Author: claimsbot

1. A system comprising:
an antenna array comprising at least one omni-directional antenna to transmit a MIMO signal into a MIMO channel;
a bit stream merger to merge a bit stream of a wireless apparatus with at least one bit stream associated with a wireless device in a common transmit cluster to form a merged bit stream, wherein the bit stream of the wireless apparatus and the at least one bit stream associated with the wireless device are to be transmitted to a network access station by the transmit cluster, via the MIMO channel;
a time-frequency encoder and interleaver to time-frequency encode and interleave the merged bit stream to generate a coded bit stream; and
at least a first and second encoding path, each coupled to the time frequency coder and interleaver, and the antenna array, wherein the first encoding path modulates the coded bit stream according to a first modulation scheme and the second encoding path modulates the coded bit stream according to a second modulation scheme.
2. The system of claim 1, wherein the first modulation scheme is a space-time cooperative diversity, and the second modulation scheme is space-time cooperative multiplexing.
3. The system of claim 1, wherein the first encoding path comprises:
a symbol modulator coupled to the time-frequency coder and interleaver to modulate the coded bit stream into symbols;
a space-time encoder coupled to the symbol modulator to generate a number of space-time encoded symbols equal to the number of antennae in the antenna array; and
a splitter coupled to the space-time encoder to split the space-time coded symbols into multiple portions, the multiple portions including at least a first portion corresponding to the wireless apparatus’s space-time coded symbols, and a second portion corresponding to the wireless device’s space-time coded symbols.
4. The system of claim 1, wherein the second encoding path comprises:
a symbol modulator coupled to the time-frequency coder and interleaver to modulate the coded bit stream into symbols;
a splitter coupled to the symbol modulator to split the symbols into multiple portions, the multiple portions including a first portion, corresponding to the wireless apparatus’s coded symbols, and at least one other portion corresponding to the wireless device’s coded symbols; and
a demultiplexer coupled to the symbol modulator and splitter to demultiplex the first portion of the modulated symbols into a number of substreams.
5. The system of claim 1, further comprising a receiver coupled to the bit stream merger to receive the at least one bit stream from the wireless device.
6. The system of claim 5, wherein the receiver is operative in a different frequency band than the antenna array.
7. The system of claim 1, further comprising at least one RF chain coupled to the first and second encoding paths and the antenna array to facilitate transmission of the modulated coded bit streams into the MIMO channel.
8. The system of claim 7, wherein the number of RF chains is less than or equal to the number of omni-directional antennas of the antenna array.

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 disposable acupressure relief strip for the wrist of a user to mitigate the incidence of nausea and vomiting following one of a chemotherapy treatment or a surgical procedure, comprising:
a perforated polyolefin film substrate of prescribed length and width having an adhesive lamination on a top surface thereof;
a paper liner overlying said adhesive lamination;
a cutout through said liner to said adhesive lamination; and
a polyurethane contact button having a pressure sensitive adhesive backing extending downwardly to said adhesive lamination through said cutout, and an elastomer coated raised portion extending upwardly from said adhesive backing through said cutout.
2. The disposable acupressure relief strip of claim 1 wherein said paper liner is peelable away from said adhesive lamination in a first section along a first side of said cutout, and in a second section along a second side of said cutout.
3. The disposable acupressure relief strip of claim 1 wherein said cutout is offset positioned along the length of said adhesive lamination and said film substrate.
4. The disposable acupressure relief strip of claim 3 wherein said cutout is offset positioned one-fifth of the length in from one end of said adhesive lamination and said film substrate.
5. The disposable acupressure relief strip of claim 3 wherein said cutout is centrally positioned between a top edge and a bottom edge of said adhesive lamination and said film substrate.
6. The disposable acupressure relief strip of claim 3 wherein said cutout is offset positioned one fifth of the length in from one end of said adhesive lamination and said film substrate, and centrally positioned between a top edge and a bottom edge of said adhesive lamination and said film substrate.
7. The disposable acupressure relief strip of claim 6 wherein said film substrate is of a 5.0 inch length and 1.0 inch width, and wherein said cutout is circular of a diameter of 0.50 inches.
