mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling the display of information on a display surface, wherein the information is hierarchically structured in objects, in which - an object and - a path which leads to the object in the hierarchical structure are displayed, wherein the path is divided into individual path elements (8-1, 8-2, 8-3), wherein the path elements (8-1, 8-2, 8-3) belong to different hierarchical levels of the path leading to the object, characterized in that - the path elements (8-1, 8-2, 8-3) are selectable buttons, - when a path element (8-1, 8-2, 8-3) is selected, the display of information jumps into the hierarchical level of the selected path element (8-1, 8-2, 8-3), and - the individual path elements (8-1, 8-2, 8-3) are displayed beside one another on a bar. - an object and - a path which leads to the object in the hierarchical structure are displayed, wherein the path is divided into individual path elements (8-1, 8-2, 8-3), wherein the path elements (8-1, 8-2, 8-3) belong to different hierarchical levels of the path leading to the object, characterized in that - the path elements (8-1, 8-2, 8-3) are selectable buttons, - when a path element (8-1, 8-2, 8-3) is selected, the display of information jumps into the hierarchical level of the selected path element (8-1, 8-2, 8-3), and - the individual path elements (8-1, 8-2, 8-3) are displayed beside one another on a bar.
A polypeptide for use in suppressing secretion from a neuroendocrine tumour cell for treating acromegaly, said polypeptide comprising: a. a non-cytotoxic protease, which protease is capable of cleaving a protein of the exocytic fusion apparatus in a pituitary tumour cell, wherein said non-cytotoxic protease is a clostridial neurotoxin protease or an IgA protease; b. a Targeting Moiety that binds to a Binding Site on a pituitary tumour cell, which Binding Site is capable of undergoing endocytosis to be incorporated into an endosome within the pituitary tumour cell, wherein the TM comprises a growth hormone releasing hormone (GHRH) peptide; and c. a bacterial or viral translocation domain that translocates the protease from within the endosome, across the endosomal membrane and into the cytosol of said pituitary tumour cell; wherein the polypeptide lacks a functional H c domain of a clostridial neurotoxin. a. a non-cytotoxic protease, which protease is capable of cleaving a protein of the exocytic fusion apparatus in a pituitary tumour cell, wherein said non-cytotoxic protease is a clostridial neurotoxin protease or an IgA protease; b. a Targeting Moiety that binds to a Binding Site on a pituitary tumour cell, which Binding Site is capable of undergoing endocytosis to be incorporated into an endosome within the pituitary tumour cell, wherein the TM comprises a growth hormone releasing hormone (GHRH) peptide; and c. a bacterial or viral translocation domain that translocates the protease from within the endosome, across the endosomal membrane and into the cytosol of said pituitary tumour cell;
Method for locating an automated motor vehicle, comprising the steps of: - predefining a locating accuracy to be attained for the automated motor vehicle during operation, the automated motor vehicle requesting locating reference data for a defined location having the defined locating accuracy that is to be attained; - capturing surroundings data of the automated motor vehicle by means of a sensor device of the automated motor vehicle and combining the captured surroundings data with location information from a positioning device of the automated motor vehicle; - locating the automated motor vehicle by means of the locating reference data and the captured surroundings data, wherein an achieved locating accuracy is ascertained; characterized in that - the achieved locating accuracy is signalled to an external server device for the purpose of optimized transmission of the locating reference data; and - only such locating reference data as are required on the basis of the achieved locating accuracy in order to achieve the locating accuracy that is to be attained are transferred from the external server device to the automated motor vehicle. - predefining a locating accuracy to be attained for the automated motor vehicle during operation, the automated motor vehicle requesting locating reference data for a defined location having the defined locating accuracy that is to be attained; - capturing surroundings data of the automated motor vehicle by means of a sensor device of the automated motor vehicle and combining the captured surroundings data with location information from a positioning device of the automated motor vehicle; - locating the automated motor vehicle by means of the locating reference data and the captured surroundings data, wherein an achieved locating accuracy is ascertained; - the achieved locating accuracy is signalled to an external server device for the purpose of optimized transmission of the locating reference data; and - only such locating reference data as are required on the basis of the achieved locating accuracy in order to achieve the locating accuracy that is to be attained are transferred from the external server device to the automated motor vehicle.
Dispenser (5, 8,10), comprising at least one housing part, a cover part, a locking means with a housing and a housing insert, wherein the locking means comprises at least a first state and a second state, wherein at the least one first state and one second state of the locking means are transferable in a first direction into one another by means of a rotation of the housing insert, and the locking means comprises at least one fixing pin (230.1) and at least one return means (290.1), wherein the at least one return means (290.1) is formed flexibly, and wherein in the second state, the at least one return means (290.1) has at least partially a different orientation relative to the at least one fixing pin (230.1) compared to the first state, and in the second state, the at least one fixing pin (230.1) is in direct contact to the at least one return means (290.1).
