a side-effect of ovulation induction. The presence of ascites, low blood pressure, and tachycardia indicate fluid loss into the abdomen, but the absence of peritonitis suggests it is not a catastrophic hemorrhage. The recent hCG injection increases the likelihood of ovarian hyperstimulation syndrome, which is more common with IVF and injectable treatments than with oral fertility agents like clomiphene. Ovarian cyst rupture, ovarian torsion, red degeneration, and ruptured ectopic pregnancy are unlikely explanations for the patient’s symptoms.

Ovulation induction is often required for couples who have difficulty conceiving naturally due to ovulation disorders. Normal ovulation requires a balance of hormones and feedback loops between the hypothalamus, pituitary gland, and ovaries. There are three main categories of anovulation: hypogonadotropic hypogonadal anovulation, normogonadotropic normoestrogenic anovulation, and hypergonadotropic hypoestrogenic anovulation. The goal of ovulation induction is to induce mono-follicular development and subsequent ovulation to lead to a singleton pregnancy. Forms of ovulation induction include exercise and weight loss, letrozole, clomiphene citrate, and gonadotropin therapy. Ovarian hyperstimulation syndrome is a potential side effect of ovulation induction and can be life-threatening if not managed promptly.

Measuring Uterine Growth During Pregnancy

During pregnancy, the size of the uterus can be used to estimate the gestational age of the fetus. At around 20 weeks, the uterus reaches the level of the umbilicus. This can be measured using the symphysio-fundal height (SFH), which is usually equal to the number of weeks of gestation (± 2 cm). To measure the SFH, the fundus of the uterus is first palpated and the tape measure is placed at this point. The tape measure is then rolled over the longitudinal axis of the uterus until it reaches the pubic symphysis, and the length in centimeters is recorded.

At 16 weeks, the uterus would not be palpable at the level of the umbilicus. The fundus of the uterus can be palpated at the midpoint between the umbilicus and the pubic symphysis. Similarly, at 18 weeks, the uterus would not be palpable at the level of the umbilicus.

By 22 weeks, the uterus would be past the level of the umbilicus. And by 24 weeks, the uterus would be higher in the abdomen than the umbilicus. Regular measurement of the SFH can help monitor fetal growth and ensure that the pregnancy is progressing normally.

If an ectopic pregnancy is larger than 35mm or has a serum B-hCG level exceeding 5,000 IU/L, surgical intervention is necessary. The patient in this scenario is experiencing symptoms such as pain and dizziness, and her tachycardia indicates a risk of instability. While she is currently stable, surgical management should be performed promptly. A laparotomy is not immediately necessary, but the procedure should be carried out as soon as possible. Waiting for a blood hCG is unnecessary, and medical management is not appropriate.

Ectopic pregnancy is a serious condition that requires prompt investigation and management. Women who are stable are typically investigated and managed in an early pregnancy assessment unit, while those who are unstable should be referred to the emergency department. The investigation of choice for ectopic pregnancy is a transvaginal ultrasound, which will confirm the presence of a positive pregnancy test.

There are three ways to manage ectopic pregnancies: expectant management, medical management, and surgical management. The choice of management will depend on various criteria, such as the size of the ectopic pregnancy, whether it is ruptured or not, and the patient’s symptoms and hCG levels. Expectant management involves closely monitoring the patient over 48 hours, while medical management involves giving the patient methotrexate and requires follow-up. Surgical management can involve salpingectomy or salpingostomy, depending on the patient’s risk factors for infertility.

Salpingectomy is the first-line treatment for women without other risk factors for infertility, while salpingostomy should be considered for women with contralateral tube damage. However, around 1 in 5 women who undergo a salpingostomy require further treatment, such as methotrexate and/or a salpingectomy. It is important to carefully consider the patient’s individual circumstances and make a decision that will provide the best possible outcome.

According to the guidelines of the Royal College, women who experience a fever of over 38 degrees Celsius during labor should be administered benzylpenicillin as a prophylactic measure against GBS.

Group B Streptococcus (GBS) is a common cause of severe infection in newborns. It is estimated that 20-40% of mothers carry GBS in their bowel flora, which can be passed on to their infants during labor and lead to serious infections. Prematurity, prolonged rupture of membranes, previous sibling GBS infection, and maternal pyrexia are all risk factors for GBS infection. The Royal College of Obstetricians and Gynaecologists (RCOG) has published guidelines on GBS management, which include not offering universal screening for GBS to all women and not offering screening based on maternal request. Women who have had GBS detected in a previous pregnancy should be offered intrapartum antibiotic prophylaxis (IAP) or testing in late pregnancy and antibiotics if still positive. IAP should also be offered to women with a previous baby with GBS disease, women in preterm labor, and women with a fever during labor. Benzylpenicillin is the preferred antibiotic for GBS prophylaxis.

There are several factors that can increase the risk of miscarriage, including age, previous miscarriages, chronic conditions, uterine or cervical problems (such as large cervical cone biopsies or Mullerian duct anomalies), smoking, alcohol and illicit drug use, and weight. Invasive prenatal tests like chorionic villus sampling and amniocentesis also carry a slight risk of miscarriage. It’s important to note that other options are not considered risk factors for 2nd-trimester miscarriage.

Miscarriage: Understanding the Epidemiology

Miscarriage, also known as abortion, refers to the expulsion of the products of conception before 24 weeks. To avoid any confusion, the term miscarriage is often used. According to epidemiological studies, approximately 15-20% of diagnosed pregnancies will end in miscarriage during early pregnancy. In fact, up to 50% of conceptions may not develop into a blastocyst within 14 days.

Recurrent spontaneous miscarriage, which is defined as the loss of three or more consecutive pregnancies, affects approximately 1% of women. Understanding the epidemiology of miscarriage is important for healthcare providers and patients alike. It can help to identify risk factors and provide appropriate counseling and support for those who have experienced a miscarriage. By raising awareness and promoting education, we can work towards reducing the incidence of miscarriage and improving the overall health and well-being of women and their families.

A raised level of maternal serum AFP is linked to fetal abdominal wall defects such as omphalocele. Conversely, low levels of maternal AFP are associated with Down’s syndrome, maternal diabetes mellitus, Edwards syndrome, and maternal obesity.

Alpha-fetoprotein (AFP) is a protein that is created by the fetus during development. When there is an increase in AFP levels, it may indicate the presence of certain conditions such as neural tube defects (meningocele, myelomeningocele and anencephaly), abdominal wall defects (omphalocele and gastroschisis), multiple pregnancy, Down’s syndrome, trisomy 18, and maternal diabetes mellitus. On the other hand, a decrease in AFP levels may also be significant and should be further investigated.

To screen for postnatal depression, healthcare professionals can use the Edinburgh Scale questionnaire. Patients displaying symptoms of depression after giving birth should be assessed using either the Edinburgh Scale or the PHQ-9 form, according to NICE guidelines. The severity of anxiety can be measured using the GAD 7 questionnaire. The Bishop score is a scoring system used to determine if induction of labor is necessary.

Understanding Postpartum Mental Health Problems

Postpartum mental health problems can range from mild ‘baby-blues’ to severe puerperal psychosis. To screen for depression, healthcare professionals may use the Edinburgh Postnatal Depression Scale, which is a 10-item questionnaire that indicates how the mother has felt over the previous week. A score of more than 13 indicates a ‘depressive illness of varying severity’, with sensitivity and specificity of more than 90%. The questionnaire also includes a question about self-harm.

