mhurhangee/patent-ind-claim-en huggingface dataset:
An ingestible device , comprising: a storage reservoir in a housing ; a dispensable substance in the storage reservoir ; a nozzle in the housing ; a force generator component in the housing , wherein the force generator component is a pre-pressurized gas chamber that is pressurized to a target pressure during manufacture and is configured so that, when the force generator component generates a force, the dispensable substance exits the ingestible device via the nozzle, wherein the force generator component is configured to generate a pressure of 100-360 psi to release the dispensable substance with a force to penetrate a mucosa membrane or epithelial layer; and an occluder having a first state configured to prevent the dispensable substance from exiting the ingestible device via the nozzle; and the occluder having a second state configured to allow the dispensable substance to exit the ingestible device via the nozzle. a storage reservoir in a housing ; a dispensable substance in the storage reservoir ; a nozzle in the housing ; a force generator component in the housing , wherein the force generator component is a pre-pressurized gas chamber that is pressurized to a target pressure during manufacture and is configured so that, when the force generator component generates a force, the dispensable substance exits the ingestible device via the nozzle, wherein the force generator component is configured to generate a pressure of 100-360 psi to release the dispensable substance with a force to penetrate a mucosa membrane or epithelial layer; and an occluder having a first state configured to prevent the dispensable substance from exiting the ingestible device via the nozzle; and the occluder having a second state configured to allow the dispensable substance to exit the ingestible device via the nozzle.
Method for transmitting messages in a data bus system, wherein the messages can be transmitted in the form of data frames by means of a data bus (H, L) and a data frame that is to be sent by a bus subscriber is checked for a piece of changeover information (BRS), whereby changeover of the rise time and/or edge shape of edges of bit pulses of the data frame that is to be sent is performed on the basis of the presence of a defined value of the piece of changeover information (BRS), characterized in that the changeover is performed within the data frame that is to be sent, wherein various rise times and/or edge shapes are realized in the data frame that is to be sent, wherein the changeover is performed by means of a transceiver associated with the bus subscriber, wherein said transceiver comprises an output driver to send data to said data bus, a receiver to receive data from the data bus and a decoder that can be used to decode data frames read by the receiver and the data frame that is to be sent is being sent by the output driver is checked for the piece of changeover information (BRS) by means of the decoder decoding said data being sent by the output driver and received by the receiver at the same time, wherein the decoder outputs a control signal to said output driver for said changeover of the rise time and/or edge shape of edges of bit pulses of the data frame that is to be sent when a value of the piece of changeover information (BRS) is recognized that indicates the changeover that is to be provided.
A system for providing a normalised microcirculatory resistance value for a vessel , the system comprising one or more processors configured to: compute (S110) a microcirculatory resistance value for the vessel based on a transit time (T T ) taken for an injected bolus to travel between a proximal position (Pos a ) in the vessel, and a distal position (Pos d ) in the vessel; and divide (S120) the computed microcirculatory resistance value by a transit length (d T ) representing a length of the vessel between the proximal position (Pos a ) and the distal position (Pos d ), to provide the normalised microcirculatory resistance value. compute (S110) a microcirculatory resistance value for the vessel based on a transit time (T T ) taken for an injected bolus to travel between a proximal position (Pos a ) in the vessel, and a distal position (Pos d ) in the vessel; and divide (S120) the computed microcirculatory resistance value by a transit length (d T ) representing a length of the vessel between the proximal position (Pos a ) and the distal position (Pos d ), to provide the normalised microcirculatory resistance value.
An asphalt composition comprising: a) asphalt, b) a carboxylated copolymer derived from one or more carboxylic acid monomers and one or more ethylenically unsaturated monomers selected from the group consisting of styrene, butadiene, meth(acrylate) monomers, vinyl acetate, vinyl ester monomers, and combinations thereof, c) a polyalkyleneimine present in an amount of greater than 0% to up to 10% by weight of the asphalt composition; and d) a photoinitiator. a) asphalt, b) a carboxylated copolymer derived from one or more carboxylic acid monomers and one or more ethylenically unsaturated monomers selected from the group consisting of styrene, butadiene, meth(acrylate) monomers, vinyl acetate, vinyl ester monomers, and combinations thereof, c) a polyalkyleneimine present in an amount of greater than 0% to up to 10% by weight of the asphalt composition; and d) a photoinitiator.
