mhurhangee/patent-ind-claim-en huggingface dataset:
An air conditioner, which comprises an outdoor unit and a plurality of indoor units (20; 21-23) connected to the outdoor unit , and which runs a cooling or heating operation, the air conditioner comprising: a compressor for compressing refrigerant; a refrigerant pipe (L3, L4) connected to the compressor ; a temperature sensing part for measuring outdoor temperatures; a vibration sensing part installed in the refrigerant pipe (L3,L4) and for sensing vibration; and a control part that, when a vibration is sensed by the vibration sensing part , analyzes the vibration of the compressor based on data input from the vibration sensing part and registers operating frequency corresponding the vibration as an avoided frequency, and that controls the compressor to run at operating frequencies other than the avoided frequency, wherein the control part detects a change in season based on measured outdoor temperatures from the temperature sensing part , and resets existing avoided frequencies by deleting the same if a change in season is detected, and maintains the existing avoided frequencies if a change in season is not detected. a compressor for compressing refrigerant; a refrigerant pipe (L3, L4) connected to the compressor ; a temperature sensing part for measuring outdoor temperatures; a vibration sensing part installed in the refrigerant pipe (L3,L4) and for sensing vibration; and a control part that, when a vibration is sensed by the vibration sensing part , analyzes the vibration of the compressor based on data input from the vibration sensing part and registers operating frequency corresponding the vibration as an avoided frequency, and that controls the compressor to run at operating frequencies other than the avoided frequency, wherein the control part detects a change in season based on measured outdoor temperatures from the temperature sensing part , and resets existing avoided frequencies by deleting the same if a change in season is detected, and maintains the existing avoided frequencies if a change in season is not detected.
A method for making a multi-shear pinned composite/metal mechanical connection including making a fastener including a bracket element receiving a composite termination , one or more doublers adapted to switch stresses between composite and metal and through pins in number and position as a function of the shear distribution intended on the attachments for which the thickness of the composite termination is kept constant whereas the wings of the bracket and of said one or more doublers are made with a gradual thickness, said method being characterised in that it includes steps of dimensioning the multi-shear connection by resolving the system consisting of the connection into as much sub-assemblies as there are simple shear interfaces, by defining the sub-assemblies about each shear interface, by describing each shear by its stiffness by applying mechanical relationships to result in a system of equations adapted to be solved on a computer by applying the Huth method to each shear interface, then dimensioning each zone of the connection about the shears by an iterative process by adding material to an iteration determining too high a stress, and removing material at an iteration determining a low stress, and in that said gradual thickness is determined by dimensioning steps to distribute stresses equivalently on each row.
A system adapted for achieving dynamic participation in a distributed aerial show, comprising: a ground-based show control system generating triggering signals for triggering show effects based on a timeline defined for the distributed aerial show; an unmanned aerial vehicle, UAV, comprising an onboard or offboard flight propulsion mechanism operable to move the UAV in three dimensions in a show airspace; one or more show effect devices physically separated from the UAV and operable in response to the triggering signals to generate a first show effect ; one or more show effect devices physically on or supported by the UAV and operable in response to the triggering signals to generate a second show effect , and a tracking device coupled to the ground-based show control system tracking a relative position of the UAV and the show effect devices physically separated from the UAV , wherein the relative position is used by the ground-based show control system to select a time for issuing the triggering signals; wherein the first and second show effects interact to generate a cumulative show effect. a ground-based show control system generating triggering signals for triggering show effects based on a timeline defined for the distributed aerial show; an unmanned aerial vehicle, UAV, comprising an onboard or offboard flight propulsion mechanism operable to move the UAV in three dimensions in a show airspace; one or more show effect devices physically separated from the UAV and operable in response to the triggering signals to generate a first show effect ; one or more show effect devices physically on or supported by the UAV and operable in response to the triggering signals to generate a second show effect , and a tracking device coupled to the ground-based show control system tracking a relative position of the UAV and the show effect devices physically separated from the UAV , wherein the relative position is used by the ground-based show control system to select a time for issuing the triggering signals; wherein the first and second show effects interact to generate a cumulative show effect.
