Wireless interface
View Patent ↗A computing device has a plurality of subsystems located in subsections that are moveable with respect to each other. Communication between the subsections is accomplished with wireless transceivers transmitting over the air gap interface separating the subsections. Data from multiple communicating subsystems in the subsections is multiplexed into a single data stream and encoded into the communication protocol of the wireless transceivers. The encoded data stream is transmitted to a compatible transceiver where it is decoded. The decoded data stream is demultiplexed into individual data streams for each of the communicating subsystems. The wireless transceivers include multiple communication protocols and transmission frequencies from radio frequencies to optical frequencies. Optical fibers, transmission lines or waveguides may be used to transmit signals within each subsection depending on the wireless technology and protocol.
1. A method of communicating comprising the steps of:
hingedly coupling first and second sections of a computing device;
positioning a first wireless transceiver having a communication protocol in said first section;
positioning a second transceiver having said communication protocol in said second section;
multiplexing data from one or more first subsystems in said first section forming a first data stream;
encoding said first data stream into said communication protocol forming a first encoded data stream; and
transmitting said first encoded data stream from said first transceiver to said second transceiver across an air gap separating a first surface of said first section and a second surface of said second section.
2. The method of claim 1 , wherein said first and second surfaces are substantially orthogonal to an axis of rotation corresponding to a hinging means coupling said first and second section.
3. The method of claim 1 , wherein said first and second surfaces are substantially parallel to an axis of rotation of corresponding to a hinging means coupling said first and second section.
4. The method of claim 1 , wherein said first and second surfaces have an angular relative position and are orthogonal to an axis of rotation of corresponding to a hinging means coupling said first and second sections.
5. The method of claim 1 , wherein said one or more first subsystems comprise a wireless local area network device, a universal serial port device and a liquid crystal display device.
6. The method of claim 1 , wherein said one or more second subsystems comprise a wireless local area network device, a universal serial port device and a storage device coupled to a system motherboard.
7. A method of communicating comprising the steps of:
hingedly coupling first and second sections of a computing device;
positioning a first wireless transceiver having a communication protocol in said first section;
positioning a second transceiver having said communication protocol in said second section;
multiplexing data from one or more first subsystems in said first section forming a first data stream;
encoding said first data stream into said communication protocol forming a first encoded data stream;
transmitting said first encoded data stream from said first transceiver to said second transceiver across an air gap separating a first surface of said first section and a second surface of said second section;
decoding said first encoded data stream received by said second transceiver forming a third data stream;
demultiplexing said third data stream forming system data for said one or more second subsystems; and
coupling said system data to a corresponding one of said second subsystems.
8. A method of communicating comprising the steps of:
hingedly coupling first and second sections of a computing device;
positioning a first wireless transceiver having a communication protocol in said first section;
positioning a second transceiver having said communication protocol in said second section;
multiplexing data from one or more first subsystems in said first section forming a first data stream;
encoding said first data stream into said communication protocol forming a first encoded data stream;
transmitting said first encoded data stream from said first transceiver to said second transceiver across an air gap separating a first surface of said first section and a second surface of said second section;
multiplexing data from one or more second subsystems in said second section forming a second data stream;
encoding said second data stream into said communication protocol forming a second encoded data stream; and
transmitting said second encoded data stream from said second transceiver to said first transceiver across said air gap separating said first surface of said first section and said second surface of said second section.
9. The method of claim 8 further comprising the steps of:
decoding said second encoded data stream received by said second transceiver forming a fourth data stream;
demultiplexing said fourth data stream forming system data for said one or more first subsystems; and
coupling said system data to a corresponding one of said first subsystems.
10. A method of communicating comprising the steps of:
hingedly coupling first and second sections of a computing device;
positioning a first wireless transceiver having a communication protocol in said first section;
positioning a second transceiver having said communication protocol in said second section;
multiplexing data from one or more first subsystems in said first section forming a first data stream;
encoding said first data stream into said communication protocol forming a first encoded data stream; and
transmitting said first encoded data stream from said first transceiver to said second transceiver across an air gap separating a first surface of said first section and a second surface of said second section;
wherein said first and second surfaces are substantially orthogonal to an axis of rotation corresponding to a hinging means coupling said first and second section;
wherein said first surface comprises a first optical fiber coupled to said first transceiver and said second surface comprises a second optical fiber coupled to said second transceiver.