‘Baby-blues’ is seen in around 60-70% of women and typically occurs 3-7 days following birth. It is more common in primips, and mothers are characteristically anxious, tearful, and irritable. Reassurance and support from healthcare professionals, particularly health visitors, play a key role in managing this condition. Most women with the baby blues will not require specific treatment other than reassurance.

Postnatal depression affects around 10% of women, with most cases starting within a month and typically peaking at 3 months. The features are similar to depression seen in other circumstances, and cognitive behavioural therapy may be beneficial. Certain SSRIs such as sertraline and paroxetine may be used if symptoms are severe. Although these medications are secreted in breast milk, they are not thought to be harmful to the infant.

Puerperal psychosis affects approximately 0.2% of women and requires admission to hospital, ideally in a Mother & Baby Unit. Onset usually occurs within the first 2-3 weeks following birth, and features include severe swings in mood (similar to bipolar disorder) and disordered perception (e.g. auditory hallucinations). There is around a 25-50% risk of recurrence following future pregnancies. Paroxetine is recommended by SIGN because of the low milk/plasma ratio, while fluoxetine is best avoided due to a long half-life.

When late decelerations are observed on a CTG, it is considered a pathological finding and requires immediate fetal blood sampling to check for fetal hypoxia and acidosis. A pH level of over 7.2 during labor is considered normal, but if fetal acidosis is detected, urgent delivery should be considered. Despite the reassuring normal fetal heart rate and variability, the presence of late decelerations is a worrisome sign that requires prompt investigation and management.

Cardiotocography (CTG) is a medical procedure that measures pressure changes in the uterus using either internal or external pressure transducers. It is used to monitor the fetal heart rate, which normally ranges between 100-160 beats per minute. There are several features that can be observed during a CTG, including baseline bradycardia (heart rate below 100 beats per minute), which can be caused by increased fetal vagal tone or maternal beta-blocker use. Baseline tachycardia (heart rate above 160 beats per minute) can be caused by maternal pyrexia, chorioamnionitis, hypoxia, or prematurity. Loss of baseline variability (less than 5 beats per minute) can be caused by prematurity or hypoxia. Early deceleration, which is a decrease in heart rate that starts with the onset of a contraction and returns to normal after the contraction, is usually harmless and indicates head compression. Late deceleration, on the other hand, is a decrease in heart rate that lags behind the onset of a contraction and does not return to normal until after 30 seconds following the end of the contraction. This can indicate fetal distress, such as asphyxia or placental insufficiency. Variable decelerations, which are independent of contractions, may indicate cord compression.

The MMR vaccine, which contains live attenuated virus, should not be given to women who are pregnant or trying to conceive. It is recommended that women avoid getting pregnant for at least 28 days after receiving the vaccine. If a pregnant woman is not immune to MMR, she should avoid contact with individuals who have the disease. In the event that a woman receives the MMR vaccine unintentionally during the periconception period or early pregnancy, termination of pregnancy is not necessary. This information is based on the guidelines provided by the American College of Obstetricians and Gynecologists.

Rubella and Pregnancy: Risks, Features, Diagnosis, and Management

Rubella, also known as German measles, is a viral infection caused by the togavirus. Thanks to the introduction of the MMR vaccine, it is now rare. However, if contracted during pregnancy, there is a risk of congenital rubella syndrome, which can cause serious harm to the fetus. It is important to note that the incubation period is 14-21 days, and individuals are infectious from 7 days before symptoms appear to 4 days after the onset of the rash.

The risk of damage to the fetus is highest in the first 8-10 weeks of pregnancy, with a risk as high as 90%. However, damage is rare after 16 weeks. Features of congenital rubella syndrome include sensorineural deafness, congenital cataracts, congenital heart disease (e.g. patent ductus arteriosus), growth retardation, hepatosplenomegaly, purpuric skin lesions, ‘salt and pepper’ chorioretinitis, microphthalmia, and cerebral palsy.

If a suspected case of rubella in pregnancy arises, it should be discussed immediately with the local Health Protection Unit (HPU) as type/timing of investigations may vary. IgM antibodies are raised in women recently exposed to the virus. It should be noted that it is very difficult to distinguish rubella from parvovirus B19 clinically. Therefore, it is important to also check parvovirus B19 serology as there is a 30% risk of transplacental infection, with a 5-10% risk of fetal loss.

If a woman is tested at any point and no immunity is demonstrated, they should be advised to keep away from people who might have rubella. Non-immune mothers should be offered the MMR vaccination in the post-natal period. However, MMR vaccines should not be administered to women known to be pregnant or attempting to become pregnant.

Guidelines for HIV-positive mothers and breastfeeding

Breastfeeding is not recommended for HIV-positive mothers as it increases the risk of transmission to the child. Instead, the baby should receive a first dose of antiretroviral therapy within four hours of delivery and continue treatment for 4-6 weeks. Blood tests are taken at set intervals to check the baby’s status. Hepatitis B vaccination should be offered at birth only if there is co-infection with hepatitis B virus in the mother.

However, if the mother’s viral load is less than 50 copies/ml, breastfeeding may be considered in low-resource settings where the nutritive benefits outweigh the risk of transmission. In high-resource settings, breastfeeding is not advised. The baby will still need to undergo several blood tests to establish their HIV status, with the last one taking place at 18 months of life.

The patient’s immunity to varicella-zoster needs to be determined urgently by testing for varicella-zoster IgG antibodies in the blood, as she has had some exposure to chickenpox and is unsure of her immunity status. If antibodies are detected, she is considered immune and no further action is required, but she should seek medical care immediately if she develops a rash. Varicella-zoster immunoglobulin should only be administered to non-immune patients within 10 days of exposure. It is important to note that if the patient contracts chickenpox during pregnancy, there is a risk of fetal varicella syndrome if infected before 28 weeks’ gestation. Immunisation during pregnancy is not recommended, but the patient can receive the vaccine postpartum if found to be non-immune. It is safe to receive the vaccine while breastfeeding.

The individual is displaying indications of postpartum thyroiditis, an autoimmune disorder that arises as the body returns to regular immunity from the immunosuppressed state during pregnancy. This condition can manifest for up to a year after childbirth, but it typically occurs 3-4 months post-delivery. Beta blockers, not antithyroid medications, should be used to treat the hyperthyroid phase.

Understanding Postpartum Thyroiditis: Stages and Management

Postpartum thyroiditis is a condition that affects some women after giving birth. It is characterized by three stages: thyrotoxicosis, hypothyroidism, and normal thyroid function. During the thyrotoxicosis phase, the thyroid gland becomes overactive, leading to symptoms such as anxiety, palpitations, and weight loss. In the hypothyroidism phase, the thyroid gland becomes underactive, causing symptoms such as fatigue, weight gain, and depression. However, in the final stage, the thyroid gland returns to normal function, although there is a high recurrence rate in future pregnancies.

Thyroid peroxidase antibodies are found in 90% of patients with postpartum thyroiditis, which suggests an autoimmune component to the condition. Management of postpartum thyroiditis depends on the stage of the condition. During the thyrotoxic phase, symptom control is the main focus, and propranolol is typically used. Antithyroid drugs are not usually used as the thyroid gland is not overactive. In the hypothyroid phase, treatment with thyroxine is usually necessary to restore normal thyroid function.

It is important to note that many causes of hypothyroidism may have an initial thyrotoxic phase, as shown in a Venn diagram. Therefore, it is crucial to properly diagnose and manage postpartum thyroiditis to ensure the best possible outcomes for both the mother and the baby.

