Summary

  • EG-IX’s operators reported 1.22 EB of traffic in January–September 2026, more than 2.5 times the 480 PB reported for all of 2025, alongside a 945 Gb/s peak and 37 active ports.
  • Those figures show a larger platform and more use. They do not establish how much traffic was exchanged between Egyptian networks, which destinations benefited, or whether a customer’s latency and total delivery cost improved.

Cairo’s Internet Exchange has acquired the sort of headline number that makes an infrastructure story feel settled. In the first nine months of 2026, EG-IX handled 1.22 exabytes of traffic, according to its operator AMS-IX. That already exceeded the 480 petabytes reported for the whole of 2025. At the same time, the exchange reached a reported peak of 945 gigabits per second, with 37 active ports and 3.2 terabits per second of active-port capacity. These are meaningful signs of scale. They are not yet a measurement of local value.

That distinction matters because the case for an Internet Exchange is usually told in outcomes: traffic can take a shorter route, latency can fall, transit costs can be reduced, and local networks can become less dependent on distant infrastructure. EG-IX’s own service page describes those benefits. But a large volume passing through an exchange does not disclose where the packets began or ended, how the participants would have routed them without the exchange, or whether the savings reached a carrier, a cloud customer or an Internet user. A platform can be busy and still leave those questions open.

Growth is visible; the denominator is not

The October update gives several different growth measures. It counts 19 connected networks by autonomous system number, up from four at the 2022 launch. It reports active ports rising from nine in 2023 to 37 in Q3 2026, active-port capacity from 0.7 Tb/s to 3.2 Tb/s, and peak traffic from 89 Gb/s in 2023 to 945 Gb/s in Q3 2026. The 2025 AMS-IX facts sheet gives a Cairo snapshot of 18 connected parties, 30 ports, 2.56 Tb/s of port capacity and a 337.9 Gb/s peak. The labels are not identical: “parties” should not be silently treated as ASNs.

The useful comparison is the reported expansion in ports, capacity and peak, with each measure kept in its own unit and period.

The volume comparison is striking, but its periods differ. Nine months of 2026 produced 1.22 EB against a full 12 months at 480 PB in 2025. That is more than two and a half times the previous full-year total, not a like-for-like year-on-year rate. The press release does not publish monthly observations, direction of flow, a measurement method, or a participant-level breakdown. A reader therefore cannot tell from the announcement alone whether the increase reflects broader local exchange, one large content network, a change in accounting, seasonal demand, or some combination.

The first four possibilities are not interchangeable for a customer evaluating a route or a public sponsor evaluating regional benefit.

Nor do ports and capacity resolve the question. EG-IX’s public member page lists individual ports, speeds, ASNs and a peering-policy field. Some members have multiple port rows. EG-IX’s technical page says a customer connects a router to a port and describes the Layer 2 controls on that interface. A port is a service and capacity unit; it is not a distinct company, a new route, or proof of a second physical path. Counting more ports is useful for planning platform capacity. It cannot stand in for the amount, direction or destination of traffic carried over them.

A local exchange does not make every route local

An exchange creates a place and a fabric where networks can interconnect. Whether traffic moves directly between a pair of networks depends on routing arrangements and the prefixes each network chooses to advertise and accept. A route server can simplify multilateral peering by distributing reachability information, but the IETF’s RFC 7947 is explicit that the route server does not forward the customer traffic itself. A route visible on a server’s BGP session is therefore different evidence from packets delivered, and both differ from a lower latency or lower bill.

The phrase “keep traffic local” also hides several possible tests. It could mean that two routers meet physically in Cairo, that a route between two networks is exchanged there, that the destination service is hosted in Egypt, or that an Egyptian user reaches the service with lower delay. Those propositions can support one another, but none logically guarantees the next. A content provider may be present at the exchange while a specific prefix is still reached over transit. A route may be exchanged in Cairo while the destination is outside Egypt. And a route that is shorter in AS hops may not improve an end user’s measured experience.