A method employed by a remote radio head for communicating with a plurality of communication devices , UEs, wherein said remote radio head includes an array of antenna elements, said method comprising: receiving at the remote radio head , from a base band unit, a plurality of port signal streams (1-4), wherein the plurality of port signal streams was obtained at the base band unit by precoding a plurality of data streams (1-2), each data stream of the plurality of data streams intended for a different corresponding UE among the plurality of UEs; and within the remote radio head , processing the plurality of port signal streams to undo (3-1) the precoding that was performed on the plurality of data streams, and generate via the array of antenna elements a plurality of transmit beams (3-10), wherein each transmit beam is directed towards a corresponding different UE among the plurality of UEs and carries a corresponding transmit signal that is derived exclusively from the data stream among the plurality of data streams (1-2) that is intended for that UE , wherein precoding involves applying, at the base band unit, a layer-to-port precoding matrix to the plurality of data streams to yield the plurality of port signal streams (1-4) among which each port signal stream (1-4) is a linear combination of the plurality of data streams, and wherein processing the plurality of port signal streams (1-4) to undo the precoding applies, at the remote radio head, a port-to-beam precoding matrix to the plurality of port signal streams, wherein the port-to-beam matrix and the layer-to-port matrix when multiplied together generate a diagonal matrix. receiving at the remote radio head , from a base band unit, a plurality of port signal streams (1-4), wherein the plurality of port signal streams was obtained at the base band unit by precoding a plurality of data streams (1-2), each data stream of the plurality of data streams intended for a different corresponding UE among the plurality of UEs; and within the remote radio head , processing the plurality of port signal streams to undo (3-1) the precoding that was performed on the plurality of data streams, and generate via the array of antenna elements a plurality of transmit beams (3-10), wherein each transmit beam is directed towards a corresponding different UE among the plurality of UEs and carries a corresponding transmit signal that is derived exclusively from the data stream among the plurality of data streams (1-2) that is intended for that UE , wherein precoding involves applying, at the base band unit, a layer-to-port precoding matrix to the plurality of data streams to yield the plurality of port signal streams (1-4) among which each port signal stream (1-4) is a linear combination of the plurality of data streams, and wherein processing the plurality of port signal streams (1-4) to undo the precoding applies, at the remote radio head, a port-to-beam precoding matrix to the plurality of port signal streams, wherein the port-to-beam matrix and the layer-to-port matrix when multiplied together generate a diagonal matrix.
A foam detection device for a beverage dispensing system comprising: a chamber body having a first end and a second end , and a cavity disposed between the first and second ends ; a fluid inlet , a fluid outlet , and a fluid flow path passing from the fluid inlet , into and through the cavity , and out of the fluid outlet ; a flow path interrupter disposed in the fluid flow path within the chamber body and configured to interrupt the fluid flow path from the fluid inlet to the fluid outlet of the chamber upon detection of foam in the chamber; wherein the fluid inlet is disposed at the first end of the chamber body , and is arranged so as to guide flow into the chamber body in an axial direction , wherein the fluid outlet is disposed at the second end of the chamber body , and is configured to guide flow out of the chamber body in the axial direction , characterised in that the foam detection device is configured such that the fluid flow path exits the cavity at the first end of the chamber body , and turns back on itself at the first end of the chamber body to guide flow back towards the cavity at the first end of the chamber body . a chamber body having a first end and a second end , and a cavity disposed between the first and second ends ; a fluid inlet , a fluid outlet , and a fluid flow path passing from the fluid inlet , into and through the cavity , and out of the fluid outlet ; a flow path interrupter disposed in the fluid flow path within the chamber body and configured to interrupt the fluid flow path from the fluid inlet to the fluid outlet of the chamber upon detection of foam in the chamber; wherein the fluid inlet is disposed at the first end of the chamber body , and is arranged so as to guide flow into the chamber body in an axial direction , wherein the fluid outlet is disposed at the second end of the chamber body , and is configured to guide flow out of the chamber body in the axial direction , characterised in that the foam detection device is configured such that the fluid flow path exits the cavity at the first end of the chamber body , and turns back on itself at the first end of the chamber body to guide flow back towards the cavity at the first end of the chamber body .
A floating ring type mechanical seal in which a floating ring is pinched and held between a rotary ring provided in a rotary shaft and a stationary ring provided in a seal casing to be movable in an axial direction while being urged toward the rotary ring so that a relative rotation of the floating ring with respect to the stationary ring is inhibited, wherein the rotary ring is made of a sintered compact of SiC or cemented carbide, and characterised in that a diamond film (d1) is formed on a sealing surface sliding on the floating ring in the rotary ring and a diamond film (d2, d3; d4, d2) continuous to the diamond film (d1) of the sealing surface is further formed either only on an outer peripheral surface of the rotary ring and a rear surface , which is a surface opposite to the sealing surface , in the rotary ring or only on an inner peripheral surface of the rotary ring and an outer peripheral surface of the rotary ring , wherein a heat transfer ring is provided on an outer periphery of a diamond film (d2) formed on the outer peripheral surface . wherein the rotary ring is made of a sintered compact of SiC or cemented carbide, and characterised in that a diamond film (d1) is formed on a sealing surface sliding on the floating ring in the rotary ring and a diamond film (d2, d3; d4, d2) continuous to the diamond film (d1) of the sealing surface is further formed either only on an outer peripheral surface of the rotary ring and a rear surface , which is a surface opposite to the sealing surface , in the rotary ring or only on an inner peripheral surface of the rotary ring and an outer peripheral surface of the rotary ring , wherein a heat transfer ring is provided on an outer periphery of a diamond film (d2) formed on the outer peripheral surface .
