North Carolina A&T State University
Data Competition
Theme: Microtransit, Intercity, and Connected Rural Solutions
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North Carolina A&T State University
Data Competition
Theme: Microtransit, Intercity, and Connected Rural Solutions
Are you passionate about solving real-world
transportation challenges through data?
This is your chance to turn your ideas into impact!
Imagine living in a rural North Carolina county where your car breaks down unexpectedly. A ride-hailing trip to work costs nearly $50 each way, and borrowing a vehicle is not always an option. The nearest bus stop is several blocks away, with limited shelter, and the schedule is hard to interpret. A trip between nearby towns requires multiple transfers, long wait times, and careful planning just to arrive on time.
For many rural communities, daily mobility depends on a combination of intercity bus routes and county-level demand-responsive services. These services provide important connections, yet they often operate with limited coordination. Riders may need to switch between systems that use different schedules, booking processes, and payment methods. Small mismatches in timing or coverage can quickly turn a simple trip into a multi-hour journey.
Transportation providers operate within practical constraints as well. Travel demand varies by time of day and location, service areas are geographically spread out, and staffing and vehicle availability are limited. Planning decisions must balance coverage, reliability, and cost while responding to changing travel patterns.
The challenges facing rural transportation systems are therefore varied and interconnected. Addressing them requires thoughtful service design, careful use of data, and innovative approaches that reflect both community travel needs and operational realities.
This competition invites students to rethink rural mobility by designing AI-informed, data-driven concepts that connect intercity buses and microtransit into a coordinated, efficient, and user-friendly system. Student teams are encouraged to use real datasets and realistic assumptions to propose innovative yet feasible service designs for rural and suburban North Carolina in the Triad and the surrounding regions.
The goal of this competition is for student teams to identify and address a specific, well-defined mobility challenge within the intercity and microtransit systems serving rural areas of the North Carolina Triad region. Teams are expected to select a distinct pain point—such as service coverage gaps, transfer inefficiencies, demand uncertainty, operational constraints, or user experience challenges—and focus their analysis and design around that issue.
Students will develop AI-informed, data-driven service concepts that improve coordination between intercity bus routes and demand-responsive microtransit. Using real-world datasets and realistic assumptions about agency resources, teams will propose innovative yet feasible designs that enhance coverage, cost-efficiency, and overall system usability for rural communities.
Proposals should demonstrate how data, geospatial insight, and thoughtful service design can be combined to create more connected and adaptable rural transportation systems.
This competition focuses on rural and lower-density transit contexts in the Piedmont and Central Piedmont regions of North Carolina, with particular emphasis on travel patterns in and between the counties that surround the Greensboro–Winston-Salem–High Point metropolitan area.
The geographic study area includes the following nine counties: (a) Guilford County (Greensboro, High Point), (b) Forsyth County (Winston-Salem), (c) Rockingham County, (d) Stokes County, (e) Davidson County, (f) Randolph County, (g) Alamance County, (h) Chatham County, and (i) Caswell County
These counties represent a mix of urban, suburban, and predominantly rural population centers where transit options vary significantly in coverage and frequency. Travel within this region is supported by a combination of:
Intercity and regional bus services, including routes operated by the Piedmont Authority for Regional Transportation (PART) and the NCDOT intercity bus network, connecting major Triad cities and regional destinations.
County-level services, including demand-responsive, deviated fixed-route, and microtransit-style operations that primarily serve lower-density areas.
Teams must select one primary transit service as the anchor for their analysis and design. The selected service should operate across multiple communities and/or counties, making coordination and integration a central challenge. As part of your competition work, you will ground your analysis and design in the realities of this region (its route networks, community needs, and agency capacities), while using data to support decisions that have relevance beyond a single county, and how it integrates with other transit options.
While each service is unique, many share recurring challenges across the region. Teams should identify one or more specific pain points, such as:
First/last-mile gaps between homes, jobs, and regional bus stops
Transfer inefficiencies, including long wait times or poorly coordinated schedules
Demand uncertainty, making it difficult to decide when and where to deploy vehicles
Limited service span, especially outside peak hours or on weekends
Driver shortages and high operating costs strain rural systems.
Operational constraints, such as driver availability and fleet size
Low ridership and car dependence reduce service viability
Limited real-time data and forecasting tools make planning difficult
User experience friction, including fragmented booking, payment, or trip information
Geospatial spread limits the reach and responsiveness of demand-based models.
Teams should clearly articulate which pain point(s) they are addressing using their solution and why those challenges matter for system performance and rider experience.
Based on the selected service and pain point, teams are expected to:
Analyze existing service patterns using available datasets (e.g., GTFS, travel surveys, mobility traces).
Propose an AI-informed, data-driven design that improves coordination between intercity and microtransit services.
Describe how the proposed solution could be applied across multiple locations, even if illustrated through a specific corridor or service.
Ensure that the design reflects realistic operational and resource constraints faced by transit agencies.
The goal is to demonstrate how data, geospatial insight, and thoughtful service design can improve the performance and usability of rural and regional transit systems more broadly.
Aims to answer: What did you decide to design, and what does the service look like?
