mhurhangee/patent-ind-claim-en huggingface dataset:
A group-based communication server for building and rendering a message user interface (UI) within a group-based communication interface of a group-based communication system, the server comprising at least one processor and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the server to: receive, from an external application server , user message data associated with the group-based communication interface to be rendered to a client device ; parse the user message data to identify a message UI triggering event, wherein the message UI triggering event is associated with the client device; wherein, if the message UI triggering event is identified among the user message data, determine, based on the message UI triggering event, a customizable block configuration to define the message UI that is rendered within the group-based communication interface, transmit a customizable block request to the external application server associated with the customizable block configuration, receive customizable block data from the external application server associated with the customizable block request, and transmit, to the client device, data for rendering the message UI within the group-based communication interface based on the customizable block configuration and on the customizable block data. receive, from an external application server , user message data associated with the group-based communication interface to be rendered to a client device ; parse the user message data to identify a message UI triggering event, wherein the message UI triggering event is associated with the client device; wherein, if the message UI triggering event is identified among the user message data, determine, based on the message UI triggering event, a customizable block configuration to define the message UI that is rendered within the group-based communication interface, transmit a customizable block request to the external application server associated with the customizable block configuration, receive customizable block data from the external application server associated with the customizable block request, and transmit, to the client device, data for rendering the message UI within the group-based communication interface based on the customizable block configuration and on the customizable block data. determine, based on the message UI triggering event, a customizable block configuration to define the message UI that is rendered within the group-based communication interface, transmit a customizable block request to the external application server associated with the customizable block configuration, receive customizable block data from the external application server associated with the customizable block request, and transmit, to the client device, data for rendering the message UI within the group-based communication interface based on the customizable block configuration and on the customizable block data.
A soundproof member , comprising: a first elastic porous body layer ; a first film layer ; a second elastic porous body layer ; and a second film layer , the layers being arranged in the stated order from a sound source side, wherein the first elastic porous body layer and the second elastic porous body layer each have: a thickness of 0.5 mm or more and 10 mm or less; a bulk density of 25 kg/m 3 or more and 2,000 kg/m 3 or less; and a Young's modulus of 7,000 Pa or more and 28,000 Pa or less, and characterized in that a total, L1/Λ1 + L2/Λ2, of a ratio, L1/Λ1, of the thickness L1, in mm, of the first elastic porous body layer to a viscous characteristic length Λ1, in μm, thereof and a ratio, L2/Λ2, of the thickness L2, in mm, of the second elastic porous body layer to a viscous characteristic length Λ2 , in μm, thereof is 0.11 or more, and wherein a ratio of the bulk density of the second elastic porous body layer to the bulk density of the first elastic porous body layer is 0.8 or more and 1.1 or less. a first elastic porous body layer ; a first film layer ; a second elastic porous body layer ; and a second film layer , the layers being arranged in the stated order from a sound source side, wherein the first elastic porous body layer and the second elastic porous body layer each have: a thickness of 0.5 mm or more and 10 mm or less; a bulk density of 25 kg/m 3 or more and 2,000 kg/m 3 or less; and a Young's modulus of 7,000 Pa or more and 28,000 Pa or less, and a thickness of 0.5 mm or more and 10 mm or less; a bulk density of 25 kg/m 3 or more and 2,000 kg/m 3 or less; and a Young's modulus of 7,000 Pa or more and 28,000 Pa or less, and characterized in that a total, L1/Λ1 + L2/Λ2, of a ratio, L1/Λ1, of the thickness L1, in mm, of the first elastic porous body layer to a viscous characteristic length Λ1, in μm, thereof and a ratio, L2/Λ2, of the thickness L2, in mm, of the second elastic porous body layer to a viscous characteristic length Λ2 , in μm, thereof is 0.11 or more, and wherein a ratio of the bulk density of the second elastic porous body layer to the bulk density of the first elastic porous body layer is 0.8 or more and 1.1 or less.
