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The History of Ultrasound in Obstetrics and Gynaecology

The History of Ultrasound in Obstetrics and Gynaecology

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The world of medical imaging has seen transformative technologies over the years, and ultrasound stands tall as one of the most pioneering. This non-invasive imaging tool has become an indispensable asset in fetal medicine and gynaecology. Let’s delve deep into the history of ultrasound, understanding its workings and establishing its safety credentials.

The Dawn of Ultrasound in Medicine

The journey of ultrasound began in the early 20th century. Initially, it was utilised for industrial and marine purposes, primarily to detect submarines. It wasn’t until the 1950s that scientists began to recognise its potential in medical diagnostics. The foundational use in obstetrics was to detect and measure foetal size, growth and position, making it a pivotal tool for doctors.

Ultrasound’s Ascent in Fetal Medicine

The 1970s and 1980s were transformative decades for ultrasound. As technology advanced, the clarity and details of the ultrasound images improved exponentially. This led to its expanded role in foetal medicine. Doctors could now not only measure the size and position of the foetus but also identify structural abnormalities, understand foetal behaviour, and estimate gestational age with enhanced precision.

Screening for Down’s syndrome, congenital heart diseases, and neural tube defects became possible, marking ultrasound’s vital role in antenatal care. The ability to visualise the foetus in the womb has not only improved clinical outcomes but also allowed parents to establish an early bond with their unborn child.

Ultrasound’s Role in Gynaecology

Ultrasound in gynaecology has been revolutionary. From visualising ovarian cysts to diagnosing endometriosis, it offers a pain-free, non-invasive solution for women. The introduction of transvaginal ultrasound probes in the 1980s provided clearer, more detailed images of the uterus and ovaries, enhancing diagnostic precision.

How Does Ultrasound Work?

In layman’s terms, ultrasound uses high-frequency sound waves to produce images of structures inside the body. A device called a transducer is placed on the body, and it emits sound waves. When these waves hit a boundary between tissues, like between fluid and soft tissue, they bounce back. The returning echoes are translated by a computer into images displayed on a screen.

Is Ultrasound Safe for Humans?

One of the paramount reasons for ultrasound’s popularity is its safety. Unlike X-rays, ultrasound doesn’t use radiation. Over decades of use, there’s been no concrete evidence linking ultrasound to any harmful side effects, making it a preferred choice for examining pregnant women and their unborn babies.

However, like any medical procedure, it should be used judiciously and only when medically necessary. It’s comforting for patients to know that they’re in safe hands when undergoing an ultrasound.

In Conclusion
From its marine roots to the pinnacle of medical diagnostics, ultrasound has traversed a fascinating journey. Today, it stands as an emblem of innovation in fetal medicine and gynaecology, providing invaluable insights while ensuring patient safety. As technology continues to evolve, the horizon for ultrasound promises even more groundbreaking discoveries.

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Private NIPT Cost in London UK

Non-Invasive Prenatal Testing (NIPT) Cost in London

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NIPT, or Non-Invasive Prenatal Testing, is currently the safest and most accurate way to screen for chromosomal anomalies before your baby is born. However, NIPT cannot detect any physical or structural anomalies, which represent almost 2/3 of the fetal anomalies. That’s why we recommend doing NIPT with an early anomaly ultrasound scan from £490. 

Short history of NIPT

  • NIPT was first introduced in 2011 by Sequenom, using next-generation sequencing to analyze cell-free fetal DNA in maternal blood. This allowed screening for trisomies 21, 18 and 13.
  • In 2012, Ariosa Diagnostics (now Roche) launched the Harmony test, also using cfDNA analysis. Natera’s Panorama test entered the market shortly after.
  • These first-generation tests analyzed chromosomes 21, 18 and 13. Around 2013, companies began expanding NIPT to screen for sex chromosome aneuploidies.
  • By 2016, Illumina had acquired Verinata, making them a major NIPT provider. Labs like Natera, Illumina, Roche and BGI continued enhancing their tests.
  • In 2019, Illumnia launched the VeriSeq NIPT Solution v2 which added screening for microdeletions. Other labs followed with expanded NIPT panels.
  • Currently, the major players providing NIPT globally are BillionToOne Unity, EuroFins PrenatalSAFE, Illumina, Natera, Roche/Ariosa, BGI, Yourgene Health, and PerkinElmer’s Labcorp. Some operate as test manufacturers while others partner with labs.
  • NIPT technology and capabilities continue to advance rapidly. It is now recommended by many professional societies as a first-tier prenatal screening test due to higher accuracy than traditional serum screening. Adoption continues rising globally.

