mhurhangee/ep-ind-claims huggingface dataset:
Method for detecting the operative status of an aerodynamic device for influencing the airflow flowing from the leading edge of a rotor blade for a wind turbine to the trailing edge of the rotor blade, the aerodynamic device being movable by an actuator between a first protruded configuration and a second retracted configuration, the method comprising the steps of: - measuring a temporal course of an operational value of the wind turbine during activation or deactivation of the actuator of the aerodynamic device, the operational value being influenced by the presence and/or activation and/or deactivation of the aerodynamic device, - comparing the measured temporal course of the operational value with a desired temporal course (110, 120, 130) of an operational value, - deriving an operative status of the aerodynamic device. - measuring a temporal course of an operational value of the wind turbine during activation or deactivation of the actuator of the aerodynamic device, the operational value being influenced by the presence and/or activation and/or deactivation of the aerodynamic device, - comparing the measured temporal course of the operational value with a desired temporal course (110, 120, 130) of an operational value, - deriving an operative status of the aerodynamic device.
A brake device, comprising: a brake element configured to apply a braking force to resist rotation of an associated component; and a mounting member configured to mount the brake device to a stationary surface, the mounting member being at least partially moveable relative to the stationary surface in a first direction responsive to a torque on the brake device during an application of the braking force; characterised in that the device further comprises: a force sensor that provides an indication of a force associated with any movement of the mounting member relative to the stationary surface in the first direction responsive to the torque. a brake element configured to apply a braking force to resist rotation of an associated component; and a mounting member configured to mount the brake device to a stationary surface, the mounting member being at least partially moveable relative to the stationary surface in a first direction responsive to a torque on the brake device during an application of the braking force;
A device for receiving a railing plate of a railing arrangement, in particular a glass plate forming a fall protection on a building opening preferably provided with a raisable and lowerable shading device guided in lateral guide rails, comprising receiving elements associated with the bottom corners of the railing plate, receiving the latter, attachable to a support base, each of such receiving elements comprising a bracket firmly attachable to the support base, comprising a support arm extending parallel to the bottom rim of the railing plate, characterized in that the receiving elements comprise an engaging device received on the support arm, comprising a table receiving the railing plate and a lateral stop laterally flanking the railing plate, such lateral stop being adjustable relative to the railing plate and, for this purpose, having a corresponding degree of freedom relative to the bracket, with a manually operable actuating element being provided for adjusting the lateral stop, directly or indirectly transmitting a shifting force exerted on the lateral stop on the stationary bracket.
A method for requesting resources for transmitting data on uplink within a mobile communication system utilizing an uplink scheme comprising transmissions on a scheduled shared channel and a contention-based channel, the method comprising the following steps performed by the mobile terminal: transmitting a resource request to a network entity responsible for resource allocation via a contention-based channel; and receiving, in response to the resource request, a resource allocation message, characterised in that: the resource allocation message grants resources for transmitting scheduling information to the network entity responsible for resource allocation, and the method further comprises: transmitting, in response to the resource allocation message, scheduling information to the network entity responsible for resource allocation via the scheduled shared channel; and receiving, in response to the transmission of scheduling information, a second resource allocation message granting resources to the mobile terminal for transmitting user data on the scheduled shared channel. transmitting a resource request to a network entity responsible for resource allocation via a contention-based channel; and receiving, in response to the resource request, a resource allocation message, characterised in that: the resource allocation message grants resources for transmitting scheduling information to the network entity responsible for resource allocation, and the method further comprises: transmitting, in response to the resource allocation message, scheduling information to the network entity responsible for resource allocation via the scheduled shared channel; and receiving, in response to the transmission of scheduling information, a second resource allocation message granting resources to the mobile terminal for transmitting user data on the scheduled shared channel. the resource allocation message grants resources for transmitting scheduling information to the network entity responsible for resource allocation, and the method further comprises: transmitting, in response to the resource allocation message, scheduling information to the network entity responsible for resource allocation via the scheduled shared channel; and receiving, in response to the transmission of scheduling information, a second resource allocation message granting resources to the mobile terminal for transmitting user data on the scheduled shared channel. transmitting, in response to the resource allocation message, scheduling information to the network entity responsible for resource allocation via the scheduled shared channel; and receiving, in response to the transmission of scheduling information, a second resource allocation message granting resources to the mobile terminal for transmitting user data on the scheduled shared channel.
