Summary
- TV ISLA's access network and AS267799 are publicly visible, but no public record discloses current upstream bandwidth, busy-hour headroom, physical path separation, backup-power endurance or tested failover.
- San Andrés now has two off-island submarine systems, yet access to two systems is not proved for TV ISLA; its five announced prefixes had one immediate routing neighbour in the public view retrieved on 17 July 2026.
- Recovery margin on an island depends on safe local access, stocked spares, transport availability, power and the arrival of people or equipment, making Providencia's new fibre work and local technician training more consequential than a headline speed alone.
A fault that begins with a shipping decision
A mainland broadband node can sit within a truck journey of a regional warehouse. On San Andrés, the same failed optical card, power module or radio may have to travel by air or sea before a technician can fit it. On Providencia, the final movement can require another flight or boat. The difference is not picturesque geography. It is elapsed outage time: identification, approval, stock confirmation, cargo acceptance, weather clearance, arrival, safe access, replacement and verification all sit between a customer losing service and getting it back.
That makes inventory a network property. A spare already on the island is usable recovery capacity; an identical spare in Bogotá is potential capacity with a transport delay attached. The same distinction applies to people. A trained local technician can inspect power, isolate a damaged branch and communicate an accurate diagnosis while an off-island specialist is still waiting to travel. A generic assurance that support exists says little about which skills, components and permissions are present where the failure occurs.
TV ISLA's current commercial page describes residential and business internet delivered over HFC or FTTH according to availability, with radio links also listed for business service. It advertises downstream rates reaching 180 Mbps for homes and 300 Mbps for businesses, while noting that residential service is best effort and that addressing may use private IPv4 behind carrier-grade translation; IPv6 is described as available on request. Those are useful statements about what the company offers, not measurements of what every branch can deliver or survive: TV ISLA plans and tariffs.
The physical chain behind any one of those rates is longer than the tariff card. It can include premises power, customer equipment, a coaxial or optical drop, taps or splitters, an active access node, local aggregation, a hand-off to off-island transport, a mainland interconnection and the return path. Each powered element needs electricity. Each active component has a failure class and a replacement lead time. Each hand-off has an owner who must accept and act on an escalation. The slowest constrained stage governs restoration.
The archipelago has already shown how quickly communications recovery becomes a logistics operation. After Hurricane Iota in November 2020, the national ministry said 15 operator personnel were working on restoration, that material would be brought to the islands, and that satellite phones were being used while more free access zones were planned: MinTIC restoration account. Five days later, the ministry reported visiting mobile sites, testing connectivity and tracking station-by-station progress, with Providencia's first post-storm free Wi-Fi point beginning installation: MinTIC field supervision.
Neither notice identifies a TV ISLA outage or its inventory. They establish the operating mechanism that matters here. Severe island failures combine damaged plant, uncertain power, scarce communications, constrained travel and multiple owners. A provider can announce routes to the global internet throughout part of that event while a neighbourhood tap, optical branch, cabinet, customer terminal or local power feed remains unusable. Public routing visibility is therefore evidence of one layer, not a verdict on the service experienced at the end of the drop.
The company boundary runs through access, contracts and borrowed transport
TV ISLA LTDA is not interchangeable with every network that its packets cross. LACNIC's current record assigns AS267799 to TV ISLA LTDA and gives a San Andrés address, establishing a public routing identity registered in March 2019: LACNIC AS267799 record. The company's contact page places its customer-facing office on Avenida Providencia in San Andrés and publishes telephone and email channels: TV ISLA contact page. These records strongly identify the company. They do not assign ownership of a submarine cable, landing station, utility feeder, pole route or mainland exchange.
Government contracting records add a second boundary. A FONTIC contract register identifies TV ISLA LTDA under tax number 827000325-9 and records contract 744 of 2019 for planning, installing, operating and maintaining public Wi-Fi zones in the archipelago. The listed term ran from September 2019 to November 2021 and the stated value was COP 644,393,710: FONTIC contractual register. This is strong evidence of the legal entity and a bounded historical operating role. It is not proof that those zones remain under the same contract, use the same transport today or form part of the company's current commercial footprint.
