| Course | AHP1 AI for Healthcare Professionals |
|---|---|
| Task | Task 1 |
| Paper type | AI tool evaluation |
| Length | About 1,200 words, 3 pages |
| Format | APA 7 |
| School | Western Governors University (WGU) |
| Program | BS Health Science |
| Updated | September 2026 |
Free sample paper for AHP1 Task 1
A Camera, an Algorithm and a Referral: Evaluating an Autonomous AI Diabetic Eye Exam for a Composite Primary Care Clinic, With Human Oversight, Scope of Practice and Patient Communication Defined
Student Name
Leavitt School of Health, Western Governors University
AHP1: AI for Healthcare Professionals, Task 1
Course Instructor
Month Day, Year
A Camera, an Algorithm and a Referral: Evaluating an Autonomous AI Diabetic Eye Exam for a Composite Primary Care Clinic, With Human Oversight, Scope of Practice and Patient Communication Defined
The Clinical Problem
Diabetic retinopathy, damage to the blood vessels of the retina caused by diabetes, is a leading cause of preventable vision loss in working-age adults. It causes no symptoms until it is advanced, so people with diabetes are advised to have a retinal exam every year or two. Many do not. At Northside Family Health, a composite primary care clinic serving about 2,400 adults with diabetes, only 38% had a documented eye exam in the past year. Patients cited the cost of a separate eye appointment, the drive to the nearest eye care practice 40 minutes away, time off work and not understanding why an eye exam mattered when they could see fine. The clinic's leadership is considering an autonomous artificial intelligence system that would perform the exam during routine primary care visits.
How the Tool Works
In the system under consideration, a medical assistant uses a retinal camera to photograph the back of each eye, usually without dilating the pupils. The images are sent to an AI algorithm that analyzes them and returns a result within minutes: negative for more than mild diabetic retinopathy, with a recommendation to rescreen in 12 months; positive, with a recommendation to see an eye care professional; or insufficient image quality. The system is autonomous, meaning it makes the diagnostic determination itself rather than flagging images for a specialist to read. The first such device, IDx-DR, was classified by the U.S. Food and Drug Administration through its De Novo pathway in 2018 for use by health care providers in adults with diabetes not previously diagnosed with retinopathy. The FDA's summary states plainly that the device detects only diabetic retinopathy, does not screen for glaucoma or other conditions and does not treat anything (U.S. Food and Drug Administration, 2018).
The Evidence
Accuracy: In the clinical study the FDA reviewed, 900 adults with diabetes and no history of retinopathy were enrolled at 10 primary care sites. Compared with a rigorous reference standard graded by an expert reading center, the system identified more than mild retinopathy with an enrichment-corrected sensitivity of 87.2% and specificity of 90.7%, and it produced a usable result for 96.1% of participants; the FDA found no significant differences in sensitivity by age, sex, race or ethnicity (U.S. Food and Drug Administration, 2018). Put simply, it caught about 87 of every 100 people with significant disease and correctly cleared about 91 of every 100 without it. Operators received standardized training before the study.
Outcomes: Accuracy matters only if it changes what happens to patients. In a randomized trial among youth aged 8 to 21 with diabetes, 100% of those offered the AI exam at their diabetes visit completed an eye exam within six months, compared with 22% of those given a referral to an eye care provider; among those with abnormal results, 64% in the AI group followed through with an eye care provider, compared with 22% in the control group (Wolf et al., 2024). The trial was conducted in one academic pediatric center, so results in adults at a community clinic may differ, but it shows that bringing the exam to the visit removes the main barrier.
Risks
Missed disease: a sensitivity of 87% means some patients with significant retinopathy will be told their exam is negative. The clinic must explain that no screening test is perfect and keep annual rescreening. Scope of detection: patients may assume a negative result means their eyes are healthy, when the system does not look for glaucoma, cataracts or other conditions.
Bias: AI systems can perform differently across groups. A widely used commercial algorithm for identifying patients with complex health needs was found to underestimate the needs of Black patients because it used past spending as a stand-in for need, and less money is spent on Black patients' care; fixing that single design choice would have lifted Black patients' share of those flagged for extra help from 17.7% to 46.5% (Obermeyer et al., 2019). That example involved a different kind of algorithm, but it shows why the clinic should ask the vendor for performance data by race, ethnicity, age and sex, and should monitor its own results, including the rate of insufficient images, which can be higher in patients with cataracts or small pupils.
Privacy and security: retinal images are protected health information and are sent to the vendor's cloud for analysis. The clinic will require a business associate agreement, encryption and a clear statement that images will not be used for other purposes without consent. Workflow: if positive results are not followed up, screening adds no value, and it may create liability.
Human Oversight and Scope of Practice
Autonomy in diagnosis does not remove human responsibility. The clinic will assign it by role. Medical assistants, trained and competency-checked by the vendor and the clinic's nurse manager, will capture images and repeat them if quality is insufficient; they will not interpret or explain results beyond reading the standard patient script, which is within their scope. The primary care clinician remains responsible for the patient's diabetes care: reviewing each result, discussing it with the patient, placing the referral for positive or insufficient results and documenting the plan. A registered nurse care coordinator will track every positive and insufficient result until the patient has seen an eye care professional, and will call patients who have not scheduled within 30 days. An optometrist partner will accept referrals and share findings back with the clinic. A quarterly review by the medical director will examine completion rates, referral follow-through, insufficient-image rates and results by patient group. The clinic will not use the tool for patients with known retinopathy, who need ongoing specialist care.
