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      Improving customer experience in dense urban areas in the Philippines

      • Philippine CSPs have made strong progress on 5G. The next opportunity is to turn expanding coverage into a more consistent experience in the places where customers need it most.
      • Five network priorities can help address dense-area challenges, from site density and indoor coverage to 5G Standalone, AI-driven uplink demand and differentiated connectivity.

      Head of Strategic Network Evolution Market Area South East Asia, Oceania and India, Ericsson

      5G network evolution in dense urban areas in the Philippines

      Head of Strategic Network Evolution Market Area South East Asia, Oceania and India, Ericsson

      Head of Strategic Network Evolution Market Area South East Asia, Oceania and India, Ericsson

      Why dense urban areas matter for the Philippines’ 5G experience?

      For Philippine consumers and enterprises, mobile connectivity is now part of how people work, pay, learn, play and access public services. The Philippines has built a strong foundation for this mobile-led growth, including an early regional 5G launch in 2019 and approximately 78 percent 5G population coverage by the end of 20251.

      Demonstrating a strong commitment to digital infrastructure, Philippine CSPs maintained an average capex-to-revenue ratio of around 29 percent between 2016 and 2025, compared with around 20 percent across Asia-Pacific2. At the same time, growing enterprise adoption of AI and digital services is increasing the importance of dependable connectivity in commercial districts and business process outsourcing (BPO) hubs across Metro Manila, Cebu and Davao.

      Consumer behaviour is evolving too. Ericsson research shows that 78 percent of smartphone users in the Philippines already use AI weekly, and forecasts 44 percent of future AI traffic to occur outside the home3. This means more digital activity will depend on mobile networks performing reliably across workplaces, schools, transport corridors, commercial districts and public venues.

      Rapid urbanization adds another dimension. As more people, devices and digital activity concentrate in cities, network demand is becoming increasingly concentrated in high-density locations. The opportunity for Philippine CSPs is therefore to build on the progress already made and translate expanding 5G coverage into a consistently strong experience in the places where customers need it most.

      Why coverage alone is not enough in high-density areas?

      The Philippines has made real progress on 5G, with population coverage reaching around 78 percent by late 2025. Yet turning that coverage into a consistent experience is not simply a matter of adding more spectrum or investment. Opensignal data shows subscribers spend less than 20 percent of their connected time on 5G4, a reminder that living within a 5G footprint and consistently experiencing 5G performance are two different things.

      The Philippines already has a strong foundation to build on. It has assigned 1,005 MHz of low- and mid-band spectrum, the highest level in ASEAN, and CSPs have maintained an average capex-to-revenue ratio of around 29 percent over the past decade, compared with about 20 percent regionally2. Yet average mobile download speeds stood at 77 Mbps in 2025, a sign that spectrum availability and investment alone do not fully determine customer experience.

      This reflects a broader, shared challenge across parts of Asia-Pacific, where the mobile usage gap stands at 46 percent, more than ten times the regional coverage gap of 4 percent5. While many people live within mobile broadband footprints, indoor signal degradation, latency variation and best-effort service models can still limit their ability to fully use advanced digital services.

      Four interrelated network conditions help explain why experience can remain uneven in high-density locations:

      • Site grid density and low-band traffic: Philippine service providers currently operate networks with around 10,000 to 15,000 sites each, serving a national population of more than 100 million across a geographically complex market. In several comparable Southeast Asian markets, nationwide network footprints can exceed 40,000 sites. This lower site density means Philippine networks often operate with wider distances between sites, increasing reliance on the 700 MHz and 900 MHz bands and creating significant far-field traffic that is more difficult to offload to higher-capacity mid-band layers such as 1800 MHz, 2100 MHz, 2.6 GHz and 3.5 GHz. This contributes to 5G availability remaining below 20 percent nationwide5. resulting in lower overall speed-test performance.
      • Indoor Coverage limitations: Most 5G connections still rely on non-standalone (NSA) setups, causing mid-band spectrum to drop off after one wall. In busy offices, malls, and transport hubs, devices frequently fall back to FDD layers.
      • Urban FWA signal degradation: For Fixed Wireless Access (FWA) subscribers in dense urban areas, indoor radio signal attenuation creates performance variance. Indoor-only, best-effort FWA deployments limits the deliverable speed, fiber-like experiences, restricting CSPs from capturing higher-tier household ARPU.
      • Uplink legacy bottlenecks: With 44 percent of AI traffic forecast to occur outside the home by 20303, demand is rapidly shifting toward uplink-heavy, real-time applications. While interactive Gen AI, live streaming, and AR glasses require 1 to 2 Mbps of continuous uplink throughput, legacy networks designed below 1 Mbps uplink baseline will require an uplift to deliver user experience expectation in high-density areas.