The importance of Ultrasound screening

There are a few key reasons why it is important to have an ultrasound scan in conjunction with NIPT:

  • NIPT is a screening test, not a diagnostic test. Ultrasound helps confirm or identify potential fetal anomalies through visual imaging rather than just a probability result.
  • Ultrasound provides important information that NIPT does not, including confirming gestational age, fetal presentation, number of fetuses, placental location, anatomical structures, and growth measurements.
  • Soft markers for aneuploidy like increased nuchal translucency, absent nasal bone, echogenic bowel or cardiac anomalies may be detected on ultrasound but not by NIPT.
  • If ultrasound dates do not match LMP dating, it can affect the accuracy of NIPT results. Ultrasound provides more precise gestational age.
  • Ultrasound helps determine if discordant NIPT results may be due to placental, vanishing twin or maternal malignancy issues.
  • Some structural defects like neural tube defects are not screened for by standard NIPT panels but may be visible on ultrasound.
  • Ultrasound provides live visualisation of the fetus, which can help make NIPT results feel more real for parents.

While NIPT is an invaluable screening tool, ultrasound adds important clinical information and imaging. Following up abnormal NIPT results with ultrasound helps determine next steps for diagnosis and pregnancy management.

What is currently offered by the NHS?

The NHS Fetal Anomaly Screening Programme screens for the following anomalies:

  • Down’s syndrome (trisomy 21)
  • Edwards’ syndrome (trisomy 18)
  • Patau’s syndrome (trisomy 13)
  • Anencephaly
  • Congenital heart defects
  • Cleft lip
  • Exomphalos
  • Gastroschisis
  • Spina bifida
  • Serious musculoskeletal problems (such as limb reduction defects)

The screening is offered to all pregnant women between 10-14 weeks of pregnancy. It involves a blood test to measure two pregnancy hormones in the mother’s blood along with an ultrasound scan (nuchal translucency scan).

The screening provides a risk assessment as to the likelihood of the baby having one of the conditions, but it is not a diagnostic test. Those with a high-risk result are offered further tests such as amniocentesis or chorionic villus sampling to confirm a diagnosis.

The NHS screening programme aims to identify potential problems early in pregnancy so parents can make informed choices and access appropriate antenatal care and treatment if needed.

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Unravelling Microdeletions: Their Causes, Risk Factors, Common Types, and Screening Methods

Microdeletions are a topic of extensive genetic research. These small deletions in the DNA sequence of a chromosome can have significant implications on an individual’s health. In this comprehensive blog post, we delve into the causes, risk factors, ten most common types of microdeletions, their prevalence, and the role of Non-Invasive Prenatal Testing (NIPT) in their detection.

What are Microdeletions?

Microdeletions are tiny losses of genetic material in the DNA sequence of a chromosome. These minute changes are typically undetectable under a standard microscope, hence the term ‘micro’. However, despite being minute, these deletions can lead to significant health and developmental problems, as they may disrupt several genes essential for growth and development.

Causes and Risk Factors

The exact cause of microdeletions remains unknown, and their occurrence seems largely spontaneous. They typically occur during the formation of reproductive cells or in early foetal development, resulting from a mistake in the cell’s DNA replication process.

In terms of risk factors, there’s no established link between microdeletions and parental age, ethnicity, or lifestyle. These changes can happen in any pregnancy, but familial history can increase the chances if a parent has a balanced translocation or an inherited microdeletion.

The Ten Most Common Microdeletion Syndromes

Here’s a list of ten of the most common microdeletion syndromes, along with their estimated prevalence:

SyndromeApproximate Prevalence
1. DiGeorge Syndrome (22q11.2 deletion syndrome)1 in 3,000 – 1 in 6,000
2. Williams Syndrome (7q11.23 deletion syndrome)1 in 7,500 – 1 in 20,000
3. Prader-Willi Syndrome1 in 10,000 – 1 in 25,000
4. Angelman Syndrome1 in 10,000 – 1 in 20,000
5. Cri-du-chat Syndrome (5p- syndrome)1 in 20,000 – 1 in 50,000
6. 1p36 Deletion Syndrome1 in 5,000 – 1 in 10,000
7. Wolf-Hirschhorn Syndrome (4p- syndrome)1 in 20,000 – 1 in 50,000
8. Smith-Magenis Syndrome (17p11.2 deletion syndrome)1 in 15,000 – 1 in 25,000
9. Alagille Syndrome (20p12 deletion syndrome)1 in 30,000 – 1 in 50,000
10. Rubinstein-Taybi Syndrome1 in 100,000 – 1 in 125,000

