Bedside Detective: A Starting Point for a Community College Team
Building Nurse Arcade has shown me how much a small project can become. Medication games, dosage practice, equipment trainers, and classroom activities now share a browser-based platform built for less than $1,000 in out-of-pocket spending, excluding my time. For the Community College Innovation Challenge, I would use that work as a demonstration of what is possible on a limited budget. The competition project would be something an interdisciplinary student team develops together.
The starting point I have in mind is Bedside Detective: a clinic with patients who have stories and charts. The prototype introduces those patients and gives the team a shared starting point. What it becomes is open. It could take many different directions, shaped by the interests and ideas of the people who build it together.
I would like to build a team with other nursing students and students in graphic design and computer science. Together, we could bring nursing knowledge, visual design, and programming skills to the project. A faculty mentor could help the team connect its ideas to educational goals, evidence, and the realities of using a learning tool in a course. The purpose would be to develop a shared project, with the team deciding the problem it wants to address and the form the solution should take.
CCIC is organized by the American Association of Community Colleges with the National Science Foundation. Its currently published 2026 rules call for two to four students from the same institution and a faculty or administrator mentor. They also require original work independently developed by the student team and prohibit entering an innovation already submitted to another competition. The next cycle’s requirements will need to be checked when published. Nurse Arcade and these existing character materials would be disclosed as prior work; a future entry would need a clearly identified, original contribution from the team. Calling it a new project would not, by itself, settle eligibility.
A branching game offers one way to explore this idea. A learner makes a choice and sees what follows. They can revisit the situation and consider how another choice changes the outcome. The educational opportunity is to connect a decision with its consequences and make room for reflection. The team would decide which decisions are worth practicing and what meaningful feedback looks like.
There are existing tools for this kind of storytelling. Ink, from inkle, is an open-source narrative engine for stories with branching choices and conditional logic. Its companion editor, Inky, lets the team test choices as they work and export a story to the web. Both are available under the MIT license. An engine like this could handle the branching structure while a team concentrates on the characters, educational content, and learner experience. It is one option to consider together, rather than a technology decision already made for the team.
Recent research offers a reason to explore educational games. A 2026 randomized controlled trial published in Nurse Education in Practice studied 99 first-year nursing students, divided equally among serious-game training, interactive-video training, and a control group. After two weeks of training focused on parenteral medication administration, both the game and video groups performed significantly better on assessed psychomotor skills than the control group. They also reported lower stress and greater satisfaction and self-confidence in learning. The study provides a concrete example of an educational game supporting nursing students’ learning, alongside the other teaching approaches available to educators.
Cost and access are part of that educational question. The National Academies’ The Future of Nursing 2020–2030 identifies financial barriers that extend beyond tuition to books, supplies, and other expenses. There is substantial use of affordable alternatives: CVTC reported in 2024 that its free Open RN textbooks had reached more than three million users at over 100 institutions. A browser-based communication game could add another form of practice on devices students already use, without requiring a headset or a dedicated simulation room. Disability access, internet access, and usable design would still matter.
Using an open-source engine could avoid a proprietary engine licensing expense. Reusing web technology also offers a practical way to begin with a small budget. Writing, review, testing, hosting, and maintenance still take resources, but the existing arcade demonstrates that creating an interactive educational prototype does not necessarily require a large initial investment.
Making learning more accessible is also a problem that student teams have brought to CCIC. Past winners offer a useful way to see how an educational tool can fit a competition focused on practical solutions to real-world needs. For example, SUNY Broome won first place in 2026 with Hands-On Quantum Education, a portable, affordable optics lab designed to make an unfamiliar subject easier to learn through experience. Its subject and equipment are different, but its focus on access to practical learning is relevant. Other winning projects have addressed different needs: Dallas College’s AMBER project placed second in 2024 for Autonomous Monitoring for Blaze Emergency Response. The past-winners collection shows the range of problems student teams have brought to the competition.
CCIC’s published judging guidance asks teams to explain a societal need, the novelty and feasibility of their response, and the measurable benefits it could produce. It also asks them to consider how an idea can become available and affordable in the real world. Nursing gives those questions a human context: nurses protect patients and help save lives. Preparing students for that responsibility is a societal need with relevance far beyond the classroom. An affordable educational game could give students more opportunities to practice noticing important information, making decisions, and thinking through consequences before they encounter similar situations in patient care. That connection between accessible learning and preparation for work that matters to people’s lives gives the team a meaningful opportunity at CCIC. The team could make its case by identifying a specific learning need and showing what students gain from the experience.
A nursing student may have only a few chances to encounter a particular situation during a clinical rotation. A game could offer another chance to pause, notice something new, and try a different approach. What might become possible if that opportunity were available whenever a student had time to practice?
