mhurhangee/patent-ind-claim-en huggingface dataset:
An automated method for determining and terminating undesired inbound calls, the method comprising: receiving an incoming phone call ; activating a controller in response, the controller holding the incoming call and recording audio from the incoming call; evaluating the recorded audio with a spam detection engine to determine if the incoming call is spam ; and in response to a determination the call is spam, prompting the incoming call to input a code with an interactive voice response IVR system, wherein when the code input by the incoming call does not match the prompted code, the call is terminated characterized in that , the spam detection engine comprises a plurality of spam type modules, and each spam type module is configured to detect a different type of spam, the spam type modules further determine the type of spam of the incoming call. receiving an incoming phone call ; activating a controller in response, the controller holding the incoming call and recording audio from the incoming call; evaluating the recorded audio with a spam detection engine to determine if the incoming call is spam ; and in response to a determination the call is spam, prompting the incoming call to input a code with an interactive voice response IVR system, wherein when the code input by the incoming call does not match the prompted code, the call is terminated characterized in that , the spam detection engine comprises a plurality of spam type modules, and each spam type module is configured to detect a different type of spam, the spam type modules further determine the type of spam of the incoming call.
A high voltage pulsing circuit comprising: a high voltage pulsing power supply; a transformer (T2) electrically coupled with the high voltage pulsing power supply; an output electrically coupled with the transformer and configured to output high voltage pulses with an amplitude greater than 1 kV and a pulse repetition frequency greater than 1 kHz; a bias compensation circuit electrically coupled with the transformer and output on one end and ground on the other end, the bias compensation circuit comprising a bias compensation diode ; a first inductance comprising inductive elements and stray inductance between the bias compensation circuit and the high voltage pulsing power supply; and a second inductance comprising inductive elements and stray inductance between the bias compensation circuit and the output; wherein the stray inductance of the bias compensation circuit is less than 1 μ H; wherein the first inductance is greater than the second inductance; and a DC power supply (V1) arranged in series with the bias compensation diode . a high voltage pulsing power supply; a transformer (T2) electrically coupled with the high voltage pulsing power supply; an output electrically coupled with the transformer and configured to output high voltage pulses with an amplitude greater than 1 kV and a pulse repetition frequency greater than 1 kHz; a bias compensation circuit electrically coupled with the transformer and output on one end and ground on the other end, the bias compensation circuit comprising a bias compensation diode ; a first inductance comprising inductive elements and stray inductance between the bias compensation circuit and the high voltage pulsing power supply; and a second inductance comprising inductive elements and stray inductance between the bias compensation circuit and the output; wherein the stray inductance of the bias compensation circuit is less than 1 μ H; wherein the first inductance is greater than the second inductance; and a DC power supply (V1) arranged in series with the bias compensation diode .
A hot melt adhesive composition comprising: a. a polymer component in an amount from 10 wt% to 50 wt%, wherein the polymer is selected from the group consisting of ethylene vinyl acetate, metallocene polyolefin, ethylene butyl acrylate or mixtures thereof; b. a wax; and c. a templating agent from 0.01wt% to less than 0.5wt%, wherein the templating agent is a sugar and sugar alcohol derivatives, or has a structure of: Ar-L1-X-L2-R wherein X is a sugar or a sugar alcohol; Ar is a substituted or unsubstituted aryl-containing functional group; R is H, alky, alkenyl, hydroxyl, alkoxy and alkyl-halide, or a substituted or unsubstituted aryl-containing functional group; and L1 and L2, independently, are acetal or ether functional group; and wherein the templating agent is provided in an effect amount such that the ΔH of the adhesive is increased by at least 5% over an adhesive composition without the templating agent; wherein the average crystal size in the adhesive composition is increased by at least 10% over the adhesive composition without the templating agent; and wherein the heat resistance of the adhesive is increased by at least 5°F over an adhesive composition without the templating agent. a. a polymer component in an amount from 10 wt% to 50 wt%, wherein the polymer is selected from the group consisting of ethylene vinyl acetate, metallocene polyolefin, ethylene butyl acrylate or mixtures thereof; b. a wax; and c. a templating agent from 0.01wt% to less than 0.5wt%, wherein the templating agent is a sugar and sugar alcohol derivatives, or has a structure of: Ar-L1-X-L2-R wherein X is a sugar or a sugar alcohol; Ar is a substituted or unsubstituted aryl-containing functional group; R is H, alky, alkenyl, hydroxyl, alkoxy and alkyl-halide, or a substituted or unsubstituted aryl-containing functional group; and L1 and L2, independently, are acetal or ether functional group; and wherein the templating agent is provided in an effect amount such that the ΔH of the adhesive is increased by at least 5% over an adhesive composition without the templating agent; wherein the average crystal size in the adhesive composition is increased by at least 10% over the adhesive composition without the templating agent; and wherein the heat resistance of the adhesive is increased by at least 5°F over an adhesive composition without the templating agent. wherein X is a sugar or a sugar alcohol; Ar is a substituted or unsubstituted aryl-containing functional group; R is H, alky, alkenyl, hydroxyl, alkoxy and alkyl-halide, or a substituted or unsubstituted aryl-containing functional group; and L1 and L2, independently, are acetal or ether functional group; and wherein the templating agent is provided in an effect amount such that the ΔH of the adhesive is increased by at least 5% over an adhesive composition without the templating agent; wherein the average crystal size in the adhesive composition is increased by at least 10% over the adhesive composition without the templating agent; and wherein the heat resistance of the adhesive is increased by at least 5°F over an adhesive composition without the templating agent.
