mhurhangee/patent-ind-claim-en huggingface dataset:
A display device comprising: a display unit configured to display an image and to sense a touch input; a sensor unit configured to sense a fingerprint from the touch input on the display unit; a storage unit configured to store data; and a processor configured to control the display unit , the sensor unit , and the storage unit , wherein the processor is further configured to : detect a selection input for selecting first information to be output, the first information having a security on state or a security off state; obtain the fingerprint from the selection input when the selection input is detected, and convert the first information from the security on state into the security off state when the obtained fingerprint is matched with a pre-stored fingerprint; and when a predetermined input for the first information was detected before the first information is converted into the security off state, maintain the first information to the security on state, wherein the display device is configured to output the first information depending on the security state of the first information. a display unit configured to display an image and to sense a touch input; a sensor unit configured to sense a fingerprint from the touch input on the display unit; a storage unit configured to store data; and a processor configured to control the display unit , the sensor unit , and the storage unit , wherein the processor is further configured to : detect a selection input for selecting first information to be output, the first information having a security on state or a security off state; obtain the fingerprint from the selection input when the selection input is detected, and convert the first information from the security on state into the security off state when the obtained fingerprint is matched with a pre-stored fingerprint; and when a predetermined input for the first information was detected before the first information is converted into the security off state, maintain the first information to the security on state, wherein the display device is configured to output the first information depending on the security state of the first information. detect a selection input for selecting first information to be output, the first information having a security on state or a security off state; obtain the fingerprint from the selection input when the selection input is detected, and convert the first information from the security on state into the security off state when the obtained fingerprint is matched with a pre-stored fingerprint; and when a predetermined input for the first information was detected before the first information is converted into the security off state, maintain the first information to the security on state, wherein the display device is configured to output the first information depending on the security state of the first information.
A running profile generation device comprising: a storage that stores speed limit information, vehicle performance information, and route information; a speed limit setter that acquires, from the storage, at least one speed limit section of a running section being set based on a departure point and an arrival point of the running section, the speed limit section being a section delimited at positions at which a speed limit changes; characterized by a reverse coasting curve generator that determines a base point based on a terminal position and an upper limit speed of the speed limit section and generates a reverse coasting curve from the base point based on the vehicle performance information and the route information stored in the storage, the upper limit speed being set according to a speed limit for the speed limit section; a parameter setter that determines a coasting start position based on the generated reverse coasting curve; and a simulator that generates a running profile by performing a running simulation based on the set running section, the speed limit information on the running section, the generated reverse coasting curve, the set coasting start position, and the vehicle performance information and the route information stored in the storage, wherein the reverse coasting curve generator sets a range below the upper limit speed as a coasting range and sets a range equal to or above the upper limit speed to the upper limit speed during coasting from the base point toward the departure point. a storage that stores speed limit information, vehicle performance information, and route information; a speed limit setter that acquires, from the storage, at least one speed limit section of a running section being set based on a departure point and an arrival point of the running section, the speed limit section being a section delimited at positions at which a speed limit changes; characterized by a reverse coasting curve generator that determines a base point based on a terminal position and an upper limit speed of the speed limit section and generates a reverse coasting curve from the base point based on the vehicle performance information and the route information stored in the storage, the upper limit speed being set according to a speed limit for the speed limit section; a parameter setter that determines a coasting start position based on the generated reverse coasting curve; and a simulator that generates a running profile by performing a running simulation based on the set running section, the speed limit information on the running section, the generated reverse coasting curve, the set coasting start position, and the vehicle performance information and the route information stored in the storage, wherein the reverse coasting curve generator sets a range below the upper limit speed as a coasting range and sets a range equal to or above the upper limit speed to the upper limit speed during coasting from the base point toward the departure point.
