mhurhangee/ep-ind-claims huggingface dataset:
A breathable dressing for treating a tissue site with reduced pressure, comprising: an applicator having an aperture therethrough to provide negative pressure to the tissue site; a drape substantially covering the applicator; a first pad section located between the drape and the applicator, the first pad section having a side adapted to receive reduced pressure; a second pad section located between the drape and the applicator in fluid communication with the aperture to provide negative pressure to the tissue site, the second pad section having a side wherein a portion of the side of the second pad section is substantially adjacent to the side of the first pad section; a fabric layer located at least partially between the second pad section and the drape, the fabric layer being fluidly coupled between the first pad section and the second pad section; and wherein the drape is secured to the applicator, covering the first pad section, the second pad section, and the fabric layer in a substantially sealed environment. an applicator having an aperture therethrough to provide negative pressure to the tissue site; a drape substantially covering the applicator; a first pad section located between the drape and the applicator, the first pad section having a side adapted to receive reduced pressure; a second pad section located between the drape and the applicator in fluid communication with the aperture to provide negative pressure to the tissue site, the second pad section having a side wherein a portion of the side of the second pad section is substantially adjacent to the side of the first pad section; a fabric layer located at least partially between the second pad section and the drape, the fabric layer being fluidly coupled between the first pad section and the second pad section; and wherein the drape is secured to the applicator, covering the first pad section, the second pad section, and the fabric layer in a substantially sealed environment.
A pneumatic tire comprising at least one carcass extending toroidally between a pair of bead portions as a skeleton, and at least two belt layers (2a, 2b) each formed by rubberizing a plurality of steel cords arranged obliquely with respect to the tire circumferential direction on the outside in the tire radial direction of the crown portion of the carcass characterized in that the steel cord is composed of two or more core wires and five to seven sheath wires twisted together around the core wires; the distance between adjacent steel cords in the belt layer (2a, 2b) is more than 1.0 mm and not more than 1.50 mm; and the gauge of the belt layer (2a, 2b) is not less than 1.20 mm and not more than 1.60 mm.
An artificial turf comprising a backing of open net structure, a plurality of artificial grass fibers and a plurality of artificial base fibers, wherein said grass and base fibers are attached to the backing and extend upwardly from the backing when in use, and wherein the backing comprises a first side and a second side opposite to the first side and opposite the grass and base fibers characterized in that the base and grass fibers are reinforced by non-granular infill material, which comprises elastomer, as a coating on each fiber (2,3) and covering part of the length of the grass fibers and at least part of the length of the base fibers, and wherein the backing comprises holes for extruding the non-granular infill material from the second side of the backing and wherein the reinforced parts of the base and grass fibers form a resilient and water-permeable layer which is attached to the backing and over which the grass fibers extend.
Device for filling processing stations with a pumpable working material, with a central tank for the working material, with a transfer chamber associated with the central tank, and with a feed line associated with the transfer chamber, such that the working material can be first conveyed from the central tank into the transfer chamber and from there through the feed line to a processing station, wherein in said transfer chamber there is arranged a pressurising-medium nozzle that is directed towards a discharge opening of the transfer chamber, characterised in that the transfer chamber is equipped with a floor that slopes down in the manner of a ramp towards the discharge opening.
Linear polymer, branched or crosslinked, comprising, for 100% molar: - a) a molar proportion greater than or equal to 75% and less than or equal to 99.95% of monomeric units issuing from an N,N-dialkyl acrylamide, the alkyl radicals each comprising from 1 to 4 carbon atoms; - b) a molar proportion greater than or equal to 0.05% and less than or equal to 1% of monomeric units issuing from a monomer of formula: CH 2 =C(R 1)-C(=O)-O-[(CH 2 -CH(R 2)-O] n -R 3 in which n represents a number between 1 and 50, R 1 represents a hydrogen atom or a methyl radical, R 2 represents a hydrogen atom, a methyl radical or an ethyl radical and R 3 a hydrocarbon aliphatic radical, linear or branched, saturated or unsaturated, comprising from 8 to 30 carbon atoms, and - c) optionally a molar proportion greater than 0% and less than or equal to 24% either of monomeric units issuing from a monomer comprising a free strong acid function, partially or totally salified, or of monomeric units issuing from a monomer of formula: CH 2 =C(R 4)-C(=O)-Y-[(CH 2) m -N(R 5)(R 6) in which m represents a number between 1 and 4, Y represents O or NH, R 4 represents a hydrogen atom or a methyl radical, R 5 and R 6, identical or different, represent a methyl radical or an ethyl radical, and - d) optionally a molar proportion greater than 0% and less than or equal to 1% of a diethylene or polyethylene crosslinking monomer. - a) a molar proportion greater than or equal to 75% and less than or equal to 99.95% of monomeric units issuing from an N,N-dialkyl acrylamide, the alkyl radicals each comprising from 1 to 4 carbon atoms; - b) a molar proportion greater than or equal to 0.05% and less than or equal to 1% of monomeric units issuing from a monomer of formula: CH 2 =C(R 1)-C(=O)-O-[(CH 2 -CH(R 2)-O] n -R 3 in which n represents a number between 1 and 50, R 1 represents a hydrogen atom or a methyl radical, R 2 represents a hydrogen atom, a methyl radical or an ethyl radical and R 3 a hydrocarbon aliphatic radical, linear or branched, saturated or unsaturated, comprising from 8 to 30 carbon atoms, and - c) optionally a molar proportion greater than 0% and less than or equal to 24% either of monomeric units issuing from a monomer comprising a free strong acid function, partially or totally salified, or of monomeric units issuing from a monomer of formula: CH 2 =C(R 4)-C(=O)-Y-[(CH 2) m -N(R 5)(R 6) in which m represents a number between 1 and 4, Y represents O or NH, R 4 represents a hydrogen atom or a methyl radical, R 5 and R 6, identical or different, represent a methyl radical or an ethyl radical, and - d) optionally a molar proportion greater than 0% and less than or equal to 1% of a diethylene or polyethylene crosslinking monomer.