Microdeletions, in general, occur in approximately 1 in every 1,000 births, making them a significant contributor to genetic disorders. Just to compare Down’s Syndrome, the most common chromosomal disorder affects approximately 1 in 1,000 to 1 in 1,100 live births worldwide. The frequency of Down’s Syndrome increases significantly with the mother’s age, particularly from 35 years onwards whereas microdeletions are believed to occur randomly.

Microdeletion Screening: The Role of NIPT

Screening for microdeletions has been revolutionised by advancements in genetic testing, particularly with the introduction of Non-Invasive Prenatal Testing (NIPT). This screening test, performed from the 10th week of pregnancy, analyses cell-free DNA in the maternal blood to identify common chromosomal abnormalities and microdeletions. NIPT poses no risk to the foetus and offers a safer alternative to invasive diagnostic procedures.

Though NIPT has high accuracy rates, it’s crucial to understand that a ‘positive’ result indicates an increased risk, not a definitive diagnosis. Positive NIPT results should always be confirmed through diagnostic tests such as amniocentesis or chorionic villus sampling (CVS).

There are a number of NIPT providers who offer screening for microdeletions, such as Panorama NIPT, Unity NIPT and PrenatalSAFE.

Conclusion

While the world of microdeletions might seem complex, understanding them is crucial to advancing our knowledge of genetic disorders. Early detection, made possible by advanced screening methods like NIPT, allows for better preparation and potential intervention. As research continues to evolve, we can hope for even more effective detection and management of these genetic changes, ultimately leading to improved healthcare and patient outcomes.

Remember, if you have any concerns or questions about genetic disorders or prenatal testing, it’s always advisable to consult with a healthcare professional who can provide tailored advice based on your individual circumstances.

DiGeorge Syndrome: Causes, Risk Factors, Screening and Prevalence

DiGeorge Syndrome, also commonly known as 22q11.2 deletion syndrome (or simply 22q del,) is a complex and multifaceted disorder that many people may not be aware of. This blog post aims to shed light on the causes and risk factors of DiGeorge Syndrome, discuss screening options such as Non-Invasive Prenatal Testing (NIPT), and compare its prevalence with conditions such as Down’s Syndrome.

Understanding DiGeorge Syndrome (22Q DEL)

DiGeorge Syndrome is a chromosomal disorder caused by the deletion of a small piece of chromosome 22, specifically on the q11.2 region. The deletion happens spontaneously during the formation of reproductive cells or in early fetal development. The primary cause of 22q del is unknown, and it typically isn’t inherited from the parents.

The syndrome is characterised by a wide range of potential symptoms, including heart defects, certain facial features, and learning difficulties.problems with immune system and other abnormalities. Unfortunately, 22q del syndrome is also associated with learning difficulties and psychiatric or behavioural problems like autism and schizophrenia. Due to its complex nature, different individuals affected may present a different set of symptoms, making it a highly variable condition.

Risk Factors

Although the exact cause of the chromosomal deletion leading to DiGeorge Syndrome is unknown, it’s not typically associated with the age of the parent, unlike some other genetic disorders. The occurrence appears to be mostly random, which means that all pregnancies, irrespective of familial history, have a minimal but real risk.

Screening for DiGeorge Syndrome: The Role of NIPT

Non-Invasive Prenatal Testing (NIPT) has emerged as an invaluable tool for the early detection of several genetic disorders, including DiGeorge Syndrome. NIPT analyses cell-free DNA in the maternal blood to detect common chromosomal abnormalities. This test can be performed from the 10th week of pregnancy and poses no risk to the fetus.

While NIPT is highly accurate for detecting common trisomies like Down’s Syndrome (trisomy 21), Edwards’ syndrome (trisomy 18), and Patau’s syndrome (trisomy 13), it’s also valuable for identifying deletions like those causing DiGeorge Syndrome. It’s essential to remember, however, that a positive NIPT result for DiGeorge syndrome should be confirmed with diagnostic tests like amniocentesis or chorionic villus sampling (CVS) for a definitive diagnosis.

