mhurhangee/patent-ind-claim-en huggingface dataset:
A work machine control device comprising: a measurement-data acquisition unit configured to acquire measurement data of a measurement device configured to measure a work target, the measurement device being mounted on a work machine including a working equipment ; an algorithm selection unit configured to select a specific algorithm that processes the measurement data depending on work of the work machine ; and a calculation unit configured to process the measurement data based on the algorithm selected by the algorithm selection unit to calculate a parameter regarding the work target, wherein the algorithm selection unit is configured select the specific algorithm that processes the measurement data according to the work target, and the work target includes an excavation target (DS) and a loading target (BE), the algorithm selection unit is configured to select a first algorithm when the work target is the excavation target (DS) and select a second algorithm when the work target is the loading target (BE), and the calculation unit is configured to calculate a distance to the excavation target (DS) based on the first algorithm and calculate a distance to the loading target (BE) based on the second algorithm. a measurement-data acquisition unit configured to acquire measurement data of a measurement device configured to measure a work target, the measurement device being mounted on a work machine including a working equipment ; an algorithm selection unit configured to select a specific algorithm that processes the measurement data depending on work of the work machine ; and a calculation unit configured to process the measurement data based on the algorithm selected by the algorithm selection unit to calculate a parameter regarding the work target, wherein the algorithm selection unit is configured select the specific algorithm that processes the measurement data according to the work target, and the work target includes an excavation target (DS) and a loading target (BE), the algorithm selection unit is configured to select a first algorithm when the work target is the excavation target (DS) and select a second algorithm when the work target is the loading target (BE), and the calculation unit is configured to calculate a distance to the excavation target (DS) based on the first algorithm and calculate a distance to the loading target (BE) based on the second algorithm.
A pharmaceutical composition for use in treating a bacterial infection in a subject, wherein the pharmaceutical composition comprises: (a) a pharmaceutically-acceptable carrier, and (b) a compound of Formula (I): wherein each stereocenter (indicated with an "*") can be either the R or S configuration, or an enantiomer, diastereomer, tautomer, or pharmaceutically acceptable salt thereof; or a compound of Formula (II): or a tautomer, or pharmaceutically acceptable salt thereof; or a compound of Formula (III): wherein each R 1 - R 6 is independently selected from hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, aryl, C(=O)R a and S(=O) 2 R b ; each R a is independently hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, or aryl; and each R b is independently alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, or aryl, or a tautomer or pharmaceutically acceptable salt thereof; or a compound of Formula (IV): wherein X is NH, O or S, or a tautomer or pharmaceutically acceptable salt thereof. (a) a pharmaceutically-acceptable carrier, and (b) a compound of Formula (I): wherein each stereocenter (indicated with an "*") can be either the R or S configuration, or an enantiomer, diastereomer, tautomer, or pharmaceutically acceptable salt thereof; or a compound of Formula (II): or a tautomer, or pharmaceutically acceptable salt thereof; or a compound of Formula (III): wherein each R 1 - R 6 is independently selected from hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, aryl, C(=O)R a and S(=O) 2 R b ; each R a is independently hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, or aryl; and each R b is independently alkyl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, or aryl, or a tautomer or pharmaceutically acceptable salt thereof; or a compound of Formula (IV): wherein X is NH, O or S, or a tautomer or pharmaceutically acceptable salt thereof.
A bi- targeted TRAIL mutant protein corresponding to SEQ ID NO: 2, wherein site 2 to site 10 at the N-terminus of the mutant protein is characterized by the cell-penetrating peptide sequence RRRRR and binding sequence AVPI of apoptosis inhibitor XIAP.
Layer structure for application to a surface of a subject, in particular for use in medical products, the layer structure forming a multiple electrode patch structure comprising a support layer ; a backing layer that is removably attached to the support layer ; a plurality of electrodes ; a plurality of local reservoirs each provided at a predetermined position between the backing layer and the support layer in an area of one of the plurality of electrodes ; and a fluidic substance and a solid substance being arranged inside each of the plurality of local reservoirs and being in contact with one another, and wherein the fluidic substance is configured to continuously condition the solid substance . a support layer ; a backing layer that is removably attached to the support layer ; a plurality of electrodes ; a plurality of local reservoirs each provided at a predetermined position between the backing layer and the support layer in an area of one of the plurality of electrodes ; and a fluidic substance and a solid substance being arranged inside each of the plurality of local reservoirs and being in contact with one another, and wherein the fluidic substance is configured to continuously condition the solid substance .