A 2020 ministry response to Colombia's House of Representatives described 22 public Wi-Fi zones then operating—17 on San Andrés and five on Providencia—and said TV ISLA would bear recurring operating costs for 21 months. Each zone was contracted for 5 Mbps downstream and 1 Mbps upstream, with a free daily allowance before paid use: MinTIC response on public Wi-Fi. The company website still exposes a Wi-Fi monitoring page, but its visible month choices stop in 2021. That page is evidence of an old monitoring surface, not a live status statement for 2026: TV ISLA Wi-Fi monitoring page.
The distinction matters because the company can occupy several roles at once. It can be the retail provider responsible to a household, an operator of publicly funded access, the origin of internet routes and a buyer of transport from another company. The owner of the damaged component may change between those roles. A broken customer drop can sit clearly within the local operator's responsibility. A loss beyond the carrier hand-off may require escalation to the transport supplier. A landing-station or submarine fault may be controlled by an entirely different party.
Electricity failure adds another owner, while damaged poles or rights of way can add still more.
The public record does not disclose TV ISLA's current contracts for upstream capacity, the demarcation points at which responsibility changes, or the restoration commitments between those parties. It also does not show whether commercial broadband, public Wi-Fi and subscription television share aggregation, power or off-island transport. Shared infrastructure can make operation efficient, but it can also concentrate failure. Separate services on a price list are not necessarily separate failure domains.
This boundary is why the company should be assessed as a local operator connected to larger systems, not as the archipelago's entire connectivity fabric. Its direct responsibilities can include access construction, customer installation, monitoring, first diagnosis and local repair. Its actual recovery time can still depend on a carrier, cable operator, power utility, freight schedule or public authority. A resilience claim needs to identify both the asset and the party able to restore it.
The local plant is a mixed and exposed network
TV ISLA describes a local carrier trunk made from 48- and 24-fibre ADSS cable, carried at an average height of nine metres on poles spaced about 55 metres apart. Its network page also refers to hubs and splice rooms, and presents a coverage map image rather than a downloadable street-level route record: TV ISLA network description. This supports the presence of an aerial fibre backbone and local distribution facilities. It does not disclose the fibre length, exact route, number of active sites, ownership of poles, spare strands, utilisation, enclosure elevation, ring closure or current condition.
The commercial page broadens that picture. HFC, FTTH and radio access can coexist, which means the word “network” conceals different physical paths and restoration tasks. A coaxial branch may depend on powered amplifiers or optical nodes and can be affected by corrosion, damaged taps or loss of local power. An FTTH branch can carry light through passive splitters, yet still depends on an optical line terminal at the headend and power at the customer terminal. A radio service adds antenna alignment, line of sight, spectrum conditions and powered equipment at both ends.
The same neighbourhood may therefore contain customers with different failure and recovery profiles.
An aerial system on a Caribbean island faces salt, wind, ultraviolet exposure, road works and vehicle strikes in addition to ordinary ageing. That statement describes plausible mechanisms, not a documented defect in TV ISLA's plant. Public evidence does not locate a particular cabinet, pole or splice in a flood, surge or wind zone. Nor does it show whether critical fibre follows one side of the island, closes a ring, enters a building by diverse ducts or shares poles with the power network. Without geometry, a count of fibre strands cannot answer how many customers sit behind a cut.
The company's business connectivity page says it provides a round-the-clock network operations centre and refers to firewalls, segmentation and bandwidth management: TV ISLA business requirements page. This supports a company claim of continuous monitoring capability. It does not publish alarm coverage, staffing location, response time, remote-control reach or restoration performance. Detection can shorten the interval before diagnosis, but only if alarms survive the same power and transport event and if a crew can reach the failed asset.
