mhurhangee/ep-ind-claims huggingface dataset:
An optically variable security element for securing valuable articles that viewing-angle-dependently displays a motif having at least one curve depiction that, from a first viewing direction, is visible as a target curve in a center position within a depiction region and that, when the security element is tilted about two different predetermined axes, moves within the depiction region in different directions away from the center position, having - an areal motif region that is provided in the depiction region with a plurality of reflective, planar facets, - each planar facet being characterized by an inclination angle against the plane of the areal motif region, which inclination angle has, as inclination components, a parallel component (N ∥) parallel to the target curve in the center position, and a normal component (N ⊥) perpendicular to the target curve in the center position, and - for the planar facets in the depiction region, a first of the two inclination components being chosen dependent on the distance of the respective facet from the target curve, and a second of the two inclination components being chosen in a predetermined spreading range independently of the distance of the respective facet from the target curve. - an areal motif region that is provided in the depiction region with a plurality of reflective, planar facets, - each planar facet being characterized by an inclination angle against the plane of the areal motif region, which inclination angle has, as inclination components, a parallel component (N ∥) parallel to the target curve in the center position, and a normal component (N ⊥) perpendicular to the target curve in the center position, and - for the planar facets in the depiction region, a first of the two inclination components being chosen dependent on the distance of the respective facet from the target curve, and a second of the two inclination components being chosen in a predetermined spreading range independently of the distance of the respective facet from the target curve.
A method for manufacturing a micromechanical part (d) from a substrate in which the part is manufactured by forming a plurality of fasteners (a, b, c) between the part and the substrate, said fasteners being sacrificial and the method comprising a step for breaking the sacrificial fasteners, said fasteners comprising at least one hinge (2, 4, 7) at the end of each fastener situated on the side of the part, characterized in that one of the fasteners (a) includes at least one unlocking mechanism capable of occupying two states: a singular state that corresponds to a limited kinematic state of the part, and a second state in which the part has at least one additional degree of freedom relative to the singular state, the movement of the part according to that additional degree of freedom being able to cause the sacrificial fastener (a) including said unlocking mechanism to break.
The bilayer tablet comprising; a) a first layer containing a PDE 5 inhibitor or mixtures of PDE 5 inhibitors or their pharmaceutically acceptable salts thereof and a pharmaceutically acceptable carrier or carriers and b) a second layer containing dapoxetine or its pharmaceutically acceptable salt thereof and a pharmaceutically acceptable carrier or carriers wherein the first layer is an immediate release formulation and the second layer is a modified release formulation to provide dapoxetine in a release profile to have efficient dapoxetine blood level concentration for a longer period of time than without modification.
An impact sensory system for sensing impact on an object, the impact sensory system comprising: at least two sensors (104a, 104b) configured to couple to the object, wherein the at least two sensors (104a, 104b) receive an impact wave from an impact to the object and wherein the at least two sensors generate an impact signal in response to the sensed impact wave; a signal processor configured to couple to the at least two sensors (104a, 104b), the signal processor comprising at least one input configured to receive the impact signals from the at least two sensors; a preamplifier configured to amplify the received impact signals; an impact triangulator configured to identify a location of the impact from the impact signals; and a data outputter configured to output data regarding the location of the impact; characterised in that the signal processor further comprises a signal amplitude calibrator, which amplitude calibrator determines amplitude of an impact force by multiplying the impact signals by a corrective factor, the corrective factor being dependent upon the object properties along with the impact location data generated by the impact triangulator; and the data outputter is further configured to output the determined amplitude of an impact force. at least two sensors (104a, 104b) configured to couple to the object, wherein the at least two sensors (104a, 104b) receive an impact wave from an impact to the object and wherein the at least two sensors generate an impact signal in response to the sensed impact wave; a signal processor configured to couple to the at least two sensors (104a, 104b), the signal processor comprising at least one input configured to receive the impact signals from the at least two sensors; a preamplifier configured to amplify the received impact signals; an impact triangulator configured to identify a location of the impact from the impact signals; and a data outputter configured to output data regarding the location of the impact; characterised in that the signal processor further comprises a signal amplitude calibrator, which amplitude calibrator determines amplitude of an impact force by multiplying the impact signals by a corrective factor, the corrective factor being dependent upon the object properties along with the impact location data generated by the impact triangulator; and the data outputter is further configured to output the determined amplitude of an impact force.