Communicating With Patients
Patients will be told plainly, in English or Spanish, that a computer program will read their eye photos, that it has been tested and authorized by the FDA, that it checks only for diabetes-related eye damage, and that a clinician reviews the result with them. Patients may decline and be referred to an eye care practice instead. Positive results will be explained as a reason to see an eye specialist soon, not as a diagnosis of blindness, and the care coordinator will help with scheduling and transportation. Negative results will be explained as reassuring but not a substitute for next year's exam or for reporting vision changes.
Recommendation
The clinic should adopt the system, with conditions: vendor performance data by patient group before purchase, a signed business associate agreement, trained and competency-checked medical assistants, a care coordinator responsible for follow-through, clear patient scripts and quarterly review of results. With these safeguards, the tool addresses the clinic's real barrier, getting patients an eye exam at all, while keeping clinicians accountable for decisions and patients informed about how their care is delivered.
References
Obermeyer, Z., Powers, B., Vogeli, C., & Mullainathan, S. (2019). Dissecting racial bias in an algorithm used to manage the health of populations. Science, 366(6464), 447-453. https://doi.org/10.1126/science.aax2342
U.S. Food and Drug Administration. (2018). De Novo classification request for IDx-DR (DEN180001). https://www.accessdata.fda.gov/cdrh_docs/reviews/DEN180001.pdf
Wolf, R. M., Channa, R., Liu, T. Y. A., Zehra, A., Bromberger, L., Patel, D., Ananthakrishnan, A., Brown, E. A., Prichett, L., Lehmann, H. P., & Abramoff, M. D. (2024). Autonomous artificial intelligence increases screening and follow-up for diabetic retinopathy in youth: The ACCESS randomized control trial. Nature Communications, 15, 421. https://doi.org/10.1038/s41467-023-44676-z
What the AHP1 Task 1 instructions ask
The AHP1 task asks you to evaluate an artificial intelligence tool used in healthcare. Most versions ask you to describe the clinical problem the tool addresses, explain how the tool works in plain terms, review the evidence on its performance, identify risks including bias and privacy, describe human oversight and scope of practice, explain how patients would be informed and make a recommendation. The tool should be real and documented, so its evidence can be checked. Evaluators look for accuracy figures reported with their meaning, risks tied to the specific tool rather than general fears about AI, and oversight assigned to named roles. A recommendation that simply says yes or no, without conditions, misses the judgment the course is built around.
How this AHP1 Task 1 example is built
The evaluation opens with the clinical problem so the reader understands why the tool matters. The technical section describes the workflow from camera to result in steps a clinic manager could follow. The evidence section reports sensitivity and specificity from the regulatory study and explains what those numbers mean for a clinic's patients. Risks are specific: missed disease, image quality failures, uneven performance across groups and data handling. The oversight section assigns duties to medical assistants, clinicians and managers and connects each to scope of practice. Patient communication is written in plain language. The recommendation adopts the tool with named conditions, such as performance data by patient group before purchase.
Where the AHP1 Task 1 rubric puts the marks
AHP1 Task 1 aspects are rated competent, approaching competence or not evident. A problem aspect checks that the clinical need is explained. A function aspect looks for an accurate, plain description of how the tool works. An evidence aspect rewards performance data reported and interpreted correctly. A risks aspect asks for specific concerns, including bias and privacy. An oversight aspect wants roles and scope of practice defined. A communication aspect looks for how patients will be informed. Evaluators expect a recommendation that follows from the evidence and risks, with regulatory and research sources cited. Evaluations that name what would make the clinic stop using the tool show especially mature judgment.
AHP1 Task 1 help: what sends it back
AI evaluations come back most often when accuracy is reported without meaning. Explain what a sensitivity of 87% means for patients who have the disease. Second, risks are generic, such as AI may be wrong. Name the failure modes of this tool and how the clinic would catch them. Third, bias is mentioned without evidence. Cite research on how algorithms can perform differently across groups. Fourth, oversight is assigned to the clinic as a whole. Name roles and duties. Finally, avoid marketing language. Describe the tool neutrally and let the evidence decide the recommendation, since evaluators read for critical judgment rather than enthusiasm. Finally, date every performance figure, since AI products are updated and older results may not describe the version a clinic would buy.
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AHP1 Task 1 questions, answered
Is the AI system in the AHP1 sample real?
The eye exam system described follows a real, FDA-authorized category of autonomous diabetic retinopathy tools, and the study figures come from published sources. The clinic itself is a composite.
Does AHP1 Task 1 need a recommendation?
Yes. Evaluators expect a clear recommendation that follows from the evidence and risks. The sample recommends adoption with conditions, such as performance data by patient group and a signed data agreement.
What does scope of practice mean in AHP1?
It means which professional may perform or act on each part of the AI workflow under their license. The sample assigns imaging to trained assistants and follow-up decisions to clinicians.
How should AHP1 address bias in AI tools?
Cite evidence on how algorithms can perform differently across patient groups, then ask the vendor for results by group and plan to monitor your own outcomes, as the sample does.
Where can I find a free AHP1 Task 1 sample paper?
The whole AI tool evaluation is reproduced above with commentary. Name the tool you are evaluating in your AHP1 instructions, and your first tailored evaluation is free.