Eurasia Peering's exchange port prices Russian route locality

Summary

• Eurasia Peering LLC is best read as a Moscow exchange-port and route-locality business rather than as a normal access ISP. RIPE records identify ORG-EPL11-RIPE as Eurasia Peering LLC, a Russian LIR, while the AS56931 object says the ASN is used for Eurasia Peering route servers rather than for ordinary customer prefix origination (https://rest.db.ripe.net/ripe/organisation/ORG-EPL11-RIPE.json, https://rest.db.ripe.net/ripe/aut-num/AS56931.json).
• The paid unit is a port-account economics problem. Eurasia Peering advertises Moscow locations, 1G/10G/25G/40G/100G port options, public and private peering, BGP community control, remote access, cloud access and DDoS protection options; its contract form prices service through one-time connection payments and monthly fees in Russian rubles, with an example 10G monthly fee of RUB 8,000 excluding VAT (https://www.eurasiapeering.com/features/, https://www.eurasiapeering.com/wp-content/uploads/2020/04/Contract.pdf).
• The route-locality case is credible but conditional. PeeringDB lists Eurasia Peering IX in Moscow with 136 networks, two facilities, IPv4 and IPv6 support, public and private peering notes, and the route-server network AS56931 with 500-1000Gbps traffic level and balanced traffic ratio; Internet Society Pulse lists 135 member ASNs in July 2026 and no MANRS IXP-program participation or RIPE Atlas anchor (https://www.peeringdb.com/ix/2035, https://www.peeringdb.com/net/15436, https://pulse.internetsociety.org/en/ixp-tracker/ixp/606/).
• The final judgement depends on the break-even against paid transit, a remote IX port, a private cross-connect, a CDN cache and doing nothing. Eurasia Peering matters if a local port lowers cost per delivered bit, latency, jitter, congestion, routing uncertainty and policy exposure for Russian and Eurasian traffic; it weakens if the same traffic is already handled cheaply by transit, cached locally, available through a better exchange, or too small to justify another operational surface.

The port decision is a substitution decision

Start with a network engineer and a finance owner looking at the same traffic chart. The engineer sees a set of Russian eyeball networks, banks, clouds, hosting companies, content networks, DDoS-protection providers, game platforms and regional carriers that would be easier to reach if traffic stayed in Moscow. The finance owner sees a monthly bill: transit commits, remote peering transport, data-center cross-connects, router ports, optics, NOC time, route filters and incident handling. Eurasia Peering LLC sits exactly at that intersection. Its business makes sense only if the local exchange-port account improves the combined cost, performance and policy outcome.

The basic choice is not "peer or do not peer." It is a substitution set. A network can keep paying transit and accept whatever AS path the upstream supplies. It can buy a remote IX port into Moscow and avoid colocating gear, but then it pays for transport and depends on a reseller or carrier. It can order a private cross-connect to one large counterparty if the bilateral traffic volume is obvious. It can push for a CDN cache, which may solve popular content but not banking, enterprise SaaS, gaming, cloud, DDoS or long-tail peer reachability. It can also do nothing if the traffic is too small, the team is too thin or the routing risk is not worth another interconnection. Eurasia Peering has to beat that whole set, not just a generic transit invoice.

The company's own English home page describes Eurasia Peering as an independent Internet exchange platform intended to advance connectivity in Eurasia, with members exchanging traffic to reduce latency, jitter and packet loss (https://www.eurasiapeering.com/). Its features page names Moscow locations across IXcellerate North, IXcellerate South and MMTS-9, describes public and private peering, lists 1G/10G/25G/40G/100G Ethernet connection options, and presents BGP communities, private connections, DDoS protection, cloud access and remote access as options (https://www.eurasiapeering.com/features/). The Russian-language features page carries the same operating story and shows the platform's positioning in more direct market language: a route to a large European Internet market, with 150+ ASNs, 3+ Tbps connected capacity and 100 percent availability as company-published claims (https://eurasiapeering.ru/features/).

Those claims should be used carefully. Public exchange metrics are self-reported across several sources and do not all match. The English page has counters that render imperfectly in a text scrape, while the Russian pages and traffic page show a peak of 851Gbps and ASNs of 213 in the site header (https://www.eurasiapeering.com/peering-traffic/, https://eurasiapeering.ru/looking-glass/). PeeringDB lists 136 networks for the exchange, and Internet Society Pulse lists 135 member ASNs for the same exchange in July 2026 (https://www.peeringdb.com/ix/2035, https://pulse.internetsociety.org/en/ixp-tracker/ixp/606/). Hurricane Electric's exchange page lists 160 members (https://bgp.he.net/exchange/Eurasia%20Peering%20IX). The differences are not fatal. They are normal in a market where exchange websites, PeeringDB, route-server sets and BGP mirrors update on different schedules and count ports, members and ASNs differently. But they are a reason to avoid a simplistic "over 200 peers" conclusion.

The economic unit is therefore narrower and more useful: a route-locality account at a Moscow exchange. A buyer pays for a physical or remote path into the switching fabric, the right to participate in public peering, the option to build private interconnections, route-server convenience, policy controls through communities, and the operational support needed when routes behave badly. The buyer does not buy guaranteed reach to every Russian eyeball network. It buys a better chance of reaching enough relevant networks locally to change its cost curve and performance profile.