Even the company's published quality figures require restraint. Its availability page shows both 95 per cent “measured availability” and a separate 98.44 per cent figure without a clear common measurement period or service boundary: TV ISLA availability page. A linked quality archive points visibly to reports from 2020 and 2021 rather than a current continuous series: TV ISLA quality-report archive. These values cannot be combined into a current company-wide service level. They do, however, reveal why scope matters: route availability, headend availability and household session availability can all produce different percentages.
A useful physical account of TV ISLA must therefore stop short of inventing a map. The evidence establishes an aerial optical trunk, mixed access technologies, local facilities and customer offers. It leaves unanswered which branches are active or passive, where conversion occurs, which sites require battery or generator support, how much plant is underground, where the carrier hand-off sits, and what can be bypassed after damage. Those missing details determine whether one local fault affects a block, an island service group or every packet leaving the company.
Two submarine systems do not prove two exits for TV ISLA
San Andrés is no longer described in public policy as an island with only one submarine connection. The first state-backed San Andrés Islas–Tolú system was installed in 2010 as an approximately 824-kilometre fibre link between Tolú and the island. The national planning record describes the public investment, a 15-year operating arrangement and a state capacity component intended for public entities and connectivity programmes: CONPES 3968 record. That history explains the transport foundation on which many island services developed, but it does not establish TV ISLA's current commercial entitlement after the original period.
The second system is a private branch connecting San Andrés to the AMX-1 trunk. The government announced its inauguration in December 2021, describing a 727-kilometre cable and more than COP 40 billion in private investment: MinTIC AMX-1 connection announcement. A 2022 regulatory alternatives paper consequently referred to two submarine cables serving San Andrés and identified the Claro system as having entered operation in December 2021: CRC difficult-access alternatives paper.
Two installed systems improve the island-level set of possibilities. They do not prove that TV ISLA buys capacity on both, can reach both through separate local routes, has equipment at both hand-offs or can move its normal load between them. Commercial access, technical interconnection and operational failover are distinct. A cable may be physically present while a provider lacks a contract or port. Two ports may share a local fibre segment, building, power supply or mainland dependency. A standby path may exist but lack enough headroom for the busy hour.
The legal record around the AMX-1 landing reinforces that distinction. A Council of State decision describes the cable and San Andrés earth station in the context of planning, permits and public actions, while also recording the archipelago's high infrastructure and operating costs, disaster exposure and transport constraints: Council of State AMX-1 decision. It establishes infrastructure and regulatory context. It does not name TV ISLA as an AMX-1 customer.
Nor should the old state-cable numbers be read as present commercial capacity. A MinTIC information page says the state secured 648 Mbps for 15 years ending in 2025, including capacity for public entities: MinTIC submarine cable information. The date is now material. Public evidence reviewed for this article does not resolve the post-2025 contractual status of that capacity, the cable's present wholesale terms or TV ISLA's current share.
The proper conclusion is narrower and more useful. San Andrés has two documented off-island submarine systems. The island therefore has more potential transport diversity than it did before December 2021. TV ISLA's own physical and contractual path to either system remains undisclosed. A resilience assessment would need the carrier demarcations, local routes to each landing or wholesale node, power domains, port sizes, normal loads and a dated failover result. Until then, “two cables serve the island” cannot be shortened to “TV ISLA has two independent exits.”
Five prefixes lead to one visible upstream
AS267799 provides the clearest current view of TV ISLA as an internet routing entity. On 17 July 2026, RIPEstat's announced-prefix interface listed five origin prefixes: four IPv4 blocks—45.173.14.0/23, 45.173.44.0/24, 38.224.140.0/24 and 216.28.211.0/24—and the IPv6 block 2803:bfa0::/32: RIPEstat announced prefixes. The count establishes visible address destinations, not five paths, five facilities or a measure of bandwidth.
