Broadband by physics
The same photonic architecture can operate across widely separated RF bands without a carrier-frequency electronic mixer.
PHOTONICS / RF / THz / TEST & MEASUREMENT
Broadband signal analysis for next-generation hardware — without rebuilding the measurement chain band by band.
THE PROBLEM
Conventional measurement stacks depend on band-specific frontends, extenders and calibration paths. Every additional band means more hardware, more setup time and more cost.
THE LEMETRA APPROACH
Lemetra uses antenna-coupled electro-optic transduction in thin-film lithium niobate to move high-frequency information onto light, where broadband analysis becomes simpler.
The same photonic architecture can operate across widely separated RF bands without a carrier-frequency electronic mixer.
The incoming field is captured on-chip and encoded onto an optical carrier using thin-film lithium niobate photonics.
Telecom lasers, photodetectors and digital signal processing replace much of the specialized band-by-band RF chain.
MEASURED PROOF
Representative measurements from the current research platform demonstrate broadband spectrum analysis and phase-noise readout.

Measured broadband spectrum built directly from the uploaded processed data file.

Measured phase-noise trace built directly from the uploaded data file.
APPLICATIONS
High-frequency links, transceivers and backhaul.
signal quality · source characterizationVCOs, multipliers, PAs, MMICs and RFICs.
frequency · spectrum · phase noiseFMCW radar, imaging and high-resolution sensing.
chirps · spectral purity · stabilityQuantum hardware, fusion diagnostics and THz science.
flexible broadband measurementWHY WE CAN BUILD THIS
Lemetra is being built from years of research in integrated photonics and high-frequency electro-optic measurement at EPFL.
LEMETRA INSTRUMENTS
We are speaking with industry partners and investors interested in high-frequency test & measurement.