A fabric sleeve (10; 110) for protecting elongate members against at least one of electromagnetic interference, radio frequency interference or electrostatic discharge, comprising: a wall (12; 112) extending along a longitudinal axis (14; 114) between opposite ends (16, 18; 116, 118), said wall being formed from a plurality of filaments (20, 22; 120, 122) interlaced with one another, characterised in that at least one of said filaments (20, 22; 120, 122) being provided as a continuous strand of conductive wire (20; 120) and at least one of said filaments being provided as a heat-fusible nonconductive filament (22; 122), said continuous strand of conductive wire being at least partially embedded in fixed attachment with said at least one heat-fusible nonconductive filament at bond joints (24; 124) formed of melted and solidified material of said at least one heat-fusible nonconductive filament. a wall (12; 112) extending along a longitudinal axis (14; 114) between opposite ends (16, 18; 116, 118), said wall being formed from a plurality of filaments (20, 22; 120, 122) interlaced with one another, characterised in that at least one of said filaments (20, 22; 120, 122) being provided as a continuous strand of conductive wire (20; 120) and at least one of said filaments being provided as a heat-fusible nonconductive filament (22; 122), said continuous strand of conductive wire being at least partially embedded in fixed attachment with said at least one heat-fusible nonconductive filament at bond joints (24; 124) formed of melted and solidified material of said at least one heat-fusible nonconductive filament.
A method for monitoring a battery by a battery management system, BMS, the battery comprising a plurality of cell groups, each cell group comprising one or more battery cells and a corresponding cell monitoring device, CMD, the method comprising: receiving, by the BMS (730, 1030, 1330) from a first CMD (400, 600, 720 1, 1020, 1320) of a first cell group in the plurality of cell groups (712 1, 712 2, 712 3, 712 4, 712 N), a fault indicator and fault data stored (1125, 1325) at the first CMD, wherein: the fault indicator indicates that the first CMD determined a fault at the first cell group based on one or more measurements of cell properties obtained at one or more cells in the first cell group by at least one sensor (411, 611) of the first CMD, the fault data relates to the determined fault and comprises a timestamp indicating when the first CMD determined the fault; and processing by the BMS the received fault indicator and fault data to determine an action responsive to the fault determined by the first CMD independently of whether the first CMD was connected to the BMS or in communication with BMS. receiving, by the BMS (730, 1030, 1330) from a first CMD (400, 600, 720 1, 1020, 1320) of a first cell group in the plurality of cell groups (712 1, 712 2, 712 3, 712 4, 712 N), a fault indicator and fault data stored (1125, 1325) at the first CMD, wherein: the fault indicator indicates that the first CMD determined a fault at the first cell group based on one or more measurements of cell properties obtained at one or more cells in the first cell group by at least one sensor (411, 611) of the first CMD, the fault data relates to the determined fault and comprises a timestamp indicating when the first CMD determined the fault; and the fault indicator indicates that the first CMD determined a fault at the first cell group based on one or more measurements of cell properties obtained at one or more cells in the first cell group by at least one sensor (411, 611) of the first CMD, the fault data relates to the determined fault and comprises a timestamp indicating when the first CMD determined the fault; and processing by the BMS the received fault indicator and fault data to determine an action responsive to the fault determined by the first CMD independently of whether the first CMD was connected to the BMS or in communication with BMS.
A method of detecting an environmental parameter to control image capture, the method comprising: obtaining eye information of a user of an electronic device using a first camera on the electronic device, characterized in that the eye information obtained by the first camera includes a sclera color; the method further comprises: detecting based on the sclera color an environmental parameter of an environment where the user is located based on the eye information obtained by the first camera, and which environmental parameter is a color temperature; detecting a reference environmental parameter of the environment by the second camera from a shot scene, and which reference environmental parameter is a color temperature; comparing the environmental parameter and the reference environmental parameter, if the difference is lower than a predefined threshold, defining a predefined condition satisfied; and responsive to the predefined condition being satisfied, controlling capture of an image by a second camera on the electronic device at least in part based on the detected environmental parameter, and responsive to the predefined condition being unsatisfied, disable the environmental parameter detection by the first camera during the image capture process of the second camera, the first camera and the second camera being located at different sides of the electronic device. detecting based on the sclera color an environmental parameter of an environment where the user is located based on the eye information obtained by the first camera, and which environmental parameter is a color temperature; detecting a reference environmental parameter of the environment by the second camera from a shot scene, and which reference environmental parameter is a color temperature; comparing the environmental parameter and the reference environmental parameter, if the difference is lower than a predefined threshold, defining a predefined condition satisfied; and responsive to the predefined condition being satisfied, controlling capture of an image by a second camera on the electronic device at least in part based on the detected environmental parameter, and responsive to the predefined condition being unsatisfied, disable the environmental parameter detection by the first camera during the image capture process of the second camera, the first camera and the second camera being located at different sides of the electronic device.
