Oregon Governor Tina Kotek's September executive order restricting data center development on state lands has inadvertently halted telecommunications infrastructure expansion across the state. The Oregon Department of Transportation subsequently placed approximately 20 fiber-optic cable permit applications on hold, affecting three major companies: Denver-based Zayo Group Holdings, multinational Lumen, and California-based Intermountain Infrastructure Group. These firms operate extensive underground fiber-optic networks connecting data centers and information processing facilities throughout the western United States. Transportation department officials are now requiring companies to clarify whether their proposed projects directly relate to data centers before approving right-of-way permits for cable installation along state highways. Zayo, which recently completed a 622-mile long-haul fiber route connecting Prineville and Umatilla data centers to Reno, Nevada, faces nine paused permits across multiple Oregon counties. Lumen, which operates six Oregon data centers in Portland, Eugene and Bandon, also has nine suspended permits. The agency has set no formal deadline for company responses, creating uncertainty that threatens broadband expansion projects critical for regional connectivity and economic development.

Aurora, Illinois is moving to assume control of its 60-mile underground fiber-optic network from OnLight Aurora, the city-connected organization currently managing it. After the network faced near-collapse approximately one year ago with nearly $1 million in debt and imminent shutdown, former software engineering manager Austin FitzCorbett began volunteering to help stabilize operations. The fiber network, which serves approximately 19 customers including the city, schools, healthcare providers, and data centers, had suffered from three failed residential expansion attempts and mismanaged expenses including unregulated debit card spending since 2018. The Aurora City Council will vote on a resolution to terminate the city's agreement with OnLight and authorize staff to negotiate transferring its customer contracts to municipal control. If approved, the city has 180 days to finalize negotiations before existing contracts terminate, with all OnLight equipment becoming city property. This transition reflects growing concern over the organization's financial mismanagement and outdated infrastructure, while offering critical internet services to essential community institutions.

# Summary This article examines whether network-sharing regulations applicable to telecommunications companies should extend to major technology platforms. The debate centers on infrastructure investment and competitive dynamics in broadband markets, particularly following the 2021 Infrastructure Investment and Jobs Act and the EU's Digital Markets Act. Key contributors to this discussion include policy experts Gigi Sohn and Milton Mueller, along with scholars like Eli Noam and Jonathan Nuechterlein, who invoke economic theories from Joseph Schumpeter regarding competition and innovation. The article considers satellite broadband developments and the concept of rights-of-way as they relate to network access. The fundamental question concerns whether Big Tech companies operating network infrastructure should face the same sharing obligations as traditional telecommunications providers. This matters because it directly impacts competition policy, broadband accessibility, infrastructure investment incentives, and the competitive landscape between established telecom carriers and emerging tech giants, influencing how the next generation of digital infrastructure develops across America and globally.

Rural communities across the United States face a persistent digital divide, with millions of households lacking access to high-speed broadband despite its necessity for work, education, healthcare, and commerce. Private providers have historically avoided these low-density areas due to unfavorable economics. Recognizing broadband as essential infrastructure, the federal government has committed $65 billion toward universal high-speed access by 2030, primarily through large grant programs funding fiber installation and wireless infrastructure in unserved and underserved communities. CanAm has emerged as a significant financier of these projects through EB-5 immigrant investor capital, complementing federal grants. CanAm's Head of Sales Min Wu and Nick Buonagurio of CanAm Investor Services explain that rural broadband EB-5 projects vary significantly in their approach, differentiating by technology deployment—whether using fiber-to-home or fiber-wireless hybrids—funding structures, and existing subscriber bases. This financing mechanism matters because it bridges critical infrastructure gaps where traditional private investment has failed, enabling rural Americans to access the digital services increasingly essential to modern life while providing pathways to green cards for EB-5 investors.

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.

La panne nationale du réseau mobile d'Orange et de Sosh a commencé vers 11 h 20 ce mercredi 21 octobre. Elle a pris fin dans la soirée : peu après 21 h, Orange a annoncé le retour des appels, des SMS et de l'internet mobile, après une panne de près de dix heures due, selon l'opérateur, à la défaillance d'un équipement de son cœur de réseau mobile. Appels, SMS et internet mobile ont été fortement perturbés partout en France, box 5G comprises. Cet article est mis à jour au fil de la journée, les dernières informations en premier.

