mhurhangee/patent-ind-claim-en huggingface dataset:
A handle for a door leaf for a motor vehicle comprising a support and a handling element connected to the support by a mechanical connection , the mechanical connection being configured to make the handling element movable relative to the support , the handling element comprising an external surface facing the exterior of the vehicle passenger compartment and an internal surface facing the interior of the vehicle passenger compartment, said handle comprising a detection device configured to detect a pressure exerted on the handling element and to send, when such a pressure is detected, an opening signal from said door leaf to an opening device configured to open the door leaf , the detection device being arranged relative to the handling element on the side of an internal surface and at one end of the handling element , the detection device comprising an actuating lever configured to be in contact and abut with on the one hand the handling element , and on the other hand with an electrical sensor configured to generate the opening signal, in a closing or resting flush position of the handle or in an activation position, the actuating lever being configured to be detached from the electrical sensor when a predetermined pressure is exerted on the handling element , on an electronic opening zone of the external surface of said handling element , the electrical sensor being configured to generate the opening signal when the actuating lever is displaced, the handling element being movable between a closing flush position and a deployed position in which it can be manually actuated to then be displaced to an opening position of the door leaf to mechanically open said door leaf, the handling element being displaced from the closing flush position to the deployed position by a pressure exerted on a mechanical opening zone of the external surface of said handling element , the mechanical and electronic opening zones being distinct. the detection device comprising an actuating lever configured to be in contact and abut with on the one hand the handling element , and on the other hand with an electrical sensor configured to generate the opening signal, in a closing or resting flush position of the handle or in an activation position, the actuating lever being configured to be detached from the electrical sensor when a predetermined pressure is exerted on the handling element , on an electronic opening zone of the external surface of said handling element , the electrical sensor being configured to generate the opening signal when the actuating lever is displaced, the handling element being movable between a closing flush position and a deployed position in which it can be manually actuated to then be displaced to an opening position of the door leaf to mechanically open said door leaf, the handling element being displaced from the closing flush position to the deployed position by a pressure exerted on a mechanical opening zone of the external surface of said handling element , the mechanical and electronic opening zones being distinct.
An interference filter comprising: a layers stack comprising: layers of amorphous hydrogenated silicon with added nitrogen (a-Si:H,N), wherein the a-Si:H,N has an atomic concentration between 1% and 4% hydrogen and between 2% and 6% nitrogen; and layers of one or more dielectric materials having a refractive index lower than the refractive index of the a-Si:H,N. a layers stack comprising: layers of amorphous hydrogenated silicon with added nitrogen (a-Si:H,N), wherein the a-Si:H,N has an atomic concentration between 1% and 4% hydrogen and between 2% and 6% nitrogen; and layers of one or more dielectric materials having a refractive index lower than the refractive index of the a-Si:H,N.
An elevator system including a hoistway and a speed and position detection system , comprising: an elevator component associated within the hoistway ; an optical sensor associated within the hoistway , and capable of emitting a signal and receiving a reflected signal of the emitted signal ; an object positioned within the hoistway in such a manner to be aligned in a path of the optical sensor and having surface features from which the signal is reflected; and a processor operatively coupled to the optical sensor and capable of processing the reflected signal to provide an output indicative of a speed and position of the elevator component , wherein the processor stores a pre-scan of the surface features; characterized in that the processor references the pre-scan of the surface features in order to determine the position of the elevator component, and wherein the processor uses a time delay between emitting the signal and receiving the reflected signal and an angle between the signal and the reflected signal to determine the speed of the elevator component . an elevator component associated within the hoistway ; an optical sensor associated within the hoistway , and capable of emitting a signal and receiving a reflected signal of the emitted signal ; an object positioned within the hoistway in such a manner to be aligned in a path of the optical sensor and having surface features from which the signal is reflected; and a processor operatively coupled to the optical sensor and capable of processing the reflected signal to provide an output indicative of a speed and position of the elevator component , wherein the processor stores a pre-scan of the surface features; characterized in that the processor references the pre-scan of the surface features in order to determine the position of the elevator component, and wherein the processor uses a time delay between emitting the signal and receiving the reflected signal and an angle between the signal and the reflected signal to determine the speed of the elevator component .