Method for joining two materials which are not directly weldable to each other in a lap joint configuration, the first material, so called the unweldable material , being non-weldable to the second material being a metallic material , material, characterized in that in a first step, a thermomechanical or mechanical surface protection layer is applied on a surface of the unweldable material by thermal spraying using at least one method selected from the group consisting of flame spraying, arc spraying, plasma spraying, laser spraying, cold gas spraying, detonation spraying, high velocity oxygen fuel spraying and molten pool spraying, the thickness of the thermally sprayed layer being in the range 0.25 to 1.5 mm and in a second step, the sprayed layer is joined to the metallic material using a thermal joining process.
A method of wireless communication at a mobile device, the method comprising : sending , to a network node, an indication of a capability of the mobile device for maintaining a phase relationship between a first Sounding Reference Signal, SRS, using a first Component Carrier, CC, and a second SRS using a second CC, wherein the capability comprises: an ability to maintain a phase characteristic below a threshold value, an ability to maintain the phase characteristic at a constant value, or an inability to maintain the phase characteristic, or any combination thereof; and transmitting the first SRS and the second SRS. sending , to a network node, an indication of a capability of the mobile device for maintaining a phase relationship between a first Sounding Reference Signal, SRS, using a first Component Carrier, CC, and a second SRS using a second CC, wherein the capability comprises: an ability to maintain a phase characteristic below a threshold value, an ability to maintain the phase characteristic at a constant value, or an inability to maintain the phase characteristic, or any combination thereof; and an ability to maintain a phase characteristic below a threshold value, an ability to maintain the phase characteristic at a constant value, or an inability to maintain the phase characteristic, or any combination thereof; and transmitting the first SRS and the second SRS.
A joint assembly , comprising: an outer shroud having an inner surface defining an interior of the joint assembly, a bellows disposed within the interior and configured to couple with first and second ducts to be joined by the joint assembly; an annular flared tube having a flared portion located within the interior between the inner surface and the bellows and having a longitudinal portion extending beyond the outer shroud; a kinematic ring disposed between the flared tube and the outer shroud , adjacent the flared portion of the annular flared tube and the interior surface of the outer shroud; and a backing ring retaining the kinematic ring within the interior; characterized in that the flared tube includes a set of slits defining a set of flexures , the slits extending through at least a portion of the flared portion . an outer shroud having an inner surface defining an interior of the joint assembly, a bellows disposed within the interior and configured to couple with first and second ducts to be joined by the joint assembly; an annular flared tube having a flared portion located within the interior between the inner surface and the bellows and having a longitudinal portion extending beyond the outer shroud; a kinematic ring disposed between the flared tube and the outer shroud , adjacent the flared portion of the annular flared tube and the interior surface of the outer shroud; and a backing ring retaining the kinematic ring within the interior; characterized in that the flared tube includes a set of slits defining a set of flexures , the slits extending through at least a portion of the flared portion .