Registry records directly tie two IPv4 ranges and the IPv6 allocation to TV ISLA. LACNIC returns 45.173.14.0/23 for an address within the first block, 45.173.44.0/24 for an address within the second and 2803:bfa0::/32 for an IPv6 address: 45.173.14.0/23 registry record, 45.173.44.0/24 registry record, and 2803:bfa0::/32 registry record. Registration is strong identity evidence. It does not show how many addresses are active, how traffic is distributed or how much transport carries them.
The routing-status response for the autonomous system reported four IPv4 prefixes and one IPv6 prefix, 1,280 visible IPv4 addresses and broad collector visibility at retrieval: RIPEstat routing status. This confirms that routes were widely observable from the public internet. It does not measure packet delivery to a San Andrés home, service latency, congestion, local access faults or the duration of any interruption.
More consequentially, the immediate-neighbour view returned one observed provider-side neighbour, AS3816: RIPEstat AS neighbour view. LACNIC identifies AS3816 as Colombia Telecomunicaciones S.A. ESP BIC: LACNIC AS3816 record. The public control-plane evidence therefore shows one immediate upstream relationship at that moment. It does not show whether TV ISLA has dormant backup, private interconnection, a second route hidden from collectors, or multiple physical circuits delivered by the same upstream.
That last distinction cuts both ways. One observed neighbour should not be inflated into proof of a single physical cable. AS3816 could deliver service over arrangements that are not visible in the AS path. Equally, five prefixes should not be presented as diversity when every observed path has the same immediate neighbour. The most defensible language is one visible logical upstream, with physical route and commercial diversity unresolved.
Route-origin security is another separate layer. The response for AS267799 and 45.173.14.0/23 returned a valid RPKI state at retrieval: RIPEstat route-origin validation. That helps other networks validate whether the announced origin is authorised. It does not protect a pole, headend, power system or submarine cable, and it does not reserve failover bandwidth.
The routing evidence is thus real but bounded. It proves that TV ISLA operates an autonomous-system identity and originates a meaningful set of IPv4 and IPv6 destinations. It supports monitoring of whether those routes remain globally visible. It cannot show how packets reach the mainland, which cable carries them, whether the access network is healthy or whether a surviving transport path can absorb displaced traffic. BGP can tell the world where to send a packet even when the household that should receive it is offline.
Installed capacity, sellable speed and usable throughput are different numbers
TV ISLA's history contains several capacity figures, each answering a different question. In 2019, MinTIC announced contract 2382 to connect 660 low-income households using 132 Mbps assigned over the state-backed submarine system. The programme contemplated 2 Mbps service with a 1:10 reuse factor and a monthly price of COP 24,900: MinTIC 660-household announcement. That 132 Mbps was a programme transport allocation. It was not a count of fibre strands, the company's total upstream capacity or a current 2026 figure.
The regulator's 2021 study gives the most detailed independent account. It says TV ISLA received 119 Mbps plus 13 Mbps that had been unused, totalling 132 Mbps for the programme; 425 household installations had been completed by August 2020 and all 660 were reported by the end of that year. The same report describes the offer, low-income targeting and an underlying arrangement extending to December 2025: CRC San Andrés internet study. These are dated programme facts, not evidence that every household remained active or that the capacity continued unchanged after 2025.
An interested-party submission from the state-cable operator said the system carried more than 6 Gbps in aggregate by 2021: Energía Integral Andina submission. Because the figure comes from the operator in a regulatory proceeding, it should be attributed rather than treated as an independently measured current value. Even if accurate for that date, aggregate cable traffic or provisioned service is not TV ISLA's port size, commitment or usable failover headroom.
The current company tariff page now lists access rates far above the two-megabit social programme, including a 300 Mbps business offer. That does not contradict the historical allocation. Retail rates describe the maximum rate of an individual service tier under stated conditions. A shared upstream can support many higher-rate customers because they do not all transmit at maximum simultaneously. The commercial question is contention: how much aggregate demand appears at the busy hour relative to the access, aggregation and upstream capacity available then.