That framing also explains why Eurasia Peering matters for market intelligence. A regional exchange does not need to be the largest IX in Russia to matter. It matters if it changes the marginal cost and control surface for networks that need Russian or Eurasian locality. The core question is not whether Eurasia Peering is a famous consumer brand. It is whether the port account lowers the cost of a real traffic mix while reducing path length, transit dependence, policy uncertainty and incident friction.

Four evidence lanes define the company

The public record is thin on customer contracts and audited economics, so the evidence has to be separated into four lanes. The first lane is legal and company identity. RIPE's organisation object lists Eurasia Peering LLC as ORG-EPL11-RIPE, country RU, registry number 1177746977924, organisation type LIR, and a Moscow address at Altufievskoe shosse 33B (https://rest.db.ripe.net/ripe/organisation/ORG-EPL11-RIPE.json). RDAP for AS56931 identifies the autnum as Eurasia-Peering, active, and links the registrant entity to Eurasia Peering LLC (https://rdap.db.ripe.net/autnum/56931). Russian registry-style sources give the same corporate identity: Saby lists Eurasia Peering LLC, INN 7716869690, OGRN 1177746977924, registration on 18 September 2017, activity in wired telecommunications, and 2024 revenue of RUB 11.977 million with RUB 584,000 profit (https://saby.ru/profile/7716869690-771501001). Star-Pro similarly lists the company as active, with communications activity and three licenses (https://star-pro.ru/proverka-kontragenta/organization/1177746977924--ooo-evraziya-piring).

The second lane is network-resource evidence. RIPE's AS56931 aut-num states that the ASN is used for Eurasia Peering route servers and points to AS-EURASIAPEERING_RS for the list of participating ASes (https://rest.db.ripe.net/ripe/aut-num/AS56931.json). RIPEstat's AS overview says AS56931 was not announced at the queried point on 6 July 2026, and its routing-status and announced-prefixes calls show no current originated prefixes or announced space (https://stat.ripe.net/data/as-overview/data.json?resource=AS56931, https://stat.ripe.net/data/routing-status/data.json?resource=AS56931, https://stat.ripe.net/data/announced-prefixes/data.json?resource=AS56931). BGP.tools reaches the same practical conclusion by saying AS56931 is not currently in the global routing table and originates zero IPv4 and zero IPv6 prefixes (https://bgp.tools/as/56931). That is exactly what one would expect from a route-server ASN used inside an exchange: the value is not a large originated address estate, but a control point for participants' route exchange.

The third lane is customer and service-catalogue evidence. PeeringDB lists Eurasia Peering IX in Moscow, with Ethernet media, IPv4 and IPv6 unicast, 136 networks, two facilities, public and private peering notes, and a PeeringDB route-server network entry for AS56931 (https://www.peeringdb.com/ix/2035, https://www.peeringdb.com/net/15436). The PeeringDB organisation page gives the Moscow address and website, while the exchange API exposes the facility set as Moscow M9 and IXcellerate MOS1 (https://www.peeringdb.com/org/18724, https://www.peeringdb.com/api/ix/2035). The company site expands that service catalogue into public/private peering, private interconnections, remote access, cloud-service access and DDoS protection (https://www.eurasiapeering.com/features/). The looking-glass page exposes route-server views and links to BGP communities and routing policy (https://www.eurasiapeering.com/looking-glass/).

The fourth lane is market and regulatory context. Internet Society Pulse says Russia had 32 active IXPs with 579 combined members in July 2026, and that when networks use an IXP rather than direct transit it can reduce reliance on international traffic and improve availability during disruptions (https://pulse.internetsociety.org/en/ixp-tracker/country/RU/). IXcellerate's 2018 announcement described Eurasia Peering as an independent traffic-exchange platform based in IXcellerate Moscow One with 1G, 10G, 25G, 40G and 100G ports, 3.5Tbps capacity and a 99.999 percent SLA claim (https://www.ixcellerate.com/news/ixcellerate-launches-modernized-peering-platform-eurasia-peering/). A later IXcellerate article said the platform was included in RIPE and PeeringDB and was doubling its peer base in Russia every half-year at that time (https://www.ixcellerate.com/news/eurasia-peering-ix-doubles-the-peer-base-in-russia-every-half-year/). Roskomnadzor's communications-license register pages for Eurasia Peering show telecom licensing signals such as L030-00114-77/00109734 and earlier license references, which matter because an exchange operator is also a Russian communications-services counterparty (https://rkn.gov.ru/activity/connection/register/license/p6700/?id=%D0%9B030-00114-77%2F00109734).

The four lanes do not prove the same thing. Corporate records prove identity and continuity. Routing records prove the route-server posture. PeeringDB and BGP exchange lists prove participation and member mix. Site and contract materials prove the service concept. Regulatory sources prove licensing context. None of them proves churn, gross margin, SLA performance, route-filter quality, customer savings or private incident history. That gap is central to the judgement.

Eurasia Peering is an exchange, not an ordinary access network

The first analytical mistake would be to judge Eurasia Peering like a broadband ISP. Its ASN does not behave like an eyeball network or a wholesale transit provider announcing large address blocks. RIPEstat says AS56931 is not announced; routing-status shows no visible IPv4 or IPv6 announced space at the 6 July 2026 query time; announced-prefixes returns an empty prefix list; BGP.tools says the ASN is not currently in the global routing table; Hurricane Electric says AS56931 has not been visible in the global routing table since 25 March 2023 and shows zero originated and announced prefixes (https://stat.ripe.net/data/as-overview/data.json?resource=AS56931, https://stat.ripe.net/data/routing-status/data.json?resource=AS56931, https://www.peeringdb.com/net/15436, https://bgp.he.net/AS56931).

