mhurhangee/ep-ind-claims huggingface dataset:
A steam oven for an aircraft galley, comprising: a pipeline for supplying fluid comprising water or steam to a food preparation chamber of the steam oven, the pipeline being configured to receive water or steam from a source external to the steam oven; a valve configured to regulate the flow of said fluid through the pipeline, the valve having an open state in which the valve permits the flow of said fluid through the pipeline and a closed state in which the valve prevents the flow of said fluid through the pipeline; and a control unit configured to actuate the valve between the open and closed states; characterised in that: the valve comprises a sensor configured to detect an actual state of the valve, the sensor being independent of the control unit; wherein the valve and the sensor are configured to receive power from separate and independent power supplies. a pipeline for supplying fluid comprising water or steam to a food preparation chamber of the steam oven, the pipeline being configured to receive water or steam from a source external to the steam oven; a valve configured to regulate the flow of said fluid through the pipeline, the valve having an open state in which the valve permits the flow of said fluid through the pipeline and a closed state in which the valve prevents the flow of said fluid through the pipeline; and a control unit configured to actuate the valve between the open and closed states; characterised in that: the valve comprises a sensor configured to detect an actual state of the valve, the sensor being independent of the control unit; wherein the valve and the sensor are configured to receive power from separate and independent power supplies. the valve comprises a sensor configured to detect an actual state of the valve, the sensor being independent of the control unit; wherein the valve and the sensor are configured to receive power from separate and independent power supplies.
A pneumatic tire comprising a tire tread portion comprising: a plurality of main grooves extending in a tire circumferential direction; a plurality of transverse grooves extending in a direction which intersects with the main grooves; a plurality of land portion rows formed by arranging a plurality of land portions formed by the main grooves and the transverse grooves in the tire circumferential direction, characterized in that assuming a tire circumferential length of an element formed of each land portion and the transverse groove disposed adjacently to said each land portion on one side in the tire circumferential direction as a pitch length, the number of pitches which is the number of the elements in each land portion row over the whole circumference of the tire as N, and the number of land portion rows as L, each land portion row includes the elements having plural kinds of pitch lengths, and at least one land portion row includes the elements which differ in pitch length from the elements of other land portion rows, and the number of kinds j of pitch lengths over the whole tire tread portion is set to N/4 or more and N×L or less, and assuming the pitch lengths over the whole tire tread portion in a descending order as P 1, P 2,..., P j and t as an integer of 2 to j, a relationship of P t-1 /P t <1.050 and a relationship of 1.60≤P 1 /P j <2.00 are satisfied. a plurality of main grooves extending in a tire circumferential direction; a plurality of transverse grooves extending in a direction which intersects with the main grooves; a plurality of land portion rows formed by arranging a plurality of land portions formed by the main grooves and the transverse grooves in the tire circumferential direction, characterized in that assuming a tire circumferential length of an element formed of each land portion and the transverse groove disposed adjacently to said each land portion on one side in the tire circumferential direction as a pitch length, the number of pitches which is the number of the elements in each land portion row over the whole circumference of the tire as N, and the number of land portion rows as L, each land portion row includes the elements having plural kinds of pitch lengths, and at least one land portion row includes the elements which differ in pitch length from the elements of other land portion rows, and the number of kinds j of pitch lengths over the whole tire tread portion is set to N/4 or more and N×L or less, and assuming the pitch lengths over the whole tire tread portion in a descending order as P 1, P 2,..., P j and t as an integer of 2 to j, a relationship of P t-1 /P t <1.050 and a relationship of 1.60≤P 1 /P j <2.00 are satisfied.
