Abstract: A multi-beam antenna (1), comprising: a substrate(S); a metasurface on the substrate(S) formed as a matrix having rows (6) and columns (4, 5) of unit cells of first (2) and second (3) types, the multi-beam antenna (1) being adapted to radiate phase-adjusted signals in multiple directions simultaneously based on a periodic arrangement of the unit cells of the first (2) and second (3) types on the substrate(S).

Abstract: Techniques for a natural language processing (NLP) system to implement more than one assistant are described. The NLP system may receive a natural language input corresponding to more than one user command. The NLP system may respond to a first command, of the natural language input, using a TTS voice of a first NLP system assistant. The NLP system may respond to a second command, of the natural language input, using a TTS voice of a second NLP system assistant.

Abstract: In described examples, an integrated circuit includes a first pin, a second pin, a processor, a bus monitor, a clock circuit, and a transceiver. The processor provides to the transceiver and the bus monitor an instruction that indicates an instructed target address, a read/write flag, and a memory address. The transceiver provides to the first pin and the bus monitor a clock signal, and provides to the second pin and the bus monitor a message so that the message includes a messaged target address, the read/write flag, and the memory address. The bus monitor compares the instructed target address to the messaged target address, and provides a signal to the processor in response to the comparison.

Abstract: In described examples, an integrated circuit includes a first pin, a second pin, a processor, a bus monitor, a clock circuit, and a transceiver. The processor provides to the transceiver and the bus monitor an instruction that indicates an instructed target address, a read/write flag, and a memory address. The transceiver provides to the first pin and the bus monitor a clock signal, and provides to the second pin and the bus monitor a message so that the message includes a messaged target address, the read/write flag, and the memory address. The bus monitor compares the instructed target address to the messaged target address, and provides a signal to the processor in response to the comparison.

Abstract: In described examples, an integrated circuit includes a first pin, a second pin, a processor, a bus monitor, a clock circuit, and a transceiver. The processor provides to the transceiver and the bus monitor an instruction that indicates an instructed target address, a read/write flag, and a memory address. The transceiver provides to the first pin and the bus monitor a clock signal, and provides to the second pin and the bus monitor a message so that the message includes a messaged target address, the read/write flag, and the memory address. The bus monitor compares the instructed target address to the messaged target address, and provides a signal to the processor in response to the comparison.

Abstract: An example apparatus includes multiplexer circuitry configured to couple a communication module to at least one of a data bus input or a test signal; and embedded pattern generator (EPG) circuitry coupled to the multiplexer circuitry, the EPG circuitry including: clock divider circuitry including a plurality of clock outputs, the clock divider circuitry configured to be coupled to an output of a clock, the plurality of clock outputs configured to be of a frequency equal to a division of a frequency of the output of the clock; a multiplexer including a multiplexer output, the multiplexer configured to couple one of the plurality of clock outputs to the multiplexer output; and signal generator circuitry including an input clock, an EPG input, and a plurality of data outputs, the input clock coupled to the multiplexer output, the signal generator circuitry configured to generate a data stream.

Abstract: An example apparatus includes multiplexer circuitry configured to couple a communication module to at least one of a data bus input or a test signal; and embedded pattern generator (EPG) circuitry coupled to the multiplexer circuitry, the EPG circuitry including: clock divider circuitry including a plurality of clock outputs, the clock divider circuitry configured to be coupled to an output of a clock, the plurality of clock outputs configured to be of a frequency equal to a division of a frequency of the output of the clock; a multiplexer including a multiplexer output, the multiplexer configured to couple one of the plurality of clock outputs to the multiplexer output; and signal generator circuitry including an input clock, an EPG input, and a plurality of data outputs, the input clock coupled to the multiplexer output, the signal generator circuitry configured to generate a data stream.

Abstract: The innovation disclosed and claimed herein, in one aspect thereof, comprises systems and methods of funds transfer authentication. The authentication can include receiving a transfer request to transfer funds from a payer to a payee, the transfer request identifies the payer, the payee, and an amount to transfer. Customer information associated respectively with the payer and the payee is identified. The payer and the payee are authenticated. A communication session is opened between the payer and payee. A time-limited payee OTP is generated and sent to the payee. The payee OTP is received within a first time limit. The funds are transferred from the payer to the payee based on receiving a matching payee OTP.

Abstract: The innovation disclosed and claimed herein, in one aspect thereof, comprises systems and methods of funds transfer authentication. The authentication can include receiving a transfer request to transfer funds from a payer to a payee, the transfer request identifies the payer, the payee, and an amount to transfer. Customer information associated respectively with the payer and the payee is identified. The payer and the payee are authenticated. A communication session is opened between the payer and payee. A time-limited payee OTP is generated and sent to the payee. The payee OTP is received within a first time limit. The funds are transferred from the payer to the payee based on receiving a matching payee OTP.