Obstetric cholestasis, which is indicated by the symptoms and blood results in a pregnant woman in the third trimester, increases the risk of stillbirth. Therefore, it is generally recommended to induce labour at 37-38 weeks gestation to minimize this risk. However, induction of labour should only be considered if there are significantly abnormal liver function tests or bile acid levels. It is not recommended before 37 weeks gestation. Women should be informed that the need for intervention may be stronger in those with more severe biochemical abnormalities.

Intrahepatic Cholestasis of Pregnancy: Symptoms and Management

Intrahepatic cholestasis of pregnancy, also known as obstetric cholestasis, is a condition that affects approximately 1% of pregnancies in the UK. It is characterized by intense itching, particularly on the palms, soles, and abdomen, and may also result in clinically detectable jaundice in around 20% of patients. Raised bilirubin levels are seen in over 90% of cases.

The management of intrahepatic cholestasis of pregnancy typically involves induction of labor at 37-38 weeks, although this practice may not be evidence-based. Ursodeoxycholic acid is also widely used, although the evidence base for its effectiveness is not clear. Additionally, vitamin K supplementation may be recommended.

It is important to note that the recurrence rate of intrahepatic cholestasis of pregnancy in subsequent pregnancies is high, ranging from 45-90%. Therefore, close monitoring and management are necessary for women who have experienced this condition in the past.

Epidural anaesthesia is contraindicated in labour only if the patient has coagulopathy. Other than that, epidural anaesthesia is a highly effective method for pain management during labour. In fact, it is one of the regional anaesthetic techniques available, with non-regional techniques being more commonly used. Non-regional techniques include inhaled nitrous oxide and systemic analgesics like pethidine. However, epidural anaesthesia has been associated with longer labour and increased operative vaginal delivery. There is no evidence to suggest that epidural analgesia increases the risk of Caesarean delivery or post-partum backache. For more information, refer to the Epidural Analgesia in Labour guideline.

Understanding Labour and its Stages

Labour is the process of giving birth, which is characterized by the onset of regular and painful contractions that are associated with cervical dilation and descent of the presenting part. Signs of labour include regular and painful uterine contractions, a show (shedding of mucous plug), rupture of the membranes (not always), and shortening and dilation of the cervix.

Labour can be divided into three stages. The first stage starts from the onset of true labour to when the cervix is fully dilated. The second stage is from full dilation to delivery of the fetus, while the third stage is from delivery of the fetus to when the placenta and membranes have been completely delivered.

Monitoring is an essential aspect of labour. Fetal heart rate (FHR) should be monitored every 15 minutes (or continuously via CTG), contractions should be assessed every 30 minutes, maternal pulse rate should be assessed every 60 minutes, and maternal blood pressure and temperature should be checked every 4 hours. Vaginal examination (VE) should be offered every 4 hours to check the progression of labour, and maternal urine should be checked for ketones and protein every 4 hours.

In summary, understanding the stages of labour and the importance of monitoring can help ensure a safe and successful delivery.

To prevent neural tube defects, it is recommended that women who are at risk start taking folic acid before conception. The standard dose of 0.4mg should be taken daily until 13 weeks of pregnancy. It is important to start taking folic acid before conception because the neural tube is formed within the first 28 days of embryo development. If a woman waits until after her missed period, any defects may already be present. Women who are at an increased risk of neural tube defects, such as those who have had a previous child with NTD, diabetes mellitus, are on antiepileptic medication, are obese (with a body mass index over 30 kg/m²), are HIV positive and taking co-trimoxazole, or have sickle cell disease, should take an increased dose of 5mg folic acid.

Folic Acid: Importance, Deficiency, and Prevention

Folic acid is a vital nutrient that is converted to tetrahydrofolate (THF) in the body. It is found in green, leafy vegetables and plays a crucial role in the transfer of 1-carbon units to essential substrates involved in the synthesis of DNA and RNA. However, certain factors such as phenytoin, methotrexate, pregnancy, and alcohol excess can cause a deficiency in folic acid. This deficiency can lead to macrocytic, megaloblastic anemia and neural tube defects.

To prevent neural tube defects during pregnancy, it is recommended that all women take 400mcg of folic acid until the 12th week of pregnancy. Women at higher risk of conceiving a child with a neural tube defect should take 5mg of folic acid from before conception until the 12th week of pregnancy. Women are considered higher risk if they or their partner has a neural tube defect, they have had a previous pregnancy affected by a neural tube defect, or they have a family history of a neural tube defect. Additionally, women with certain medical conditions such as coeliac disease, diabetes, or thalassaemia trait, or those taking antiepileptic drugs, or who are obese (BMI of 30 kg/m2 or more) are also considered higher risk.

In summary, folic acid is an essential nutrient that plays a crucial role in DNA and RNA synthesis. Deficiency in folic acid can lead to serious health consequences, including neural tube defects. However, taking folic acid supplements during pregnancy can prevent these defects and ensure a healthy pregnancy.

In the case of umbilical cord prolapse, the priority is to limit compression on the cord and reduce the chance of cord vasospasm. This can be achieved by pushing any presenting part of the baby back into the uterus, putting the mother on all fours, and retrofilling the bladder with saline. In addition, warm damp towels can be placed over the cord to limit handling. It is important to note that this is a complex emergency that requires immediate attention, as it can lead to foetal bradycardia and limit the oxygen supply to the baby. In this scenario, a category 1 Caesarean section would be necessary, as the pathological CTG demands it. Delivering the baby as breech immediately is not recommended, as it is a high-risk strategy that can lead to morbidity and mortality. IM corticosteroids are indicated for premature rupture of membranes, but the immediate priority is to deal with the emergency. McRobert’s manoeuvre is not appropriate in this case, as it is used to correct shoulder dystocia, which is not the issue at hand.

Understanding Umbilical Cord Prolapse

Umbilical cord prolapse is a rare but serious complication that can occur during delivery. It happens when the umbilical cord descends ahead of the presenting part of the fetus, which can lead to compression or spasm of the cord. This can cause fetal hypoxia and potentially irreversible damage or death. Certain factors increase the risk of cord prolapse, such as prematurity, multiparity, polyhydramnios, twin pregnancy, cephalopelvic disproportion, and abnormal presentations like breech or transverse lie.

Around half of all cord prolapses occur when the membranes are artificially ruptured. Diagnosis is usually made when the fetal heart rate becomes abnormal and the cord is palpable vaginally or visible beyond the introitus. Cord prolapse is an obstetric emergency that requires immediate management. The presenting part of the fetus may be pushed back into the uterus to avoid compression, and the cord should be kept warm and moist to prevent vasospasm. The patient may be asked to go on all fours or assume the left lateral position until preparations for an immediate caesarian section have been carried out. Tocolytics may be used to reduce uterine contractions, and retrofilling the bladder with saline can help elevate the presenting part. Although caesarian section is the usual first-line method of delivery, an instrumental vaginal delivery may be possible if the cervix is fully dilated and the head is low.

In conclusion, umbilical cord prolapse is a rare but serious complication that requires prompt recognition and management. Understanding the risk factors and appropriate interventions can help reduce the incidence of fetal mortality associated with this condition.

Hyperemesis gravidarum is a pregnancy complication that can lead to severe dehydration, metabolic imbalances, and deficiencies in essential vitamins and minerals. If left untreated, it can also cause Wernicke’s encephalopathy, as evidenced by the patient’s diplopia and ataxia. To address this, it is recommended to supplement with thiamine (Vitamin B1) and a complex of vitamins B and C, such as Pabrinex.

