Condition
Genetic Disease clinical trials and research
As of November 12, 2026, Find a Trial lists 39 Genetic Disease clinical trials that are recruiting, at sites in 21 countries (most in United States (13), China (6), France (6)). By phase: Phase 2 (2). The most active sponsors are Women's Hospital School Of Medicine Zhejiang University (2), Children's Hospital of Philadelphia (2). There are also 14 NIH-funded research projects on Genetic Disease, with $4.8 million in listed awards. Every study is explained in plain English. Data from ClinicalTrials.gov and NIH RePORTER, updated November 12, 2026.
- 39Clinical trials
- 14NIH research projects
- 21Countries
Newest Genetic Disease clinical trials
All recruiting trials (39)
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Newborn whole-genome sequencing and genetic disease risk in pregnancy and early life
This project will collect small biological samples from pregnant families and newborns to try whole-genome sequencing and other multi-omics tests to find genetic disease risks.
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Multicenter study of SHANK3-related Phelan-McDermid syndrome genetic modifiers
Researchers are testing how other genes may modify the PMS clinical picture in people with SHANK3-related deletions or variants.
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Prenatal cfDNA Screening in Pregnancies with Diverse Genetic Risk Profiles
This study tests two cfDNA approaches from a single maternal blood sample to see if they can detect a wide range of fetal genetic conditions in pregnant people with various risk factors.
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Natural history of type I interferonopathies in a European patient group
This project will follow people with genetically confirmed type I interferonopathies across European centers to see how the disease develops and which clinical and blood markers track disease activity.
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Speech-generating device to help communication in childhood dementia
This project will test whether giving children with childhood dementia a speech-generating iPad app helps them communicate better than their usual care.
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Using AI to enhance cardiology patient care
This study is testing if using AI tools can help cardiologists make better decisions when treating patients with heart conditions compared to traditional methods.
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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.
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Gene testing for diagnosing and treating heart disease
This study is trying to see if gene testing can help doctors better diagnose and treat heart conditions related to arrhythmias in patients at the Cardiogenetic Center in Italy.
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Exploring genetic factors in childhood asthma
This study is trying to see if certain genetic factors are linked to asthma in children to help find better treatments and prevention methods.
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Enhancing collaboration for genetic disease diagnosis in critically ill infants
This study is testing whether a new genetic testing method can help doctors quickly diagnose genetic diseases in critically ill infants to provide them with the right treatment sooner.
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Precision diagnosis and therapy for rare eye and neuromuscular diseases
This study is testing new ways to find the genetic causes of rare eye and muscle diseases to help create more personalized treatments for patients.
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A platform to support pediatric neurogenetic diagnosis
This study is testing a new tool to help doctors better diagnose genetic neurological diseases in children and see if it improves the quality of their referrals and evaluations.
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Natural history study of STXBP1 and SYNGAP1 related disorders
This study is trying to learn more about STXBP1 and SYNGAP1 related disorders by collecting information from participants over five years to help improve future treatments.
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Observing the natural history of mitochondrial diseases
This study is tracking 400 people with mitochondrial diseases and 100 healthy individuals over 10 years to see how the disease affects them and to help improve future diagnosis and treatment.
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Investigating thalidomide's effects on beta thalassemia
This study is testing whether low doses of thalidomide can help young people with beta thalassemia manage their condition better and reduce the need for blood transfusions.
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Collection of biological samples for rare pediatric autoimmune and autoinflammatory diseases
This study is collecting blood and tissue samples from kids with rare autoimmune diseases to help researchers learn more about these conditions and improve diagnosis.
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Newborn screening for genetic diseases using genome sequencing
This study is testing a new way to screen newborns for genetic diseases using advanced DNA testing to see if it can find more conditions than the usual methods.
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Comparing speech perception in cochlear implant patients and those receiving gene therapy for hearing loss
This study is trying to see how well people with cochlear implants hear and understand speech compared to those who have received gene therapy for hearing loss.
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Genomic testing for newborns in intensive care
This study is testing a quick genetic test for sick newborns in intensive care to see if it can help find hidden genetic diseases that regular treatments don’t explain.
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Cohort study on neurogenetic diseases
This study is trying to help people with rare inherited brain disorders by collecting health information and samples over three years to improve research and future treatments.
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Comparing two methods for sperm preparation in IVF
This study is testing which of two sperm preparation methods helps improve the chances of having healthy embryos for couples undergoing IVF.
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Observing the natural history of patients with HPDL mutations
This study is trying to learn more about people with HPDL mutations and their related mitochondrial diseases by collecting health information and blood samples to see how these conditions change over time.
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Database for children with severe obesity
This study is collecting information from young children with severe obesity to better understand how it develops and find out who might need extra help.
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Understanding inherited risk factors for lung cancer
This study is trying to understand how genetic factors affect the risk of lung cancer in people with little tobacco exposure, especially those with family histories of the disease.
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Understanding Chopra-Amiel-Gordon Syndrome and its effects
This study is creating a registry to learn more about Chopra-Amiel-Gordon Syndrome by gathering information on symptoms, brain scans, and learning challenges from people with the condition.
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Identifying genetic causes of rare diseases
This study is trying to find out if certain genetic changes are linked to rare diseases by looking at samples from patients whose conditions are not well understood.
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Registry for individuals with Rett syndrome
This study is gathering information from people with Rett syndrome and their caregivers to help improve care and develop new treatments for the condition.
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Using advanced imaging to study retinal disorders
This study is testing a new imaging technology to see how it can help understand and track changes in the eyes of people with inherited and acquired retinal disorders.
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Identifying genes in systemic autoinflammatory diseases
This study is trying to find new genes linked to rare autoinflammatory diseases to help doctors diagnose and treat patients better.