A method of uplink power control, which is applied to a terminal device, comprising: determining a number N of closed-loop power control processes associated with an uplink signal based on configuration of a high-layer signaling; determining a number of bits of a Transmission Power Control TPC command field of the terminal device in Downlink Control Information DCI based on the number N of the closed-loop power control processes associated with the uplink signal; wherein the number of bits of the TPC command field in the DCI is 2 ∗ N bits or 2+log2(N) bits, wherein N is a positive integer; and determining a closed-loop power adjustment factor of at least one closed-loop power control process associated with the uplink signal based on a TPC command in the TPC command field. determining a number N of closed-loop power control processes associated with an uplink signal based on configuration of a high-layer signaling; determining a number of bits of a Transmission Power Control TPC command field of the terminal device in Downlink Control Information DCI based on the number N of the closed-loop power control processes associated with the uplink signal; wherein the number of bits of the TPC command field in the DCI is 2 ∗ N bits or 2+log2(N) bits, wherein N is a positive integer; and determining a closed-loop power adjustment factor of at least one closed-loop power control process associated with the uplink signal based on a TPC command in the TPC command field.
A prosthetic device for replacing a damaged meniscus of a knee joint, the prosthetic device comprising: a central portion having an upper surface for engagement with a portion of a femur and an opposing lower surface for engagement with a portion of a tibia; an outer portion surrounding the central portion and having an increased thickness relative to the central portion , the outer portion comprising a first section having a generally semi-ellipsoidal profile similar to that of a natural meniscus and a second section extending between first and second ends of the first section , the second section sized and shaped to engage a femur notch to secure the prosthetic device within the knee joint without penetrating bone, characterized in that the central portion is formed of a resilient polyurethane and the outer portion is formed of the resilient polyurethane embedded with reinforcing fibers such that the outer portion has an increased radial stiffness relative to the central portion . a central portion having an upper surface for engagement with a portion of a femur and an opposing lower surface for engagement with a portion of a tibia; an outer portion surrounding the central portion and having an increased thickness relative to the central portion , the outer portion comprising a first section having a generally semi-ellipsoidal profile similar to that of a natural meniscus and a second section extending between first and second ends of the first section , the second section sized and shaped to engage a femur notch to secure the prosthetic device within the knee joint without penetrating bone, characterized in that the central portion is formed of a resilient polyurethane and the outer portion is formed of the resilient polyurethane embedded with reinforcing fibers such that the outer portion has an increased radial stiffness relative to the central portion .
A method for controlling an aiming cursor on a screen by means of a game actuating device equipped with at least one steering control element arranged to occupy a rest position (X 0 , Y 0 ) when it is not actuated and move at least along an axis (X, Y), and having a static dead zone (ZMS), in which the displacements of the steering control element are not taken into consideration, defined by a predetermined displacement of the steering control element along said at least one axis on either side of the rest position, the method comprising the step of: - detecting a position (X J , Y J ) of the steering control element along said at least one axis; and further comprising the following steps: - calculating at least one derivative (V J ) of order of at least one with respect to time of the position of the steering control element according to a history of the detected positions; - when the detected position is located outside the static dead zone, defining an offset dynamic dead zone (ZMDD) on either side of the detected position called holding position; - activating the offset dynamic dead zone according to said at least one calculated derivative. - detecting a position (X J , Y J ) of the steering control element along said at least one axis; - calculating at least one derivative (V J ) of order of at least one with respect to time of the position of the steering control element according to a history of the detected positions; - when the detected position is located outside the static dead zone, defining an offset dynamic dead zone (ZMDD) on either side of the detected position called holding position; - activating the offset dynamic dead zone according to said at least one calculated derivative.
Stem for a bicycle, having a handlebar coupling section and a steerer tube coupling section provided spaced apart from the former, wherein the steerer tube coupling section has a steerer tube support section and a steerer tube holder which is received rotatably in the steerer tube support section , wherein the stem furthermore has a locking mechanism for locking a rotational movability of the steerer tube holder in at least one direction of rotation, wherein the locking mechanism is configured to lock the rotational movability of the steerer tube holder by means of a positively locking engagement with a holder section of the steerer tube holder located in the axial direction within the steerer tube support section .