Hyperemesis gravidarum is an extreme form of nausea and vomiting of pregnancy that occurs in around 1% of pregnancies and is most common between 8 and 12 weeks. It is associated with raised beta hCG levels and can be caused by multiple pregnancies, trophoblastic disease, hyperthyroidism, nulliparity, and obesity. Referral criteria for nausea and vomiting in pregnancy include continued symptoms with ketonuria and/or weight loss, a confirmed or suspected comorbidity, and inability to keep down liquids or oral antiemetics. The diagnosis of hyperemesis gravidarum requires the presence of 5% pre-pregnancy weight loss, dehydration, and electrolyte imbalance. Management includes first-line use of antihistamines and oral cyclizine or promethazine, with second-line options of ondansetron and metoclopramide. Admission may be needed for IV hydration. Complications can include Wernicke’s encephalopathy, Mallory-Weiss tear, central pontine myelinolysis, acute tubular necrosis, and fetal growth issues.

The sudden collapse that occurred shortly after the rupture of membranes suggests the possibility of amniotic fluid embolism. The patient’s condition is too severe to be attributed to a simple vasovagal event. While amniotic fluid emboli can indirectly cause myocardial infarctions, it is difficult to diagnose a primary myocardial infarction without any mention of preceding chest pain. Typically, occult bleeding and hypovolemic shock would develop gradually. Although postural orthostatic tachycardia syndrome is more prevalent in women of reproductive age, it would not cause the significant hypotension observed in this case.

Amniotic fluid embolism is a rare but serious complication of pregnancy that can result in a high mortality rate. It occurs when fetal cells or amniotic fluid enter the mother’s bloodstream, triggering a reaction that leads to various signs and symptoms. While several risk factors have been associated with this condition, such as maternal age and induction of labor, the exact cause remains unclear. It is believed that exposure of maternal circulation to fetal cells or amniotic fluid is necessary for the development of an amniotic fluid embolism, but the underlying pathology is not well understood.

The majority of cases of amniotic fluid embolism occur during labor, but they can also occur during a cesarean section or in the immediate postpartum period. Symptoms of this condition include chills, shivering, sweating, anxiety, and coughing, while signs may include cyanosis, hypotension, bronchospasms, tachycardia, arrhythmia, and myocardial infarction. Diagnosis is primarily clinical and based on exclusion, as there are no definitive diagnostic tests available.

Management of amniotic fluid embolism requires a multidisciplinary team and critical care unit. Treatment is mainly supportive, focusing on addressing the patient’s symptoms and stabilizing their condition. Given the high mortality rate associated with this condition, prompt recognition and management are crucial for improving outcomes.

Risks Associated with Prematurity

Prematurity is a condition that poses several risks to the health of newborns. The risk of mortality increases with decreasing gestational age. Premature babies are at risk of developing respiratory distress syndrome, intraventricular haemorrhage, necrotizing enterocolitis, chronic lung disease, hypothermia, feeding problems, infection, jaundice, and retinopathy of prematurity. Retinopathy of prematurity is a significant cause of visual impairment in babies born before 32 weeks of gestation. The cause of this condition is not fully understood, but it is believed that over oxygenation during ventilation can lead to the proliferation of retinal blood vessels, resulting in neovascularization. Screening for retinopathy of prematurity is done in at-risk groups. Premature babies are also at risk of hearing problems.

The most probable diagnosis in this case is HELLP syndrome, which is a severe form of pre-eclampsia characterized by haemolysis, elevated liver enzymes, and low platelets. While hypertension, vomiting, and abdominal pain can support the diagnosis, they are not mandatory. The abdominal pain may indicate liver inflammation and stretching of the liver capsule.

Intense pruritus is the primary symptom of obstetric cholestasis, and a rise in serum bile acids is the most sensitive marker. Acute fatty liver is another severe condition associated with pre-eclampsia, which causes higher elevations in liver enzymes and deep jaundice. Hyperuricaemia can be a useful marker of pre-eclampsia and does not necessarily indicate gout. Urate levels increase due to reduced kidney function and clearance. Hyperemesis gravidarum is unlikely to present for the first time this late in pregnancy and should be a diagnosis of exclusion.

Pre-eclampsia is a condition that occurs during pregnancy and is characterized by high blood pressure, proteinuria, and edema. It can lead to complications such as eclampsia, neurological issues, fetal growth problems, liver involvement, and cardiac failure. Severe pre-eclampsia is marked by hypertension, proteinuria, headache, visual disturbances, and other symptoms. Risk factors for pre-eclampsia include hypertension in a previous pregnancy, chronic kidney disease, autoimmune disease, diabetes, chronic hypertension, first pregnancy, and age over 40. Aspirin may be recommended for women with high or moderate risk factors. Treatment involves emergency assessment, admission for observation, and medication such as labetalol, nifedipine, or hydralazine. Delivery of the baby is the most important step in management, with timing depending on the individual case.

If a pregnant woman who is at least 20 weeks pregnant develops chickenpox, she should receive oral acyclovir treatment if she presents within 24 hours of the rash. Melissa, who is 33 weeks pregnant and has experienced prodromal symptoms, can be treated with oral acyclovir as she presented within the appropriate time frame. IV acyclovir is not typically necessary for pregnant women who have been in contact with chickenpox. To alleviate itchiness, it is reasonable to suggest using calamine lotion and antihistamines, but since Melissa is currently pregnant, she should also begin taking antiviral medications. Pain is not a significant symptom of chickenpox, and Melissa has not reported any pain, so recommending paracetamol is not the most effective course of action.

Chickenpox exposure in pregnancy can pose risks to both the mother and fetus, including fetal varicella syndrome. Post-exposure prophylaxis (PEP) with varicella-zoster immunoglobulin (VZIG) or antivirals should be given to non-immune pregnant women, with timing dependent on gestational age. If a pregnant woman develops chickenpox, specialist advice should be sought and oral acyclovir may be given if she is ≥ 20 weeks and presents within 24 hours of onset of the rash.

The progesterone-only pill can be taken by postpartum women (both breastfeeding and non-breastfeeding) at any time after delivery. It is categorized as UKMEC 1, meaning there are no restrictions on its use. Women can start taking it immediately if they choose to do so, and there is no need to wait for three weeks before starting. The combined oral contraceptive pill (COCP) can be taken as UKMEC 2 after three weeks in non-breastfeeding women, and after six weeks in breastfeeding women or as UKMEC 1 in non-breastfeeding women. In breastfeeding women, the COCP can be taken as UKMEC 1 after six months. The progesterone-only pill is safe for breastfeeding women as it has minimal transfer into breast milk, and there is no harm to the baby.

After giving birth, women need to use contraception after 21 days. The progesterone-only pill (POP) can be started at any time postpartum, according to the FSRH. Additional contraception should be used for the first two days after day 21. A small amount of progesterone enters breast milk, but it is not harmful to the infant. On the other hand, the combined oral contraceptive pill (COCP) is absolutely contraindicated (UKMEC 4) if breastfeeding is less than six weeks post-partum. If breastfeeding is between six weeks and six months postpartum, it is a UKMEC 2. The COCP may reduce breast milk production in lactating mothers. It should not be used in the first 21 days due to the increased venous thromboembolism risk post-partum. After day 21, additional contraception should be used for the first seven days. The intrauterine device or intrauterine system can be inserted within 48 hours of childbirth or after four weeks.