8. The disposable acupressure relief strip of claim 1 wherein said film substrate is hypoallergenic and tearable bi-directionally.
9. The disposable acupressure relief strip of claim 8 wherein said adhesive lamination is of an acrylate composition.

1. A method for generating an executable file of a multi-instance service, comprising:
performing compilation for a source file corresponding to a multi-instance service at a time, to obtain a first-class object file, wherein the multi-instance service comprises N instances, and N is a natural number greater than or equal to 2;
performing an object copy of the first-class object file N\u22121 times, to obtain N\u22121 new first-class object files; and
performing linking to the first-class object file and the N\u22121 new first-class object files, to generate an executable file.
2. The method for generating an executable file of a multi-instance service according to claim 1, wherein the performing the object copy of the first-class object file N\u22121 times comprises: performing renaming processing for a global symbol in the first-class object file N\u22121 times, so as to obtain the N\u22121 new first-class object files; or
performing localization processing for the global symbol in the first-class object file N\u22121 times, so as to obtain the N\u22121 new first-class object files.
3. The method for generating an executable file of a multi-instance service according to claim 1 wherein the method further comprises:
performing compilation for a source file corresponding to a single-instance service, to obtain a second-class object file; and
the performing linking to the first-class object file and the N\u22121 new first-class object files, to generate the executable file comprises: performing linking to the first-class object file, the N\u22121 new first-class object files, and the second-class object file, to generate the executable file.
4. The method for generating an executable file of a multi-instance service according to claim 1, wherein before performing compilation for the source file corresponding to the multi-instance service, to obtain the first-class object file, the method further comprises:
receiving service information input by a user; and
analyzing the service information, to obtain the multi-instance service.
5. The method for generating an executable file of a multi-instance service according to claim 4, wherein the source file is a source file corresponding to communications software of a multi-SIM multi-standby terminal;
wherein receiving the service information input by the user comprises: receiving supported service information of a primary user identity card of the multi-SIM multi-standby terminal and supported service information of a secondary user identity card of the multi-SIM multi-standby terminal; and
wherein analyzing the service information, to obtain the multi-instance service comprises: analyzing the supported service information of the primary user identity card and the supported service information of the secondary user identity card, to obtain the multi-instance service.
6. The method for generating an executable file of a multi-instance service according to claim 4, wherein the source file is a source file corresponding to user identity card management software of a multi-SIM terminal;
wherein receiving the service information input by the user comprises: receiving service information of a primary user identity card of the multi-SIM terminal and service information of a secondary user identity card of the multi-SIM terminal; and
wherein analyzing the service information, to obtain the multi-instance service comprises: analyzing the service information of the primary user identity card and the service information of the secondary user identity card, to obtain the multi-instance service.
7. The method for generating an executable file of a multi-instance service according to claim 4, wherein the source file is a source file corresponding to a camera driver of a multi-camera terminal;
wherein receiving the service information input by the user comprises: receiving camera driver information of the multi-camera terminal; and
wherein analyzing the service information, to obtain the multi-instance service comprises: analyzing the driver information of the multi-camera terminal, to obtain the multi-instance service.
8. An apparatus for generating an executable file of a multi-instance service, wherein the apparatus comprises:
a compiling unit, configured to perform compilation for a source file corresponding to a multi-instance service at a time, to obtain a first-class object file, wherein the multi-instance service comprises N instances, and N is a natural number greater than or equal to 2, and transmit the first-class object file to a mirroring unit;
a mirroring unit, configured to receive the first-class object file transmitted by the compiling unit, perform an object copy of the first-class object file N\u22121 times to obtain N\u22121 new first-class object files, and transmit the first-class object file and the N\u22121 new first-class object files to a linking unit; and
the linking unit, configured to receive the first-class object file and the N\u22121 new first-class object files transmitted by the mirroring unit, and perform linking to the first-class object file and the N\u22121 new first-class object files, to generate an executable file.
9. The apparatus for generating an executable file of a multi-instance service according to claim 8, wherein the mirroring unit is specifically configured to: perform renaming processing for a global symbol in the first-class object file N\u22121 times, so as to obtain the N\u22121 new first-class object files; or
perform localization processing for the global symbol in the first-class object file N\u22121 times, so as to obtain the N\u22121 new first-class object files.