A heat exchange member comprising: a honeycomb structure having ceramic as a main component and having a cylindrical outer peripheral wall and partition walls separating and forming a plurality of cells functioning as passages for a first fluid, a covering member covering the outer peripheral wall of the honeycomb structure so that the first fluid passing through the cells and the second fluid flowing outside the honeycomb structure are not mixed; characterized in that the outer peripheral wall of the honeycomb structure has at least one slit, the first fluid and the second fluid exchange heat by means of the outer peripheral wall of the honeycomb structure and the covering member in a state where the first fluid passing through the cells and the second fluid passing through the outside of the covering member are not mixed with each other, and wherein at least one of the partition walls and the outer peripheral wall is/are densified and has/have a porosity of 20% or less. a honeycomb structure having ceramic as a main component and having a cylindrical outer peripheral wall and partition walls separating and forming a plurality of cells functioning as passages for a first fluid, a covering member covering the outer peripheral wall of the honeycomb structure so that the first fluid passing through the cells and the second fluid flowing outside the honeycomb structure are not mixed; characterized in that the outer peripheral wall of the honeycomb structure has at least one slit, the first fluid and the second fluid exchange heat by means of the outer peripheral wall of the honeycomb structure and the covering member in a state where the first fluid passing through the cells and the second fluid passing through the outside of the covering member are not mixed with each other, and wherein at least one of the partition walls and the outer peripheral wall is/are densified and has/have a porosity of 20% or less.
Cable bushing for guiding cables into a control housing surrounding a printed circuit board, having a bushing housing comprising a locating surface, preferably fastening means for fastening the bushing housing to the control housing and retainers for at least two cables which are to be electrically connected to the printed circuit board, and contact elements protruding from a front face of the bushing housing which are embodied to be adapted for plug contacting with the printed circuit board and are electrically connected to the associated cables within the bushing housing, and a shielding plate which forms a shielding surface for contacting a shielding on the housing side, characterized in that the shielding plate forms at least two crimp webs extending at substantially right angles with respect to the shielding surface and connectable to the cables.
A Time Division Multiplexing, TDM, scheduling method for scheduling uplink transmission in a cellular radio communication system, comprising: obtaining relevant parameters including an Uplink pilot quality for each TDM User Equipment, UE, in a cell and an available TDM load for TDM UEs in the cell; determining a TDM group size as a number of TDM UEs to be scheduled to transmit simultaneously in a Transmission Time Interval, TTI, by using the obtained relevant parameters; and scheduling the TDM UEs according to the determined TDM group size; characterized in that the method further comprises: updating the determined TDM group size in response to changes in the available TDM load. obtaining relevant parameters including an Uplink pilot quality for each TDM User Equipment, UE, in a cell and an available TDM load for TDM UEs in the cell; determining a TDM group size as a number of TDM UEs to be scheduled to transmit simultaneously in a Transmission Time Interval, TTI, by using the obtained relevant parameters; and scheduling the TDM UEs according to the determined TDM group size; characterized in that the method further comprises: updating the determined TDM group size in response to changes in the available TDM load.
A metal complex obtained by reacting a compound represented by the following general formula with a complex precursor which is a compound of nickel or palladium, wherein the metal complex is represented by the following general formula. [In the formulae and, respectively, M represents nickel or palladium, X represents a nitrogen atom, Y represents a phosphorus atom, R 5 and R 6 each independently are a hydrogen atom or a hydrocarbon group which has 1-30 carbon atoms and may contain one or more heteroatoms, at least one of R 5 and R 6 being a hydrocarbon group which contains two or more heteroatom-containing groups, and R 1 to R 4, R 7, and R 8 each independently represent a hydrogen atom, a hydrocarbon group which has 1-20 carbon atoms and may contain one or more heteroatoms, or a halogen atom, and two or more groups selected from among R 1 to R 4, R 7, and R 8 may be linked to each other to form an alicyclic ring, an aromatic ring, or a heterocyclic ring which contains one or more heteroatoms selected from among oxygen, nitrogen, and sulfur atoms, in which each of the rings is a 5- to 8-membered ring which may have one or more substituents thereon, wherein R 3 and R 4 are linked to each other to form an aromatic ring.]