The lactational amenorrhoea method (LAM) is 98% effective if the woman is fully breastfeeding (no supplementary feeds), amenorrhoeic, and less than six months post-partum. It is important to note that an inter-pregnancy interval of less than 12 months between childbirth and conceiving again is associated with an increased risk of preterm birth, low birth weight, and small for gestational age babies.

Placental abruption is more likely to occur in older mothers, those who have had multiple pregnancies, and those who have experienced maternal trauma. Pre-eclampsia, characterized by protein in the urine and high blood pressure, is also a risk factor.

Placental Abruption: Causes, Symptoms, and Risk Factors

Placental abruption is a condition that occurs when the placenta separates from the uterine wall, leading to maternal bleeding into the space between them. Although the exact cause of this condition is unknown, certain factors have been associated with it, including proteinuric hypertension, cocaine use, multiparity, maternal trauma, and increasing maternal age. Placental abruption is not a common occurrence, affecting approximately 1 in 200 pregnancies.

The clinical features of placental abruption include shock that is disproportionate to the visible blood loss, constant pain, a tender and tense uterus, and a normal lie and presentation of the fetus. The fetal heart may be absent or distressed, and there may be coagulation problems. It is important to be aware of other conditions that may present with similar symptoms, such as pre-eclampsia, disseminated intravascular coagulation (DIC), and anuria.

In summary, placental abruption is a serious condition that can have significant consequences for both the mother and the fetus. Understanding the risk factors and symptoms of this condition is important for early detection and appropriate management.

The patient can still take metformin but should discontinue gliclazide. When managing type 2 diabetes during pregnancy, metformin can be used alone or with insulin for women with pre-existing diabetes. Although the patient may need to switch to insulin, it is not always necessary. However, both liraglutide and gliclazide are not safe to use during pregnancy.

Gestational diabetes is a common medical disorder affecting around 4% of pregnancies. Risk factors include a high BMI, previous gestational diabetes, and family history of diabetes. Screening is done through an oral glucose tolerance test, and diagnostic thresholds have recently been updated. Management includes self-monitoring of blood glucose, diet and exercise advice, and medication if necessary. For pre-existing diabetes, weight loss and insulin are recommended, and tight glycemic control is important. Targets for self-monitoring include fasting glucose of 5.3 mmol/l and 1-2 hour post-meal glucose levels.

Understanding Hypertension in Pregnancy

Hypertension in pregnancy can be a serious condition that requires urgent assessment and management. Pre-eclampsia, characterized by both hypertension and proteinuria, is a common diagnosis. Early detection and management can prevent complications.

Normal blood pressure during pregnancy typically drops slightly in the first and second trimesters and rises back to pre-pregnancy levels in the third trimester. However, some patients may have chronic hypertension that was previously undiagnosed.

White-coat hypertension, where blood pressure is elevated in a clinical setting but normal at home, should be ruled out before a diagnosis of pregnancy-induced hypertension is made. This type of hypertension occurs after week 20 of pregnancy but without proteinuria. Regular screening for proteinuria is necessary in these cases.

In cases of mild to moderate hypertension, patients may be admitted to the hospital and monitored or started on oral labetalol. Severe hypertension requires immediate hospitalization and treatment. Overall, understanding hypertension in pregnancy is crucial for the health and well-being of both the mother and baby.

The primary treatment for nausea and vomiting during pregnancy, including hyperemesis gravidarum, is antihistamines.

Hyperemesis gravidarum is an extreme form of nausea and vomiting of pregnancy that occurs in around 1% of pregnancies and is most common between 8 and 12 weeks. It is associated with raised beta hCG levels and can be caused by multiple pregnancies, trophoblastic disease, hyperthyroidism, nulliparity, and obesity. Referral criteria for nausea and vomiting in pregnancy include continued symptoms with ketonuria and/or weight loss, a confirmed or suspected comorbidity, and inability to keep down liquids or oral antiemetics. The diagnosis of hyperemesis gravidarum requires the presence of 5% pre-pregnancy weight loss, dehydration, and electrolyte imbalance. Management includes first-line use of antihistamines and oral cyclizine or promethazine, with second-line options of ondansetron and metoclopramide. Admission may be needed for IV hydration. Complications can include Wernicke’s encephalopathy, Mallory-Weiss tear, central pontine myelinolysis, acute tubular necrosis, and fetal growth issues.

The cardiotocogram shows late decelerations and foetal bradycardia, indicating the need for immediate delivery. Instrumental delivery is not possible and oxytocin and vaginal prostaglandin are contraindicated. The safest approach is an emergency caesarian section.

Cardiotocography (CTG) is a medical procedure that measures pressure changes in the uterus using either internal or external pressure transducers. It is used to monitor the fetal heart rate, which normally ranges between 100-160 beats per minute. There are several features that can be observed during a CTG, including baseline bradycardia (heart rate below 100 beats per minute), which can be caused by increased fetal vagal tone or maternal beta-blocker use. Baseline tachycardia (heart rate above 160 beats per minute) can be caused by maternal pyrexia, chorioamnionitis, hypoxia, or prematurity. Loss of baseline variability (less than 5 beats per minute) can be caused by prematurity or hypoxia. Early deceleration, which is a decrease in heart rate that starts with the onset of a contraction and returns to normal after the contraction, is usually harmless and indicates head compression. Late deceleration, on the other hand, is a decrease in heart rate that lags behind the onset of a contraction and does not return to normal until after 30 seconds following the end of the contraction. This can indicate fetal distress, such as asphyxia or placental insufficiency. Variable decelerations, which are independent of contractions, may indicate cord compression.

VBAC is not recommended for patients who have had previous vertical (classical) caesarean scars, experienced uterine rupture in the past, or have other contraindications to vaginal birth such as placenta praevia. However, women who have had two or more previous caesarean sections may still be considered for VBAC. The remaining options in this question do not necessarily rule out VBAC.

Caesarean Section: Types, Indications, and Risks

Caesarean section, also known as C-section, is a surgical procedure that involves delivering a baby through an incision in the mother’s abdomen and uterus. In recent years, the rate of C-section has increased significantly due to an increased fear of litigation. There are two main types of C-section: lower segment C-section, which comprises 99% of cases, and classic C-section, which involves a longitudinal incision in the upper segment of the uterus.

C-section may be indicated for various reasons, including absolute cephalopelvic disproportion, placenta praevia grades 3/4, pre-eclampsia, post-maturity, IUGR, fetal distress in labor/prolapsed cord, failure of labor to progress, malpresentations, placental abruption, vaginal infection, and cervical cancer. The urgency of C-section may be categorized into four categories, with Category 1 being the most urgent and Category 4 being elective.

It is important for clinicians to inform women of the serious and frequent risks associated with C-section, including emergency hysterectomy, need for further surgery, admission to intensive care unit, thromboembolic disease, bladder injury, ureteric injury, and death. C-section may also increase the risk of uterine rupture, antepartum stillbirth, placenta praevia, and placenta accreta in subsequent pregnancies. Other complications may include persistent wound and abdominal discomfort, increased risk of repeat C-section, readmission to hospital, haemorrhage, infection, and fetal lacerations.

Vaginal birth after C-section (VBAC) may be an appropriate method of delivery for pregnant women with a single previous C-section delivery, except for those with previous uterine rupture or classical C-section scar. The success rate of VBAC is around 70-75%.

