mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting and receiving a signal by a user equipment, UE, performing a carrier aggregation operation over a network in a wireless communication system, the method comprising: receiving a downlink signal from the network through a plurality of downlink cells and transmitting a first uplink signal to the network through a first uplink cell layer at a first point in time, wherein the plurality of downlink cells are configured for the UE but only the first uplink cell layer is configured for the UE ; receiving a specific message for changing the first uplink cell layer from the network; changing the first uplink cell layer to a second uplink cell layer based on the specific message; and transmitting a second uplink signal to the network through the second uplink cell layer at a second point different from the first point in time, wherein, when changing the uplink cell layer, the plurality of downlink cells is maintained. receiving a downlink signal from the network through a plurality of downlink cells and transmitting a first uplink signal to the network through a first uplink cell layer at a first point in time, wherein the plurality of downlink cells are configured for the UE but only the first uplink cell layer is configured for the UE ; receiving a specific message for changing the first uplink cell layer from the network; changing the first uplink cell layer to a second uplink cell layer based on the specific message; and transmitting a second uplink signal to the network through the second uplink cell layer at a second point different from the first point in time, wherein, when changing the uplink cell layer, the plurality of downlink cells is maintained.
A foldable barrier net for separating a cargo area of a vehicle from a passenger compartment of the vehicle by being fastened to upper fastening elements and lower fastening elements of the vehicle , the foldable barrier net comprises: an upper edge element having a through passage with open end sections , a resilient element, preferably in the form of a net , attached to the upper edge element , hook elements arranged at opposite ends of the passage , each hook element partly extending in the passage and extending through the open end sections for allowing fastening to the upper fastening elements of the vehicle , and a load-bearing belt , extending partly inside the passage of the upper edge element and arranged to change directions by engagement with the hook elements inside the passage for fastening of the load-bearing belt to the lower fastening elements of the vehicle . an upper edge element having a through passage with open end sections , a resilient element, preferably in the form of a net , attached to the upper edge element , hook elements arranged at opposite ends of the passage , each hook element partly extending in the passage and extending through the open end sections for allowing fastening to the upper fastening elements of the vehicle , and a load-bearing belt , extending partly inside the passage of the upper edge element and arranged to change directions by engagement with the hook elements inside the passage for fastening of the load-bearing belt to the lower fastening elements of the vehicle .
A contact lens comprising: a posterior surface having an optic zone , a peripheral zone , and a circumferential edge and said peripheral zone having dimples that number at least 1000 dimples, wherein the dimples provide a fill volume of at least 0.01 μl and have a dimple coverage of up to 80% based on a total surface area of said posterior surface.
An actuator system for controlling a vent or valve comprising: a vent, wherein the vent has an open position and a closed position and is biased toward the closed position; a motor that is configured to control the operation of the vent; a power supply , a switching regulator coupled to the power supply with an input voltage and to the motor , characterized in that the switching regulator is configured to provide a first constant voltage to the motor when the vent changes from the closed position to the open position and a second constant voltage that maintains the vent in an open position and the first constant voltage is greater than then the second constant voltage . a vent, wherein the vent has an open position and a closed position and is biased toward the closed position; a motor that is configured to control the operation of the vent; a power supply , a switching regulator coupled to the power supply with an input voltage and to the motor , characterized in that the switching regulator is configured to provide a first constant voltage to the motor when the vent changes from the closed position to the open position and a second constant voltage that maintains the vent in an open position and the first constant voltage is greater than then the second constant voltage .
A communication device comprising: circuitry , which, in operation, maps modulation symbols to a first Orthogonal Frequency Division Multiplexing, OFDM, symbol, to which a reference signal is mapped, in a first subframe, and maps the same modulation symbols to a second OFDM symbol, to which the reference signal is mapped, in a second subframe that is different from the first subframe with respect to available resources, wherein the position of the second OFDM symbol within the second subframe is different from the position of the first OFDM symbol within the first subframe; and a transmitter , which, in operation, transmits the mapped modulation symbols with repetitions in the first and second subframes. circuitry , which, in operation, maps modulation symbols to a first Orthogonal Frequency Division Multiplexing, OFDM, symbol, to which a reference signal is mapped, in a first subframe, and maps the same modulation symbols to a second OFDM symbol, to which the reference signal is mapped, in a second subframe that is different from the first subframe with respect to available resources, wherein the position of the second OFDM symbol within the second subframe is different from the position of the first OFDM symbol within the first subframe; and a transmitter , which, in operation, transmits the mapped modulation symbols with repetitions in the first and second subframes.
