PlatformsFaststream SiliconFaststream RadioFaststream VisionConnected EdgeFaststream SecureMobility & Rail
ProductsSemiconductor IPWireless & RANEdge & GatewaysTracking & IdentificationSoftware & FrameworksConnected Systems
TechnologyRTL to GDSIIVerification methodologyDFT and silicon testLow-power designMixed-signal integrationDesign enablement5G protocol stackWireless and RF architectureBaseband and low PHYForward error correctionControl and data planeHigh-speed interfacesFirmware and bootSilicon root of trustSoftware-defined vehicleAutomotive OTAFunctional safety
AIAI Engineering ServicesEdge AI & Embedded MLComputer Vision EngineeringSensor Fusion & PerceptionAI Silicon & AccelerationMLOps for DevicesAI Visual InspectionPredictive MaintenanceDriver MonitoringVideo Analytics & Safety
SolutionsSemiconductorIndustrial AIConnected ProductsAsset TrackingAutomotive & MobilitySmart InfrastructureSecure IdentityWireless & SatelliteSmart WashroomsFuel ManagementSmart BuildingsWorker SafetyEnergy MonitoringSmart AgricultureSmart CityAutonomous PlatformsAssembly AutomationLiDAR Rail SafetyHardware Wallet
IndustriesSemiconductorTelecommunicationsIndustrial & ManufacturingAutomotive & MobilityTransportation & RailAerospace & DefenceHealthcare & MedicalEnergy & UtilitiesOil & GasRetailConsumer ElectronicsMedia & EntertainmentSmart Infrastructure & IoT
ServicesSystem Integration overviewASIC & SoC DesignFPGA DesignFPGA-to-ASIC ConversionAnalog, Mixed-Signal & RFHardware & High-Speed PCBEmbedded SoftwareCloud, OTA & Device ManagementManufacturing TransitionHow we engage
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SILICON RADIO EDGE AI CLOUD SENSING SYSTEMS

Silicon · Connectivity · Intelligence

Silicon to cloud. No handoffs.

Semiconductor, wireless, embedded and connected hardware — architecture through volume, one team.

13Industries served, from semiconductor to aerospace
52Products across six families
3.9–4.1%System EVM on the 5G digital front end
180–16 nmNode range, TSMC and GlobalFoundries PDKs

What this is

For anyone with a hard problem and a deadline.

Semiconductor design, licensable IP, 5G and O-RAN radio, edge AI, industrial vision and connected hardware — brought together by the people who will also tell you when not to build it.

What we actually sell

Engineering is mostly knowing what not to build.

Any competent firm can execute a specification. The expensive part of a programme is deciding which specification is worth executing — and that decision gets made early, quietly, and usually by whoever is least incentivised to question it.

So we argue first. An inspection problem that is really a lighting problem. A conversion for a design whose requirements are still moving. Saying so before a purchase order costs us a piece of work. Saying it afterwards costs us a customer.

What we can show you

Numbers we are willing to stand behind.

Not a customer logo wall. The figures Faststream has published or can demonstrate, with the caveat attached where a caveat belongs.

FOUNDED2008Supplying mixed-signal semiconductor IP since
CATALOGUE52Products across six families, each with its own page and stated maturity
PUBLISHED3.9–4.1%System error vector magnitude on the 5G digital front end, under stated configuration
SILICON180–16nmTSMC and GlobalFoundries PDKs, across mature and advanced nodes

Platforms

Six capability families.

Organised around what customers build rather than around how we are staffed. Most programmes draw on two or three.

Products

Fifty-two things you can actually receive.

A product is an artefact with a datasheet, a version and a commercial model. Design work lives under System Integration. Every item carries its maturity status.

What we actually do

Seven layers, one accountable partner.

Programmes stall at the boundaries between these, not inside them. Select a layer to see what it involves.

Where the budgets are set

Architecture

Power, latency, cost and thermal envelope allocated across the whole system before anything is designed. Most programmes that fail late failed here, quietly, in week three.

  • Constraint stated as a number
  • Partitioning across silicon, hardware and software
  • Make-or-buy per block
  • The risks nobody wrote down

Inside the unit

What is actually in a radio unit.

Select a part. Most of the cost, the heat and the difficulty sit in three of these, and they are not the three most specifications spend their pages on.

