Autonomous UAV swarms require communications networks that allow multiple aircraft to exchange information with each other and with ground units during operations. Meshmerize is addressing this requirement through a drone networking approach that enables UAVs to form an independent wireless network while also making use of available cellular and satellite connectivity where it exists.

Drone swarms can monitor progress on large construction sites, inspect remote offshore wind farms and search for survivors after natural disasters. When multiple drones are deployed, they generally are controlled centrally by mobile communications up to now. Researchers at the Fraunhofer Institute for Integrated Circuits IIS are working on a decentralized solution that is less susceptible to interference while at the same time ensuring greater flexibility.

Dans un essaim de drones (drone swarm) la station de contrôle est connectée à deux drones qui relaient ensuite les commandes par WiFi mesh. Les drones échangent aussi leur localisation et d’autres messages de sécurité pour ne pas se heurter. La technologie mesh est particulièrement bien adaptée à ce type de réseau sans infrastructure au sol (sans AP au sol), robuste et autorisant un grand nombre de drones dans le réseau.

Russia’s increased use of mesh radios allows it to conduct high-resolution reconnaissance and ultra-precise, remotely operated strikes deeper into Ukrainian territory. This growing capability shows that Russia has steadily matured and upgraded the technology behind its fleet of unmanned aerial vehicles (UAVs), heading towards technological parity with NATO UAV fleets – with threatening implications for NATO logistics in case of a potential conflict with Russia and Belarus. KI assesses that the effective range of mesh-controlled UAVs is likely to increase over time, as Russia repurposes expansive Geran production for highly effective middle-strike campaigns.

The system supports throughput of up to 1 Gbps and mesh networks connecting hundreds of nodes. It is designed to carry video, sensor, telemetry and command data while providing embedded cybersecurity features. SwarmiX includes an embedded module for drones and robotic platforms and a ruggedized tactical unit for operators, vehicles and launch systems. The embedded module measures 91 by 38.6 by 13 millimeters and weighs 72 grams. Its listed operating bands range from 2.4 to 2.7 GHz and 4.9 to 6 GHz, with output power of up to 27 dBm. Optional security features include AES-128 and AES-256 encryption.

For radio amateurs who love experimenting with digital modes, there’s a new tool worth your attention: Meshcore. Think of it as a modern, simplified version of packet radio. But instead of relying on fixed digipeaters, every node in a Meshcore network can automatically route traffic for its neighbors. The result is a self-healing, off-grid data network that runs on low power and low cost hardware.

MeshCore is a decentralized mesh network initiative enabling Brussels residents and emerging communities in Wallonia to establish a local communication infrastructure independent of the internet and commercial mobile operators. Unlike conventional messaging applications such as Signal, WhatsApp, and Telegram, which route communications through centralized servers, often overseas, exposing user IP addresses and communication patterns to operators, internet service providers, and state surveillance, MeshCore operates through low-power LoRa radio technology transmitted across repeater networks in neighborhoods. Users connect a radio device via Bluetooth to their smartphones to exchange text-based messages without requiring SIM cards or cellular connectivity. LoRa, a French-invented technology operating on unlicensed 868 MHz frequencies in Europe, eliminates operator subscriptions and enables construction of personal radio devices without amateur licensing, provided users comply with power and airtime regulations. The system employs software-defined radio technology, replacing traditional hardware with programmable chips. By substantially reducing dependence on infrastructure controlled by operators, governments, and commercial platforms, MeshCore provides residents with offline communication capabilities while protecting civil identity and communication metadata from institutional surveillance.

ResQMesh is an innovative emergency communication system designed to maintain distress transmission when conventional infrastructure fails. The platform combines a mobile application with decentralized LoRa-based mesh-network nodes, enabling users to transmit distress alerts, GPS coordinates, text messages, and voice messages through a resilient network that relays information across interconnected nodes until it reaches rescue personnel. Each ResQMesh node comprises an Orange Pi microcomputer, LoRa transceiver, GPS module, local storage, and Wi-Fi hotspot capability, allowing direct device-to-node communication without internet connectivity. Users connect via the app's Mesh Mode to nearby nodes and dispatch emergency information as compressed LoRa packets throughout the network. The system serves three stakeholder groups: civilians sending distress signals, rescuers managing responses and monitoring assignments, and disaster-response administrators from the City Disaster Risk Reduction and Management Office coordinating operations. ResQMesh integrates openrouteservice technology to calculate optimal rescue routes, providing team leaders and civilians with estimated travel distances and durations. This decentralized architecture addresses critical communication gaps in disaster scenarios, offering a reliable alternative when traditional emergency services are compromised or overwhelmed.