Hydraulic clutch actuator having a hydraulic pump which has a first and a second pressure outlet , a first pressure connection which is supplied by the first pressure outlet of the hydraulic pump defining a circuit of the first pressure connection , a first proportional valve is arranged in the circuit of the first pressure connection between the first pressure outlet of the hydraulic pump and the first pressure connection , a second pressure connection which is supplied by the second pressure outlet of the hydraulic pump defining a circuit of the second pressure connection , a second proportional valve is arranged in the circuit of the second pressure connection between the second pressure outlet of the hydraulic pump and the second pressure connection , characterized in that a third pressure connection is connected to the second pressure outlet of the hydraulic pump defining a circuit of the third pressure connection , a third proportional valve is arranged in the circuit of the third pressure connection between the second pressure outlet of the hydraulic pump and the third pressure connection , the circuit of the third pressure connection is connected upstream of the second proportional valve of the circuit of the second pressure connection to the second pressure outlet and in that a shut-off valve is arranged in the circuit of the third pressure connection between the second pressure outlet and the third proportional valve .
A pneumatic tire comprising: a tread portion ; and a sponge member extending in a tire circumferential direction over an entire circumference of a tire inner peripheral surface of the tread portion , wherein the sponge member includes at least: a first sponge layer ; a second sponge layer laminated inward of the first sponge layer in a tire radial direction; and a third sponge layer laminated inward of the second sponge layer in the tire radial direction, characterized in that each of the first sponge layer and the third sponge layer has a smaller expansion ratio than an expansion ratio of the second sponge layer . a tread portion ; and a sponge member extending in a tire circumferential direction over an entire circumference of a tire inner peripheral surface of the tread portion , wherein the sponge member includes at least: a first sponge layer ; a second sponge layer laminated inward of the first sponge layer in a tire radial direction; and a third sponge layer laminated inward of the second sponge layer in the tire radial direction, a first sponge layer ; a second sponge layer laminated inward of the first sponge layer in a tire radial direction; and a third sponge layer laminated inward of the second sponge layer in the tire radial direction, characterized in that each of the first sponge layer and the third sponge layer has a smaller expansion ratio than an expansion ratio of the second sponge layer .
A communications device configured to receive signals from an infrastructure equipment of a wireless communications network, the communications device being configured to periodically switch between an active operating mode and a reduced power operating mode in accordance with a discontinuous reception, DRX, operation, the communications device comprising transceiver circuitry (401.1) configured to transmit signals and receive signals via a wireless access interface provided by the wireless communications network, and controller circuitry (401.2) configured to control the transceiver circuitry to monitor for signals transmitted by the infrastructure equipment to the communications device, to receive , from the infrastructure equipment, a dynamic DRX indicator, DDI, the DDI indicating that the DRX operation should be updated by the communications device, and to update the DRX operation in accordance with the received DDI, the communication device being characterized by the DDI indicating that the DRX operation should be updated by a plurality of communications devices including the communications device, each of the plurality of communications devices operating in accordance with the same DRX operation, wherein the DDI indicates that the DRX operation should be updated by the communications device differently to one or more of the others of the plurality of communications devices. transceiver circuitry (401.1) configured to transmit signals and receive signals via a wireless access interface provided by the wireless communications network, and controller circuitry (401.2) configured to control the transceiver circuitry to monitor for signals transmitted by the infrastructure equipment to the communications device, to receive , from the infrastructure equipment, a dynamic DRX indicator, DDI, the DDI indicating that the DRX operation should be updated by the communications device, and to update the DRX operation in accordance with the received DDI, the communication device being characterized by the DDI indicating that the DRX operation should be updated by a plurality of communications devices including the communications device, each of the plurality of communications devices operating in accordance with the same DRX operation, wherein the DDI indicates that the DRX operation should be updated by the communications device differently to one or more of the others of the plurality of communications devices.
