mhurhangee/ep-ind-claims huggingface dataset:
A communication apparatus comprising: a transmitter unit configured to multiplex and transmit at the same time a plurality of request-to-send frames addressed to a plurality of station apparatuses by using the weight of an adaptive array, the apparatuses including at least a first station apparatus and a second station apparatus; a receiver unit configured to receive a first clear-to-send signal (CTS1-0) from the first station apparatus and a second clear-to-send signal (CTS2-0) from the second station apparatus at the same time; and a data processing unit configured to: adjust a first frame length of a first data frame by padding so that the first frame length and a second frame length of a second data frame become equal and multiplex the first data frame and the second data frame at the same time; wherein the transmitter unit is configured to transmit the first data frame to the first station apparatus and the second data frame to the second station apparatus at the same time. a transmitter unit configured to multiplex and transmit at the same time a plurality of request-to-send frames addressed to a plurality of station apparatuses by using the weight of an adaptive array, the apparatuses including at least a first station apparatus and a second station apparatus; a receiver unit configured to receive a first clear-to-send signal (CTS1-0) from the first station apparatus and a second clear-to-send signal (CTS2-0) from the second station apparatus at the same time; and a data processing unit configured to: adjust a first frame length of a first data frame by padding so that the first frame length and a second frame length of a second data frame become equal and multiplex the first data frame and the second data frame at the same time; adjust a first frame length of a first data frame by padding so that the first frame length and a second frame length of a second data frame become equal and multiplex the first data frame and the second data frame at the same time; wherein the transmitter unit is configured to transmit the first data frame to the first station apparatus and the second data frame to the second station apparatus at the same time.
Volume expansion element for a piece of luggage comprising a longitudinal closure element with a first closing side and a second closing side and a gusset which is in connection with said first closing side and said second closing side and extends between said first closing side and said second closing side, wherein in a non-expanded state the first closing side is in direct engagement with the second closing side and wherein in an expanded state the first closing side and the second closing side are disengaged from each other such that they are positioned at a distance to each other, which distance is bridged with said gusset, wherein at least one tensile element is in connection with the first closing side and the second closing side such that with the tensile element a tightening force can be provided between said first closing side and said second closing side in the expanded state, wherein the tensile element is arranged relative to said closing sides (4, 5) and said gusset such that in said non-expanded state the tensile element is embedded in said gusset and said engaged closing sides (4, 5), characterized in that the tensile element is arranged such that in the expanded state it is accessible from the outside.
A fluid flow modifier device comprising: an inlet portion for receiving a flow of fluid; an outlet portion for outputting the flow of fluid; a flow modifier portion disposed between the inlet portion and the outlet portion, the flow modifier portion comprising: (i) an outer portion comprising a closed cross-section to the flow of fluid; (ii) an inner porous portion configured such that at least a portion of the flow received in the inlet portion must pass through the inner porous portion to reach the fluid outlet; (iii) a first support element configured to support an upstream portion of the inner porous portion with respect to the outer portion; and (iv) a second support element configured to support a downstream portion of the inner porous portion with respect to the outer portion, the second support element being configured to define an annular gap between a downstream portion of the inner porous portion and the outer portion such that a portion of fluid entering the fluid flow modifier device passes through the annular gap; wherein the closed cross-section of the outer portion orthogonal to a center axis passing through the inlet portion and the outlet portion increases from the inlet portion to the outlet portion. an inlet portion for receiving a flow of fluid; an outlet portion for outputting the flow of fluid; a flow modifier portion disposed between the inlet portion and the outlet portion, the flow modifier portion comprising: (i) an outer portion comprising a closed cross-section to the flow of fluid; (ii) an inner porous portion configured such that at least a portion of the flow received in the inlet portion must pass through the inner porous portion to reach the fluid outlet; (iii) a first support element configured to support an upstream portion of the inner porous portion with respect to the outer portion; and (iv) a second support element configured to support a downstream portion of the inner porous portion with respect to the outer portion, the second support element being configured to define an annular gap between a downstream portion of the inner porous portion and the outer portion such that a portion of fluid entering the fluid flow modifier device passes through the annular gap; wherein the closed cross-section of the outer portion orthogonal to a center axis passing through the inlet portion and the outlet portion increases from the inlet portion to the outlet portion.