A brake assembly comprising: - a brake disc in rotational engagement with a wheel of a vehicle; - a brake pad which frictionally engages said brake disc when an actuator force is applied thereto; - an actuator having an output shaft driven in a forward direction (F) and a reverse direction (R) in order to bring the brake pad and brake disc in said frictional engagement when an actuator force is applied; and - an energy absorption and/or storage unit absorbing forces acting on the output shaft in the reverse direction (R) in case of a malfunction of the actuator , characterised in that the energy absorption and/or storage unit is adapted to dissipate the absorbed forces. - a brake disc in rotational engagement with a wheel of a vehicle; - a brake pad which frictionally engages said brake disc when an actuator force is applied thereto; - an actuator having an output shaft driven in a forward direction (F) and a reverse direction (R) in order to bring the brake pad and brake disc in said frictional engagement when an actuator force is applied; and - an energy absorption and/or storage unit absorbing forces acting on the output shaft in the reverse direction (R) in case of a malfunction of the actuator ,
A powder treatment apparatus for plasma treatment of a powder, characterized in that the apparatus comprises: a cylindrical base body; outer electrodes and inner electrodes that are arranged radially outside and radially inside of the cylindrical base body to be partly opposed to each other with the cylindrical base body therebetween, while being displaced from each other in the circumferential direction, and arranged at intervals from each other in the circumferential direction while extending along the axial direction; a dielectric layer that covers the outer electrodes; one or a plurality of high frequency power sources that apply a high frequency voltage between the outer electrodes and the inner electrodes adjacent to each other; a powder transferring unit that introduces the powder along with a carrier gas toward the radially inside of the cylindrical base body from one end side to the other end side in the axial direction along an inner wall of the cylindrical base body; and a collecting unit that collects treated powder that is introduced from the powder transferring unit and subjected to surface treatment, wherein the high frequency voltage is applied between the outer electrodes and the inner electrodes by the high frequency power source to produce plasma near the inner electrodes to contact the powder with plasma, and the treated powder subjected to the surface treatment with plasma is collected at the collecting unit. a cylindrical base body; outer electrodes and inner electrodes that are arranged radially outside and radially inside of the cylindrical base body to be partly opposed to each other with the cylindrical base body therebetween, while being displaced from each other in the circumferential direction, and arranged at intervals from each other in the circumferential direction while extending along the axial direction; a dielectric layer that covers the outer electrodes; one or a plurality of high frequency power sources that apply a high frequency voltage between the outer electrodes and the inner electrodes adjacent to each other; a powder transferring unit that introduces the powder along with a carrier gas toward the radially inside of the cylindrical base body from one end side to the other end side in the axial direction along an inner wall of the cylindrical base body; and a collecting unit that collects treated powder that is introduced from the powder transferring unit and subjected to surface treatment, wherein the high frequency voltage is applied between the outer electrodes and the inner electrodes by the high frequency power source to produce plasma near the inner electrodes to contact the powder with plasma, and the treated powder subjected to the surface treatment with plasma is collected at the collecting unit.
Stirring member (M) that comprises at least two blades and is able to be fastened to a rotation shaft, each blade comprising a leading edge facing the fluid to be stirred and a trailing edge facing away from the leading edge, each blade being obtained by bending a flat sheet, each blade having two longitudinal bends, the length of each bend being greater than 60% of the maximum radius of the blade, the angle between the leading edge and the radial axis of the blade passing through the center of rotation and perpendicular to the outer edge, referred to as the angle of incidence, being positive, in the sense that the distal end of the outer edge, remote from the shaft, could meet the fluid before the proximal end when the member is in rotation, wherein the two bends are parallel and the angle of incidence is comprised between 6 and 15°.
A photonic integrated circuit chip comprising: a plurality of vertical grating couplers (18; 40) defined in a first semiconductor or insulating layer topped with an interconnection structure comprising a plurality of metal levels (M1, M2, M3, M4) embedded in second insulating layers ; and a cavity extending in depth through the second insulating layers all the way to an intermediate level between the couplers (18; 40) and the metal level (M1) closest to the couplers (18; 40), the cavity being entirely delimited laterally by the interconnection structure , characterized in that the cavity has lateral dimensions such that the cavity is adapted to receive a block for holding an array of optical fibers intended to be optically coupled to the couplers (18; 40). a plurality of vertical grating couplers (18; 40) defined in a first semiconductor or insulating layer topped with an interconnection structure comprising a plurality of metal levels (M1, M2, M3, M4) embedded in second insulating layers ; and a cavity extending in depth through the second insulating layers all the way to an intermediate level between the couplers (18; 40) and the metal level (M1) closest to the couplers (18; 40), the cavity being entirely delimited laterally by the interconnection structure , characterized in that the cavity has lateral dimensions such that the cavity is adapted to receive a block for holding an array of optical fibers intended to be optically coupled to the couplers (18; 40).
