Asia Pacific has become an important proving ground for satellite broadband. In some areas, satellites are the only viable way to connect, while other parts of the region already benefit from strong fixed networks. Government policies vary widely: some countries have moved quickly to permit satellite services, while others remain cautious. Markets such as Australia and New Zealand report stable, high-performance satellite links, whereas remote island communities still face constraints due to distance from infrastructure and limited local ground stations.
Data from Ookla’s 2025 satellite broadband report helps illustrate the scale. Starlink serves users in roughly 155 countries and has around 10 million subscribers, making up over 97% of global satellite Speedtest activity. That dominance highlights both the opportunity and the competitive gap that new entrants will need to close.
Low Earth orbit shifts expectations
Before the rise of low Earth orbit (LEO) constellations, the region’s satellite broadband relied largely on satellites in higher orbits. Those satellites sit thousands of kilometres above Earth, which increases signal travel time and produces significant latency. High latency made latency-sensitive tasks—video calls, interactive cloud applications, online gaming—very difficult.
Traditional operators such as Kacific focused on government and enterprise customers across Southeast Asia and the Pacific. Consumer use existed but was costly and suffered from slow response times; for example, latency in the Philippines approached 600 milliseconds in 2025 in some measurements. LEO systems changed expectations by positioning satellites much closer to Earth—Starlink’s constellation orbits at roughly 550 kilometres—reducing latency and enabling satellite links to support activities once feasible only over fixed broadband.
Geography shapes demand
Geography is a primary driver of satellite demand across Asia Pacific. Archipelagic countries—Indonesia and the Philippines, for instance—have thousands of dispersed islands, making fibre and terrestrial rollouts expensive and logistically challenging. Mongolia faces a different problem: vast territory with a sparsely distributed population. Across the Pacific, many small island communities are so remote that large-scale infrastructure projects are hard to justify economically. In these contexts, satellite broadband often becomes the most practical connectivity option.
Regulation sets the pace
Regulatory frameworks often determine where services can launch and scale. Governments impose various conditions before granting approvals, including data handling requirements, security clearances, licensing rules and limits on foreign ownership or control. Those regulations frequently matter more than raw demand in deciding whether and how quickly satellite providers can operate.
Some markets moved swiftly to accommodate satellite services. Australia, New Zealand and Japan already had regulatory mechanisms in place, so rollouts required relatively few legal changes. In Japan, initial Starlink deployments supported telecom operators rather than direct consumer subscriptions: KDDI used Starlink to connect rural mobile towers, and defense agencies trialled it for resilient communications.
Other countries took longer. The Philippines approved Starlink in 2023 under a value-added service licence, while Malaysia’s regulator issued approval the same year. Indonesia’s process was slower, in part because of concerns about full foreign ownership. Sri Lanka updated its telecom law for the first time in decades to enable new satellite services, and Bangladesh introduced a licensing regime specific to non-geostationary satellites. India—an especially large potential market—has obtained many of the necessary approvals, but final steps such as spectrum pricing and security clearances remained under review.
Infrastructure affects performance
Ground infrastructure is a major factor in service quality. Markets that host local gateway stations and terrestrial interconnections consistently report lower latency and higher throughput than those that rely on distant uplinks.
Australia and New Zealand are notable examples: multiple ground stations and strong backhaul options keep latency low and speeds high. New Zealand recorded median latency near 35 milliseconds, while Australia saw median download speeds exceeding 160 Mbps in some measurements. Other markets show mixed outcomes—Malaysia has improved speeds year over year, the Philippines posted modest gains, and Indonesia experienced slight declines as demand increased and placed pressure on available capacity. Where nearby infrastructure is absent, latency can rise above 100 milliseconds, limiting performance for interactive applications.
Pricing shapes adoption
Starlink’s retail pricing varies less across countries than might be expected, with monthly fees often falling within a relatively narrow band. However, affordability differs widely due to income levels and local purchasing power. In Australia, service pricing is within reach for many households; in lower-income countries such as the Philippines or Sri Lanka, the same price represents a larger portion of household income, making adoption slower among residential users.
Consequently, initial demand in some countries has been driven more by businesses, government programs and organisations than by home subscribers. For example, a Philippine bank uses satellite links to support remote banking agents in areas with little terrestrial infrastructure. Indonesia shows a similar pattern: growth is propelled largely by public-sector deployments and industry use cases rather than widespread household adoption. In Malaysia, growing fiber coverage in urban centers has reduced the appeal of satellite for many urban households, despite improved satellite speeds.
Markets moving at different speeds
Countries in the region are progressing at different rates. Bangladesh and Sri Lanka introduced new rules to permit satellite services and recorded strong early performance: Bangladesh saw speeds close to 90 Mbps with relatively low latency soon after launch, while Sri Lanka reported higher throughput but also higher latency—reflecting differences in ground infrastructure and gateway placement. Vietnam has chosen to limit the number of approved terminal units, and India’s sheer population means even a phased rollout could translate into a very large subscriber base.
Starlink currently occupies a dominant market position, but competition is emerging. Amazon has plans for a LEO system that will support parts of Australia’s government satellite programme, and China is expanding domestic satellite networks with initiatives such as Qianfan. These alternatives often operate through local partners rather than direct-to-consumer models like Starlink, reflecting different strategic approaches and regulatory environments.
Another technology shift to watch is direct-to-device connectivity, which enables satellites to link directly with standard mobile phones. That innovation could expand coverage beyond fixed terminals and bring satellite connectivity into more everyday use cases.
Each Asia Pacific market reflects a unique mix of geography, infrastructure, economics and regulation. In some areas satellite broadband fills essential connectivity gaps; in others it competes with established fixed networks. How regulation, pricing, ground infrastructure and new competitors come together will determine the next phase of satellite broadband growth across the region.
(Photo by NASA)