A residue disposal method of disposing of a residue which contains aluminum chloride and which is discharged in a reaction product gas processing step included in a trichlorosilane producing method of producing trichlorosilane by reacting metal silicon, tetrachlorosilane, and hydrogen with each other, the residue disposal method characterized by comprising: - a drying step of (i) drying the residue so that the residue contains a chlorosilane compound in an amount of not more than 10% by mass and (ii) obtaining a powdered residue, and - a temperature in the drying step being 50°C to 130°C. - a drying step of (i) drying the residue so that the residue contains a chlorosilane compound in an amount of not more than 10% by mass and (ii) obtaining a powdered residue, and - a temperature in the drying step being 50°C to 130°C.
A polypeptide comprising an Fc-gamma receptor mutant, wherein the mutant is one in which the 117th amino acid and the 159th amino acid of the sequence of the wild-type Fc-gamma receptor of SEQ ID NO 43 or SEQ ID NO 49 are changed.
A communication system, comprising: a mobile node associated with a foreign network; a home network supporting communications to the mobile node associated with the foreign network, said mobile node being adapted to transmit and receive information packets secured using authenticators generated using one or more shared secrets; wherein the mobile node is adapted to generate a first authenticator using a first shared secret in a first algorithm, a home agent within the home network adapted to receive the first authenticator and to generate and transmit an access request message including the first authenticator, and, a computer server on the home network adapted to receive the access request message from the home agent and to use the first shared secret to authenticate the access request message, and further adapted to use the first shared secret in a second algorithm to generate a message authentication code, MAC, to transmit the MAC in a binding update message to the home agent and to transmit an access accept message to the home agent, wherein the home agent is adapted to generate a second authenticator using the MAC, and to transmit said second authenticator to the mobile node wherein the mobile node is adapted to generate said MAC, and the home agent and the mobile node are adapted to use the MAC as a second shared secret to secure information packets transmitted between the mobile node and the home agent. a mobile node associated with a foreign network; a home network supporting communications to the mobile node associated with the foreign network, said mobile node being adapted to transmit and receive information packets secured using authenticators generated using one or more shared secrets; wherein the mobile node is adapted to generate a first authenticator using a first shared secret in a first algorithm, a home agent within the home network adapted to receive the first authenticator and to generate and transmit an access request message including the first authenticator, and, a computer server on the home network adapted to receive the access request message from the home agent and to use the first shared secret to authenticate the access request message, and further adapted to use the first shared secret in a second algorithm to generate a message authentication code, MAC, to transmit the MAC in a binding update message to the home agent and to transmit an access accept message to the home agent, wherein the home agent is adapted to generate a second authenticator using the MAC, and to transmit said second authenticator to the mobile node wherein the mobile node is adapted to generate said MAC, and the home agent and the mobile node are adapted to use the MAC as a second shared secret to secure information packets transmitted between the mobile node and the home agent.
Closed-loop or open-loop control system for an agricultural machine having a distribution rod system, in particular a distribution rod system which can be folded in and out, for discharging material, such as fertilizer, crop protection products or seed, having a plurality of sensors for determining the ground clearance and/or distance from the plants of the distribution rod system, which sensors are positioned differently, and a data processing unit for processing the signals of the sensors, characterized in that the data processing unit is configured to calibrate the sensors, wherein during the calibration process the data processing unit determines a correction value for each sensor as a function of its height, and takes into account the correction value during the determination of the ground clearance and/or distance from the plants.
A filling device comprising a storage tank for storing hydrogen fuel, a filling nozzle for filling hydrogen from the storage tank through a fuel filling system to an in-vehicle hydrogen filling tank mounted on a vehicle, and a clutch mechanism for maintaining a connected state between the filling nozzle and a vehicle side filling port, wherein the clutch mechanism comprises a clutch for fitting the vehicle side filling port by a recess/projection when the clutch connects the vehicle side filling port, and a lever for maintaining the fitting between the clutch and the vehicle side filling port by the recess/projection by moving in a direction that the clutch and the vehicle side filling port are connected with each other, characterised by the lever having an engaging portion and a projection formed on a receptacle side end portion of the lever, wherein the projection projects radially inward, when hydrogen is filled, the clutch moves outward in a direction radial to the connecting direction via a contacting portion between the clutch and the vehicle side filling port and engages with the engaging portion of the lever.
