Abstract: An apparatus, system, and method for are provided. A device includes a time-to-digital converter (TDC) situated to convert a time-domain signal to a digital value, a delay circuit situated in parallel with the TDC and to delay the time-domain signal by a specified amount of time resulting in a delayed time-domain signal, a time-to-voltage converter (TVC) situated to produce a voltage-domain signal based on the delayed time-domain signal, and a successive approximation (SAR) circuit situated to receive the digital value and the voltage-domain signal and produce a digital-domain version of the input signal.

Abstract: Disclosed are a USB data communication method and device based on a hybrid USB Network. The USB data communication method based on a hybrid USB Network includes following steps executed by the docking station terminal: obtaining a USB data monitoring command carrying an operation mode; when the operation mode is an automatic mode, monitoring a data communication status of a USB input and output interface; when the data communication status is a no input and output information status, monitoring a data of a network input data interface of a network module in the docking station terminal; when the network input data interface obtains a data sending request sent by a client terminal via the hybrid USB Network, in which the data sending request includes network data and a target transmission device, converting the network data into a USB communication data via a soft switching module in the docking station terminal.

Abstract: Disclosed are a USB data communication method and device based on a hybrid USB Network. The USB data communication method based on a hybrid USB Network includes following steps executed by the docking station terminal: obtaining a USB data monitoring command carrying an operation mode; when the operation mode is an automatic mode, monitoring a data communication status of a USB input and output interface; when the data communication status is a no input and output information status, monitoring a data of a network input data interface of a network module in the docking station terminal; when the network input data interface obtains a data sending request sent by a client terminal via the hybrid USB Network, in which the data sending request includes network data and a target transmission device, converting the network data into a USB communication data via a soft switching module in the docking station terminal.

Abstract: An apparatus, system, and method for are provided. A device includes a time-to-digital converter (TDC) situated to convert a time-domain signal to a digital value, a delay circuit situated in parallel with the TDC and to delay the time-domain signal by a specified amount of time resulting in a delayed time-domain signal, a time-to-voltage converter (TVC) situated to produce a voltage-domain signal based on the delayed time-domain signal, and a successive approximation (SAR) circuit situated to receive the digital value and the voltage-domain signal and produce a digital-domain version of the input signal.

Abstract: Some embodiments include apparatuses and methods using the apparatuses. Some of the apparatuses include a phase frequency detector to generate output information having a value based on a relationship between a first clock signal and a second clock signal, a memory element to store the values of the output information, a digital control oscillator to generate the second clock signal having a phase and frequency based on a digital code, the digital code having a value based on control information, and circuitry to generate the control information based on conditions determined at least from the values stored in the memory element.

Abstract: Some embodiments include apparatuses and methods using the apparatuses. Some of the apparatuses include a phase frequency detector to generate output information having a value based on a relationship between a first clock signal and a second clock signal, a memory element to store the values of the output information, a digital control oscillator to generate the second clock signal having a phase and frequency based on a digital code, the digital code having a value based on control information, and circuitry to generate the control information based on conditions determined at least from the values stored in the memory element.

Abstract: The present disclosure provides a polyolefin-based composition suitable for use as adhesives and/or tie-layer adhesive compositions as well as a multi-layered structure made from and/or containing the polyolefin-based composition. The polyolefin-based composition is made from and/or contains (a) a grafted polyolefin composition, (b) a first polymer composition, (c) a polypropylene-containing blend composition, and (d) optionally, an additives composition having one or more additives.

Abstract: A process of extruding a blend of an irradiated first propylene polymer and a non-irradiated second propylene polymer, where the first propylene polymer comprises a non-phenolic stabilizer. The irradiation of the first propylene polymer extrudate is conducted in a reduced oxygen environment, and the irradiated first propylene polymer and the non-irradiated second propylene polymer are blended at a temperature below their respective melting points. The blend has a viscosity retention of 20 to 35%.

Abstract: The present disclosure provides a polyolefin-based composition suitable for use as adhesives and/or tie-layer adhesive compositions as well as a multi-layered structure made from and/or containing the polyolefin-based composition. The polyolefin-based composition is made from and/or contains (a) a grafted polyolefin composition, (b) a first polymer composition, (c) a polypropylene-containing blend composition, and (d) optionally, an additives composition having one or more additives.

Abstract: A process of extruding a blend of an irradiated first propylene polymer and a non-irradiated second propylene polymer, where the first propylene polymer comprises a non-phenolic stabilizer. The irradiation of the first propylene polymer extrudate is conducted in a reduced oxygen environment, and the irradiated first propylene polymer and the non-irradiated second propylene polymer are blended at a temperature below their respective melting points. The blend has a viscosity retention of 20 to 35%.