Assembly including a heating apparatus such as an insert or stove and a front glass door, the heating apparatus comprising a body having a front opening and said glass door being mounted on said body, in front of said opening; the glass door is positioned outwards with respect to the front opening and forms an external projection projecting from the wall of the body of the apparatus; the glass door includes a frame and a facade glass, and is pivotally mounted on the body of the apparatus by one of its sides; characterized in that the facade glass is mounted on a chassis, the chassis being pivotable on said frame, by one of its lateral sides, the pivoting of the glass and the chassis being between a closing position, in which the chassis is in contact with the frame, and an opening position, in which the glass and the chassis form an angle of at least 90° with the plane in which the facade opening generally extends.
A computer-executable method, comprising: mapping content stored on a mobile device to a computing device serving as a backup custodian to the mobile device regardless of whether the backup custodian stores that content or not; receiving, at the computing device serving as a backup custodian to one or more mobile devices (106,108,110), a request for a piece of content from a requesting device; wherein the requesting device has mapped the content to the computing device based on the content's name only and not based on the computing device's physical address; determining whether the content is available on the computing device; in response to the content not being available on the computing device, identifying the mobile device that stores the content; obtaining the content from the identified mobile device; caching the content on the computing device, thereby enabling the computing device to provide the content in response to subsequent requests without connecting to the identified mobile device; and providing the content to the requesting device. mapping content stored on a mobile device to a computing device serving as a backup custodian to the mobile device regardless of whether the backup custodian stores that content or not; receiving, at the computing device serving as a backup custodian to one or more mobile devices (106,108,110), a request for a piece of content from a requesting device; wherein the requesting device has mapped the content to the computing device based on the content's name only and not based on the computing device's physical address; determining whether the content is available on the computing device; in response to the content not being available on the computing device, identifying the mobile device that stores the content; obtaining the content from the identified mobile device; caching the content on the computing device, thereby enabling the computing device to provide the content in response to subsequent requests without connecting to the identified mobile device; and providing the content to the requesting device.
A method of rendering virtual characters, the method comprising: - obtaining a set of parameters, the set of parameters comprising a current color and/or brightness of light emitted by a light source, - comparing the set of parameters with sets of parameters associated with virtual characters stored in a virtual object database, - determining if the set of parameters corresponds to a stored set of parameters, - selecting a virtual character associated with the stored set of parameters, and - rendering the virtual character on an image rendering device. - obtaining a set of parameters, the set of parameters comprising a current color and/or brightness of light emitted by a light source, - comparing the set of parameters with sets of parameters associated with virtual characters stored in a virtual object database, - determining if the set of parameters corresponds to a stored set of parameters, - selecting a virtual character associated with the stored set of parameters, and - rendering the virtual character on an image rendering device.
A communication method using multiple carriers of a user equipment (12, 60) in a multiple-carrier system, the method comprising: configuring (S1020, S1130, S1240) a primary carrier; acquiring multi-carrier control information for monitoring a control channel of a secondary carrier, wherein the multi-carrier control information is acquired through a physical downlink control channel, PDCCH, of the primary carrier, wherein a dedicated radio network temporary identifier, RNTI, is used to identify the multi-carrier control information among other control information transmitted through the PDCCH, wherein the multi-carrier control information includes monitoring information related to a resource for monitoring the control channel of the secondary carrier, and wherein the monitoring information indicates a location or size of the resource for the monitoring the control channel of the secondary carrier; and monitoring the control channel of the secondary carrier according to the multi-carrier control information. configuring (S1020, S1130, S1240) a primary carrier; acquiring multi-carrier control information for monitoring a control channel of a secondary carrier, wherein the multi-carrier control information is acquired through a physical downlink control channel, PDCCH, of the primary carrier, wherein a dedicated radio network temporary identifier, RNTI, is used to identify the multi-carrier control information among other control information transmitted through the PDCCH, wherein the multi-carrier control information includes monitoring information related to a resource for monitoring the control channel of the secondary carrier, and wherein the monitoring information indicates a location or size of the resource for the monitoring the control channel of the secondary carrier; and monitoring the control channel of the secondary carrier according to the multi-carrier control information.