A focusing position detection method, comprising: a first step of acquiring M, where M is a natural number equal to or more three, object images by imaging an imaging object by an imager while changing a focal position in M stages along an optical axis; a second step of acquiring a saturation region exceeding a predetermined luminance from the M object images; a third step of acquiring a saturation consecutive region, the saturation region being included in all N, where N is a natural number equal to or more than three and equal to and less M, object images acquired while successively changing the focal position in N stages along the optical axis in the saturation consecutive region; a fourth step of obtaining a focusing degree indicating a degree of focusing from the object image for each object image; a fifth step of determining whether or not a local minimum value of the focusing degree is present when the focusing degrees obtained in the fourth step are arranged in an order of the focal positions; a sixth step of correcting N focusing degrees corresponding to the saturation consecutive region, out of M focusing degrees obtained in the fourth step, based on a property that the focusing degree decreases as the focal position approaches the focusing position in the saturation consecutive region when the presence of the local minimum value is determined in the fifth step; and a seventh step of specifying the focusing position based on N focusing degrees corrected by the sixth step and (M-N) focusing degrees not corrected by the sixth step. a first step of acquiring M, where M is a natural number equal to or more three, object images by imaging an imaging object by an imager while changing a focal position in M stages along an optical axis; a second step of acquiring a saturation region exceeding a predetermined luminance from the M object images; a third step of acquiring a saturation consecutive region, the saturation region being included in all N, where N is a natural number equal to or more than three and equal to and less M, object images acquired while successively changing the focal position in N stages along the optical axis in the saturation consecutive region; a fourth step of obtaining a focusing degree indicating a degree of focusing from the object image for each object image; a fifth step of determining whether or not a local minimum value of the focusing degree is present when the focusing degrees obtained in the fourth step are arranged in an order of the focal positions; a sixth step of correcting N focusing degrees corresponding to the saturation consecutive region, out of M focusing degrees obtained in the fourth step, based on a property that the focusing degree decreases as the focal position approaches the focusing position in the saturation consecutive region when the presence of the local minimum value is determined in the fifth step; and a seventh step of specifying the focusing position based on N focusing degrees corrected by the sixth step and (M-N) focusing degrees not corrected by the sixth step.
A rotor of a motor, comprising: a plurality of modules, each comprising: a pair of permanent magnets (410,411); a first core interposed between each pair of permanent magnets; a connection unit, made of a non-magnetic material or air, connecting ends of the permanent magnets; a core interposed between each adjacent pair of modules; and another core disposed on one side of the connection unit; wherein each of the plurality of modules extends in a radial direction of the rotor; wherein the plurality of modules are arranged circumferentially around the rotor; wherein, for each of the plurality of modules, the pair of permanent magnets (410, 411) are arranged to be angled with respect to the radial direction so that they each form the same, non-zero, angle with respect to the radial direction; and wherein one permanent magnet of said pair of permanent magnets (410, 411) of one module is parallel to one permanent magnet of said pair of permanent magnets of the adjacent module. a plurality of modules, each comprising: a pair of permanent magnets (410,411); a first core interposed between each pair of permanent magnets; a connection unit, made of a non-magnetic material or air, connecting ends of the permanent magnets; a pair of permanent magnets (410,411); a first core interposed between each pair of permanent magnets; a connection unit, made of a non-magnetic material or air, connecting ends of the permanent magnets; a core interposed between each adjacent pair of modules; and another core disposed on one side of the connection unit;
A computer-implemented method of manipulating image annotations, the method comprising: receiving an image of an individual's anatomy; performing automated image analysis, using a processor, to determine two or more annotations for anatomical features identified in the image of the individual's anatomy; determining a hierarchy between at least two of the two or more annotations for anatomical features identified in the image of the individual's anatomy, wherein a first annotation which, when modified, results in a corresponding change in a second annotation, is higher in the determined hierarchy than the second annotation; presenting the automatically-determined image annotations to a user in a preconfigured order corresponding to the determined hierarchy to prompt the user for validation of the image annotations in the order of the hierarchy, said presenting comprising: displaying the first annotation, receiving a modification of the first annotation, determining an update to the second annotation in response to the modification to the first annotation, displaying the second annotation subsequent to displaying the first annotation according to the order in the determined hierarchy; and generating an anatomical model based on the user's validation of image annotations for anatomical features of the individual's anatomy. receiving an image of an individual's anatomy; performing automated image analysis, using a processor, to determine two or more annotations for anatomical features identified in the image of the individual's anatomy; determining a hierarchy between at least two of the two or more annotations for anatomical features identified in the image of the individual's anatomy, wherein a first annotation which, when modified, results in a corresponding change in a second annotation, is higher in the determined hierarchy than the second annotation; presenting the automatically-determined image annotations to a user in a preconfigured order corresponding to the determined hierarchy to prompt the user for validation of the image annotations in the order of the hierarchy, said presenting comprising: displaying the first annotation, receiving a modification of the first annotation, determining an update to the second annotation in response to the modification to the first annotation, displaying the second annotation subsequent to displaying the first annotation according to the order in the determined hierarchy; and displaying the first annotation, receiving a modification of the first annotation, determining an update to the second annotation in response to the modification to the first annotation, displaying the second annotation subsequent to displaying the first annotation according to the order in the determined hierarchy; and generating an anatomical model based on the user's validation of image annotations for anatomical features of the individual's anatomy.
