mhurhangee/patent-ind-claim-en huggingface dataset:
Method for capturing a user input for an input apparatus having a plurality of switching elements (2.1, 2.2, 2.3, 2.4), with which an operating action with a marking gesture and a selection gesture is captured; wherein at least one first and one further switching element (2.1, 2.2, 2.3, 2.4) are marked successively in a specific order by movement in a first direction using the marking gesture ; wherein first, the first switching element (2.1, 2.2, 2.3, 2.4) and subsequently the at least one further switching element (2.1, 2.2, 2.3, 2.4) is marked; and using the selection gesture , the marked switching elements (2.1, 2.2, 2.3, 2.4) are successively selected in the reverse order via movement in the reverse direction; and control signals are generated and output depending on the switching elements (2.1, 2.2, 2.3, 2.4) which are marked via the marking gesture and subsequently selected via the selection gesture.
Use of a hot-melt adhesive for adhesive bonding of at least a first packaging and a second packaging, the hot-melt adhesive comprising: (a) 50-85 parts per weight, preferably 60-80 parts per weight, of a basis polymer, wherein the basis polymer is consisting of a metallocene catalysed polyolefin polymer, preferably ethene-1-octene-copolymer; (b) 10-25 parts per weight, preferably 15-20 parts per weight, of a modifying polymer, the modifying polymer comprising a styrene block copolymer; (c) 5-25 parts per weight, preferably 5-10 parts per weight, of a reinforcing agentcomprising paraffinic oil, naphthenic oil, polybutene, dibasic ester, polyol or mixtures thereof; and (d) 0.05-1.5 parts per weight, preferably 0.5-1.0 parts per weight, of a stabilizer component comprising a sterically hindered phenolic antioxidant and/or a hindered amine light stabilizer. (a) 50-85 parts per weight, preferably 60-80 parts per weight, of a basis polymer, wherein the basis polymer is consisting of a metallocene catalysed polyolefin polymer, preferably ethene-1-octene-copolymer; (b) 10-25 parts per weight, preferably 15-20 parts per weight, of a modifying polymer, the modifying polymer comprising a styrene block copolymer; (c) 5-25 parts per weight, preferably 5-10 parts per weight, of a reinforcing agentcomprising paraffinic oil, naphthenic oil, polybutene, dibasic ester, polyol or mixtures thereof; and (d) 0.05-1.5 parts per weight, preferably 0.5-1.0 parts per weight, of a stabilizer component comprising a sterically hindered phenolic antioxidant and/or a hindered amine light stabilizer.
A communication method, wherein the method comprises: receiving, by a terminal , a downlink reference signal sent by a network device in a first cell ; determining, by the terminal , a downlink path loss estimate between the terminal and the first cell based on the downlink reference signal; and sending, by the terminal , an uplink signal in a second cell , wherein uplink transmit power used by the terminal to send the uplink signal is determined by the terminal based on the downlink path loss estimate, characterized in that the first cell is a master cell and a LTE cell and the second cell is a secondary cell and a NR, New Radio, cell , uplink frequencies configured for the first cell and the second cell are the same, and downlink frequencies configured for the first cell and the second cell are different. receiving, by a terminal , a downlink reference signal sent by a network device in a first cell ; determining, by the terminal , a downlink path loss estimate between the terminal and the first cell based on the downlink reference signal; and sending, by the terminal , an uplink signal in a second cell , wherein uplink transmit power used by the terminal to send the uplink signal is determined by the terminal based on the downlink path loss estimate, characterized in that the first cell is a master cell and a LTE cell and the second cell is a secondary cell and a NR, New Radio, cell , uplink frequencies configured for the first cell and the second cell are the same, and downlink frequencies configured for the first cell and the second cell are different.
