Each year, one in every 1,100 babies worldwide is born with Down syndrome. In some regions of the world, the rate is as high as one in 350. This genetic disorder occurs when an infant is born with an extra chromosome. Children with the disorder have a high incidence of serious medical complications and intellectual disability. Nearly 50 percent of infants with Down syndrome will develop heart disease that requires treatment and usually surgery. Because of these related complications, it's critical that doctors detect Down syndrome as early as possible.
The team at Children's National is creating a new software program that can assess a child immediately after he or she is born, without the need for blood tests or specialized analysis. This simple and non-invasive test uses sophisticated automated facial recognition as a screening tool and can provide almost instant results.
Your donation will fund camera equipment, a study coordinator to enroll and photograph subjects, and a digital image analyst who will develop the software algorithm necessary to diagnose Down syndrome with accuracy. These efforts will improve the lives of children with Down syndrome. | Use | Amount |
| 1-6 months | |
| Digital cameras—2 setups with 5 cameras each: 1 for neonates, 1 for older children | $400 x 2 |
| Study coordinator for photo acquisition—part time | $7,500 |
| Digital image analyst—full time | $26,000 |
| Manufacture of frames for picture acquisition | $2,000 |
| Software and development tools (Matlab toolbox, IEEE database, etc), materials | $2,000 |
| Subtotal | $41,500 |
| 7-12 months | |
| Study coordinator for photo acquisition—part time | $7,500 |
| Digital image analyst—full time | $26,000 |
| Subtotal | $33,500 |
| 13-18 months | |
| Digital image analyst—full time | $26,000 |
| Subtotal | $26,000 |
| 19-24 months | |
| Digital image analyst—full time | $26,000 |
| Subtotal | $26,000 |
| Total | $127,000 |
| Time | Aim | Task |
| 1-6 months | Data acquisition and algorithm development |
1. Manufacture the imaging frame and setup cameras |
| 2. Start image collection (both normal and abnormal cases) | ||
| 3. Database management | ||
| 4. Clinical assessment of data | ||
| 5. Develop the facial image analysis algorithm | ||
| 7-12 months | Development of the first prototype of the computer- aided diagnosis system |
1. Continue image collection (both normal and abnormal cases) |
| 2. Develop the computer-aided diagnosis system | ||
| 3. Testing and validation | ||
| 4. Clinical assessment of data | ||
| 13-18 months | Clinical evaluation | 1. Clinical validation of the computer-aided diagnosis tool |
| 2. Test and evaluate the software | ||
| 3. Incorporate feedback by clinicians | ||
| 19-24 months | Extend outreach | 1. Extend the system to remote diagnosis |
| 2. Testing and validation | ||
| 3. Dissemination of results |
| Donation | Incentive |
| Any sum | Receive quarterly research updates |
| $100 or more | Admission to online webinar by Dr. Marshall Summar |
| $500 or more | Name recognition as sponsor in materials for online seminar by Dr. Marshall Summar |
| $1,000 or more | "Circle of Hope" Name recognition as sponsor in materials for online seminar by Dr. Marshall Summar; Invitations to attend signature events to meet hospital physicians, researchers, and other leading donors |
| $2,500 or more | "Circle of Compassion" All Circle of Hope privileges, plus: Invitation to tour the Research Institute with project researchers |
| $5,000 or more | "Circle of Promise" All Circle of Compassion privileges, plus: Invitation to attend the Innovation Rounds lecture by project researchers |
| $10,000 or more | "Children's Circle of Care" All Circle of Promise privileges, plus: National recognition in the Children's Circle of Care annual report |
| Pledge of full $127,000 | First page name recognition/acknowledgement as Supreme Funder, including recognition in software package material and personal tour through institute with researchers. |
Dr. Linguraru is a principal investigator in the Bioengineering Initiative of the Sheikh Zayed Institute for Pediatric Surgical Innovation. Within the Bioengineering Initiative, Dr. Linguraru leads the medical image analysis efforts and will develop tools for computer-aided diagnosis and modeling of anatomy and physiology in children. His work on pioneering imaging techniques has enhanced traditional medical imaging modalities and created modern clinical tools for radiology, oncology, and minimally invasive interventions.
Marshall Summar is the Chief of the Division of Genetics and Metabolism and the Margaret O'Malley Chair of Molecular Genetics at Children's National Medical Center. Dr. Summar's clinical work focuses on new and innovative ways to provide genetics services both nationally and internationally. He is also working on translational work with patients with Down syndrome and other conditions to inform other medical fields. Dr. Summar's laboratory research has focused on the study of inborn errors of metabolism particularly those in the urea cycle and Down syndrome. His research involves translational studies taking basic molecular genetics research and developing direct clinical applications. He also is the Director for the NIH sponsored Clinical Research Services Core at Children's National. His work has piloted treatments from the rare disease field to common conditions especially in the intensive care and emergency room setting. His work in the urea cycle has involved the development of treatment protocols, translational research, and basic molecular research into these rare defects in nitrogen metabolism. He is one of the 3 Principal Investigators of the Urea Cycle Disorders Consortium and works with international coordination of its efforts. Current research projects involve clinical trials working to improve the outcomes of patients with congenital heart defects, acute lung injury, asthma, and premature infants using compounds from metabolic pathways he studies.