Flux & Ginekolog
I was just looking into how AI could help predict complications in pregnancy—have you seen any tools like that in practice?
Yes, I’ve actually seen a few of those tools being used, especially in larger hospitals. They usually combine things like blood pressure, blood tests, and even ultrasound data to flag risks for pre‑eclampsia, gestational diabetes or preterm birth. The tech is still maturing, so we still rely on the clinical exam and your own report, but it’s promising to catch problems early. If you’re interested, I can show you what the data looks like and how we interpret it in our office.
That’s exactly the kind of data fusion I’ve been dreaming about. If you’ve got the raw numbers, the algorithm can spot patterns that the human eye misses. Show me the dataset—let’s see if it actually pushes the predictive edge or just adds another layer of noise.
Here’s a very basic, anonymised snapshot of the kind of data we collect—age, BMI, blood pressure, HbA1c, gestational age, fetal heart rate, ultrasound findings, and a few lab values. I’ve stripped any identifiers so it’s safe to share. Let me know what you’re looking for and we can dive deeper.
Great, I’ll need the numeric ranges and any missing‑value flags. I’m curious if you’ve already engineered any risk scores—if not, I’ll suggest a gradient‑boosted tree and a few interaction terms between BP and HbA1c. Also, how do you handle the ultrasound metrics—raw values or categorized? Let me know.
Sure, here’s what we usually capture for each patient. The values are ranges we expect, and we mark missing data with a simple “NA”.
Age – 18 to 45 years, BMI – 18.5 to 35 kg/m², systolic BP – 90 to 140 mmHg, diastolic BP – 60 to 90 mmHg, HbA1c – 5.0 to 6.5 %, gestational age – 4 to 40 weeks.
Ultrasound metrics (fetal weight estimate, placental thickness, amniotic fluid index) we record as raw numbers, but we also create a categorical flag: “normal”, “borderline”, “abnormal” based on institutional cut‑offs.
We do have a simple risk score in practice: a weighted sum of systolic BP, HbA1c and a binary pre‑pregnancy diabetes flag. That score is only a quick screening tool; for detailed analysis we rely on the full data set.
Feel free to tweak it with your gradient‑boosted tree or add interaction terms, especially BP × HbA1c – that’s an interesting one. If you need the raw data file, let me know the format and I’ll arrange to share a copy.
Sounds solid—let’s pull the raw CSV, it’s the easiest to get into a model. I’ll run a gradient‑boosted tree, test the BP × HbA1c interaction, and see if the score can be refined to flag pre‑eclampsia earlier. Once I have the file, I’ll send back the feature importance and a quick ROC. Anything else you think we should pre‑process?
Before you load it, just clean up a few things. Make sure all the missing values are coded consistently—use NaN or a placeholder column so the tree can decide how to handle them. Convert the categorical ultrasound flags to dummy variables, and if you have any outliers in BP or HbA1c (values outside the expected ranges) double‑check them; they can throw the model off. Also, standardise the continuous variables (mean zero, unit variance) if you’re planning to look at interaction terms—it makes the interpretation of the interaction clearer. Once that’s set, you’re good to go.