A computer-implemented method, comprising: analyzing a digital image to determine one or more text-allowed regions included in the digital image for a text-containing image, wherein the text-containing image has a first aspect ratio and a first shape, and the one or more text-allowed regions include a given text allowed region having an aspect ratio equal to the first aspect ratio and a shape that is not equal to the first shape; for each of the one or more text-allowed regions, computing a numeric value based on a color contrast between pixels of the text-containing image and pixels of the text-allowed region, wherein the text-containing image is to be incorporated into one of the text-allowed regions included in the digital image; selecting the given text-allowed region based at least in part on the numeric value computed for each text-allowed region; and incorporating the text-containing image into the given text-allowed region included in the digital image. analyzing a digital image to determine one or more text-allowed regions included in the digital image for a text-containing image, wherein the text-containing image has a first aspect ratio and a first shape, and the one or more text-allowed regions include a given text allowed region having an aspect ratio equal to the first aspect ratio and a shape that is not equal to the first shape; for each of the one or more text-allowed regions, computing a numeric value based on a color contrast between pixels of the text-containing image and pixels of the text-allowed region, wherein the text-containing image is to be incorporated into one of the text-allowed regions included in the digital image; selecting the given text-allowed region based at least in part on the numeric value computed for each text-allowed region; and incorporating the text-containing image into the given text-allowed region included in the digital image.
Device for the artificial insemination of a mammal, in the course of which the semen, which is derived from a male breeding animal, is introduced through the vagina of the animal, into or onto the uterus of the animal to be inseminated, wherein the device comprises a tube , which is movable through the vagina of the animal to be inseminated to the uterus, as well as a heatable cavity for containing a straw , which contains semen, as well as a driving mechanism , by which the semen is movable out of the straw on the uterus-side opening of the tube , wherein the device comprises a mechanism, by which the straw can be displaced out of the cavity into the tube ; characterized in that the device comprises an optical sensor for measuring the density of the live sperm cells.
Method for operating an electronically commutated electric motor , in which during ongoing operation of the electric motor a pre-commutation angle which is made available by an adjustment device is adjusted in order to achieve an optimum operating point of the electric motor , characterized in that during operation of the electric motor a periodic signal is modulated onto the pre-commutation angle and a state characteristic variable of the electric motor , which correlates with an efficiency level of the electric motor , is acquired, and in that in a method step the state characteristic variable is multiplied by the periodic signal .
An antenna assembly, comprising: a ground plane ; and an antenna, comprising: a first plane element parallel with the ground plane and configured for operation in a first frequency band, the first plane element comprising a first strip , a second strip , a joining strip extending between the first and second strips, and a linear slot formed between the first and second strips; a first grounding element extending downwardly from the first strip and electrically coupled to the ground plane; a second grounding element extending downwardly from the second strip and electrically coupled to the ground plane; a feed element extending downwardly from the joining strip at a first end of the slot; a second plane element parallel with the first plane element and the ground plane and configured for operation in a second frequency band; and a connecting element extending downwardly from the second plane element to the first plane element. a ground plane ; and an antenna, comprising: a first plane element parallel with the ground plane and configured for operation in a first frequency band, the first plane element comprising a first strip , a second strip , a joining strip extending between the first and second strips, and a linear slot formed between the first and second strips; a first grounding element extending downwardly from the first strip and electrically coupled to the ground plane; a second grounding element extending downwardly from the second strip and electrically coupled to the ground plane; a feed element extending downwardly from the joining strip at a first end of the slot; a second plane element parallel with the first plane element and the ground plane a first grounding element extending downwardly from the first strip and electrically coupled to the ground plane; a second grounding element extending downwardly from the second strip and electrically coupled to the ground plane; a feed element extending downwardly from the joining strip at a first end of the slot; a second plane element parallel with the first plane element and the ground plane and configured for operation in a second frequency band; and a connecting element extending downwardly from the second plane element to the first plane element.
An automated slide processing apparatus comprising: at least one fluid dispenser configured to dispense a fluid onto an upper surface of a specimen-bearing slide; and a contactless mixer for mixing the fluid present on the upper surface of the slide, where the contactless mixer comprises a first nozzle array and a second nozzle array , the first nozzle array adapted to create gas streams for imparting a bulk fluid flow to the fluid present on the upper surface of the slide, the bulk fluid flow being a motion imparted to a majority of the fluid on the upper surface of the slide, and the second nozzle array adapted to create gas streams for imparting at least a first regional fluid flow to at least a portion of the fluid present on the upper surface of the slide, the first regional fluid flow being a flow of the fluid in a particular portion or area of the fluid on the upper surface of the slide less than the majority of the fluid on the upper surface of the slide. at least one fluid dispenser configured to dispense a fluid onto an upper surface of a specimen-bearing slide; and a contactless mixer for mixing the fluid present on the upper surface of the slide, where the contactless mixer comprises a first nozzle array and a second nozzle array , the first nozzle array adapted to create gas streams for imparting a bulk fluid flow to the fluid present on the upper surface of the slide, the bulk fluid flow being a motion imparted to a majority of the fluid on the upper surface of the slide, and the second nozzle array adapted to create gas streams for imparting at least a first regional fluid flow to at least a portion of the fluid present on the upper surface of the slide, the first regional fluid flow being a flow of the fluid in a particular portion or area of the fluid on the upper surface of the slide less than the majority of the fluid on the upper surface of the slide.
