mhurhangee/ep-ind-claims huggingface dataset:
A surround view system for a host vehicle, comprising: a front camera; a left side camera; a right side camera; a rear camera; a display; a positioning sensor; an image processing device operatively connected to the cameras (226, 224, 228, 222) and to the display; and a map database including information about one or more of a road type, parking lot lane markings, curbs, traffic signs, traffic lights, pot holes, and speed bumps, wherein the image processing device is configured to generate a view having a viewing direction from a virtual camera position, the viewing direction and the virtual camera position being selected from a plurality of virtual camera positions and viewing directions, wherein an image from a default view is displayed to a driver of the host vehicle, wherein a viewing direction and a virtual camera position of the default view are selected by the image processing device in response to an output of the positioning sensor, and wherein the default view is selected in response to an output of the positioning sensor and information stored in the map database. a front camera; a left side camera; a right side camera; a rear camera; a display; a positioning sensor; an image processing device operatively connected to the cameras (226, 224, 228, 222) and to the display; and a map database including information about one or more of a road type, parking lot lane markings, curbs, traffic signs, traffic lights, pot holes, and speed bumps, wherein the image processing device is configured to generate a view having a viewing direction from a virtual camera position, the viewing direction and the virtual camera position being selected from a plurality of virtual camera positions and viewing directions, wherein an image from a default view is displayed to a driver of the host vehicle, wherein a viewing direction and a virtual camera position of the default view are selected by the image processing device in response to an output of the positioning sensor, and wherein the default view is selected in response to an output of the positioning sensor and information stored in the map database.
A robot (200; 1200) comprising: a base (210; 1210); a trunk (220; 1220) provided at the base (210; 1210); a first robot arm (230; 1230) provided at the trunk (220; 1220); and a moving mechanism (800; 1800) capable of bringing the trunk (220; 1220) to a first position and a second position further separated from the base (210; 1210) than the first position, characterized in that the trunk (220; 1220) is rotatable around a rotational axis with respect to the base (210; 1210); and the robot (200; 1200) is configured such that a second time period for moving a tip of the first robot arm (230; 1230) by a predetermined distance when the trunk (220; 1220) is at the second position is made longer than a first time period for moving the tip of the first robot arm (230; 1230) by the predetermined distance when the trunk (220; 1220) is at the first position. a base (210; 1210); a trunk (220; 1220) provided at the base (210; 1210); a first robot arm (230; 1230) provided at the trunk (220; 1220); and a moving mechanism (800; 1800) capable of bringing the trunk (220; 1220) to a first position and a second position further separated from the base (210; 1210) than the first position,
A compound of formula or an N -oxide thereof, or a pharmaceutically acceptable salt or solvate thereof: wherein U represents -CF 3, -CHF 2 or -CH 2 F; Q represents oxygen, sulfur, N-R 4 or a covalent bond; Z represents an optionally substituted bicyclic heteroaryl moiety consisting of two fused six-membered aromatic rings, the heteroaryl moiety Z containing at least one nitrogen atom and being linked to the remainder of the molecule through a carbon atom; M represents aryl or heteroaryl, either of which groups may be optionally substituted by one or more substituents; W represents C-R 5 or N; R 1, R 2 and R 3 independently represent hydrogen, halogen, cyano, nitro, C 1-6 alkyl, trifluoromethyl, C 3-7 cycloalkyl(C 1-6)alkyl, C 3-7 heterocycloalkyl(C 1-6)alkyl, aryl(C 1-6)-alkyl, heteroaryl(C 1-6)alkyl, hydroxy, C 1-6 alkoxy, difluoromethoxy, trifluoromethoxy, C 1-6 alkylthio, C 1-6 alkylsulfinyl, C 1-6 alkylsulfonyl, amino, C 1-6 alkylamino, di(C 1-6)alkylamino, C 2-6 alkylcarbonylamino, C 2-6 alkoxycarbonylamino, C 1-6 alkylsulfonylamino, formyl, C 2-6 alkylcarbonyl, carboxy, C 2-6 alkoxycarbonyl, aminocarbonyl, C 1-6 alkylaminocarbonyl, di(C 1-6)alkylaminocarbonyl, aminosulfonyl, C 1-6 alkylaminosulfonyl or di(C 1-6)alkylaminosulfonyl; R 4 represents hydrogen or C 1-6 alkyl; and R 5 represents hydrogen, halogen, C 1-6 alkyl or C 1-6 alkoxy.