A beverage making machine including a precursor liquid supply to provide precursor liquid used to form a beverage; a tank having an inlet coupled to the precursor liquid supply to receive precursor liquid into the tank, and an outlet to deliver precursor liquid from the tank to a dispensing station; characterized by: a cooling container disposed around the tank, the cooling container containing a cooling liquid that is freezable to form ice; and a plurality of fins (63, 73) extending between the tank and the cooling container, each of the plurality of fins (63, 73) being physically attached to the cooling container or the tank and being arranged to conduct heat from the tank to the cooling liquid. a cooling container disposed around the tank, the cooling container containing a cooling liquid that is freezable to form ice; and a plurality of fins (63, 73) extending between the tank and the cooling container, each of the plurality of fins (63, 73) being physically attached to the cooling container or the tank and being arranged to conduct heat from the tank to the cooling liquid.
A method for adjusting resource management procedures in a mobile device communicating with a node (110, 115) operating in a cell in a heterogeneous communication network, the method comprising: receiving a signal (505, 605, 1105, 1305), including a reference signal, transmitted from the node(110, 115) during a predetermined time period; measuring(510, 610, 1110, 1310) signal reception information at predetermined time intervals during the predetermined time period, wherein said signal reception information includes reference signal power values; measuring(515, 615, 1115, 1315) speeds of movement of the mobile device at said predetermined time intervals; determining(520, 620, 1120, 1320) a reference signal power variation value based on the variability of the measured reference signal power values; comparing(525, 630, 1125, 1330) the determined reference signal power variation value with a predetermined power threshold value for a given measured speed; determining cell information based on the comparison; determining(535, 645, 1140, 1345) an adjustment to a resource management procedure based on the determined cell information; and adjusting(540, 650, 1145, 1350) the resource management procedure based on the determined adjustment. receiving a signal (505, 605, 1105, 1305), including a reference signal, transmitted from the node(110, 115) during a predetermined time period; measuring(510, 610, 1110, 1310) signal reception information at predetermined time intervals during the predetermined time period, wherein said signal reception information includes reference signal power values; measuring(515, 615, 1115, 1315) speeds of movement of the mobile device at said predetermined time intervals; determining(520, 620, 1120, 1320) a reference signal power variation value based on the variability of the measured reference signal power values; comparing(525, 630, 1125, 1330) the determined reference signal power variation value with a predetermined power threshold value for a given measured speed; determining cell information based on the comparison; determining(535, 645, 1140, 1345) an adjustment to a resource management procedure based on the determined cell information; and adjusting(540, 650, 1145, 1350) the resource management procedure based on the determined adjustment.
An optical connector plug comprising: a stopper guide which is integrally provided in a rear portion of an upper surface of a sleeve-like knob to which an optical plug is installed; a spring guide which is slidably fitted to an outer surface of the stopper guide; an approximately rectangular tube shaped outer cover which is slidably fitted to each of said sleeve-like knob and outer surfaces of the spring guide and the stopper guide; a spring which is arranged in an energizing manner between the stopper guide and the outer cover; and said outer cover being capable of being pressed by an optical connector adapter so as to move backward together with the spring guide to a rear portion of the stopper guide while compressing the spring, whereby a shutter is arranged to open and the optical plug is allowed to protrude forward from the outer cover, wherein the optical connector plug is provided with a grip portion which is formed to be wider vertically and horizontally in its back elevational view in such a manner as to protrude up and down and right and left from a rear end portion of said sleeve-like knob wherein the grip portion is formed as an approximately rectangular tube shape as a whole by upper and lower side surfaces which are formed as rectangular surfaces, and right and left side surfaces which are formed as approximately L-shaped surfaces. a stopper guide which is integrally provided in a rear portion of an upper surface of a sleeve-like knob to which an optical plug is installed; a spring guide which is slidably fitted to an outer surface of the stopper guide; an approximately rectangular tube shaped outer cover which is slidably fitted to each of said sleeve-like knob and outer surfaces of the spring guide and the stopper guide; a spring which is arranged in an energizing manner between the stopper guide and the outer cover; and said outer cover being capable of being pressed by an optical connector adapter so as to move backward together with the spring guide to a rear portion of the stopper guide while compressing the spring, whereby a shutter is arranged to open and the optical plug is allowed to protrude forward from the outer cover, wherein the optical connector plug is provided with a grip portion which is formed to be wider vertically and horizontally in its back elevational view in such a manner as to protrude up and down and right and left from a rear end portion of said sleeve-like knob wherein the grip portion is formed as an approximately rectangular tube shape as a whole by upper and lower side surfaces which are formed as rectangular surfaces, and right and left side surfaces which are formed as approximately L-shaped surfaces.