Side channel blower with an electric motor with a drive shaft , an impeller which is attached to the drive shaft a blower head with a flow channel comprising a first side channel configured axially opposite a first row of impeller blades of the impeller and a second side channel configured axially opposite a second row of impeller blades of the impeller , wherein the blower head comprises a first housing part in which the first side channel is formed and which axially delimits at least one space in which the electric motor is accommodated, and a second housing part which is attached to the first housing part , in which the second side channel is formed and which comprises an inlet and an outlet channel and wherein an axial end of a wall delimiting the second housing part radially outwardly is arranged axially closer to the electric motor than a bottom of the first side channel immediately upstream of the outlet channel and wherein the outlet channel extends out of the second housing part tangentially to the flow channel and comprises a cross-section at least equal to the cross-section of the flow channel immediately upstream of the outlet channel in the blower head . an electric motor with a drive shaft , an impeller which is attached to the drive shaft a blower head with a flow channel comprising a first side channel configured axially opposite a first row of impeller blades of the impeller and a second side channel configured axially opposite a second row of impeller blades of the impeller , wherein the blower head comprises a first housing part in which the first side channel is formed and which axially delimits at least one space in which the electric motor is accommodated, and a second housing part which is attached to the first housing part , in which the second side channel is formed and which comprises an inlet and an outlet channel and wherein an axial end of a wall delimiting the second housing part radially outwardly is arranged axially closer to the electric motor than a bottom of the first side channel immediately upstream of the outlet channel and wherein the outlet channel extends out of the second housing part tangentially to the flow channel and comprises a cross-section at least equal to the cross-section of the flow channel immediately upstream of the outlet channel in the blower head .
A heat spreader configured to be attached to a substrate of an electronic device , the heat spreader having: a thermally conductive core (163; 250); a heat spreader via passing through said thermally conductive core (163; 250) and containing a heat spreader plug extending completely through the thermally conductive core (163; 250); characterised in that the heat spreader plug extends partially through the thermally conductive core (163; 250), and having a surface available to form a solder connection on a first major surface side of the thermally conductive core (163; 250). a thermally conductive core (163; 250); a heat spreader via passing through said thermally conductive core (163; 250) and containing a heat spreader plug extending completely through the thermally conductive core (163; 250); characterised in that the heat spreader plug extends partially through the thermally conductive core (163; 250), and having a surface available to form a solder connection on a first major surface side of the thermally conductive core (163; 250).
