mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a planar, rectangular ground plane with a first corner , a second corner diagonal from the first corner , a third corner adjacent to the first corner , and a fourth corner diagonal from the third corner , the planar, rectangular ground plane having a major length along a y-axis and a minor length along an x-axis; a first antenna having a first antenna element positioned at the first corner and a second antenna element positioned at the second corner ; a second antenna having a third antenna element positioned at the third corner and a fourth antenna element positioned at the fourth corner , wherein the first antenna and second antenna are diagonally oriented relative to each other and configured to provide significant excitation along the y-axis of the planar, rectangular ground plane and non-negligible excitation along the x-axis of the planar, rectangular ground plane or significant excitation along the x-axis of the planar, rectangular ground plane and non-negligible excitation along the y-axis of the planar, rectangular ground plane ; a first phase shifter configured to drive the first antenna element out of phase relative to the second antenna element at low band frequencies; and a second phase shifter configured to drive the third antenna element out of phase relative to the fourth antenna element at low band frequencies, characterised in that during high band transmission, the first and the second phase shifters are configured to drive the diagonally positioned elements of each antenna of the antenna system either in-phase or out-of-phase. a planar, rectangular ground plane with a first corner , a second corner diagonal from the first corner , a third corner adjacent to the first corner , and a fourth corner diagonal from the third corner , the planar, rectangular ground plane having a major length along a y-axis and a minor length along an x-axis; a first antenna having a first antenna element positioned at the first corner and a second antenna element positioned at the second corner ; a second antenna having a third antenna element positioned at the third corner and a fourth antenna element positioned at the fourth corner , wherein the first antenna and second antenna are diagonally oriented relative to each other and configured to provide significant excitation along the y-axis of the planar, rectangular ground plane and non-negligible excitation along the x-axis of the planar, rectangular ground plane or significant excitation along the x-axis of the planar, rectangular ground plane and non-negligible excitation along the y-axis of the planar, rectangular ground plane ; a first phase shifter configured to drive the first antenna element out of phase relative to the second antenna element at low band frequencies; and a second phase shifter configured to drive the third antenna element out of phase relative to the fourth antenna element at low band frequencies, characterised in that during high band transmission, the first and the second phase shifters are configured to drive the diagonally positioned elements of each antenna of the antenna system either in-phase or out-of-phase.
A control method of an inspection apparatus including a stage on which a substrate (W) having an inspection object to be inspected is mounted and a plurality of light sources configured to emit light to heat the substrate (W), wherein the control method comprises: individually lighting the plurality of light sources and obtaining a plurality of first temperature distributions of the substrate (W); obtaining a second temperature distribution representing a sum of the plurality of first temperature distributions; obtaining one or more correction values (C1-C12) for correcting an amount of light output from at least one or more light sources of the plurality of light sources based on the second temperature distribution; and correcting the amount of light output from each of the at least one or more light sources using the one or more correction values (C1-C12). a stage on which a substrate (W) having an inspection object to be inspected is mounted and a plurality of light sources configured to emit light to heat the substrate (W), wherein the control method comprises: individually lighting the plurality of light sources and obtaining a plurality of first temperature distributions of the substrate (W); obtaining a second temperature distribution representing a sum of the plurality of first temperature distributions; obtaining one or more correction values (C1-C12) for correcting an amount of light output from at least one or more light sources of the plurality of light sources based on the second temperature distribution; and correcting the amount of light output from each of the at least one or more light sources using the one or more correction values (C1-C12). individually lighting the plurality of light sources and obtaining a plurality of first temperature distributions of the substrate (W); obtaining a second temperature distribution representing a sum of the plurality of first temperature distributions; obtaining one or more correction values (C1-C12) for correcting an amount of light output from at least one or more light sources of the plurality of light sources based on the second temperature distribution; and correcting the amount of light output from each of the at least one or more light sources using the one or more correction values (C1-C12).
