mhurhangee/ep-ind-claims huggingface dataset:
A remote data concentrator comprising: a front end interface configured to receive optical energy as input from an optical link and provide link optical data as output to the optical link; a plurality of back end optical interfaces configured to connect to a plurality of sensor interfaces, wherein each of the plurality of back end optical interfaces are configured to provide sensor power as optical energy to the plurality of sensor interfaces (34a-34n) and receive sensor data as optical data from the plurality of sensor interfaces; and a control circuit configured to provide power from the front end interface to the plurality of back end optical interfaces and to provide the sensor data from the plurality of back end optical interfaces to the front end interface; wherein the front end interface includes a power converter configured to convert the optical energy from the optical link into electrical energy and provide the electrical energy to the control circuit; and wherein the control circuit comprises a plurality of controllers (40a - 40n) configured to each connect to a respective one of the plurality of back end optical interfaces, and wherein each of the plurality of controllers includes a power unit configured to store the electrical energy from the front end interface and provide stored electrical energy to the plurality of back end optical interfaces. a front end interface configured to receive optical energy as input from an optical link and provide link optical data as output to the optical link; a plurality of back end optical interfaces configured to connect to a plurality of sensor interfaces, wherein each of the plurality of back end optical interfaces are configured to provide sensor power as optical energy to the plurality of sensor interfaces (34a-34n) and receive sensor data as optical data from the plurality of sensor interfaces; and a control circuit configured to provide power from the front end interface to the plurality of back end optical interfaces and to provide the sensor data from the plurality of back end optical interfaces to the front end interface; wherein the front end interface includes a power converter configured to convert the optical energy from the optical link into electrical energy and provide the electrical energy to the control circuit; and wherein the control circuit comprises a plurality of controllers (40a - 40n) configured to each connect to a respective one of the plurality of back end optical interfaces, and wherein each of the plurality of controllers includes a power unit configured to store the electrical energy from the front end interface and provide stored electrical energy to the plurality of back end optical interfaces.
Device holder of a lighting system, wherein the device holder has a fastening unit and a pivot arm, the pivot arm is connected to the fastening unit, and the pivot arm has a rounded shape and a platform at a flattened end, wherein a device, in particular a sensor and/or actuator, can be mounted on the platform, characterized in that the platform has a connection socket with an interface according to Zhaga Book 18 and the pivot arm is rotatably connected to the fastening unit by means of a joint, wherein the axis of rotation of the joint is arranged perpendicular to a central longitudinal axis of the fastening element. wherein the device holder has a fastening unit and a pivot arm, the pivot arm is connected to the fastening unit, and the pivot arm has a rounded shape and a platform at a flattened end, wherein a device, in particular a sensor and/or actuator, can be mounted on the platform, characterized in that the platform has a connection socket with an interface according to Zhaga Book 18 and the pivot arm is rotatably connected to the fastening unit by means of a joint, wherein the axis of rotation of the joint is arranged perpendicular to a central longitudinal axis of the fastening element.
A thermoelectric conversion material having a composition represented by General Formula L k R r T t-m M m Sb x, wherein L represents at least one element selected from rare earth elements, wherein R represents three or more elements selected from the group consisting of alkali metal elements, alkali earth metal elements, Group 4 elements, and Group 13 elements, wherein the three or more elements include Ba, Ga, and Ti, wherein T represents Fe and Co, wherein M represents at least one element selected from the group consisting of Ru, Os, Rh, Ir, Ni, Pd, Pt, Cu, Ag, and Au, and wherein 0.50 ≤ k ≤ 1.00, 0.1 ≤ r ≤ 0.5, 3.0 ≤ t-m ≤ 5.0, 0 ≤ m ≤ 0.5, 10.0 ≤ x ≤ 11.5, and x/t < 3.0 are satisfied.
