View clinical trials related to Genetic Diseases, Inborn.
Filter by:This study collects data on children with severe, early-onset obesity.
This research project aims to utilise recent advances in whole genome sequencing of preimplantation genetic diagnosis embryos to investigate the impact of paternal age on de novo mutation rates in IVF embryos. Embryos that are deemed unsuitable for transfer following preimplantation genetic testing for monogenic/single gene disorders (PGT-M) due to the detection of genetic abnormalities will be utilized for this study. These embryos will undergo re-biopsy, and both the biopsied samples as well as the remaining embryo tissue will be subject to whole genome sequencing. This will allow the assessment of de novo mutation rates based on the paternal age.
The Relaxation Response Resiliency Program (3RP) has shown efficacy in improving coping and resilience across diverse populations; however, little is known about how it helps individuals manage the challenges of living with a chronic illness. This study proposes to pilot test an adapted version of the 3RP among patients living with VHL.
This is a Phase 1 2-part, single-center, open-label study in healthy male volunteers. Part A will assess the absorption, metabolism, excretion, and pharmacokinetics of one oral dose of radiolabeled EDG-5506. Part B will assess bioavailability of EDG-5506 with a single oral dose of EDG-5506 and a single intravenous dose of radiolabeled EDG-5506.
The goal of this sequential study design is to increase genetic testing in those meeting national clinical guidelines. The main question it aims to answer is: which intervention is most effective in uptake of genetic testing for the target population? Participants will receive genetic testing and counseling that may initiate life-saving screenings.
The aim of this clinical study is the evaluation of clinical performance of a cell-based non-invasive test technology for fetal aneuploidies and segmental imbalances detection in a high-risk pregnancies population.
This is a placebo-controlled clinical trial to assess whether Guanfacine Extended Release (GXR) reduces aggression and self injurious behavior in individuals with Prader Willi Syndrome (PWS). In addition, the study will establish the safety of GXR with a specific focus on metabolic effects.
Background: The genes a person is born with can sometimes cause serious diseases. Genetic diseases are rare, but they can have a big impact on the people they affect. Researchers have already made great strides in understanding how some genes cause disease. But they would like to have even better tools to analyze and understand genetic data. To create these new tools, they need to gather health and genetic data from a lot of people. Objective: This natural history study will gather medical information from people with genetic conditions. Eligibility: People of any age who (1) are known or suspected to have a genetic condition or (2) have a family member with a known or suspected genetic condition. Design: Participants will come to the clinic for up to 4 days. Tests to be performed will vary depending on the nature of each participant s health issue. The tests may include: Blood and saliva. Blood may be drawn from a vein; cells and saliva may be collected by rubbing the inside of the cheek with a swab. These would be used for genetic testing. Imaging scans. Participants may have X-rays or other scans of their bodies. They may lie still on a table while a machine records the images. Heart tests. Participants may lie still while a technician places a probe on their chest. They may also have stickers attached to wires placed on their chest. Photographs and recordings. Pictures may be taken of facial features, skin changes, or other effects of the genetic condition. Video and audio recordings may also be made. Some people may be able to participate via telehealth.
It is estimated that 1 in 4 pregnancies end in loss, be these early miscarriages, ectopic pregnancies, or later intrauterine losses for any reason. Genomics is a major part of pregnancy loss, and clinicians want to offer the best and most appropriate test available to women and their families, whilst ensuring that there is equity in the access to this testing, so that no family goes through a loss without the right support and information. Whilst there is limited information to inform professionals as to how to incorporate genomics into bereavement care there is a need to identify current expert consensus as to how this should be performed, in order to make recommendations for best practice.
Patients with neurodevelopmental diseases and their families need to identify the genetic cause of the disease to allow for recognition of the disability, genetic counseling, and possible hope for participation in therapeutic research studies. Access to high-throughput genomic exome or genome analysis allows the identification of a genetic cause for approximately half of the patients. However, families with no result or with a variant of unknown significance after these tests may find themselves in a new diagnostic impasse. The high-throughput sequencing used today generates sequences of the order of 100 base pairs (so-called "short read" sequencing). This allows an analysis of about 90% of the genome. However, many regions are not accessible in regions of interest for the genetic diagnosis of rare diseases. Long fragment sequencing generates sequences that are about 20 times larger and its use has recently made it possible to sequence the human genome almost completely (https://www.science.org/doi/10.1126/science.abj6987). The main contribution lies in the analysis of complex regions of the genome such as segmental duplications or centromeric regions. It is likely that this technology increases the sensitivity of detection of genetic variants in patients with genetic diseases. Its contribution should be studied in patients for whom no genetic cause has been identified by classical techniques. This study aim to investigate the contribution of long fragment genome sequencing.