An optical signal measurement method comprising: obtaining power p i of a first optical signal on a target frequency band at a moment Ti, and obtaining power q i of a second optical signal on the target frequency band at a moment Ti+Δt, wherein the first optical signal is a signal detected in an optical signal transmission source, the second optical signal is a signal detected on a to-be-measured node, Δt is a transmission duration of transmitting an optical signal from the optical signal transmission source to the to-be-measured node, 1≤i≤N, and N is a positive integer greater than 1; and obtaining a canonical correlation analysis, CCA parameter for the first optical signal and the second optical signal on the target frequency band according to the power array P=[p 1, p N] of the first optical signal on the target frequency band and the power array Q=[q 1, q N] of the second optical signal on the target frequency band; and determining an optical signal-to-noise ratio on the to-be-measured node according to the CCA parameter. obtaining power p i of a first optical signal on a target frequency band at a moment Ti, and obtaining power q i of a second optical signal on the target frequency band at a moment Ti+Δt, wherein the first optical signal is a signal detected in an optical signal transmission source, the second optical signal is a signal detected on a to-be-measured node, Δt is a transmission duration of transmitting an optical signal from the optical signal transmission source to the to-be-measured node, 1≤i≤N, and N is a positive integer greater than 1; and obtaining a canonical correlation analysis, CCA parameter for the first optical signal and the second optical signal on the target frequency band according to the power array P=[p 1, p N] of the first optical signal on the target frequency band and the power array Q=[q 1, q N] of the second optical signal on the target frequency band; and determining an optical signal-to-noise ratio on the to-be-measured node according to the CCA parameter.
An apparatus, comprising: at least one processor; and at least one memory including program code; wherein the at least one memory and the program code are configured to, with the at least one processor, cause the apparatus to at least: handle a packet including a header and a payload, wherein handling the packet comprises configuring the header to include an encoding of a set of hops of a path for the packet and an encoding of a common merge point associated with the set of hops of the path and configured to support rerouting of the packet based on a failure on the path. at least one processor; and at least one memory including program code; wherein the at least one memory and the program code are configured to, with the at least one processor, cause the apparatus to at least: handle a packet including a header and a payload, wherein handling the packet comprises configuring the header to include an encoding of a set of hops of a path for the packet and an encoding of a common merge point associated with the set of hops of the path and configured to support rerouting of the packet based on a failure on the path.
