NXP Semiconductors SiGeC BFU725F - Manual

SiGeC microwave NPN
transistor BFU725F
Key features
Ñ Very low noise (0.4 dB at 1.8 GHz / 0.67 dB at 5.8 GHz)
Ñ High maximum stable gain (27.8 dB at 1.8 GHz / 10 dB
at 18 GHz)
Ñ High switching frequency (f
T
>100 GHz / f
MAX
>150 GHz)
Ñ Plastic surface-mount SOT343F package
Key benefi ts
Ñ SiGeC process delivers high switching frequency from
a silicon-based device
Ñ Cost-effective alternative to GaAs devices
Ñ RoHS compliant
Key applications
Ñ GPS systems
Ñ DECT phones
Ñ Low noise amplifi er (LNA) for microwave
communications systems
Ñ 2 nd stage LNA and mixer in direct broadcast satellite (DBS)
low-noise blocks (LNBs)
Ñ Satellite radio
Ñ WLAN and CDMA applications
Ñ Low-noise microwave applications
Meet the trend towards higher frequencies. With NXP Semiconductors’ latest SiGeC microwave
NPN transistor BFU725F, you get high switching frequencies plus extremely high gain and low noise.
All this in an easy-to-use SOT343F package. It’s the ideal solution for applications up to 20 GHz.
A perfect match up to 20 GHz
The NPN microwave transistor BFU725F delivers an unbeatable
blend of high switching frequency, high gain and very low
noise. Thanks to its ultra-low noise fi gure, it’s perfect for your
sensitive RF receivers particularly those for high-performance
cell phones. Alternatively, with its high cut-off frequency,
it’s your ideal solution for microwave applications in the 10 GHz
to 30 GHz range, such as satellite TV receivers and automotive
collision avoidance radar.
The BFU725F get its outstanding performance from our
innovative silicon-germanium-carbon (SiGeC) BiCMOS
process. QUBiC4X was designed specifi cally to meet the
needs of real-life, high-frequency applications and delivers
an unrivalled fusion of high power gain and excellent dynamic
range. It combines the performance of gallium-arsenide (GaAs)
technologies with the reliability of a silicon-based process.
In addition, with the BFU725F, you don’t need a biasing IC or
negative biasing voltage. So it’s a much more cost-effective
solution than GaAs pHEMT devices.