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Observational study on young adult cancer survivors
This study looks at young adults who have survived cancer to see how their long-term health and quality of life are affected.
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Program for discovering undiagnosed genetic diseases
This study is trying to find new genetic causes for rare diseases by testing the DNA of 500 people who haven't been diagnosed yet.
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Long-term follow-up for patients using preimplantation genetic testing
This study is trying to learn about the long-term experiences and outcomes of people who have used preimplantation genetic testing during IVF to help improve care in reproductive genetics.
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Observing the natural history of a rare brain disorder called LBSL
This study looks at how a rare brain disorder called LBSL affects movement and thinking in patients to better understand their challenges and improve their quality of life.
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Protocols to model genetic diseases with induced pluripotent stem cells
This project will test methods to create and use induced pluripotent stem cells from people with genetic diseases and from healthy controls to build 'disease in a dish' models.
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Using rifampin to treat hypercalcemia in patients with CYP24A1 mutations
This study is testing if rifampin can help people with CYP24A1 mutations lower their high calcium levels and improve their health.
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Biobank for stroke and related genetic research
This study is collecting blood and tissue samples from patients to help researchers learn more about the genetic causes of stroke and related diseases.
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Using genomic sequencing to diagnose birth defects in newborns
This study is testing if a new DNA testing method can help doctors diagnose birth defects and genetic diseases in newborns faster and more accurately than the usual method.
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Evaluation of individuals with undiagnosed genetic disorders
This study is trying to help people with undiagnosed genetic disorders by using expert evaluations and genetic testing to find answers about their conditions.
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Collection of genetic material and data for future research
This study is collecting genetic samples and health information from new patients to help researchers learn more about genetic diseases and find new treatments.
NIH-funded research (14)
Early-stage science funded by the US National Institutes of Health. Most of these projects don't enroll patients, but they show what is being worked on.
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Evidence-based diagnostic criteria for pediatric genetic diseases
A clinician-scientist is testing clearer, data-driven criteria to diagnose rare genetic diseases in children, starting with Basal Cell Nevus Syndrome, to help families get faster, more accurate genetic testing.
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Mapping protein changes that cause cystic fibrosis
This project uses a new computer method to map how genetic changes in the CFTR protein affect its folding and trafficking, with the goal of guiding treatments for people with cystic fibrosis.
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National primate embryo resource for human genetic disease models
They are building a national collection of primate embryos that carry human-like genetic mutations to help speed development of new treatments for inherited diseases.
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Creating better animal models for Alpha-1 antitrypsin deficiency
This work aims to develop improved animal models to help us understand and find new treatments for Alpha-1 antitrypsin deficiency.
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Improving diagnosis of rare genetic diseases in children
This study is working to improve how doctors diagnose over 7,000 rare genetic diseases in children by creating better guidelines that combine medical history, physical exams, and lab results, so kids can get the right treatment more easily.
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Investigating how RNA structure changes contribute to genetic diseases
This study is looking at how the shape of RNA affects how genes work after they are copied, which could help us understand more about certain diseases and genetic disorders.
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Improving rat genome assembly to better understand complex diseases
This study is working to make the genetic information about rats even better, which will help scientists understand diseases like brain disorders and addiction, ultimately leading to better treatments for patients.
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Understanding how genetic changes affect protein folding in diseases like cystic fibrosis
This study is looking at how changes in our genes affect the way proteins, like the one involved in cystic fibrosis, are shaped and work, with the hope of finding better treatments for people with this condition.
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Understanding how adults with childhood genetic diseases plan for their futures
This study is looking at how adults who were diagnosed with genetic diseases as kids are managing their lives and health now that treatments are improving, and it aims to understand their experiences and needs as they grow older.
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Correcting genetic diseases using precision genome editing
This study is exploring new ways to fix genetic problems that cause heart issues like dilated cardiomyopathy, using special techniques that could allow for a one-time injection to make lasting changes, and it's currently being tested in mice to see how well it works.
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Analyzing how genetic variations affect protein function in diseases
This study is looking at how changes in our genes can affect proteins in the body, especially for people with rare neurodegenerative diseases, to help us understand these conditions better and find new treatments.
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Creating a resource of non-human primate models for human genetic diseases
This study is working to create a special resource of non-human primates that can help scientists test new treatments for genetic diseases that affect humans, with the hope of finding better options for patients facing tough health challenges.
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Creating animal models to test therapies for Alpha-1 antitrypsin deficiency
This study is creating special mice and ferrets to help test new treatments for Alpha-1 antitrypsin deficiency, which could lead to better options for people living with this condition.
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Understanding how genetic disease risks change over time and among different populations
This study is looking at how the risks of genetic diseases have changed over time by examining DNA from both ancient and modern people, especially from groups that haven't been studied much before, to help create better health tools for everyone, no matter their background.
Related topics
Quick answers
How many Genetic Disease clinical trials are recruiting right now?
39, as of November 12, 2026. We update this list each time we refresh our data from ClinicalTrials.gov.
Where are these trials running?
In 21 countries. The most sites are in United States (13 trials), China (6 trials), France (6 trials), Italy (4 trials), United Kingdom (2 trials). Each study page lists its sites and which ones are recruiting.
What phases are they in?
Phase 2: 2. Trials with no phase listed are usually device, behavioural or observational studies.
How do I join one?
Open a study, check the "Is this trial a fit for you?" section, then contact the study team listed on the page. They will ask a few screening questions. Asking is free and does not commit you to anything. Talk it over with your doctor first.
Find the studies that fit you
A list is a starting point. Tell us your situation in your own words and we'll rank the studies that match and explain why. It's free and needs no account.