mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication at a first user equipment, UE (115-a), comprising: establishing, at the first UE (115-a), a sidelink connection with a second UE (115-b); detecting, based at least in part on a status timer at an access stratum layer of the first UE (115-a), that a gap in communications with the second UE (115-b) via the sidelink connection exceeds a threshold time; and initiating, at the access stratum layer, a link maintenance procedure to maintain the sidelink connection with the second UE (115-b), wherein the link maintenance procedure is a measurement procedure to measure one or more channel characteristics of the sidelink connection with the second UE (115-b); characterised by further comprising: transmitting a signal to solicit the second UE (115-b) to transmit a data packet at the access stratum layer for measurement at the first UE (115-a). establishing, at the first UE (115-a), a sidelink connection with a second UE (115-b); detecting, based at least in part on a status timer at an access stratum layer of the first UE (115-a), that a gap in communications with the second UE (115-b) via the sidelink connection exceeds a threshold time; and initiating, at the access stratum layer, a link maintenance procedure to maintain the sidelink connection with the second UE (115-b), wherein the link maintenance procedure is a measurement procedure to measure one or more channel characteristics of the sidelink connection with the second UE (115-b); characterised by further comprising: transmitting a signal to solicit the second UE (115-b) to transmit a data packet at the access stratum layer for measurement at the first UE (115-a).
An energy absorbing mechanism comprising: a. a cylinder with a helical cut along its axis forming a helical ribbon, said helical ribbon adapted for plastic deformation in response to stresses greater than a predetermined threshold stress along said axis of said helical ribbon; b. attachment means at the ends of said helical ribbon; wherein said helical ribbon is characterized by a force-displacement curve having an elastic region and a plastic region, and wherein the ratio between stretches of said helical ribbon at said plastic region and said elastic region is within a range of about 4:1 and 70:1. a. a cylinder with a helical cut along its axis forming a helical ribbon, said helical ribbon adapted for plastic deformation in response to stresses greater than a predetermined threshold stress along said axis of said helical ribbon; b. attachment means at the ends of said helical ribbon;
Electric cutter for tiles and stone slabs, comprising a base above which a circular blade is longitudinally slidable, driven into rotation by a respective electric motor, the base providing a sliding channel, in correspondence of a cutting line, apt to allow the cutting edge of the circular blade to drop as low as a cutting plane arranged at a level below the support plane (p-p') of said base, a reference square being further provided, mounted pivotable on the base, characterised in that said square consists of a support body, integral with pivoting means, provided with lateral plates (12a, 12b) having a seagull-winged configuration, lying on a same rotation plane, and of a pair of reference bars (21, 22) arranged aligned on said lateral plates (12a, 12b) on both sides of said pivoting means, in that the centre of rotation of said square is on the cutting line of said blade, in that said pivoting means are below said cutting plane and in that the plane of rotation of said lateral plates (12a, 12b) is above said support plane of the base.
Circuit comprising - an input port for applying a sinusoidal input signal, - a first buffering means for converting said sinusoidal input signal into a square wave signal, said square wave signal having a DC level defined by an adjustable threshold voltage level, - an output port for outputting said square wave signal to a power amplifier, characterised by a feedback loop comprising a low pass filtering means arranged for filtering said square wave signal and comparing means arranged for comparing the DC level of a filtered signal received from said low pass filtering means with a pre-set reference level, said reference level selected for cancelling a given harmonic component, said comparing means further arranged for outputting to said first buffering means a correction signal for adjusting said threshold voltage level of said first buffering means. - an input port for applying a sinusoidal input signal, - a first buffering means for converting said sinusoidal input signal into a square wave signal, said square wave signal having a DC level defined by an adjustable threshold voltage level, - an output port for outputting said square wave signal to a power amplifier,
