mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting wireless power in a wireless power transmitting unit , PTU, the method comprising: receiving first information related to a maximum voltage from each of a plurality of power receiving units (110-1 - 110-n), PRUs; transmitting a first level of power for charging to the plurality of PRUs (110-1 - 110-n); in response to transmitting the first level of power, receiving second information related to a measured voltage in each of the plurality of PRUs (110-1 - 110-n); identifying a voltage ratio of each of the plurality of PRUs (110-1 - 110-n) based on the first information and the second information, wherein the voltage ratio is said measured voltage relative to said maximum voltage of each of the plurality of PRUs (110-1 - 110-n); determining a PRU (110-1 - 110-n) among the plurality of PRUs (110-1 - 110-n) based on the identified voltage ratio; and transmitting an adjusted level of power for charging, to the plurality of PRUs (110-1 - 110-n), according to a voltage setting value of the determined PRU (110-1 - 110-n). receiving first information related to a maximum voltage from each of a plurality of power receiving units (110-1 - 110-n), PRUs; transmitting a first level of power for charging to the plurality of PRUs (110-1 - 110-n); in response to transmitting the first level of power, receiving second information related to a measured voltage in each of the plurality of PRUs (110-1 - 110-n); identifying a voltage ratio of each of the plurality of PRUs (110-1 - 110-n) based on the first information and the second information, wherein the voltage ratio is said measured voltage relative to said maximum voltage of each of the plurality of PRUs (110-1 - 110-n); determining a PRU (110-1 - 110-n) among the plurality of PRUs (110-1 - 110-n) based on the identified voltage ratio; and transmitting an adjusted level of power for charging, to the plurality of PRUs (110-1 - 110-n), according to a voltage setting value of the determined PRU (110-1 - 110-n).
Mounting and drive device for rotatable tools for a food processor , wherein the mounting and drive device has: a rotatable hollow shaft with a first fitting receptacle for receiving a first type of tools, and a further coupling piece with a second fitting receptacle for receiving a second type of tools, which is mounted rotatably above the hollow shaft , characterised by at least one press-on element which is arranged on or in at least one associated cut-out of the hollow shaft , and at least one spring element , by means of the elastic force of which the at least one press-on element can be pushed radially inward through the associated cut-out in the hollow shaft . a rotatable hollow shaft with a first fitting receptacle for receiving a first type of tools, and a further coupling piece with a second fitting receptacle for receiving a second type of tools, which is mounted rotatably above the hollow shaft , characterised by at least one press-on element which is arranged on or in at least one associated cut-out of the hollow shaft , and at least one spring element , by means of the elastic force of which the at least one press-on element can be pushed radially inward through the associated cut-out in the hollow shaft .
A coating material for forming an insulation coating, containing, in addition to a solvent: an aqueous carboxy group-containing resin as component (A) in an amount of 100 parts by mass in terms of solid content; an aluminum-containing oxide as component (B) in an amount of more than 40 parts by mass but less than 300 parts by mass in terms of solid content, based on the component (A) present in an amount of 100 parts by mass in terms of solid content; at least one crosslinking agent as component (C) selected from the group consisting of melamine, isocyanate and oxazoline, in an amount of not less than 100 parts by mass but less than 300 parts by mass in terms of solid content, based on the component (A) present in an amount of 100 parts by mass in terms of solid content; and a titanium-containing oxide as component (D) in an amount of more than 10 parts by mass but less than 300 parts by mass in terms of solid content, based on the component (A) present in an amount of 100 parts by mass in terms of solid content, wherein the aqueous carboxy group-containing resin as component (A) has an acid value of 15 to 45 mg KOH/g. an aqueous carboxy group-containing resin as component (A) in an amount of 100 parts by mass in terms of solid content; an aluminum-containing oxide as component (B) in an amount of more than 40 parts by mass but less than 300 parts by mass in terms of solid content, based on the component (A) present in an amount of 100 parts by mass in terms of solid content; at least one crosslinking agent as component (C) selected from the group consisting of melamine, isocyanate and oxazoline, in an amount of not less than 100 parts by mass but less than 300 parts by mass in terms of solid content, based on the component (A) present in an amount of 100 parts by mass in terms of solid content; and a titanium-containing oxide as component (D) in an amount of more than 10 parts by mass but less than 300 parts by mass in terms of solid content, based on the component (A) present in an amount of 100 parts by mass in terms of solid content, wherein the aqueous carboxy group-containing resin as component (A) has an acid value of 15 to 45 mg KOH/g.