Not all NIPT provider offer reliable screening for DiGeorge Syndrome. Recently, the Panorama AI NIPT demonstrated impressive clinical performance for screening Di George Syndrome, you can read more about the study here. In well-designed prospective study Panorama Test was able to detect more than 80% of the fetuses affected by 22q del, showing an outstanding 50% positive predicted value.

Prevalence of DiGeorge Syndrome vs Down’s Syndrome

DiGeorge Syndrome is considered one of the most common genetic syndromes, second only to Down’s Syndrome. In the general population, it’s estimated to affect between 1 in 2,000 to 1 in 4,000 live births. Younger women have the same chance to deliver baby with 22q del as older ones.

In contrast, Down’s Syndrome, the most common chromosomal disorder, has a higher prevalence rate, affecting approximately 1 in 1,000 to 1 in 1,100 live births worldwide. The frequency of Down’s Syndrome increases significantly with the mother’s age, particularly from 35 years onwards.

Conclusion

Understanding and awareness of genetic disorders like DiGeorge Syndrome are crucial, not just for healthcare professionals, but for the general public too. While DiGeorge Syndrome is less common than Down’s Syndrome, it still represents a significant proportion of genetic disorders. By employing advanced screening methods such as NIPT, early detection and management of these conditions can be made possible.

Remember, if you have concerns or questions about genetic disorders or prenatal testing, it’s always best to consult with a healthcare professional who can provide advice tailored to your individual circumstances.

Understanding The Statistics Behind NIPT (Non-Invasive Prenatal Testing)

Summary:

The best NIPT will be really good at detecting problems (high sensitivity) and correctly saying everything is fine (high specificity). It should hardly ever make mistakes by saying there’s a problem when there isn’t (low false positive) or missing a problem and saying everything is okay (low false negative). If the test says there’s an issue, it should be highly likely to be true (high positive predictive value). And if it says everything is fine, it should be trustworthy (high negative predictive value).

NIPT (non-invasive prenatal testing) is a type of genetic test used to screen for certain chromosomal abnormalities and genetic syndromes in a developing fetus. The test involves analyzing a sample of the mother’s blood to look for fragments of DNA from the fetus.

It’s good to know the statistical terms related to NIPT performance because they help you understand how accurate the test is and what the results mean. You might be wondering why it’s important to understand those “boring statistics” related to NIPT (non-invasive prenatal testing) performance, but trust us, it’s actually really helpful! Knowing these statistical terms can make a big difference in your pregnancy journey.

By understanding these terms, you can make informed choices about your prenatal care. If the test is really accurate, you might feel more confident in the results and decide not to have further tests. But if the test has limitations, you might want to consider additional testing to get more clarity. It’s all about making sure you have the information you need to make the best choices for you and your baby.

So, while statistics might seem boring at first, they play a vital role in your understanding of the test’s accuracy, interpretation of results, and decision-making process. Embracing these statistics can give you more confidence and peace of mind throughout your pregnancy journey.

Please see below the most important statistical terms related to NIPT performance:

  1. Sensitivity: This measures how good the test is at correctly identifying fetuses that have a chromosomal abnormality. A high sensitivity means that the test is good at detecting most cases of abnormality. For example, if a test has a sensitivity of 99%, it means that out of 100 fetuses with a chromosomal abnormality, the test correctly identifies 99 of them.
  2. Specificity: This measures how good the test is at correctly identifying fetuses that do not have a chromosomal abnormality. A high specificity means that the test avoids identifying normal fetuses as abnormal. For example, if a test has a specificity of 99%, it means that out of 100 normal fetuses, the test correctly identifies 99 of them as normal.
  3. Positive predictive value (PPV): This is the probability that a positive test result is a true positive. In other words, if the test comes back positive, the PPV measures the likelihood that the fetus actually has a chromosomal abnormality. For example, if a test has a PPV of 95%, it means that out of 100 positive test results, 95 of them are true positives.
  4. Negative predictive value (NPV): This is the probability that a negative test result is a true negative. In other words, if the test comes back negative, the NPV measures the likelihood that the fetus does not have a chromosomal abnormality. For example, if a test has an NPV of 99%, it means that out of 100 negative test results, 99 of them are true negatives.
  5. False positive rate (FPR): This measures how often the test gives a positive result for a normal fetus. A low FPR means the test is good at avoiding false positives. For example, if a test has an FPR of 1%, it means that out of 100 normal fetuses, the test gives a false positive result for only 1 of them.
  6. False negative rate (FNR): This measures how often the test gives a negative result for an abnormal fetus. A low FNR means the test is good at avoiding false negatives. For example, if a test has an FNR of 1%, it means that out of 100 fetuses with a chromosomal abnormality, the test gives a false negative result for only 1 of them.

