Pre-launch Switching fabric build in progress ASN AS-TBD Fabric MTU 9000 PeeringDB ix/TBD
GLIXGREAT LAKES INTERNET EXCHANGE

GLIX/Physical infrastructure/Facilities

Production deployments

Exchange facilities and points of presence

GLIX is designed as a resilient multi-chassis switching fabric distributed across carrier-neutral facilities throughout the Great Lakes and Upper Midwest. Traffic stays local, sub-millisecond, and regionally governed.

Facility selection is not finalized. Each card below is a template: fill in the address, switch model, cabinet, and meet-me-room detail once a site is contracted.

Planned regional topology

Illustrative
METRO AMETRO B METRO CMETRO D CORE NODE Node placement, ring order, and wave capacity are placeholders pending facility contracts.

Carrier-neutral sites

Facility template

Copy one card per site. Nothing here is contracted yet.

Site 1 · planned

Facility name

Operator · city, state

Fabric switch
TBD
Port speeds
10GE · 100GE · 400GE
GLIX cabinet
TBD
Meet-me room
TBD

Active peers TBD Request LOA and CFA

Site 2 · planned

Facility name

Operator · city, state

Fabric switch
TBD
Port speeds
10GE · 100GE
GLIX cabinet
TBD
Meet-me room
TBD

Active peers TBD Request LOA and CFA

Site 3 · planned

Facility name

Operator · city, state

Fabric switch
TBD
Port speeds
10GE · 100GE
GLIX cabinet
TBD
Meet-me room
TBD

Active peers TBD Request LOA and CFA

Optical backhaul between sites

Coherent waves

Sites are planned to connect over carrier-diverse dark fiber with coherent transponders, so a single fiber cut cannot partition the fabric.

Jumbo frames

A 9000 byte MTU across the fabric supports replication, storage transport, and high-throughput research flows without fragmentation.

Optical protection

Automatic protection switching is intended to restore a cut span without tearing down BGP sessions on the fabric.

Strict RPKI

Route servers drop RPKI-invalid announcements at the ingress control plane rather than deprioritizing them.

Facility requirements

  • Genuinely carrier neutral, with an open meet-me room.
  • Diverse entrances and more than one long-haul fiber provider on site.
  • Concurrently maintainable power and cooling.
  • Remote hands available around the clock.
  • A participant density that justifies a switching node.
Operating a qualifying facility and want a GLIX node? Talk to us →

Provisioning protocol

Cross-connect and port turn-up

Standard IXP procedure for ordering a physical cross-connect with the facility operator.

01

Submit the port request

Specify the target facility, desired port speed, and interface handoff type. GLIX assigns a switch name, blade, and port index.

NOC response: TBD

02

Order the cross-connect

Download the issued Letter of Authorization and Customer Facility Assignment and present it to your facility's portal or account team.

Demarcation: single-mode fiber, LC/UPC

03

Light and verify

Once the cross-connect is complete, the NOC tests optical light levels and transmit and receive digital diagnostics before enabling the port.

Turn-up lead time: TBD

04

Establish BGP

Bring up both route server sessions and any bilateral sessions you have negotiated with other participants.

See the route server guide

Physical optics and demarcation matrix

Single-mode only
Port speedOptic standardWavelength ConnectorSupported distance
10GE10GBASE-LR1310 nm LC/UPC duplex, OS2Up to 10 km
100GE100GBASE-LR41310 nm LAN-WDM LC/UPC duplex, OS2Up to 10 km
400GE400GBASE-DR4 / FR41310 nm MPO-12/APC or LC/UPC500 m – 2 km

Multimode fiber is not supported on the GLIX core fabric. Confirm the optic standard with the NOC before ordering a cross-connect.