Machine for the automatic treatment of components of inhalers, in particular cartomizers for electronic cigarettes, comprising a first transporting member having a first plurality of seats configured to selectively transport said components from a first operational module (M1), provided with loading means to load said components onto said first transporting member , to a final operational module (MF) provided with transfer means to transfer said components outside said first transporting member , and one or more intermediate operational modules (M2-M8) interposed between said first operational module (M1) and said final operational module (MF) and configured to perform work and/or inspection steps on said components , characterized in that said first transporting member comprises a first chain having a plurality of links equal to each other, each of which is connected in an articulated manner to the two adjacent links , so as to define a first interaxis (IM1) between two adjacent links , and in that said first operational module (M1), said intermediate operational modules (M2-M8), and said final operational module (MF) have a length (LM1, LM2, LM3) which is a respective whole multiple (Mil) of said first interaxis (IM1), each of said operational modules (M1, M2-M8, MF) being equipped with all the mechanical and electric/electronic apparatuses or devices needed to perform the required operations.
A circular saw blade with a supporting body and a plurality of recesses (1.0) provided in its periphery, which form a seat surface (1.1) and a back surface (1.2) and into each of which a cutting blank is inserted with a cutting surface (2.3) pointing in the direction of rotation (D) and a clearance surface (2.1) pointing radially outwards, the clearance surface (2.1) extending at a first angle (β) to the cutting surface (2.3) and the cutting blank having a second clearance surface (2. 2) which extends at a second angle (β') to the cutting surface (2.3), the first angle (β) being greater than the second angle (β'), characterised in that the first length (b) of the cutting blank projected in the radial direction (R) is greater than its second length (a) projected in the tangential direction (T), and in that the first angle (β) lies in the range from 50° to 90° and the second angle (β') lies in the range from 30° to 80°.
Method for testing the delivery volume of a pump for conveying liquid, comprising the following steps: i) providing a volume-defined sample vessel having a known vessel volume, ii) dispensing a preset, desired dispensing volume of a system liquid into the sample vessel by means of the pump , iii) measuring a first fill level of the sample vessel and calculating the actual dispensing volume in the sample vessel therefrom, iv) suctioning the preset, desired suction volume from the sample vessel by means of the pump , v) measuring a second fill level of the sample vessel and calculating the suction volume actually suctioned out in step iv) therefrom, characterized in that the method additionally comprises the following steps: vi) comparing the measured actual volumes of steps iii) and v) with the desired, theoretically conveyed volumes of steps ii) and iv), vii) checking whether or not measured value deviations from the theoretically desired values determined in step vi) are within a predetermined tolerance range, and in that the following further steps are inserted between step i) and step ii): i.a) metering a small amount of a system liquid into the sample vessel by means of the pump in order to set the liquid level to a defined starting point, and i.b) measuring the starting position of the liquid level. i) providing a volume-defined sample vessel having a known vessel volume, ii) dispensing a preset, desired dispensing volume of a system liquid into the sample vessel by means of the pump , iii) measuring a first fill level of the sample vessel and calculating the actual dispensing volume in the sample vessel therefrom, iv) suctioning the preset, desired suction volume from the sample vessel by means of the pump , v) measuring a second fill level of the sample vessel and calculating the suction volume actually suctioned out in step iv) therefrom, vi) comparing the measured actual volumes of steps iii) and v) with the desired, theoretically conveyed volumes of steps ii) and iv), vii) checking whether or not measured value deviations from the theoretically desired values determined in step vi) are within a predetermined tolerance range, and in that the following further steps are inserted between step i) and step ii): i.a) metering a small amount of a system liquid into the sample vessel by means of the pump in order to set the liquid level to a defined starting point, and i.b) measuring the starting position of the liquid level. i.a) metering a small amount of a system liquid into the sample vessel by means of the pump in order to set the liquid level to a defined starting point, and i.b) measuring the starting position of the liquid level.
