Conference Agenda

Closing the global digital divide is an unresolved communications policy challenge. Despite decades of universal service initiatives and broadband infrastructure investment, 2.2 billion people lack reliable Internet access. While broadband policy has largely converged around fiber-first universal connectivity deployment strategies, this paper argues these approaches overlook complementary deployment models capable of expanding connectivity more rapidly, resiliently, and equitably in underserved environments. Just as occurred in the earliest days of Internet access in advanced industrialed nations, we hypothesize that community anchor institutions—such as schools, universities, libraries, and local civic and cultural heritage facilities—can serve as strategic platforms for extending connectivity through shared public WiFi infrastructure and locally operated community networks that benefit surrounding communities.

The paper examines if community-anchored, technology-neutral public WiFi systems can provide a more inclusive and economically sustainable policy model for expanding connectivity to the last 2 billion. The central research question is: Can anchor-institution-based public WiFi systems deployed through hybrid connectivity architectures enable digital inclusion at lower cost and with greater institutional sustainability than traditional universal service approaches? Specifically, the paper advances the hypothesis that modular community WiFi systems embedded in local institutional networks and supported by hybrid backhaul connectivity can generate measurable improvements in connectivity, digital capability, and social capital while reducing deployment costs and improving network resilience.

The research builds on prior work presented at TPRC on the theoretical and comparative policy case for bottom-up connectivity strategies, emphasizing community institutions, modular technologies, and local governance rather than subsidy-heavy, top-down universal service programs. The second examined the digital inclusion impacts of the Internet Backpack, a portable solar-powered community network system deployed in emergency response (e.g., Hurricane Helene in rural North Carolina; Goma Volcano Observatory in D.R.C.; COVID in rural Costa Rica) as well as teacher professional development workshops across five rural schools in Essuekyir, Ghana. Using an explanatory sequential mixed-methods design involving 37 teachers, that study documented substantial increases in Internet use and digital skills adoption.

In many emerging markets—including Ghana—electric power reliability remains uneven, with periodic grid outages affecting both telecommunications infrastructure and local access networks. Incorporating solar generation and battery storage into the Internet Backpack architecture allows community WiFi nodes to continue operating during power disruptions, ensuring sustained connectivity for schools, universities, and other community anchor institutions.

The present study analyzes the design, deployment, and governance of a permanent community public WiFi pilot at the University of Energy and Natural Resources (UENR) in Sunyani, Ghana. The pilot is being developed in cooperation with Ghana’s Ministry of Communication, Digital Technology and Innovations through a public–private partnership involving the university, technology providers, and the Africa and Global Community Internet Program (ACIP). The analysis presented reflects the views of the authors and should not be interpreted as an official position of the Government of Ghana.

Methodologically, the study integrates deployment design analysis, comparative cost modeling, institutional governance assessment, and communications policy analysis. The system architecture combines fiber, 5G/LTE, and LEO satellite backhaul options with locally managed WiFi access infrastructure and renewable energy support systems. Preliminary estimates suggest modular public WiFi nodes can be deployed at approximately USD 5,300 per site at national scale with local assembly—significantly below typical last-mile cellular or fiber deployment costs in comparable environments.

The paper contributes to communications policy scholarship in three ways. First, it provides empirical evidence that anchor-institution-based community connectivity can reduce barriers to equitable and inclusive Internet access while generating measurable digital inclusion and social capital effects. Second, it demonstrates that hybrid connectivity architectures combining fiber, 5G mobile networks, LEO satellite backhaul, and renewable-powered edge infrastructure can improve both network resilience and deployment economics. Third, it analyzes how public–private–community governance arrangements can align connectivity expansion with emerging digital sovereignty and data governance frameworks, including Ghana’s Data Protection Act and the African Union Data Policy Framework.

More broadly, the paper advances a technology-neutral broadband policy framework in which fiber, 5G mobile networks, and emerging LEO satellite systems function as complementary components of integrated connectivity architectures rather than competing infrastructure strategies. These findings also speak directly to current U.S. broadband policy debates—including implementation of the BEAD program and universal service reform—by suggesting that modular community WiFi and hybrid connectivity models may serve as cost-effective complements to fiber-first deployment strategies in hard-to-serve regions.

Policy takeaway: regulators and universal service administrators should incorporate anchor-institution-based public WiFi, resilient hybrid connectivity, and renewable-powered community network architectures into national broadband strategies as complementary instruments for reducing the digital divide and expanding equitable Internet access in emerging markets and underserved regions.