A radiation source for verifying the measurement accuracy of a non-contact thermal measurement device, comprising: a non-resistive heat source , wherein the non-resistive heat source comprises a transistor; a thermally conductive face having a controlled long-wave infrared emissivity wherein the thermally conductive face is in thermal contact with the non-resistive heat source; a temperature detector positioned to detect a temperature of the thermally conductive face; a printed circuit positioned to support the non-resistive heat source and the temperature detector; and a thermally conductive interface positioned between the thermally conductive face and the printed circuit board, wherein the thermally conductive interface is electrically non-conductive. a non-resistive heat source , wherein the non-resistive heat source comprises a transistor; a thermally conductive face having a controlled long-wave infrared emissivity wherein the thermally conductive face is in thermal contact with the non-resistive heat source; a temperature detector positioned to detect a temperature of the thermally conductive face; a printed circuit positioned to support the non-resistive heat source and the temperature detector; and a thermally conductive interface positioned between the thermally conductive face and the printed circuit board, wherein the thermally conductive interface is electrically non-conductive.
A computerized method for performing a driver assistance function using a computerized system mounted on a moving vehicle, the computerized system including a processor and a camera , wherein under control of the processor the camera is configured for capturing in real time image frames of the environment in the field of view of the camera, the method comprising: assigning different camera parameters to different image frames by for a first portion of image frames , controlling a camera parameter based on ambient lighting conditions in the environment in the field of view of the camera; based on the camera parameter of the first portion of image frames , setting a camera parameter of a second portion of image frames ; capturing the image frames; and transferring the image frames to the image processor for processing of the driver assistance function; wherein the driver assistance function includes detection and recognition of traffic signs; the camera parameters are gain and/or exposure time; and the exposure time of the second portion of image frames is shorter than the exposure time of the first portion of image frames. assigning different camera parameters to different image frames by for a first portion of image frames , controlling a camera parameter based on ambient lighting conditions in the environment in the field of view of the camera; based on the camera parameter of the first portion of image frames , setting a camera parameter of a second portion of image frames ; capturing the image frames; and transferring the image frames to the image processor for processing of the driver assistance function; wherein the driver assistance function includes detection and recognition of traffic signs; the camera parameters are gain and/or exposure time; and the exposure time of the second portion of image frames is shorter than the exposure time of the first portion of image frames.
A polypeptide comprising at least one immunoglobulin single variable domain (ISVD), wherein said ISVD specifically binds CD13 and comprises 3 complementarity determining regions (CDR1 to CDR3 respectively), in which (i) CDR1 is chosen from the group consisting of SEQ ID NO: 1, and amino acid sequences that have an amino acid difference at position 4, 6 and/or 7 of SEQ ID NO: 1; (ii) CDR2 is SEQ ID NOs: 3; and (iii) CDR3 is chosen from the group consisting of SEQ ID NO: 4, and amino acid sequences that have an amino acid difference at position 6, 10 and/or 12 of SEQ ID NO: 4. (i) CDR1 is chosen from the group consisting of SEQ ID NO: 1, and amino acid sequences that have an amino acid difference at position 4, 6 and/or 7 of SEQ ID NO: 1; (ii) CDR2 is SEQ ID NOs: 3; and (iii) CDR3 is chosen from the group consisting of SEQ ID NO: 4, and amino acid sequences that have an amino acid difference at position 6, 10 and/or 12 of SEQ ID NO: 4.
A delivery system for delivering a prosthesis to a diseased native valve of a heart, the delivery system comprising: an outer sheath having a central axis; an inner shaft within the outer sheath , the inner shaft translatable and rotatable relative to the outer sheath and having a longitudinal axis; an anchor of the prosthesis having an elongated delivery configuration and a spiral-shaped deployed configuration configured to encircle chordae or leaflets of the diseased native valve; an anchor guide attached to a distal end of the inner shaft and having a lumen, wherein the anchor is configured to be disposed within the lumen of the anchor guide in the elongated delivery configuration, the anchor guide comprising a proximal section that is on-axis with the central axis and a curved distal section that curves about the central axis in a tapered spiral, wherein a distal-most plane of the curved distal section is orthogonal to the central axis; and an anchor deployment mechanism configured to deploy the anchor from the elongated delivery configuration in the anchor guide into the spiral-shaped deployed configuration within the heart; wherein the curvature of the anchor guide is configured to cause torsion on the anchor which causes the anchor to be deployed concentrically with the longitudinal axis of a distal end of the inner shaft. an outer sheath having a central axis; an inner shaft within the outer sheath , the inner shaft translatable and rotatable relative to the outer sheath and having a longitudinal axis; an anchor of the prosthesis having an elongated delivery configuration and a spiral-shaped deployed configuration configured to encircle chordae or leaflets of the diseased native valve; an anchor guide attached to a distal end of the inner shaft and having a lumen, wherein the anchor is configured to be disposed within the lumen of the anchor guide in the elongated delivery configuration, the anchor guide comprising a proximal section that is on-axis with the central axis and a curved distal section that curves about the central axis in a tapered spiral, wherein a distal-most plane of the curved distal section is orthogonal to the central axis; and an anchor deployment mechanism configured to deploy the anchor from the elongated delivery configuration in the anchor guide into the spiral-shaped deployed configuration within the heart; wherein the curvature of the anchor guide is configured to cause torsion on the anchor which causes the anchor to be deployed concentrically with the longitudinal axis of a distal end of the inner shaft.