Cyan Digital Security delivers comprehensive cybersecurity solutions designed to protect organizations and end-users against evolving cyber threats including phishing, malware, and malicious content. Operating around the clock, the company provides scalable, white-labeled security offerings tailored for telecommunications, financial institutions, and other sectors. Their advanced threat detection algorithms continuously monitor network activity across all platforms and devices, automatically identifying and logging malicious instances. Cyan's solutions integrate seamlessly into existing infrastructure with minimal implementation time, available as both network-integrated services and endpoint-based software. Supporting B2B and B2C models, their AI-powered platform delivers real-time protection while maintaining ease of use through intuitive, branded interfaces, enabling organizations to safeguard their digital assets effectively.

You can extend your Wi-Fi network by moving your router to a central, elevated spot, choosing the right frequency band for each device, and adding hardware like a Wi-Fi extender or mesh system in larger homes. Start with placement and settings, which are free, then upgrade hardware only if dead zones remain. If speeds are slow even over a wired connection, the bottleneck is your internet plan, not your Wi-Fi.

Mesh WiFi creates a single smart network for fast, seamless coverage across your entire home. It is slightly expensive but a more reliable option. WiFi extenders simply repeat signals and often reduce speed, especially in heavy use. It is an affordable option. Mesh WiFi is ideal for large homes, multiple devices, and uninterrupted roaming. It provides consistent speeds Extenders work best for small homes or one weak WiFi spot. It works well if the number of users is limited.

Strand Consult, a telecommunications research firm with three decades of industry expertise, challenges widespread claims about Low Earth Orbit (LEO) satellite technology, particularly Starlink, operated by SpaceX. While LEO satellites offer genuine potential for extending connectivity to underserved areas inaccessible to terrestrial networks, Strand Consult argues that ambitious assertions—such as LEO satellites eventually replacing conventional mobile networks—lack grounding in reality. The analysis introduces the concept of the "Cinderella constraint," highlighting a fundamental economic limitation: LEO satellites have operational lifespans of approximately five years and must continuously deorbit and burn up in the atmosphere. This necessitates perpetual replacement launches simply to maintain existing coverage and service quality, creating a rolling renewal model fundamentally different from traditional telecom infrastructure. Despite SpaceX's technological accomplishments and Starlink's scale, brand recognition, and cross-border operational advantages, this structural constraint represents a permanent feature of LEO economics. The research contextualizes Starlink as a standardized, vertically integrated platform competing against smaller LEO providers, while examining the realistic capabilities and limitations of satellite-based connectivity solutions for informed decision-making among industry stakeholders.

Selecting outdoor Wi-Fi equipment requires matching hardware to both local weather conditions and network requirements for long-term reliability. This guide evaluates waterproof Wi-Fi extenders, mesh nodes, and long-range antenna options to help users choose appropriate gear for their properties. The critical factor is genuine IP rating certification rather than vague marketing claims like "weather-resistant." IP65, IP66, or IP67 designations indicate tested protection against dust and water exposure, with the first digit addressing solids and the second addressing water resistance. IP65 or IP66 ratings handle heavy rain and water jets, while IP67 provides additional protection against brief immersion during storms. For permanently mounted equipment on fence posts, masts, or shed sides without overhead protection, IP65 certification is non-negotiable. Equipment without published IP ratings may still offer strong range capabilities but should be positioned under protective covers such as eaves, patio roofs, or weatherproof boxes rather than exposed to direct elements. Understanding these technical distinctions enables informed purchasing decisions that prioritize durability and performance over single-product recommendations.

Effective outdoor mesh WiFi coverage requires strategic placement of routers and satellites rather than relying solely on hardware selection. The optimal approach involves positioning a satellite between the main router and the desired outdoor area, ideally in a room with a window or glass door facing the backyard, ensuring it maintains a strong connection to the primary router. Placement too far from the router compromises signal strength and outdoor performance. Material composition significantly impacts signal propagation, with brick, concrete, and stone walls causing greater attenuation than drywall or wooden structures. Additional obstacles including large furniture, mirrors, fish tanks, and metal cabinets further degrade coverage. Proper device positioning is critical—satellites should be kept away from floors, cabinets, and interference-generating devices. Most Orbi satellites are designed for indoor use and should be positioned near outdoor-facing windows or doors rather than placed outside, as indoor-rated equipment exposed to rain, sun, humidity, or freezing temperatures will sustain damage. Only purpose-built, outdoor-rated models should be deployed externally. These placement considerations are essential for maximizing WiFi coverage extension beyond the home.