A method performed by a communication device , the method comprising: identifying a long transmission time interval, TTI, transport block size from a set of long TTI transport block sizes used for transport block transmission within a long TTI; and determining a short TTI transport block size, used for transport block transmission within a short TTI, by downscaling the long TTI transport block size based on a relation between a number of symbols in the short TTI and a number of symbols in the long TTI that is greater than the number of symbols in the short TTI; characterized in that the downscaling of the long TTI transport block size is further based on a number of bits used for a cyclic redundancy check. identifying a long transmission time interval, TTI, transport block size from a set of long TTI transport block sizes used for transport block transmission within a long TTI; and determining a short TTI transport block size, used for transport block transmission within a short TTI, by downscaling the long TTI transport block size based on a relation between a number of symbols in the short TTI and a number of symbols in the long TTI that is greater than the number of symbols in the short TTI;
A high strength hot rolled steel sheet comprising, as a chemical composition, by mass%, C: 0.010% to 0.200%, Si: 0.001% to 2.50%, Mn: 0.001% to 1.50%, P: 0.050% or less, S: 0.010% or less, N: 0.0070% or less, Al: 0.001% to 0.50%, Ti: 0.050% to 0.30%, V: 0% to 0.50%, Nb: 0% to 0.090%, Cr: 0% to 0.50%, Ni: 0% to 0.50%, Cu: 0% to 0.50%, Mo: 0% to 0.50%, B: 0% to 0.0050%, Ca: 0% to 0.01%, Mg: 0% to 0.01%, Bi: 0% to 0.01%, and a remainder of Fe and impurities, wherein a structure includes, by area ratio, 80% or more of a polygonal ferrite, a total of 5% or less of a martensite and an austenite, and a total of 5% or less of a pearlite and a cementite, and the remainder is at least one selected from a bainitic ferrite and a bainite, wherein when a standard deviation of micro-hardness of 50 arbitrary pieces of the polygonal ferrite present within a range of ±100 μm from a central plane in a sheet thickness direction is σHV, the σHV is 30 or smaller, wherein a grain of the polygonal ferrite contains 5×10 7 pieces/mm 2 or more of Ti-containing carbide, and in 50% or more of the Ti-containing carbide, an aspect ratio which is a ratio of a length of a long side to a length of a short side is less than 3, and wherein a tensile strength is 540 MPa or higher, wherein the yield ratio of tensile strength and 0.2% proof stress is 75% or more and wherein the product of tensile strength and hole expanding rate is 50,000 MPa·% or higher, wherein the micro-hardness is determined in accordance with the method disclosed in the description.
A method for locating a tracking device , comprising: receiving , at a central tracking device system , a location of a tracking device of a first user from a mobile device of a second user ; selecting a target geographic location and a threshold distance based on historical movement behaviour of the tracking device; in response to determining that the location is more than the threshold distance away from the target geographic location, identifying , by the central tracking device system, the tracking device as potentially lost; generating , by the central tracking device system, a notification identifying the tracking device and indicating the tracking device is potentially lost; and providing , by the central tracking device system, the generated notification to a mobile device of the first user, the mobile device of the first user configured to display the notification to the first user. receiving , at a central tracking device system , a location of a tracking device of a first user from a mobile device of a second user ; selecting a target geographic location and a threshold distance based on historical movement behaviour of the tracking device; in response to determining that the location is more than the threshold distance away from the target geographic location, identifying , by the central tracking device system, the tracking device as potentially lost; generating , by the central tracking device system, a notification identifying the tracking device and indicating the tracking device is potentially lost; and providing , by the central tracking device system, the generated notification to a mobile device of the first user, the mobile device of the first user configured to display the notification to the first user.
