EnSilica is opening a Space and Communications Semiconductor Centre of Excellence in Milan, adding system-level modem and millimetre-wave engineering to its European application-specific semiconductor operation. The company plans to recruit 20 specialist engineers during the first six months.
The Milan team will work across modem architecture, physical-layer algorithms, digital signal processing, and mmWave communications systems. Its engineers will operate alongside EnSilica’s existing ASIC development and operations teams, linking communications-system design with the implementation of application-specific silicon for space and communications equipment.
The centre becomes EnSilica’s third continental European site alongside its growing design operation in Budapest and expanding sales centre in Munich. The company also maintains engineering operations in the UK, India, and Brazil, giving the Milan recruitment programme a specific role within a distributed development organisation rather than creating a standalone semiconductor business.
Satellite communications increasingly combines high-frequency radio functions with substantial digital processing. Modem architecture defines how information is prepared for transmission and recovered at the receiver, while physical-layer algorithms handle functions such as synchronisation, channel estimation, modulation, and error correction.
Digital signal processing implements many of those functions at high speed, while mmWave engineering deals with frequencies where radio design, packaging, antenna behaviour, signal integrity, and power consumption become progressively harder to manage. Bringing those disciplines closer to the ASIC team gives system decisions a shorter route into the eventual semiconductor architecture.
That connection becomes important early in a custom chip programme. Choices made around algorithms, data rates, interfaces, memory, and radio architecture influence silicon area, power consumption, verification workload, packaging, and production cost. A system concept that works at simulation level still has to fit within the electrical, thermal, and physical constraints of a manufacturable device.
EnSilica operates as a fabless semiconductor company, concentrating on design, intellectual property, product engineering, and supply-chain management while using external wafer fabrication and packaging capacity. Its business includes customer-funded application-specific integrated circuits as well as application-specific standard products developed for use across more than one programme.
The Milan centre will contribute to both parts of that model. Customer-funded ASIC projects can generate engineering revenue during development and recurring supply revenue after production begins, while standard products allow a design platform or function to address several customers without restarting the entire development cycle.
Space and satellite communications impose additional requirements on semiconductor design. Devices may need radiation tolerance, long production availability, controlled manufacturing routes, traceability, and extensive qualification, while power and thermal budgets can be considerably tighter than those surrounding similar processing functions in terrestrial infrastructure.
Those constraints favour higher levels of integration where the economics support a custom device. Combining functions that would otherwise occupy several components can reduce board area, electrical interfaces, and power consumption, while giving the equipment designer greater control over proprietary processing and communications functions.
EnSilica’s existing space portfolio includes beamforming technologies for electronically steered antennas, satellite payload ASICs, communications devices, and resilient positioning, navigation, and timing systems. The addition of modem and mmWave specialists expands the engineering work available before those functions reach chip architecture and detailed circuit design.
Milan also gives the company access to northern Italy’s established semiconductor and communications engineering base. The region includes technical universities, research organisations, and companies active in analogue, mixed-signal, power electronics, telecommunications, and space technology, providing a recruitment and collaboration pool close to several European electronics markets.
Operating inside the European Union also creates opportunities around collaborative research and EU-funded development programmes. Semiconductor and space policy increasingly includes regional capability alongside individual product performance, particularly where communications, defence, infrastructure, and satellite systems rely on components with long qualification and supply cycles.
The first measure of the investment will be recruitment. Twenty specialist engineers is a relatively small team compared with the staffing of a large semiconductor design campus, but modem and mmWave expertise is highly specialised, and EnSilica intends the centre to connect directly with live customer and internal product programmes.
Those programmes will determine the site’s longer-term scale. The centre begins as an engineering expansion rather than a fabrication investment, but its work will feed into production silicon manufactured through EnSilica’s wider supply chain. Devices reaching tape-out, qualification, and volume manufacture will provide the clearest indication of how much additional semiconductor development the Milan operation brings into the company’s European business.