A method for receiving downlink channels from a base station at a user equipment in a wireless communication system, the method comprising: detecting control information by monitoring a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; characterised by receiving a broadcast channel when the control information is detected by monitoring the PDCCH; receiving a downlink shared channel when the control information is detected by monitoring the EPDCCH, wherein the PDCCH is monitored on subframes configured for receiving the broadcast channel, wherein the EPDCCH is not monitored on the subframes configured for receiving the broadcast channel. detecting control information by monitoring a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH; characterised by receiving a broadcast channel when the control information is detected by monitoring the PDCCH; receiving a downlink shared channel when the control information is detected by monitoring the EPDCCH, wherein the PDCCH is monitored on subframes configured for receiving the broadcast channel, wherein the EPDCCH is not monitored on the subframes configured for receiving the broadcast channel.
A dummy head attachable to and detachable from an attachment/detachment position of a liquid ejecting head in a carriage of a liquid ejecting apparatus including the carriage which can detachably hold the liquid ejecting head for ejecting a liquid onto a medium through a nozzle, a first route having a supply port through which the liquid can be supplied to the liquid ejecting head in a state of being attached to the carriage, and a second route having a collection port through which the liquid can be collected from the liquid ejecting head in the state of being attached to the carriage, the dummy head characterized by a third route that can be connected to the supply port and the collection port, and wherein the dummy head does not have a nozzle for ejecting a liquid onto a medium.
A mobile wireless communications device comprising: a portable housing; a dielectric substrate carried by said portable housing having a front side and a back side opposite the front side; a ground plane carried by said dielectric substrate; at least one circuit carried by said dielectric substrate; an antenna carried by said dielectric substrate adjacent an end thereof and electrically connected to said at least one circuit; and a ground patch adjacent the front side of said dielectric substrate being electrically connected to said ground plane and being spaced apart from said antenna, said ground patch having an L-shape comprising a first member extending outwardly from said dielectric substrate, and a second member defining a continuous surface and extending outwardly from said first member in a direction generally parallel to said dielectric substrate; wherein said ground patch is connected to said ground plane at a plurality of spaced apart contact points by respective vias; wherein said ground plane is on the back side of said dielectric substrate; and wherein said second member only partially overlaps said antenna. a portable housing; a dielectric substrate carried by said portable housing having a front side and a back side opposite the front side; a ground plane carried by said dielectric substrate; at least one circuit carried by said dielectric substrate; an antenna carried by said dielectric substrate adjacent an end thereof and electrically connected to said at least one circuit; and a ground patch adjacent the front side of said dielectric substrate being electrically connected to said ground plane and being spaced apart from said antenna, said ground patch having an L-shape comprising a first member extending outwardly from said dielectric substrate, and a second member defining a continuous surface and extending outwardly from said first member in a direction generally parallel to said dielectric substrate; wherein said ground patch is connected to said ground plane at a plurality of spaced apart contact points by respective vias; wherein said ground plane is on the back side of said dielectric substrate; and wherein said second member only partially overlaps said antenna.
A method of predicting a property of an earth formation, comprising: injecting a fluid into at least one pre-existing feature of the formation at a plurality of successively increasing constant pressures or flow rates and a plurality of successively decreasing constant pressures or flow rates; measuring a response from the at least one pre-existing feature at each of the plurality of constant pressures or flow rates, wherein measuring the response is characterised by including: recording a fluid flow rate and a pressure at each of the plurality of successively increasing constant pressures or flow rates; recording a fluid flow rate and a pressure at each of the plurality of successfully decreasing constant pressures or flow rates; computing a first flow property for each of the plurality of successively increasing constant pressures or flow rates; and computing a second flow property for each of the plurality of successively decreasing constant pressures or flow rates; and estimating at least one property of the at least one pre-existing feature based on the response. injecting a fluid into at least one pre-existing feature of the formation at a plurality of successively increasing constant pressures or flow rates and a plurality of successively decreasing constant pressures or flow rates; measuring a response from the at least one pre-existing feature at each of the plurality of constant pressures or flow rates, wherein measuring the response is characterised by including: recording a fluid flow rate and a pressure at each of the plurality of successively increasing constant pressures or flow rates; recording a fluid flow rate and a pressure at each of the plurality of successfully decreasing constant pressures or flow rates; computing a first flow property for each of the plurality of successively increasing constant pressures or flow rates; and computing a second flow property for each of the plurality of successively decreasing constant pressures or flow rates;
Network entity for controlling the use, by a user equipment, of network slices of a communication network comprising a plurality of slice support areas (TA1, TA2), wherein each slice support area (TA1, TA2) comprises at least one cell, and all cells of a given slice support area (TA1, TA2) support the same network slices, wherein the network entity is adapted to: - transmit, to the user equipment, slice support information (116, 216) for at least one slice support area (TA1, TA2) of the communication network, the slice support information for a given slice support area indicating at least one network slice supported by the given slice support area and/or at least one network slice not supported by the given slice support area; wherein a registration area for the registration of the user equipment with the communication network comprises at least one slice support area (TA1, TA2). wherein each slice support area (TA1, TA2) comprises at least one cell, and all cells of a given slice support area (TA1, TA2) support the same network slices, wherein the network entity is adapted to: - transmit, to the user equipment, slice support information (116, 216) for at least one slice support area (TA1, TA2) of the communication network, the slice support information for a given slice support area indicating at least one network slice supported by the given slice support area and/or at least one network slice not supported by the given slice support area; - transmit, to the user equipment, slice support information (116, 216) for at least one slice support area (TA1, TA2) of the communication network, wherein a registration area for the registration of the user equipment with the communication network comprises at least one slice support area (TA1, TA2).