ESP32 microcontrollers support eight distinct mesh networking options, each optimized for different use cases and hardware configurations. Developers can choose from ESP-WIFI-MESH and ESP-Mesh-Lite for Wi-Fi connectivity, ESP-BLE-MESH for Bluetooth standards compliance, ESP-NOW for low-power inter-device communication, painlessMesh for simplified deployment, Thread and Zigbee for smart home applications on ESP32-C6, ESP32-H2, and ESP32-C5 chips, and LoRa-based solutions including Meshtastic and MeshCore for kilometer-range communications. Selection criteria include the specific ESP32 chip available, whether smartphones must participate in the network, device power constraints, and interoperability requirements with third-party products. ESP-WIFI-MESH serves mains-powered IP nodes, while ESP-BLE-MESH suits phone-commissioned Bluetooth products. ESP-NOW provides efficient control between Espressif boards, and Thread or Zigbee address smart home needs. For extended range applications, LoRa meshes offer superior distance capabilities. This comprehensive framework enables developers to make informed decisions based on technical requirements, ensuring optimal performance and compatibility for their specific IoT deployment scenarios.

The Tribal Broadband Connectivity Program represents a critical infrastructure opportunity for federally recognized tribes, requiring sophisticated navigation of tribal sovereignty, regulatory frameworks, and construction protocols. Between February and September 2020, the FCC's Rural Tribal Priority Window distributed 2.5 GHz licenses (2496–2690 MHz) to over 176 tribes at no cost, with roughly 350 tribes filing 400+ applications. These licenses carry binding build-out obligations under 47 CFR Part 27, with interim deadlines reaching through 2025. Success depends on contractors understanding that tribes operate as sovereign governments holding trust land where state law frequently does not apply. Effective project execution requires structuring contracts with sovereign immunity language tribal attorneys approve, filing TERO-compliance plans before mobilization, respecting tribal ordinances on historic preservation and environmental review as binding, and coordinating through Tribal Historic Preservation Offices rather than state authorities. The engineering challenges are standard, but the contractual and regulatory frameworks—including Section 106 NHPA consultation, BIA 25 CFR 169 right-of-way coordination, and NTIA milestone schedules—demand specialized expertise that determines whether projects proceed efficiently or face delays and renegotiation.

America's electric cooperatives are transforming the nation's energy infrastructure through innovative technologies and strategic investments aimed at creating more reliable, resilient, and sustainable power systems. These not-for-profit organizations are implementing state-of-the-art solutions including long-duration battery storage systems, microgrid technology, and advanced outage prevention mechanisms to strengthen grid reliability. Over the past decade, electric co-op renewable energy capacity has surged 192 percent, with cooperatives now owning or purchasing approximately 10 percent of U.S. renewable capacity while leading the utility sector in community solar programs. Beyond energy generation, co-ops are expanding broadband access, planning to connect 3.6 million homes with gigabit fiber optic service by 2027. Notable initiatives include Hawaii's KIUC progressing toward a 100 percent renewable mandate while reducing member costs, and Georgia-based Snapping Shoals testing long-duration battery storage. These efforts demonstrate how electric cooperatives are balancing affordability with environmental responsibility while fostering economic growth and community prosperity through member-focused innovation.