A biological imaging device, comprising: an emitting unit that emits parallel light to a first part of a finger, wherein said first part is a fingerprint part between a distal interphalangeal joint and a fingertip; and an imaging unit that images a fingerprint of said first part and a blood vessel of a second part connected to said first part, characterized in that said second part is a part between a proximal interphalangeal joint and the distal interphalangeal joint; wherein said second part is kept at a position in which it is not in contact with any members of the device. an emitting unit that emits parallel light to a first part of a finger, wherein said first part is a fingerprint part between a distal interphalangeal joint and a fingertip; and an imaging unit that images a fingerprint of said first part and a blood vessel of a second part connected to said first part, characterized in that said second part is a part between a proximal interphalangeal joint and the distal interphalangeal joint; wherein said second part is kept at a position in which it is not in contact with any members of the device.
A detector for an optical detection of at least one object , comprising: - at least one optical sensor , the optical sensor having at least one sensor region , the sensor region comprising at least one substrate and at least one film having a photoconductive material , wherein the film is placed on at least one surface of the substrate, wherein the optical sensor is designed to generate at least one sensor signal in a manner dependent on an illumination of the sensor region by a light beam ; - at least one transfer device , the transfer device being adapted to transfer the light beam from the object to the optical sensor , thereby being adapted to guide the light beam to the film located on the substrate, wherein the transfer device has at least one focal point , wherein the substrate and the transfer device are placed with respect to each other in a manner that at least one of the at least one focal point is located in the film placed on the substrate; and - at least one evaluation device , wherein the evaluation device is designed to generate at least one item of information on a position of the object by evaluating the sensor signal of the optical sensor , characterized by a curved substrate as the substrate constituting or comprising an optical element , wherein the optical element is at least partially optically transparent with respect to at least a partition of a wavelength range of the light beam , and a combination of a single aspheric lens as the transfer device and a biconcave lens , on whose surface facing the aspheric lens the film is placed, as the optical element . - at least one optical sensor , the optical sensor having at least one sensor region , the sensor region comprising at least one substrate and at least one film having a photoconductive material , wherein the film is placed on at least one surface of the substrate, wherein the optical sensor is designed to generate at least one sensor signal in a manner dependent on an illumination of the sensor region by a light beam ; - at least one transfer device , the transfer device being adapted to transfer the light beam from the object to the optical sensor , thereby being adapted to guide the light beam to the film located on the substrate, wherein the transfer device has at least one focal point , wherein the substrate and the transfer device are placed with respect to each other in a manner that at least one of the at least one focal point is located in the film placed on the substrate; and - at least one evaluation device , wherein the evaluation device is designed to generate at least one item of information on a position of the object by evaluating the sensor signal of the optical sensor ,
Subframe for a vehicle, having an assembly bearing arrangement in which an assembly support is articulated on an assembly bearing (Q1) on the subframe so as to be pivotable about a bearing axis (L), wherein the assembly bearing (Q1) is fastened axially on both sides to in each case one bracket wing of a bearing bracket of the subframe , wherein the assembly bearing (Q1) is arranged in an inner corner region of the subframe at which a first subframe member and a second subframe member converge, wherein one of the bracket wings is formed directly by a wall of the first subframe member , wherein the first subframe member is a hollow member which delimits a cavity which, in a hollow-member cross section, is closed by means of a hollow-member wall, characterized in that the first subframe member has on its frame-based outer side an access opening via which the assembly bearing (Q1) is able to be mounted/dismounted.