That sounds negative only if the expected product is internet access. For an exchange route-server ASN, it is a normal clue. The route server sits on the peering LAN, receives routes from participants, applies policy and redistributes selected announcements. Its value is not in originating customer prefixes into the global table. Its value is in reducing the number of bilateral BGP sessions a participant has to configure and maintain. A small network can connect to the route servers and gain broad exchange reach with fewer sessions, while still building private bilateral sessions where volumes or policies justify them.

PeeringDB's route-server network entry reinforces that interpretation. It lists the network as "Eurasia Peering IX Route Servers," ASN 56931, network type Route Server, IRR as-set RIPE::AS-EURASIAPEERING_RS, open general policy, contracts required, 100,000 IPv4 prefixes, 2,000 IPv6 prefixes, regional scope, balanced traffic ratio and 500-1000Gbps traffic level (https://www.peeringdb.com/net/15436). Two operational route-server LAN entries are visible at 185.232.60.1 and 185.232.60.2 with corresponding IPv6 addresses 2a0d:e180::60:1 and 2a0d:e180::60:2 (https://bgp.tools/as/56931).

The AS-EURASIAPEERING_RS record is where the policy character appears. It describes BGP communities that can block traffic with 65535:666, redistribute a prefix only to a selected peer using 56931:PEER-AS, or block announcement to a selected participant with 0:PEER-AS (https://bgp.he.net/irr/as-set/AS-EURASIAPEERING_RS, https://rest.db.ripe.net/ripe/as-set/AS-EURASIAPEERING_RS.json). That is not merely a technical flourish. Communities let a participant manage route advertisement without turning every decision into a manual bilateral session. For a network whose Russian traffic includes banks, clouds, content networks, anti-DDoS peers and regional ISPs, that kind of control is part of the economic product.

The company's own contract makes the same point in legal language. The subject of the contract includes connection to the contractor's network and service on IP traffic route optimization, with order forms defining the service composition (https://www.eurasiapeering.com/wp-content/uploads/2020/04/Contract.pdf). The contract form says the participant must keep PeeringDB records up to date so the data confirms membership in Eurasia Peering IX. The technical appendix requires BGP session behavior, IRR route-object hygiene, one AS per interface for BGPv4 interactions, and a prohibition on announcing private networks, private ASNs, default route or full routing table to the route server. Those are exchange-governance obligations, not consumer-access terms.

This distinction shapes the risk. An access ISP's failure may be measured in subscribers offline. An exchange's failure may be measured in route churn, session resets, bad filtering, blackholing mistakes, local congestion, broken private VLANs, support delays or a loss of trust in the fabric. A buyer therefore has to ask whether the route server is well filtered, whether BGP communities behave as documented, whether route leaks are caught, whether members keep IRR and RPKI data current, and whether operations staff can resolve a disputed route quickly. The public record shows the control surface. It does not audit the controls.

Locality is the product

The physical map matters because a peering port is valuable only where the desired networks are reachable. Eurasia Peering's site says the exchange operates across several Moscow telecommunications locations: IXcellerate North, IXcellerate South and MMTS-9 (https://www.eurasiapeering.com/features/). PeeringDB's exchange API currently exposes two facilities, Moscow M9 and IXcellerate MOS1, which is a narrower facility set than the company's site language (https://www.peeringdb.com/api/ix/2035). That difference should not be ignored. It may reflect PeeringDB update lag, site marketing, facility naming differences or actual service expansion not fully reflected in PeeringDB. For a buyer, the only safe answer is facility-by-facility confirmation before ordering a port.

The IXcellerate footprint is still commercially meaningful. IXcellerate's Moscow North campus page says MOS1 is a Tier III/Level 3 facility with three data halls, 1,835 racks across 6,000 square meters, 13.7MW power, multiple independent fiber points of entry, meet-me rooms, over 50 telecom operators and access to multiple IX platforms including Eurasia Peering (https://www.ixcellerate.com/data-centers/moscow-north-campus/). It also says MOS2 accommodates 1,580 racks across 3,300 square meters with 13MW power. The Eurasia Peering features page describes IXcellerate North as two operational Tier III data centers with more under development and 50+ carriers, and IXcellerate South as a new 32-acre campus connected to the northern campus with 50+ carriers (https://www.eurasiapeering.com/features/).

MMTS-9 matters for a different reason. Eurasia Peering's feature page describes MMTS-9 as one of the largest intercarrier traffic exchange points in Eastern Europe, uniting more than 400 networks, at Butlerova 7 in Moscow (https://www.eurasiapeering.com/features/). The contract order-form template also uses 117485 Moscow, 7 Butlerova Street as a service-rendering point in its example and gives a technical connection-point description at that location (https://www.eurasiapeering.com/wp-content/uploads/2020/04/Contract.pdf). That makes M9 more than a marketing label. It is a practical Moscow interconnection location where a customer can think about physical cross-connects, ports, router placement and handoff responsibility.

Locality changes the buyer's economics in several ways. First, it can reduce latency and jitter for traffic that otherwise hairpins through a transit provider's upstream path or through a remote exchange city. Second, it can reduce paid transit volume if enough traffic is exchanged settlement-free or through included route-server reach. Third, it can reduce congestion risk by moving heavy local flows off transit links that also carry international or long-haul traffic. Fourth, it can improve operational control because the NOC can choose where announcements go and where they do not go. Fifth, it can reduce policy exposure by keeping traffic in a known local interconnection environment.