Abstract: Techniques for a natural language processing (NLP) system to implement more than one assistant are described. The NLP system may receive a natural language input corresponding to more than one user command. The NLP system may respond to a first command, of the natural language input, using a TTS voice of a first NLP system assistant. The NLP system may respond to a second command, of the natural language input, using a TTS voice of a second NLP system assistant.

Abstract: The innovation disclosed and claimed herein, in me aspect thereof, comprises systems and methods of funds transfer authentication. The authentication can include receiving a transfer request to transfer funds from a payer to a payee, the transfer request identifies the payer, the payee, and an amount to transfer. Customer information associated respectively with the payer and the payee is identified. The payer and the payee are authenticated. A communication session is opened between the payer and payee. A time-limited payee OTP is generated and sent to the payee. The payee OTP is received within a first time limit. The funds are transferred from the payer to the payee based on receiving a matching payee OTP.

Abstract: Techniques for a natural language processing (NLP) system to implement more than one assistant are described. The NLP system may receive a natural language input corresponding to more than one user command. The NLP system may respond to a first command, of the natural language input, using a TTS voice of a first NLP system assistant. The NLP system may respond to a second command, of the natural language input, using a TTS voice of a second NLP system assistant.

Abstract: An example apparatus includes multiplexer circuitry configured to couple a communication module to at least one of a data bus input or a test signal; and embedded pattern generator (EPG) circuitry coupled to the multiplexer circuitry, the EPG circuitry including: clock divider circuitry including a plurality of clock outputs, the clock divider circuitry configured to be coupled to an output of a clock, the plurality of clock outputs configured to be of a frequency equal to a division of a frequency of the output of the clock; a multiplexer including a multiplexer output, the multiplexer configured to couple one of the plurality of clock outputs to the multiplexer output; and signal generator circuitry including an input clock, an EPG input, and a plurality of data outputs, the input clock coupled to the multiplexer output, the signal generator circuitry configured to generate a data stream.

Abstract: Techniques for a natural language processing (NLP) system to implement more than one assistant are described. The NLP system may receive a natural language input from a device. The NLP system may also receive one or more signals representing one or more assistants to be implemented with respect to the natural language input. The NLP system may intelligently select an assistant to be invoked with respect to the natural language input. Once the assistant is selected, the NLP system may cause content, output to a user, to have characteristics specific to the assistant.

Abstract: The innovation disclosed and claimed herein, in one aspect thereof, comprises systems and methods of funds transfer authentication. The authentication can include receiving a transfer request to transfer funds from a payer to a payee, the transfer request identifies the payer, the payee, and an amount to transfer. Customer information associated respectively with the payer and the payee is identified. The payer and the payee are authenticated. A communication session is opened between the payer and payee. A time-limited payee OTP is generated and sent to the payee. The payee OTP is received within a first time limit. The funds are transferred from the payer to the payee based on receiving a matching payee OTP.

Abstract: Techniques for a natural language processing (NLP) system to implement more than one assistant are described. The NLP system may receive a natural language input corresponding to more than one user command. The NLP system may respond to a first command, of the natural language input, using a TTS voice of a first NLP system assistant. The NLP system may respond to a second command, of the natural language input, using a TTS voice of a second NLP system assistant.

Abstract: Techniques for a natural language processing (NLP) system to implement more than one assistant are described. The NLP system may receive a natural language input corresponding to more than one user command. The NLP system may respond to a first command, of the natural language input, using a TTS voice of a first NLP system assistant. The NLP system may respond to a second command, of the natural language input, using a TTS voice of a second NLP system assistant.

Abstract: Techniques for a natural language processing (NLP) system to implement more than one assistant are described. The NLP system may receive a natural language input corresponding to more than one user command. The NLP system may respond to a first command, of the natural language input, using a TTS voice of a first NLP system assistant. The NLP system may respond to a second command, of the natural language input, using a TTS voice of a second NLP system assistant.

Abstract: Techniques for a natural language processing (NLP) system to implement more than one assistant are described. The NLP system may receive a natural language input from a device. The NLP system may also receive one or more signals representing one or more assistants to be implemented with respect to the natural language input. The NLP system may intelligently select an assistant to be invoked with respect to the natural language input. Once the assistant is selected, the NLP system may cause content, output to a user, to have characteristics specific to the assistant.

Abstract: Techniques for a natural language processing (NLP) system to implement more than one assistant during a dialog between one or more users and the NLP system are described. The NLP system may receive a first natural language input and associate same with a dialog identifier. The NLP system may output audio, responsive to the first natural language input, in a first NLP system assistant's voice. Thereafter, the NLP system may receive a second natural language input and associate same with the dialog identifier. The NLP system may output audio, responsive to the second natural language input, in a second NLP system assistant's voice.