An immersion cooling system, comprising: a storage tank comprising a sealing cover and an accommodating tank, and the sealing cover is configured to seal an opening of the accommodating tank; an adapter frame comprising a first wire channel, wherein the first wire channel is attached to one side of the adapter frame, and the adapter frame is disposed in the accommodating tank in a direction perpendicular to a bottom of the accommodating tank; and an electronic device comprising at least one power wire, wherein the electronic device is inserted into the adapter frame along the direction, and one side of the electronic device is attached to one side of the first wire channel, wherein a distance is formed between a bottom of the electronic device and a bottom of the adapter frame to form a second wire channel, and the first wire channel and the second wire channel communicate with each other, wherein the at least one power wire is electrically connected to an external electric apparatus from the bottom of the electronic device along the first wire channel and the second wire channel. a storage tank comprising a sealing cover and an accommodating tank, and the sealing cover is configured to seal an opening of the accommodating tank; an adapter frame comprising a first wire channel, wherein the first wire channel is attached to one side of the adapter frame, and the adapter frame is disposed in the accommodating tank in a direction perpendicular to a bottom of the accommodating tank; and an electronic device comprising at least one power wire, wherein the electronic device is inserted into the adapter frame along the direction, and one side of the electronic device is attached to one side of the first wire channel, wherein a distance is formed between a bottom of the electronic device and a bottom of the adapter frame to form a second wire channel, and the first wire channel and the second wire channel communicate with each other, wherein the at least one power wire is electrically connected to an external electric apparatus from the bottom of the electronic device along the first wire channel and the second wire channel.
A coffee machine having a housing comprising a housing side part with an opening, a wet chamber, a ventilation channel for connecting the wet chamber with the opening and to the surrounding environment via a fresh air opening, wherein the ventilation channel is formed by a main profile of the housing side part and a ventilation channel cover, characterized in that the ventilation channel cover has an inner and an outer side edges (9, 10), defining a cover front wall that is provided with at least one cut out groove arranged along and between the inner and the outer side edge (9, 10) that separates the cover front wall into sealing members that form resilient sealing member.
An expansion device, comprising: an expander casing having an expander rotor rotatably arranged therein; a first inlet to the expander casing for receiving a first flow of a working fluid at a first temperature; a second inlet to the expander casing for receiving a second flow of the working fluid at a second temperature, the second temperature being less than the first temperature; one or more expansion stages arranged axially along the expander rotor, each expansion stage including a non-rotating stator vane follower axially by a rotating blade; a series of flow stream dividers (218, 220) extending axially along the one or more expansion stages to divide the one or more expansion stages into an outer expander flowpath and an inner expander flowpath, the outer expander flowpath being radially-offset from the inner expander flowpath; an outer inlet manifold fluidly coupled to both the first inlet and the outer expander flowpath such that the outer expander flowpath receives the first flow of the working fluid; and an inner inlet manifold fluidly coupled to both the second inlet and the inner expander flowpath such that the inner expander flowpath receives the second flow of the working fluid, wherein the inner inlet manifold is concentrically-disposed within the outer inlet manifold in a nested relationship, and the inner inlet manifold fluidly couples the second inlet to the inner expander flowpath via a tubing segment that extends through the outer inlet manifold. an expander casing having an expander rotor rotatably arranged therein; a first inlet to the expander casing for receiving a first flow of a working fluid at a first temperature; a second inlet to the expander casing for receiving a second flow of the working fluid at a second temperature, the second temperature being less than the first temperature; one or more expansion stages arranged axially along the expander rotor, each expansion stage including a non-rotating stator vane follower axially by a rotating blade; a series of flow stream dividers (218, 220) extending axially along the one or more expansion stages to divide the one or more expansion stages into an outer expander flowpath and an inner expander flowpath, the outer expander flowpath being radially-offset from the inner expander flowpath; an outer inlet manifold fluidly coupled to both the first inlet and the outer expander flowpath such that the outer expander flowpath receives the first flow of the working fluid; and an inner inlet manifold fluidly coupled to both the second inlet and the inner expander flowpath such that the inner expander flowpath receives the second flow of the working fluid, wherein the inner inlet manifold is concentrically-disposed within the outer inlet manifold in a nested relationship, and the inner inlet manifold fluidly couples the second inlet to the inner expander flowpath via a tubing segment that extends through the outer inlet manifold.
A turbocharger comprising: a compressor housing including a scroll chamber; and a seal plate assembled to the compressor housing, the compressor housing and the seal plate defining an intake passage, the seal plate including a plate-side connecting portion in contact with the compressor housing, a radius of curvature of a wall surface of the scroll chamber of the compressor housing, in a section including a compressor rotational axis, being increased in a direction toward an outlet located on a downstream side of the scroll chamber in an intake air flow direction, a radius of curvature of an inner surface of the seal plate continuous with the scroll chamber of the intake passage, in the section including the compressor rotational axis, being increased in the direction toward the outlet of the scroll chamber; the turbocharger being characterised by the plate-side connecting portion protruding into the intake passage in a direction along the compressor rotational axis. a compressor housing including a scroll chamber; and a seal plate assembled to the compressor housing, the compressor housing and the seal plate defining an intake passage, the seal plate including a plate-side connecting portion in contact with the compressor housing, a radius of curvature of a wall surface of the scroll chamber of the compressor housing, in a section including a compressor rotational axis, being increased in a direction toward an outlet located on a downstream side of the scroll chamber in an intake air flow direction, a radius of curvature of an inner surface of the seal plate continuous with the scroll chamber of the intake passage, in the section including the compressor rotational axis, being increased in the direction toward the outlet of the scroll chamber; the turbocharger being characterised by the plate-side connecting portion protruding into the intake passage in a direction along the compressor rotational axis.