A display device using a semiconductor light emitting device, the display device comprising: a first substrate comprising an electrode portion; a conductive adhesive layer located on the first substrate; and a plurality of semiconductor light emitting devices, at least part of each of the plurality of semiconductor light emitting devices being buried in an upper region of the conductive adhesive layer to constitute individual pixels electrically connected to the electrode portion, wherein the conductive adhesive layer contains a non-transparent resin to block light between the semiconductor light emitting devices, wherein: the electrode portion comprises a plurality of first electrodes and a plurality of second electrodes, each of the plurality of first electrodes extending in one direction, wherein a phosphor layer is located on the plurality of semiconductor light emitting devices, wherein the phosphor layer comprises a plurality of red phosphor layers and a plurality of green phosphor layers, and wherein each of the plurality of red phosphor layers and the plurality of green phosphor layers is deposited along a respective first electrode of the plurality of first electrodes. a first substrate comprising an electrode portion; a conductive adhesive layer located on the first substrate; and a plurality of semiconductor light emitting devices, at least part of each of the plurality of semiconductor light emitting devices being buried in an upper region of the conductive adhesive layer to constitute individual pixels electrically connected to the electrode portion, wherein the conductive adhesive layer contains a non-transparent resin to block light between the semiconductor light emitting devices, wherein: the electrode portion comprises a plurality of first electrodes and a plurality of second electrodes, each of the plurality of first electrodes extending in one direction, wherein a phosphor layer is located on the plurality of semiconductor light emitting devices, wherein the phosphor layer comprises a plurality of red phosphor layers and a plurality of green phosphor layers, and wherein each of the plurality of red phosphor layers and the plurality of green phosphor layers is deposited along a respective first electrode of the plurality of first electrodes. the electrode portion comprises a plurality of first electrodes and a plurality of second electrodes, each of the plurality of first electrodes extending in one direction, wherein a phosphor layer is located on the plurality of semiconductor light emitting devices, wherein the phosphor layer comprises a plurality of red phosphor layers and a plurality of green phosphor layers, and wherein each of the plurality of red phosphor layers and the plurality of green phosphor layers is deposited along a respective first electrode of the plurality of first electrodes.
A multipurpose tool comprising: a handle defining a channel; and a plurality of tool members carried by and foldable into the channel defined by the handle, wherein at least some of the plurality of tool members define a notch extending in a lateral direction extending between the opposed sidewalls of the handle, characterized in that: the notch is exposed in an instance in which the tool members are folded into the channel and is configured to be engaged by a user in order to at least partially rotatably open one or more of the tool members relative to the handle, wherein the plurality of tool members comprise at least one first tool member and a plurality of second tool members, wherein the at least one first tool member is longer than the plurality of second tool members, wherein the multipurpose tool further comprises a spacer positioned between the at least one first tool member and the plurality of second tool members, and wherein the plurality of second tool members are positioned in an adjacent relationship without a spacer therebetween. a handle defining a channel; and a plurality of tool members carried by and foldable into the channel defined by the handle, wherein at least some of the plurality of tool members define a notch extending in a lateral direction extending between the opposed sidewalls of the handle, characterized in that: the notch is exposed in an instance in which the tool members are folded into the channel and is configured to be engaged by a user in order to at least partially rotatably open one or more of the tool members relative to the handle, wherein the plurality of tool members comprise at least one first tool member and a plurality of second tool members, wherein the at least one first tool member is longer than the plurality of second tool members, wherein the multipurpose tool further comprises a spacer positioned between the at least one first tool member and the plurality of second tool members, and wherein the plurality of second tool members are positioned in an adjacent relationship without a spacer therebetween.
A method for removing chloramine from aqueous solutions comprising: providing an aqueous solution comprising chloramine and contacting the aqueous solution with a composition comprising a metal-containing particulate, wherein the metal-containing particulate comprises a thermolysis product of a metal salt, wherein the salt is selected from nitrogen-containing oxyanions, sulfur-containing anions, chlorides, phosphates, and combinations thereof.
