mhurhangee/ep-ind-claims huggingface dataset:
Connecting valve, which comprises at least four tube connections (101, 102, 103, 104) for the circulation of fluid, the fluid from a tube connection, the so-called "principal inlet", overflowing into a valve body (110, 111) subdivided into a plurality of compartments, at least one being connected to a tube connection, the so-called "principal outlet", and at least one being connected to a tube connection, the so-called "bypass outlet", characterized in that the valve comprises a single control member comprising an opening which guides the flow of fluid by placing the opening opposite at least one of the compartments so as to permit the selective creation of several configurations of communication channels within the valve between certain tube connections, including at least: - a first configuration in which the principal inlet is placed in communication solely with the principal outlet, - a second configuration in which the principal inlet is placed in communication with the bypass outlet and a fourth tube connection, the so-called "bypass return", is placed in communication with the principal outlet, and - a third configuration in which the principal inlet is placed in communication both with the principal outlet and with the bypass outlet and the bypass return is placed in communication with the principal outlet. - a first configuration in which the principal inlet is placed in communication solely with the principal outlet, - a second configuration in which the principal inlet is placed in communication with the bypass outlet and a fourth tube connection, the so-called "bypass return", is placed in communication with the principal outlet, and - a third configuration in which the principal inlet is placed in communication both with the principal outlet and with the bypass outlet and the bypass return is placed in communication with the principal outlet.
A controller for controlling a control target by periodically outputting a corrected velocity command value (V c) to the control target using a target velocity value (V d) calculated from a command pattern for driving the control target and a feedback velocity value (V now) provided from the control target relative to the target velocity value (V d), the control target being driven to generate a predetermined viscous force as a reaction force, the controller comprising: a correction operation unit configured to obtain a force as a feedback force value(F now), calculate a corrected velocity command value (V c) based on an error of the obtained feedback force value (F now) from a target value (F d) of the force and an error of the feedback velocity value (V now) from the target velocity value (V d), and output the corrected velocity command value (V c) to the control target, wherein the correction operation unit calculates the corrected velocity command value (V c) using the following relational expression for velocity impedance control eliminating a spring constant: V c = V now + D d 1 V d − V now + M d 1 F now − F d Δ t, where V d is the target velocity value, V now is the feedback velocity value, F d is the target force value, F now is the feedback force value, D d1 is a weighting coefficient, and M d1 is a weighting coefficient, characterized in that a ratio of the weighting coefficient D d1 and the weighting coefficient M d1 is changed for every control cycle of the controller in every period for periodically outputting the corrected velocity command value, and the corrected velocity command value (V c) is output based on the changed ratio. a correction operation unit configured to obtain a force as a feedback force value(F now), calculate a corrected velocity command value (V c) based on an error of the obtained feedback force value (F now) from a target value (F d) of the force and an error of the feedback velocity value (V now) from the target velocity value (V d), and output the corrected velocity command value (V c) to the control target, wherein the correction operation unit calculates the corrected velocity command value (V c) using the following relational expression for velocity impedance control eliminating a spring constant: V c = V now + D d 1 V d − V now + M d 1 F now − F d Δ t, where V d is the target velocity value, V now is the feedback velocity value, F d is the target force value, F now is the feedback force value, D d1 is a weighting coefficient, and M d1 is a weighting coefficient, characterized in that a ratio of the weighting coefficient D d1 and the weighting coefficient M d1 is changed for every control cycle of the controller in every period for periodically outputting the corrected velocity command value, and the corrected velocity command value (V c) is output based on the changed ratio.
A method for use in a receiver of a multiple input multiple output, MIMO system, the method comprising: receiving, from a MIMO transmitter, pilot signals in each MIMO layer; estimating the MIMO channel matrix using the received pilot signals and performing a QR-decomposition of the estimated MIMO channel matrix into Q and R matrices; and determining a corresponding signal-to-noise ratio, SNR i, estimate for each MIMO layer i based on the values of the elements in the i-th row of the R matrix that are located between the i-th column and the last column and the values of the diagonal elements of the R matrix that are located between i-th row and the last row. receiving, from a MIMO transmitter, pilot signals in each MIMO layer; estimating the MIMO channel matrix using the received pilot signals and performing a QR-decomposition of the estimated MIMO channel matrix into Q and R matrices; and determining a corresponding signal-to-noise ratio, SNR i, estimate for each MIMO layer i based on the values of the elements in the i-th row of the R matrix that are located between the i-th column and the last column and the values of the diagonal elements of the R matrix that are located between i-th row and the last row.
