The TPS6104x-Q1 devices are high-frequency boost converters for automotive applications.
The devices are ideal for generating output voltages up to 28 V from a pre-regulated low voltage
rail, dual-cell NiMH/NiCd or a single-cell Li-Ion battery, supporting input voltages from 1.8 V to
6 V.
The TPS6104x-Q1 devices operate with a switching frequency up to 1 MHz, allowing the use
of small external components such as ceramic as well as tantalum output capacitors. Combined with
the space-saving, 5-pin SOT-23 package, the TPS6104x-Q1 devices accomplish a small overall solution
size. The TPS61040-Q1 device has an internal 400-mA switch current limit, while the TPS61041-Q1
device has a 250-mA switch current limit, offering lower output voltage ripple and allowing the use
of a smaller form factor inductor for lower-power applications.
The TPS6104x-Q1 devices operate in a pulse frequency modulation (PFM) scheme with
constant peak current control. The combination of low quiescent current (28 µA typical) and the
optimized control scheme enable operation of the devices at high efficiencies over the entire load
current range.
The TPS6104x-Q1 devices are high-frequency boost converters for automotive applications.
The devices are ideal for generating output voltages up to 28 V from a pre-regulated low voltage
rail, dual-cell NiMH/NiCd or a single-cell Li-Ion battery, supporting input voltages from 1.8 V to
6 V.
The TPS6104x-Q1 devices operate with a switching frequency up to 1 MHz, allowing the use
of small external components such as ceramic as well as tantalum output capacitors. Combined with
the space-saving, 5-pin SOT-23 package, the TPS6104x-Q1 devices accomplish a small overall solution
size. The TPS61040-Q1 device has an internal 400-mA switch current limit, while the TPS61041-Q1
device has a 250-mA switch current limit, offering lower output voltage ripple and allowing the use
of a smaller form factor inductor for lower-power applications.
The TPS6104x-Q1 devices operate in a pulse frequency modulation (PFM) scheme with
constant peak current control. The combination of low quiescent current (28 µA typical) and the
optimized control scheme enable operation of the devices at high efficiencies over the entire load
current range.