A dehumidification system for a laundry appliance comprising: a blower that delivers humid process air along an airflow path; a drum positioned along the airflow path; a condensing apparatus that dehumidifies the humid air to define dehumidified air; and a membrane having a plurality of nanopores that define a portion of the airflow path within the condensing apparatus, wherein the humid air is delivered along the membrane having the plurality of nanopores and the nanopores operate through capillary condensation to dehumidify the humid air and separate condensate away from the humid air to define the dehumidified air, and wherein the condensate removed by the nanopore membrane is delivered away from the airflow path and to a condensate collection area within the laundry appliance, characterized in that the nanopore membrane is disposed in a tube shape that defines an air conduit, wherein the air conduit forms a portion of the airflow path within the condensing apparatus, wherein the condensing apparatus includes a plurality of nanopore conduits that include the nanopore membrane. a blower that delivers humid process air along an airflow path; a drum positioned along the airflow path; a condensing apparatus that dehumidifies the humid air to define dehumidified air; and a membrane having a plurality of nanopores that define a portion of the airflow path within the condensing apparatus, wherein the humid air is delivered along the membrane having the plurality of nanopores and the nanopores operate through capillary condensation to dehumidify the humid air and separate condensate away from the humid air to define the dehumidified air, and wherein the condensate removed by the nanopore membrane is delivered away from the airflow path and to a condensate collection area within the laundry appliance, characterized in that the nanopore membrane is disposed in a tube shape that defines an air conduit, wherein the air conduit forms a portion of the airflow path within the condensing apparatus, wherein the condensing apparatus includes a plurality of nanopore conduits that include the nanopore membrane.
A stereoscopic display apparatus comprising means for producing display images in mutually different angular directions, comprising sub-pixels which are laterally separated by non-emitting areas, wherein the sub-pixels are arranged in columns, wherein all sub-pixels in a same column have a same color, and a plurality of lenticular lenses each overlying part of the sub-pixels and slanted with a slant angle (α) to the columns, characterised in that M i = a − i ∗ k; M j = ab − j ∗ k; a = p x p y tan α; b = p l p x wherein: p x is the pitch of a sub-pixel in the x-direction p y is the pitch of a sub-pixel in the y-direction p l is the pitch of a lens in the x-direction a is the normalised slant b is the normalised pitch of a lens tan(α) = 1/5 and wherein the parameters k, i*, j* are integer numbers which can be chosen in a combination as indicated in Figure 16 such that, in combination of certain values of a and b, the parameters M i ∈ Z and M j ∈ Z. p x is the pitch of a sub-pixel in the x-direction p y is the pitch of a sub-pixel in the y-direction p l is the pitch of a lens in the x-direction a is the normalised slant b is the normalised pitch of a lens tan(α) = 1/5 and wherein the parameters k, i*, j* are integer numbers which can be chosen in a combination as indicated in Figure 16 such that, in combination of certain values of a and b, the parameters M i ∈ Z and
A power module comprising: a sealing body including a semiconductor element having a plurality of electrode surfaces, a first conductor plate (315; 316) connected to one electrode surface of the semiconductor element via solder, and a sealing material for sealing the semiconductor element and the first conductor plate, the sealing body having at least a first surface and a second surface on an opposite side of the first surface; and a case for housing the sealing body, wherein the case is configured by a first heat radiation plate opposed to the first surface of the sealing body, a second heat radiation plate opposed to the second surface of the sealing body, and an intermediate member that connects the first heat radiation plate and the second heat radiation plate, characterised in that, the intermediate member has a first thin section having thickness smaller than thickness of the first heat radiation plate, more easily elastically deformed than the first heat radiation plate, and formed to surround the first heat radiation plate, and the sealing body is pressed against and fixed to the second heat radiation plate via the first heat radiation plate by elastic force generated in the first thin section. a sealing body including a semiconductor element having a plurality of electrode surfaces, a first conductor plate (315; 316) connected to one electrode surface of the semiconductor element via solder, and a sealing material for sealing the semiconductor element and the first conductor plate, the sealing body having at least a first surface and a second surface on an opposite side of the first surface; and a case for housing the sealing body, wherein the case is configured by a first heat radiation plate opposed to the first surface of the sealing body, a second heat radiation plate opposed to the second surface of the sealing body, and an intermediate member that connects the first heat radiation plate and the second heat radiation plate, characterised in that, the intermediate member has a first thin section having thickness smaller than thickness of the first heat radiation plate, more easily elastically deformed than the first heat radiation plate, and formed to surround the first heat radiation plate, and the sealing body is pressed against and fixed to the second heat radiation plate via the first heat radiation plate by elastic force generated in the first thin section.