Fracturing fluid comprising at least one aqueous phase, a proppant and at least one water-soluble polymer of 2-acrylamido-2-methylpropanesulphonic acid, 2-acrylamido-2-methylpropanesulfonic acid being, before polymerization, a crystalline form of the sodium salt of 2-acrylamido-2-methylpropanesulfonic acid having a powder X-ray diffraction pattern comprising peaks at 11.7°; 12.2°; 13.2°; 13.5°; 15.6°; 16.8°; 17.8°; 18.5°; 19.1°; 20.6°; 21.4°; 23.3°; 25.1°; 25.8°; 26.9°; 29.1°; 29.5°; 31.0°; 33.0°; 33.6°; 34.4°; 35.2°; 35.9°; 37.1°; 38.4°; 39.6°; 41.1°; 42.9°; 45.1°; 46.0°; 47.2°; 47.6° degrees 2-theta.
Device for collecting split wood, having a plurality of bar elements which each have a first and a second longitudinal portion (L1, L2), wherein the second longitudinal portion (L2) extends in a curved manner and the first longitudinal portion (L1) extends in a linear manner, a plurality of connecting elements which connect the bar elements movably to one another, wherein the connecting elements cooperate with the second longitudinal portions (L2), and a clamping element which cooperates with the first longitudinal portions and is designed to firmly clamp the bar elements to a chopping block by their first longitudinal portions, characterized in that the bar elements are formed in an S shape. a plurality of bar elements which each have a first and a second longitudinal portion (L1, L2), wherein the second longitudinal portion (L2) extends in a curved manner and the first longitudinal portion (L1) extends in a linear manner, a plurality of connecting elements which connect the bar elements movably to one another, wherein the connecting elements cooperate with the second longitudinal portions (L2), and a clamping element which cooperates with the first longitudinal portions and is designed to firmly clamp the bar elements to a chopping block by their first longitudinal portions, characterized in that the bar elements are formed in an S shape.
Method for conveying a material to be conveyed, for example wood chips, into an overpressure area or out of an overpressure area , the conveyed material being fed to the overpressure area through a plug screw feeder according to one of claims 6 to 8 and/or discharged from the overpressure area through the plug screw feeder , the plug screw feeder receiving the conveyed material in the inlet area , the screw that rotates round the axis of rotation inside the housing conveying the conveyed material to the discharge area , where the conveyed material is compressed between the plug pipe and the screw to form a gas-tight and liquid-tight plug, and the plug is fed to the overpressure area in order to convey the conveyed material into the overpressure area and/or the conveyed material compressed to form the plug is discharged from the overpressure area in order to convey the conveyed material out of the overpressure area , the plug forming a seal between the overpressure area and the plug screw feeder , characterised in that the tightness of the plug is controlled by relative positioning of the screw to the plug pipe , the screw being moved in axial direction along the axis of rotation inside the housing and the material conveyed being compressed between the inlet area and the discharge area between the housing and the screw at least partially comprising the flight , where the plug is formed in the discharge area between the plug pipe and the area of the screw with no flight.
Apparatus (10; 103, 104) for generating biofeedback, in particular during a relaxation exercise for lowering blood pressure, comprising: at least one interface for receiving a pulse wave signal (41; 61; 65), that represents a pressure pulse or volume pulse of a pulse wave in a blood circulation system as a function of time, and an ECG signal (42; 67), an evaluation device (11; 103) that is configured to determine, on the basis of the pulse wave signal (41; 61; 65; 68) and the ECG signal (42; 67), a pulse transit time , perform an evaluation of a pulse wave form of the pulse wave signal (41; 61; 65; 68), and generate the biofeedback depending on the pulse transit time and/or the evaluation of the pulse wave form, wherein the evaluation device (11; 103) is configured to determine, by evaluating the pulse wave form, whether there is a change in blood pressure caused by vagus enhancement or sympathetic attenuation, and an output interface (14, 30; 104) for providing the biofeedback (31; 81, 82; 126, 127, 128, 129). at least one interface for receiving a pulse wave signal (41; 61; 65), that represents a pressure pulse or volume pulse of a pulse wave in a blood circulation system as a function of time, and an ECG signal (42; 67), an evaluation device (11; 103) that is configured to determine, on the basis of the pulse wave signal (41; 61; 65; 68) and the ECG signal (42; 67), a pulse transit time , perform an evaluation of a pulse wave form of the pulse wave signal (41; 61; 65; 68), and generate the biofeedback depending on the pulse transit time and/or the evaluation of the pulse wave form, wherein the evaluation device (11; 103) is configured to determine, by evaluating the pulse wave form, whether there is a change in blood pressure caused by vagus enhancement or sympathetic attenuation, and an output interface (14, 30; 104) for providing the biofeedback (31; 81, 82; 126, 127, 128, 129).