The distinction can be expressed without estimating a hidden number. Installed capacity is equipment, fibre, radio, ports or purchased transport put in place. Sellable rate is the access tier offered to a customer. Usable throughput is what the end-to-end chain can carry under current load and condition. Recoverable capacity is what remains after a specified failure. The last measure is often the smallest, because traffic shifts onto a surviving path while repair traffic, emergency use and customer demand may rise.
Public performance data can describe the island, but not isolate this company. A CRC data flash published in June 2025 reported that average fixed-broadband download speed in San Andrés rose from 52.1 to 95.1 Mbps year over year and that latency, while improving, remained the highest among the reported departments at 91.85 milliseconds: CRC fixed-user experience data flash. The figures aggregate measurements across the island and providers. They cannot be assigned to TV ISLA, nor do averages disclose tail performance during a fault.
The public record leaves the capacity questions that matter most unanswered: current upstream port speeds and commitments; which cable or carrier supplies each port; busy-hour traffic by service and address family; access-node and HFC loading; optical split ratios and occupied ports; radio utilisation; multicast or unicast television load; and headroom after failure. It also leaves unclear whether subscription television shares transport or power with broadband. A 2025 CRC paper identifies TV ISLA among subscription-television operators and notes a Setplex IPTV offer of more than 110 channels, but it does not disclose the service architecture or bandwidth consumed: CRC paid-television study.
Capacity claims become credible only when their layer and date are named. The evidence supports historical programme allocation, present retail tiers, present route visibility and island-wide performance context. It does not support a current TV ISLA aggregate throughput number, utilisation percentage, subscriber count or full-load failover claim.
Providencia turns local labour into a resilience asset
The most current public evidence connecting TV ISLA to new physical work is on Providencia, not a disclosure of its San Andrés upstream. In May 2026, MinTIC reported progress on a project intended to connect Providencia through a ring and submarine fibre, with 17 kilometres of trunk fibre deployed. The first phase was described as capable of reaching 1,500 homes, 20 community Wi-Fi zones and five public entities. The ministry named TV ISLA as the operator involved and said the project prioritised Raizal labour while a local Raizal technician was being trained: MinTIC Providencia project update.
Those statements need careful boundaries. Seventeen kilometres is reported deployed trunk fibre, not necessarily commissioned end-to-end service, customer drops or TV ISLA-owned fibre. “Capable of reaching” 1,500 homes is a project reach statement, not 1,500 active subscribers. The notice does not publish the operator's contract, ownership share, transport capacity, landing arrangement, activation date, port occupancy or service measurements. It is strong evidence of involvement and local construction progress, but only partial evidence of operating status.
The labour detail is nevertheless central to resilience. On an island, a local technician is more than a staffing statistic. The technician can verify whether a failure is power, optical loss, damaged distribution, customer equipment or upstream transport. A correct initial diagnosis prevents the wrong component from being shipped and gives an off-island specialist a more precise task. Local familiarity can also shorten safe access, identify community priorities and preserve communication when ordinary channels are degraded.
Local labour cannot compensate for missing authority or stock. A technician needs access credentials, test equipment, safe procedures, spares and a clear escalation route. If the failed unit is proprietary, repair may still require vendor support. If a submarine or carrier-controlled segment fails, the local operator may be able to confirm the boundary but not restore the segment. Training has the greatest value when paired with a parts list, redacted network map, power records, named ownership at each hand-off and rehearsed decisions about who can switch traffic.
The historical contrast is instructive. After Iota, restoration depended on outside personnel, material transport, temporary connectivity and repeated government coordination. The 2020 emergency led to a special regulatory measure reducing spectrum charges for point-to-point links in the archipelago, explicitly to support continuity and infrastructure recovery: MinTIC Resolution 2687 of 2020. That measure recognised wireless links as one practical response when fixed infrastructure is difficult to restore. It did not guarantee capacity, site power or a ready link at a particular TV ISLA location.