When we look at how well NIPT works, it’s important to consider a bunch of statistics together. A good test will have high sensitivity, high specificity, low false positive and false negative rates, and high PPV and NPV.

Just remember, the performance of NIPT can vary depending on the specific test and the group of people being tested. So, when you get the results, make sure to understand how good that particular test is.

Considering all these statistics helps us know how reliable the test is and what the results mean for you and your baby. It’s about making informed choices and getting the best care possible.

Learn more about the NIPT providers we use:

Harmony Test by Roche: https://harmonytest.roche.com/global/en/home.html

Panorama Test by Natera: https://www.natera.com/womens-health/panorama-nipt-prenatal-screening/

PrenatalSAFE by Eurofins: https://www.eurofins.ie/biomnis/our-services/medical-testing/non-invasive-prenatal-test-nipt-prenatalsafe/

Unity Test by BillionToOne: https://unityscreen.com/

The New Age of Prenatal Screening: An In-depth Look at Non-Invasive Prenatal Testing (NIPT)

Pregnancy, while a joyous period in life, is also a time filled with uncertainties. One significant concern for expectant parents is the health of their unborn child. Fortunately, modern-day medical advancements, such as Non-Invasive Prenatal Testing (NIPT), are here to provide some peace of mind.

This article explores NIPT’s accuracy, introduces other prenatal screening options, highlights key NIPT providers, discusses its limitations and benefits, and explains instances where NIPT may not be suitable.

Unveiling Non-Invasive Prenatal Testing (NIPT)

NIPT is a revolutionary screening test that leverages advanced technology to detect the risk of specific genetic disorders in the unborn child using a simple maternal blood draw. Common conditions screened through NIPT include Down Syndrome (Trisomy 21), Edwards Syndrome (Trisomy 18), and Patau Syndrome (Trisomy 13). The screening can be performed as early as the 10th week of pregnancy.

Delving into NIPT’s Accuracy

When it comes to screening accuracy, NIPT outshines other prenatal screening tests. Its sensitivity and specificity for detecting Trisomy 21 exceed 99% and 99.9%, respectively. For Trisomy 18, the sensitivity and specificity approximate 97-99% and nearly 100%. For Trisomy 13, the sensitivity is between 90-96%, and the specificity again nears 100%.

However, it is paramount to understand that NIPT is a screening test, not a diagnostic tool. It can indicate the potential of a genetic disorder, but it cannot definitively diagnose the condition. A positive NIPT result suggests a higher risk, warranting further diagnostic tests like amniocentesis or chorionic villus sampling (CVS) for confirmation.

Exploring Other Prenatal Screening Options

NIPT isn’t the only prenatal screening available to expectant parents. Other alternatives include:

  1. First-trimester combined screening: This screening comprises a maternal blood test and an ultrasound examination. Although it can detect about 85% of Down Syndrome cases, it does carry a higher false-positive rate compared to NIPT.
  2. Quad screen: This blood test is capable of detecting around 81% of Down Syndrome cases in women under 35.
  3. Cell-free DNA screening (cfDNA): Technically similar to NIPT, this screening method has a high level of accuracy and is typically reserved for pregnancies considered high-risk due to the associated cost.

Introducing Key NIPT Providers

Several leading companies globally offer NIPT services:

  1. Eurofins (PrenatalSafe Test): A globally recognized leader in the field of genetic testing, Eurofins offers comprehensive NIPT services.
  2. Natera (Panorama Prenatal Screen): Natera stands out for its ability to perform tests as early as the 9th week of pregnancy.
  3. Roche (Harmony Prenatal Test): Pioneers in the NIPT field, Roche’s Harmony test is widely available, being offered in more than 100 countries.
  4. BillionToOne (Unity Prenatal Test): A more recent entrant into the NIPT field, offering a more cost effective test with promising clinical data.

Each provider has unique strengths, and choosing the right one depends on several factors, including your doctor’s recommendation, the test’s availability in your area, and insurance coverage.