A semiconductor structure, comprising: multiple first active regions that are separate from one another and located in a substrate ; connection pads , each connection pad connecting ends of adjacent first active regions; magnetic tunnel junctions , each magnetic tunnel junction being connected with a respective connection pad; wherein the first active regions are in an elongated shape and extend in a first direction (A), and the connection pads are in an elongated shape and extend in a second direction (B), wherein there is a first included angle (α) between the first direction and the second direction; first word lines , passing through the first active regions; wherein each first active region is divided into two ends and a middle part by two first word lines; and selection lines , each selection line being connected with middle parts of respective first active regions, characterised in that the first word lines extend in a third direction (C). multiple first active regions that are separate from one another and located in a substrate ; connection pads , each connection pad connecting ends of adjacent first active regions; magnetic tunnel junctions , each magnetic tunnel junction being connected with a respective connection pad; wherein the first active regions are in an elongated shape and extend in a first direction (A), and the connection pads are in an elongated shape and extend in a second direction (B), wherein there is a first included angle (α) between the first direction and the second direction; first word lines , passing through the first active regions; wherein each first active region is divided into two ends and a middle part by two first word lines; and selection lines , each selection line being connected with middle parts of respective first active regions,
A table for holding a beam-cut piece of material including at least one beam-cut part , the piece of material being beam-cut in beam-cutting equipment , wherein the table comprises a holder configured to hold a raster structure , the raster structure being configured to hold the beam-cut piece of material in a substantially horizontal plane , wherein the raster structure comprises a plurality of raster sections , each raster section comprising at least a plurality of members extending substantially parallel to one another, wherein the table comprises a rib structure movable in relation to the raster sections , wherein the rib structure comprises a plurality of ribs , wherein at least one of the plurality of ribs is movable between two neighbouring members of the raster section , wherein the rib structure is configured to lift the at least one part , or the beam-cut piece of material , or a section of the beam-cut piece of material including at least one part of the beam-cut piece of material, or a remainder of the beam-cut piece of material from a resting position on the raster section in a vertical direction substantially perpendicular to the horizontal plane , wherein the rib structure is configured to hold the at least one part , or the beam-cut piece of material , or the section of the beam-cut piece of material, or the remainder of the beam-cut piece of material, wherein the plurality of ribs comprises at least one first rib and at least one second rib , and wherein the first and second ribs are vertically movable in relation to one another. wherein the table comprises a holder configured to hold a raster structure , the raster structure being configured to hold the beam-cut piece of material in a substantially horizontal plane , wherein the raster structure comprises a plurality of raster sections , each raster section comprising at least a plurality of members extending substantially parallel to one another, wherein the table comprises a rib structure movable in relation to the raster sections , wherein the rib structure comprises a plurality of ribs , wherein at least one of the plurality of ribs is movable between two neighbouring members of the raster section , wherein the rib structure is configured to lift the at least one part , or the beam-cut piece of material , or a section of the beam-cut piece of material including at least one part of the beam-cut piece of material, or a remainder of the beam-cut piece of material from a resting position on the raster section in a vertical direction substantially perpendicular to the horizontal plane , wherein the rib structure is configured to hold the at least one part , or the beam-cut piece of material , or the section of the beam-cut piece of material, or the remainder of the beam-cut piece of material, wherein the plurality of ribs comprises at least one first rib and at least one second rib , and wherein the first and second ribs are vertically movable in relation to one another.
A system comprising: a) a tag , said tag comprising a radio-frequency identification (RFID) chip and an antenna, wherein said tag emits a sideband at a defined frequency, upon activation by a magnetic field; b) a remote activating device that generates a magnetic field within a region of the tag ; characterized in that said system further comprises c) a plurality of witness stations , each said witness station comprising an antenna configured to detect said sideband; and d) a component that is attachable to a medical device , wherein said component comprises: i) one or more medical device location emitters that generate signals upon exposure to the magnetic field generated by said remote activating device , said signals detectable by the plurality of witness stations , and ii) an indicator comprising a visual display that presents distance to tag information, and spatial orientation, for said medical device accomplished geometrically by a procedure comprising measuring the quasi-simultaneous power detected at multiple witness stations . a) a tag , said tag comprising a radio-frequency identification (RFID) chip and an antenna, wherein said tag emits a sideband at a defined frequency, upon activation by a magnetic field; b) a remote activating device that generates a magnetic field within a region of the tag ; characterized in that said system further comprises c) a plurality of witness stations , each said witness station comprising an antenna configured to detect said sideband; and d) a component that is attachable to a medical device , wherein said component comprises: i) one or more medical device location emitters that generate signals upon exposure to the magnetic field generated by said remote activating device , said signals detectable by the plurality of witness stations , and ii) an indicator comprising a visual display that presents distance to tag information, and spatial orientation, for said medical device accomplished geometrically by a procedure comprising measuring the quasi-simultaneous power detected at multiple witness stations . i) one or more medical device location emitters that generate signals upon exposure to the magnetic field generated by said remote activating device , said signals detectable by the plurality of witness stations , and ii) an indicator comprising a visual display that presents distance to tag information, and spatial orientation, for said medical device accomplished geometrically by a procedure comprising measuring the quasi-simultaneous power detected at multiple witness stations .