A computer-implemented method for resetting a secure element within a contactless network computing device , the method comprising: receiving an encrypted reset request message at the secure element of the contactless network computing device, the encrypted reset request message being associated with a request to change access to the secure element from a first trusted service manager associated with the secure element to a second trusted service manager ; the reset request message originating from a source other than the first trusted service manager; providing a communication key within the secure element; decrypting the encrypted reset request message within the secure element using the communication key; verifying authorization for the reset request message; clearing parameters associated with the first trusted service manager from the secure element based on instructions provided in the reset request message; and validating, at the secure element, based on instructions provided in the reset request message, access to the secure element by the second trusted service manager. receiving an encrypted reset request message at the secure element of the contactless network computing device, the encrypted reset request message being associated with a request to change access to the secure element from a first trusted service manager associated with the secure element to a second trusted service manager ; the reset request message originating from a source other than the first trusted service manager; providing a communication key within the secure element; decrypting the encrypted reset request message within the secure element using the communication key; verifying authorization for the reset request message; clearing parameters associated with the first trusted service manager from the secure element based on instructions provided in the reset request message; and validating, at the secure element, based on instructions provided in the reset request message, access to the secure element by the second trusted service manager.
An optoelectronic device comprising a photovoltaic cell, the photovoltaic cell comprising: n-type dilute nitride GaInNAs(Sb) emitter layer forming a low bandgap absorber region (LBAR) layer; a base layer formed from GaAs, GaInAs, or low-nitrogen-content GaInNAs(Sb), with lower nitrogen content and higher bandgap with respect to the emitter; a space-charge region; a quasi-neutral region; and an improved transport (IT) layer at least partially positioned in the quasi-neutral region of the base layer, the IT layer being defined as having a higher minority-carrier diffusion length than in the LBAR layer whilst having a higher bandgap than the LBAR layer . n-type dilute nitride GaInNAs(Sb) emitter layer forming a low bandgap absorber region (LBAR) layer; a base layer formed from GaAs, GaInAs, or low-nitrogen-content GaInNAs(Sb), with lower nitrogen content and higher bandgap with respect to the emitter; a space-charge region; a quasi-neutral region; and an improved transport (IT) layer at least partially positioned in the quasi-neutral region of the base layer, the IT layer being defined as having a higher minority-carrier diffusion length than in the LBAR layer whilst having a higher bandgap than the LBAR layer .
A data transmission method, characterized in that , the method comprises: after determining multiple radio access technologies to be used, segmenting or concatenating (S301), by a sending device, data packets of a first service to be transmitted, so as to generate a plurality of segments of data packets; for the multiple radio access technologies, packaging and numbering (S302), by the sending device, the plurality of segments of data packets; and sending (S303), by the sending device, the packaged data packets to a receiving device by using corresponding radio access technologies according to the numbers, wherein before segmenting or concatenating data packets of a first service to be transmitted, the method further comprises: acquiring, from an application, a Type of Service, ToS, list supported by the application, wherein the application supports multiple services, and the multiple services comprises the first service; and allocating the multiple radio access technologies to the application according to the ToS list, wherein the ToS list comprises ToSs of the multiple services, wherein the ToS comprises temporal distribution of data transmission. after determining multiple radio access technologies to be used, segmenting or concatenating (S301), by a sending device, data packets of a first service to be transmitted, so as to generate a plurality of segments of data packets; for the multiple radio access technologies, packaging and numbering (S302), by the sending device, the plurality of segments of data packets; and sending (S303), by the sending device, the packaged data packets to a receiving device by using corresponding radio access technologies according to the numbers, wherein before segmenting or concatenating data packets of a first service to be transmitted, the method further comprises: acquiring, from an application, a Type of Service, ToS, list supported by the application, wherein the application supports multiple services, and the multiple services comprises the first service; and allocating the multiple radio access technologies to the application according to the ToS list, wherein the ToS list comprises ToSs of the multiple services, wherein the ToS comprises temporal distribution of data transmission. acquiring, from an application, a Type of Service, ToS, list supported by the application, wherein the application supports multiple services, and the multiple services comprises the first service; and allocating the multiple radio access technologies to the application according to the ToS list, wherein the ToS list comprises ToSs of the multiple services, wherein the ToS comprises temporal distribution of data transmission.