An LED lamp module , formed for the arrangement in a device for carrying out a photochemical reaction, wherein the LED lamp module has a plurality of LEDs and a shaping carrier body , to which the LEDs are fastened, wherein the carrier body is arranged with the LEDs in an interior space of the LED lamp module , which is delimited by a transparent wall element and by a housing element , wherein the transparent wall element is arranged in a corresponding manner to the LEDs and at least one electrical supply line for the electrical connection of the LEDs extends through the housing element , and wherein the plurality of LEDs is divided into LED groups , which have a predetermined number of LEDs , wherein the LEDs of each LED group are connected in series, and each LED group is in each case assigned to a driver device as constant current source (I const ) for the operation of the LEDs of the respective LED group and is connected thereto, characterized in that each driver device is arranged adjacent to the LED group assigned to it on the carrier body in the interior space of the LED lamp module , and each driver device is connected in series to the respective assigned LED group and forms an LED current branch, wherein the LED current branches are connected in parallel and the LED current branches connected in parallel are connected to a constant voltage source (U const ) via the supply line . and wherein the plurality of LEDs is divided into LED groups , which have a predetermined number of LEDs , wherein the LEDs of each LED group are connected in series, and each LED group is in each case assigned to a driver device as constant current source (I const ) for the operation of the LEDs of the respective LED group and is connected thereto, characterized in that each driver device is arranged adjacent to the LED group assigned to it on the carrier body in the interior space of the LED lamp module , and each driver device is connected in series to the respective assigned LED group and forms an LED current branch, wherein the LED current branches are connected in parallel and the LED current branches connected in parallel are connected to a constant voltage source (U const ) via the supply line .
A surgical robot for use in endoscopic surgery, the surgical robot comprising: a robot arm that is configured to hold a surgical instrument used in the endoscopic surgery; a drive device that is configured to drive the robot arm ; a display section for displaying information; a display processor that is configured to display a relative positional relationship between a pivot (P 1 ) and a distal end position (St) of the surgical instrument during surgery on the display section , the pivot (P 1 ) being a position which is an immovable point when the robot arm operates, regardless of a state of the robot arm ; and an immovable point setter that is configured to recognize the distal end position (St) (i) by obtaining or calculating a coordinate which indicates the distal end position (St) from an attitude of the robot arm , (ii) with an image analysis technique that uses a 3D camera such as a stereo camera and a depth camera, or (iii) by applying a laser light to an incision position and recognizing the applied position by an image analysis technique, and store the recognized distal end position as the pivot (P 1 ), wherein the display processor is configured to show, on the display section , (i) a case where the distal end position (St) of the surgical instrument is located inside a body relative to the pivot (P 1 ), (ii) a case where the distal end position (St) of the surgical instrument is located outside the body relative to the pivot (P 1 ), and (iii) a state in which an immovable point setting is not yet performed, using image information such as figures, in particular icons. a robot arm that is configured to hold a surgical instrument used in the endoscopic surgery; a drive device that is configured to drive the robot arm ; a display section for displaying information; a display processor that is configured to display a relative positional relationship between a pivot (P 1 ) and a distal end position (St) of the surgical instrument during surgery on the display section , the pivot (P 1 ) being a position which is an immovable point when the robot arm operates, regardless of a state of the robot arm ; and an immovable point setter that is configured to recognize the distal end position (St) (i) by obtaining or calculating a coordinate which indicates the distal end position (St) from an attitude of the robot arm , (ii) with an image analysis technique that uses a 3D camera such as a stereo camera and a depth camera, or (iii) by applying a laser light to an incision position and recognizing the applied position by an image analysis technique, and store the recognized distal end position as the pivot (P 1 ), wherein the display processor is configured to show, on the display section , (i) a case where the distal end position (St) of the surgical instrument is located inside a body relative to the pivot (P 1 ), (ii) a case where the distal end position (St) of the surgical instrument is located outside the body relative to the pivot (P 1 ), and (iii) a state in which an immovable point setting is not yet performed, using image information such as figures, in particular icons.