A system for ligament reconstruction, comprising (a) at least two bone anchors, each arranged for fixation to bone and each comprising an aperture, the system being characterised by: (b) a graft having at least two ends, at least one having a filament extending therefrom, (c) the graft being threaded through the aperture of one of the anchors, (d) the filament affixing the two ends of the graft to the aperture of the other anchor. (a) at least two bone anchors, each arranged for fixation to bone and each comprising an aperture, the system being characterised by: (b) a graft having at least two ends, at least one having a filament extending therefrom, (c) the graft being threaded through the aperture of one of the anchors, (d) the filament affixing the two ends of the graft to the aperture of the other anchor.
A method for unwrapping phase shift data, comprising: receiving phase shift data measured by a detector; including the phase-shift data as parameters into a non-convex or non-concave objective function without a regularization term; finding critical points of said objective function; only among said critical points, finding a target critical point of a regularized objective function, said regularized objective function being formed from said objective function and a regularization term; and outputting said target critical point as an estimate for unwrapped phase shift data. receiving phase shift data measured by a detector; including the phase-shift data as parameters into a non-convex or non-concave objective function without a regularization term; finding critical points of said objective function; only among said critical points, finding a target critical point of a regularized objective function, said regularized objective function being formed from said objective function and a regularization term; and outputting said target critical point as an estimate for unwrapped phase shift data.
An electronic device comprising: a substrate having a first side, an opposing second side, and a first curved edge portion; a first adhesive layer coupled to the first side, extending around the first curved edge portion, and coupled to the second side, wherein the first adhesive layer comprises a viscoelastic material; a flexible display subassembly coupled to the substrate by the first adhesive layer such that the flexible display subassembly at least partially overlies the first side, extends around the first curved edge portion, and at least partially overlies the second side; a second adhesive layer coupled to the flexible display subassembly, the second adhesive layer being an optically clear adhesive having a modulus of elasticity of between about 100 Pa to about 10 MPa; and a front protective sheet coupled to the flexible display subassembly by the second adhesive layer such that the front protective sheet at least partially overlies the first side, extends around the first curved edge portion, and at least partially overlies the second side. a substrate having a first side, an opposing second side, and a first curved edge portion; a first adhesive layer coupled to the first side, extending around the first curved edge portion, and coupled to the second side, wherein the first adhesive layer comprises a viscoelastic material; a flexible display subassembly coupled to the substrate by the first adhesive layer such that the flexible display subassembly at least partially overlies the first side, extends around the first curved edge portion, and at least partially overlies the second side; a second adhesive layer coupled to the flexible display subassembly, the second adhesive layer being an optically clear adhesive having a modulus of elasticity of between about 100 Pa to about 10 MPa; and a front protective sheet coupled to the flexible display subassembly by the second adhesive layer such that the front protective sheet at least partially overlies the first side, extends around the first curved edge portion, and at least partially overlies the second side.
A fuel injection arrangement for a cylinder of a four-stroke piston engine, the cylinder being provided with two intake valves, which are arranged on an intake valve side of an imaginary plane that is parallel to the axial direction of the cylinder and divides the cylinder into two sections (25, 26), and with two exhaust valves, which are arranged on an exhaust valve side of said imaginary plane, the arrangement comprising - a first fuel injection nozzle comprising a plurality of nozzle holes, - a second fuel injection nozzle comprising a plurality of nozzle holes, - a first injector needle for controlling fuel injection through the first nozzle, and - a second injector needle for controlling fuel injection through the second nozzle, wherein - both fuel injection nozzles (3, 4) are configured to inject liquid fuel directly into the cylinder, - the total cross-sectional area of the nozzle holes of the second nozzle is greater than the total cross-sectional area of the nozzle holes of the first nozzle, and - the nozzle holes of the second nozzle are arranged so that a greater part of the fuel injected through the second nozzle is injected towards the intake valve side than towards the exhaust valve side of the cylinder. - a first fuel injection nozzle comprising a plurality of nozzle holes, - a second fuel injection nozzle comprising a plurality of nozzle holes, - a first injector needle for controlling fuel injection through the first nozzle, and - a second injector needle for controlling fuel injection through the second nozzle, - both fuel injection nozzles (3, 4) are configured to inject liquid fuel directly into the cylinder, - the total cross-sectional area of the nozzle holes of the second nozzle is greater than the total cross-sectional area of the nozzle holes of the first nozzle, and - the nozzle holes of the second nozzle are arranged so that a greater part of the fuel injected through the second nozzle is injected towards the intake valve side than towards the exhaust valve side of the cylinder.