A method for random access procedure in a user equipment, comprising: receiving a physical downlink control channel, PDCCH, order for initiating a random access procedure from an eNodeB; if the user equipment is configured with multiple timing advance groups, TAGs, comprising a primary TAG and a secondary TAG, determining a serving cell for a transmission of a random access preamble among a cell of the primary TAG and a cell of the secondary TAG, based on a carrier indicator field value included in the received PDCCH order; and initiating the random access procedure for the determined serving cell by transmitting the random access preamble on the determined serving cell, wherein the carrier indicator field value indicates the cell of the secondary TAG as the serving cell for the transmission of the random access preamble, and wherein, in the random access procedure, a random access channel resource is assigned based on the user equipment and the TAG, wherein the PDCCH order comprises a downlink control information, DCI, format scrambled with cell-radio network temporary identifier C-RNTI, and wherein the DCI format comprises at least one of DCI format differentiation flag, localized and distributed virtual resource block, VRB, assignment flag, resource block assignment bit, or preamble index. receiving a physical downlink control channel, PDCCH, order for initiating a random access procedure from an eNodeB; if the user equipment is configured with multiple timing advance groups, TAGs, comprising a primary TAG and a secondary TAG, determining a serving cell for a transmission of a random access preamble among a cell of the primary TAG and a cell of the secondary TAG, based on a carrier indicator field value included in the received PDCCH order; and initiating the random access procedure for the determined serving cell by transmitting the random access preamble on the determined serving cell, wherein the carrier indicator field value indicates the cell of the secondary TAG as the serving cell for the transmission of the random access preamble, and wherein, in the random access procedure, a random access channel resource is assigned based on the user equipment and the TAG, wherein the PDCCH order comprises a downlink control information, DCI, format scrambled with cell-radio network temporary identifier C-RNTI, and wherein the DCI format comprises at least one of DCI format differentiation flag, localized and distributed virtual resource block, VRB, assignment flag, resource block assignment bit, or preamble index.
Child-resistant protective cap having an associated container or bottle for liquid or pasty media, equipped with a closure or an application system of these media, wherein the protective cap is unscrewable only upon simultaneous depressing and thus releasing of a lock of its thread with the thread on the spout of the container or bottle, characterized in that the protective cap has two mutually opposing bead-like thread on its inner wall, each with a widened end region, so that a stop face is formed there in each case, and the associated bottle has two groove-like, mutually opposing threads on its spout, and each has a widened region in the end region, so that an undercut is formed by the latter, so that upon screwing the protective cap on, the stop faces on the two bead-like threads catch behind the undercuts on the groove-like threads, and the stop faces are squeezable under the undercuts only by pressing the protective cap toward the container or the bottle with elastic deformation of the walling of the protective cap mouth at the spout neck, which for this purpose forms a downwardly flaring slide-off surface, and hereinafter the protective cap is unscrewable upon simultaneous rotation.
Mechanical seal for sealing at least one fluid-conducting channel and/or space extending in a stationary component and/or a rotating component from the environment, having a slide ring which is supported in a sealing manner in the axial direction against a counter ring and, to compensate for wear on its front-end seal face or on a counter face, is supported against the counter ring elastically and movably in the axial direction with this seal face; having a position sensor for detecting the position of the slide ring in the axial direction; characterized in that a temperature sensor is provided on a leakage side of the seal face facing away from the channel and/or space, which sensor at least indirectly detects a temperature which is dependent on the magnitude of a leakage flow passing from the channel and/or space via the seal face. having a slide ring which is supported in a sealing manner in the axial direction against a counter ring and, to compensate for wear on its front-end seal face or on a counter face, is supported against the counter ring elastically and movably in the axial direction with this seal face; having a position sensor for detecting the position of the slide ring in the axial direction; characterized in that a temperature sensor is provided on a leakage side of the seal face facing away from the channel and/or space, which sensor at least indirectly detects a temperature which is dependent on the magnitude of a leakage flow passing from the channel and/or space via the seal face.
A method of measuring movement of an input device and object relative to each other along at least one measuring axis, the method comprising the steps of illuminating an object surface with a measuring laser beam, emitted from the laser cavity of a laser device, for each measuring axis, generating a measurement signal representative of changes in operation of the laser cavity, said changes being due to interference of measuring beam radiation re-entering said laser cavity and an optical wave in said laser cavity and being representative of said movement along said at least one measuring axis, characterized in that selecting, in dependence on the speed of movement of said input device and said object relative to each other, one of at least two parameters of said measurement signal, wherein a first one of said at least two parameters comprises a phase difference between corresponding events in successive portions of said measurement signal, wherein said events are caused by a shape and a periodicity of an electrical drive current supplied to the laser device, and a second one of said at least two parameters comprises an offset frequency superposed on said measurement signal, wherein the offset frequency is determined by the modulated drive current and the movement and/or distance of the input device and the object relative to each other along the measuring axis, wherein said phase difference between corresponding events in successive portions of said measurement signal is selected for determination of speed and direction of movement for a set of lower speeds, beneficially including the lowest speed, in said range, wherein the offset frequency superposed on said measurement signal is selected for determination of speed and direction of movement for a set of higher speeds, beneficially including the highest speed, in said range, and determining from said selected parameter the speed and direction of said movement, and generating an electric signal representative of said speed and direction of movement.
A device for introducing and maintaining a port in an open entrance of an umbilical vessel of a mammalian neonate, comprising a cannula equipped with a bulbous-like body at the distal end, one or more anchors for attaching the device to the vessel, a connecting part for connecting catheters, syringes and the like in the proximal end, and optionally a clamp closing the umbilical cord.