The last point is especially important in Russia and Eurasia. A network may not only want lower latency; it may want a route that avoids unpredictable cross-border paths, sanctions-sensitive suppliers, congested international segments or legal uncertainty around where traffic is carried. Internet Society Pulse makes the general point without naming Eurasia Peering specifically: when networks use an IXP rather than direct transit, it can reduce reliance on international traffic and can help keep parts of the Internet available during disruptions or outages (https://pulse.internetsociety.org/en/ixp-tracker/country/RU/). Eurasia Peering's product is one local implementation of that logic.

But locality has a cost. A local port requires either equipment in the facility, a cross-connect to existing gear, or remote access through a partner. It requires staff who understand BGP policy. It requires a route-filtering workflow. It requires monitoring. It requires a support relationship with the exchange and possibly with a data-center or transport provider. If the network has only a small Russian traffic share, or if the important content is already available through a CDN cache at its current provider, the locality benefit may not justify the new operational surface.

Port pricing is a break-even equation, not a sticker price

Eurasia Peering's public materials do not publish a modern full price card for every port size. That is an evidence limit. The contract form does, however, reveal the pricing model. The price consists of one-time connection charges and monthly service fees defined in order forms; payments are in Russian rubles; one-time invoices are issued after the contract and order form; monthly invoices follow the service start date; and the order-form template names the service as IP traffic route optimization using a port of the contractor's switch (https://www.eurasiapeering.com/wp-content/uploads/2020/04/Contract.pdf). Appendix 5 includes an example of a 10Gbps first-port service with a monthly fee of RUB 8,000 excluding VAT, with fiber-optic connection included in the monthly fee.

That example should not be read as today's universal price. It is a contract-template example from 2020, not a current tariff sheet. It is still useful because it shows how Eurasia Peering monetizes the account: a port-based monthly service tied to traffic-route optimization, with cross-connect and physical-port terms specified in an order form. The buyer must price the current quote, not the template.

The buyer's break-even calculation is more important than the headline fee. Suppose a network carries a meaningful share of Russian traffic over paid transit. It can compare the monthly cost of transit capacity and the congestion risk on that link with the exchange port, cross-connect, remote transport, optics, router interface, NOC support and route-management effort. If the exchange moves enough traffic off transit, the port saves money. If it also lowers latency and incident risk, the value is greater than the raw transit displacement. If the port sits underused, the buyer has added fixed cost and operational complexity without enough traffic relief.

Peering economics are often misunderstood because the exchange port may look cheap beside transit. The port is not the whole cost. There may be a data-center cross-connect, remote access fee, long-haul wave or VLAN, router-capacity upgrade, optic purchase, redundant port, additional monitoring, IRR work, route-server filtering, and staff time. Netnod's published IX pricing illustrates the unbundling: it separates monthly port access fees from monthly peering service fees and remote IX fees, and distinguishes single from redundant service (https://www.netnod.se/ix/netnod-ix-pricing). Euro-IX's 2021 IXP report shows wide price ranges for 10G and 100G ports across member IXPs and notes that membership fees and discounts affect observed prices (https://www.euro-ix.net/media/filer_public/35/73/3573f355-c90a-4b31-ae83-851b76cfa36b/ixp_report_2021.pdf).

Eurasia Peering's own port options show the likely customer segmentation. A 1G port is a small-network or trial surface. A 10G port is the workhorse. A 25G or 40G port can serve a network between ordinary regional scale and large content scale. A 100G port is for heavier content, cloud, DDoS, hosting, mobile or eyeball traffic (https://www.eurasiapeering.com/features/). PeeringDB API data for the exchange's netixlan records shows many 10G entries, plus 100G and 200G entries for larger participants, and roughly 2.9Tbps of listed operational port speed across visible port rows at the time queried (https://www.peeringdb.com/api/netixlan?ix_id=2035). Visible port speed is not traffic, but it is capacity evidence.

The port also changes bargaining with transit suppliers. A network that can move material traffic to an exchange may negotiate better transit commits, reduce burst charges, or avoid buying a larger transit port. Transit providers know this. The buyer's leverage is strongest when the exchange contains traffic-heavy counterparties that would otherwise be reached through the transit provider. The leverage is weak if the traffic mix is international, low volume, encrypted through a few CDN caches already close to the user, or dominated by counterparties not present at the exchange.

The substitute set stays active after the port is purchased. Paid transit still carries the default route and non-peered destinations. A remote IX port may be cheaper if the buyer does not need physical gear in Moscow. A private cross-connect may be better for one very large bilateral flow where settlement, SLA or routing policy needs are specific. A CDN cache may solve the largest content flows without a broader exchange relationship. Doing nothing may be rational if the business impact is low. Eurasia Peering's value is not that every substitute disappears. Its value is that the port can become the lowest-cost control point for the right traffic set.

The member mix is the source of demand

An exchange is only as valuable as the networks reachable on it. Eurasia Peering's public member evidence points to a mixed Moscow fabric rather than a single-sector club. Hurricane Electric's exchange page lists Cloudflare, Google, Yandex, VK, Sberbank, Wildberries, ER-Telecom, Beltelecom, Ucom, Jusan Mobile, EdgeCenter, SKB Kontur, CDNvideo, CDN77/DataPacket, DDoS-Guard, StormWall, IPTP, Zenlayer, RU-CENTER, Mastertel, MegaFon and many regional or hosting networks among visible participants (https://bgp.he.net/exchange/Eurasia%20Peering%20IX). BGP.tools' IXP page shows a similar spread, including 10G, 40G, 100G and 200G ports across regional ISPs, content, anti-DDoS, cloud, hosting and enterprise networks (https://bgp.tools/ixp/Eurasia%20Peering%20IX).