      These conditions also point to a commercial opportunity. CSPs still often serve different applications and customer moments through a uniform best-effort model, even when reliability matters more. Ericsson research shows that 37 percent of Philippine 5G users would pay a premium for assured performance during critical moments, representing an opportunity worth up to two months of ARPU per year.

      Looking ahead, GSMA Intelligence forecasts that high-density urban locations could require 2 to 3 GHz of mid-band spectrum by 20355. With 845 MHz of mid-band spectrum currently assigned in the Philippines, future spectrum releases will be important. But spectrum alone is unlikely to close the experience gap — greater value can also come from optimizing existing assets, improving 5G availability and selectively increasing site density where demand is highest.

      The opportunity, therefore, is to evolve from broad coverage toward more targeted network design that matches capacity and performance with the locations, applications and customer moments where they create the greatest value.

      A strategic question for CSP technology leaders

      From a network evolution perspective, the challenge is becoming clearer:

      How can Philippine CSPs evolve site density and indoor coverage to deliver a more consistent customer experience in densely populated areas, while efficiently managing uplink-heavy AI demand and monetizing assured performance to strengthen the return on 5G investment?

      Five strategic recommendations for Philippine CSPs

      Closing these gaps requires a more targeted approach that connects network evolution with the locations, applications and customer moments where better performance creates the greatest value.

      In my view, five priorities deserve attention from technology leaders looking to improve dense-area experience and strengthen the return on 5G investment. In the following sections, I will explore each recommendation, focusing on the rationale, key areas of focus and relevant examples for Philippine CSPs.

      1) Densify the site grid to shorten site-to-site distances and improve indoor experience

      The first priority is the physical network grid in high-density locations. Wider site-to-site distances push more traffic onto the 700 MHz and 900 MHz bands, creating far-field congestion. Selectively shortening these distances lets higher-capacity layers, including 1800 MHz, 2100 MHz, 2.6 GHz and 3.5 GHz, absorb more urban demand, while low-band spectrum continues to anchor wide-area coverage.

      What to focus on:

      • Infill capacity macros: Target congested macro sectors with heavy cell-edge user density, deploying infill macro sites to offload far-field traffic to 1800/2100 MHz layers.
      • Infill coverage and 5G Indoor sites: Deploy targeted infill sites in urban blind spots that cannot be reached effectively by low-band spectrum alone. CSPs should also consider using small cells to deliver 5G coverage in major malls and office buildings.
      • High-frequency network alignment: Design future site grids specifically around the cell radius of 2.6/3.5 GHz mid-band spectrum to maximize contiguous high-speed coverage.

      Regional examples: In densely populated urban centers, South Korea maintains average site-to-site distances of 80–100 meters, while Vietnam maintains 100–200 meters, enabling both markets to sustain high throughput and indoor reach across dense subscriber clusters.

      2) Expand 5G mid-band coverage and availability to drive migration

      Building on a denser site grid, the next priority is where 5G mid-band coverage is available and how consistently users stay connected to it. Expanding contiguous mid-band coverage can cut fallback to 4G and deliver up to a 5x improvement in user experience. Sustaining higher 5G availability in priority urban areas also supports broader migration to 5G plans.

      What to focus on:

      • Cluster deployment strategy: Roll out 2.6/3.5 GHz mid-band spectrum in contiguous geographical clusters across dense urban zones rather than dispersed spot coverage to avoid constant fallback to 4G.
      • 80/80 target alignment: Align capital allocation to achieve >80 percent population coverage for 5G mid-band and Massive MIMO deployment and to achieve >80 percent 5G network availability in primary revenue centers.
      • Inter-Site ENDC optimization: Implement advanced inter-site E-UTRA-NR Dual Connectivity (ENDC) to ensure seamless session continuity during mobility between site sectors. 

      Regional examples: Leading tier-1 operators — including T-Mobile US, AIS Thailand, and Singtel Singapore — built >80 percent 5G mid-band population coverage within their first five years of rollout. T-Mobile US and Reliance Jio India have sustained 5G network availability above 80 percent, directly driving mass market 5G migration and higher ARPU.

      3) Drive 5G SA implementation starting with FWA as the anchor use case

      Most Philippine 5G networks still run on non-standalone architecture, and FWA users, who consume around 10 times more data than mobile subscribers, add significant load to the underlying 4G FDD layers. Moving selected FWA traffic to 5G SA releases that FDD capacity for mobile users. Paired with outdoor CPE to offset indoor signal attenuation, this supports more predictable, fiber-like speeds for home and enterprise customers while protecting the wider mobile experience.

      What to focus on:

      • Targeted SA FWA rollout: Launch 5G SA core capabilities first in high-density residential and enterprise FWA clusters to immediately offload traffic from 4G FDD spectrum.
      • Outdoor CPE monetization: Deploy outdoor CPE units for premium FWA tiers, backed by service-level assurances, while expanding cost-effective FWA to rural areas to counter satellite competition. 
      • eMBB SA migration: Expand contiguous 5G SA coverage progressively from FWA anchor zones to general eMBB subscribers to support low-latency consumer applications. 