A triazine ring-containing hyperbranched polymer characterized by comprising a recurring unit structure of formula below Wherein R and R' are each independently a hydrogen atom or an alkyl, alkoxy, aryl or aralkyl group; and A is at least one moiety selected from the moieties of formulas to: R 1 and R 2 being each independently an alkylene group, which may have a branched structure, of 1 to 5 carbons.
A latching system configured to selectively latch and unlatch a first component in relation to a second component, the latching system comprising: an actuator; a first coupler secured to the actuator; a latch; and a second coupler secured to the latch, wherein the first coupler is configured to couple to the second coupler to couple the actuator to the latch, and wherein the first coupler is configured to uncouple from the second coupler to uncouple the actuator from the latch in response to the latch being manually operated. an actuator; a first coupler secured to the actuator; a latch; and a second coupler secured to the latch, wherein the first coupler is configured to couple to the second coupler to couple the actuator to the latch, and wherein the first coupler is configured to uncouple from the second coupler to uncouple the actuator from the latch in response to the latch being manually operated.
A method for wireless communication by a user equipment, comprising: receiving, at the user equipment, first information indicating: (i) an overall power limit for communicating on uplinks by the user equipment in any time slot, (ii) a first power limit for communicating on an uplink associated with a first radio access technology, and (iii) a second power limit for communicating on an uplink associated with a second radio access technology, the first information provided by at least one base station; receiving, at the user equipment, second information indicating scheduling of the user equipment to communicate on both the uplink associated with the first radio access technology and on the uplink associated with the second radio access technology in a first time slot; determining whether a sum of the first power limit and the second power limit is greater than the overall power limit in the first time slot during which both the uplink associated with the first radio access technology and on the uplink associated with the second radio access technology are being scheduled; communicating, by the user equipment, on the uplink associated with the second radio access technology based on the second power limit during the first time slot; and scaling down power used for a transmission on the uplink associated with the first radio access technology during the first time slot or dropping the transmission on the uplink associated with the first radio access technology during the first time slot when the sum is greater than the overall power limit. receiving, at the user equipment, first information indicating: (i) an overall power limit for communicating on uplinks by the user equipment in any time slot, (ii) a first power limit for communicating on an uplink associated with a first radio access technology, and (iii) a second power limit for communicating on an uplink associated with a second radio access technology, the first information provided by at least one base station; receiving, at the user equipment, second information indicating scheduling of the user equipment to communicate on both the uplink associated with the first radio access technology and on the uplink associated with the second radio access technology in a first time slot; determining whether a sum of the first power limit and the second power limit is greater than the overall power limit in the first time slot during which both the uplink associated with the first radio access technology and on the uplink associated with the second radio access technology are being scheduled; communicating, by the user equipment, on the uplink associated with the second radio access technology based on the second power limit during the first time slot; and scaling down power used for a transmission on the uplink associated with the first radio access technology during the first time slot or dropping the transmission on the uplink associated with the first radio access technology during the first time slot when the sum is greater than the overall power limit.
A method for establishing a communications session between first and second devices (110, 130), the method performed at a network server and comprising: generating a coded image for display at a first device connected to the network server, the coded image including embedded data used to authenticate a second device at the network server; sending the coded image to the first device for display to the second device; receiving, from the second device, the embedded data extracted from the displayed coded image by the second device; and authenticating the second device to perform one or more protected functions based on the received embedded data, wherein based on the authentication result, the method further comprises: establishing a data channel between the first and second devices (110, 130) to communicate data from the second device to the first device; and establishing a control channel between the first and second devices (110, 130) to communicate control commands from the second device to the first device to allow the second device to control rendering the data at the first device. generating a coded image for display at a first device connected to the network server, the coded image including embedded data used to authenticate a second device at the network server; sending the coded image to the first device for display to the second device; receiving, from the second device, the embedded data extracted from the displayed coded image by the second device; and authenticating the second device to perform one or more protected functions based on the received embedded data, establishing a data channel between the first and second devices (110, 130) to communicate data from the second device to the first device; and establishing a control channel between the first and second devices (110, 130) to communicate control commands from the second device to the first device to allow the second device to control rendering the data at the first device.