In 1991, Finnish computer science student Linus Torvalds initiated a modest hobby project by announcing development of a new operating system kernel—the software layer managing communication between hardware and software. Torvalds invited global internet contributions, fundamentally departing from the proprietary software model dominated by corporations like Microsoft and AT&T. His kernel merged with the GNU project to create GNU/Linux, a freely modifiable and distributable operating system built entirely by volunteers. Over three decades, Linux has grown exponentially to power billions of devices worldwide, including nearly all supercomputers, most internet servers, majority of smartphones, and embedded systems in consumer electronics. Remarkably, Linux displaced established proprietary operating systems from major manufacturers including Sun Microsystems, HP, and IBM, despite lacking the resources and hierarchical organization of traditional software corporations. This success fundamentally challenged prevailing assumptions about software development, demonstrating that collaborative, volunteer-driven, open-source approaches could outcompete proprietary enterprises with vast legal teams and restricted intellectual property practices. Linux's trajectory illustrates how internet-enabled collective effort transformed technology development and infrastructure.

Inseego has developed a comprehensive portfolio of 5G network solutions specifically engineered for public safety agencies requiring secure, reliable connectivity during critical operations. The company's Verizon Frontline-Verified offerings include high-performance indoor routers such as enterprise-grade solutions, outdoor receivers including the Wavemaker line, and mobile hotspots like the MiFi PRO M4 and FX4200. These devices support multiple spectrum options including C-Band, private LTE/5G CBRS Band 48, and dedicated Band 14 specifically allocated for first responders. The solutions feature priority access and preemption capabilities to ensure connectivity during network congestion, advanced security features protecting sensitive communications, and rugged designs suitable for demanding field environments. Inseego's platform enables critical public safety applications including voice communications, video transmission, and computer-aided dispatch systems across temporary incident command posts and mobile emergency operations. The integrated approach combines cloud management capabilities with reliable failover functionality, addressing the fundamental requirement that first responders maintain uninterrupted network access when seconds determine outcomes.

Messari's lead DePIN research analyst Dylan Bane and Salvador Gala, co-founder of Escape Velocity Ventures, have jointly released the 2025 State of DePIN report, a comprehensive 59-page analysis examining the decentralized physical infrastructure networks sector. The report delivers both retrospective analysis of DePIN developments throughout 2025 and forward-looking insights into anticipated trends for 2026. It covers macro trends across multiple DePIN verticals including InfraFi, AI-integrated DePIN solutions, Decentralized Wireless networks, Decentralized Energy systems, compute networks, and sensor networks. This sector assessment provides stakeholders with critical intelligence on how decentralized infrastructure is evolving and where investment and development opportunities may emerge. The collaborative effort between Messari and Escape Velocity Ventures combines industry expertise to offer strategic perspective on this growing sector, making it valuable for investors, infrastructure developers, and technology professionals seeking to understand DePIN market dynamics and positioning themselves for emerging opportunities in decentralized infrastructure deployment.

Seeed Studio has demonstrated WadaMesh, a mesh messaging platform, running on the L2 device, a 3.2-inch touchscreen interface. The implementation showcases the system's capability to enable offline mesh messaging, group chat functionality, and map navigation without internet connectivity. The demonstration specifically highlighted loading offline maps from microSD cards and navigating through various zoom levels directly on the device's touchscreen. This development represents a significant advancement in indie communication systems, particularly leveraging ESP32 technology. The WadaMesh community has contributed substantially to this achievement. This offline-first approach addresses critical connectivity challenges in remote or disconnected environments, enabling users to communicate and navigate without relying on traditional internet infrastructure. The platform's integration of messaging, group chat, and mapping capabilities into a compact, touchscreen device expands practical applications for emergency communications, outdoor exploration, and connectivity in areas with limited network coverage.

Connectivv is developing a resilience infrastructure to address communication breakdowns during natural disasters when traditional networks fail. The company has created Connectivv Lifeline, a solar- and wind-powered hardware node that establishes local mesh networks, enabling community members to communicate via their phones without internet or cellular coverage. These nodes link together to expand network capacity without single points of failure. Operating on this infrastructure is NeighbourUp, an offline-capable disaster coordination application that facilitates critical community functions including resource mapping, volunteer coordination, and emergency alerts. The platform serves dual purposes: providing everyday community communication before disasters strike, ensuring familiarity and trust when emergencies occur. Connectivv is transitioning to a Social Enterprise model to prioritize disaster resilience at its organizational core, aligning with the Sendai Framework for Disaster Risk Reduction's emphasis on community-centered preparedness and response. The company acknowledges it remains in bench testing phases, focusing on engineering challenges such as node-to-node range, mesh networking capabilities, and power performance before conducting community pilots. This transparent approach emphasizes field learning and collaborative development with emergency management professionals and community organizations.