An implantation system for dilating a urethra at least partially obstructed by an enlarged prostate, the system comprising: a dilation device configured to be at least partially embedded in an enlarged portion of the prostate; and a delivery device for the dilation device including: a mounting device configured to carry the dilation device and to which the dilation device is removably attached; a holder releasably attached to the mounting device, the mounting device and holder being operable to deliver the dilation device to a desired position in a urethra, and to implant the dilation device through a wall of the prostate to circumferentially surround at least part of the urethra; and an inflatable urethral expander disposed within the delivery device during delivery to the implantation site, wherein the dilation device is at least partially mounted on the outside of said urethral expander during implantation. a dilation device configured to be at least partially embedded in an enlarged portion of the prostate; and a delivery device for the dilation device including: a mounting device configured to carry the dilation device and to which the dilation device is removably attached; a holder releasably attached to the mounting device, the mounting device and holder being operable to deliver the dilation device to a desired position in a urethra, and to implant the dilation device through a wall of the prostate to circumferentially surround at least part of the urethra; and a mounting device configured to carry the dilation device and to which the dilation device is removably attached; a holder releasably attached to the mounting device, the mounting device and holder being operable to deliver the dilation device to a desired position in a urethra, and to implant the dilation device through a wall of the prostate to circumferentially surround at least part of the urethra; and an inflatable urethral expander disposed within the delivery device during delivery to the implantation site, wherein the dilation device is at least partially mounted on the outside of said urethral expander during implantation.
A device for video decoding, comprising: a processor, the processor configured at least to: identify prediction information for a current subblock within a current coding unit, wherein the prediction information comprises a plurality of sample values in a first reference block and a plurality of sample values in a second reference block; obtain a prediction sample value difference between the plurality of sample values in the first reference block and the plurality of sample values in the second reference block; determine whether the prediction sample value difference is less than a threshold; and decode the current subblock based on the determination of whether the prediction sample value difference is less than the threshold, wherein bi-directional optical flow (BIO) is enabled for the current subblock based on a determination that the prediction sample value difference is equal to or greater than the threshold, and BIO is disabled for the current subblock based on a determination that the prediction sample value difference is less than the threshold. identify prediction information for a current subblock within a current coding unit, wherein the prediction information comprises a plurality of sample values in a first reference block and a plurality of sample values in a second reference block; obtain a prediction sample value difference between the plurality of sample values in the first reference block and the plurality of sample values in the second reference block; determine whether the prediction sample value difference is less than a threshold; and decode the current subblock based on the determination of whether the prediction sample value difference is less than the threshold, wherein bi-directional optical flow (BIO) is enabled for the current subblock based on a determination that the prediction sample value difference is equal to or greater than the threshold, and BIO is disabled for the current subblock based on a determination that the prediction sample value difference is less than the threshold.
A Bluetooth communication method, implemented in a device provided with a Bluetooth module, characterized in that sequentially comprising the following steps: Step A: renaming the device, so that a name of the device comprises a specific character string, by adding the specific character string to an original device name; Step B: searching, by the Bluetooth module, for an another device whose name comprises the same character string or a corresponding character string with the specific character string obtained after being processed by a specific algorithm; Step C: establishing, by the Bluetooth module, a connection between the device and a found another device; Step D: transmitting data with the another device having established the connection; and Step E: disconnecting the connection. Step A: renaming the device, so that a name of the device comprises a specific character string, by adding the specific character string to an original device name; Step B: searching, by the Bluetooth module, for an another device whose name comprises the same character string or a corresponding character string with the specific character string obtained after being processed by a specific algorithm; Step C: establishing, by the Bluetooth module, a connection between the device and a found another device; Step D: transmitting data with the another device having established the connection; and Step E: disconnecting the connection.
A combination comprising a pure 5-HT 6 receptor antagonist and an NMDA receptor antagonist wherein the pure 5-HT 6 receptor antagonist is selected from: 1-[(2-Bromophenyl)sulfonyl]-5-methoxy-3-[(4-methyl-1-piperazinyl)methyl]-1H-indole; 1-[(4-Fluorophenyl)sulfonyl]-5-methoxy-3-[(4-methyl-1-piperazinyl)methyl]-1H-indole; and 1-[(4-Isopropylphenyl)sulfonyl]-5-methoxy-3-[(4-methyl-1-piperazinyl)methyl]-1H-indole; or a pharmaceutically acceptable salt thereof. 1-[(2-Bromophenyl)sulfonyl]-5-methoxy-3-[(4-methyl-1-piperazinyl)methyl]-1H-indole; 1-[(4-Fluorophenyl)sulfonyl]-5-methoxy-3-[(4-methyl-1-piperazinyl)methyl]-1H-indole; and 1-[(4-Isopropylphenyl)sulfonyl]-5-methoxy-3-[(4-methyl-1-piperazinyl)methyl]-1H-indole; or a pharmaceutically acceptable salt thereof.
