1. A shaver cleaner in which a shaver mounted to a predetermined mounting location is cleaned by a cleaning part and is dried with heat by a drying part, said shaver cleaner being characterized by comprising:
a fuel cell for supplying power to at least said cleaning part; and
a heat transfer part for guiding the heat from said fuel cell to said drying part.
2. The shaver cleaner according to claim 1, characterized in that
said heat transfer part is a heat pipe.
3. The shaver cleaner according to claim 1, characterized in that
said heat transfer part is a blower and has both a blowing function for drying the blade edge of the shaver in said drying part and a blowing function for releasing the heat from the power generation part of said fuel cell.
4. The shaver cleaner according to claim 1, characterized in that
said fuel cell uses alcohol as fuel, the alcohol is caused to react with oxygen in the air to generate electricity, and the alcohol is of the similar kind to the alcohol which is used as the cleaning liquid by said cleaning part.
5. The shaver cleaner according to claim 4, characterized in that
said alcohol is ethanol.
6. The shaver cleaner according to claim 1, characterized by comprising:
a power receiving terminal from an AC adaptor, wherein power can be supplied from the power receiving terminal to at least the aforementioned cleaning part.
7. The shaver cleaner according to claim 1, characterized in that
said drying part is power supplied by said fuel cell, and further comprises a heating part for heating said shaver when the heat from said fuel cell is insufficient.
8. The shaver cleaner according to claim 1, characterized by further comprising
an electricity accumulation part relating to said fuel cell.
9. The shaver cleaner according to claim 8, characterized in that
said accumulation part is an electric double layer capacitor.
10. A shaver system comprising a cleaner according to claim 1 in conjunction with a shaver, characterized by further comprising
a boosting circuit for boosting the output voltage of said fuel cell by using a transformer to supply a charge current to said shaver, wherein a primary winding of said transformer is placed in the cleaner and a secondary winding is placed in the shaver so that the charge current is supplied in a non-contact manner.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. A method for transmitting an uncompressed high definition television (HDTV) signal over a wireless radio frequency link via a recording device, comprising:
providing a stream of regenerated data from the uncompressed HDTV signal;
providing a first clock signal synchronized to the stream of regenerated data;
encoding the stream of regenerated data using the first clock signal to produce a stream of encoded data;
providing a second clock signal synchronized to the stream of encoded data;
demultiplexing the stream of encoded data, using the second clock signal, into an in-phase data stream and a quadrature data stream;
modulating a carrier with the in-phase data stream and the quadrature data stream via a modulator of the recording device; and
transmitting the carrier in a signal over the wireless radio frequency link.
2. The method of claim 1, wherein:
encoding the stream of regenerated data comprises using a forward error correction code;
the stream of regenerated data has a first data rate of 1.485 giga-bits per second;
the stream of encoded data has a second data rate higher than the first data rate by a coding overhead of the forward error correction code; and
the second clock signal has a rate higher than the first clock signal by the coding overhead.
3. The method of claim 1, wherein providing the first clock signal synchronized to the stream of regenerated data comprises using edge detection of the stream of regenerated data to generate the first clock signal.
4. The method of claim 1, wherein providing the first clock signal synchronized to the stream of regenerated data comprises using a \u201ctimes-2\u201d multiplier with the stream of regenerated data to generate the first clock signal.
5. The method of claim 1, wherein providing the second clock signal is performed using a phase-locked loop that synchronizes the second clock signal to the stream of encoded data.
6. The method of claim 1, wherein encoding the stream of regenerated data comprises Reed-Solomon forward error correction coding.
7. The method of claim 1, wherein modulating the carrier comprises quadrature phase shift keying modulation of an intermediate frequency carrier by the in-phase data stream and the quadrature data stream and frequency upconversion of the intermediate frequency carrier to the carrier.
8. The method of claim 1, wherein transmitting the carrier in the signal comprises transmitting the signal with a circular polarization.
9. A method for communicating an uncompressed high definition television (HDTV) signal over a wireless link, comprising:
providing a stream of regenerated data from the uncompressed HDTV signal;
providing a first clock signal synchronized to the stream of regenerated data;
encoding the stream of regenerated data using the first clock signal to produce a stream of encoded data;
providing a second clock signal synchronized to the stream of encoded data;
demultiplexing the stream of regenerated data using the second clock signal into an in-phase data stream and a quadrature data stream;
modulating a carrier with the in-phase data stream and the quadrature data stream;
transmitting the carrier in a signal over the wireless link;
demodulating the carrier to recover the in-phase data stream and the quadrature data stream via a demodulator of a receiving device;
multiplexing the recovered in-phase data stream and the quadrature data stream into a single stream of HDTV data; and
recovering the uncompressed HDTV signal from the single stream of HDTV data.
10. The method of claim 9, wherein providing the second clock signal synchronized to the stream of encoded data comprises using a phase-locked loop to generate the second clock signal.
11. The method of claim 9, wherein encoding the stream of regenerated data comprises forward error correction coding.
12. The method of claim 9, where demodulating the carrier includes:
separating an left-hand circular polarization signal from an right-hand circular polarization signal;
recovering a first uncompressed HDTV signal from the left-hand circular polarization signal; and
recovering a second uncompressed HDTV signal from the right-hand circular polarization signal.