Residential proxy services, which route internet traffic through home networks, have increasingly become tools for artificial intelligence companies seeking to gather training data at scale. According to recent reporting, AI applications—including shopping assistants, research agents, and machine learning models—rely heavily on web scraping to access current pricing, content, and data necessary for functionality. This constant automated web crawling bypasses website restrictions designed to prevent machine access. Major residential proxy providers now explicitly market solutions tailored for AI training and agent operations. A significant concern is that users who have installed bandwidth-sharing applications may unknowingly have their home internet connections enlisted in this data collection effort, potentially violating website terms of service and raising privacy implications. The article highlights a critical gap between user awareness and actual network usage, underscoring hidden risks associated with participating in bandwidth-sharing programs without full transparency about how residential connections facilitate the broader AI development landscape.

Mesh Wi-Fi systems offer an accessible solution for expanding home network coverage, with major brands like eero, TP-Link, and Asus providing user-friendly setup processes despite their advanced technology. Installation begins by downloading the companion mobile app and positioning the main router centrally to optimize signal distribution. Users must disconnect existing equipment, connect the main router to their modem, and establish a secure network name and password. Additional nodes are then placed in areas prone to weak signal, such as upper floors or basements, requiring only a power outlet connection. The accompanying app facilitates signal strength monitoring throughout the home and provides placement optimization guidance. These systems enable customization of network features including parental controls, guest networks, and device prioritization. While some brands offer these advanced features at no cost, others employ subscription models for premium functionality. This approach democratizes whole-home Wi-Fi coverage, making professional-grade connectivity achievable for non-technical users seeking reliable coverage across their residences.

Globe has proposed a National Utility Resiliency Plan to elevate telecommunications restoration as a national priority alongside power and other essential services during disasters. Presented at the GSMA Policy Principles for Mobile Network Resilience discussion in New Delhi, the framework aims to establish clear protocols enabling coordination between government agencies, local government units, utilities, and telecommunications operators to accelerate the restoration of critical services following natural disasters and severe weather events. According to Globe General Counsel Atty. Froilan Castelo, connectivity serves as a lifeline during emergencies, enabling people to contact families, access emergency information, request assistance, and coordinate relief efforts. The proposed plan would grant telecommunications restoration teams priority access to government transportation and logistics resources, military and police support for reaching critical facilities, and streamlined local permitting for emergency repairs. Recognizing that telecommunications networks depend on multiple interdependent infrastructure systems including commercial power, fuel, transportation, and physical facility access, Globe emphasized that operators cannot independently overcome restoration barriers. The initiative addresses critical infrastructure vulnerabilities exacerbated by climate-related hazards, positioning telecommunications alongside essential utilities within comprehensive national disaster resilience frameworks.

The article explores DePIN (Decentralized Physical Infrastructure Network), a blockchain-based system that enables homeowners to monetize their idle internet bandwidth. Currently, residential internet connections remain largely underutilized, representing wasted potential as users' data sits dormant during sleep and commuting hours. Traditional internet infrastructure relies on centralized hub-and-spoke models controlled by major corporations that act as digital toll-takers, monitoring traffic and creating single points of failure. Even corporate VPNs perpetuate this centralization despite marketing themselves as privacy solutions, often maintaining logs and facing blocking from streaming services. DePIN addresses these limitations through a two-sided marketplace connecting Node Providers—users sharing spare bandwidth—with Privacy Seekers including researchers and journalists requiring residential IP addresses to circumvent censorship and geo-restrictions. The system operates as a decentralized mesh network without centralized servers, leveraging Proof of Bandwidth, a trustless verification mechanism ensuring participants deliver promised data throughput. This approach reclaims digital infrastructure from Big Tech monopolies, transforming passive internet connections into revenue-generating nodes while providing users genuine privacy protection and censorship resistance through residential IP advantages that bypass detection and blocking systems.