Uniqcli

Capability 07

Telecom

Carrier-grade routing, optical transport, structured cabling and secure communications infrastructure.

Scope
Cabling · routing · switching · optical transport
Deliverables
Cable-plant design · routing topology · capacity plan
Compliance
TAA-verified sourcing · NDAA §889 screened
Environments
Campus · carrier · multi-tenant backbones

Overview

Carrier-grade infrastructure, engineered for the physical layer up

Routing protocols get all the attention; the physical layer is where networks actually fail. Uniqcli engineers and delivers carrier-grade routing, optical transport and structured cabling as one design — so the fiber plant, the switch fabric and the routing policy are sized to the same capacity plan.

A cabling technician dressing a bundle of fiber into a high-density patch panel.

How we work

Engineered for uptime, from the fiber plant up

We design structured cabling — fiber and copper backbone, horizontal runs, telecom rooms — against your capacity and redundancy requirements first, since re-pulling cable plant after a network is live is the most expensive mistake a design can make. On backbones that carry critical operations, resilience is engineered in at the physical layer, not patched on after the first outage.

Routing and optical transport are engineered on top of that physical plant: carrier-grade routers and switches sized for throughput and convergence requirements, DWDM or CWDM transport where distance or capacity demands it, and secure communications paths where the program requires encrypted transport.

  • Structured cabling design — fiber and copper backbone, telecom rooms
  • Carrier-grade routing and switching sized to capacity and convergence needs
  • Optical transport (DWDM/CWDM) for distance and bandwidth requirements
  • Secure communications paths for encrypted or classified transport
  • Redundant paths and diverse routing where an outage isn't an option

The work, in depth

Telecom infrastructure, physical layer up

Structured cabling & fiber plant

An overhead ladder-rack pathway of combed backbone bundles running down a telecom room.

The cable plant is engineered before any electronics ride on it: backbone and horizontal counts set against capacity and redundancy targets, telecom-room and pathway layout drawn to standard, and grounding and bonding designed in rather than added after the network starts throwing errors. Getting the counts and the pathways right on paper is what spares a live network from having the walls opened a second time — the one rework a cabling design can rarely absorb.

The plant is documented as it's built: certified test results per fiber and copper run, labeling and as-built records, so warranty and future moves-adds-changes stand on a known-good baseline rather than guesswork.

  • Fiber and copper backbone, horizontal and telecom-room design
  • Pathway, grounding and labeling to standard
  • Certified link test results as a cabling deliverable
  • Capacity and redundancy sized before installation, not after

Carrier-grade routing & switching

A cold-aisle row of switching chassis with dense fiber cabling combed down vertical managers.

Routers and switches are selected and sized for throughput and convergence requirements, and every port count and uplink is checked against the design before the quote goes firm — so the fabric matches the traffic it's meant to carry.

High availability and redundancy are designed for carrier-grade uptime, and optic and DAC/AOC compatibility is validated per platform so the interconnect works the day it's powered on.

  • Router and switch selection sized to throughput and convergence targets
  • High-availability and redundancy design for carrier-grade uptime
  • Optic and DAC/AOC compatibility validated per platform
  • TAA country-of-origin confirmed per lot on all network hardware

Optical transport (DWDM/CWDM)

A stack of optical transport shelves with pre-terminated fiber routed through radius spools.

Where distance or capacity demands it, we spec DWDM or CWDM transport — a wavelength plan built around reach, channel count and the amplification or dispersion the span requires.

The transport layer is engineered to integrate cleanly with the routing and switching above it, and encrypted transport paths are designed in where the program requires protected or classified links.

  • DWDM/CWDM wavelength planning for distance and capacity
  • Reach, amplification and dispersion accounted for in the design
  • Integration with the routing and switching layer above
  • Encrypted transport paths where the program requires them

Capacity planning & infrastructure reliability

Diverse conduits rising into a weatherproof demarcation cabinet at the base of a comms tower.

A cabling and routing design sized exactly to day-one requirements is obsolete the day a program adds a building or a bandwidth-heavy application. We size fiber counts, patch capacity and routing headroom against a multi-year growth projection, not just the initial port count, so a campus expansion doesn't mean a second construction project.

For carrier and multi-tenant environments, we design routing policy and optical transport to support clean handoffs between operators and tenants — demarcation points, service-level boundaries and test access — so responsibility for a fault is unambiguous when something goes wrong at 2 a.m.

  • Fiber, patch and routing headroom sized to multi-year growth
  • Demarcation and service-level boundaries for clean operator handoffs
  • Test access points for unambiguous fault isolation
  • Redundant paths and diverse routing for resilient backbones

What's included

Physical layer to routing policy, one design

  • Structured cabling design and installation — fiber and copper
  • Carrier-grade router and switch specification and deployment
  • DWDM/CWDM optical transport for distance and capacity requirements
  • Secure and encrypted communications path design
  • Capacity planning sized to multi-year growth, not day-one counts
  • TAA-compliant sourcing across routing, transport and cabling hardware

Brands we carry

Telecom lines we engineer and deliver

Routing, switching, transport, antenna and test lines from the vendors these backbones are built on.

Frequently asked

Can you design cabling and routing for a multi-building campus?

Yes. We design the backbone cable plant, telecom room layout and routing topology together, sized for both current buildings and planned expansion.

Do you support optical transport for long-haul or high-bandwidth links?

Yes. We spec DWDM or CWDM transport based on distance, wavelength count and bandwidth requirements, and integrate it with the routing layer above it.

Can you supply carrier-grade hardware through TAA-compliant channels?

Yes. We confirm country of origin and TAA designation on routing, switching and transport hardware before quoting, with NDAA §889 screening on every line.

Do you certify and document the installed cable plant?

Yes. Certified link test results are provided per fiber and copper run as part of the cabling deliverable, with labeling and as-built records, so the plant is documented for warranty and future moves-adds-changes rather than left undocumented.

Can you design secure or encrypted transport paths?

Yes. Where a program requires encrypted or protected transport, we design the encryption endpoints and path separation into the routing and optical layers, and coordinate with the cybersecurity lane so the transport meets the same control framework as the rest of the network.

Scope a telecom infrastructure requirement

Send a site plan or capacity target — we'll come back with a cabling, routing and transport design.