An X-ray imaging apparatus comprising: an X-ray generator configured to generate and radiate X-rays to an object an X-ray detector configured to detect the X-rays which have passed through the object and acquire an image signal of the object; wherein the X-ray detector is configured to acquire a plurality of image signals according to a plurality of individual energy bands; a memory to store the plurality of image signals; and a controller configured to evaluate a characteristic of the object based on one of the image signals and to generate a single energy X-ray image based on one of the image signals stored in the memory and a multiple energy X-ray image based on the plurality of image signals stored in the memory, wherein the image signal on which the single energy image is based is determined based on the evaluation result of the characteristics of the object; wherein the X-ray imaging apparatus further comprises a display and both the multiple energy X-ray image and the single X-ray image are produced and displayed on said display; and wherein the X-ray generator is configured to radiate the X-rays having an energy band set according to a type or the characteristic of the object. an X-ray generator configured to generate and radiate X-rays to an object an X-ray detector configured to detect the X-rays which have passed through the object and acquire an image signal of the object; wherein the X-ray detector is configured to acquire a plurality of image signals according to a plurality of individual energy bands; a memory to store the plurality of image signals; and a controller configured to evaluate a characteristic of the object based on one of the image signals and to generate a single energy X-ray image based on one of the image signals stored in the memory and a multiple energy X-ray image based on the plurality of image signals stored in the memory, wherein the image signal on which the single energy image is based is determined based on the evaluation result of the characteristics of the object; wherein the X-ray imaging apparatus further comprises a display and both the multiple energy X-ray image and the single X-ray image are produced and displayed on said display; and wherein the X-ray generator is configured to radiate the X-rays having an energy band set according to a type or the characteristic of the object.
Rear spoiler of a motor vehicle, said spoiler being characterised in that it comprises: - A first part which is intended for being attached to the rear of said vehicle in an attachment position by means of first attachment means, - A second part which is intended for being removably attached to said first part in an attachment position by second attachment means, said second part leaving a portion of the upper surface of said first part visible in said attachment position. - A first part which is intended for being attached to the rear of said vehicle in an attachment position by means of first attachment means, - A second part which is intended for being removably attached to said first part in an attachment position by second attachment means, said second part leaving a portion of the upper surface of said first part visible in said attachment position.
A method of controlling operation of one or more wind turbines, the method comprising receiving a parameter (a) value which is based on at least one sensor signal, determining a difference (Δa) between the received parameter value and a predetermined value (a r), comparing the difference with a threshold value (Δa T), and if the difference is below the threshold value, operating the one or more wind turbines in a first mode of operation, if the difference is not below the threshold value, incrementing an alert counter, comparing the alert counter with an alert threshold value, operating the one or more wind turbines in a second mode of operation if the alert counter is smaller than the alert threshold value or if the alert counter exceeds the second threshold value and the difference is decreasing, triggering an alarm if the alert counter exceeds the alert threshold value and the difference is not decreasing, wherein the first mode of operation is a normal mode of operation and the second mode of operation is a modified mode of operation, and characterized in that the modified mode of operation is selected from a first modified mode of operation and a second modified mode of operation in dependency of the difference. receiving a parameter (a) value which is based on at least one sensor signal, determining a difference (Δa) between the received parameter value and a predetermined value (a r), comparing the difference with a threshold value (Δa T), and if the difference is below the threshold value, operating the one or more wind turbines in a first mode of operation, if the difference is not below the threshold value, incrementing an alert counter, comparing the alert counter with an alert threshold value, operating the one or more wind turbines in a second mode of operation if the alert counter is smaller than the alert threshold value or if the alert counter exceeds the second threshold value and the difference is decreasing, triggering an alarm if the alert counter exceeds the alert threshold value and the difference is not decreasing, incrementing an alert counter, comparing the alert counter with an alert threshold value, operating the one or more wind turbines in a second mode of operation if the alert counter is smaller than the alert threshold value or if the alert counter exceeds the second threshold value and the difference is decreasing, triggering an alarm if the alert counter exceeds the alert threshold value and the difference is not decreasing, wherein the first mode of operation is a normal mode of operation and the second mode of operation is a modified mode of operation, and characterized in that the modified mode of operation is selected from a first modified mode of operation and a second modified mode of operation in dependency of the difference.