01

Antenna array

Element count and spacing set by band and coverage. On massive MIMO configurations this is the largest single contributor to both cost and calibration effort.

  • 2T2R to 64T64R
  • Calibration per element
  • Band-specific spacing

How working with us actually goes.

01 / 07

STAGE 01

Tell us the constraint, not the specification.

The most useful first message names the thing that will not close — a power budget, a cycle time, a defect that keeps escaping, a link that drops. Specifications describe a solution somebody already chose; constraints describe the problem.

  • An engineer replies, not a form
  • No obligation and no deck
  • We will say if it is outside what we do
STAGE 02

A scoping conversation that can end in no.

An hour or two establishing what binds, what has been tried, what the schedule really is and whether an engagement makes sense. Roughly one in five of these concludes that it does not, and saying so at this point costs us a proposal rather than a customer.

  • Technical people on both sides
  • Under NDA where it needs to be
  • Honest about what we have not done before
STAGE 03

Feasibility, where the answer is still allowed to be no.

Where the risk sits in whether something is achievable at all, a short paid study answers it on your parts, your line, your data. It produces a measured result against the stated constraint and a recommendation — including, sometimes, a recommendation not to proceed.

  • Weeks, not months
  • Real material, not sample data
  • A negative result is a successful outcome
STAGE 04

A scope with the difficult parts named.

Architecture, effort, milestones and the commercial model — licence, fixed scope or dedicated team. The estimate identifies what is uncertain rather than burying it, because the items nobody wrote down are the ones that consume the schedule.

  • Stated assumptions and dependencies
  • Named risks with a plan for each
  • IP ownership settled before work starts
STAGE 05

Delivery, then handover you can actually run.

Regular working contact rather than status reports, with problems raised when they appear. Delivery includes the documentation, tooling and training your team needs to own it afterwards — a deliverable nobody can maintain has not been delivered.

  • Working sessions with your engineers
  • Manufacturing transition where it applies
  • Support that does not require us forever
STAGE 06

Manufacture, and the parts nobody demonstrates.

Design for manufacture before layout freezes, a test strategy with stated coverage, a pilot build that establishes process capability, and yield analysis that looks for cause rather than reporting a rate.

  • Test coverage and cost per unit
  • Pilot build and capability
  • Obsolescence monitoring from day one
STAGE 07

Then we are no longer necessary.

The measure of a finished engagement is whether your team can carry it without us. Tooling, documentation, training and the reasoning behind the decisions — not just the artefacts.

  • Design rationale, written down
  • Toolchain archived and reproducible
  • Support that tapers rather than persists

What we will not do

The claim discipline is the product.

There is no customer logo wall here, because we have not been given permission to publish one. No advisory board of named experts, because we would have had to invent it. No certification badges, because a stale claim is worse than none.

A supplier who will not overclaim to win your business is a supplier who will not overclaim about your programme once they have it. That is the whole argument.

BUILD WITH FASTSTREAM

Bring us the difficult part.

Tell us the specification, the constraint and the deadline. Programmes that cross silicon, radio, embedded and AI are where Faststream is strongest.

COMMON QUESTIONS

What engineers ask before they call.

01

What does Faststream Technologies do?

Faststream Technologies is a United States semiconductor and connected-product engineering company founded in 2008. It licenses semiconductor IP cores, supplies 5G and O-RAN radio subsystems, industrial AI vision systems, IoT gateways and asset-tracking hardware, and integrates them into production products across silicon, embedded systems, connectivity and cloud.

02

Is Faststream Technologies the same as Faststream Recruitment?

No. Faststream Technologies is a semiconductor and connected-product engineering company. It is unrelated to Faststream Recruitment, the maritime and shipping recruitment firm, and unrelated to the UK Civil Service Fast Stream programme.

03

Where is Faststream Technologies based?

Faststream Technologies is a United States company with an engineering centre in Bengaluru, India. Programmes are delivered from both locations depending on the work and any export-control or data-residency requirements.

04

Does Faststream license IP or provide engineering services?

Both. The semiconductor IP catalogue is licensable and supplied with verification collateral and integration support. Design and integration work is engaged separately under System Integration, and the three business models are set out on the How we engage page.