10. The apparatus for generating an executable file of a multi-instance service according to claim 8, wherein the compiling unit is further configured to: perform compilation for a source file corresponding to a single-instance service, to obtain a second-class object file, and transmit the second-class object file to the linking unit; and
the linking unit is specifically configured to: receive the second-class object file transmitted by the compiling unit, and perform linking to the first-class object file, the N\u22121 new first-class object files, and the second-class object file, to generate the executable file.
11. The apparatus for generating an executable file of a multi-instance service according to claim 8, wherein the apparatus further comprises a receiving unit and an analyzing unit, wherein:
the receiving unit is configured to receive service information input by a user, and transmit the service information to the analyzing unit; and
the analyzing unit is configured to receive the service information transmitted by the receiving unit, and analyze the service information, to obtain the multi-instance service.
12. The apparatus for generating an executable file of a multi-instance service according to claim 11, wherein the source file is a source file corresponding to communications software of a multi-SIM multi-standby terminal;
the receiving unit is specifically configured to: receive supported service information of a primary user identity card of the multi-SIM multi-standby terminal and supported service information of a secondary user identity card of the multi-SIM multi-standby terminal; and
the analyzing unit is specifically configured to: analyze the supported service information of the primary user identity card and the supported service information of the secondary user identity card, to obtain the multi-instance service.
13. The apparatus for generating an executable file of a multi-instance service according to claim 11, wherein the source file is a source file corresponding to user identity card management software of a multi-SIM terminal;
the receiving unit is specifically configured to: receive service information of a primary user identity card of the multi-SIM terminal and service information of a secondary user identity card of the multi-SIM terminal; and
the analyzing unit is specifically configured to: analyze the service information of the primary user identity card and the service information of the secondary user identity card, to obtain the multi-instance service.
14. The apparatus for generating an executable file of a multi-instance service according to claim 11, wherein the source file is a source file corresponding to a camera driver of a multi-camera terminal;
the receiving unit is specifically configured to: receive camera driver information of the multi-camera terminal; and
the analyzing unit is specifically configured to: analyze the driver information of the multi-camera terminal, to obtain the multi-instance service.

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 the reduction of transmit processing in response to a received packet in a communications system comprising:
generating a plurality of transmit control frames for responding to received packets;
generating transmit waveform samples from the generated plurality of transmit control frames;
storing the transmit waveform samples in buffer memory;
receiving a packet;
determining a transmit waveform sample associated with the received packet; and
transmitting the determined transmit waveform samples.
2. A method as in claim 1, wherein the generated transmit control frame contains data which is learned over time from the communications system.
3. A method as in claim 1, wherein the generated transmit control frame contains a duration field.
4. A method as in claim 3, wherein the duration field is set to a maximum length packet exchange for a specific data rate.
5. A method as in claim 1, wherein the generated transmit control frames contain power management mode information.
6. A method as in claim 1, wherein the generation of the transmit waveform samples varies by data rate.
7. A method as in claim 2, wherein the learned data are transmit addresses of received packets.
8. A method as in claim 1, in which the communications system is wireless.
9. A method as in claim 1, in which the communications system is IEEE 802.11.
10. A method as in claim 1, in which the communications system is Bluetooth.
11. A method as in claim 1, in which the communications system is IEEE 802.15.
12. A method for the reduction of transmit processing in response to a received packet in a communications system comprising the steps of:
maintaining in memory a plurality of transmit waveform samples;
generating new transmit waveform samples in response to detection of new transmit addresses in the system;
saving the new transmit samples to the memory;
indexing the memory based on receiving a specific transmit address in a received packet;
determining an appropriate transmit waveform sample from the indexed memory; and
transmitting the appropriate transmit waveform sample.
13. A method as in claim 12, wherein the transmit waveform samples vary by data rate.
14. A method as in claim 12, wherein the indexing of memory varies by data rate.
15. A method as in claim 12, in which the communications system is wireless.
16. A method as in claim 12, in which the communications system is IEEE 802.11.
17. A method as in claim 12, in which the communications system is IEEE 802.15.