This mix matters because the economics of an exchange port improve when the buyer can aggregate many useful flows into one interface. A content network values access to eyeball ISPs and regional carriers. An access ISP values local routes to video, cloud, game, e-commerce and bank destinations. An enterprise SaaS or cloud platform values lower path uncertainty to customers and partners. A DDoS-protection provider values traffic-locality and the ability to steer mitigation paths. A hosting company values both content ingress and customer egress. A bank or marketplace values latency, availability and route predictability more than raw transit arbitrage alone.

PeeringDB's route-server entry says the traffic ratio is balanced (https://www.peeringdb.com/net/15436). Balanced ratio matters because exchanges struggle when too many participants are one-sided senders or receivers and commercial disputes arise about who benefits. A balanced route-server community can make the fabric more attractive because participants are not simply subsidizing a few traffic-heavy networks. But this is still self-reported PeeringDB data. It does not reveal who sends what traffic, which peers are active, whether routes are filtered correctly, or what percentage of traffic uses route servers versus private bilateral sessions.

Route-server participation is also not the same as full business reach. PeeringDB netixlan data showed 122 route-server peer flags among 150 visible port rows at the time queried, while some prominent networks appear as non-route-server peers or have separate bilateral arrangements (https://www.peeringdb.com/api/netixlan?ix_id=2035). That is normal. Large content networks often prefer bilateral policies, selective announcements or private sessions. For a buyer, the question is not whether a name appears on a public list. It is whether that network will exchange the needed routes with the buyer under acceptable policy.

This is why the route-policy layer is commercial. A route-server connection can open a large set of peers quickly, but it does not remove policy. Some peers may require bilateral agreement. Some may not announce all prefixes. Some may filter based on IRR, RPKI, prefix limits, max-prefix settings, traffic ratio, abuse history or commercial relationship. Some may accept routes but not carry the traffic path the buyer expects. The buyer needs route visibility, not just a member count.

The member mix also defines churn risk. If key content networks, eyeball networks or anti-DDoS providers leave, the exchange's value can fall even if the port still works. Internet Society Pulse says Eurasia Peering had six ASNs leave and four join in the prior 12 months as of July 2026 (https://pulse.internetsociety.org/en/ixp-tracker/ixp/606/). That is not a crisis signal by itself, but it is a reminder that an exchange is a community good. The port's value depends on who stays, who joins, and who actually exchanges useful routes.

Route-policy control is both product and risk

Eurasia Peering's route-policy surface is unusually important because the thesis is about route locality, not only bandwidth. The AS-EURASIAPEERING_RS object documents communities for selective advertisement, selective blocking and blackholing (https://rest.db.ripe.net/ripe/as-set/AS-EURASIAPEERING_RS.json). The company looking-glass page exposes route-server views including BGP summary, prefix info, neighbor info and rejected routes, and links to BGP communities and routing policy (https://www.eurasiapeering.com/looking-glass/). The contract appendix requires IRR route-object maintenance and prohibits default route, private AS, private networks and full table announcements to route servers (https://www.eurasiapeering.com/wp-content/uploads/2020/04/Contract.pdf).

Those controls create value. A participant can limit exposure to a problematic peer, advertise a prefix only to a selected network, or use blackholing during an attack. It can gain quick route-server reach without building dozens of bilateral sessions. It can use the looking glass to inspect route behavior. It can also document policy in PeeringDB and IRR so other networks can trust the session. For a small or mid-sized network, route-server convenience reduces engineering time and improves reach.

The same controls create risk. If a participant's IRR objects are stale, prefixes may be rejected or accepted incorrectly. If a route leak slips through, the exchange can become a distribution point for bad routes. If a blackhole community is misapplied, legitimate traffic can vanish. If a participant announces more-specific routes for traffic engineering, the receiving policies may not behave as expected. If the exchange's route servers or filters fail, traffic may fall back to transit at the worst possible time. If operations staff are slow to resolve a disputed route, the buyer's saved transit cost can be overwhelmed by incident cost.

The public record gives mixed governance signals. PeeringDB and RIPE show formal route-server and IRR structures. The contract form imposes route-object and BGP hygiene. The looking glass gives a transparency surface. But Internet Society Pulse says Eurasia Peering is not a participant in the MANRS IXP program and has no RIPE Atlas anchor (https://pulse.internetsociety.org/en/ixp-tracker/ixp/606/). That does not mean the exchange is poorly run. MANRS participation and RIPE Atlas hosting are voluntary signals. Their absence simply removes two public trust markers a buyer might otherwise use.

RPKI is another nuance. Some member lists expose RPKI-enabled flags, and BGP tools can show RPKI status for routed prefixes, but AS56931 itself currently originates no prefixes. The relevant question is not whether AS56931 has valid ROAs for originated space; it is whether participant route admission and filtering practices use accurate IRR and RPKI data. The public route-server as-set shows many members and as-sets, but it does not audit every participant's route object quality. A buyer should therefore test actual accepted/rejected routes and not assume that a published as-set equals clean routing.

