SciTransfer
Organization

MICRAM MICROELECTRONIC GMBH

German SME designing high-speed BiCMOS and CMOS-photonic integrated circuits for 200 Gbps optical transceivers and THz applications.

Technology SMEdigitalDESMENo active H2020 projectsThin data (2/5)
H2020 projects
2
As coordinator
0
Total EC funding
€1.2M
Unique partners
38
What they do

Their core work

MICRAM Microelectronic GmbH is a German semiconductor company specializing in high-speed electronic and photonic integrated circuits, particularly for optical communications and advanced RF/THz applications. Their work centers on designing and fabricating chips using BiCMOS technology — a process that combines the high-speed capabilities of bipolar transistors with the density advantages of CMOS — enabling data transmission at 200 Gbps and beyond. In the plaCMOS project they contributed to wafer-scale integration of photonic, plasmonic, and electronic components on a single chip, targeting mass-manufacturable transceivers for next-generation data networks. In parallel, through TARANTO, they worked on pushing BiCMOS nanoscale platforms toward radio-frequency and terahertz operating ranges, where conventional silicon struggles.

Core expertise

What they specialise in

BiCMOS integrated circuit design for RF and THzprimary
1 project

TARANTO (2017–2021) focused explicitly on advancing BiCMOS nanoscale platforms for RF and terahertz applications, a domain requiring specialist foundry and circuit design knowledge.

Photonic-electronic co-integration on CMOSprimary
1 project

plaCMOS (2017–2022) targeted wafer-scale monolithic integration of photonics, plasmonics, and electronics, with MICRAM contributing to 200 Gbps transceiver development.

High-speed optical transceiver technologyprimary
1 project

The plaCMOS project keywords — 200 Gbps, wavelength division multiplexing, space division multiplexing, transceivers — point directly to optical interconnect and datacom chip expertise.

Plasmonic modulator and ferroelectric material integrationsecondary
1 project

plaCMOS keywords include plasmonic modulators and ferroelectric materials, indicating MICRAM has working exposure to these advanced electro-optic material platforms.

Wafer-scale semiconductor manufacturing processessecondary
1 project

plaCMOS explicitly targets mass manufacturing via wafer-scale and monolithic integration approaches, suggesting MICRAM contributes process-level or design-for-manufacturability expertise.

Evolution & trajectory

How they've shifted over time

Early focus
BiCMOS RF and THz circuits
Recent focus
CMOS-photonic transceiver integration

Both H2020 projects began in 2017, so there is no meaningful long-term chronological shift to observe — the available data represents a single snapshot in time rather than a career arc. Within that snapshot, the keyword evidence clusters entirely around plaCMOS (photonics, plasmonics, 200 Gbps transceivers), while TARANTO carries no indexed keywords despite covering BiCMOS RF/THz work. The most honest reading is that MICRAM operates across two complementary high-speed chip domains simultaneously: electronic (BiCMOS/THz) and photonic-electronic (CMOS photonics), rather than having evolved from one to the other.

MICRAM appears to be positioning at the intersection of high-speed electronics and integrated photonics — a space that is growing rapidly as datacenters and telecom networks push beyond 100 Gbps per channel — making them a relevant partner for anyone developing next-generation optical interconnect or transceiver chipsets.

Collaboration profile

How they like to work

Role: specialist_contributorReach: European8 countries collaborated

MICRAM participates exclusively as a consortium partner and has never led an H2020 project, suggesting they contribute deep technical capability within larger, multi-partner programs rather than driving project strategy. Their two projects both involve large consortia — the 38 unique partners across 8 countries are spread across two projects, indicating they are comfortable working in complex, multi-national research programs. This profile fits a specialist component supplier or chip design house that brings a specific technology piece to a broader integration effort.

MICRAM has collaborated with 38 unique partners across 8 countries through just two projects, indicating both programs involved substantial consortia — typical for ECSEL and RIA-scale photonics and semiconductor initiatives. Their network is European in scope, though geographic breakdown by partner is not available from the data.

Why partner with them

What sets them apart

MICRAM occupies a rare niche as an SME with demonstrated hands-on expertise in both BiCMOS-based RF/THz chip design and CMOS-integrated photonics — two areas that are converging in next-generation communications hardware. Most photonics companies do not have RF/THz circuit depth, and most RF chip houses do not work with plasmonic modulators or ferroelectric materials; MICRAM's project record spans both. For consortium builders in optical communications, high-speed datacom, or 6G/THz sensing, they offer specialist IC and process knowledge that is difficult to find at SME scale.

Notable projects

Highlights from their portfolio

  • plaCMOS
    The largest-funded project for MICRAM (EUR 751,721) and technically ambitious — targeting wafer-scale monolithic co-integration of photonics, plasmonics, and electronics at 200 Gbps, a benchmark relevant to next-generation datacom and telecom infrastructure.
  • TARANTO
    An ECSEL-RIA project pushing BiCMOS nanoscale platforms into RF and terahertz frequency ranges, demonstrating MICRAM's engagement with the foundry-level semiconductor ecosystem and future wireless/sensing applications beyond conventional silicon limits.
Cross-sector capabilities
Space and satellite communications (high-frequency RF and THz chip technology applicable to satellite payloads)Security and sensing (THz imaging and radar applications using BiCMOS platforms)Telecommunications infrastructure (200 Gbps transceivers for fiber backbone and datacenter interconnects)
Analysis note: Only 2 projects, both starting in 2017 — no temporal evolution is observable, and the early/recent keyword split reflects project order rather than genuine career trajectory. No website available for cross-referencing actual product or service portfolio. The expertise picture is coherent but narrow; a third data source (company website, patent filings, or product catalog) would substantially raise confidence.