EG-IX began as a partnership between Telecom Egypt and AMS-IX, using AMS-IX’s IX-as-a-Service model and Telecom Egypt’s Regional Data Hub in Smart Village, west of Cairo. The 2022 launch announcement framed the exchange as an open-access platform for content, application and cloud providers and carriers. In 2026, AMS-IX says that the growing community creates more opportunities for direct traffic exchange and for Cairo to act as a regional hub. That is a plausible strategic ambition.

The public evidence reviewed for this article, however, does not show how much traffic is local by destination, which routes are new, or what performance changed for users.

This is not a claim that the operators or participants lack such data. A member may be able to compare its own flow records, route tables and bills. The gap is that the headline public figures do not contain that evidence. A network’s internal records would need to be compared against the relevant counterfactual: the same traffic, to the same destinations, over the route and cost structure that would have applied without the Cairo interconnection.

Measure the service, not just the platform

A credible local-value test would start with a defined cohort of participating networks and a stated period. For each participant, it would identify the relevant destination prefixes or ASNs and show which traffic was exchanged at EG-IX, which continued over transit or another interconnection, and in which direction. The same window should include direct latency and packet-loss observations to representative destinations, not just BGP route visibility. A comparison before and after a new peering relationship can help, but a change in traffic mix, cache placement, submarine-cable conditions or upstream policy can confound the result.

The analysis should disclose those limits.

The financial test needs the same discipline. A buyer should compare the full cost of delivering a defined traffic basket: transit charges avoided, but also the IXP port, cross-connect, colocation, capacity, backhaul, redundancy and operating costs required to use the new path. A lower transit bill may be real while total cost rises; the reverse may also be true if local traffic substitutes for expensive upstream capacity. Neither conclusion follows from exabytes alone.

The public General Terms and Conditions make the service boundary relevant. They describe services as those subscribed through service orders, state that the supplier is not committed to provide a service until it accepts the signed order, and make provision subject to security and regulatory approvals, including NTRA. The price, recurring charges and service term are specified in the relevant order. These provisions do not prove how any particular member was admitted, and service-specific schedules or agreements may add detail.

They do show why “open access” should not be mistaken for a public, uniform price or an unconditional service commitment. The order that governs a participant is part of the commercial evidence.

Heng Lu’s Note 73 draws a distinction between participation and the authority or outcome someone claims participation represents. Applied carefully here, the growing roster is evidence of participation, while a traffic total is evidence of use. Neither is a substitute for measuring whether Egyptian users received a better service or whether a member’s costs fell. Counting the room is a beginning; the decision depends on what happened after the participants connected.

What the numbers can support today

Operators can reasonably treat EG-IX as a growing route option and include the published figures in a capacity discussion. They should avoid booking an assumed savings rate or latency benefit until their own destinations, route paths and costs have been measured. Investors can regard traffic and capacity expansion as evidence of uptake, while separating it from revenue per port, churn, margin, utilization and contract duration—none of which is supplied in the cited release. Public sponsors can acknowledge the platform’s potential without using aggregate volume as a proxy for user outcomes.

The 1.22 EB is not a weak number. It is an incomplete one for some decisions. It says a lot about the amount of activity reported across EG-IX; it says little by itself about the economic destination of that activity. Cairo’s exchange can be growing and useful while the public case for its local value remains unmeasured. A better evidence package would make that case stronger, expose where it is uneven, or show which services and participants still need attention.

Sources: AMS-IX’s Q3 2026 EG-IX update; AMS-IX Facts & Figures 2025; Telecom Egypt’s 2022 launch announcement; EG-IX Internet Peering; EG-IX member and technical information; EG-IX General Terms and Conditions; IETF RFC 7947; Heng Lu Note 73. ; EG-IX Technical Details; the dated PeeringDB EG-IX record, excluded from current metrics