Most distributed systems are constantly monitored to understand their current and prior state, and this monitoring is a crucial part of any system deployment.
Two broadband amplifiers for 43 Gbit/s data transmission were realized in a SiGe-HBT technology with ft = 120 GHz and fmax = 100 GHz: a differential lumped limiting amplifier with 36 dB differentia
Two broadband amplifiers for 43 Gbit/s data transmission were realized in a SiGe-HBT technology with ft=120 GHz and fmax=100 GHz: a differential lumped limiting amplifier with 36 dB differential ga
Using different SiGe technologies, integrated circuits have been designed to realize electronic processing functions for 10 Gbit/s and 40 Gbit/s optical transmission systems.
New Optical transmission formats such as return-to-zero differential-phase-shift-keying have the potential to extend transmission distances (1).
The first research effort aimed at the growth of epitaxial SiGe thin films on Si substrates can be dated back to 1975, when Kasper et al[1] published their results of Si/Ge superlattice grown on Si
Concepts for the measurement of the temporal electric field of optical pulses are reviewed.
To fix ideas, consider the following conventional (baseband) PAM data-transmission scheme (see, for example, Ref. 1).
In this paper, transmitter diversity wireless communication systems over Rayleigh fading channels using pilot symbol assisted modulation (PSAM) are studied.
We consider the problem of detecting a deterministic signal in the presence of random transient disturbance and white Gaussian noise.