A horizontal juice extractor comprising: a main body delimiting a food processing chamber comprising a juice outlet, a food entry section having a food inlet and a food compression section extending from the food entry section and having a food pulp outlet; a spindle extending through the food processing chamber for transporting food from the food entry section through the food compression section, said spindle comprising a body and a helical member extending from said body; and a drivetrain adapted to rotate the spindle, wherein the food compression section is located in between the food entry section and said drivetrain, characterized in that the juice outlet is a single juice outlet; the food entry section comprises said juice outlet at or near a distal end of said main body relative to the drivetrain; and in that the juice outlet is vertically displaced relative to the food inlet. a main body delimiting a food processing chamber comprising a juice outlet, a food entry section having a food inlet and a food compression section extending from the food entry section and having a food pulp outlet; a spindle extending through the food processing chamber for transporting food from the food entry section through the food compression section, said spindle comprising a body and a helical member extending from said body; and a drivetrain adapted to rotate the spindle, wherein the food compression section is located in between the food entry section and said drivetrain, characterized in that the juice outlet is a single juice outlet; the food entry section comprises said juice outlet at or near a distal end of said main body relative to the drivetrain; and in that the juice outlet is vertically displaced relative to the food inlet.
A gas sensor including a sensor element (101, 201, 301, 401) constituted by an oxygen-ion conductive solid electrolyte as a main component and detecting a predetermined gas component in a measurement gas, wherein the longitudinal direction of the sensor element is defined in a right-hand xyz coordinate system, said sensor element comprising: an external communication part (11,12) having an opening (11a,12a) opened to the outside, and introducing said measurement gas from the outside under a predetermined diffusion resistance; an internal space communicating with said external communication part (11, 12); a first electrode formed on a surface of said internal space; a second electrode formed in a space different from said internal space; and a pumping cell including said first and second electrodes operable to pump out oxygen existing in said internal space when a predetermined voltage is applied between said first electrode and said second electrode, wherein the thickness (b) of said external communication part is 50% or more and 100% or less of the thickness (d) of said internal space; characterized in that the width (a, e) of said external communication part is 5% or more and 60% or less of the width (c) of said internal space, wherein the thickness (b) and (d) are defined in the z-axis, the width (a) and (c) are defined in the y-axis, and the width (e) is defined in the x-axis. an external communication part (11,12) having an opening (11a,12a) opened to the outside, and introducing said measurement gas from the outside under a predetermined diffusion resistance; an internal space communicating with said external communication part (11, 12); a first electrode formed on a surface of said internal space; a second electrode formed in a space different from said internal space; and a pumping cell including said first and second electrodes operable to pump out oxygen existing in said internal space when a predetermined voltage is applied between said first electrode and said second electrode, wherein the thickness (b) of said external communication part is 50% or more and 100% or less of the thickness (d) of said internal space; the width (a, e) of said external communication part is 5% or more and 60% or less of the width (c) of said internal space, wherein the thickness (b) and (d) are defined in the z-axis, the width (a) and (c) are defined in the y-axis, and the width (e) is defined in the x-axis.