An iron-based sintered sliding member consisting of: S: 0.2 to 3.24 mass%, Cu: 3 to 10 mass%, and boron oxides, wherein the boron oxides are obtained by adding 0.1 to 3.0 mass% of at least one powder selected from boric acid, borates, nitrides of boron, halides of boron, oxides of boron, sulfides of boron and hydrides of boron with respect to the raw material powder, C: 0.2 to 3 mass%, optionally, at least one of Ni and Mo: respectively 10 mass% or less, remainder: Fe and inevitable impurities, including 0.02 to 1.2 mass% of Mn, as an overall composition, wherein the metallic structure comprises a base in which sulfide particles mainly consisting of iron sulfide are uniformly segregated and dispersed in the base including inside of the particles of powder, and pores, part of or all of the C is dispersed in the pores as graphite, wherein the base is constructed by a structure of ferrite, pearlite or bainite, or a mixed structure of at least two of these phases, or ferrite, pearlite or bainite in which a copper phase is dispersed, or a mixed structure of at least two of these phases in which the copper phase is dispersed, and wherein the sulfide particles are dispersed at a ratio of 0.8 to 15 vol% versus the base, and in the sulfide particles, a total area of the sulfide particles having 10 μm or more of maximal particle diameter in a circle-equivalent diameter accounts 30 % or more of a total area of entire of the sulfide particles. S: 0.2 to 3.24 mass%, Cu: 3 to 10 mass%, and boron oxides, wherein the boron oxides are obtained by adding 0.1 to 3.0 mass% of at least one powder selected from boric acid, borates, nitrides of boron, halides of boron, oxides of boron, sulfides of boron and hydrides of boron with respect to the raw material powder, C: 0.2 to 3 mass%, optionally, at least one of Ni and Mo: respectively 10 mass% or less, remainder: Fe and inevitable impurities, including 0.02 to 1.2 mass% of Mn, as an overall composition, wherein the metallic structure comprises a base in which sulfide particles mainly consisting of iron sulfide are uniformly segregated and dispersed in the base including inside of the particles of powder, and pores, part of or all of the C is dispersed in the pores as graphite, wherein the base is constructed by a structure of ferrite, pearlite or bainite, or a mixed structure of at least two of these phases, or ferrite, pearlite or bainite in which a copper phase is dispersed, or a mixed structure of at least two of these phases in which the copper phase is dispersed, and wherein the sulfide particles are dispersed at a ratio of 0.8 to 15 vol% versus the base, and in the sulfide particles, a total area of the sulfide particles having 10 μm or more of maximal particle diameter in a circle-equivalent diameter accounts 30 % or more of a total area of entire of the sulfide particles.
A display device comprising: a substrate having a plurality of pixels (SP1, SP2, SP3); wherein each of the plurality of pixels (SP1, SP2, SP3) includes at least one light emitting chip , a structure on one side of at least one of the plurality of pixels (SP1, SP2, SP3), characterized in that a base material of the light emitting chip is the same as a base material of the structure and wherein the structure is an alignment key for disposition of the light emitting chip on the substrate . a substrate having a plurality of pixels (SP1, SP2, SP3); wherein each of the plurality of pixels (SP1, SP2, SP3) includes at least one light emitting chip , a structure on one side of at least one of the plurality of pixels (SP1, SP2, SP3), characterized in that a base material of the light emitting chip is the same as a base material of the structure and wherein the structure is an alignment key for disposition of the light emitting chip on the substrate .
Terminal-forming bushing for metal-ion electrochemical cell, produced through an orifice emerging on either side of a wall comprising two opposing faces , comprising: - a closure means , bearing against the chamfer of at least one emerging passage forming a seat inside the bushing, - a compression means housed in the emerging conduit, the compression means being adapted to keep the closure means pressed against its seat on a continuous peripheral surface, up to a predetermined pressure of the gases prevailing inside the cell, beyond which the latter can escape to the outside of the cell through the passage and the emerging conduit, - the closure means being a ball , the compression means being adapted on the one hand to allow the passage of the end of a tool so as to allow an initial plastic deformation of the ball by pressing against its seat and, on the other hand, to keep the deformed ball pressed against its seat up to the predetermined pressure of the gases prevailing inside the cell, beyond which the latter can escape toward the outside of the cell. - a closure means , bearing against the chamfer of at least one emerging passage forming a seat inside the bushing, - a compression means housed in the emerging conduit, the compression means being adapted to keep the closure means pressed against its seat on a continuous peripheral surface, up to a predetermined pressure of the gases prevailing inside the cell, beyond which the latter can escape to the outside of the cell through the passage and the emerging conduit, - the closure means being a ball , the compression means being adapted on the one hand to allow the passage of the end of a tool so as to allow an initial plastic deformation of the ball by pressing against its seat and, on the other hand, to keep the deformed ball pressed against its seat up to the predetermined pressure of the gases prevailing inside the cell, beyond which the latter can escape toward the outside of the cell.
A method for detection of a failure of a protective fuse used to protect an associated load against overcurrent and/or against overload, the method comprising the steps of: - measuring (S A ) an electrical current, I, flowing through the protective fuse to said load by means of a current sensor element ; - determining (S B ) a thermal energy generated in the protective fuse depending on the measured electrical current I; wherein the method is characterised by - detecting (S C ) automatically a failure of the protective fuse if the determined thermal energy exceeds a predetermined threshold value and if the electrical current, I, measured by the current sensor element has stopped to flow through said protective fuse . - measuring (S A ) an electrical current, I, flowing through the protective fuse to said load by means of a current sensor element ; - determining (S B ) a thermal energy generated in the protective fuse depending on the measured electrical current I; wherein the method is characterised by - detecting (S C ) automatically a failure of the protective fuse if the determined thermal energy exceeds a predetermined threshold value and if the electrical current, I, measured by the current sensor element has stopped to flow through said protective fuse .