Providencia's current fibre work creates a chance to build recovery capability alongside coverage. The relevant questions are whether the local team can isolate each branch, whether critical equipment is stocked on Providencia or San Andrés, whether temporary radio can bridge a failed segment, and whether customer restoration can proceed before the permanent repair is finished. None of those answers is public.
The durable lesson is that labour location belongs beside fibre length in a resilience account. A kilometre installed tells where glass has been placed. A trained person with authority, access and spares determines how quickly that glass becomes useful again after damage. The 2026 project is therefore significant not only for its planned reach, but for the possibility that repair knowledge remains on the island after construction crews leave.
Power, weather and facilities can collapse nominal route diversity
Internet transport cannot carry customer sessions through an unpowered access chain. San Andrés and Providencia form part of Colombia's non-interconnected electricity zones, and their generation has historically depended heavily on diesel delivered into an island system. A UPME study describes San Andrés generation and the role of SOPESA, including a historical estimate of roughly 12 million gallons of diesel consumption a year in normal operation and separate diesel generation on Providencia: UPME renewable-energy integration study. The figures are old and should not be used as current consumption, but the document establishes the physical fuel and generation dependency.
More recent telemetry shows that ordinary service can be close to continuous while still falling short. IPSE's September 2025 report recorded an average of 23 hours and 46 minutes of daily electricity service for San Andrés and 24 hours for Providencia during that month: IPSE September 2025 telemetry. These are locality-level electricity observations, not outages at TV ISLA sites. They demonstrate why site-level evidence is necessary: a monthly island average cannot show which feeder, building or cabinet lost power, or whether batteries carried the communications load.
Backup runtime is an end-to-end minimum. A headend generator does not keep service alive if an active HFC node loses power after a short battery interval. A passive optical branch avoids powered street electronics, but the optical line terminal, customer terminal, Wi-Fi router and any aggregation or transport equipment still need electricity. A submarine landing path can remain intact while an inland hand-off room is dark. Two transport paths sharing one building or utility circuit can fail together.
Weather turns these dependencies into coupled events. Hurricane Iota damaged telecommunications infrastructure, constrained access and created an urgent need for temporary communications. Wind can damage poles and aerial cable; surge and water can affect power and electronics; debris can block roads; and flights or boats can be delayed precisely when off-island material is needed. These are established island recovery mechanisms, not a claim that each occurred on TV ISLA's network. Public records do not disclose a company incident history, site-hardening standard, battery estate, generator coverage or storm stock.
Salt exposure adds a slower clock. Connectors, cabinets, mounts and grounding systems can degrade without a dramatic storm, especially where maintenance intervals or sealing fail. The company’s aerial-fibre description makes inspection and pole condition relevant, but no public evidence gives inspection frequency or corrosion findings. Similarly, a route drawn on different streets can still converge at one splice room, pole corridor, landing facility or power source.
An earlier TV ISLA arrangement with SES illustrates another possible transport layer. In 2018, SES announced that TV ISLA was using O3b medium-Earth-orbit connectivity to improve island broadband: SES partnership announcement. That is credible historical evidence of a satellite relationship, not proof of a current service, standby path or available emergency capacity. Public sources reviewed here do not establish whether any satellite capability remains contracted, powered, aligned or tested.
A serious diversity statement would therefore name facilities as well as routes. It would show separate carrier entries, separate powered equipment, separate cable or satellite paths, sufficient surviving capacity and the runtime of every critical site. It would also record whether the switch can be made remotely during a storm and whether both IPv4 and IPv6 continue to work. Without that evidence, a second medium or cable is an option on paper, not measured recovery margin.
The recovery clock has several failure paths
The first task after an interruption is to locate the layer. If AS267799's prefixes remain visible, technicians still cannot assume the access network is healthy; a local branch or power failure may leave the border router announcing normally. If the prefixes disappear, the cause could be router power, a session failure, carrier transport, configuration or a broader facility event. Public collectors can narrow questions, but customer calls, optical levels, node alarms, power status and carrier confirmation are needed to diagnose the actual failure.