      Regional examples: SoftBank Japan and Bharti Airtel India introduced 5G SA by using FWA as their initial primary use case. Reliance Jio and Bharti Airtel in India deployed outdoor 5G SA CPEs bundled with OTT content to capture millions of broadband subscribers, while Cosmote in Greece uses outdoor CPEs to offer guaranteed high-speed FWA competing directly with fixed fiber.

      4) Design uplink coverage for Gen AI applications and prepare AI token-based offers

      Asymmetric traffic design shaped many mobile networks, with cell-edge uplink targets often as low as 512 kbps. As interactive Gen AI and spatial wearables push demand toward 1 to 2+ Mbps of sustained uplink, Philippine CSPs have an opportunity to evolve radio access design around these stronger requirements, laying a foundation for new commercial offers that pair assured connectivity with AI compute tokens.

      What to focus on:

      • FDD layer upgrades: Upgrade 1800 MHz and 900 MHz FDD layers with high-gain antennas and FDD Massive MIMO to sustain 1–2+ Mbps cell-edge uplink throughput in the city.
      • Uplink focused service tiers: Introduce dedicated uplink service packages designed for digital content creators, field enterprise workers, and live-streamers.
      • AI-ready service packaging: Explore partnerships with AI application and platform providers to bundle relevant AI services with mobile connectivity for selected consumer and enterprise segments. Over time, CSPs can assess whether usage-based AI compute models become commercially relevant as the ecosystem matures.

      Regional examples: AIS Thailand and 3 Hong Kong have introduced commercial uplink packages for content creators and live-streamers. In the Philippines, Globe has partnered with AI Fiesta to offer token-based access to multiple AI models through affordable subscription packs. Operators in China are also testing AI-related subscription models, including commercial token-based offers. These token-based models remain at an early stage and indicate how AI services may be packaged commercially as the ecosystem matures.

      5) Commercialize Differentiated Connectivity to enable experience-based services

      Experience is becoming the new currency of competitive differentiation in telecom. Philippine CSPs still largely deliver mobile services through best-effort models, while certain moments, such as for mobile gamers, live-streamers, enterprises and public-sector users, call for greater predictability. Ericsson ConsumerLab research shows 36 percent of Philippine 5G users would pay a premium for assured connectivity during these moments, an opportunity worth up to two months of ARPU per year. Building on the standalone foundation from priority three, network slicing and L4S (Low Latency, Low Loss, Scalable Throughput) give service providers the tools to align performance with customer expectations.

      What to focus on:

      • Foundation layer synergies: Build upon densified site grids, 5G SA, and upgraded FDD layers to ensure underlying radio resources can deliver performance guarantees.
      • Targeted commercial offers: Launch dynamic QoS passes for customer moments, including mobile gaming passes, concert/event VIP connectivity passes, and mission-critical enterprise links.
      • Visual performance assurance: Integrate real-time network status indicators into consumer mobile applications so users visually confirm when their boosted connection is active.

      Regional examples: Singtel and T-Mobile utilize differentiated connectivity for event passes and emergency public safety services.  Telstra offers Dynamic 5G services with committed performance and pay-for-performance options, while BT and Deutsche Telekom deploy latency-guaranteed connectivity tiers for enterprise Point-of-Sale (POS) terminals.

      Turning dense-area demand into value

      Success in the next phase of 5G will come from whether consumers, enterprises and emerging AI-enabled applications can rely on the network across demanding locations, use cases and conditions, not from coverage maps alone. For technology leaders, the challenge is translating 5G availability into a consistently better experience.

      Taken together, these five priorities can help Philippine CSPs turn rising urban traffic and network complexity into commercial advantage, strengthening customer satisfaction, differentiating services and improving the return on 5G investment. A useful starting point: which of the four network conditions covered above, site density, indoor coverage, FWA signal degradation or uplink demand, shows up most in your own network today? That answer points directly to which of the five priorities will create the most value first.

      Ericsson has worked through comparable dense-area challenges with CSPs across Asia-Pacific and beyond, and welcomes the opportunity to continue the conversation, sharing relevant experience from markets addressing similar network challenges. These insights can help Philippine CSPs assess the most suitable approaches for strengthening customer experience, supporting 5G adoption and creating stronger business outcomes.

      Related links

      1. Accelerating 5G and 5G-Advanced in Philippines - Spectrum (Feb 2026)
      2. Defragmenting Spectrum to Accelerate the Philippines' Digital Transformation - Spectrum (June 2026)
      3. Winning with differentiated connectivity - Ericsson (Q4 2025)
      4. Philippines, July 2026, Mobile Network Experience Report - Opensignal
      5. The Mobile Economy 2026 - The Mobile Economy
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