A method of controlling an image acquisition apparatus comprising a fluorescence microscope arrangement to acquire a fluorescence in situ hybridization, FISH, probe image of a sample labeled with a FISH probe, the method comprising: setting an exposure for acquiring a FISH probe image to an initial value, wherein the initial exposure value is set so as to acquire an underexposed FISH probe image (S23); acquiring a FISH probe image with the set value of the exposure (S24); image processing the FISH probe image by applying at least one morphological operator to identify areas of interest around locations of elevated image intensity, and then generating a FISH probe image mask for filtering out all but the areas of interest (S25); applying the mask to the FISH probe image to determine image intensity in the areas of interest (S25); determining if the image intensity has a desired intensity value which indicates correct exposure of the FISH probe image (S26), and if 'yes' then generating and saving a FISH record including a correctly exposed FISH probe image (S29), and if 'no' then adjusting the exposure value (S28), wherein adjusting the exposure value consists of increasing its value, and iterating the method with the adjusted value of the exposure so that the exposure value is successively increased from the initial value as the method iterates. setting an exposure for acquiring a FISH probe image to an initial value, wherein the initial exposure value is set so as to acquire an underexposed FISH probe image (S23); acquiring a FISH probe image with the set value of the exposure (S24); image processing the FISH probe image by applying at least one morphological operator to identify areas of interest around locations of elevated image intensity, and then generating a FISH probe image mask for filtering out all but the areas of interest (S25); applying the mask to the FISH probe image to determine image intensity in the areas of interest (S25); determining if the image intensity has a desired intensity value which indicates correct exposure of the FISH probe image (S26), and if 'yes' then generating and saving a FISH record including a correctly exposed FISH probe image (S29), and if 'no' then adjusting the exposure value (S28), wherein adjusting the exposure value consists of increasing its value, and iterating the method with the adjusted value of the exposure so that the exposure value is successively increased from the initial value as the method iterates.
A thin film heater cooking appliance comprising at least one thin film heating cooker , said at least one thin film heating cooker comprising a plurality of thin film heating elements forming a two-dimensional web of neighboring thin film heating elements and at last one sensor unit in the form of an inductive sensor , a capacitive sensor , an optic sensor or a load sensor , each of said thin film heating elements being supplied power by a busbar characterized in that; a coated base is provided such that each thin film heating element is placed on an anodization layer so as to be at least partially delimited by two busbars at different co-planar sides relative to said thin film heating element and, each thin film heating element is configured to be interposed between said anodization layer and an upper glass surface in the manner that said anodization layer covers both lower surface of said thin film heating element and lower surfaces of said two busbars in their entireties.
A method for a user equipment to transmit control information in a wireless communication system, the method comprising: determining a maximum payload size for a uplink control information, UCI, payload, wherein the maximum payload size is determined based on a number of symbols allocated for a physical uplink control channel, PUCCH, format 4, wherein the number of symbols allocated for the PUCCH format 4 is variable; reducing a size of channel state information, CSI, based on the determined maximum payload size; and transmitting the UCI payload via the symbols allocated for the PUCCH format 4, wherein the UCI payload includes hybrid ARQ acknowledgement, HARQ-ACK, information and the reduced size of the CSI, wherein, based on the determined maximum payload size, the HARQ-ACK information is bundled when the PUCCH format 4 is configured based on an extended cyclic prefix, CP, and the HARQ-ACK information is not bundled when the PUCCH format 4 is configured based on a normal CP. determining a maximum payload size for a uplink control information, UCI, payload, wherein the maximum payload size is determined based on a number of symbols allocated for a physical uplink control channel, PUCCH, format 4, wherein the number of symbols allocated for the PUCCH format 4 is variable; reducing a size of channel state information, CSI, based on the determined maximum payload size; and transmitting the UCI payload via the symbols allocated for the PUCCH format 4, wherein the UCI payload includes hybrid ARQ acknowledgement, HARQ-ACK, information and the reduced size of the CSI, wherein, based on the determined maximum payload size, the HARQ-ACK information is bundled when the PUCCH format 4 is configured based on an extended cyclic prefix, CP, and the HARQ-ACK information is not bundled when the PUCCH format 4 is configured based on a normal CP.