A route processing method, applied to a network device in a first autonomous system, and comprising: obtaining(S202, S302, S402, S403) a route prefix and origin autonomous system information associated with the obtained route prefix; modifying(S204, S304, S404) the origin autonomous system information to obtain modified autonomous system information according to an outbound route policy configured on the network device, wherein the modified autonomous system information comprises to-be-verified autonomous system information; verifying(S205, S305, S405) whether there is a match item in a route origin information base, wherein the match item comprises the obtained route prefix and the to-be-verified autonomous system information; and determining(S206, S207, S208, S306, S406), based on a verification result, whether to send the obtained route prefix and the modified autonomous system information. obtaining(S202, S302, S402, S403) a route prefix and origin autonomous system information associated with the obtained route prefix; modifying(S204, S304, S404) the origin autonomous system information to obtain modified autonomous system information according to an outbound route policy configured on the network device, wherein the modified autonomous system information comprises to-be-verified autonomous system information; verifying(S205, S305, S405) whether there is a match item in a route origin information base, wherein the match item comprises the obtained route prefix and the to-be-verified autonomous system information; and determining(S206, S207, S208, S306, S406), based on a verification result, whether to send the obtained route prefix and the modified autonomous system information.
Pedelec comprising an electric pedelec drive unit with a drive motor for driving at least one running wheel of the pedelec , comprising a battery for supplying the drive motor with electrical drive energy (E), a pedelec control comprising a motor control that controls the electrical drive energy (E) for the drive motor in dependence on a reference variable with a support function (U), and an operating unit to which the pedelec controller is informally connected, the motor controller having assigned thereto an assistance function determining device for determining the electrical drive energy (E) in dependence on the reference variable, the assistance function determining device comprising a standard support function memory in which the standard support function (US) is stored, characterized in that the assistance function determining device also comprises a standard zone memory in which an upper and a lower zone limit (V1, V2) of a zone criterion (V; fHerz; fshaft) for the validity of the standard support function (US) are stored, wherein the support function (U) selected by the support function determining device , below the lower zone limit (V2), results in a higher electrical drive energy (E) than would be provided according to the standard support function (US), and, above the upper zone limit (V1), results in a lower electrical drive energy (E) than would be provided according to the standard support function (US), wherein the lower zone limit (V2) and/or the upper zone limit (V1) are adjustable through the control unit .
A slide heating apparatus, comprising: a support element having a support surface configured to support a slide with a back side of the slide facing the support surface and a specimen-bearing surface of the slide opposite the back side of the slide ; and a heater coupled to the support element , the slide heating apparatus being configured to deliver thermal energy non-uniformly across the support surface to the back side of the slide via conduction to substantially compensate for non-uniform heat losses associated with evaporation of a liquid on the specimen-bearing surface, wherein the heater includes at least two spaced apart elongate portions for conductively heating side portions of the support surface and two end heating portions extending between the elongate portions , the two end heating portions are positioned to heat both a portion of the support surface for contacting an end of the slide and a portion of the support surface for contacting a region of the slide adjacent to a label of the slide , characterized by a convection assembly positioned to produce a convective flow that passes through a pocket defined by the heater to cool the support element . a support element having a support surface configured to support a slide with a back side of the slide facing the support surface and a specimen-bearing surface of the slide opposite the back side of the slide ; and a heater coupled to the support element , the slide heating apparatus being configured to deliver thermal energy non-uniformly across the support surface to the back side of the slide via conduction to substantially compensate for non-uniform heat losses associated with evaporation of a liquid on the specimen-bearing surface, wherein the heater includes at least two spaced apart elongate portions for conductively heating side portions of the support surface and two end heating portions extending between the elongate portions , the two end heating portions are positioned to heat both a portion of the support surface for contacting an end of the slide and a portion of the support surface for contacting a region of the slide adjacent to a label of the slide , characterized by a convection assembly positioned to produce a convective flow that passes through a pocket defined by the heater to cool the support element .
Connector for connecting a first frame element to a second frame element , comprising a first leg for insertion into a corresponding receiving groove of the first frame element and comprising a second leg for insertion into a corresponding further receiving groove of the second frame element , characterized in that at least the first leg has at least one resiliently mounted pressure piece for clamping the first leg within the receiving groove of the first frame element , a connecting element , which has a first contact surface that extends substantially perpendicularly to the first leg , being provided for butt connection to a straight end face of the first frame element , a stiffening element for insertion into a corresponding groove of the first frame element being provided on the first contact surface of the connecting element .