A method performed by a network node in a network where the network node maintains a source cell in the network, to which source cell a user equipment, UE, is connected, the method comprising: - receiving , from at least one cell in the network, data that comprises information regarding handover, whereby the at least one cell in the network from which the data is received defines at least one predetermined target cell to which the UE is to perform handover, - providing , to the UE, handover configuration data comprising the data received from the at least one cell and comprising at least one event triggering condition that defines radio signal measurement conditions for use by the UE when performing an autonomous decision to initiate the handover, and - providing , to the at least one predetermined target cell, context information associated with the UE for preparing the target cell for a handover procedure initiated by the UE; the method being characterized by - determining a mobility profile for the UE, the mobility profile comprising at least one movement criterion associated with the UE, and - the provision of the handover configuration data to the UE being conditional of the at least one movement criterion; wherein the at least one movement criterion associated with the UE comprises any of: - a speed of the UE is above a speed threshold, - a maximum Doppler frequency associated with radio signals transmitted by and/or received by the UE is above a Doppler frequency threshold, - a rate of change of direction of the UE is above a rate of change of direction threshold, and - a determination of whether or not the UE is operating in a high speed train environment. - receiving , from at least one cell in the network, data that comprises information regarding handover, whereby the at least one cell in the network from which the data is received defines at least one predetermined target cell to which the UE is to perform handover, - providing , to the UE, handover configuration data comprising the data received from the at least one cell and comprising at least one event triggering condition that defines radio signal measurement conditions for use by the UE when performing an autonomous decision to initiate the handover, and - providing , to the at least one predetermined target cell, context information associated with the UE for preparing the target cell for a handover procedure initiated by the UE; the method being characterized by - determining a mobility profile for the UE, the mobility profile comprising at least one movement criterion associated with the UE, and - the provision of the handover configuration data to the UE being conditional of the at least one movement criterion; - a speed of the UE is above a speed threshold, - a maximum Doppler frequency associated with radio signals transmitted by and/or received by the UE is above a Doppler frequency threshold, - a rate of change of direction of the UE is above a rate of change of direction threshold, and - a determination of whether or not the UE is operating in a high speed train environment.
A compound of Formula I, or a pharmaceutically acceptable salt thereof: wherein X is selected from: wherein M+ is a pharmaceutically acceptable monovalent cation and D 2+ is a pharmaceutically acceptable divalent cation; each J B is independently selected from halogen; m is selected from 0 or 1; n is selected from 0, 1, 2, 3 or 4; both R 1 and R 2 are simultaneously C 1-4 fluoroalky, R 3 is selected from halogen, hydrogen, -CN or -NH 2 ; both instances of R 4 are simultaneously hydrogen or both instances of R 4 , together with the carbon atom to which they are attached form a carbonyl group; and R 5 is selected from hydrogen or methyl. wherein M+ is a pharmaceutically acceptable monovalent cation and D 2+ is a pharmaceutically acceptable divalent cation; each J B is independently selected from halogen; m is selected from 0 or 1; n is selected from 0, 1, 2, 3 or 4; both R 1 and R 2 are simultaneously C 1-4 fluoroalky, R 3 is selected from halogen, hydrogen, -CN or -NH 2 ; both instances of R 4 are simultaneously hydrogen or both instances of R 4 , together with the carbon atom to which they are attached form a carbonyl group; and R 5 is selected from hydrogen or methyl.
A method for providing data protection in an integrated circuit, the method comprising: determining a static baseline value based on a value stored in a programmable read-only memory of the integrated circuit; determining an anti-replay counter, ARC, value based on the static baseline value and a transient component; storing the ARC value in a volatile memory of the integrated circuit; redetermining the transient component of the ARC value stored in the volatile memory each time that data is to be written to off-chip, non-volatile memory by the integrated circuit; and updating the value stored in the programmable read-only memory of the integrated circuit based on the transient component of the ARC value stored in the volatile memory responsive to an event indicative that the contents of the volatile memory may be lost. determining a static baseline value based on a value stored in a programmable read-only memory of the integrated circuit; determining an anti-replay counter, ARC, value based on the static baseline value and a transient component; storing the ARC value in a volatile memory of the integrated circuit; redetermining the transient component of the ARC value stored in the volatile memory each time that data is to be written to off-chip, non-volatile memory by the integrated circuit; and updating the value stored in the programmable read-only memory of the integrated circuit based on the transient component of the ARC value stored in the volatile memory responsive to an event indicative that the contents of the volatile memory may be lost.
A brake system for an elevator car comprising: a multiple of sequentially operated brake segments (60a-c) to control a timing and a rate of brake torque for deceleration of the elevator car, characterized in that the multiple of sequentially operated brake segments include an auxiliary brake segment and two main brake segments , that each include a separately operable electromagnetic coil (82a-82c) and an associated brake caliper (84a-84c) to control the timing and rate of the brake torque application to a single brake disc; wherein the auxiliary brake segment is an about 30 degree segment, and each of the main brake segments are about 115 degree segments. a multiple of sequentially operated brake segments (60a-c) to control a timing and a rate of brake torque for deceleration of the elevator car, characterized in that the multiple of sequentially operated brake segments include an auxiliary brake segment and two main brake segments , that each include a separately operable electromagnetic coil (82a-82c) and an associated brake caliper (84a-84c) to control the timing and rate of the brake torque application to a single brake disc; wherein the auxiliary brake segment is an about 30 degree segment, and each of the main brake segments are about 115 degree segments.