A liquid crystal device comprising: two or more partition walls comprising a polymer network and a first liquid crystal compound dispersed in the polymer network; and a liquid crystal layer comprising a second liquid crystal compound and an anisotropic dye, both of which are present in a region formed between the two or more partition walls wherein the first liquid crystal compound is phase-separated from the polymer network, and the anisotropic dye is physically separated from the polymer network. two or more partition walls comprising a polymer network and a first liquid crystal compound dispersed in the polymer network; and a liquid crystal layer comprising a second liquid crystal compound and an anisotropic dye, both of which are present in a region formed between the two or more partition walls wherein the first liquid crystal compound is phase-separated from the polymer network, and the anisotropic dye is physically separated from the polymer network.
Multistation textile machine, which comprises one or more double spindle units , wherein the double spindle unit has a frame, which bears working and transport elements, including a package removal device , the rear sides of the two workstations (1', 1") of the double spindle unit , which each have a winding device , face one another, and the multistation textile machine comprises feet , characterised in that the double spindle unit has a centrally arranged support , the support has a crossmember , which extends from one workstation to the other workstation of the double spindle unit and which is supported on the underlying surface by means of the feet , which are adjustable feet , the support also has a centrally arranged hollow profiled element , which extends vertically from the crossmember , and the hollow profiled element is designed at least for holding the package removal device and fastening the winding devices .
A computer-implemented method for detecting graphical elements in a user interface, UI, comprising: receiving, by a designer application, a selection of an activity in a robotic process automation, RPA, workflow to be configured to perform graphical element detection using a unified target technique ; receiving, by the designer application, modifications to the unified target technique for the activity ; and configuring the activity based on the modifications, by the designer application , wherein the unified target technique is configured to employ a plurality of graphical element detection techniques, which are series of execution unified target techniques or parallel execution unified target techniques or a combination of an initial execution target technique and delayed parallel execution unified target techniques; for the series execution, each series graphical element detection technique is executed individually one at a time in an order, and for parallel execution, each parallel graphical element detection technique is executed at the same time, and for the combination of the initial execution target technique and delayed parallel execution unified target techniques, a delay is received, by the design application, to specify for how long to wait to execute the parallel techniques after execution of the initial execution target technique. receiving, by a designer application, a selection of an activity in a robotic process automation, RPA, workflow to be configured to perform graphical element detection using a unified target technique ; receiving, by the designer application, modifications to the unified target technique for the activity ; and configuring the activity based on the modifications, by the designer application , wherein the unified target technique is configured to employ a plurality of graphical element detection techniques, which are series of execution unified target techniques or parallel execution unified target techniques or a combination of an initial execution target technique and delayed parallel execution unified target techniques; for the series execution, each series graphical element detection technique is executed individually one at a time in an order, and for parallel execution, each parallel graphical element detection technique is executed at the same time, and for the combination of the initial execution target technique and delayed parallel execution unified target techniques, a delay is received, by the design application, to specify for how long to wait to execute the parallel techniques after execution of the initial execution target technique.
A polytetrafluoroethylene (PTFE) powder which - comprises PTFE containing a tetrafluoroethylene (TFE) unit alone or together with a unit based on a modifying monomer copolymerizable with TFE, and - has a specific surface area of ≥ 32 m 2 /g, measured by BET analysis of an adsorption isotherm obtained by nitrogen gas adsorption at liquid nitrogen temperature, using a sample pretreated by vacuum-deaeration at 100°C for 10 h. - comprises PTFE containing a tetrafluoroethylene (TFE) unit alone or together with a unit based on a modifying monomer copolymerizable with TFE, and - has a specific surface area of ≥ 32 m 2 /g, measured by BET analysis of an adsorption isotherm obtained by nitrogen gas adsorption at liquid nitrogen temperature, using a sample pretreated by vacuum-deaeration at 100°C for 10 h.