A foldable screen for greenhouse or for outdoor cultivations, comprising: a canvas ; a substrate on one side of the canvas , arranged for preventing convective heat transfer through the screen; at least one stack of films mounted on or adhering to said substrate , wherein said stack of films is adapted to: - transmit at least 80% of radiations within the range from 400 nm to 2'500 nm when said radiations hit said film at normal incidence, - reject at least 70%, preferably at least 80% of radiations at normal incidence within the range from 3'000 nm to 35'000 nm. a canvas ; a substrate on one side of the canvas , arranged for preventing convective heat transfer through the screen; at least one stack of films mounted on or adhering to said substrate , wherein said stack of films is adapted to: - transmit at least 80% of radiations within the range from 400 nm to 2'500 nm when said radiations hit said film at normal incidence, - reject at least 70%, preferably at least 80% of radiations at normal incidence within the range from 3'000 nm to 35'000 nm. - transmit at least 80% of radiations within the range from 400 nm to 2'500 nm when said radiations hit said film at normal incidence, - reject at least 70%, preferably at least 80% of radiations at normal incidence within the range from 3'000 nm to 35'000 nm.
A method for manufacturing a lithium secondary battery positive active material having a concentration gradient layer, the method comprising: inputting a chelating agent solution into a reactor; inputting a core forming solution which includes a mole ratio of Ni:Co:Mn = a:b:1 - (a+b) (0.7≤a≤1.0, 0≤b≤0.2), a chelating agent solution, and an alkaline solution into the reactor at the same time and obtaining a spherical precipitate forming a core layer; inputting a barrier layer forming solution which includes Ni and Mn, a chelating agent solution, and an alkaline solution into the reactor at the same time and obtaining a spherical precipitate forming a barrier layer; preparing a shell forming solution which includes a mole ratio of Ni:Co:Mn = a:b:1 - (a+b) (0.3≤a≤0.6, 0≤b≤0.4) and mixedly inputting a chelating agent solution, an alkaline solution, the core forming solution, and the shell forming solution into the reactor at the same time and obtaining a precipitate, which forms the concentration gradient layer where concentration of nickel-manganese-cobalt varies gradually and relatively, on a surface of the barrier layer; drying the precipitate; and thermally treating the dried precipitate, wherein: the barrier layer is between the core layer and the concentration gradient layer; the barrier layer forming solution includes Ni and Mn in a mole ratio of 30:70 to 70:30; and the barrier layer forming solution does not comprise Co. inputting a chelating agent solution into a reactor; inputting a core forming solution which includes a mole ratio of Ni:Co:Mn = a:b:1 - (a+b) (0.7≤a≤1.0, 0≤b≤0.2), a chelating agent solution, and an alkaline solution into the reactor at the same time and obtaining a spherical precipitate forming a core layer; inputting a barrier layer forming solution which includes Ni and Mn, a chelating agent solution, and an alkaline solution into the reactor at the same time and obtaining a spherical precipitate forming a barrier layer; preparing a shell forming solution which includes a mole ratio of Ni:Co:Mn = a:b:1 - (a+b) (0.3≤a≤0.6, 0≤b≤0.4) and mixedly inputting a chelating agent solution, an alkaline solution, the core forming solution, and the shell forming solution into the reactor at the same time and obtaining a precipitate, which forms the concentration gradient layer where concentration of nickel-manganese-cobalt varies gradually and relatively, on a surface of the barrier layer; drying the precipitate; and thermally treating the dried precipitate, wherein: the barrier layer is between the core layer and the concentration gradient layer; the barrier layer forming solution includes Ni and Mn in a mole ratio of 30:70 to 70:30; and the barrier layer forming solution does not comprise Co. the barrier layer is between the core layer and the concentration gradient layer; the barrier layer forming solution includes Ni and Mn in a mole ratio of 30:70 to 70:30; and the barrier layer forming solution does not comprise Co.
An antibody or fragment thereof that specifically binds to a HER3 receptor, such that the antibody or fragment thereof binds to a conformational epitope comprising amino acid residues within domain 2 and domain 4 of the HER3 receptor and blocks both ligand-dependent and ligand-independent signal transduction for use in the treatment of benign prostate hyperplasia.
A razor comprising a razor base and a blade unit comprising at least one razor blade, wherein the razor base comprises a head portion , wherein the head portion comprises a forward surface and a rear surface opposite to the forward surface ; and at least one rear extension comprising a central rear extension extending away from the rear surface ; wherein the rear surface and the at least one rear extension together define finger end receiving sections each configured to receive a finger end section of a user; and wherein the central rear extension is curved around a curvature axis generally parallel to an axis of the finger end receiving sections and wherein the curvature tapers along the curvature axis; and wherein the at least one razor blade is distanced from the rear surface by 3 to 12 mm.