Abstract: An implant for insertion within a maxillofacial bone of a patient including a tapered body and one or more threads formed along the body. The one or more threads on one or more lead threads include multiple thread forms including both three-dimensional stabilization thread and standard thread (e.g. v-thread, buttress thread, etc.) forms. The one or more threads including the multiple thread forms provides for maximizing the restriction of lateral movement of the implant within a full or partial osteotomy.

Abstract: Dive computers incorporating a variety of features are disclosed. One embodiment of the invention includes a dive computer including a microprocessor, memory configured to store a software application, a pressure transducer configured to determine depth information, and a communications device configured to communicate with external devices, wherein the software application configures the microprocessor to create a dive log stored in memory, wherein the dive log includes recorded information including depth of submersion information recorded from the pressure transducer, and transmit the dive log using the communications device.

Abstract: Dive computers in accordance with embodiments of the invention are disclosed. One embodiment includes a mobile phone handset, including a microprocessor, a microphone connected to the microprocessor, a speaker connected to the microprocessor, a telephone transceiver connected to the microprocessor, memory, a display, and an external connector for communicating with external devices wherein the memory contains a software application, and a waterproof housing including a pressure transducer, where the mobile phone handset is located within the waterproof housing and connected to the pressure transducer via the external connector, and wherein the software application configures the mobile phone handset to create a dive log stored in memory, wherein the dive log comprises recorded information including depth of submersion information recorded from the pressure transducer and display the recorded information during the dive.

Abstract: Various techniques for enhancing wireless networks and/or devices that can receive wireless signals are disclosed.

Abstract: Dive computers in accordance with embodiments of the invention are disclosed. One embodiment includes a mobile phone handset, including a microprocessor, a microphone connected to the microprocessor, a speaker connected to the microprocessor, a telephone transceiver connected to the microprocessor, memory, a display, and an external connector for communicating with external devices wherein the memory contains a software application, and a waterproof housing including a pressure transducer, where the mobile phone handset is located within the waterproof housing and connected to the pressure transducer via the external connector, and wherein the software application configures the mobile phone handset to create a dive log stored in memory, wherein the dive log comprises recorded information including depth of submersion information recorded from the pressure transducer and display the recorded information during the dive.

Abstract: Dive computers in accordance with embodiments of the invention are disclosed. One embodiment includes a mobile phone handset, including a microprocessor, a microphone connected to the microprocessor, a speaker connected to the microprocessor, a telephone transceiver connected to the microprocessor, memory, a display, and an external connector for communicating with external devices wherein the memory contains a software application, and a waterproof housing including a pressure transducer, where the mobile phone handset is located within the waterproof housing and connected to the pressure transducer via the external connector, and wherein the software application configures the mobile phone handset to create a dive log stored in memory, wherein the dive log comprises recorded information including depth of submersion information recorded from the pressure transducer and display the recorded information during the dive.

Abstract: Dive computers incorporating a variety of features are disclosed. One embodiment of the invention includes a dive computer including a microprocessor, memory configured to store a software application, a pressure transducer configured to determine depth information, and a communications device configured to communicate with external devices, wherein the software application configures the microprocessor to create a dive log stored in memory, wherein the dive log includes recorded information including depth of submersion information recorded from the pressure transducer, and transmit the dive log using the communications device.

Abstract: Radio frequency identification (RFID) tags may be affixed to one or more personal objects, such as a key, a watch, a wallet, a purse, a medicine container, or the like. A mobile telephone may be associated with the plurality of RFID tags. A display of the mobile telephone may indicate whether each of the RFID tags is in communication with an RFID reader. For example, the RFID reader may be embedded in a drawer lining, embedded in the mobile telephone itself, or embedded in a handheld wand. The mobile telephone may generate an alert when at least one of the plurality of RFID tags is not in communication with the RFID reader. For example, a trigger RFID may be affixed to a doorway. The trigger RFID may cause the mobile telephone to alert the user to a missing item.

Abstract: A multi-orientation mobile communication device having a first button positioned at the first side of a device at a first relative positioning with respect to a second button on the first side and a third button positioned at a second side of the body at the first relative positioning with respect to a fourth button positioned on the second side. The device also includes instructions causing a processor to perform operations comprising determining that an orientation of the device has changed and reassigning, responsively, button characteristics based on relative positioning of the first through fourth buttons following the re-orientation.

Abstract: Dive computers incorporating a variety of features are disclosed. One embodiment of the invention includes a dive computer including a microprocessor, memory configured to store a software application, a pressure transducer configured to determine depth information, and a communications device configured to communicate with external devices, wherein the software application configures the microprocessor to create a dive log stored in memory, wherein the dive log includes recorded information including depth of submersion information recorded from the pressure transducer, and transmit the dive log using the communications device.