A radio communication system comprising a plurality of base stations (20a, 20b) with supporting a plurality of radio access schemes (A, B), characterized in that the base stations are adapted to support a predetermined radio access scheme in common, wherein each of the base stations (20a, 20b) is adapted to support at least one radio access scheme other than the predetermined radio access scheme, wherein a mobile station is adapted to use the predetermined radio access scheme to send a random access signal for making an initial connection to one of the base stations before communicating with the one base station, wherein, in response to the initial connection, the one base station is adapted to notify the mobile station of its supporting radio access scheme.
A method for calibrating a position of a drive member of a fluid injector system, the method comprising the steps of: engaging at least one syringe comprising a drive member with at least one piston of a fluid injector such that the at least one piston is in operable communication with the drive member; driving the drive member with the at least one piston to a distal-most position in the at least one syringe; applying a first predetermined load force on a distal end of the at least one syringe with the drive member as measured by at least one force sensor; recording a position of the drive member at which the first predetermined load force is achieved; moving the drive member in a proximal direction at a predetermined rate until a second predetermined load force, as measured by the force sensor, that is less than the first predetermined load force is achieved; and recording a position of the drive member at which the second predetermined load force is achieved. engaging at least one syringe comprising a drive member with at least one piston of a fluid injector such that the at least one piston is in operable communication with the drive member; driving the drive member with the at least one piston to a distal-most position in the at least one syringe; applying a first predetermined load force on a distal end of the at least one syringe with the drive member as measured by at least one force sensor; recording a position of the drive member at which the first predetermined load force is achieved; moving the drive member in a proximal direction at a predetermined rate until a second predetermined load force, as measured by the force sensor, that is less than the first predetermined load force is achieved; and recording a position of the drive member at which the second predetermined load force is achieved.
A method performed by a mobile device, the method comprising: receiving user input via a user interface comprising keys arranged in a plurality of groups (200, 210, 220, 230, 240, 250, 260); identifying which group of keys has received the user input; in response to the user input, displaying on a display characters corresponding to the group of keys that has received the user input; and receiving further user input via the same group of keys to input one of the characters. receiving user input via a user interface comprising keys arranged in a plurality of groups (200, 210, 220, 230, 240, 250, 260); identifying which group of keys has received the user input; in response to the user input, displaying on a display characters corresponding to the group of keys that has received the user input; and receiving further user input via the same group of keys to input one of the characters.
A method for producing a package comprising: a layered double hydroxide having HS - and/or S k 2- (wherein k represents a positive integer) intercalated among layers; and a packaging material hermetically housing the layered double hydroxide, the method comprising: preparing a layered double hydroxide having an anion other than HS - or S k 2- (wherein k represents a positive integer) intercalated among layers, and a solvent; making the solvent to contain HS - and/or S k 2- under a nitrogen gas or rare gas atmosphere to provide a solution; bringing the layered double hydroxide having an anion other than HS - or S k 2- (wherein k represents a positive integer) intercalated among layers into contact with the solution under a nitrogen gas or rare gas atmosphere; separating a solid matter after the contact from the solution, and washing and drying the solid matter, under a nitrogen gas or rare gas atmosphere; and sealing the solid matter after drying in a packaging material. a layered double hydroxide having HS - and/or S k 2- (wherein k represents a positive integer) intercalated among layers; and a packaging material hermetically housing the layered double hydroxide, the method comprising: preparing a layered double hydroxide having an anion other than HS - or S k 2- (wherein k represents a positive integer) intercalated among layers, and a solvent; making the solvent to contain HS - and/or S k 2- under a nitrogen gas or rare gas atmosphere to provide a solution; bringing the layered double hydroxide having an anion other than HS - or S k 2- (wherein k represents a positive integer) intercalated among layers into contact with the solution under a nitrogen gas or rare gas atmosphere; separating a solid matter after the contact from the solution, and washing and drying the solid matter, under a nitrogen gas or rare gas atmosphere; and sealing the solid matter after drying in a packaging material. preparing a layered double hydroxide having an anion other than HS - or S k 2- (wherein k represents a positive integer) intercalated among layers, and a solvent; making the solvent to contain HS - and/or S k 2- under a nitrogen gas or rare gas atmosphere to provide a solution; bringing the layered double hydroxide having an anion other than HS - or S k 2- (wherein k represents a positive integer) intercalated among layers into contact with the solution under a nitrogen gas or rare gas atmosphere; separating a solid matter after the contact from the solution, and washing and drying the solid matter, under a nitrogen gas or rare gas atmosphere; and sealing the solid matter after drying in a packaging material.