An electrolysis cell body for retaining a molten electrolyte bath, comprising: - a bottom; - at least one sidewall, wherein the sidewall comprises: - a first sidewall portion, configured to fit onto a thermal insulation package of the sidewall and retain the molten electrolyte bath; and - a second sidewall portion configured to extend up from the bottom of the cell body, wherein the second sidewall portion is longitudinally spaced from the first sidewall portion, such that the first sidewall portion, the second sidewall portion, and a base between the first sidewall portion and the second sidewall portion define a trough; wherein the trough is configured to receive a protecting deposit and retain the protecting deposit separate from the cell bottom; and wherein the first sidewall portion comprises an anodically polarized sidewall portion, wherein the anodically polarized sidewall portion is configured to be in liquid communication with the molten electrolyte bath. - a bottom; - at least one sidewall, wherein the sidewall comprises: - a first sidewall portion, configured to fit onto a thermal insulation package of the sidewall and retain the molten electrolyte bath; and - a second sidewall portion configured to extend up from the bottom of the cell body, - a first sidewall portion, configured to fit onto a thermal insulation package of the sidewall and retain the molten electrolyte bath; and - a second sidewall portion configured to extend up from the bottom of the cell body, wherein the second sidewall portion is longitudinally spaced from the first sidewall portion, such that the first sidewall portion, the second sidewall portion, and a base between the first sidewall portion and the second sidewall portion define a trough; wherein the trough is configured to receive a protecting deposit and retain the protecting deposit separate from the cell bottom; and wherein the first sidewall portion comprises an anodically polarized sidewall portion, wherein the anodically polarized sidewall portion is configured to be in liquid communication with the molten electrolyte bath.
An in vitro method for diagnosing the presence of an infectious agent in an individual comprising the steps of: obtaining a first expression profile from a blood phagocytic cell from an individual; obtaining a second expression profile from a blood non-phagocytic cell from the individual, wherein the blood non-phagocytic cell is a T cell, a B cell, a null cell, a basophil or any combination thereof; comparing the first and second expression profiles; identifying differential expression of one or more markers specific to the first expression profile; and relating the differential expression of the one or more markers specific to the first expression profile to the presence of an infectious agent in the individual. obtaining a first expression profile from a blood phagocytic cell from an individual; obtaining a second expression profile from a blood non-phagocytic cell from the individual, wherein the blood non-phagocytic cell is a T cell, a B cell, a null cell, a basophil or any combination thereof; comparing the first and second expression profiles; identifying differential expression of one or more markers specific to the first expression profile; and relating the differential expression of the one or more markers specific to the first expression profile to the presence of an infectious agent in the individual.
An electronic device comprising: a front plate ; a display panel disposed in an internal space of the electronic device visible through at least a portion of the front plate ; and a camera module disposed in the internal space and including an image sensor disposed close to the display panel, wherein the display panel comprises: a first area (DA1) having a first pixel density, a second area (DA2) surrounded by the first area (DA1) and having a second pixel density lower than the first pixel density, and a third area (DA3) surrounded by the second area (DA2) and at least partially overlapping a center of the image sensor when viewing the front plate from above, wherein the third area (DA3) having a third pixel density lower than the second pixel density; wherein the third area comprises a camera exposure area where an angle of view of a lens of the camera module is substantially formed, wherein the second pixel density of the second area is determined as a proportion of the first pixel density of the first area smaller than 1-(0.1/minimum optical transmittance of a lens of the camera module ); wherein when a distance of a virtual straight line from the center of the image sensor to a diagonal corner of the image sensor is defined as 1 F, the second area (DA2) is an annulus area having 0.5 F as a small radius and 1 F as a large radius a front plate ; a display panel disposed in an internal space of the electronic device visible through at least a portion of the front plate ; and a camera module disposed in the internal space and including an image sensor disposed close to the display panel, wherein the display panel comprises: a first area (DA1) having a first pixel density, a second area (DA2) surrounded by the first area (DA1) and having a second pixel density lower than the first pixel density, and a third area (DA3) surrounded by the second area (DA2) and at least partially overlapping a center of the image sensor when viewing the front plate from above, wherein the third area (DA3) having a third pixel density lower than the second pixel density; a first area (DA1) having a first pixel density, a second area (DA2) surrounded by the first area (DA1) and having a second pixel density lower than the first pixel density, and a third area (DA3) surrounded by the second area (DA2) and at least partially overlapping a center of the image sensor when viewing the front plate from above, wherein the third area (DA3) having a third pixel density lower than the second pixel density; wherein the third area comprises a camera exposure area where an angle of view of a lens of the camera module is substantially formed, wherein the second pixel density of the second area is determined as a proportion of the first pixel density of the first area smaller than 1-(0.1/minimum optical transmittance of a lens of the camera module ); wherein when a distance of a virtual straight line from the center of the image sensor to a diagonal corner of the image sensor is defined as 1 F, the second area (DA2) is an annulus area having 0.5 F as a small radius and 1 F as a large radius
A method of activating (fig.1) a wireless connection in a space comprising equipment for maintaining an industrial system, the space comprises an access door detecting in detecting means an opening of the access door providing an access to the space, characterized by the method comprising switching on a short-range or medium-range wireless communication network in response to the detection of the opening of the access door, detecting a mobile device provided within the range of the active wireless communication network, and connecting the mobile device to the active wireless communication network in response to the switching-on of the wireless communication network and the detection of the mobile device within the range of the active wireless communication network. detecting in detecting means an opening of the access door providing an access to the space, characterized by the method comprising switching on a short-range or medium-range wireless communication network in response to the detection of the opening of the access door, detecting a mobile device provided within the range of the active wireless communication network, and connecting the mobile device to the active wireless communication network in response to the switching-on of the wireless communication network and the detection of the mobile device within the range of the active wireless communication network.