A customer-side failure can be the fastest path. Power returns, the terminal restarts and service resumes, or a local technician replaces a damaged unit from stock. A distribution cut is harder. The crew must find the break, reach it safely, confirm ownership, manage traffic and power hazards, splice or bypass the segment and then verify customers beyond it. On an aerial system, a pole owner or public authority may control safe access. A storm can create many simultaneous faults, forcing restoration priorities.
An active-node failure adds parts and power. The correct replacement must be on the island, compatible and configured. If it is not, the restoration clock becomes a cargo clock. A headend or aggregation failure can affect more customers and may require specialised cards, optics or vendor assistance. A carrier-hand-off failure crosses the company boundary: TV ISLA can test its side and open an escalation, but the upstream party controls its own equipment and route.
A transport failure raises the failover test. The company must know whether another path is already active, whether routes will shift, whether address families behave consistently and whether the surviving path can carry the busy-hour load. A nominal backup that saturates can produce intermittent sessions, high loss and long delay rather than a clean outage. Public route visibility may continue, making the service appear reachable from afar while users experience an unusable connection.
The Iota recovery record shows why temporary service is a distinct stage. Satellite phones and new Wi-Fi points restored some communications before every permanent site had returned. Temporary radio, portable power or prioritised public access can similarly reduce harm while fibre repair continues. The decision requires preselected sites, spectrum or authorisation, compatible equipment, fuel or batteries and a way to tell residents where service is available.
Recovery is not complete when a route reappears. The operator must verify customer sessions across affected branches, confirm DNS and application reachability, test both address families where offered, watch error and optical levels, and ensure that temporary traffic shifts have not exhausted capacity. It must also replenish the spare just consumed. Otherwise, the next fault meets a network with less recovery margin than the first.
The public evidence for TV ISLA does not disclose mean restoration time, named incident stages, spare inventories, crew rosters, carrier escalation targets, battery tests or controlled failover results. Its continuous-monitoring claim and mixed access footprint suggest relevant operating functions, but they do not quantify performance. The 2021 regulatory study also warned that island broadband quality and affordability reflected structural wholesale and market conditions, reinforcing that recovery cannot be reduced to local cable repair alone.
The most credible sequence is therefore conditional. Detect the symptom; establish power and safety; determine whether the fault is customer, access, aggregation, hand-off or transport; isolate or bypass what the local operator controls; escalate what it does not; move traffic only if the surviving path has headroom; establish temporary priority access if repair will be long; verify real customer sessions; and replace the consumed stock. Every step can be improved, but only if ownership, capacity and location are known before the storm.
Households, public access and commerce absorb different costs
The 660-household programme shows how a small capacity allocation can carry a large social obligation. The 2021 CRC report said the offer targeted low-income households and that 60 per cent of beneficiaries were Raizal. For such a customer, an outage can remove not just entertainment but education, work, government contact and communication with family outside the island. The effect depends on whether mobile service, a public Wi-Fi zone or another household connection remains available.
Public access has a different concentration risk. A single Wi-Fi zone can serve many people who do not hold the underlying fixed contract. When it fails after a storm, the affected population may be larger than the count of subscriber accounts suggests. Conversely, restoring one well-placed community point can return a minimum level of communication before individual drops are repaired. That is why power, backhaul and safe physical access at those sites matter independently of commercial coverage.
Businesses experience time and latency differently. Card payments, reservations, cloud services, supply ordering and customer communication can become unreliable before a link is completely unavailable. A path that survives at reduced capacity may protect basic messaging but fail under transaction or video load. Hotels and tourism operators also face a reputational cost when guests expect mainland-like connectivity from an island network whose repair inputs must cross the sea.
Subscription television adds another affected group and possibly another shared dependency. If the service is delivered as IPTV over shared aggregation, congestion or headend failure can link television and broadband impact. If it uses a separate distribution path, the failure domains may differ. The public CRC description confirms the offer but not the architecture, so the overlap cannot be assumed.