The UK Medical Eligibility Criteria for Contraceptive Use states that women who are breastfeeding and less than 6 weeks postpartum should not use the combined oral contraceptive pill as it can reduce breast milk volume. However, from 6 weeks to 6 months postpartum, it is classified as UKMEC 2 and can be used. It is important to note that exclusive breastfeeding can act as an effective contraceptive method. The Mirena intrauterine system and copper IUD can be used from 4 weeks postpartum, while the progesterone-only pill can be started on or after day 21 postpartum. The progesterone-only implant can be inserted at any time, but contraception is not necessary before day 21 postpartum.

After giving birth, women need to use contraception after 21 days. The progesterone-only pill (POP) can be started at any time postpartum, according to the FSRH. Additional contraception should be used for the first two days after day 21. A small amount of progesterone enters breast milk, but it is not harmful to the infant. On the other hand, the combined oral contraceptive pill (COCP) is absolutely contraindicated (UKMEC 4) if breastfeeding is less than six weeks post-partum. If breastfeeding is between six weeks and six months postpartum, it is a UKMEC 2. The COCP may reduce breast milk production in lactating mothers. It should not be used in the first 21 days due to the increased venous thromboembolism risk post-partum. After day 21, additional contraception should be used for the first seven days. The intrauterine device or intrauterine system can be inserted within 48 hours of childbirth or after four weeks.

The lactational amenorrhoea method (LAM) is 98% effective if the woman is fully breastfeeding (no supplementary feeds), amenorrhoeic, and less than six months post-partum. It is important to note that an inter-pregnancy interval of less than 12 months between childbirth and conceiving again is associated with an increased risk of preterm birth, low birth weight, and small for gestational age babies.

The most probable reason for umbilical cord prolapse is artificial rupture of membranes. Factors such as cephalic presentation, nulliparity, and prolonged pregnancy decrease the chances of cord prolapse. Prostaglandins do not significantly affect the risk of cord prolapse.

Understanding Umbilical Cord Prolapse

Umbilical cord prolapse is a rare but serious complication that can occur during delivery. It happens when the umbilical cord descends ahead of the presenting part of the fetus, which can lead to compression or spasm of the cord. This can cause fetal hypoxia and potentially irreversible damage or death. Certain factors increase the risk of cord prolapse, such as prematurity, multiparity, polyhydramnios, twin pregnancy, cephalopelvic disproportion, and abnormal presentations like breech or transverse lie.

Around half of all cord prolapses occur when the membranes are artificially ruptured. Diagnosis is usually made when the fetal heart rate becomes abnormal and the cord is palpable vaginally or visible beyond the introitus. Cord prolapse is an obstetric emergency that requires immediate management. The presenting part of the fetus may be pushed back into the uterus to avoid compression, and the cord should be kept warm and moist to prevent vasospasm. The patient may be asked to go on all fours or assume the left lateral position until preparations for an immediate caesarian section have been carried out. Tocolytics may be used to reduce uterine contractions, and retrofilling the bladder with saline can help elevate the presenting part. Although caesarian section is the usual first-line method of delivery, an instrumental vaginal delivery may be possible if the cervix is fully dilated and the head is low.

In conclusion, umbilical cord prolapse is a rare but serious complication that requires prompt recognition and management. Understanding the risk factors and appropriate interventions can help reduce the incidence of fetal mortality associated with this condition.

Cardiotocography (CTG) is a medical procedure that measures pressure changes in the uterus using either internal or external pressure transducers. It is used to monitor the fetal heart rate, which normally ranges between 100-160 beats per minute. There are several features that can be observed during a CTG, including baseline bradycardia (heart rate below 100 beats per minute), which can be caused by increased fetal vagal tone or maternal beta-blocker use. Baseline tachycardia (heart rate above 160 beats per minute) can be caused by maternal pyrexia, chorioamnionitis, hypoxia, or prematurity. Loss of baseline variability (less than 5 beats per minute) can be caused by prematurity or hypoxia. Early deceleration, which is a decrease in heart rate that starts with the onset of a contraction and returns to normal after the contraction, is usually harmless and indicates head compression. Late deceleration, on the other hand, is a decrease in heart rate that lags behind the onset of a contraction and does not return to normal until after 30 seconds following the end of the contraction. This can indicate fetal distress, such as asphyxia or placental insufficiency. Variable decelerations, which are independent of contractions, may indicate cord compression.

Management of Breast Conditions: Understanding the Different Treatment Options

Breast conditions can present with a variety of symptoms, and it is important to understand the appropriate management for each. Here are some common breast conditions and their corresponding treatments:

1. Fungal infection of the nipples: This is characterized by bilateral symptoms and signs of nipple thrush. Treatment involves applying a topical miconazole 2% cream to the affected nipples after every feed for two weeks. The infant should also be treated with miconazole cream in the mouth.

2. Paget’s disease of the nipple: This is a form of in situ carcinoma that warrants urgent referral to the Breast team under the 2-week wait pathway. Symptoms include unilateral erythema, inflammation, burning pain, ulceration, and bleeding.

3. Breast cellulitis or mastitis: This is associated with the breast itself and is characterized by unilateral engorgement, erythematosus skin, and tenderness. Treatment involves oral flucloxacillin.

4. Eczema of the nipple: This affects both nipples and presents with a red, scaly rash that spares the base of the nipple. Treatment involves avoiding triggers and using regular emollients, with a topical steroid cream applied after feeds.

5. Bacterial infection of the nipples: This is treated with a topical antibacterial cream, such as topical fusidic acid.

Understanding the appropriate management for each breast condition is crucial in providing effective treatment and improving patient outcomes.

The primary concern in eclampsia is to manage seizures, which can be prevented and treated with magnesium sulphate as the first-line treatment. If magnesium sulphate is not available or ineffective, benzodiazepines like midazolam can be considered. Additionally, due to high blood pressure, antihypertensive drugs like Labetalol, Hydralazine, and Nifedipine are administered during pregnancy as they are effective and have low teratogenicity. Starting low dose aspirin before 16 weeks of gestation has been shown to significantly reduce the risk of pre-eclampsia.

Understanding Eclampsia and its Treatment

Eclampsia is a condition that occurs when seizures develop in association with pre-eclampsia, a pregnancy-induced hypertension that is characterized by proteinuria and occurs after 20 weeks of gestation. To prevent seizures in patients with severe pre-eclampsia and treat seizures once they develop, magnesium sulphate is commonly used. However, it is important to note that this medication should only be given once a decision to deliver has been made. In cases of eclampsia, an IV bolus of 4g over 5-10 minutes should be given, followed by an infusion of 1g/hour. During treatment, it is crucial to monitor urine output, reflexes, respiratory rate, and oxygen saturations. Respiratory depression can occur, and calcium gluconate is the first-line treatment for magnesium sulphate-induced respiratory depression. Treatment should continue for 24 hours after the last seizure or delivery, as around 40% of seizures occur post-partum. Additionally, fluid restriction is necessary to avoid the potentially serious consequences of fluid overload.

In summary, understanding the development of eclampsia and its treatment is crucial in managing this potentially life-threatening condition. Magnesium sulphate is the primary medication used to prevent and treat seizures, but it should only be given once a decision to deliver has been made. Monitoring vital signs and urine output is essential during treatment, and calcium gluconate should be readily available in case of respiratory depression. Finally, fluid restriction is necessary to avoid complications associated with fluid overload.

Women with a positive pregnancy test and abdominal, pelvic or cervical motion tenderness should be referred for immediate assessment to exclude ectopic pregnancy, which could be fatal. Referral should be made even if an ultrasound cannot be arranged immediately, as the patient may require monitoring in hospital before their scan. Serial hCG measurements should not be done in secondary care, and referral to a sexual health clinic alone is not appropriate.

