Rapid genetic testing and virtual genetic consults for newborns with unexplained birth defects in Texas
Official title: MAGNET: Making Genomics Accessible For Newborns In Texas
Run by Baylor College of Medicine · NCT07102966 · Data updated 2026-11-12
This project will test rapid whole genome sequencing and virtual genetic consultations for seriously ill newborns in Texas to find genetic causes of birth defects.
Quick facts
| Study type | Interventional |
|---|---|
| Ages | 1 Day to 90 Days |
| Sex | All |
| Enrollment | 410 (estimated) |
| Sponsor | Baylor College of Medicine Academic / other |
| Locations | 1 site (Houston, Texas) |
| Status | Recruiting |
| Started | October 28, 2025 |
| Main results expected | March 31, 2029 |
| Study ends | July 31, 2029 |
| Registry record updated | October 1, 2026 |
| Trial ID | NCT07102966 on ClinicalTrials.gov |
Is this trial a fit for you?
✓Likely a good fit
Undiagnosed infants aged 0–90 days admitted to participating Texas NICUs with features suggesting a genetic disorder and who do not meet exclusion criteria are ideal.
✕Probably not a fit
Infants with known chromosomal diagnoses, isolated birth defects without other anomalies, abnormalities explained by prenatal testing or teratogens, or those who are hemodynamically unstable are unlikely to benefit.
A plain-English reading of the study's rules. Only the study team can confirm whether you qualify.
What this trial studies
Baylor College of Medicine will provide rapid whole genome sequencing, with optional RNA sequencing, for up to 200 undiagnosed infants admitted to participating Texas NICUs over five years. Virtual genetic evaluations will be conducted via the Consultagene platform with support from the local hospital teams, and blood or buccal swabs will be collected from infants and parents for testing. Results are returned in about a week and families receive genetic counseling through a virtual visit, with additional testing as needed. The study will also collect provider feedback, surveys, and interviews and will store deidentified DNA and clinical data for future research.
Why it matters
Potential benefit: Faster genetic diagnoses could guide medical care sooner, connect families to appropriate treatments or trials, and reduce diagnostic uncertainty.
How similar studies have gone: Similar rapid whole genome sequencing programs in neonatal intensive care units have shown higher diagnostic yields and meaningful impacts on clinical management.
Who can join: the full rules
Show full inclusion / exclusion criteria
Inclusion Criteria: * Undiagnosed infants from 0-90 days of age, with a diverse group of phenotypes and strongly suspected to have genetic disorders. Exclusion Criteria: * (1) abnormal noninvasive prenatal testing (NIPT) suggesting chromosomal abnormality; (2) abnormal amniocentesis results, (3) abnormal newborn screening indicating an inborn error of metabolism; (4) abnormal FISH results for aneuploidy (trisomy 18, 13, or monosomy X); (5) Down syndrome; (6) dysmorphic features in the absence of other congenital anomalies; (7) isolated birth defects such as myelomeningocele, cleft lip/palate, cardiac septal defects, isolated congenital diaphragmatic hernia, etc.; (8) birth defects due to known teratogens i.e., alcohol, Isotretinoin, etc.; (9) multiple congenital anomalies associated with maternal diabetes; (10) VACTERL association; and (11) hemodynamically unstable newborns needing transport for higher level of care.
Where it's running
-
Baylor College of Medicine
Houston, Texas, United States Recruiting
Study contacts
- Principal investigator: Brendan Lee, MD, PhD — Baylor College of Medicine
- Study coordinator: Seema R Lalani, MD
- Email: seemal@bcm.edu
- Phone: 281-224-0600
Similar studies
Other studies for the same condition or treatment. Recruiting studies are listed first.
-
AI-assisted Rare-Disease Diagnosis
A multicenter randomized test to see if an AI diagnostic tool can help doctors make faster, more accurate rare-disease diagnoses for patients with unresolved symptoms.
-
Socio‑professional inclusion for young people (15–25) with childhood-onset rare genetic disabilities
This project will try to see what makes it hard for 15–25‑year‑olds with childhood-onset rare genetic conditions to access higher education, internships, or work.
-
Treatment approaches for AChR-antibody positive generalized myasthenia gravis in Russia.
This project will look at which treatments adults in Russia with AChR-antibody positive generalized myasthenia gravis receive and how their symptoms and hospitalizations change over time.
-
Long-term outcomes for people with immune TTP in the French national TMA cohort
This project uses past medical records to see long-term health outcomes and complications in people in France who had immune thrombotic thrombocytopenic purpura (iTTP).
-
Identification of Cellular Biomarkers in Rare Eye Diseases
This study tests whether specific gene and protein markers in cells and tears can distinguish adults with rare corneal diseases from others and relate to their eye symptoms.
-
Genomic profiling for patients with rare and genetic diseases
This study is trying to see if using advanced genetic testing can help doctors better understand and treat rare diseases for over 2 million patients in Italy.
How to take part
- Review the eligibility criteria above with your treating physician.
- Check the official listing on ClinicalTrials.gov for the latest contact details and recruitment status.
- Contact the study coordinator or principal investigator to ask for pre-screening. Pre-screening is free and never obligates you to enroll.