Policy risk is not only technical. A Russian route-locality account sits inside a geopolitical environment where cross-border suppliers, sanctions, equipment availability, payment channels and telecom regulation can change. A route that is optimal today may become less attractive if a key peer withdraws, if a carrier changes transport pricing, if a data center changes cross-connect terms, if a license issue arises, or if sanctions make equipment support harder. These are not reasons to avoid the exchange. They are reasons to price route-policy risk as part of the port decision.

Suppliers and facilities shape the cost base

The cost base of an exchange is physical before it is digital. Eurasia Peering must operate switches, optics, route servers, monitoring, support, remote access relationships, facility presence and member coordination. Its features page references a redundant dual-core switching design based on Extreme Networks and infrastructure from Extreme Networks, Dell, Cisco, HPE and others (https://www.eurasiapeering.com/features/). The contract appendix's technical example names an Extreme Summit switch and a 10GE physical interface at Butlerova Street (https://www.eurasiapeering.com/wp-content/uploads/2020/04/Contract.pdf). Those details matter because the exchange's gross margin depends on how port revenue scales against hardware, space, power, cross-connect and support cost.

Facilities are part of the supply chain. IXcellerate offers the data-center environment, meet-me rooms, power redundancy, carrier presence and customer access that make a Moscow exchange commercially useful (https://www.ixcellerate.com/data-centers/moscow-north-campus/). M9 offers a legacy intercarrier concentration point. A remote-access partner ecosystem can widen the customer base beyond networks already colocated at those sites, but remote access adds transport dependency and another support boundary. A buyer using remote access is not buying exactly the same risk profile as a buyer with its own router in the meet-me room.

The contract language makes the responsibility boundary explicit. The contractor's area of responsibility is the Eurasia Peering network, and the default boundary is the client's ports on the client equipment or terminals installed as part of the client equipment; configuration and maintenance inside the client's responsibility remain the client's job (https://www.eurasiapeering.com/wp-content/uploads/2020/04/Contract.pdf). The contractor can change the service-rendering point with notice, disconnect or quarantine client ports if client actions disturb the contractor's network or other clients, and expects both parties to cooperate during faults. This is the operational reality behind a low monthly port fee: the exchange is not the buyer's whole network.

Supplier risk has increased in importance for Russian infrastructure companies. Even without a company-specific sanctions listing for Eurasia Peering, hardware support, spares, optics, software updates, payment channels and imported equipment can be harder in Russia than in less constrained markets. A dual-core switching design is only as resilient as the spares, staff knowledge and maintenance windows behind it. A buyer should ask about hardware lifecycle, vendor support substitutes, spare inventories, maintenance notice periods, route-server redundancy and escalation paths.

The cost base also includes trust work. Exchange operators have to onboard participants, maintain PeeringDB and route-server data, answer tickets, handle route disputes, monitor traffic, coordinate DDoS blackholing, manage abuse reports and maintain community confidence. Those tasks are not always visible in public accounts. They are central to the service. A small exchange with a good operations team can be more valuable than a larger exchange with weak support; the public record does not reveal which case applies here.

Competition comes from other exchanges and from not exchanging

Eurasia Peering competes first with the larger Russian exchange landscape. Internet Society Pulse lists 32 active IXPs in Russia in July 2026, with 579 combined members (https://pulse.internetsociety.org/en/ixp-tracker/country/RU/). MSK-IX Moscow is the obvious incumbent comparator: PeeringDB shows it in Moscow with a broad facility footprint and long-standing route-server presence (https://www.peeringdb.com/ix/100, https://www.peeringdb.com/net/10215). PITER-IX Moscow is another direct comparator, with PeeringDB showing 236 peers, 270 connections, 200 open peers and 12.6T total capacity at the exchange page, plus route-server traffic levels of 300-500Gbps on AS49869 (https://www.peeringdb.com/ix/3017, https://www.peeringdb.com/net/25096). Global-IX, CLOUD-IX, DataLine-IX and other Moscow or regional fabrics also appear in PeeringDB and Pulse datasets.

That competition makes Eurasia Peering's positioning sharper. It may not win by being the largest. It can win by being convenient inside IXcellerate, by offering M9 reach, by having the right mix of peers for a given buyer, by quoting favorable port terms, by providing remote access, or by giving better support for a specific traffic community. If a network's router is already in IXcellerate MOS1, the cross-connect and operational friction may be lower than joining a remote exchange. If the desired counterparties are already on Eurasia Peering, the port can be rational even if another exchange has more total members.

The second competitor is paid transit. Transit is simple, global and operationally familiar. The buyer signs a commit, receives default reachability, and lets the provider manage upstream paths. Transit may also come with DDoS options, support SLAs, and one invoice. A peering port beats transit only when local traffic volume, path quality and control justify the added routing work. If transit prices fall, or if the transit provider has excellent Moscow interconnection and low congestion, Eurasia Peering's substitution value falls.

The third competitor is a remote IX port. Remote peering lets a network reach an exchange without deploying equipment at the exchange's physical site. Eurasia Peering itself advertises remote access as an option (https://www.eurasiapeering.com/features/). That can be a product for Eurasia Peering, but it can also be a substitute if another platform's remote-access ecosystem is cheaper or richer. Remote peering changes the cost equation because transport becomes part of the port price. A remote IX port is attractive when operational simplicity and facility avoidance matter more than absolute latency and physical control.