IDLab at the University of Antwerp is advancing next-generation wireless networks through two innovative research initiatives. The WiSeNet project, running from October 2026 to September 2030, addresses the integration of mobile terrestrial and satellite networks using AI-native radio resource management. Led by promoter Rafael Berkvens with co-promoters Rreze Halili and Thomas Janssen, the initiative focuses on collaborative sensing, dynamic spectrum allocation, predictive handover capabilities, and joint communication and sensing applications. By creating a 5D digital twin of the radiofrequency environment encompassing spatial, frequency, and temporal dimensions, WiSeNet enhances network efficiency and energy performance while maintaining low computational complexity. This approach supports diverse industries including autonomous driving and maritime operations, positioning networks for 6G readiness. Concurrently, the ORCAS project, launching September 2026 through August 2029, develops multi-sensor monitoring systems for underwater infrastructure protection. Led by Siegfried Mercelis and co-promoter Ali Anwar, ORCAS deploys unmanned surface vehicles and intelligent sensor networks to detect and respond to threats affecting submarine cables, pipelines, and offshore foundations, enabling proactive asset management through coordinated USV fleets.

Across the United States, millions of residents face severely limited internet provider choices, with many areas served by only one or two companies such as Comcast or AT&T. According to the Federal Communications Commission's 2023 Broadband Progress Report, 42 million Americans live in areas where only a single ISP offers speeds of at least 25 Mbps download and 3 Mbps upload, forcing residents to accept whatever terms are offered or forgo modern connectivity entirely. This monopolistic and oligopolistic market structure directly results from decades of industry consolidation among large telecommunications and cable companies. The lack of competition has demonstrable consequences: a 2021 Institute for Local Self-Reliance study found that single-provider areas experience higher average prices and lower average speeds compared to regions with three or more providers. Without competitive pressure, ISPs lack incentive to upgrade aging infrastructure or introduce advanced technologies like gigabit fiber and symmetrical speeds. For consumers in a digital economy where connectivity drives employment, education, and entertainment, this limited choice translates into reduced speeds, elevated costs, constrained customer service, and stagnated innovation.

The Citizens Broadband Radio Service (CBRS) operates under a three-tier spectrum sharing framework managed by FCC-certified Spectrum Access Systems to protect U.S. Navy and incumbent users from interference. Commercial use divides into Priority Access Licenses (PALs)—seven 10-MHz channels auctioned per county in 2020 offering exclusive deployment rights—and General Authorized Access (GAA) channels providing 80 MHz of shared, unlicensed spectrum. Six years into full commercial operation, GAA has become the band's critical engine despite lacking interference guarantees. Real-time data reveals that over 1,000 entities have deployed approximately 446,000 active CBSDs (Citizens Broadband Radio Service Devices) as of July 2026, with 96.3 percent utilizing GAA channels. Remarkably, 63.2 percent of users rely exclusively on GAA spectrum, while 33.1 percent combine both GAA and PAL channels for enhanced capacity. PALs remain essential for interference-free operations in dense urban markets and mission-critical applications. The United States leads globally in private 5G and LTE network deployment, with at least seventy-five percent operating on CBRS spectrum, predominantly utilizing GAA channels, demonstrating GAA's indispensable role in enabling widespread spectrum access and innovation.

Meshtastic has emerged as the leading open-source platform for off-grid peer-to-peer communication, enabling users to send encrypted messages across miles using affordable ESP32 or nRF52 microcontroller boards paired with SX1262 LoRa transceivers. Unlike LoRaWAN's centralized gateway architecture, Meshtastic implements a true ad-hoc mesh topology where any node functions as a client, repeater, or router. The system uses managed flood routing for public broadcasts, while firmware version 2.6 introduced next-hop direct messaging to reduce network congestion. A critical distinction for network designers involves understanding that Meshtastic channels—users can configure up to eight on a single node—operate on shared physical RF frequency slots rather than separate frequencies. In North America's US915 band, the default public mesh uses Slot 20 centered at 906.875 MHz with SF11 spreading factor. Each channel shares identical airtime and spectrum resources, with privacy achieved through 256-bit AES encryption keys rather than frequency separation. Builders must grasp these architectural nuances to avoid exceeding FCC emissions limits and prevent local channel collapse in crowded shared spectrum.