Bleeding in the First Trimester: Understanding the Causes and Management

Bleeding in the first trimester of pregnancy is a common concern for many women. It can be caused by various factors, including miscarriage, ectopic pregnancy, implantation bleeding, cervical ectropion, vaginitis, trauma, and polyps. However, the most important cause to rule out is ectopic pregnancy, as it can be life-threatening if left untreated.

To manage early bleeding, the National Institute for Health and Care Excellence (NICE) released guidelines in 2019. If a woman has a positive pregnancy test and experiences pain, abdominal tenderness, pelvic tenderness, or cervical motion tenderness, she should be referred immediately to an early pregnancy assessment service. If the pregnancy is over six weeks gestation or of uncertain gestation and the woman has bleeding, she should also be referred to an early pregnancy assessment service.

A transvaginal ultrasound scan is the most important investigation to identify the location of the pregnancy and whether there is a fetal pole and heartbeat. If the pregnancy is less than six weeks gestation and the woman has bleeding but no pain or risk factors for ectopic pregnancy, she can be managed expectantly. However, she should be advised to return if bleeding continues or pain develops and to repeat a urine pregnancy test after 7-10 days and to return if it is positive. A negative pregnancy test means that the pregnancy has miscarried.

In summary, bleeding in the first trimester of pregnancy can be caused by various factors, but ectopic pregnancy is the most important cause to rule out. Early referral to an early pregnancy assessment service and a transvaginal ultrasound scan are crucial in identifying the location of the pregnancy and ensuring appropriate management. Women should also be advised to seek medical attention if they experience any worrying symptoms or if bleeding or pain persists.

Medical treatments that can be used for postpartum haemorrhage caused by uterine atony include oxytocin, ergometrine, carboprost, and misoprostol. However, only oxytocin/ergometrine is commonly used to promote smooth muscle contraction in uterine blood vessels, which can help reduce the risk of postpartum haemorrhage. Prostaglandin E2 is typically used to initiate labour, while indomethacin and salbutamol can be used as tocolytics. Mifepristone is commonly used in medical abortion.

Understanding Postpartum Haemorrhage

Postpartum haemorrhage (PPH) is a condition where a woman experiences blood loss of more than 500 ml after giving birth vaginally. It can be classified as primary or secondary. Primary PPH occurs within 24 hours after delivery and is caused by the 4 Ts: tone, trauma, tissue, and thrombin. The most common cause is uterine atony. Risk factors for primary PPH include previous PPH, prolonged labour, pre-eclampsia, increased maternal age, emergency Caesarean section, and placenta praevia.

In managing PPH, it is important to involve senior staff immediately and follow the ABC approach. This includes two peripheral cannulae, lying the woman flat, blood tests, and commencing a warmed crystalloid infusion. Mechanical interventions such as rubbing up the fundus and catheterisation are also done. Medical interventions include IV oxytocin, ergometrine, carboprost, and misoprostol. Surgical options such as intrauterine balloon tamponade, B-Lynch suture, ligation of uterine arteries, and hysterectomy may be considered if medical options fail to control the bleeding.

Secondary PPH occurs between 24 hours to 6 weeks after delivery and is typically due to retained placental tissue or endometritis. It is important to understand the causes and risk factors of PPH to prevent and manage this life-threatening emergency effectively.

A diagnosis of miscarriage can be made when a transvaginal ultrasound shows a crown-rump length greater than 7mm without cardiac activity. In this case, the patient has experienced a missed miscarriage, as the ultrasound revealed an intrauterine foetus of a size consistent with around 6 weeks gestation, but without heartbeat. The closed cervical os and history of spotting further support this diagnosis. A complete miscarriage, inevitable miscarriage, and partial miscarriage are not applicable in this scenario.

Miscarriage is a common complication that can occur in up to 25% of all pregnancies. There are different types of miscarriage, each with its own set of symptoms and characteristics. Threatened miscarriage is painless vaginal bleeding that occurs before 24 weeks, typically at 6-9 weeks. The bleeding is usually less than menstruation, and the cervical os is closed. Missed or delayed miscarriage is when a gestational sac containing a dead fetus is present before 20 weeks, without the symptoms of expulsion. The mother may experience light vaginal bleeding or discharge, and the symptoms of pregnancy may disappear. Pain is not usually a feature, and the cervical os is closed. Inevitable miscarriage is characterized by heavy bleeding with clots and pain, and the cervical os is open. Incomplete miscarriage occurs when not all products of conception have been expelled, and there is pain and vaginal bleeding. The cervical os is open in this type of miscarriage.

Postpartum haemorrhage (PPH) caused by uterine atony can be treated with various medical options including oxytocin, ergometrine, carboprost, and misoprostol. Initially, non-pharmacological methods such as bimanual uterine compression and catheter insertion should be used. RCOG guidelines recommend starting with Syntocinon 5 Units by slow IV injection, followed by ergometrine (avoid in hypertension), and then a Syntocinon infusion. Carboprost (avoid in asthma) and misoprostol 1000 micrograms rectally are then recommended. If pharmacological management fails, surgical haemostasis should be initiated. In a major PPH, ABCD management should be initiated, including fluids while waiting for appropriate cross-matched blood. Primary PPH is defined as a loss of greater than 500 ml of blood within 24 hours of delivery, with minor PPH being a loss of 500-1000 ml of blood and major PPH being over 1000 ml of blood. The causes of primary PPH can be categorized into the 4 T’s: Tone, Tissue, Trauma, and Thrombin. Uterine atony is the most common cause of primary PPH.

Understanding Postpartum Haemorrhage

Postpartum haemorrhage (PPH) is a condition where a woman experiences blood loss of more than 500 ml after giving birth vaginally. It can be classified as primary or secondary. Primary PPH occurs within 24 hours after delivery and is caused by the 4 Ts: tone, trauma, tissue, and thrombin. The most common cause is uterine atony. Risk factors for primary PPH include previous PPH, prolonged labour, pre-eclampsia, increased maternal age, emergency Caesarean section, and placenta praevia.

In managing PPH, it is important to involve senior staff immediately and follow the ABC approach. This includes two peripheral cannulae, lying the woman flat, blood tests, and commencing a warmed crystalloid infusion. Mechanical interventions such as rubbing up the fundus and catheterisation are also done. Medical interventions include IV oxytocin, ergometrine, carboprost, and misoprostol. Surgical options such as intrauterine balloon tamponade, B-Lynch suture, ligation of uterine arteries, and hysterectomy may be considered if medical options fail to control the bleeding.

Secondary PPH occurs between 24 hours to 6 weeks after delivery and is typically due to retained placental tissue or endometritis. It is important to understand the causes and risk factors of PPH to prevent and manage this life-threatening emergency effectively.

To determine if iron supplementation is necessary, a cut-off of 110 g/L should be applied during the first trimester.

During pregnancy, women are checked for anaemia twice – once at the initial booking visit (usually around 8-10 weeks) and again at 28 weeks. The National Institute for Health and Care Excellence (NICE) has set specific cut-off levels to determine if a pregnant woman requires oral iron therapy. These levels are less than 110 g/L in the first trimester, less than 105 g/L in the second and third trimesters, and less than 100 g/L postpartum.

If a woman’s iron levels fall below these cut-offs, she will be prescribed oral ferrous sulfate or ferrous fumarate. It is important to continue this treatment for at least three months after the iron deficiency has been corrected to allow the body to replenish its iron stores. By following these guidelines, healthcare professionals can help ensure that pregnant women receive the appropriate care to prevent and manage anaemia during pregnancy.