A method performed by a first wireless device for transmitting a synchronization signal to a second wireless device, wherein the first and second wireless devices (120,122) operate in a wireless communications network, and wherein the method comprises: - receiving, from a network node operating in the wireless communications network, a message indicating whether or not a carrier is to be used for transmitting a synchronization signal to the second wireless device; wherein the message further indicates whether or not multiple carriers out of aggregated carriers are to be used for transmitting synchronization signals to the second wireless device; and - transmitting, to the second wireless device, a synchronization signal on a carrier indicated by the received message. - receiving, from a network node operating in the wireless communications network, a message indicating whether or not a carrier is to be used for transmitting a synchronization signal to the second wireless device; wherein the message further indicates whether or not multiple carriers out of aggregated carriers are to be used for transmitting synchronization signals to the second wireless device; and - transmitting, to the second wireless device, a synchronization signal on a carrier indicated by the received message.
A composition in the form of: an aqueous dispersion comprising: a thermoplastic resin; at least one stabilizing agent to promote the formation of a stable dispersion; and at least one selected from the group consisting of a colorant and a magnetic pigment, wherein the dispersion has a volume average particle size of from 0.05 to 10 μm, wherein the thermoplastic resin is selected from the group consisting of an ethylene-based homopolymer, copolymer, interpolymer, or multi-block interpolymer, a propylene-based homopolymer, copolymer, interpolymer, or multi-block interpolymer, blends thereof, or combinations thereof an aqueous dispersion comprising: a thermoplastic resin; at least one stabilizing agent to promote the formation of a stable dispersion; and at least one selected from the group consisting of a colorant and a magnetic pigment, wherein the dispersion has a volume average particle size of from 0.05 to 10 μm, a thermoplastic resin; at least one stabilizing agent to promote the formation of a stable dispersion; and wherein the thermoplastic resin is selected from the group consisting of an ethylene-based homopolymer, copolymer, interpolymer, or multi-block interpolymer, a propylene-based homopolymer, copolymer, interpolymer, or multi-block interpolymer, blends thereof, or combinations thereof
An optical lens comprising: (i) a temporary protective coating at least partially covering a surface of the lens, said temporary protective coating comprising an outermost layer mechanically degradable through friction and/or contact, and (ii) a removable film having a first side and a second side, which adheres to said outermost layer of the temporary protective coating through its first side, wherein the removable film exhibits intermittent adherence and/or contact with the surface of the lens, the first side of the removable film having at least one surface portion, which, when applied to said outermost layer of the temporary protective coating, comprises adherent zones in contact with the temporary protective coating and non-adherent zones facing the lens surface distributed across said surface portion, and peeling off the removable film would not remove the lens surface area facing the non-adherent zones of the surface of the removable film. (i) a temporary protective coating at least partially covering a surface of the lens, said temporary protective coating comprising an outermost layer mechanically degradable through friction and/or contact, and (ii) a removable film having a first side and a second side, which adheres to said outermost layer of the temporary protective coating through its first side,
A method of operating a transmitting node (10, 100) in a millimeter-wave communication network, the method comprising: transmitting, to a receiving node, communication signaling in a transmission timing structure, the communication signaling in the transmission timing structure comprising control signaling and data signaling, the communication signaling in the transmission timing structure further comprising reference signaling common to the control signaling and data signaling; wherein the reference signaling common to the control signaling and data signaling is arranged in time domain between the control signaling and the data signaling; and wherein the reference signaling common to the control signaling and data signaling is usable by the receiving node to demodulate both the control signaling and the data signaling in the transmission timing structure and is usable as a cyclic prefix and cyclic suffix for the control signaling and the data signaling transmitting, to a receiving node, communication signaling in a transmission timing structure, the communication signaling in the transmission timing structure comprising control signaling and data signaling, the communication signaling in the transmission timing structure further comprising reference signaling common to the control signaling and data signaling; wherein the reference signaling common to the control signaling and data signaling is arranged in time domain between the control signaling and the data signaling; and wherein the reference signaling common to the control signaling and data signaling is usable by the receiving node to demodulate both the control signaling and the data signaling in the transmission timing structure and is usable as a cyclic prefix and cyclic suffix for the control signaling and the data signaling
A computer-readable medium, having a set of computer-readable instructions that, when executed, cause a processor to read an original model of a three dimensional object to be printed, and modify a base layer defined by first printed layers of the object with respect to the original model, wherein the instructions, when executed, cause the processor a) to add at least one protrusion that is oriented in at least a horizontal direction, wherein the at least one protrusion is a relatively thin extension having an elongate shape up to an outer free end thereof, such that stress in the base layer can propagate to the protrusion, or b) to add at least one protrusion in at least a direction upwards so that during printing the base layer anchors to a subsequent layer.