A formulation comprising: a protein-based excipient obtained from a protein composition or a hydrolysate thereof which comprises proteins - as per monomer - of at least 50 amino acids in length; and a class II or a class IV active pharmaceutical ingredient according to the biopharmaceutics classification system; characterized therein that said protein-based excipient and said API form a completely homogenous and amorphous solid dispersion, which dispersion contains no traces of heterogeneity and no traces of crystallinity as verified by X-ray powder diffraction and/or differential scanning calorimetry; and, wherein the mass ratio (w/w) of API to excipient is between at least 5% API and at most 95% excipient (5/95) to at most 40% API and at least 60% excipient (40/60); wherein 100% is defined as the total mass of the API and excipient. a protein-based excipient obtained from a protein composition or a hydrolysate thereof which comprises proteins - as per monomer - of at least 50 amino acids in length; and a class II or a class IV active pharmaceutical ingredient according to the biopharmaceutics classification system; characterized therein that said protein-based excipient and said API form a completely homogenous and amorphous solid dispersion, which dispersion contains no traces of heterogeneity and no traces of crystallinity as verified by X-ray powder diffraction and/or differential scanning calorimetry; and, wherein the mass ratio (w/w) of API to excipient is between at least 5% API and at most 95% excipient (5/95) to at most 40% API and at least 60% excipient (40/60); wherein 100% is defined as the total mass of the API and excipient.
An automated apparatus for use in selectively cutting side walls of a honeycomb core, said apparatus comprising: an end effector; a cutting tool coupled to said end effector, wherein said end effector is configured to position said cutting tool in an initial cutting position based on a schematic geometry of the honeycomb core, wherein said cutting tool comprises: a guide portion sized for insertion into at least one core cell of the honeycomb core with a clearance fit; and a cutter slidably coupled with said guide portion, wherein said guide portion is configured to guide said cutter in a substantially normal direction relative to an outer surface of the honeycomb core; and a vision system configured to direct said end effector to modify the initial cutting position based on an actual geometry of the honeycomb core acquired by said vision system. an end effector; a cutting tool coupled to said end effector, wherein said end effector is configured to position said cutting tool in an initial cutting position based on a schematic geometry of the honeycomb core, wherein said cutting tool comprises: a guide portion sized for insertion into at least one core cell of the honeycomb core with a clearance fit; and a cutter slidably coupled with said guide portion, wherein said guide portion is configured to guide said cutter in a substantially normal direction relative to an outer surface of the honeycomb core; and a guide portion sized for insertion into at least one core cell of the honeycomb core with a clearance fit; and a cutter slidably coupled with said guide portion, wherein said guide portion is configured to guide said cutter in a substantially normal direction relative to an outer surface of the honeycomb core; and a vision system configured to direct said end effector to modify the initial cutting position based on an actual geometry of the honeycomb core acquired by said vision system.
A water barrier, in particular a dike (10, 20, 30, 40), comprising an inner slope, a crown and an outer slope, wherein the outer slope is located on the waterside, characterized in that the natural vegetation of at least one of the elements of inner slope, crown and outer slope is provided with fibres inserted into said vegetation.
An apparatus for encoding a speech signal by determining a codebook vector of a speech coding algorithm, wherein the apparatus comprises: a matrix determiner for determining an autocorrelation matrix R, and a codebook vector determiner for determining the codebook vector depending on the autocorrelation matrix R, wherein the matrix determiner is configured to determine the autocorrelation matrix R by determining vector coefficients of a vector r, wherein the autocorrelation matrix R comprises a plurality of rows and a plurality of columns, wherein the vector r indicates one of the columns or one of the rows of the autocorrelation matrix R, wherein R i, j = r | i − j |, wherein R ( i, j) indicates the coefficients of the autocorrelation matrix R, wherein i is a first index indicating one of a plurality of rows of the autocorrelation matrix R, and wherein j is a second index indicating one of the plurality of columns of the autocorrelation matrix R, wherein the codebook vector determiner is configured to determine the codebook vector by applying the formula f ê = d T ê 2 ê T R ê wherein R is the autocorrelation matrix, and wherein ê is one of the codebook vectors of the speech coding algorithm, wherein f ( ê) is a normalized correlation, and wherein d T is defined according to e T R ê 2 ê T R ê = d T e 2 ê T R ê, wherein e is an original, unquantized residual signal. a matrix determiner for determining an autocorrelation matrix R, and a codebook vector determiner for determining the codebook vector depending on the autocorrelation matrix R, wherein the matrix determiner is configured to determine the autocorrelation matrix R by determining vector coefficients of a vector r, wherein the autocorrelation matrix R comprises a plurality of rows and a plurality of columns, wherein the vector r indicates one of the columns or one of the rows of the autocorrelation matrix R, wherein R i, j = r | i − j |, wherein R ( i, j) indicates the coefficients of the autocorrelation matrix R, wherein i is a first index indicating one of a plurality of rows of the autocorrelation matrix R, and wherein j is a second index indicating one of the plurality of columns of the autocorrelation matrix R, wherein the codebook vector determiner is configured to determine the codebook vector by applying the formula f ê = d T ê 2 ê T R ê wherein R is the autocorrelation matrix, and wherein ê is one of the codebook vectors of the speech coding algorithm, wherein f ( ê) is a normalized correlation, and wherein d T is defined according to e T R ê 2 ê T R ê = d T e 2 ê T R ê, wherein e is an original, unquantized residual signal.