Providencia's planned first phase brings another distinction: homes, community Wi-Fi and public entities have different restoration priorities and equipment chains. A public entity may need service for emergency coordination; a community point can provide broad minimum access; a household branch may take longer to rebuild one drop at a time. A fair recovery plan needs explicit priorities, communication and a path for residents whose connection is not restored in the first wave.
The number of affected users cannot be inferred from AS267799's 1,280 visible IPv4 addresses. Carrier-grade translation can place many customers behind fewer public addresses, IPv6 allocations are vast by design, and addresses also serve infrastructure or business uses. Nor can the historical 660 households, 22 Wi-Fi zones, 1,500-home Providencia reach or current retail offers be added into a subscriber count. They refer to different dates, programmes and states.
What can be said is that TV ISLA sits at several socially significant edges: household broadband, public Wi-Fi, business connectivity and paid television. The value of resilience therefore lies in preserving functions, not merely routes. A strong account would report customer sessions restored, priority sites available, degraded-capacity limits and the time until ordinary service returns. No such current company-wide disclosure was found.
The evidence that would change the risk assessment
TV ISLA's public evidence is stronger than a name on a tariff page. It has a registered autonomous system, five visible prefixes, direct address allocations, a described local aerial-fibre trunk, mixed access technologies, historical public contracts, current commercial offers and a named role in Providencia's 2026 fibre work. San Andrés has two documented submarine systems, and island-wide performance has improved. These facts justify treating the company as a real infrastructure operator with material local reach.
The same evidence does not close the resilience question. The one observed immediate upstream does not prove one physical circuit, but it also provides no public proof of a second logical upstream. Two island cables do not prove TV ISLA access to both. Historical satellite service does not prove a current standby. Retail rates do not disclose aggregate capacity. A fibre length on Providencia does not equal commissioned service. Published availability values without a common period and boundary do not establish current household experience.
Five disclosures would materially change the assessment. First, a redacted physical map should show access technologies, aggregation sites, carrier hand-offs, route convergence, landing or wholesale nodes and critical powered facilities without exposing customer addresses. Second, a capacity statement should separate installed ports, purchased commitments, normal busy-hour traffic and usable headroom after each named failure. Third, a power statement should give site classes, battery test results, generator coverage, fuel assumptions and the customer-edge boundary.
Fourth, a recovery statement should identify local skills, stocked components, warehouse location, travel-dependent items, ownership at each hand-off, escalation targets and recent restoration performance. Fifth, a dated failover exercise should show which physical event was simulated, whether traffic moved, how much demand the surviving path carried, and whether IPv4, IPv6, public Wi-Fi, business and television services behaved as intended. A desktop assertion of redundancy is weaker than a measured exercise under representative load.
The map must also include Providencia. The May 2026 update is encouraging precisely because it joins fibre construction with local labour, but it leaves commissioning, ownership, capacity and maintenance boundaries unstated. A later public update could report homes actually active, community and public sites operating, optical performance, stocked spares and the authority of the trained local technician. That would turn a build announcement into operating evidence.
The company should not be judged for failing to publish security-sensitive detail. Redaction can preserve useful facts: separate route classes without coordinates, power runtimes by site type, capacity ratios without commercial prices, incident distributions without customer names, and independently witnessed test results without router configurations. The goal is not to expose the network. It is to show that installed infrastructure can remain usable and recoverable when one island dependency fails.
Until those facts are available, the most durable conclusion is conditional. TV ISLA can be seen at the local access layer and in global routing. The archipelago now has more transport infrastructure than it did when the state-backed cable was the only submarine system. Yet the company's actual recovery margin still turns on undisclosed contracts, physical paths, power, local stock and human access. Five prefixes tell the internet where TV ISLA is. They do not tell a San Andrés household how long the connection will take to return after the spare part misses the flight.