A method comprising: receiving a first data stream from a first line scan sensor and a second data stream from a second line scan sensor; selecting an overlap position between the first and second data stream, wherein the overlap position forms an overlap area between the first and second data streams; calculating a difference measure between the first and second data streams in the overlap area; iteratively altering the overlap position between the first and second data streams to form a plurality of overlap positions and calculating a plurality of difference measures, wherein each additional difference measure corresponds to an overlap position of the plurality of overlap positions; selecting a blending position corresponding to the overlap position of the plurality of overlap positions with the smallest difference measure; and blending the first and second data streams at the blending position. receiving a first data stream from a first line scan sensor and a second data stream from a second line scan sensor; selecting an overlap position between the first and second data stream, wherein the overlap position forms an overlap area between the first and second data streams; calculating a difference measure between the first and second data streams in the overlap area; iteratively altering the overlap position between the first and second data streams to form a plurality of overlap positions and calculating a plurality of difference measures, wherein each additional difference measure corresponds to an overlap position of the plurality of overlap positions; selecting a blending position corresponding to the overlap position of the plurality of overlap positions with the smallest difference measure; and blending the first and second data streams at the blending position.
A molding device for manufacturing a cylindrical rolling body, comprising a pair of molds having one side surfaces in an axial direction and arranged so as to be capable of relative displacement in the axial direction with the one side surfaces in the axial direction facing each other; the pair of molds having bottomed molding concave sections opening at positions on the one side surfaces in the axial direction facing each other and each having an inner surface; the inner surface of each of the molding concave sections having an inner-circumferential surface , a bottom surface , and an annular corner R section having an arc-shaped cross section and connecting the inner-circumferential surface and the bottom surface ; characterized in that at least one mold of the pair of molds has an annular concave section recessed outward in a radial direction on the inner-circumferential surface of the molding concave section . the pair of molds having bottomed molding concave sections opening at positions on the one side surfaces in the axial direction facing each other and each having an inner surface; the inner surface of each of the molding concave sections having an inner-circumferential surface , a bottom surface , and an annular corner R section having an arc-shaped cross section and connecting the inner-circumferential surface and the bottom surface ; characterized in that at least one mold of the pair of molds has an annular concave section recessed outward in a radial direction on the inner-circumferential surface of the molding concave section .
A method for bonding sheet metal parts to a laminated core in which sheet metal parts are punched from an electrical steel strip , the punched sheet metal parts are stacked and bonded at least integrally to form a plurality of laminated cores , and in order to facilitate the separation of the integrally bonded sheet metal parts into laminated cores , a separating agent is provided at least between two stacked sheet metal parts in that in the punching stage for the punching of the sheet metal part , the separating agent is both punched from a separating agent support and provided to the sheet metal part , characterized in that the separating agent is punched from the sheet-like separating agent support that is supplied below the electrical steel strip , wherein the sheet-like separating agent support consists of a plurality of connected sheets (21.1, 21.2, 21.3) or of a sheet (21.1, 21.2, 21.3) separated from a supply roll.
Use of a structural adhesive film for bonding and sealing a hem flange connection between panels, the structural adhesive film comprising: - at least one adhesive layer and - at least one layer with a porous structure, - the adhesive layer comprising an epoxy compound as well as an epoxy curing agent. - at least one adhesive layer and - at least one layer with a porous structure, - the adhesive layer comprising an epoxy compound as well as an epoxy curing agent.
A memory device, comprising: a plurality of strings of charge storage devices , each string comprising a plurality of charge storage devices associated with a respective pillar comprising semiconductor material, each of the plurality of strings coupled to a common source through both a source gate device and a source select device ; wherein each source gate device includes a gate , and is configured to at least partially control conduction between the pillar of the respective string and the common source ; wherein each source select device includes a gate and is configured to at least partially control conduction between the pillar of the respective string and the common source ; wherein the gates of the source gate devices associated with each of the plurality of strings of charge storage devices are coupled together to be controlled in common; and wherein the gates of source select devices associated with a first group of strings of the plurality of strings of charge storage devices are coupled together to be controlled in common, wherein the first group of strings is less than all of the multiple strings of charge storage devices . a plurality of strings of charge storage devices , each string comprising a plurality of charge storage devices associated with a respective pillar comprising semiconductor material, each of the plurality of strings coupled to a common source through both a source gate device and a source select device ; wherein each source gate device includes a gate , and is configured to at least partially control conduction between the pillar of the respective string and the common source ; wherein each source select device includes a gate and is configured to at least partially control conduction between the pillar of the respective string and the common source ; wherein the gates of the source gate devices associated with each of the plurality of strings of charge storage devices are coupled together to be controlled in common; and wherein the gates of source select devices associated with a first group of strings of the plurality of strings of charge storage devices are coupled together to be controlled in common, wherein the first group of strings is less than all of the multiple strings of charge storage devices .
