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PLATFORM 01

Faststream Silicon

Faststream Silicon covers the full custom-chip path: architecture, RTL, verification, DFT, static timing analysis, physical implementation, mixed-signal integration and production transition. It runs across mature and advanced process nodes, chosen by what the application needs rather than by generation — 180 nm for a secure element with embedded non-volatile memory is the right answer as often as 16 nm is for a networking SoC.

ASICSoCFPGAMixed-signalDFTPhysical design
Silicon capability, specification to mask
01Architecturebudgets and partitioning02RTLclock and reset designed03VerificationUVM, coverage, formal04DFTscan, BIST, ATPG05Synthesisnetlist and constraints06Physicalfloorplan to routing07Signofftiming, IR, DRC, LVS180 nm to sub-28 nm, chosen by what the application needs rather than by generation.
SCOPE

What the platform covers.

PROCESS NODES

Node selection is an application decision.

Advanced does not mean appropriate. Analog content, embedded non-volatile memory, qualification burden, lifecycle and cost all push in different directions.

Node bands and typical applications
BandTypical applicationsWhy this band
180–90 nmSmart cards, secure identity, analog and mixed-signal, embedded NVM, long-lifecycle industrialMature NVM options, strong analog performance, low mask cost, long supply horizon
65–40 nmSecure microcontrollers, communications SoCs, integrated embedded systemsBalance of density and analog capability, wide IP availability
28 nm and belowHigh-performance communications, networking, AI and compute-heavy SoCsDensity and power efficiency justify the mask and design cost

Specific foundry and node experience is discussed under NDA. Public material describes capability rather than naming a foundry.

ENGAGEMENT

How a silicon programme runs.

01

Architecture and feasibility

Requirements captured, partitioning agreed, power, area and performance budgets set, IP and node selected, risks named early rather than discovered at signoff.

02

RTL and verification

Design and testbench developed in parallel. Coverage tracked from the first week, not assembled at the end.

03

DFT and synthesis

Test structures inserted and validated. Synthesis constraints developed against the real timing intent.

04

Physical implementation

Floorplan, place and route, clock tree, closure across corners and modes, signoff on timing, power integrity and physical verification.

05

Tapeout and bring-up

Handoff package assembled, mask release supported, silicon bring-up and characterisation planned before parts return.

06

Production transition

Test program, yield analysis, qualification support and long-term lifecycle engineering.

COMMON QUESTIONS

What engineers ask before they call.

01

Does Faststream work at advanced nodes only?

No. Node selection is driven by the application. Mature nodes from 180 nm to 90 nm remain the correct choice for smart cards, secure identity, analog and mixed-signal parts and long-lifecycle industrial products, largely because of embedded non-volatile memory options, analog performance and supply horizon.

02

Can Faststream take a design all the way to tapeout?

Yes. Programmes are run from architecture through RTL, verification, DFT, timing closure, physical implementation and tapeout handoff, and continue into bring-up, characterisation and production transition.

03

Do you supply IP as well as design services?

Yes. The semiconductor IP catalogue includes Precision Time Protocol, data acquisition control, DSP slice, AXI USB 2.0 and other cores, licensed with verification collateral and integration support.

KEEP READING

Related work.

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.