Retractable ventilation system for a household appliance - having a lifting motor , - and having a circuit (102-118, K1-K4, D1-D5, R1-R2, C1, S1, GND) for activating the lifting motor comprising a switch (S1), - wherein the circuit is embodied such that on actuation of the switch a selection is made between two current paths for operating the lifting motor, - wherein one of the two current paths is provided for moving the ventilation system in a preferred direction and another of the two current paths is provided for moving the ventilation system counter to the preferred direction, - wherein the selected current path can interrupt the other current path by means of an electronic switch (K1-K4), - wherein the selected current path can be interrupted by means of at least one limit switch and - wherein the current path for moving the ventilation system counter to the preferred direction comprises a time-delay circuit (R1, C1) which enables said current path to be activated on a time-delayed basis. - having a lifting motor , - and having a circuit (102-118, K1-K4, D1-D5, R1-R2, C1, S1, GND) for activating the lifting motor comprising a switch (S1), - wherein the circuit is embodied such that on actuation of the switch a selection is made between two current paths for operating the lifting motor, - wherein one of the two current paths is provided for moving the ventilation system in a preferred direction and another of the two current paths is provided for moving the ventilation system counter to the preferred direction, - wherein the selected current path can interrupt the other current path by means of an electronic switch (K1-K4), - wherein the selected current path can be interrupted by means of at least one limit switch and - wherein the current path for moving the ventilation system counter to the preferred direction comprises a time-delay circuit (R1, C1) which enables said current path to be activated on a time-delayed basis.
A method for power amplifier tuning based on an automobile audio bus, A2B, interface, comprising: determining , by a tuning control device, a plurality of tuning paths and a plurality of tuning parameters of one or more power amplifiers, wherein the tuning paths are downlink paths from a power amplifier of the one or more power amplifiers to the tuning control device via an A2B converter or uplink paths from the tuning control device to a power amplifier of the one or more power amplifiers via the A2B converter ; determining, by the tuning control device, data volumes of the plurality of tuning parameters according to the types of the one or more power amplifiers; determining , by the tuning control device, a data volume for each tuning path according to the data volumes of the plurality of tuning parameters; allocating , by the tuning control device, the number of A2B channels to each tuning path according to the data volume determined for each tuning path; calculating , by the tuning control device, a tuning speed for each tuning path according to the number of A2B channels allocated to each tuning path, wherein the tuning speed is a bite rate; allocating , by the tuning control device, the calculated tuning speed for each tuning path to the one or more power amplifiers through the A2B interface; and adjusting, by the tuning control device, the number of A2B channels for each tuning path. determining , by a tuning control device, a plurality of tuning paths and a plurality of tuning parameters of one or more power amplifiers, wherein the tuning paths are downlink paths from a power amplifier of the one or more power amplifiers to the tuning control device via an A2B converter or uplink paths from the tuning control device to a power amplifier of the one or more power amplifiers via the A2B converter ; determining, by the tuning control device, data volumes of the plurality of tuning parameters according to the types of the one or more power amplifiers; determining , by the tuning control device, a data volume for each tuning path according to the data volumes of the plurality of tuning parameters; allocating , by the tuning control device, the number of A2B channels to each tuning path according to the data volume determined for each tuning path; calculating , by the tuning control device, a tuning speed for each tuning path according to the number of A2B channels allocated to each tuning path, wherein the tuning speed is a bite rate; allocating , by the tuning control device, the calculated tuning speed for each tuning path to the one or more power amplifiers through the A2B interface; and adjusting, by the tuning control device, the number of A2B channels for each tuning path.