An electrode manufacturing apparatus comprising: a supply part configured to supply a substrate; a coating part configured to coat at least one surface of the supplied substrate with an electrode layer divided into coated portions, wherein the coated portions are coated with an electrode slurry positioned in two or more regions spaced apart from one another in a direction perpendicular to a direction in which the substrate is supplied, and a non-coated portion positioned between the coated portions; a drying part configured to dry the electrode slurry to manufacture an electrode film; and a recovery part configured to recover the electrode film, characterised in that the recovery part comprises: a bobbin around which the electrode film is wound; and a variable ring fitted with the bobbin and configured to be movable in a longitudinal direction of the bobbin, the variable ring positioned to correspond to a position of the non-coated portion. a supply part configured to supply a substrate; a coating part configured to coat at least one surface of the supplied substrate with an electrode layer divided into coated portions, wherein the coated portions are coated with an electrode slurry positioned in two or more regions spaced apart from one another in a direction perpendicular to a direction in which the substrate is supplied, and a non-coated portion positioned between the coated portions; a drying part configured to dry the electrode slurry to manufacture an electrode film; and a recovery part configured to recover the electrode film, a bobbin around which the electrode film is wound; and a variable ring fitted with the bobbin and configured to be movable in a longitudinal direction of the bobbin, the variable ring positioned to correspond to a position of the non-coated portion.
A curved display unit (1, 100B) comprising: a first curved plate-like member (11, 110) including a display device; a second curved plate-like member (12, 120) including a drive circuit, the drive circuit configured to control the display device; and one or two or more wiring sections (13, 130) having flexibility, the wiring sections configured to connect the first curved plate-like member and the second curved plate-like member to each other, characterized in that the curvature of the second curved plate-like member (12, 120) is larger than 0 and smaller than the curvature of the first curved plate-like member (11, 110) and in that at least a part of the second curved plate-like member (12, 120) is fixed to a member with a thermal expansion coefficient equal to or smaller than that of the second curved plate-like member (12, 120). a first curved plate-like member (11, 110) including a display device; a second curved plate-like member (12, 120) including a drive circuit, the drive circuit configured to control the display device; and one or two or more wiring sections (13, 130) having flexibility, the wiring sections configured to connect the first curved plate-like member and the second curved plate-like member to each other, characterized in that the curvature of the second curved plate-like member (12, 120) is larger than 0 and smaller than the curvature of the first curved plate-like member (11, 110) and in that at least a part of the second curved plate-like member (12, 120) is fixed to a member with a thermal expansion coefficient equal to or smaller than that of the second curved plate-like member (12, 120).
Method for the production of a moulding having at least one reinforcement by means of fibres which are orientated unidirectionally and embedded in a first plastic matrix, having the following steps: a) Providing a preform comprising at least one fibre ribbon (2, 2'), a mounting being fitted in the longitudinal direction of the at least one fibre ribbon (2, 2') at one end and, at the other end, at least one fixing unit which is moveable along the longitudinal direction of the at least one fibre ribbon (2, 2') being fitted, b) Inserting and fixing the preform in an injection moulding die, the end with the mounting being disposed at the outflow end of the injection moulding die, c) Injecting a second plastic matrix through the melt channel so that the fixing unit is transported by the melt flow to the other end of the preform and also d) Cooling and hardening the moulding. a) Providing a preform comprising at least one fibre ribbon (2, 2'), a mounting being fitted in the longitudinal direction of the at least one fibre ribbon (2, 2') at one end and, at the other end, at least one fixing unit which is moveable along the longitudinal direction of the at least one fibre ribbon (2, 2') being fitted, b) Inserting and fixing the preform in an injection moulding die, the end with the mounting being disposed at the outflow end of the injection moulding die, c) Injecting a second plastic matrix through the melt channel so that the fixing unit is transported by the melt flow to the other end of the preform and also d) Cooling and hardening the moulding.
Fender apparatus for shock absorption during a collision between two objects, wherein the fender apparatus is adapted to be arranged on one of the objects for use during stem berthing of ferries for passenger traffic, the fender apparatus comprising a framework, a receiving member arranged at a first side of the framework, a deformable main damping device, which is arranged to automatically return to its original shape after deformation, and at least one supplementary damping device, the main damping device and the at least one supplementary damping device being arranged in parallel at the framework, at an opposite side to the receiving member, wherein the at least one supplementary damping device consists of a hydraulic or pneumatic damper, characterized by the main damping device being arranged to abut against the colliding object on which the fender apparatus is adapted to be arranged when the fender apparatus is arranged on said colliding object, wherein the receiving member and the framework are adapted to be subject to a collision force and thereby push the main damping device against said colliding object, such that the main damping device is compressed and absorbs the collision energy.