Precision health means giving medical treatments that fit each person’s unique traits. These traits include genes, biomarkers in blood or tissue, visible features, and social factors like lifestyle and surroundings. The aim is to move past one-size-fits-all treatments and find care that fits each person better.
To do this, precision health depends on big sets of data that mix different types of details:
The American Medical Association (AMA) asked over 1,000 doctors and found that almost two out of three think AI helps use this complicated data well. AI programs can study and understand data faster and better than people alone, helping doctors give more personalized diagnoses, predictions, and treatments.
Even though precision health has many possibilities, many research data sets lack diversity. This means they often miss racial and ethnic minorities, people from different backgrounds, income levels, and places. When data mostly comes from similar groups, AI models for diagnosis or treatment may be biased or less accurate for groups that are less included. This can make health gaps worse instead of better.
The AMA says it is important to include diverse groups in research to avoid unfair results. Some diseases affect groups differently, and genetic markers may be more or less important depending on the group. Without diverse data, important biological differences may be missed, and some communities may not get the benefits of precision health advances.
Collecting data over time about patients’ health, called longitudinal data, makes research even better. But electronic health records (EHRs) often do not have complete patient histories. This limits how well AI can analyze the data. Collecting full, varied, and ongoing data is needed to build strong AI models.
One problem for fair precision health is that many electronic health records do not have full patient histories. Without full records, AI cannot fully find patterns or predict risks right. Also, privacy worries about storing and sharing sensitive genetic and clinical data can make some groups, especially those who have been treated unfairly before, hesitant to take part.
Privacy concerns also affect data quality and access. Researchers must use strong encryption, remove identities, and control who sees the information to protect patients. These safety rules help but also make it harder to create large, combined data sets.
Another issue is AI models need testing with diverse data to be fair. For example, polygenic risk scores (PRS) predict disease risk based on many genetic variants and must be checked in various ancestral groups. Studies like the Finnish GeneRISK and the eMERGE Network showed how combining genetics and clinical records helps predict diseases early, but these studies also show the need to include more kinds of people in the US.
There are programs in the United States working on closing the diversity gap in precision health research. The All of Us Research Program, supported by the National Institutes of Health, collects genetic, environmental, and lifestyle data from a big and mixed group of people to match America’s broad population. It lets participants get personal genetic results and counseling, helping build trust and openness.
Community programs like the Jackson Heart Study and Federally-Qualified Health Centers work closely with underserved groups. These partnerships help build trust, teach about genetics, and keep people involved, which is needed to gather varied and useful data.
Promoting diversity means more than just including people from different racial or ethnic groups. It also means collecting data about many health factors, such as income, location, and environmental exposures. This helps improve understanding and care related to social factors that affect health.
Healthcare technology companies, such as Simbo AI, help make precision health easier to use in regular clinics. Simbo AI focuses on automating phone tasks and AI answering services. These tools help medical offices improve data collection, engage patients, and run smoothly.
By automating phone calls, scheduling, and patient questions, Simbo AI lets staff spend time on more important work. This cuts down on wait times and missed calls, which can unfairly affect patients who have less access to healthcare or technology.
Clinics using AI automation get better patient data and quicker updates to electronic health records. For example, confirming appointments and collecting health info through automated calls or messages helps keep patient records full and up-to-date. These workflows support precision health by creating richer data sets for AI analysis later.
Automated systems also provide steady communication that fits what patients prefer. Patients who are not comfortable with online portals or who speak different languages can use AI phone services that understand and reply in clear language that suits them.
On the clinical side, AI tools that study genetic and clinical data need strong electronic records and good data to work well. Automating workflows reduces human errors and differences in how data is entered. This helps keep data quality high over time. IT staff and administrators should see these technology tools as important steps to build a good system for precision health.
To make precision health work for all groups, teamwork is needed. Doctors, researchers, health IT experts, patients, advocacy groups, and policymakers all need to work together. The AMA points out that being open and involving communities helps build trust, especially for groups who have been left out or treated badly in the past.
Health administrators and IT managers can support projects that focus on recruiting diverse participants and involving them in research decisions. This helps studies meet the needs of the community and respect different cultures, which improves participation and data quality.
Working with other countries and sharing data across big studies, like the UK Biobank and the Million Veteran Program, show good ways to combine data. This improves AI research and makes tools more accurate, helping patient care for many groups.
Medical leaders in the US can take several steps to make sure precision health research helps everyone fairly:
By focusing on diverse data and using AI tools carefully, medical practices can help reach fair results in precision health. This will help all patients get good care, no matter their background. Staying committed to including everyone, doing ethical research, and using technology well will help healthcare providers meet the needs of many different patients in the future.
Precision health is a healthcare approach that tailors diagnosis, prognosis, and treatment to individual patients based on their unique genetic, biomarker, phenotypic, or psychosocial characteristics.
AI augments clinicians’ capacity to analyze and interpret complex data, aiming to provide more personalized, efficient, and effective care to improve patient outcomes.
Challenges include lack of diverse datasets, data privacy concerns, incomplete health histories in electronic records, and worsening health inequities.
Diverse datasets are crucial to avoid health inequities and limit biological discoveries, ensuring that all patient groups benefit from advancements in health.
Longitudinal data helps create comprehensive datasets for research by following patient health histories over time, which is essential for effective AI application.
Improved diversity can be achieved by diversifying study populations and the biomedical research workforce and enhancing data depth beyond race and ethnicity.
Routine genomic analysis may transition to standard practice, allowing for better understanding, prevention, detection, and treatment of diseases.
Concerns about data privacy can hinder participation, especially among historically marginalized groups, impacting the inclusivity of precision health efforts.
Strategies include international collaboration, diverse research participants, comprehensive population measurements, and integrating knowledge into clinical practices.
Technology, including AI, should be designed as an asset rather than a burden, enhancing usability in electronic health record systems and clinical practice.