An abnormality detection device for a container stack in which in the container stack, a plurality of containers where a code display surface recording container information is provided in a fixed position on a lateral outer surface of the stackable container are stacked such that the code display surfaces are positioned on a same side, and which determines a stacking abnormality in the container stack on a lateral side of a conveyance path where the container stack is conveyed with the code display surfaces oriented parallel to a conveyance direction, wherein a code reading means which captures images of the code display surfaces on the respective containers in the container stack is arranged on the lateral side of the conveyance path, a calculation processing means is additionally provided to which read data from the code reading means is input, the calculation processing means detects, from the read data of each of the code display surfaces, a position coordinate value of at least one fixed point (A to D) in each of the code display surfaces, and the stacking abnormality in the container stack is determined from the position coordinate value in each of the containers, characterized in that when the container stack which is conveyed on the conveyance path is in a position where all the code display surfaces in the container stack are present within an image capturing area of the code reading means, the images of all the code display surfaces are captured by the code reading means. wherein a code reading means which captures images of the code display surfaces on the respective containers in the container stack is arranged on the lateral side of the conveyance path, a calculation processing means is additionally provided to which read data from the code reading means is input, the calculation processing means detects, from the read data of each of the code display surfaces, a position coordinate value of at least one fixed point (A to D) in each of the code display surfaces, and the stacking abnormality in the container stack is determined from the position coordinate value in each of the containers, characterized in that when the container stack which is conveyed on the conveyance path is in a position where all the code display surfaces in the container stack are present within an image capturing area of the code reading means, the images of all the code display surfaces are captured by the code reading means.
A prosthetic heart valve including: - a prosthetic valve annulus defining an orifice for the passage of blood flow, - at least one prosthetic valve leaflet member including at least one coaptation surface (C1, C2, C3, C4) configured for cooperating with at least one corresponding coaptation surface (C5, C6, C1) of said prosthetic heart valve to regulate blood flow through said orifice, said at least one prosthetic valve leaflet member being displaceable by the blood flow between a closed position and an open position to produce, correspondingly, a contact and a separation of cooperating coaptation surfaces (C1, C2, C3, C4, C5, C6, CI), wherein in the open position the separation of the cooperating coaptation surfaces (C1, C2, C3, C4, C5, C6, C1) enables the blood flow through said orifice in a first direction, and wherein in the closed position the contact of the cooperating coaptation surfaces (C1, C2, C3, C4, C5, C6, C1) prevents the blood flow through said orifice in a second direction, opposite to said first direction, wherein the prosthetic heart valve includes at least one device (8, 10) configured for preventing at least in part the contact between cooperating coaptation surfaces (C1, C2, C3, C4, C5, C6, C1), so that a blood regurgitation in said second direction is enabled, and wherein said at least one device (8, 10) is configured for ceasing its action after a predetermined amount of time, said at least one device (8, 10) being configured for ceasing its action by erosion thereof, the prosthetic heart valve including a ring member defining said prosthetic valve annulus and including two leaflets movably connected to said ring member, wherein at least one of said at least one device (8, 10) is operatively associated to each leaflet. - a prosthetic valve annulus defining an orifice for the passage of blood flow, - at least one prosthetic valve leaflet member including at least one coaptation surface (C1, C2, C3, C4) configured for cooperating with at least one corresponding coaptation surface (C5, C6, C1) of said prosthetic heart valve to regulate blood flow through said orifice, said at least one prosthetic valve leaflet member being displaceable by the blood flow between a closed position and an open position to produce, correspondingly, a contact and a separation of cooperating coaptation surfaces (C1, C2, C3, C4, C5, C6, CI),
A method of producing a heat conductive sheet, the method comprising the following steps to: Step a step of dispersing a fibrous filler in a binder resin to prepare a heat conductive sheet-forming composition; Step a step of forming a molded block using the prepared heat conductive sheet-forming composition according to an extrusion molding method or a die molding method; Step a step of slicing the formed molded block into a sheet, wherein the fibrous filler is exposed at the sliced surface of the sheet obtained by slicing; and Step a step of pressing a sliced surface of the obtained sheet, wherein the sheet is compressed during pressing after slicing and the fibrous fillers thereby come into contact with each other within the sheet; wherein the fibrous filler has an average diameter of 8 to 12 μm and an aspect ratio of 2 to 50, a contained amount of the fibrous filler in the heat conductive sheet-forming composition based on 100 parts by mass of the binder resin is 120 to 300 parts by mass, a random orientation ratio of the fibrous filler in the heat conductive sheet is 55 to 95%, a thickness of the heat conductive sheet is 0.1 to 50 mm, and a surface glossiness (gloss value) of the heat conductive sheet measured using a gloss meter is 0.2 or higher. Step a step of dispersing a fibrous filler in a binder resin to prepare a heat conductive sheet-forming composition; Step a step of forming a molded block using the prepared heat conductive sheet-forming composition according to an extrusion molding method or a die molding method; Step a step of slicing the formed molded block into a sheet, wherein the fibrous filler is exposed at the sliced surface of the sheet obtained by slicing; and Step a step of pressing a sliced surface of the obtained sheet, wherein the sheet is compressed during pressing after slicing and the fibrous fillers thereby come into contact with each other within the sheet; wherein the fibrous filler has an average diameter of 8 to 12 μm and an aspect ratio of 2 to 50, a contained amount of the fibrous filler in the heat conductive sheet-forming composition based on 100 parts by mass of the binder resin is 120 to 300 parts by mass, a random orientation ratio of the fibrous filler in the heat conductive sheet is 55 to 95%, a thickness of the heat conductive sheet is 0.1 to 50 mm, and a surface glossiness (gloss value) of the heat conductive sheet measured using a gloss meter is 0.2 or higher.