A ferrule (110, 210) for optical waveguides, comprising: an exterior (116, 216) of the ferrule (110, 210); an interior (112, 212) of the ferrule (110, 210) having a bore (118, 218) defined therein configured to receive an optical waveguide; and a stress-isolation region (114, 214) between the interior (112, 212) of the ferrule (110, 210) and the exterior (116, 216) of the ferrule (110, 210), wherein material of the stress-isolation region (114, 214) has an elastic modulus that is less than the elastic modulus of material of the interior (112, 212) and exterior (116, 216) of the ferrule (110, 210), whereby the stress-isolation region (114, 214) limits communication of stresses therebetween; characterized in that the stress-isolation region is porous, and the stress-isolation region (114, 214) has an average void fraction of at least 3%; and/or the stress-isolation region (114, 214) has a pore gradient such that the porosity increases as a function of distance from one location in the stress-isolation region to another. an exterior (116, 216) of the ferrule (110, 210); an interior (112, 212) of the ferrule (110, 210) having a bore (118, 218) defined therein configured to receive an optical waveguide; and a stress-isolation region (114, 214) between the interior (112, 212) of the ferrule (110, 210) and the exterior (116, 216) of the ferrule (110, 210), wherein material of the stress-isolation region (114, 214) has an elastic modulus that is less than the elastic modulus of material of the interior (112, 212) and exterior (116, 216) of the ferrule (110, 210), whereby the stress-isolation region (114, 214) limits communication of stresses therebetween; characterized in that the stress-isolation region is porous, and the stress-isolation region (114, 214) has an average void fraction of at least 3%; and/or the stress-isolation region (114, 214) has a pore gradient such that the porosity increases as a function of distance from one location in the stress-isolation region to another.
A composite image heat transfer for use on merchandising articles, including sports jerseys or other apparel for a specific sport, comprising: a heat transfer; a scannable mark embedded within the heat transfer; wherein the heat transfer would be applied to a clothing article, and wherein the scannable mark would be a digital water mark, bar code, or QR code, and characterized in that the scannable mark is printed with an ultraviolet-curable ink. a heat transfer; a scannable mark embedded within the heat transfer; wherein the heat transfer would be applied to a clothing article, and wherein the scannable mark would be a digital water mark, bar code, or QR code, and characterized in that the scannable mark is printed with an ultraviolet-curable ink.
Industrial truck having a driver's workstation, in particular a driver's station with a driver's platform, and an operating element which is configured as a steering wheel and is arranged on a drive part of the industrial truck so as to be adjustable by means of an adjusting device, wherein the adjusting device comprises a fastening flange, on which the steering wheel is mounted, and is configured as a constrained slotted guide which is embodied such that, in the event of a vertical adjustment, the fastening flange is inevitably adjusted in the horizontal direction and is inevitably adjusted in terms of inclination to the horizontal, characterized in that the driver's workstation is a driver's workstation for a standing operator and the adjusting device has a bearing bracket, which is fastened to the drive part, a fastening bracket, which is provided with the fastening flange and is guided on the bearing bracket by means of a guide, and an intermediate bracket, which is connected to the fastening bracket, in particular in an articulated manner, and is guided on the bearing bracket by means of a guide.
An assembly (10, 10') adapted to be positioned within the ear canal of a user, the assembly comprising a sound emitter and at least two sound detectors (16, 16', 20, 20') fixed to each other, wherein: - each detector has a sound receiving opening (18, 22), the sound receiving opening of a first of the detectors pointing in one direction and into the ear canal, - the sound emitter has a housing and a sound emitting opening pointing in the one direction and being adapted to emit sound into the canal, the sound emitter housing having an inner space, - the detectors being positioned outside of the inner space of the sound emitter housing, - a second of the detectors has its sound receiving opening directed outwardly of the canal, and - the assembly comprises a circuit adapted to receive a first signal from the first detector, a second signal from the second detector and provide, to the emitter, a signal compensating for sound represented by the second signal, characterized in that the sound emitter has an amplifying circuit in the sound emitter housing and that the assembly further comprises first electrical conductors (23, 24) connecting the detectors to the amplifying circuit so that the amplifying circuit is configured to amplify signals output of the detectors. - each detector has a sound receiving opening (18, 22), the sound receiving opening of a first of the detectors pointing in one direction and into the ear canal, - the sound emitter has a housing and a sound emitting opening pointing in the one direction and being adapted to emit sound into the canal, the sound emitter housing having an inner space, - the detectors being positioned outside of the inner space of the sound emitter housing, - a second of the detectors has its sound receiving opening directed outwardly of the canal, and - the assembly comprises a circuit adapted to receive a first signal from the first detector, a second signal from the second detector and provide, to the emitter, a signal compensating for sound represented by the second signal,
Glass pane, comprising at least two individual panes and an adhesive layer located in between them, with the glass pane having a local heating area which only extends over part of the overall area of the pane and which can be heated by means of a heating element, and at least two optical functional elements arranged at a distance (b) from one another on the same side of the glass pane and which - send signals to the opposite side of the glass pane and/or - receive signals from the opposite side of the pane through in each case one optical transmission region of the glass pane, and at least one heating area which extends over both of the transmission regions which are at a distance from one another, characterized in that the heating area also completely extends over an intermediate space located between the two transmission regions. - send signals to the opposite side of the glass pane and/or - receive signals from the opposite side of the pane through in each case one optical transmission region of the glass pane, and at least one heating area which extends over both of the transmission regions which are at a distance from one another, characterized in that the heating area also completely extends over an intermediate space located between the two transmission regions.