Weighing the Limitations and Benefits of NIPT

Like all medical procedures, NIPT has its pros and cons.

Benefits of NIPT:

  • Non-invasive: NIPT requires only a maternal blood draw, posing zero risk to the fetus.
  • Early and accurate risk assessment: Compared to traditional screening methods, NIPT provides an earlier and more precise risk evaluation for certain genetic conditions.
  • Fewer invasive procedures: With its high level of accuracy, NIPT reduces the need for invasive diagnostic procedures, which carry a risk of miscarriage.

Limitations of NIPT:

  • Screening, not diagnosis: NIPT isn’t a diagnostic test; thus, a positive result warrants confirmation with further invasive testing.
  • Limited screening scope: NIPT can’t screen for all genetic and chromosomal abnormalities.
  • Not suitable for screening physical/structural anomalies which are often more prevalent and severe.
  • Possible inconclusive results: There can be instances where NIPT results are inconclusive, necessitating a retest.

NIPT Exclusions: When is NIPT Not Suitable?

Despite its many advantages, NIPT isn’t for everyone. Certain situations can limit its effectiveness, depending on the provider of the test and their algorithm. These can be, but not limited to:

  • Pregnancies involving more than two fetuses (triplets or more).
  • When the expectant mother has a history of bone marrow or organ transplant.
  • Pregnancies resulting from a donor egg.
  • Vanishing twin pregnancies.

In such situations, a detailed discussion with the healthcare provider will help in determining the best approach for prenatal screening.

In conclusion, NIPT brings a significant shift in prenatal screening with its high accuracy rate and non-invasive nature, contributing immensely to maternal and child health care. However, it’s essential for expectant parents to discuss all options with their healthcare provider and make an informed decision. The understanding that no test is perfect and that screening tests have limitations is crucial to setting appropriate expectations.

Your health and that of your baby are of the utmost importance. An open dialogue with your healthcare provider will be the best approach to address your concerns and make an informed decision about prenatal screening.

Pre Eclampsia

What is Pre-Eclampsia? 

Pre-eclampsia is a hypertensive disorder. It is characterised by persistent high blood pressure that develops during pregnancy (usually from 20 weeks) or postpartum period (up to 6 weeks postpartum). 

With careful management, most pregnancies with pre-eclampsia will have good outcomes, but complications include problems with the growth of the baby, kidney and liver damage. 

Key Stats 

  • Hypertensive disorders of pregnancy (HPD) affects 5-10% all pregnancies worldwide. This includes pre-eclampsia, eclampsia, HELLP syndrome (haemolysis, elevated liver enzymes, low platelets) and gestational hypertension. 
  • HPDs are the leading cause of maternal and infant death across the globe. 
  • Approximately 76,000 women and 500,000 babies die each year worldwide from pre-eclampsia. 
  • Black women are 3x more likely to develop pre-eclampsia and have severe outcomes. 
  • 60% of maternal deaths due to pre-eclampsia are preventable. 

Symptoms 

  • Severe headaches 
  • Welling in hands and face 
  • Visual issues 
  • Nausea and vomiting 
  • Stomach or abdomen pain 
  • Sudden weight gain 
  • Shortness of breath 

Management 

Pre-eclampsia can develop from 20 weeks of pregnancy and up to 6 weeks after childbirth. High blood pressure can usually be controlled by antihypertensive medication. The risk of pre-eclampsia in pregnancy can be reduced by maintaining a healthy lifestyle.  

Please note that all these may help decrease rates of pre-eclampsia but should be consulted with a healthcare professional prior to action. 

What We Offer? 

Our Consultant Obstetrician, Mr Daniel Stott, specialises in the management of pregnancies affected by pre-eclampsia. He helps provide mothers with post-natal care and can address any concerns mothers have during or post pregnancy. Learn more about out Private Obstetric Services on the dedicated page. 

He also runs a pre-eclampsia clinic at his NHS post at University College London Hospitals NHS Foundation Trust. Mr Stott has published an MD on haemodynamics in hypertensive pregnancies at King’s College London and has published widely in pre-eclampsia. 

Awareness 

We want to do our part in raising awareness and supportive ongoing research to #MoveResearchForward. Let’s work together to help prevent pre-eclampsia and improve outcomes for mothers and babies worldwide. 

If you require any more information on pre-eclampsia, please check out the Pre-Eclampsia Foundation.Â