A matching network (100, 200), comprising: a first-stage matching network (101, 201) including a switched matching network; a second-stage matching network (103, 202) including a mechanically-tuned matching network; and a sensor element (102, 203) simultaneously coupled to the first-stage matching network (101, 201) and the second-stage matching network (103, 202), wherein: the first-stage matching network (101, 201) is configured to perform low-Q impedance transformations when changes in impedance are beyond a control loop bandwidth associated with the second-stage matching network (103, 202), the second-stage matching network (103, 202) is configured to perform impedance matching for high-Q impedance transformations, and the sensor element (102, 203) is configured to detect signals and make calculations that are used to engage the first-stage matching network (101, 201) and the second-stage matching network (103, 202). a first-stage matching network (101, 201) including a switched matching network; a second-stage matching network (103, 202) including a mechanically-tuned matching network; and a sensor element (102, 203) simultaneously coupled to the first-stage matching network (101, 201) and the second-stage matching network (103, 202), wherein: the first-stage matching network (101, 201) is configured to perform low-Q impedance transformations when changes in impedance are beyond a control loop bandwidth associated with the second-stage matching network (103, 202), the second-stage matching network (103, 202) is configured to perform impedance matching for high-Q impedance transformations, and the sensor element (102, 203) is configured to detect signals and make calculations that are used to engage the first-stage matching network (101, 201) and the second-stage matching network (103, 202). the first-stage matching network (101, 201) is configured to perform low-Q impedance transformations when changes in impedance are beyond a control loop bandwidth associated with the second-stage matching network (103, 202), the second-stage matching network (103, 202) is configured to perform impedance matching for high-Q impedance transformations, and the sensor element (102, 203) is configured to detect signals and make calculations that are used to engage the first-stage matching network (101, 201) and the second-stage matching network (103, 202).
A method at a first communication device for exchanging information with a second communication device, comprising: communicating first identity information from the first communication device to the second communication device over a short-range communication link in response to an event and receiving second identity information from the second communication device over the short-range communication link, the first identity information identifying a user of the first communication device and the second identity information identifying a user of the second communication device; and based on the first and second identity information, and in response to the event, obtaining information specifying at least one attribute of the first and second users that they have in common; and wherein obtaining the information specifying the at least one attribute further comprises: sending the second identity information to a server over a communications network; receiving the information specifying the at least one attribute from the server over the communication network communicating first identity information from the first communication device to the second communication device over a short-range communication link in response to an event and receiving second identity information from the second communication device over the short-range communication link, the first identity information identifying a user of the first communication device and the second identity information identifying a user of the second communication device; and based on the first and second identity information, and in response to the event, obtaining information specifying at least one attribute of the first and second users that they have in common; and wherein obtaining the information specifying the at least one attribute further comprises: sending the second identity information to a server over a communications network; receiving the information specifying the at least one attribute from the server over the communication network sending the second identity information to a server over a communications network; receiving the information specifying the at least one attribute from the server over the communication network
A method of agglomerating reduced iron, the method comprising: filling a space in reduced iron with one or more gases selected from a group consisting of carbon monoxide and carbon dioxide; and converting the carbon monoxide into carbon dioxide and carbon while agglomerating the reduced iron. filling a space in reduced iron with one or more gases selected from a group consisting of carbon monoxide and carbon dioxide; and converting the carbon monoxide into carbon dioxide and carbon while agglomerating the reduced iron.