Vibroacoustic Study of Lung Development in Newborn Infants
Purpose
Investigators hypothesize that premature newborns with poor cardiopulmonary performance have higher morbidities and poorer physical and cognitive developmental outcomes. Investigators further hypothesize that audible sounds combined with novel inaudible vibrations above and below human perception interpreted with transparent and auditable AI algorithms can detect and identify early gas and fluid movement anomalies not uncovered by conventional tools in an non-invasive, easy, fast, and low cost examination.
Conditions
- Prematurity
- Premature Birth
- Premature Lungs
- Prematurity; Extreme
Eligibility
- Eligible Ages
- Between 0 Years and 2 Years
- Eligible Genders
- All
- Accepts Healthy Volunteers
- No
Inclusion Criteria
- Eligible participants include all infants admitted to the NICU.
Exclusion Criteria
- There are no exclusions to enrollment in this study.
Study Design
- Phase
- Study Type
- Observational
- Observational Model
- Cohort
- Time Perspective
- Prospective
Arm Groups
Arm | Description | Assigned Intervention |
---|---|---|
Neonatal Profile | LUSS will be obtained twice a week on the following schedule for the duration of each subject's NICU stay. Day of life (DOL): 7+/-1, 10+/-1, and 14+/-1 Depending on length of stay, within +/-2 days of: DOL 17, 21, 24, 28, 31, 35, 38, 41, 44, 48, 51, 56, and 60. |
|
Recruiting Locations
Washington, District of Columbia 20007
More Details
- Status
- Recruiting
- Sponsor
- Level 42 AI, Inc.
Detailed Description
Worldwide preterm birth (<37 weeks of gestation) affects approximately 10% of live births and is the leading cause of death in children less than 5 years of age. Preterm birth disrupts normal lung development leading to several respiratory complications in the neonatal period and later in life. Consequently, factors that negatively affect prenatal and early life respiratory growth can compromise the achievement of "personal-best lung function". This novel study will generate normative, audible/inaudible frequencies, visible/invisible frequencies, and perceptible/imperceptible energies, termed vibrome biosignatures, of cardiopulmonary development and function during early postnatal development. Once baseline patterns are established, future studies will be designed to characterize vibrome biosignature differences across acute neonatal respiratory problems, such as respiratory distress syndrome, meconium aspiration, sepsis, persistent pulmonary hypertension, and congenital heart disease.