A wafer container for receiving and transporting bonded wafers, the wafer container comprising: a container portion including an open front defining an open interior and a back wall having an inside surface; a door that closes the open front defining the open interior , the door having an inside surface ; a wafer support attached to one of the inside surface of the front door and the inside surface of the back wall , the wafer support having a plurality of pairs of wafer edge engagement portions having a first wafer edge engagement portion and a second wafer edge engagement portion, each wafer edge engagement portion defining a recess having a primary seating position , each of the wafer edge engagement portions comprised of a first polymeric material, wherein an edge of a wafer is in the primary seating position when the wafer container is not in a shock condition, the wafer support further including at least one shock deflection region axially offset from each primary seating position , each of the at least one shock deflection region having a shock deflection contact portion positioned to contact a wafer when the wafer container is in a shock condition, wherein the shock deflection contact portion is comprised of a second polymeric material, the wafer container being characterized in that the second polymeric material is softer than the first polymeric material of the wafer edge engagement portions . a container portion including an open front defining an open interior and a back wall having an inside surface; a door that closes the open front defining the open interior , the door having an inside surface ; a wafer support attached to one of the inside surface of the front door and the inside surface of the back wall , the wafer support having a plurality of pairs of wafer edge engagement portions having a first wafer edge engagement portion and a second wafer edge engagement portion, each wafer edge engagement portion defining a recess having a primary seating position , each of the wafer edge engagement portions comprised of a first polymeric material, wherein an edge of a wafer is in the primary seating position when the wafer container is not in a shock condition, the wafer support further including at least one shock deflection region axially offset from each primary seating position , each of the at least one shock deflection region having a shock deflection contact portion positioned to contact a wafer when the wafer container is in a shock condition, wherein the shock deflection contact portion is comprised of a second polymeric material,
A cooling channel for a gas turbine engine comprising: a first surface to be cooled by a flow of cooling air, the first surface including: a pedestal array physically connected to the first surface , the pedestal array including: a first row of pedestals extending from the first surface ; and a second row of pedestals extending from the first surface and running in a direction generally parallel to the first row of pedestals ; and a first row of contour bumps extending from the first surface between the first row of pedestals and the second row of pedestals and running in a direction generally parallel to the first row of pedestals ; the first row of contour bumps aligned such that at least one contour bump of the first row of contour bumps is positioned immediately downstream of a pedestal of the first row of pedestals or immediately upstream of a pedestal of the second row of pedestals ; characterized in that , the first row of contour bumps extends a first distance from the first surface , the first row of pedestals extends a second distance from the first surface ; the second row of pedestals extends a third distance from the first surface , and the first distance is less than 40% and more than 5% of the second distance and the third distance, and/or wherein the first row of contour bumps restricts the flow of cooling air between the first row of pedestals and the second row of pedestals to an extent less than the first row of pedestals and the second row of pedestals restrict the flow of cooling air. a first row of pedestals extending from the first surface ; and a second row of pedestals extending from the first surface and running in a direction generally parallel to the first row of pedestals ; and a first row of contour bumps extending from the first surface between the first row of pedestals and the second row of pedestals and running in a direction generally parallel to the first row of pedestals ; the first row of contour bumps aligned such that at least one contour bump of the first row of contour bumps is positioned immediately downstream of a pedestal of the first row of pedestals or immediately upstream of a pedestal of the second row of pedestals ; characterized in that , the first row of contour bumps extends a first distance from the first surface , the first row of pedestals extends a second distance from the first surface ; the second row of pedestals extends a third distance from the first surface , and the first distance is less than 40% and more than 5% of the second distance and the third distance, and/or wherein the first row of contour bumps restricts the flow of cooling air between the first row of pedestals and the second row of pedestals to an extent less than the first row of pedestals and the second row of pedestals restrict the flow of cooling air.
Method for managing movements of a fleet of a plurality of autonomous mobile objects configured to move on the ground and capable of communicating with a management server , an autonomous mobile object being associated with a user terminal with which a user is equipped, characterised in that said management server performs the following steps, for at least a given autonomous mobile object, referred to as first object, associated with a first user terminal with which a first user is equipped: • obtaining information representing a position to be reached by said first object, referred to as first object destination information; • determining information representing a movement to be made by said first object, referred to as first object movement information, said determination taking into account: - at least said first object destination information; and - at least one piece of information representing the position of a second user terminal with which a second user associated with a second autonomous mobile object of said fleet is equipped, referred to as second user position information, and information representing the position of said second autonomous mobile object, referred to as second object position information; • transmitting said first object movement information to said first object, said second user position information and said second object position information corresponding to data enabling the position of the second user and of the second object to be respectively determined. • obtaining information representing a position to be reached by said first object, referred to as first object destination information; • determining information representing a movement to be made by said first object, referred to as first object movement information, said determination taking into account: - at least said first object destination information; and - at least one piece of information representing the position of a second user terminal with which a second user associated with a second autonomous mobile object of said fleet is equipped, referred to as second user position information, and information representing the position of said second autonomous mobile object, referred to as second object position information; - at least said first object destination information; and - at least one piece of information representing the position of a second user terminal with which a second user associated with a second autonomous mobile object of said fleet is equipped, referred to as second user position information, and information representing the position of said second autonomous mobile object, referred to as second object position information; • transmitting said first object movement information to said first object, said second user position information and said second object position information corresponding to data enabling the position of the second user and of the second object to be respectively determined.
Planococcus maritimus XJ2, identified as CGMCC NO. 17057.