In this task, teams will develop a clear and realistic service design that addresses a specific pain point within a selected transit service operating in the Triad region. Your proposal should clearly explain what service is being improved, what problem is being addressed, and how the redesigned service would operate on a day-to-day basis.
A successful team will demonstrate the following items:
Select one primary transit service as the anchor for your design (e.g., an intercity bus route, a county-level microtransit service, or a suburban transit). You may include transit in “urban” areas, though focus on connectivity in suburban or rural boundaries where the population density is sparse.
Identify one or more specific service-related pain point(s)
Propose a service design that addresses the pain point, which may include:
Adjustments to routes, stops, or service zones
New or improved transfer points or hubs
Coordination strategies with nearby intercity or microtransit services
Describe how your selected service interacts with other mobility options, including:
How riders reach the service (first/last-mile access)
How transfers are handled between services
How schedules or service areas complement each other
Clearly describe the operating model, including:
Type and approximate number of vehicles involved
Service span (hours of operation, days of week)
Basic scheduling or coordination logic between services
Use maps or diagrams to illustrate:
Routes or corridors
Service zones
Transfer points or hubs
Keep assumptions realistic:
Do not assume unlimited vehicles, drivers, or funding
Designs should adapt or enhance existing services rather than replace them entirely
Teams may illustrate their design using a specific corridor or community, but the emphasis should be on how the service model addresses the chosen pain point and how the concept could be applied in similar settings across the region.
Aims to answer: How did data and AI help you identify the pain point and shape that design?
In this task, teams will explain how data and AI-informed methods were used to understand the selected service, identify its pain point(s), and inform the proposed service design described in Task 1. The emphasis is on demonstrating thoughtful, transparent use of data to support decisions.
Teams are encouraged to use available datasets to explore travel patterns, service coverage, demand variability, and transfer behavior. AI and data science tools may be used for pattern discovery, basic prediction, or decision support. Fully implemented software systems are not required, but explanations must be concrete and grounded in data.
What Is Expected
Describe clearly all the datasets used and why they were relevant, such as:
GTFS data to understand routes, stops, schedules, and transfers
Travel survey or mobility trace data to explore demand patterns
Census or county-level data to understand where people live relative to services
Any other relevant dataset that supports your analysis
Explain how data was used to identify or validate the pain point, for example:
Mapping where stops or routes are far from likely trip origins
Identifying long wait times or poorly aligned schedules
Observing spatial or temporal demand mismatches
Detecting underutilized routes or overburdened service windows
Describe any AI or data-driven methods used, in clear and practical terms:
Simple demand estimation or trend analysis
Clustering locations or trips to identify service zones
Rule-based or algorithmic logic for routing, batching, or dispatch
Scenario comparison (e.g., “before vs. after” design concepts)
Connect the analysis directly to your service design, by explaining:
How data insights influenced route choices, service areas, or schedules
Why AI-informed reasoning led to a different design than intuition alone
What trade-offs were revealed through analysis
Keep assumptions realistic and transparent:
Clearly state what data limitations exist
Explain any assumptions made where data was incomplete
Optional (Bonus, Not Required):
Simple prototypes, simulations, or dashboards
Pseudocode or workflow diagrams explaining the logic
References to open-source tools or known algorithms
Aims to answer: Why would people choose to use your service, and how does your design encourage consistent ridership over time?
In this task, teams will explain how their proposed service design encourages people to use it and supports long-term viability. Even well-designed routes and schedules will underperform if riders are unaware of the service, find it confusing to use, or see little value compared to other travel options. This task asks teams to think from the rider’s perspective and consider how pricing, incentives, technology, and outreach can shape travel choices.
The goal is to propose thoughtful strategies that align with how people actually decide to travel, particularly in areas where many trips are currently made by car.
What is expected
Describe your fare and payment approach, such as:
Flat fares, distance-based pricing, passes, or bundled options
Whether and how fares are integrated across services
Propose one or more incentive strategies that encourage trial or repeat use, such as:
Loyalty rewards or referral programs
Free or discounted introductory periods
Employer or institutional partnerships that support transit use
Explain how riders interact with the service, including:
Booking and payment (e.g., a unified app or platform)
Information clarity (real-time updates, transfer guidance)
Optional engagement features (feedback, ratings, or suggestions)
Articulate the value proposition for riders, especially those who have access to a car:
Cost savings compared to driving
Convenience or reliability
Productive travel time (e.g., Wi-Fi, guaranteed seating)
Outline how the service would be introduced and promoted, for example:
Local outreach, digital campaigns, or demonstrations
Partnerships with community organizations or employers
Simple, clear messaging explaining how the service works
Teams should focus on why these strategies would work for the selected service and context, rather than listing many ideas. A small number of well-justified incentives is stronger than a long list without explanation.
Aims to answer: Can your proposed solution realistically be implemented given agency resources, costs, and operational realities?
In this task, teams will demonstrate an understanding of the real-world constraints faced by transit agencies and regional partners and explain how their proposed design can be implemented in practice. Even strong technical ideas must operate within limits related to staffing, fleet availability, budgets, and coordination across jurisdictions. This task asks teams to justify why their proposal is not only innovative, but also workable.