An unused frequency band detection method in a cognitive radio system wherein each of a plurality of radio communication apparatuses, which have a hash function used to obtain a frequency range from time information and location information in common, executes: a position information obtaining step (S20) of obtaining the radio communication apparatus's own location information; a time information obtaining step (S20) of obtaining current time information; a detection range limiting step (S22, S24) of inputting the obtained location information and time information into the hash function to calculate a hash value, and narrowing down the frequency range over which the detection process is to be performed to a predetermined frequency range including a frequency corresponding to the calculated hash value; and a detection step (S26) of performing detection of unused frequency bands in said narrowed-down frequency range. a position information obtaining step (S20) of obtaining the radio communication apparatus's own location information; a time information obtaining step (S20) of obtaining current time information; a detection range limiting step (S22, S24) of inputting the obtained location information and time information into the hash function to calculate a hash value, and narrowing down the frequency range over which the detection process is to be performed to a predetermined frequency range including a frequency corresponding to the calculated hash value; and a detection step (S26) of performing detection of unused frequency bands in said narrowed-down frequency range.
A system for spinal cord stimulation of a subject comprising: a) a programmable implantable pulse generator (IPG) , b) one or more multi-electrode arrays suitable to cover at least a portion of the spinal cord of said subject and configured to apply a selective stimulation to the dorsal roots of the spinal cord of said subject , wherein said IPG is operatively connected to said multi-electrode array and adapted to deliver to said multi-electrode array a stimulation characterized by a frequency comprised between 20 and 1200 Hz and an amplitude comprised between 0.1 motor threshold amplitude and 1.5 motor threshold amplitude, and wherein the stimulation is delivered at bursts of pulses, each burst of pulses occurring with a frequency comprised between 20 Hz and 100 Hz a) a programmable implantable pulse generator (IPG) , b) one or more multi-electrode arrays suitable to cover at least a portion of the spinal cord of said subject and configured to apply a selective stimulation to the dorsal roots of the spinal cord of said subject , wherein said IPG is operatively connected to said multi-electrode array and adapted to deliver to said multi-electrode array a stimulation characterized by a frequency comprised between 20 and 1200 Hz and an amplitude comprised between 0.1 motor threshold amplitude and 1.5 motor threshold amplitude, and wherein the stimulation is delivered at bursts of pulses, each burst of pulses occurring with a frequency comprised between 20 Hz and 100 Hz wherein said IPG is operatively connected to said multi-electrode array and adapted to deliver to said multi-electrode array a stimulation characterized by a frequency comprised between 20 and 1200 Hz and an amplitude comprised between 0.1 motor threshold amplitude and 1.5 motor threshold amplitude, and wherein the stimulation is delivered at bursts of pulses, each burst of pulses occurring with a frequency comprised between 20 Hz and 100 Hz
A vacuum cleaner includes a head assembly, wherein the head assembly includes a fan cover and an electric motor mount that are fastening and hermetically connected to each other, and the electric motor mount includes a side wall and a bottom wall ; a filter assembly , wherein the filter assembly and the electric motor mount are disposed on a same side of the fan cover , and the filter assembly is disposed at the outer periphery of the side wall and the bottom wall ; characterized in that a hermetic gap is defined between the free end of the filter assembly and the head assembly, and a second hermetic member is disposed in the hermetic gap ; wherein a spiral fitting structure is disposed between the free end of the filter assembly and the head assembly, and is screwed to tighten and narrow the hermetic gap . a head assembly, wherein the head assembly includes a fan cover and an electric motor mount that are fastening and hermetically connected to each other, and the electric motor mount includes a side wall and a bottom wall ; a filter assembly , wherein the filter assembly and the electric motor mount are disposed on a same side of the fan cover , and the filter assembly is disposed at the outer periphery of the side wall and the bottom wall ;