Device for fitting or removing an injection piston respectively in or out of a molding machine, characterized in that the device comprises a lifting table supporting a hooking system of one end of the injection piston, the hooking system being mounted on a carriage movable in translation on the table elevator in two opposite directions, the mobile carriage having drive means cooperating with complementary drive means carried by the lifting table, the drive means of the mobile carriage being effective by action of an operator on actuation means of said drive means.
A topical hyperbaric device for delivering oxygen to an extremity of a patient comprising: an enclosure including an interior and an exterior, the enclosure closed on one end and open on the other end and sized and shaped to receive the patient's extremity, the enclosure defined by collapsible bag including at least two sheets (24, 26) of fluid impervious material sealed together at both ends, a first side of one sheet defining the exterior of the enclosure, a first side of the other sheet defining the interior of the enclosure, a plurality of pockets formed between the two sheets, such that gas can be delivered between the sheets to inflate the plurality of pockets and maintain the enclosure in a substantially rigid condition when oxygen pressure in the interior of the enclosure is cycled between first and second pressures. an enclosure including an interior and an exterior, the enclosure closed on one end and open on the other end and sized and shaped to receive the patient's extremity, the enclosure defined by collapsible bag including at least two sheets (24, 26) of fluid impervious material sealed together at both ends, a first side of one sheet defining the exterior of the enclosure, a first side of the other sheet defining the interior of the enclosure, a plurality of pockets formed between the two sheets, such that gas can be delivered between the sheets to inflate the plurality of pockets and maintain the enclosure in a substantially rigid condition when oxygen pressure in the interior of the enclosure is cycled between first and second pressures.
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprising: a lithium salt; an organic solvent; and a non-aqueous electrolyte solution additive which is a compound represented by Formula 1a: a lithium salt; an organic solvent; and a non-aqueous electrolyte solution additive which is a compound represented by Formula 1a:
A method for recognizing an Unmanned Aerial Vehicle, UAV, applied to a source base station, characterized in that the method comprises: determining a target base station to which User Equipment, UE, is to be handed over and a handover mode of the UE switching from the source base station to the target base station based on a measurement report reported by the UE; wherein the handover mode is an X2-interface-based handover or an S1-interface-based handover; determining second signaling based on first signaling corresponding to the handover mode, the first signaling being signaling for requesting handover sent by the source base station, and the second signaling including indication information which indicates that the UE requesting handover is a UAV; and sending the second signaling to a target base station in response to the handover mode being the X2-interface-based handover, and sending the second signaling to a Mobility Management Entity, MME, in response to the handover mode being the S1-interface-based handover. determining a target base station to which User Equipment, UE, is to be handed over and a handover mode of the UE switching from the source base station to the target base station based on a measurement report reported by the UE; wherein the handover mode is an X2-interface-based handover or an S1-interface-based handover; determining second signaling based on first signaling corresponding to the handover mode, the first signaling being signaling for requesting handover sent by the source base station, and the second signaling including indication information which indicates that the UE requesting handover is a UAV; and sending the second signaling to a target base station in response to the handover mode being the X2-interface-based handover, and sending the second signaling to a Mobility Management Entity, MME, in response to the handover mode being the S1-interface-based handover.