Abstract: A process of extruding a blend of an irradiated first propylene polymer and a non-irradiated second propylene polymer, where the first propylene polymer comprises a non-phenolic stabilizer. The irradiation of the first propylene polymer extrudate is conducted in a reduced oxygen environment, and the irradiated first propylene polymer and the non-irradiated second propylene polymer are blended at a temperature below their respective melting points. The blend has a viscosity retention of 20 to 35%.

Abstract: Embodiments of a calibration circuit for a current source which may include a first control switch, a second control switch, and a capacitor. In embodiments, the first control switch may be operable to couple the capacitor to the current source and the second control switch may be operable to couple the capacitor to a reference current source to enable the capacitor to be charged or discharged according to a first control signal provided to the first control switch and a second control signal provided to the second control switch. In embodiments, the calibration circuit may be included in a digital-to-analog (DAC) converter.

Abstract: The present invention relates to a process comprising extruding a blend of an first propylene polymer comprising a non-phenolic stabilizer and a non-irradiated second propylene polymer, wherein the irradiation of the first propylene polymer was conducted in a reduced oxygen environment, and the irradiated first propylene polymer and the non-irradiated second propylene polymer were blended at a temperature below the melting point of the first and second propylene polymers.

Abstract: Embodiments of a calibration circuit for a current source which may include a first control switch, a second control switch, and a capacitor. In embodiments, the first control switch may be operable to couple the capacitor to the current source and the second control switch may be operable to couple the capacitor to a reference current source to enable the capacitor to be charged or discharged according to a first control signal provided to the first control switch and a second control signal provided to the second control switch. In embodiments, the calibration circuit may be included in a digital-to-analog (DAC) converter.

Abstract: A process of extruding a blend of an irradiated extrudate of a first propylene polymer and a non-irradiated second propylene polymer, where the first propylene polymer comprises a non-phenolic stabilizer. The irradiation of the first propylene polymer extrudate is conducted in a reduced oxygen environment, and the irradiated extrudate of the first propylene polymer and the non-irradiated second propylene polymer are blended at a temperature below their respective melting points. The blend has an ARPSW of ?3.0 micron.

Abstract: The present invention relates to a process comprising extruding a blend of an first propylene polymer comprising a non-phenolic stabilizer and a non-irradiated second propylene polymer, wherein the irradiation of the first propylene polymer was conducted in a reduced oxygen environment, and the irradiated first propylene polymer and the non-irradiated second propylene polymer were blended at a temperature below the melting point of the first and second propylene polymers.

Abstract: A process of extruding a blend of an irradiated extrudate of a first propylene polymer and a non-irradiated second propylene polymer, where the first propylene polymer comprises a non-phenolic stabilizer. The irradiation of the first propylene polymer extrudate is conducted in a reduced oxygen environment, and the irradiated extrudate of the first propylene polymer and the non-irradiated second propylene polymer are blended at a temperature below their respective melting points. The blend has an ARPSW of ?3.0 micron.

Abstract: A process of extruding a blend of an irradiated first propylene polymer and a non-irradiated second propylene polymer, where the first propylene polymer comprises a non-phenolic stabilizer. The irradiation of the first propylene polymer extrudate is conducted in a reduced oxygen environment, and the irradiated first propylene polymer and the non-irradiated second propylene polymer are blended at a temperature below their respective melting points. The blend has a viscosity retention of 20 to 35%.

Abstract: A process for producing a multilayer structure comprising: contacting an adhesive layer having a first side and a second side, on its first side with a metal layer having a first side and a second side, on its first side at a temperature of 325° F. to 425° F. for a contact time of 0.5 to 5.0 seconds, thereby adhering the adhesive layer to the metal layer. The adhesive layer comprises an ethylene-C4-8 ?-olefin linear low density copolymer; a polymer grafted with an ethylenically unsaturated carboxylic acid or acid derivative; and a styrene-butadiene-styrene triblock copolymer having an MI of 5 to 50.

Abstract: Feedback circuits with DC offset cancellation are described. In an exemplary design, a feedback circuit includes a slow integrator and a summer. The slow integrator receives a first intermediate signal at a particular point in the feedback circuit and provides a second intermediate signal. The summer is located after the particular point and receives and sums the first and second intermediate signals to reduce DC offset in the first intermediate signal. In one design, the feedback circuit may be a delta-sigma (??) modulator with at least one integrator coupled in cascade. The slow integrator is coupled to the output of the last integrator, receives the first intermediate signal from the last integrator, and provides the second intermediate signal. The summer is coupled to the last integrator and the slow integrator and sums the first and second intermediate signals to reduce DC offset in the first intermediate signal.