An automatic door operating device for a side door of a vehicle comprising: an input unit which is provided in a portion of a vehicle and to which a first instruction to automatically open a door of a vehicle is input by a user's touching; a door drive unit which automatically opens the door when the instruction is input by the input unit; and a control means for controlling the door drive unit so as to automatically open the door only while the user touches the input unit, characterized in that the control means also controls the door drive unit by a second instruction, which is input by the user, so as to open the door of the vehicle by a predetermined amount not for fully opening the door, and the predetermined amount is equal to or less than an amount of protrusion to the outside of the vehicle from the vehicle, of a door mirror provided in the vehicle. an input unit which is provided in a portion of a vehicle and to which a first instruction to automatically open a door of a vehicle is input by a user's touching; a door drive unit which automatically opens the door when the instruction is input by the input unit; and a control means for controlling the door drive unit so as to automatically open the door only while the user touches the input unit, characterized in that the control means also controls the door drive unit by a second instruction, which is input by the user, so as to open the door of the vehicle by a predetermined amount not for fully opening the door, and the predetermined amount is equal to or less than an amount of protrusion to the outside of the vehicle from the vehicle, of a door mirror provided in the vehicle.
A collimator unit comprising: a housing; an on-axis collimator tube (106a; 206a; 306a) fixedly attached to at least two off-axis collimator tubes (106b, 106c, 106d, 106e; 206b, 206c; 306b, 306c, 306d), and wherein the collimator tubes are positioned within the housing, wherein the off-axis collimator tubes are angled relative to the on-axis collimator tube; wherein each collimator tube comprises: a lens; a light source; and a target placed at the lens' focal point; wherein the collimator tubes are positioned within the housing such that the on-axis collimator tube is coaxial and centered with respect to the housing; wherein each collimator tube is removable from the housing and collimator tubes configured for different focal lengths or wavelengths can be installed; and wherein the angle between the at least two off-axis collimator tubes and the on-axis collimator tube is fixed with respect to the housing such that newly installed collimator tubes will return to the same angle positioning defined by the housing. a housing; an on-axis collimator tube (106a; 206a; 306a) fixedly attached to at least two off-axis collimator tubes (106b, 106c, 106d, 106e; 206b, 206c; 306b, 306c, 306d), and wherein the collimator tubes are positioned within the housing, wherein the off-axis collimator tubes are angled relative to the on-axis collimator tube; wherein each collimator tube comprises: a lens; a light source; and a target placed at the lens' focal point; a lens; a light source; and a target placed at the lens' focal point; wherein the collimator tubes are positioned within the housing such that the on-axis collimator tube is coaxial and centered with respect to the housing; wherein each collimator tube is removable from the housing and collimator tubes configured for different focal lengths or wavelengths can be installed; and wherein the angle between the at least two off-axis collimator tubes and the on-axis collimator tube is fixed with respect to the housing such that newly installed collimator tubes will return to the same angle positioning defined by the housing.
A magnetic micro-particle comprising one or more magnetic nano-wires; wherein the magnetic nano-wires are immobilised within the micro-particle; and characterised in that the micro-particle is substantially an ellipsoid with an eccentricity between 0.3 and 1.0. the magnetic nano-wires are immobilised within the micro-particle; and characterised in that the micro-particle is substantially an ellipsoid with an eccentricity between 0.3 and 1.0.