Abstract: Systems and methods for tracking diver location in accordance with embodiments of the invention are disclosed. In one embodiment, a dive computer includes a processor, a pressure transducer connected to the processor, and clock circuitry connected to the processor, wherein the processor obtains water speed information using a flow measurement device that measures water speed when below water, measures a first piece of position information using a global position system receiver (GPS) that generates position information, generates depth and time information using the pressure transducer and the clock circuitry when the dive computer is below water, combines the first piece of position information, depth information, water speed information, and time information into a dive log, stores the dive log using a memory, and estimates a position of a diver using the first piece of position information, time, depth, and water speed information from the dive log when submerged.

Abstract: Various techniques for enhancing wireless networks and/or devices that can receive wireless signals are disclosed.

Abstract: Dive computers in accordance with embodiments of the invention are disclosed. One embodiment includes a mobile phone handset, including a microprocessor, a microphone connected to the microprocessor, a speaker connected to the microprocessor, a telephone transceiver connected to the microprocessor, memory, a display, and an external connector for communicating with external devices wherein the memory contains a software application, and a waterproof housing including a pressure transducer, where the mobile phone handset is located within the waterproof housing and connected to the pressure transducer via the external connector, and wherein the software application configures the mobile phone handset to create a dive log stored in memory, wherein the dive log comprises recorded information including depth of submersion information recorded from the pressure transducer and display the recorded information during the dive.

Abstract: A multi-orientation mobile communication device having a first button positioned at the first side of device at a first relative positioning with respect to a second button on the first side and a third button positioned at a second side of the body at the first relative positioning with respect to a fourth button positioned on the second side. The device also includes instructions causing a processor to perform operations comprising determining that an orientation of the device has changed and reassigning, responsively, button characteristics based on relative positioning of the first through fourth buttons following the re-orientation.

Abstract: Dive computers in accordance with embodiments of the invention are disclosed. One embodiment includes a mobile phone handset, including a microprocessor, a microphone connected to the microprocessor, a speaker connected to the microprocessor, a telephone transceiver connected to the microprocessor, memory, a display, and an external connector for communicating with external devices wherein the memory contains a software application, and a waterproof housing including a pressure transducer, where the mobile phone handset is located within the waterproof housing and connected to the pressure transducer via the external connector, and wherein the software application configures the mobile phone handset to create a dive log stored in memory, wherein the dive log comprises recorded information including depth of submersion information recorded from the pressure transducer and display the recorded information during the dive.

Abstract: Dive computers in accordance with embodiments of the invention are disclosed. One embodiment includes a mobile phone handset, including a microprocessor, a microphone connected to the microprocessor, a speaker connected to the microprocessor, a telephone transceiver connected to the microprocessor, memory, a display, and an external connector for communicating with external devices wherein the memory contains a software application, and a waterproof housing including a pressure transducer, where the mobile phone handset is located within the waterproof housing and connected to the pressure transducer via the external connector, and wherein the software application configures the mobile phone handset to create a dive log stored in memory, wherein the dive log comprises recorded information including depth of submersion information recorded from the pressure transducer and display the recorded information during the dive.

Abstract: Systems and methods for managing the status of participants of a tele-networking meeting are disclosed. During a tele-networking meeting, a network device may monitor the talk time of each participant of the meeting. If a participant's talk time exceeds the target talk time, the network device may prompt the chair, and the chair may take action. Action may include managing a participant's status by muting, disconnecting, or spinning the participant off into a subconference. Additionally, during a tele-networking meeting, a chair may also create a subconference on network device. Thus, the chair may be able to spin off participants of a tele-networking meeting into a subconference controlled by a subchair.

Abstract: An audio interface adapted to reduce a subscriber voice may receive a subscriber voice and a background noise. The subscriber voice may then be compared to the to the background noise. If the received subscriber voice is louder than the received background noise, the audio interface may output a message to the cellular telephone subscriber indicating the subscriber may reduce his speaking volume. Additionally, an audio interface may process a voice waveform that corresponds to the subscriber voice and a background waveform that corresponds to the background noise to generate a substantially opposite voice waveform and a substantially opposite background waveform respectively. The substantially opposite voice waveform and background waveform may be substantially out of phase from the voice waveform and background waveform respectively and output via one or more output ports of the audio interface.

Abstract: Signal quality of a composite received signal in a radio communication network is optimized by adjusting a phase offset between received and/or transmitted signals based on signal quality parameters of the received and/or transmitted signals. The phase offset is adjusted by varying the phase offset between the received or transmitted signals such that that the composite signal is circularly, elliptically, or linearly polarized. The phase offset between the received or transmitted signals is continually adjusted based on the received signal quality parameters.

Abstract: The system may include a plurality of radio frequency identification (RFID) tags and a mobile telephone. The RFID tags may be affixed to one or more personal objects, such as a key, a watch, a wallet, a purse, a medicine container, or the like. The mobile telephone may be associated with the plurality of RFID tags. A display of the mobile telephone may indicate whether each of the RFID tags is in communication with an RFID reader. For example, the RFID reader may be embedded in a drawer lining, embedded in the mobile telephone itself, or embedded in a handheld wand. The mobile telephone may generate an alert when at least one of the plurality of RFID tags is not in communication with the RFID reader. For example, a trigger RFID may be affixed to a doorway. The trigger RFID may cause the mobile telephone to alert the user to a missing item.