Abstract: The invention relates to a shockproof power bank which includes a power bank body and a protective cover. The inside of the protective cover is divided into two layers, respectively a spring buffer layer and an air cushion buffer layer. A sleeve is fixedly connected to the inside of the spring buffer layer. A telescopic rod is fixedly connected to the inside of the sleeve. A bottom of the telescopic rod is fixedly connected with a baffle. A spring is provided between a bottom of the telescopic rod and a bottom of the sleeve. The other end of the telescopic rod penetrates the top of the sleeve and is fixedly connected with the protective cover. The bottom of the sleeve is fixedly connected with a connecting rod, and the inner surface of the air cushion buffer layer is fixedly connected with a regular hexagonal airbag. The four adjacent hexagonal airbags are fixedly connected with a diamond airbag.

Abstract: A communication device is configured to communicate coded information to other communication device(s). The communication device uses NCPs to indicate locations of codewords within signal(s) transmitted to the other communication device(s). The communication device is configured to encode NCP(s) using an FEC code to generate coded NCP(s) and also to encode the NCP(s) using a cyclic redundancy check (CRC) code to generate NCP CRC bits. The communication device is also configured to encode the NCP CRC bits using the FEC code to generate coded NCP CRC bits. The communication device is then configured to generate OFDM or OFDMA symbol(s) include the coded NCP(s) and the coded NCP CRC bits to indicate beginnings of codeword(s) within at least one of the OFDM symbol(s) and/or additional OFDM symbol(s). The communication device is also configured to transmit the OFDM or OFDMA symbols to another communication device via a communication interface of the communication device.

Abstract: Surgical devices and methods used for invaginating tissue during, for example, an endoscopic fundoplication procedure, are disclosed. The device includes an elongated tube having a proximal end configured to extend outside of the body and a distal end configured to extend proximate the tissue to be invaginated, and a distal member coupled to the distal end of the tube. The distal member is configured to hold or grasp the tissue to be invaginated. The devices may include a protective distal sleeve.

Abstract: A communication device includes a communication interface and a processor. In one example, the processor generates an orthogonal frequency division multiplexing (OFDM) symbol that includes information modulated within sub-carriers and then interleaves the sub-carriers of the OFDM symbol to generate an interleaved OFDM symbol. This interleaving of the sub-carriers operates to write the plurality of sub-carriers to rows of a two dimensional (2D) array and read the plurality of sub-carriers from columns of the 2D array. This interleaving also operates to read a column of the columns using a bit-reversed address of the column when the bit-reversed address is less than a number of the columns and using the address of the column when the bit-reversed address is greater than or equal to the number of the columns. The processor transmits, via the communication interface, the interleaved OFDM symbol to another communication device.

Abstract: A communication device (or device) includes a communication interface and processor that support communications with one or more other devices within a communication system. The processor generates and interprets different signals, frames, packets, symbols, etc. for transmission to other devices and that have been received from other devices. The device generates modulation symbols based on two-dimensional (2-D) symbol locations of a constellation. The device generates the 2-D symbol locations using based on recursive one-dimensional (1-D) Gray code formula applied to bits of symbol values. The recursive 1-D Gray code formula specifies first symbol locations for symbol values having a first number of bits (e.g., n) based on second symbol locations for other symbol values having one fewer bits per symbol (e.g., n?1). The device maps data symbols to the 2-D symbol locations to generate the modulation symbols and transmits the modulation symbols to another communication device.

Abstract: A communication device operates to support communications with one or more other communication devices. The communication device includes a processor and a communication interface to perform various operations including receiving forward error correction (FEC) coded signals from another communication device. The communication device iteratively decodes the FEC coded signals to make estimates of information encoded therein. The communication device then determines an operational error check rate based on error check failure of at least one of the FEC coded signals after performing a predetermined number of decoding iterations (e.g., that is less than a maximum number of decoding iterations performed by the device). The device then determines a signal to noise ratio (SNR) margin of the communication device by applying the operational error check rate to a characterization of the communication device that relates error check rate and SNR.

Abstract: A communication device includes a communication interface and a processor. In one example, the processor generates an orthogonal frequency division multiplexing (OFDM) symbol that includes information modulated within sub-carriers and then interleaves the sub-carriers of the OFDM symbol to generate an interleaved OFDM symbol. This interleaving of the sub-carriers operates to write the plurality of sub-carriers to rows of a two dimensional (2D) array and read the plurality of sub-carriers from columns of the 2D array. This interleaving also operates to read a column of the columns using a bit-reversed address of the column when the bit-reversed address is less than a number of the columns and using the address of the column when the bit-reversed address is greater than or equal to the number of the columns. The processor transmits, via the communication interface, the interleaved OFDM symbol to another communication device.