Apparatus for detecting sound waves emanating from a body of a subject, the apparatus comprising: a housing ; a membrane , disposed at an opening of the housing, configured to deflect, when the outer face of the membrane contacts the body, responsively to the sound waves impinging on the membrane; a piezoelectric microphone , disposed within the housing, configured to detect vibrations of air caused by the deflection of the membrane, and to generate a microphone output in response thereto; an accelerometer , disposed on the inner face of the membrane, configured to deflect, along with the membrane, at frequencies below a minimum frequency that is detectable by the piezoelectric microphone, and to generate an accelerometer output in response thereto; and a processor , configured to process the microphone output and the accelerometer output, and to generate, responsively to the processing, a sound signal that represents the impinging sound waves emanating from the body of the subject. a housing ; a membrane , disposed at an opening of the housing, configured to deflect, when the outer face of the membrane contacts the body, responsively to the sound waves impinging on the membrane; a piezoelectric microphone , disposed within the housing, configured to detect vibrations of air caused by the deflection of the membrane, and to generate a microphone output in response thereto; an accelerometer , disposed on the inner face of the membrane, configured to deflect, along with the membrane, at frequencies below a minimum frequency that is detectable by the piezoelectric microphone, and to generate an accelerometer output in response thereto; and a processor , configured to process the microphone output and the accelerometer output, and to generate, responsively to the processing, a sound signal that represents the impinging sound waves emanating from the body of the subject.
A meat cutlet flattener made of at least partly plastic material for the automatic, controlled flattening of cutlets, in particular raw cutlets, having - a base frame , - a cutlet conveyor with a bearing surface , - at least one flattener element arranged above the bearing surface of the cutlet conveyor and movable up and down, - wherein multiple punches (1 - 6) arranged one behind the other in the direction of passage are present as flattener elements (1 - 6), and - at least one punch drive for the punches (1 - 6) is present. characterised in that - the bearing surface conveys the cutlets (S) in the direction of passage and through the flattener , - the punches (1 - 6) are driven up and down, pounding the cutlet as they move in the downward direction and thereby flattening the cutlet (S). - a base frame , - a cutlet conveyor with a bearing surface , - at least one flattener element arranged above the bearing surface of the cutlet conveyor and movable up and down, - wherein multiple punches (1 - 6) arranged one behind the other in the direction of passage are present as flattener elements (1 - 6), and - at least one punch drive for the punches (1 - 6) is present. characterised in that - the bearing surface conveys the cutlets (S) in the direction of passage and through the flattener , - the punches (1 - 6) are driven up and down, pounding the cutlet as they move in the downward direction and thereby flattening the cutlet (S).
Valve (2; 102), notably for pressurized gas, comprising : - a body with: an inlet , an outlet , and a passage which connects the inlet with the outlet and which includes a seat ; and - a sliding piston (18; 118) with two opposite faces, which is able to engage with the seat in order to close the passage ; the valve (2; 102) being adapted in such a way that a differential pressure on opposite faces of the piston (18; 118) pulls away the piston (18; 118) from the seat in order to open the passage ; characterized in that the piston (18; 118) is equipped with a telescopic extension (30; 130) sliding against the passage in order to guide the piston (18; 118) in the passage at least between the open position and the closed position. - a body with: an inlet , an outlet , and a passage which connects the inlet with the outlet and which includes a seat ; and - a sliding piston (18; 118) with two opposite faces, which is able to engage with the seat in order to close the passage ;
A vacuum cleaner comprising: a suction device; an extendable inlet nozzle in fluid communication with the suction device, the extendable inlet nozzle being extendable from a first operable position to a second operable position; and characterised by a proximity sensor for detecting a surface; and a controller configured to change the suction power of the suction device in dependence on a signal from the proximity sensor and in dependence on the position of the extendable inlet nozzle. a suction device; an extendable inlet nozzle in fluid communication with the suction device, the extendable inlet nozzle being extendable from a first operable position to a second operable position; and characterised by a proximity sensor for detecting a surface; and a controller configured to change the suction power of the suction device in dependence on a signal from the proximity sensor and in dependence on the position of the extendable inlet nozzle.