The fourth competitor is a private cross-connect. If a network has a very large flow with one content network, cloud, bank or carrier, a bilateral private interconnection can be more predictable than route-server peering. It can support private terms, more precise traffic engineering, dedicated capacity and clearer escalation. But private cross-connects do not solve long-tail reach. Eurasia Peering is stronger when the buyer wants many peers through one port, and weaker when the buyer only needs one or two counterparties.

The fifth competitor is a CDN cache. If the buyer's traffic problem is mostly video, software updates or popular static content, a cache inside the buyer's network or current data-center environment may cut more transit than a peering port. A cache can also improve user experience without exposing the buyer to broad route-policy management. But a cache does not solve reverse traffic, cloud connectivity, enterprise SaaS, bank routes, gaming, anti-DDoS routing or long-tail regional interconnection. Eurasia Peering is more valuable when traffic diversity is the problem.

The sixth competitor is doing nothing. This is not laziness. It is a valid economic choice when the existing architecture works, traffic is small, staff is limited, or route-policy risk is not worth the potential savings. A port that saves a modest amount of transit but creates after-hours routing incidents is not cheap. The buyer needs a traffic matrix, not a peering fashion impulse.

Regulatory and geopolitical risk sits inside the invoice

Eurasia Peering's Russian regulatory identity is part of the commercial product. The contract form states that Eurasia Peering acts under telecom-services and data-transfer-service licenses, and Russian public license-register pages list communications licenses associated with the company (https://www.eurasiapeering.com/wp-content/uploads/2020/04/Contract.pdf, https://rkn.gov.ru/activity/connection/register/license/p6700/?id=%D0%9B030-00114-77%2F00109734). This matters because buyers are not merely plugging into a neutral switch. They are contracting with a Russian communications-services entity whose operations, invoicing, support and service terms sit under Russian law and local telecom supervision.

For Russian customers, that can be a feature. A local invoice in rubles, Russian-language support, Russian facilities, domestic telecom licensing and local route control can be easier to explain to management than a chain of foreign transit or remote exchange arrangements. For foreign or cross-border networks, the same facts create diligence questions: payment, sanctions screening, contract enforceability, personal-data exposure, routing-policy changes, and whether the network wants traffic to localize through Moscow under current geopolitical conditions.

The ownership and counterparty signals also deserve careful treatment. Saby says the company has a founder listed as IXcellerate Limited and reports 2024 revenue and profit figures, while Star-Pro lists IXcellerate Limited as a 100 percent founder and shows changes in registry/licensing data (https://saby.ru/profile/7716869690-771501001, https://star-pro.ru/proverka-kontragenta/organization/1177746977924--ooo-evraziya-piring). These are secondary registry-style sources, not audited annual reports. They still support a practical reading: Eurasia Peering is a small but real operating company tied to the IXcellerate data-center ecosystem, not a free-standing global carrier.

The small revenue signal is not necessarily negative. An exchange can generate limited direct corporate revenue if it is embedded in a data-center strategy, priced to attract tenants, or used to increase colocation value. The exchange may make IXcellerate more attractive even if the exchange company's standalone profit is modest. That is common in interconnection economics: the direct port fee can be only part of the total value. The data center may benefit from racks, cross-connects, power, remote hands and customer stickiness.

But modest direct revenue changes the risk lens. If the exchange is a strategic facility amenity, customers need confidence that the parent ecosystem will keep funding operations, hardware refreshes and support. If it is expected to be profitable on port fees alone, customers need confidence that price increases will not surprise them. If a small team runs a large route-server community, operational bottlenecks matter. Public sources do not answer those questions.

Unofficial signals are useful, but they are not proof

Several unofficial or semi-public signals reinforce the thesis without proving it. Data Center Map describes Eurasia:Peering as a neutral layer-2 peering point at IXcellerate's Moscow One data center that enables members to exchange traffic cost-effectively and efficiently (https://www.datacentermap.com/ixp/eurasia/). Newby Ventures repeats PeeringDB-derived context and frames the exchange as an interconnection point in Moscow for low-latency traffic exchange (https://www.newby-ventures.com/research/db/internet-exchange/2035). LinkedIn search snippets describe Eurasia Peering IX as a neutral exchange located within IXcellerate Moscow One and Moscow M9, with 1G/10G/25G/40G/100G ports and 3.5Tbps non-blocking switching capacity (https://www.linkedin.com/company/eurasia-peering-ix).

These signals should be treated as market chatter and directory repetition. They show that the exchange is recognized in the interconnection ecosystem, but they do not prove current utilization, customer savings, outage history or route-filter quality. PeeringDB, RIPE, BGP HE, BGP.tools and the company's own pages are stronger technical sources.

The website counters are another signal. The Russian site header shows peak traffic of 851Gbps and ASNs of 213, while the features page says 150+ ASNs and 3+Tbps connected capacity (https://eurasiapeering.ru/features/). The PeeringDB and Pulse counts are lower. This does not mean any one source is intentionally wrong. It means a buyer should request current member and traffic data under the same definition before making a cost case. Peak traffic, connected capacity, member ASNs, operational ports and route-server peers are different metrics.

Third-party corporate datasets are also only directional. Saby's 2024 revenue figure of RUB 11.977 million and profit of RUB 584,000 gives a sense of legal-entity scale (https://saby.ru/profile/7716869690-771501001). Star-Pro's active-company, license and court-case references give a counterparty-risk signal (https://star-pro.ru/proverka-kontragenta/organization/1177746977924--ooo-evraziya-piring). These sources are useful because Eurasia Peering does not publish a detailed annual report. They are not substitutes for signed contracts, management accounts or customer references.