A spring brake actuator for a vehicle, in particular a utility vehicle, comprises - a housing , - a diaphragm arranged to form a pressure chamber and a non-pressure chamber in the housing , - a pushrod plate being arranged in the non-pressure chamber , and - a pushrod adapted to couple to an external member of a brake arrangement , wherein - the diaphragm comprises a projection , and - the pushrod plate comprises a hole adapted to engage with the projection , characterized in that - the projection comprises non-circular projection cross-section and the hole comprises a non-circular hole cross-section . - a housing , - a diaphragm arranged to form a pressure chamber and a non-pressure chamber in the housing , - a pushrod plate being arranged in the non-pressure chamber , and - a pushrod adapted to couple to an external member of a brake arrangement , wherein - the diaphragm comprises a projection , and - the pushrod plate comprises a hole adapted to engage with the projection , characterized in that - the projection comprises non-circular projection cross-section and the hole comprises a non-circular hole cross-section .
A sheet material dispenser comprising an operation trigger and a rotatable drum for frictionally engaging sheet material to be dispensed, in which said rotatable drum is rotatable through 360 degrees, in which said operation trigger is manually movable in a first direction from a stand-by position to a depressed position, in which said dispenser comprises a return spring which drives said operation trigger in a second direction from said depressed position to said stand-by position, and in which said operation trigger comprises a releasable engagement mechanism which engages said drum and rotates it only when said operation trigger is moved in said second direction, wherein said drum comprises a spring loaded drive mechanism which rotates the drum through part of said 360 degrees from a launch angle to a start position, in which said drum is manually rotatable from said start position to said launch angle, and in which movement of said operation trigger from said depressed position to said stand-by position rotates said drum from said start position to said launch angle, to allow further rotation of said drum by said spring loaded drive mechanism from said launch angle back to said start position, in which said drum comprises a ratchet cogwheel at a first end thereof, in which said operation trigger comprises a rack of angled teeth which engage said ratchet cogwheel and rotate it when said operation trigger is moved in said second direction towards said stand-by position, and in which said ratchet cogwheel and said rack of angled teeth are disengaged from one another in said stand-by position.
A carbon composite comprising: carbon microstructures having interstitial space between the carbon microstructures ; and a binder disposed in at least some of the interstitial space ; wherein the carbon microstructures comprise unfilled voids within the carbon microstructures , the largest dimension of each of the carbon microstructures is 5 to 500 microns, the carbon microstructures comprise microstructures of graphite, and the carbon microstructures have an aspect ratio of 10 to 500, characterised in that the unfilled voids within the carbon microstructures have a size of 20 nm to 1 micron, wherein the size of the unfilled voids is the largest dimension of the unfilled voids and can be determined by high resolution electron or atomic force microscope technology. carbon microstructures having interstitial space between the carbon microstructures ; and a binder disposed in at least some of the interstitial space ; wherein the carbon microstructures comprise unfilled voids within the carbon microstructures , the largest dimension of each of the carbon microstructures is 5 to 500 microns, the carbon microstructures comprise microstructures of graphite, and the carbon microstructures have an aspect ratio of 10 to 500, characterised in that the unfilled voids within the carbon microstructures have a size of 20 nm to 1 micron, wherein the size of the unfilled voids is the largest dimension of the unfilled voids and can be determined by high resolution electron or atomic force microscope technology.
An electronic device comprising: a registration interface configured to register device data corresponding to a plurality of remote controllable devices; a position locator configured to determine position data corresponding to a position of the electronic device; an orientation interface configured to receive, from a headset worn by a user, orientation data corresponding to an orientation of the headset as detected by a sensor of the headset and indicative of which one of the plurality of remote controllable devices the user is facing; and a controller configured to select a remote controlled device to be controlled from among the plurality of remote controllable devices (20a-c), the selection being based on the device data, the position data, and the orientation data. a registration interface configured to register device data corresponding to a plurality of remote controllable devices; a position locator configured to determine position data corresponding to a position of the electronic device; an orientation interface configured to receive, from a headset worn by a user, orientation data corresponding to an orientation of the headset as detected by a sensor of the headset and indicative of which one of the plurality of remote controllable devices the user is facing; and a controller configured to select a remote controlled device to be controlled from among the plurality of remote controllable devices (20a-c), the selection being based on the device data, the position data, and the orientation data.
A method for controlling and/or regulating a clutch with a friction system, in particular a clutch for an automatic or automatable transmission of a motor vehicle, wherein a clutch torque of the clutch can be controlled and/or regulated and, after the adjustment of a clutch torque, a slip initially arises at the clutch, wherein when a change in the friction system is detected, which is expressed in that the actual slip initially exceeds a limit value for a maximum permissible maximum slip and the actual slip then becomes less than a particular setpoint slip for a particular minimum time period (Δt), a control and/or regulation strategy adapted to the change in the friction system is activated.