Abstract: A communication device is configured to communicate coded information to other communication device(s). The communication device uses NCPs to indicate locations of codewords within signal(s) transmitted to the other communication device(s). The communication device is configured to encode NCP(s) using an FEC code to generate coded NCP(s) and also to encode the NCP(s) using a cyclic redundancy check (CRC) code to generate NCP CRC bits. The communication device is also configured to encode the NCP CRC bits using the FEC code to generate coded NCP CRC bits. The communication device is then configured to generate OFDM or OFDMA symbol(s) include the coded NCP(s) and the coded NCP CRC bits to indicate beginnings of codeword(s) within at least one of the OFDM symbol(s) and/or additional OFDM symbol(s). The communication device is also configured to transmit the OFDM or OFDMA symbols to another communication device via a communication interface of the communication device.

Abstract: Embodiments provide adjustable vascular catheter systems suitable for use in radial access procedures. In embodiments, the adjustable catheter includes an elongated tubular member having a wall defining a proximal end, a distal end, and a main lumen extending therebetween; a first micro-lumen having a proximal end, a distal end, and a hollow lumen extending therebetween, wherein the first micro-lumen extends substantially outwardly from the catheter wall and runs in parallel with the main lumen; and a first shape wire adapted to pass within the first micro-lumen, wherein the first shape wire has a shape memory function sufficient to deflect a deflectable distal portion of the elongated tubular member. In various embodiments, the shape of the deflected distal portion may allow a user to navigate the catheter past one or more tortuosities and reach normally positioned and anomalous positioned vascular ostia. Some embodiments include second and third shape wires, each having a different shape memory function.

Abstract: The electrical equivalent of a relatively large area proximity detection capability is provided in a space limited electronic device (20, 30) with many individual input electrodes (24, 34, 44) by dynamically coupling parallel groups of the individual electrodes (24, 34, 44) and applying a proximity and/or contact test thereto. The parallel grouped electrodes act like a single large electrode and permit proximity detection at greater distances and with greater sensitivity. A multiplexer (74) automatically couples individual input electrodes (23, 24, 44) and then parallel grouped electrodes to the proximity (or contact) sensor(s) (46, 66), so that they are scanned and sensed individually and collectively in a time less than human reaction time, whereby the proximity sense function appears as if provided by a separate large area electrode. Proximity spatial detection accuracy is increased by using some of the electrodes (24, 34, 44) as driven shields to remove positional ambiguity.

Abstract: Surgical devices and methods used for invaginating tissue during, for example, an endoscopic fundoplication procedure, are disclosed. The device includes an elongated tube having a proximal end configured to extend outside of the body and a distal end configured to extend proximate the tissue to be invaginated, and a distal member coupled to the distal end of the tube. The distal member is configured to hold or grasp the tissue to be invaginated. The devices may include a protective distal sleeve.

Abstract: A wireless sensor module comprises: input means (2) for determining a target piece of information such as temperature. A transmitter (18) is arranged to transmit this information to a remote receiver (48) in discrete bursts. The module's power supply (4) comprises one or more photovoltaic cells (22) at least one capacitor (34) arranged to be charged by the photovoltaic cell(s) (22). The capacitor is further arranged such that it may power the transmitter (18).

Abstract: It is the object of the present invention to provide asynchronous circuit design tools for those engineers who are versed in standard hardware description languages (HDLs), which is widely used in industry mainly for synchronous circuit design, to design asynchronous circuits with relative ease. To accomplish the object, the asynchronous circuit design tools of the present invention include a translator for transforming a code written in an asynchronous circuit design language, which is based on a standard HDL and includes minimal primitives for describing the communications between asynchronous circuit blocks or processes, into a code written in a standard HDL, which is originally developed for synchronous circuit design. The codes transformed into the standard HDL can be functionally verified by using commercially available simulators, which are originally developed for verifying synchronous circuit design.

Abstract: A method and apparatus is presented for gaining socket testability through the use of a capacitive interposer engineered to create capacitive coupling between signal nodes of a circuit assembly that the tester has access to and nodes of the socket that would not otherwise have any coupling to a testable signal node of the socket. Generally, coupling capacitance is engineered into the interposer by trace and via routing between the signal node of the socket and a location in close proximity to the inaccessible socket node such that their proximity to each other couples them together.

Abstract: Surgical devices and methods used for invaginating tissue during, for example, an endoscopic fundoplication procedure, are disclosed. The device includes an elongated tube having a proximal end configured to extend outside of the body and a distal end configured to extend proximate the tissue to be invaginated, and a distal member coupled to the distal end of the tube. The distal member is configured to hold or grasp the tissue to be invaginated. The devices may include a protective distal sleeve.

Abstract: Surgical devices and methods used for invaginating tissue during, for example, an endoscopic fundoplication procedure, are disclosed. The device includes an elongated tube having a proximal end configured to extend outside of the body and a distal end configured to extend proximate the tissue to be invaginated, and a distal member coupled to the distal end of the tube. The distal member is configured to hold or grasp the tissue to be invaginated. The devices may include a protective distal sleeve.