The strongest unofficial signal is actually the visible member mix. The presence of recognizable content, cloud, bank, anti-DDoS, hosting, telecom and regional networks on BGP exchange lists is the best public proxy for why a port might be useful (https://bgp.he.net/exchange/Eurasia%20Peering%20IX, https://bgp.tools/ixp/Eurasia%20Peering%20IX). But even that signal is incomplete. A member can be present but not exchange desired routes. A port can be listed but operationally limited. A route-server peer flag can be true while policy remains selective. Public member lists are a starting point for diligence, not a finished business case.

What would prove or weaken the thesis

The strongest proof would be a current price sheet and live traffic matrix. A buyer needs to know the monthly recurring charge for each port size, installation fees, remote-access charges, cross-connect charges, redundancy pricing, DDoS or private-VLAN add-ons, contract term, support hours, outage credits and whether quoted fees include VAT. It then needs its own flow data: how much traffic would move to Eurasia Peering, which ASNs would exchange routes, what share would stay on paid transit, and whether the port would run hot during peak windows.

The second proof category is performance. Before and after route measurements should show lower latency, fewer AS hops, lower packet loss, lower jitter and fewer congestion events for the relevant Russian and Eurasian destinations. RIPE Atlas would be useful here, which is why Pulse's "no RIPE Atlas anchor" signal matters (https://pulse.internetsociety.org/en/ixp-tracker/ixp/606/). Without independent measurements, performance claims remain plausible but not proven.

The third category is route-policy quality. A serious customer should test route-server filters, rejected routes, IRR object handling, prefix limits, RPKI behavior, community behavior, blackhole workflow, support response and incident escalation. The looking glass and RIPE as-set give a useful starting point (https://www.eurasiapeering.com/looking-glass/, https://rest.db.ripe.net/ripe/as-set/AS-EURASIAPEERING_RS.json). They do not reveal operational performance under stress.

The fourth category is community resilience. The exchange is valuable if important members remain active and if new useful networks join. Pulse's 12-month join/leave signal, PeeringDB's net_count and BGP HE's member list should be tracked over time (https://pulse.internetsociety.org/en/ixp-tracker/ixp/606/, https://www.peeringdb.com/ix/2035, https://bgp.he.net/exchange/Eurasia%20Peering%20IX). Losing a major content network, cloud, bank, anti-DDoS provider or regional carrier could change the economics quickly.

The fifth category is facility and supplier continuity. IXcellerate's data-center scale supports the exchange story, but the buyer still needs to understand the exact point of presence, cross-connect path, remote-access supplier, route-server redundancy, switch hardware, spare strategy and maintenance policy (https://www.ixcellerate.com/data-centers/moscow-north-campus/, https://www.eurasiapeering.com/wp-content/uploads/2020/04/Contract.pdf). A cheap port in the wrong facility can be more expensive than a higher-priced port where the buyer already has equipment.

The final proof category is customer renewal. If networks join, upgrade from 10G to 100G, maintain route-server sessions, add private interconnections and keep the port through several budget cycles, the route-locality case is working. If ports churn, if customers rely mostly on transit after joining, if route-server disputes are common, or if key peers prefer other Moscow fabrics, the case weakens.

Final judgement

Eurasia Peering matters if a local exchange-port account is the cheapest reliable way to buy Russian and Eurasian route locality. The strongest public evidence supports that narrow thesis. The company is a registered Russian LIR and exchange operator; AS56931 is a route-server ASN rather than an ordinary access network; PeeringDB, Pulse and BGP sources show a real Moscow exchange with a material member mix; the company site and contract show a port-based service model with public and private peering, BGP community control, remote access and ruble-denominated monthly fees.

The economics are not automatic. A buyer still has to compare Eurasia Peering with paid transit, a remote IX port, a private cross-connect, a CDN cache and doing nothing. Paid transit is simpler and may already provide acceptable Moscow reach. A remote IX port may avoid facility cost. A private cross-connect may be better for one large flow. A CDN cache may cut the heaviest content traffic with less route-policy work. Doing nothing may be rational if Russian traffic is small or if the existing path is good enough.

Eurasia Peering's best case is a network with enough Russian and Eurasian traffic to make locality visible in both performance and cost. The buyer sees traffic to content, cloud, banks, anti-DDoS networks, regional ISPs, hosting companies and enterprise platforms. It can reach many of them through one Moscow exchange port. It can reduce transit load, improve latency, use route-server convenience, apply communities for policy control, and add private sessions where volumes justify them. In that case the port account is not an optional badge. It is a practical hedge against transit cost, path uncertainty and policy exposure.

The weak case is equally clear. If the buyer's meaningful traffic is already cached locally, if key desired peers are absent or selective, if remote transport erases the price advantage, if route filtering is not trusted, if the operations team cannot manage another interconnection, or if the geopolitical and regulatory exposure is unacceptable, the port loses its advantage. Eurasia Peering should therefore be bought with measurements, not with slogans: traffic matrix, peer list, quote, facility plan, route-policy tests and a fallback path.

The conditional judgement is that Eurasia Peering is not a broad access-network story. It is an exchange-port locality story. The public record supports a credible Moscow peering platform whose value is clearest for networks that need local control over Russian and Eurasian routes. The remaining uncertainty is private: current price terms, live traffic distribution, route-server performance, customer churn, outage history and the actual savings achieved by participants.