A tiltable vehicle , comprising: - a vehicle frame ; - one front wheel ; - two rear wheels ; - two swing arms , each of the swing arms being pivotably coupled to a pivot point on the vehicle frame at a first end, and coupled to one of the rear wheels at an opposing end; - a rocker arm rotatably arranged around a rotational axis lying in a plane of symmetry of the vehicle frame ; - two linkages , each of the linkages being coupled at a first end to one of the swing arms at the pivot point ; - two connection arms , each being arranged between a second end of one of the linkages and one outer end of the rocker arm ; wherein each of the connection arms comprises a resilient member , characterized by the resilient member comprising a number of Belleville springs arranged in at least two groups of rings so as to create a non-linear spring characteristic. - a vehicle frame ; - one front wheel ; - two rear wheels ; - two swing arms , each of the swing arms being pivotably coupled to a pivot point on the vehicle frame at a first end, and coupled to one of the rear wheels at an opposing end; - a rocker arm rotatably arranged around a rotational axis lying in a plane of symmetry of the vehicle frame ; - two linkages , each of the linkages being coupled at a first end to one of the swing arms at the pivot point ; - two connection arms , each being arranged between a second end of one of the linkages and one outer end of the rocker arm ;
A genetically modified plant having incorporated into the genome a heterologous gene encoding at least a desaturase, fatty acyl reductase and a wax ester synthase, or encoding a desaturase, wherein the plant produces insect pheromone precursors as part of plant triacylglycerols or plant wax esters, wherein the genetically modified plant has incorporated into the genome a further heterologous gene encoding at least a plastidic acyl-ACP thioesterase releasing 12-16 carbon compounds, wherein the plant is recognized as an oilseed crop, and wherein - the desaturase is selected from the group consisting of AtrΔ11, AveΔ11, CroΔ11 and CpaE11, - the fatty acyl reductase is YroFAR or HarFAR, and - the wax synthase is selected from the group consisting of AtPES1, AtPES2 and EgWS. - the desaturase is selected from the group consisting of AtrΔ11, AveΔ11, CroΔ11 and CpaE11, - the fatty acyl reductase is YroFAR or HarFAR, and - the wax synthase is selected from the group consisting of AtPES1, AtPES2 and EgWS.
Method for determining a safety-critical yawing movement of a vehicle , wherein the method has the following steps: comparing a specification signal which represents a determined setpoint yaw rate of the vehicle with respect to an anticipated trajectory of the vehicle with a measurement signal which represents an actual yaw rate of the vehicle , measured on the basis of an actual trajectory of the vehicle , in order to generate a comparison signal ; checking the comparison signal to determine whether an amplitude of the comparison signal exceeds a first threshold value, in order to provide a check signal when the first threshold value is exceeded; examining the comparison signal to determine whether a frequency of the comparison signal exceeds a second threshold value, in response to the check signal , in order to provide an examination signal when the second threshold value is exceeded; and providing a yawing movement signal which represents the safety-critical yawing movement of the vehicle , in response to the examination signal , characterized by a step of reading in trajectory data from an interface to at least one surroundings sensor of the vehicle , wherein the trajectory data represents the anticipated trajectory of the vehicle , wherein the trajectory data is image data, video data and/or radar data acquired by means of at least surroundings sensor of the vehicle , which data represents a roadway profile of a roadway of the vehicle , a roadway curvature of a roadway of the vehicle and/or lane markings of a roadway of the vehicle . comparing a specification signal which represents a determined setpoint yaw rate of the vehicle with respect to an anticipated trajectory of the vehicle with a measurement signal which represents an actual yaw rate of the vehicle , measured on the basis of an actual trajectory of the vehicle , in order to generate a comparison signal ; checking the comparison signal to determine whether an amplitude of the comparison signal exceeds a first threshold value, in order to provide a check signal when the first threshold value is exceeded; examining the comparison signal to determine whether a frequency of the comparison signal exceeds a second threshold value, in response to the check signal , in order to provide an examination signal when the second threshold value is exceeded; and providing a yawing movement signal which represents the safety-critical yawing movement of the vehicle , in response to the examination signal , characterized by a step of reading in trajectory data from an interface to at least one surroundings sensor of the vehicle , wherein the trajectory data represents the anticipated trajectory of the vehicle , wherein the trajectory data is image data, video data and/or radar data acquired by means of at least surroundings sensor of the vehicle , which data represents a roadway profile of a roadway of the vehicle , a roadway curvature of a roadway of the vehicle and/or lane markings of a roadway of the vehicle .