A capping device configured to form a space surrounding an opening of a nozzle by coming into contact with a liquid ejecting head having the nozzle for ejecting a liquid, the capping device comprising: a cap including a recess that forms the space, a humidifying chamber that has an inlet through which a humidifying fluid for humidifying the space flows in and an outlet through which the humidifying fluid flows out, and a partition wall, having gas permeability but which restricts the passing-through of liquid, that partitions the recess and the humidifying chamber, wherein the recess has a hole for discharging the liquid discharged from the liquid ejecting head, characterised in that: the hole is provided at a position lower than the partition wall in the recess. a cap including a recess that forms the space, a humidifying chamber that has an inlet through which a humidifying fluid for humidifying the space flows in and an outlet through which the humidifying fluid flows out, and a partition wall, having gas permeability but which restricts the passing-through of liquid, that partitions the recess and the humidifying chamber, wherein a recess that forms the space, a humidifying chamber that has an inlet through which a humidifying fluid for humidifying the space flows in and an outlet through which the humidifying fluid flows out, and a partition wall, having gas permeability but which restricts the passing-through of liquid, that partitions the recess and the humidifying chamber, wherein the recess has a hole for discharging the liquid discharged from the liquid ejecting head, characterised in that: the hole is provided at a position lower than the partition wall in the recess.
A connector assembly suitable for voltage monitoring of bus bars electrically connecting adjacent battery cells of a battery module, the connector assembly comprising: a connector having a plurality of terminals configured to be mated with a control module connector associated with the battery module; a multi-wire planar cable extending from the connector, the multi-wire planar cable having a plurality of wires terminated to corresponding terminals of the connector and a common jacket for the plurality of wires, the jacket having grooves between adjacent wires for controlled separation of the wires and surrounding jacket portions at a sensor end of the multi-wire planar cable to define separated planar cable segments, the separated planar cable segments configured to be routed to different areas for termination to different voltage sensors associated with corresponding bus bars, wherein the wires include punch-out portions and dead portions downstream of the terminating portions (184, 185), the punch-out portions defining a discontinuity along the wires such that the dead portions are no longer electrically connected to the corresponding terminating portions, and wherein the grooves are provided in only a top surface or only a bottom surface of the multi-wire planar cable. a connector having a plurality of terminals configured to be mated with a control module connector associated with the battery module; a multi-wire planar cable extending from the connector, the multi-wire planar cable having a plurality of wires terminated to corresponding terminals of the connector and a common jacket for the plurality of wires, the jacket having grooves between adjacent wires for controlled separation of the wires and surrounding jacket portions at a sensor end of the multi-wire planar cable to define separated planar cable segments, the separated planar cable segments configured to be routed to different areas for termination to different voltage sensors associated with corresponding bus bars, wherein the wires include punch-out portions and dead portions downstream of the terminating portions (184, 185), the punch-out portions defining a discontinuity along the wires such that the dead portions are no longer electrically connected to the corresponding terminating portions, and wherein the grooves are provided in only a top surface or only a bottom surface of the multi-wire planar cable.
A method for authenticating a portable data carrier to a terminal device while employing a public key and a secret key of the data carrier as well as a public session key and a secret session key of the terminal device, wherein the data carrier employs as a public key a public group key, and employs as a secret key a secret key derived from a secret group key associated with the public group key, characterized in that the public group key is determined by means of exponentiation of a specified primitive root (g) with the secret group key, the secret key is formed by means of multiplication of the secret group key by a first random number, and a first base value is formed by means of an exponentiation of the primitive root (g) with the reciprocal of the first random number, wherein the first base of the terminal device is made available by the data carrier, wherein the public session key of the terminal device is determined by means of exponentiation of the first base made available by the data carrier, with the secret session key of the terminal device.