Telecommunications Industry

Custom
Electronics for the Carriers, Networks, and Infrastructure That Connect the
World

From NEBS Level 3 access hardware and O-RAN radio units to CBRS CBSD electronics and GSMA eSIM platforms — Ankh Innovations engineers custom telecom hardware from schematic to PTCRB-certified, carrier-qualified product.

99.999%
Carrier availability target — just 5.26 minutes downtime per year
$540B
Global 5G infrastructure capex projected through 2030
50,000+
O-RAN radio units targeted for deployment by Tier 1 carriers in 2025
CHALLENGE

The Stakes in Telecom Infrastructure

Five-Nines Availability Means 5.26 Minutes of Downtime Per Year. Your Hardware Is on the Critical Path.

99.999%
Carrier availability target — just 5.26 minutes downtime per year
$540B
Global 5G infrastructure capex projected through 2030
50,000+
O-RAN radio units targeted for deployment by Tier 1 carriers in 2025

Telecommunications infrastructure hardware operates at a level of reliability expectation that would be considered absurd in any other electronics context. Five nines — 99.999% availability — translates to 5.26 minutes of unplanned downtime per year, across hardware that may be deployed in outdoor cabinets, rooftop enclosures, underground central office environments, and orbital LEO satellite platforms simultaneously.

The barrier to entry is real: NEBS Level 3 qualification requires GR-63-CORE seismic, thermal, and altitude testing plus GR-1089-CORE EMC — a six-to-twelve month process with significant capital and engineering investment. PTCRB and 3GPP RF conformance, CBRS SAS interface certification, and carrier lab acceptance testing add additional gates that consumer-grade hardware companies simply cannot navigate.

Ankh Innovations has invested in RF infrastructure, NEBS test coordination, and carrier qualification engineering specifically to serve companies building telecommunications hardware. We know how to structure a hardware program that will pass NEBS the first time, not the third.

08
What We Build

From O-RAN Radio Units to Satellite Ground Hardware

01

O-RAN & Private 5G Radio Hardware

02

NEBS-Qualified Access & Edge Hardware

03

eSIM & Remote SIM Provisioning Hardware

04

Satellite Ground & LEO Terminal Electronics

05

Network Timing & Synchronization Hardware

06

Tower Site & RAN Backhaul Electronics

07

IoT Connectivity & Device Management Platforms

08

Optical & Fixed-Line Access Hardware

CAPABILITIES
Engineering capabilities
Engineering Capabilities
Built for Carrier-Grade Qualification

RF Design: Sub-6 GHz Through mmWave

Full RF front-end design — PA selection and load-pull optimization, LNA noise figure and IP3 trade-offs, duplexer and filter mask compliance, controlled-impedance PCB layout, and RF characterization from 400 MHz to 86 GHz using on-site VNA and spectrum analyzer infrastructure.

3GPP TS 36.521 / 38.521 Conformance

LTE and 5G NR RF conformance testing preparation — transmitter/receiver OTA/conducted, demodulation reference sensitivity, adjacent channel selectivity, and conducted spurious emission measurement. PTCRB/GCF certification campaign management.

NEBS Level 3: GR-63 / GR-1089

NEBS qualification engineering from design through test: seismic Zone 4 equipment design, GR-63-CORE thermal characterization, GR-1089-CORE EMC (ESD 8 kV, EFT 4 kV, surge, lightning), and acoustic noise compliance.

O-RAN: eCPRI / E2 / A1 / O1 Interfaces

O-RAN Alliance compliant O-RU hardware with eCPRI Category A/B split, O1 management plane NETCONF/YANG, E2 service model interface, and A1 policy management — tested against O-RAN open test and integration centers (OTICs).

IEEE 1588v2 PTP & SyncE Timing

Telecom-grade synchronization hardware design — GNSS-disciplined grandmaster, transparent clock implementation, SyncE frequency synchronization, and hybrid PTP+SyncE for LTE and 5G fronthaul timing recovery within ±100 ns.

Five-Nines Reliability & Redundancy Architecture

Reliability block diagram analysis, MTBF prediction per Telcordia SR-332, hot-standby redundancy architecture, hitless protection switching, and NEBS-compliant graceful degradation design — engineering five-nines availability from the first schematic.

Why Ankh Innovations
Why Ankh Innovations
WHY

Why Engineering Teams Choose Ankh

01

We Design the RF Front-End, Not the Module Carrier Board.

Most embedded design shops integrate an off-the-shelf cellular module and call it RF work. Our RF team designs the PA topology, optimizes the filter mask for your specific carrier band plan, and tunes the antenna matching network on a real VNA — not a simulation. When your radio needs to hit 3GPP TS 38.521 transmitter EVM at the edge of temperature range, we know exactly where the margin went and how to recover it before the conformance test campaign starts.

02

NEBS Level 3 Is a Design Discipline, Not a Test Campaign.

Hardware that fails GR-63-CORE seismic testing at the lab doesn't just fail the test — it fails because the chassis was designed without NEBS zone map constraints in mind. We structure NEBS into the product architecture from day one: component anchoring rules, card guide clearances, airflow topology for thermal zone compliance, and GR-1089-CORE surge suppression networks that are part of the schematic, not the rework pile. Products that go to NEBS test from our team pass on the first campaign.

03

We Know How Tier 1 Carrier Procurement Labs Work. We've Sent Hardware Through Them.

Carrier lab acceptance testing is not a spec sheet — it is a live integration event with the carrier's OSS/BSS team, network operations engineers, and RF planning team all watching your hardware perform on their infrastructure. Ankh engineers have been in those labs. We structure hardware programs around carrier qualification milestones, prepare the test plans, and make sure the hardware that arrives in the lab is the same hardware that will reach the field — not a special build assembled for the test.

04

Telecom Infrastructure Ships in Year One and Gets Managed for Twenty Years.

Carrier hardware programs span decades. The component you design with today may be EOL in three years, and a tower site controller installed in 2026 may still be in service in 2044. Ankh builds long-life electronics programs with multi-source component strategies, JEDEC-standard obsolescence monitoring, and design-for-replaceability so that when a silicon vendor sunsets a part, your engineering team has a validated replacement plan and not a hardware crisis.

Case Study — Private 5G CBRS Deployment
Case study

CBRS Private 5G Radio Hardware for a Tier 1 Logistics Operator

A major North American logistics operator needed CBRS-certified indoor and outdoor radio hardware for private 5G coverage across 47 distribution centers. Ankh designed the CBSD radio electronics with FCC Part 96 SAS interface, O-RAN eCPRI fronthaul, and TR-369 USP management — achieving PTCRB certification in the first test campaign and deploying across all 47 sites within 11 months of silicon bring-up.

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