A transmission device comprising: a generation unit configured to generate an orthogonal frequency division multiplexing, OFDM, signal in which same additional information of a physical layer is allocated to additional carriers in a same group, the group being obtained by grouping the additional carriers to be used for transmission of the additional information, of carriers of an OFDM segment configuring an OFDM symbol of the OFDM signal of one frame, into groups each including a plurality of the additional carriers; and a transmission unit configured to transmit the OFDM signal, wherein the generation unit generates the OFDM signal according to a fast Fourier transform, FFT, size for an inverse fast Fourier transform for the OFDM signal, wherein the OFDM signal includes signaling indicating the FFT size and a group index for specifying a type of grouping pattern of the additional carriers. a generation unit configured to generate an orthogonal frequency division multiplexing, OFDM, signal in which same additional information of a physical layer is allocated to additional carriers in a same group, the group being obtained by grouping the additional carriers to be used for transmission of the additional information, of carriers of an OFDM segment configuring an OFDM symbol of the OFDM signal of one frame, into groups each including a plurality of the additional carriers; and a transmission unit configured to transmit the OFDM signal, wherein the generation unit generates the OFDM signal according to a fast Fourier transform, FFT, size for an inverse fast Fourier transform for the OFDM signal, wherein the OFDM signal includes signaling indicating the FFT size and a group index for specifying a type of grouping pattern of the additional carriers.
A method of making a foamed component for an article of footwear, comprising: a) milling a block or sheet of thermoplastic polymer to form a precursor in a desired shape of a component for an article of footwear; b) crosslinking the thermoplastic polymer; c) heating the precursor to a first temperature to soften the thermoplastic polymer; d) infusing the thermoplastic polymer with at least one inert gas at a first pressure that is sufficient to cause the at least one inert gas to permeate into the softened thermoplastic polymer; and e) while the thermoplastic polymer is softened, reducing the pressure to a second pressure below the first pressure to at least partially foam the precursor into a foamed article, wherein the foamed article is substantially the same shape as the precursor, wherein each of the foamed article and the precursor are shaped as a component for an article of footwear, and wherein the precursor has a volume of between 20% and 80% of the volume of the foamed article. a) milling a block or sheet of thermoplastic polymer to form a precursor in a desired shape of a component for an article of footwear; b) crosslinking the thermoplastic polymer; c) heating the precursor to a first temperature to soften the thermoplastic polymer; d) infusing the thermoplastic polymer with at least one inert gas at a first pressure that is sufficient to cause the at least one inert gas to permeate into the softened thermoplastic polymer; and e) while the thermoplastic polymer is softened, reducing the pressure to a second pressure below the first pressure to at least partially foam the precursor into a foamed article,
Coupling comprising at least one claw part and an intermediate piece , said intermediate piece having a buffer part which has elastic damping elements and serves for receiving the at least one claw part , wherein the at least one buffer part is received in an end region of a tube piece of the intermediate piece , and the damping elements are surrounded by the end region radially at the outside in a circumferential direction, characterized in that a part of the buffer part that is different from the damping elements is produced from a material which is more brittle in comparison with the tube piece , and the tube piece is produced from aluminium or from an aluminium alloy.
A projection system, comprising: a light source configured to emit a light in response to an image data; a phase light modulator configured to receive the light from the light source and to apply a spatially-varying phase modulation on the light; and a controller configured to: determine, for a frame of the image data, a plurality of phase configurations, respective ones of the plurality of phase configurations corresponding to solutions of iterations of a phase algorithm and representing the same image with a different modulation pattern, and provide a phase control signal to the phase light modulator, the phase control signal configured to cause the phase light modulator to modulate light in accordance with the plurality of phase configurations in a time-divisional manner within a time period of the frame, thereby causing the projection system to project a series of subframes within the time period, characterized in that the phase algorithm is based on a compensation map for modifying a target intensity of the image data or on a scaling transformation for modifying an effective resolution of the image data. a light source configured to emit a light in response to an image data; a phase light modulator configured to receive the light from the light source and to apply a spatially-varying phase modulation on the light; and a controller configured to: determine, for a frame of the image data, a plurality of phase configurations, respective ones of the plurality of phase configurations corresponding to solutions of iterations of a phase algorithm and representing the same image with a different modulation pattern, and provide a phase control signal to the phase light modulator, the phase control signal configured to cause the phase light modulator to modulate light in accordance with the plurality of phase configurations in a time-divisional manner within a time period of the frame, thereby causing the projection system to project a series of subframes within the time period, characterized in that the phase algorithm is based on a compensation map for modifying a target intensity of the image data or on a scaling transformation for modifying an effective resolution of the image data. determine, for a frame of the image data, a plurality of phase configurations, respective ones of the plurality of phase configurations corresponding to solutions of iterations of a phase algorithm and representing the same image with a different modulation pattern, and provide a phase control signal to the phase light modulator, the phase control signal configured to cause the phase light modulator to modulate light in accordance with the plurality of phase configurations in a time-divisional manner within a time period of the frame, thereby causing the projection system to project a series of subframes within the time period, characterized in that the phase algorithm is based on a compensation map for modifying a target intensity of the image data or on a scaling transformation for modifying an effective resolution of the image data.