Neonatal Seizures: Likely Causes and Differential Diagnosis

Neonatal seizures can be a cause of concern for parents and healthcare providers. The most common cause of neonatal seizures is hypoglycaemia, which can occur in neonates born to mothers with gestational diabetes. Hypoglycaemia can lead to significant morbidity and mortality if left untreated. Other possible causes of neonatal seizures include hypoxic ischaemic encephalopathy, neonatal sepsis, intracranial haemorrhage, and benign familial neonatal seizures. However, in the absence of prematurity or complicated delivery, hypoglycaemia is the most likely cause of neonatal seizures in a term baby born to a mother with gestational diabetes. Diagnosis and treatment should be prompt to prevent long-term complications.

Based on the presented symptoms, the most probable diagnosis is acute fatty liver of pregnancy. This is supported by the presence of jaundice, mild fever, elevated liver function tests, increased white blood cell count, coagulopathy, and steatosis on imaging. Acute fatty liver of pregnancy typically presents with non-specific symptoms such as fatigue, malaise, and nausea, whereas cholestasis of pregnancy is characterized by severe itching. The absence of abnormalities in hemoglobin, platelet count, and viral screening makes the diagnosis of HELLP syndrome or viral hepatitis unlikely. Additionally, pre-eclampsia is characterized by hypertension and proteinuria. It is important to note that placental ALP can cause an increase in serum ALP levels during pregnancy.

Liver Complications During Pregnancy

During pregnancy, there are several liver complications that may arise. One of the most common is intrahepatic cholestasis of pregnancy, which occurs in about 1% of pregnancies and is typically seen in the third trimester. Symptoms include intense itching, especially in the palms and soles, as well as elevated bilirubin levels. Treatment involves the use of ursodeoxycholic acid for relief and weekly liver function tests. Women with this condition are usually induced at 37 weeks to prevent stillbirth, although maternal morbidity is not typically increased.

Another rare complication is acute fatty liver of pregnancy, which may occur in the third trimester or immediately after delivery. Symptoms include abdominal pain, nausea and vomiting, headache, jaundice, and hypoglycemia. Severe cases may result in pre-eclampsia. ALT levels are typically elevated, and support care is the primary management until delivery can be performed once the patient is stabilized.

Finally, conditions such as Gilbert’s and Dubin-Johnson syndrome may be exacerbated during pregnancy. Additionally, HELLP syndrome, which stands for haemolysis, elevated liver enzymes, and low platelets, is a serious complication that can occur in the third trimester and requires immediate medical attention. Overall, it is important for pregnant women to be aware of these potential liver complications and to seek medical attention if any symptoms arise.

The correct answer is that magnesium sulphate treatment should continue for 24 hours after delivery or the last seizure. This treatment is used to prevent and treat seizures in mothers with eclampsia. In this case, the patient is showing signs of eclampsia due to high protein levels in her urine, pregnancy-induced hypertension, and seizures. Therefore, she needs to be admitted and continue magnesium treatment for 24 hours after delivery or the last seizure. Magnesium helps prevent seizures by relaxing smooth muscle tissues and slowing uterine contractions. Labetalol is not the correct answer as it is used for long-term treatment of hypertension, which may not be necessary for this patient after delivery. Nifedipine with hydralazine may be more suitable for her hypertension as she is asthmatic. Magnesium sulphate treatment for 12 or 48 hours after delivery or the last seizure is not recommended according to guidelines, which suggest 24 hours is the appropriate duration.

Understanding Eclampsia and its Treatment

Eclampsia is a condition that occurs when seizures develop in association with pre-eclampsia, a pregnancy-induced hypertension that is characterized by proteinuria and occurs after 20 weeks of gestation. To prevent seizures in patients with severe pre-eclampsia and treat seizures once they develop, magnesium sulphate is commonly used. However, it is important to note that this medication should only be given once a decision to deliver has been made. In cases of eclampsia, an IV bolus of 4g over 5-10 minutes should be given, followed by an infusion of 1g/hour. During treatment, it is crucial to monitor urine output, reflexes, respiratory rate, and oxygen saturations. Respiratory depression can occur, and calcium gluconate is the first-line treatment for magnesium sulphate-induced respiratory depression. Treatment should continue for 24 hours after the last seizure or delivery, as around 40% of seizures occur post-partum. Additionally, fluid restriction is necessary to avoid the potentially serious consequences of fluid overload.

In summary, understanding the development of eclampsia and its treatment is crucial in managing this potentially life-threatening condition. Magnesium sulphate is the primary medication used to prevent and treat seizures, but it should only be given once a decision to deliver has been made. Monitoring vital signs and urine output is essential during treatment, and calcium gluconate should be readily available in case of respiratory depression. Finally, fluid restriction is necessary to avoid complications associated with fluid overload.

Maternal mortality rates are still high globally due to obstetric haemorrhage. Postpartum haemorrhage is characterized by blood loss of 500 ml after vaginal delivery, not including the placenta. If blood loss exceeds 1000mls, it is classified as major postpartum haemorrhage. It is crucial to evaluate the severity of the bleeding and seek appropriate management (as outlined below).

Understanding Postpartum Haemorrhage

Postpartum haemorrhage (PPH) is a condition where a woman experiences blood loss of more than 500 ml after giving birth vaginally. It can be classified as primary or secondary. Primary PPH occurs within 24 hours after delivery and is caused by the 4 Ts: tone, trauma, tissue, and thrombin. The most common cause is uterine atony. Risk factors for primary PPH include previous PPH, prolonged labour, pre-eclampsia, increased maternal age, emergency Caesarean section, and placenta praevia.

In managing PPH, it is important to involve senior staff immediately and follow the ABC approach. This includes two peripheral cannulae, lying the woman flat, blood tests, and commencing a warmed crystalloid infusion. Mechanical interventions such as rubbing up the fundus and catheterisation are also done. Medical interventions include IV oxytocin, ergometrine, carboprost, and misoprostol. Surgical options such as intrauterine balloon tamponade, B-Lynch suture, ligation of uterine arteries, and hysterectomy may be considered if medical options fail to control the bleeding.

Secondary PPH occurs between 24 hours to 6 weeks after delivery and is typically due to retained placental tissue or endometritis. It is important to understand the causes and risk factors of PPH to prevent and manage this life-threatening emergency effectively.

Understanding DIC: Symptoms and Diagnostic Tests

Disseminated intravascular coagulation (DIC) is a condition characterized by abnormal clotting and bleeding at the same time. This widespread disorder of clotting is caused by both thrombin and plasmin activation. Acutely, haemorrhage often occurs as the clotting factors are exhausted. The severity of the condition is variable but can lead to severe organ failure.

To diagnose DIC, doctors typically perform a full blood picture, coagulation screen, and a group-and-save test. Tests for DIC include elevated prothrombin time (PT) and activated partial thromboplastin time (aPTT). Platelet counts in DIC are typically low, especially in acute sepsis-associated DIC, but may be increased in malignancy-associated chronic DIC. Fibrinogen level is also tested, as it falls in DIC.

Symptoms of DIC include abnormal bleeding, such as from the gums or nose, and bruising easily. Patients may also experience organ failure, such as kidney or liver failure. Treatment for DIC typically involves addressing the underlying cause, such as sepsis or cancer, and providing supportive care, such as blood transfusions or medications to prevent clotting.

In summary, DIC is a serious condition that requires prompt diagnosis and treatment. If you experience symptoms of abnormal bleeding or organ failure, seek medical attention immediately.