A cryptographic processing method comprising: generating a third encrypted polynomial that corresponds to a result of encrypting a third polynomial by a computer, by use of a result of multiplying a first encrypted polynomial obtained by encrypting a first polynomial that corresponds to a first vector by a second encrypted polynomial obtained by encrypting a second polynomial that corresponds to a second vector, the third polynomial including a first term that has a coefficient based on an inner product of the first vector and the second vector and a second term other than the first term, wherein a coefficient of the second term is masked; and outputting cryptographic information that represents the third encrypted polynomial. generating a third encrypted polynomial that corresponds to a result of encrypting a third polynomial by a computer, by use of a result of multiplying a first encrypted polynomial obtained by encrypting a first polynomial that corresponds to a first vector by a second encrypted polynomial obtained by encrypting a second polynomial that corresponds to a second vector, the third polynomial including a first term that has a coefficient based on an inner product of the first vector and the second vector and a second term other than the first term, wherein a coefficient of the second term is masked; and outputting cryptographic information that represents the third encrypted polynomial.
A coated film structure comprising: a substrate layer comprising a polymer film substrate; an overcoat layer comprising at least one hydrophobic styrene copolymer and a crosslinker, wherein the at least one hydrophobic styrene copolymer is selected from the group consisting of styrene-acrylic copolymers stabilized with alkali-soluble resins (ASR), alkali-soluble acrylic copolymers, acid functional styrene-acrylic copolymers, and carboxylated styrene-butadiene rubber (SBR) dispersions, and wherein the crosslinker is selected from the group consisting of: a multivalent metal salt and a metal oxide; and at least one intermediate layer disposed between the substrate layer and the overcoat layer, the intermediate layer comprising aluminum oxide. a substrate layer comprising a polymer film substrate; an overcoat layer comprising at least one hydrophobic styrene copolymer and a crosslinker, wherein the at least one hydrophobic styrene copolymer is selected from the group consisting of styrene-acrylic copolymers stabilized with alkali-soluble resins (ASR), alkali-soluble acrylic copolymers, acid functional styrene-acrylic copolymers, and carboxylated styrene-butadiene rubber (SBR) dispersions, and wherein the crosslinker is selected from the group consisting of: a multivalent metal salt and a metal oxide; and at least one intermediate layer disposed between the substrate layer and the overcoat layer, the intermediate layer comprising aluminum oxide.
Method for electronically signing a document by a plurality of signatories, comprising a step of acquiring a photograph of at least one of said signatories and identifying said signatory from said photograph, and a step of associating said document in a digital form with said identified signatory, the method comprising: - a step of calculating a matrix code in advance by a cryptographic processing TC applied to said document, - said step of acquiring a photograph consisting of acquiring a photograph of at least one first signatory bearing a physical medium representing said matrix code, - a step of validating: ∘ the identity of the first signatory in the photograph and ∘ the compliance of the matrix code calculated by said cryptographic processing TC applied to the document held by at least one second signatory, with the matrix code in the photograph borne by the first signatory. - said association step consisting in providing the signature of at least one of said signatories on said document, wherein the photograph of the face of the second signatory is added to the photograph of the first signatory with the same matrix code, such that the method constitutes conclusive evidence of the consent of said signatories to said document by the association of said signature on said document. - a step of calculating a matrix code in advance by a cryptographic processing TC applied to said document, - said step of acquiring a photograph consisting of acquiring a photograph of at least one first signatory bearing a physical medium representing said matrix code, - a step of validating: ∘ the identity of the first signatory in the photograph and ∘ the compliance of the matrix code calculated by said cryptographic processing TC applied to the document held by at least one second signatory, with the matrix code in the photograph borne by the first signatory. ∘ the identity of the first signatory in the photograph and ∘ the compliance of the matrix code calculated by said cryptographic processing TC applied to the document held by at least one second signatory, with the matrix code in the photograph borne by the first signatory. - said association step consisting in providing the signature of at least one of said signatories on said document, wherein the photograph of the face of the second signatory is added to the photograph of the first signatory with the same matrix code, such that the method constitutes conclusive evidence of the consent of said signatories to said document by the association of said signature on said document.
Plant having at least one device for the treatment and/or processing of polymeric materials, characterized in that the plant comprises at least one block-type thermal power station to which the device is attached, that a heating unit is attached to the block-type thermal power station via a waste heat line , that the heating unit is connected to at least one drying container for polymeric material feedstocks via a line , said drying container lying along with the heating unit in a drying circuit, that the drying container is connected to a cooler for cooling the return air via a return air line , that the cooler for removing moisture from the return air is attached to a drying and regenerating unit which has dehumidification units in the supply lines and discharge lines whereof switch valves are located, that the drying and regenerating unit is connected to the heating unit via at least one line and that the drying container is connected to the device in a line-connected manner.