11. A method of communicating comprising the steps of:
hingedly coupling first and second sections of a computing device;
positioning a first wireless transceiver having a communication protocol in said first section;
positioning a second transceiver having said communication protocol in said second section;
multiplexing data from one or more first subsystems in said first section forming a first data stream;
encoding said first data stream into said communication protocol forming a first encoded data stream; and
transmitting said first encoded data stream from said first transceiver to said second transceiver across an air gap separating a first surface of said first section and a second surface of said second section;
wherein said first and second surfaces are substantially parallel to an axis of rotation of corresponding to a hinging means coupling said first and second section;
wherein said first surface comprises a first optical fiber coupled to said first transceiver and said second surface comprises a second optical fiber coupled to said second transceiver.
12. A method of communicating comprising the steps of:
hingedly coupling first and second sections of a computing device;
positioning a first wireless transceiver having a communication protocol in said first section;
positioning a second transceiver having said communication protocol in said second section;
multiplexing data from one or more first subsystems in said first section forming a first data stream;
encoding said first data stream into said communication protocol forming a first encoded data stream; and
transmitting said first encoded data stream from said first transceiver to said second transceiver across an air gap separating a first surface of said first section and a second surface of said second section;
wherein said first and second surfaces have an angular relative position and are orthogonal to an axis of rotation of corresponding to a hinging means coupling said first and second sections;
wherein said first surface comprises a first electromagnetic transducer coupled to said first transceiver and said second surface comprises a second electromagnetic transducer coupled to said second transceiver.
13. A computing device comprising:
a first section having one or more first subsystems;
a second section hingedly coupled to said first section and having one or more second subsystems;
a first wireless transceiver integral to said first section and having a communication protocol;
a second transceiver integral to said second section and having said communication protocol;
a first multiplexing circuit for multiplexing data from said one or more first subsystems forming a first data stream;
a first encoding circuit for encoding said first data stream into said communication protocol forming a first encoded data stream;
a first demultiplexing circuit for demultiplexing data from said one or more second subsystems forming a third data stream;
a means for coupling said third data stream to said one or more first subsystems; and
an air gap separating a first surface of said first section and a second surface of said second section, said first surface having a first communication path coupled to said first transceiver and said second surface having a second communication path coupled to said second transceiver, wherein said first transceiver transmits said first encoded data stream to said second transceiver.
14. The computing device of claim 13 , wherein said first and second surfaces are substantially orthogonal to an axis of rotation corresponding to a hinging means coupling said first and second section.
15. The computing device of claim 13 , wherein said first and second surfaces are substantially parallel to an axis of rotation corresponding to a hinging means coupling said first and second section.
16. The computing device of claim 13 , wherein said first and second surfaces have an angular relative position and are orthogonal to an axis of rotation of corresponding to a hinging means coupling said first and second sections.
17. The computing device of claim 13 , wherein said one or more first subsystems comprise a wireless local area network device, a universal serial port device, and a liquid crystal display device.
18. The computing device of claim 13 , wherein said one or more second subsystems comprise a wireless local area network device, a universal serial port device and a storage device coupled to a system motherboard.