A compact bushing for electrical isolation equipment, the compact bushing comprising a shaft having a tapered head portion at an end thereof; a conductor extending through the shaft; an insulating end cap removably attached to the tapered head portion of the shaft, the insulating end cap having a pathway formed therein through which the conductor extends when the insulating end cap is attached to the shaft, the pathway in the insulating end cap narrowing progressively to facilitate insertion of the head portion into the insulating end cap, wherein the insulating end cap has an outer diameter preselected to increase a tracking distance for the bushing by a predefined amount when the insulating end cap is attached to the shaft; characterized in that the compact bushing further comprises a conical or cone shaped gasket connected to the shaft at the end thereof, the gasket facilitating removable attachment of the insulating end cap to the shaft; and a twist lock mechanism securing the insulating end cap to the shaft.
Planarity measuring device for measuring the planarity of a metallic strip, comprising a measuring roller, which has a roller axis (a) and which for the purpose of planarity measurement is constructed for making contact with the strip, wherein the measuring roller is connected with a cooling system by which the measuring roller can be cooled, characterised in that the measuring roller is constructed as a deflecting roller equipped with a sensor system which is in a position of measuring through tensile stress the radial force exerted on the deflecting roller, the planarity measuring device is a component of a hot-rolling mill and the cooling system comprises a nozzle bar extending parallel to the roller axis (a), wherein at least one spray nozzle, preferably a number of spray nozzles, by which cooling medium can be sprayed onto the surface of the measuring roller in a spraying direction (b) is arranged at the nozzle bar, wherein the spraying direction (b) is incident on a surface section of the measuring roller and wherein the angle (α) between the spraying direction (b) and the tangent (t) to the measuring roller at the location of the surface section is less than 30°. the measuring roller is constructed as a deflecting roller equipped with a sensor system which is in a position of measuring through tensile stress the radial force exerted on the deflecting roller, the planarity measuring device is a component of a hot-rolling mill and the cooling system comprises a nozzle bar extending parallel to the roller axis (a), wherein at least one spray nozzle, preferably a number of spray nozzles, by which cooling medium can be sprayed onto the surface of the measuring roller in a spraying direction (b) is arranged at the nozzle bar, wherein the spraying direction (b) is incident on a surface section of the measuring roller and wherein the angle (α) between the spraying direction (b) and the tangent (t) to the measuring roller at the location of the surface section is less than 30°.
A light emitting device comprising: a light emitting structure including a first conductive type semiconductor layer, a second conductive type semiconductor layer, and an active layer between the first conductive type semiconductor layer and the second conductive type semiconductor layer; an electrode on the first conductive type semiconductor layer; a reflective layer under the second conductive type semiconductor layer; a protective layer at outer peripheral portions of a lower surface of the second conductive type semiconductor layer; and a light extraction structure including a compound semiconductor on the protective layer, wherein an outer portion of a top surface of the protective layer is provided outside the light emitting structure, and the light extraction structure is formed at the outer portion of the top surface of the protective layer and includes a material different from that of the protective layer, and wherein the protective layer includes one of a transparent oxide, a transparent nitride, or a transparent insulating layer characterised in that the light extraction structure includes a roughness pattern or a concave-convex structure on the outer portion of the top surface of the protective layer. a light emitting structure including a first conductive type semiconductor layer, a second conductive type semiconductor layer, and an active layer between the first conductive type semiconductor layer and the second conductive type semiconductor layer; an electrode on the first conductive type semiconductor layer; a reflective layer under the second conductive type semiconductor layer; a protective layer at outer peripheral portions of a lower surface of the second conductive type semiconductor layer; and a light extraction structure including a compound semiconductor on the protective layer, wherein an outer portion of a top surface of the protective layer is provided outside the light emitting structure, and the light extraction structure is formed at the outer portion of the top surface of the protective layer and includes a material different from that of the protective layer, and wherein the protective layer includes one of a transparent oxide, a transparent nitride, or a transparent insulating layer characterised in that the light extraction structure includes a roughness pattern or a concave-convex structure on the outer portion of the top surface of the protective layer.