A transmitter for transmitting video data comprising a transmission section , said transmission section comprising a parser for dividing said video data into at least two classes and dividing each class into one or more blocks, whereby with each class there is associated a different number; said transmission section is adapted to transmit at least one block of each class once on each communication channel of a set of communication channels, the number of communication channels comprised in the respective set being given by the number associated with the respective class; wherein a pixel value is encoded in a number of bits comprising a most significant bit and a least significant bit and whereby said parser is configured to allocate said most significant bit to a first class of said at least two classes and said least significant bit to a second class of said at least two classes, said first class having associated a higher number of communication channels than said second class; and different communication channels correspond to different transmission times and/or different transmit paths (PS1, PS2, P1, P2, P3, P4, P5, P6); characterized in that said video data comprises at least three components, each component corresponding to one dimension of a color representation, a first component of said color representation corresponds to green color, a second component corresponds to red color and a third component corresponds to blue color and whereby in the class having associated the highest number of communication channels the number of bits is higher for said first component than for each of the other components and the number of bits is higher for said second component than for said third component.
Piezoelectric device comprising at least one piezoelectric composite layer P inserted between two conductive composite layers E, each layer E forming an electrode: - the layer P being a rubber composition based: - on more than 50 parts by weight, per hundred parts by weight of elastomer, phr, of diene elastomer, - on a crosslinking system, - on at least 5% by volume, with respect to the total volume of the rubber composition, of piezoelectric inorganic fillers; - each layer E being a rubber composition based: - on at least 50 phr of diene elastomer, - on a crosslinking system, - on conductive fillers; the diene elastomer of the layer P being co-crosslinked with the diene elastomer of each layer E. - the layer P being a rubber composition based: - on more than 50 parts by weight, per hundred parts by weight of elastomer, phr, of diene elastomer, - on a crosslinking system, - on at least 5% by volume, with respect to the total volume of the rubber composition, of piezoelectric inorganic fillers; - on more than 50 parts by weight, per hundred parts by weight of elastomer, phr, of diene elastomer, - on a crosslinking system, - on at least 5% by volume, with respect to the total volume of the rubber composition, of piezoelectric inorganic fillers; - each layer E being a rubber composition based: - on at least 50 phr of diene elastomer, - on a crosslinking system, - on conductive fillers; - on at least 50 phr of diene elastomer, - on a crosslinking system, - on conductive fillers;
A curable organopolysiloxane composition for forming a film, comprising: a curing reactive organopolysiloxane; a curing agent; (D1) reinforcing fine particles or a composite thereof having an average BET specific surface area exceeding 100 m 2 /g, which have been surface treated with one or more organic silicon compounds; and (D2) reinforcing fine particles or a composite thereof having an average BET specific surface area within a range of 10 to 100 m 2 /g, which have been surface treated with one or more organic silicon compounds; wherein the mass ratio of component (D1) and component (D2) is within a range of 50:50 to 99:1, the sum of component (D1) and component (D2) is within a range of 10 to 40 mass% relative to the sum of components in the composition that form a non-volatile solid fraction by a curing reaction, and the viscosity of the entire composition at a shear rate of 10.0 (s -1 ) at 25°C is within a range of 50.0 Pa·s or less. a curing reactive organopolysiloxane; a curing agent; (D1) reinforcing fine particles or a composite thereof having an average BET specific surface area exceeding 100 m 2 /g, which have been surface treated with one or more organic silicon compounds; and (D2) reinforcing fine particles or a composite thereof having an average BET specific surface area within a range of 10 to 100 m 2 /g, which have been surface treated with one or more organic silicon compounds; wherein the mass ratio of component (D1) and component (D2) is within a range of 50:50 to 99:1, the sum of component (D1) and component (D2) is within a range of 10 to 40 mass% relative to the sum of components in the composition that form a non-volatile solid fraction by a curing reaction, and the viscosity of the entire composition at a shear rate of 10.0 (s -1 ) at 25°C is within a range of 50.0 Pa·s or less.