19. A computing device comprising:
a first section having one or more first subsystems;
a second section hingedly coupled to said first section and having one or more second subsystems;
a first wireless transceiver integral to said first section and having a communication protocol;
a second transceiver integral to said second section and having said communication protocol;
a first multiplexing circuit for multiplexing data from said one or more first subsystems forming a first data stream;
a first encoding circuit for encoding said first data stream into said communication protocol forming a first encoded data stream;
a first demultiplexing circuit for demultiplexing data from said one or more second subsystems forming a third data stream;
a means for coupling said third data stream to said one or more first subsystems;
an air gap separating a first surface of said first section and a second surface of said second section, said first surface having a first communication path coupled to said first transceiver and said second surface having a second communication path coupled to said second transceiver, wherein said first transceiver transmits said first encoded data stream to said second transceiver;
a second multiplexing circuit for multiplexing data from said one or more second subsystems forming a second data stream;
a second demultiplexing circuit for demultiplexing data from said one or more first subsystems forming a fourth data stream;
a means for coupling said fourth data stream to said one or more second subsystems; and
a second encoding circuit for encoding said second data stream into said communication protocol forming a second encoded data stream, wherein said second transceiver transmits said second encoded data stream to said first transceiver.
20. A computing device comprising:
a first section having one or more first subsystems:
a second section hingedly coupled to said first section and having one or more second subsystems;
a first wireless transceiver integral to said first section and having a communication protocol;
a second transceiver integral to said second section and having said communication protocol;
a first multiplexing circuit for multiplexing data from said one or more first subsystems forming a first data stream;
a first encoding circuit for encoding said first data stream into said communication protocol forming a first encoded data stream;
a first demultiplexing circuit for demultiplexing data from said one or more second subsystems forming a third data stream;
a means for coupling said third data stream to said one or more first subsystems; and
an air gap separating a first surface of said first section and a second surface of said second section, said first surface having a first communication path coupled to said first transceiver and said second surface having a second communication path coupled to said second transceiver, wherein said first transceiver transmits said first encoded data stream to said second transceiver;
wherein said first and second surfaces are substantially orthogonal to an axis of rotation corresponding to a hinging means coupling said first and second section;
wherein said first surface comprises a first optical fiber coupled to said first transceiver and said second surface comprises a second optical fiber coupled to said second transceiver.
21. A computing device comprising:
a first section having one or more first subsystems;
a second section hingedly coupled to said first section and having one or more second subsystems;
a first wireless transceiver integral to said first section and having a communication protocol;
a second transceiver integral to said second section and having said communication protocol;
a first multiplexing circuit for multiplexing data from said one or more first subsystems forming a first data stream;
a first encoding circuit for encoding said first data stream into said communication protocol forming a first encoded data stream;
a first demultiplexing circuit for demultiplexing data from said one or more second subsystems forming a third data stream;
a means for coupling said third data stream to said one or more first subsystems; and
an air gap separating a first surface of said first section and a second surface of said second section, said first surface having a first communication path coupled to said first transceiver and said second surface having a second communication path coupled to said second transceiver, wherein said first transceiver transmits said first encoded data stream to said second transceiver;
wherein said first and second surfaces are substantially parallel to an axis of rotation corresponding to a hinging means coupling said first and second section;
wherein said first surface comprises a first optical fiber coupled to said first transceiver and said second surface comprises a second optical fiber coupled to said second transceiver.
22. A computing device comprising:
a first section having one or more first subsystems;
a second section hingedly coupled to said first section and having one or more second subsystems;
a first wireless transceiver integral to said first section and having a communication protocol;
a second transceiver integral to said second section and haying said communication protocol;
a first multiplexing circuit for multiplexing data from said one or more first subsystems forming a first data stream;
a first encoding circuit for encoding said first data stream into said communication protocol forming a first encoded data stream;
a first demultiplexing circuit for demultiplexing data from said one or more second subsystems forming a third data stream;
a means for coupling said third data stream to said one or more first subsystems; and
an air gap separating a first surface of said first section and a second surface of said second section, said first surface having a first communication path coupled to said first transceiver and said second surface having a second communication path coupled to said second transceiver, wherein said first transceiver transmits said first encoded data stream to said second transceiver;
wherein said first and second surfaces have an angular relative position and are orthogonal to an axis of rotation of corresponding to a hinging means coupling said first and second sections;
wherein said first surface comprises a first electromagnetic transducer coupled to said first transceiver and said second surface comprises a second electromagnetic transducer coupled to said second transceiver.