A wiper arm configured to be disposed on an external side of an aircraft and positioned to directly engage an air flow while the aircraft is traveling, the wiper arm comprising: an arm portion configured to be coupled to the aircraft and having an arm exterior surface, the arm portion extending along an arm axis and defining an arm length, the arm portion having a width; a bead extending outwardly from the arm exterior surface and defining a bead exterior surface, the bead having a height and the bead being configured to engage a boundary layer of the air flow; and a wiper blade coupled to the arm portion; characterized in that a ratio of bead height to arm width is approximately 1 to 5%. an arm portion configured to be coupled to the aircraft and having an arm exterior surface, the arm portion extending along an arm axis and defining an arm length, the arm portion having a width; a bead extending outwardly from the arm exterior surface and defining a bead exterior surface, the bead having a height and the bead being configured to engage a boundary layer of the air flow; and a wiper blade coupled to the arm portion; characterized in that a ratio of bead height to arm width is approximately 1 to 5%.
A method performed by a half duplex user equipment, UE, for avoiding collision at said UE between transmission of an uplink data by said UE and reception of a downlink data by said UE, in an LTE system, the method comprising: verifying (320, 420) existence of uplink data in an uplink buffer; determining a time instant for transmission of the uplink data; the method characterized by further comprising: determining (330, 430), based on earlier received downlink data reception patterns, a likelihood for reception of the downlink data at the determined time instant; computing a collision score based on the determined likelihood and on received Scheduling Request, SR, and Random Access CHannel, RACH, periodicity information, and selectively transmitting (350, 470) the uplink data based on the computed collision score. verifying (320, 420) existence of uplink data in an uplink buffer; determining a time instant for transmission of the uplink data; the method characterized by further comprising: determining (330, 430), based on earlier received downlink data reception patterns, a likelihood for reception of the downlink data at the determined time instant; computing a collision score based on the determined likelihood and on received Scheduling Request, SR, and Random Access CHannel, RACH, periodicity information, and selectively transmitting (350, 470) the uplink data based on the computed collision score.
A medical examination glove comprising: a) natural or nitrile rubber latex; and b) a water soluble singlet oxygen generator; wherein the singlet oxygen generator is selected from the group comprising Rose Bengal and water soluble phthalocyanines, preferably Tinolux BBS or Tinolux BMC, more preferably cationic phthalocyanine singlet oxygen generators. a) natural or nitrile rubber latex; and b) a water soluble singlet oxygen generator; wherein the singlet oxygen generator is selected from the group comprising Rose Bengal and water soluble phthalocyanines, preferably Tinolux BBS or Tinolux BMC, more preferably cationic phthalocyanine singlet oxygen generators.
A robot comprising: an actuator configured to move the robot between a plurality of locations; a spill detector comprising at least one optical imaging device configured to capture at least one image of a scene containing a spill while the robot moves between the plurality of locations, characterised in that the robot further comprises: a processor configured to identify the spill in the at least one image and generate an alert indicative at least in part of a recognition of the spill; and a floor cleaning system, wherein the processor is further configured to receive an action command in response to the alert and to turn off the floor cleaning system based at least in part on the received action command. an actuator configured to move the robot between a plurality of locations; a spill detector comprising at least one optical imaging device configured to capture at least one image of a scene containing a spill while the robot moves between the plurality of locations, characterised in that the robot further comprises: a processor configured to identify the spill in the at least one image and generate an alert indicative at least in part of a recognition of the spill; and a floor cleaning system, wherein the processor is further configured to receive an action command in response to the alert and to turn off the floor cleaning system based at least in part on the received action command. a processor configured to identify the spill in the at least one image and generate an alert indicative at least in part of a recognition of the spill; and a floor cleaning system, wherein the processor is further configured to receive an action command in response to the alert and to turn off the floor cleaning system based at least in part on the received action command.