A metal connector or adaptor for hydraulic or oil dynamic application at high pressure, comprising electrolytic passivated zinc plating free from hexavalent chromium, characterised in that said zinc plating comprises an external trivalent chromium passivation layer sealed with at least one silicon compound, said passivation layer having a coloration immediately identifiable in relation to their specific galvanic corrosion resistance properties.
Sliding door system having a frame (1, 10, 11) which accommodates several sliding door elements (12, 13, 14) which can be moved horizontally along the frame (1, 10, 11), wherein the sliding door elements (12, 13, 14) have at the top and/or at the bottom bearings, in particular track rollers and/or sliders, by means of which they are movably supported in an upper guide rail and/or in a lower guide rail of the frame (1, 10, 11) and wherein the frame (1, 10, 11) has at least one damper arrangement (3, 30) which damps and limits the movement of a sliding door element (12, 13, 14) in the direction towards an end position of the sliding door element (12, 13, 14), wherein the damper arrangement (3, 30) has an entrainment member which protrudes into the path of movement of the sliding door element (12, 13, 14) and is positioned such as to come into engagement with the sliding door element (12, 13, 14), and wherein the damper arrangement (3, 30) is mounted in a spring-elastic manner on the frame (1, 10), characterised in that the damper arrangement (3, 30) is arranged on a rail (2, 21), wherein the rail (2, 21) is suspended by means of two springs (4, 5) in a spring-elastic manner on the frame (1, 10), wherein a first end of the rail (2, 21) is fixed indirectly or directly in a spring-elastic manner to the frame (1, 10) and a second end of the rail (2, 21) is coupled indirectly or directly in a spring-elastic manner with the frame (1, 10), wherein the damper arrangement (3, 30) as a whole can be moved in a vertical direction upwardly on the frame (1, 10) by compressing the two springs (4, 5).
Module assembly for a headlight with at least one semiconductor light module that is fastened to a carrier frame, where the semiconductor light module comprises a heat sink with at lease one semiconductor light source fastened to the heat sink, where the carrier frame features at least one ball socket in which the semiconductor light module with the heat sink sits such that it can be pivoted around a ball socket center point, where the heat sink features a ball joint that is formed such as to sit in the ball socket in the carrier frame, characterized in that a guide shell element is provided that is arranged between the ball joint and the ball socket, where the ball joint is designed to slip in the guide shell element to create a pivoting movement on the part of the semiconductor light module around a Y-axis at a right angle to the light propagation direction and where a guide rib is arranged on the ball joint that sits in a guide groove in the guide shell element for guiding the pivoting movement around the Y-axis.
An apparatus comprising a processor and a memory (130, 132), the apparatus further including computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus, cause the apparatus to: receive a configuration for monitoring potential preemption occasions; receive a URLLC Preemption Radio Network Identifier, UP-RNTI, for identifying a preemption indication message, wherein the UP-RNTI is assigned to a group of devices; monitor at least one preconfigured occasion for a preemption indication on a group-common physical downlink, DL, control channel; determine that the apparatus is a valid recipient of the preemption indication upon detecting the preemption indication with the UP-RNTI based on the preemption indication, identify a second resource out of first resources for a first transmission, the second resource being preempted for a second transmission; and receive retransmission resources for a retransmission of one or more preempted resources for the first transmission. receive a configuration for monitoring potential preemption occasions; receive a URLLC Preemption Radio Network Identifier, UP-RNTI, for identifying a preemption indication message, wherein the UP-RNTI is assigned to a group of devices; monitor at least one preconfigured occasion for a preemption indication on a group-common physical downlink, DL, control channel; determine that the apparatus is a valid recipient of the preemption indication upon detecting the preemption indication with the UP-RNTI based on the preemption indication, identify a second resource out of first resources for a first transmission, the second resource being preempted for a second transmission; and receive retransmission resources for a retransmission of one or more preempted resources for the first transmission.