Abstract: The embodiments provided herein are directed to a system and method of message-triggered voice command interface in portable electronic devices. The voice command interface is normally not activated until a message (e.g., an e-mail, a text message, or a voice mail) has been received by a portable electronic device. The arriving of a message is used to trigger the voice command interface by activating one or more speech recognition routines in a predetermined time period corresponding to the one or more speech recognition routines. The voice command interface come to an end when the predetermined time period expires or the user has no further commands.

Abstract: The embodiments provided herein are directed to a system and method of message-triggered voice command interface in portable electronic devices. The voice command interface is normally not activated until a message (e.g., an e-mail, a text message, or a voice mail) has been received by a portable electronic device. The arriving of a message is used to trigger the voice command interface by activating one or more speech recognition routines in a predetermined time period corresponding to the one or more speech recognition routines. The voice command interface come to an end when the predetermined time period expires or the user has no further commands.

Abstract: The embodiments provided herein are directed to a system and method of message-triggered voice command interface in portable electronic devices. The voice command interface is normally not activated until a message (e.g., an e-mail, a text message, or a voice mail) has been received by a portable electronic device. The arriving of a message is used to trigger the voice command interface by activating one or more speech recognition routines in a predetermined time period corresponding to the one or more speech recognition routines. The voice command interface come to an end when the predetermined time period expires or the user has no further commands.

Abstract: The embodiments provided herein are directed to a system and method of message-triggered voice command interface in portable electronic devices. The voice command interface is normally not activated until a message (e.g., an e-mail, a text message, or a voice mail) has been received by a portable electronic device. The arriving of a message is used to trigger the voice command interface by activating one or more speech recognition routines in a predetermined time period corresponding to the one or more speech recognition routines. The voice command interface come to an end when the predetermined time period expires or the user has no further commands.

Abstract: An impact emulator that provides impact effects to a player of a video game system is provided. The video game system has a magnetic field generator that is able to produce magnetic field to generate a force on a magnet on a remote controller. The amount of magnetic field to be produced is depending on the relative movement of the remote controller and a target element.

Abstract: An impact emulator that provides impact effects to a player of a video game system is provided. The video game system has a magnetic field generator that is able to produce magnetic field to generate a force on a magnet on a remote controller. The amount of magnetic field to be produced is depending on the relative movement of the remote controller and a target element.

Abstract: An impact emulator that provides impact effects to a player of a video game system is provided. The video game system has a magnetic field generator that is able to produce magnetic field to generate a force on a magnet on a remote controller. The amount of magnetic field to be produced is depending on the relative movement of the remote controller and a target element.

Abstract: An impact emulator that provides impact effects to a player of a video game system is provided. The video game system has a magnetic field generator that is able to produce magnetic field to generate a force on a magnet on a remote controller. The amount of magnetic field to be produced is depending on the relative movement of the remote controller and a target element.

Abstract: Rumble strips slow down the speed of tires that are crossing the rumble strips that the vehicle tends to turn its direction toward the shoulder. Also, a component of the reaction force from the rumble strips pushes the vehicle further away from its normal path. These two effects cause potential danger to the driver. The current invention shows a rumble strips apparatus that are capable of providing a guiding force to guide the vehicle back to its normal path and in the mean time, providing vibration as conventional rumble strips do.

Abstract: A programmable non-overlap clock generator is disclosed. This clock generator includes a primary clock signal input terminal for providing a primary clock signal, and a selection signal input terminal for providing at least one selection signal. The present invention also includes a first logic gate, whose first input terminal is coupled to receive an inverted signal of the primary clock signal. Further, the first input terminal of a second logic gate is coupled to receive the primary clock signal. A first programmable delay means, connected between an output of the first logic gate and the second input terminal of the second logic gate, is used to delay an output signal from the first logic gate a predetermined amount of time according to the selection signal.

Abstract: A structure and method for forming multiplication of a b-bit multiplicand X and a b-bit multiplier Y to generate a product P is disclosed. The present invention includes cells C.sub.mn configured in a b.times.b array, and pieces of means for generating partial product X.sub.mn, wherein outputs of the partial product generating means are connected to first inputs of the cells respectively. The second inputs of the cells C.sub.mn, where m=0, 1, 2, . . . , b-2, and n=1, 2, . . . , b-1, are connected to first outputs of the cells C.sub.m+1, n-1 respectively, and the second inputs of the cells C.sub.b-1, n, where n=1, 2, . . . , b-1, are connected to second outputs of the cells C.sub.n-1, b-1 respectively. Further, the third inputs of the cells C.sub.mn, where m=0, 1, 2, . . . , b-1, and n=2, 3, . . . , b-1, are connected to the second outputs of the cells C.sub.m, n-1. Therefore, a portion of the product P.sub.f, where f=0, 1, . . . , b-1, comes from the first outputs of the cells C.sub.

Abstract: A power-on reset circuit (28) is disclosed. The circuit includes a first stage circuit (30) and a second stage circuit (32). The first stage circuit includes an input terminal coupled to receive an input signal, a latch for detecting a power-on condition, and an output terminal for providing a first stage circuit output signal. The first stage circuit output signal remains in a first state after detection of the power-on condition. The second stage circuit includes an input terminal coupled to receive the first stage circuit output signal, a latch for detecting the power-on condition, and an output terminal for providing a second stage circuit output signal. The second stage circuit output signal remains in the first state after detection of the power-on condition.

Abstract: A self-setup non-overlap clock generator is disclosed. This clock generator includes a primary clock signal input terminal for providing a primary clock signal, and a selection signal input terminal for providing at least one selection signal. The present invention also includes a first logic gate having a first input terminal coupled to receive an inverted signal of the primary clock signal. Further, a second logic gate is provided, having a first input terminal coupled to receive the primary clock signal. A first programmable delay portion is used to delay an output signal from the first logic gate an amount of time according to the selection signal, and a second programmable delay portion is used to delay an output signal from the second logic gate a predetermined amount of time according to the selection signal. Therefore, a first clock signal is generated from the output of the first logic gate, and a second clock signal is generated from the output of the second logic gate.