Grinder for a spice mill, in particular a manually-operated spice mill, with an inlet side for the entry of unground grinding stock and an outlet side for the exit of ground grinding stock, comprising: - a rotor, - a stator, interacting with the rotor, and - a housing, at least partially surrounding the rotor and/or the stator, wherein the housing has a stator housing part, which is connected to the stator in an essentially rotationally fixed manner, and a rotor housing part, which can be rotated relative to the stator housing part, and is connected to the rotor in an essentially rotationally fixed manner by way of a connecting element, wherein the connecting element is at least partially accommodated in a recess of the rotor, characterised in that, the connecting element and the rotor are frictionally connected, and in the event of manufacturing variations the rotor can be detached from the connecting element and can be displaced in the direction of the inlet side, wherein the housing has, on a side of the rotor facing towards the inlet side, a blocking element, which blocks a displacement of the rotor in the direction of the inlet side. - a rotor, - a stator, interacting with the rotor, and - a housing, at least partially surrounding the rotor and/or the stator, wherein the housing has a stator housing part, which is connected to the stator in an essentially rotationally fixed manner, and a rotor housing part, which can be rotated relative to the stator housing part, and is connected to the rotor in an essentially rotationally fixed manner by way of a connecting element, wherein the connecting element is at least partially accommodated in a recess of the rotor, characterised in that, the connecting element and the rotor are frictionally connected, and in the event of manufacturing variations the rotor can be detached from the connecting element and can be displaced in the direction of the inlet side, wherein the housing has, on a side of the rotor facing towards the inlet side, a blocking element, which blocks a displacement of the rotor in the direction of the inlet side.
A system information SI transmission method, wherein the method is executed by UE comprises: sending a request to a base station, wherein the request is used to request at least one type of SI of a first-type cell, and the first-type cell is a cell on which channel detection needs to be performed before data is sent; and receiving the at least one type of SI of the first-type cell, wherein the receiving the at least one type of SI of the first-type cell comprises: receiving the at least one type of SI of the first-type cell in one or more SI windows following a current SI window that is corresponding to the first-type cell at a current moment at which the request is sent to the base station, wherein the SI window for receiving the at least one type of SI of the first-type cell is an N th SI window following the current SI window, and N is an integer greater than or equal to 1. sending a request to a base station, wherein the request is used to request at least one type of SI of a first-type cell, and the first-type cell is a cell on which channel detection needs to be performed before data is sent; and receiving the at least one type of SI of the first-type cell, wherein the receiving the at least one type of SI of the first-type cell comprises: receiving the at least one type of SI of the first-type cell in one or more SI windows following a current SI window that is corresponding to the first-type cell at a current moment at which the request is sent to the base station, wherein the SI window for receiving the at least one type of SI of the first-type cell is an N th SI window following the current SI window, and N is an integer greater than or equal to 1.
Process for manufacturing a cable comprising the following steps: (a) conveying at least one conductor to an extruder apparatus; (b) extruding an insulating coating layer radially external to said at least one conductor; (c) longitudinally folding a metal tape around said extruded insulating coating layer, said metal tape bearing at least one adhesive coating layer in a radially external position; (d) extruding at least one continuous coating layer comprising at least one polyamide or a copolymer thereof around and in contact with said folded metal tape; wherein the step (d) is carried out at a draw down ratio not higher than 2.5. (a) conveying at least one conductor to an extruder apparatus; (b) extruding an insulating coating layer radially external to said at least one conductor; (c) longitudinally folding a metal tape around said extruded insulating coating layer, said metal tape bearing at least one adhesive coating layer in a radially external position; (d) extruding at least one continuous coating layer comprising at least one polyamide or a copolymer thereof around and in contact with said folded metal tape;