The focus is on reasoned judgment, not detailed accounting. Teams are not expected to produce full budgets or engineering designs, but they should show awareness of the trade-offs involved in their choices.
What Is Expected
Discuss operational feasibility, including:
Approximate number and type of vehicles required
Driver or staff needs and whether they are reasonable for the service context
Example:
“The proposal relies on reallocating two existing vans rather than adding new vehicles.”
Address cost considerations at a high level, such as:
Why the proposed service model is cost-effective
How design choices help control operating costs (e.g., smaller vehicles, targeted service hours)
How ridership or incentives might support financial sustainability
Explain how your design fits within agency constraints, including:
Technology adoption and training requirements
Dispatch, maintenance, or coordination needs
Phased implementation (pilot first, then expand)
Describe coordination with stakeholders, where relevant:
How different services or agencies might align schedules, data, or operations
Whether a regional operator or lead agency plays a coordinating role
Acknowledge risks and trade-offs, such as:
Demand uncertainty
Driver recruitment challenges
Technology integration issues
and briefly explain how these risks could be managed or mitigated.
Teams should clearly justify why their proposal makes sense given limited resources, and why it represents a practical step forward rather than a purely idealized solution.
The competition will unfold in three stages:
Teams are expected to clearly and explicitly justify their proposed ideas using data, analysis, and relevant precedents. Proposals should go beyond high-level narratives and demonstrate how insights were derived and why design choices were made.
Specifically:
All major design decisions must be supported by evidence, such as:
Patterns observed in the datasets you analyzed (e.g., travel demand, spatial gaps, timing issues)
Quantitative summaries, maps, charts, or tables that illustrate the problem and your response
Clear references to what the data suggests, not just what seems intuitive
Proposals should demonstrate awareness of comparable approaches, including:
Examples of similar service models used by other transit agencies
Pilot programs, case studies, or documented practices (regional, national, or international)
Adaptation of known ideas to the local context, or a clear explanation of what makes your approach novel
Innovative ideas are encouraged, but they must be:
Explained in operational terms (how they would work in practice)
Grounded in realistic assumptions about technology, cost, and adoption
Clearly distinguished from speculative or long-term concepts
Claims without support will be viewed critically.
Statements such as “this will improve ridership” or “AI will optimize the system” should be accompanied by data-based reasoning, logical explanation, or evidence from comparable systems
Strong submissions will make it easy for judges to trace a clear line from:
Data + Intuition + User Stories → Insight + design decision → expected outcome.
1. Community & Real-World Context - 25%
How well does the team demonstrate understanding of the local or regional context (e.g., rural mobility, geographic and behavioral realities)?
Did they meaningfully engage with community and stakeholder challenges and propose context-aware solutions?
2. Data Utilization & Analytical Insight - 25%
How effectively did the team use available datasets (e.g., GTFS, Dewey, Veraset, NHTS, Census)?
Did they demonstrate good data stewardship, analytical rigor, and creativity in linking data to the problem context?
3. Problem Solving & Design Quality - 25%
How clearly and effectively did the proposed solution address the identified challenge?
Are the methods or design decisions logical, feasible, and innovative?
Does the solution improve connectivity, efficiency, or reliability?
4. Innovation & Potential Impact - 25%
How impactful is the proposed idea if implemented?
Does it demonstrate innovation in approach, technology, or insight?
Could it realistically inform decision-making or planning for agencies like transit agencies or departments of transportation?
Stage 1 deliverable | Due Feb 12 at 11:59 PM
Upcoming: Stage 2 deliverable due Mar 18
Upcoming: Stage 3 deliverable due Sat, Mar 28
All publicly available data sources + data available to NCA&T students through the Dewey Platform (https://www.deweydata.io/) are allowed.
Transport Infrastructure Data
NCDOT and North Carolina Open Data
Transit Routes & Schedules (GTFS)
PART GTFS and other available GTFS feeds
Fixed-route transit lines, stops, schedules, and transfer opportunities.
NCDOT Intercity Bus Services
Overview of intercity routes and regional connectivity supported by NCDOT.
OpenStreetMap (OSM)
Road geometry, land use context, and pedestrian networks. Best accessed using the osmnx library in Python.
Elevation / Terrain Data (USGS)
Terrain context that may affect routing and service design.
Travel Behavior & Demand Data
National Household Travel Survey (NHTS – NextGen)
Travel patterns, trip purposes, timing, and mode choices that help contextualize demand.
Veraset Mobility Data (Aggregated Insights | Freely available to A&T students)
Mobility traces that support analysis of movement patterns, trip origins/destinations, and temporal variation.
Advan Mobility & POI Data (Freely available to A&T students)
Aggregated foot traffic and destination data to identify activity centers and travel demand anchors.
Demographic & Geographic Context
U.S. Census / American Community Survey (ACS)
Population distribution, household characteristics, and geographic context at multiple spatial scales.
Census Block Group & County Boundaries
Geospatial layers for mapping population, services, and transit coverage.