mhurhangee/ep-ind-claims huggingface dataset:
A user powered beverage brewing device comprising: a liquid reservoir; a food chamber; a plurality of pistons; (124, 126) a plurality of cylinders; (120, 122) a lever; and a filter; wherein said plurality of pistons (124, 126) matingly and slidingly fit within said plurality of cylinders, wherein said lever is adapted to be articulated manually by a user to draw a liquid that is added to said liquid reservoir into said cylinders and wherein said pistons (124, 126) operate in use to pressurize and pump said liquid from said cylinders (120, 122) into said food chamber to pass through a food contained within said food chamber and exit through said filter by articulating said lever a plurality of times; whereby said pressurized liquid that passes through said food is infused with said food to create an infused liquid; wherein said food chamber has a cross-sectional area and said plurality cylinders (120, 122) have a cross-sectional area; characterized in that a ratio of said cross-sectional area of said cylinders to said cross-sectional area of said food chamber is in a range of 1/10 to 1/100. and the lever is so connected to two pistons (124, 126) of the device so that they move alternately so that while one piston (124, 126) is moving into its mating cylinder (120,122) the other piston (124, 126) is withdrawing from its mating cylinder (120, 122) to cause the liquid to be continuously pressurised by one of the two pistons. (124, 126) a liquid reservoir; a food chamber; a plurality of pistons; (124, 126) a plurality of cylinders; (120, 122) a lever; and a filter; wherein said plurality of pistons (124, 126) matingly and slidingly fit within said plurality of cylinders, wherein said lever is adapted to be articulated manually by a user to draw a liquid that is added to said liquid reservoir into said cylinders and wherein said pistons (124, 126) operate in use to pressurize and pump said liquid from said cylinders (120, 122) into said food chamber to pass through a food contained within said food chamber and exit through said filter by articulating said lever a plurality of times; whereby said pressurized liquid that passes through said food is infused with said food to create an infused liquid; wherein said food chamber has a cross-sectional area and said plurality cylinders (120, 122) have a cross-sectional area; characterized in that a ratio of said cross-sectional area of said cylinders to said cross-sectional area of said food chamber is in a range of 1/10 to 1/100. and the lever is so connected to two pistons (124, 126) of the device so that they move alternately so that while one piston (124, 126) is moving into its mating cylinder (120,122) the other piston (124, 126) is withdrawing from its mating cylinder (120, 122) to cause the liquid to be continuously pressurised by one of the two pistons. (124, 126)
A computer-implemented method of identifying treelet translation pairs for use in a machine translation system that translates a source language input into a target language output, the method comprising: accessing a corpus of pairs of aligned, parallel syntactic dependency structures, each pair including a source language dependency structure having nodes that represent lexical items, the nodes being aligned with nodes representing lexical items in a target language dependency structure; enumerating all individual source nodes and all connected subgraphs of source nodes in the source language dependency structure as possible source treelets; identifying lexical items, and corresponding dependencies, in the target language dependency structure, that are aligned with the enumerated nodes and connected subgraphs, as possible target treelets corresponding to the possible source treelets; extracting well formed treelet translation pairs from the possible source treelets and possible target treelets, wherein extracting well formed treelet translation pairs comprises extracting as a well formed treelet translation pair the possible source treelet and corresponding possible target treelet only if the lexical items in the possible source treelet are only aligned with lexical items in the possible target treelet and the lexical items in the possible target treelet are only aligned with lexical items in the possible source treelet; and storing the treelet translation pairs in a data store. accessing a corpus of pairs of aligned, parallel syntactic dependency structures, each pair including a source language dependency structure having nodes that represent lexical items, the nodes being aligned with nodes representing lexical items in a target language dependency structure; enumerating all individual source nodes and all connected subgraphs of source nodes in the source language dependency structure as possible source treelets; identifying lexical items, and corresponding dependencies, in the target language dependency structure, that are aligned with the enumerated nodes and connected subgraphs, as possible target treelets corresponding to the possible source treelets; extracting well formed treelet translation pairs from the possible source treelets and possible target treelets, wherein extracting well formed treelet translation pairs comprises extracting as a well formed treelet translation pair the possible source treelet and corresponding possible target treelet only if the lexical items in the possible source treelet are only aligned with lexical items in the possible target treelet and the lexical items in the possible target treelet are only aligned with lexical items in the possible source treelet; and storing the treelet translation pairs in a data store.
A mobile station device configured to communicate with a base station device by using a plurality of uplink subbands and a plurality of downlink subbands, wherein the mobile station device is configured to transmit, to the base station device, first data by using a first uplink subband and second data by using a second uplink subband, the first uplink subband and the second uplink subband being different subbands included in the plurality of the uplink subbands, and receive, from the base station device, first response information for the first data and second response information for the second data, the first response information and the second response information being received by using Hybrid Automatic Repeat reQuest,HARQ, indicator channels within one downlink subband included in the plurality of the downlink subbands.
A printing device comprising: a printing unit that performs printing on a medium using liquid; a liquid container that includes a liquid containing chamber capable of containing the liquid supplied to the printing unit; an exterior member (15, 17) that covers at least part of the liquid container and defines a horizontal surface; and a liquid receiving portion (32,61) that includes a liquid inlet formed in the liquid container and an open portion formed in the horizontal surface of the exterior member (15, 17), wherein the liquid containing chamber is able to receive the liquid through the liquid receiving portion (32, 61); the liquid inlet includes a first opening, which is an inner end opening at an inner end of the liquid inlet, which opens in the liquid containing chamber, wherein the liquid container includes an upper wall that is provided with the first opening, and a second opening located at an opposite side of the first opening; the open portion is located at a position corresponding to the liquid inlet and includes an outer end opening at an outer end of the open portion, which is located at an opposite side of the first opening; and the outer end opening has an opening width in one direction that is greater than or equal to a width of the upper wall in the one direction, and that is greater than or equal to a width of the second opening in the one direction. a printing unit that performs printing on a medium using liquid; a liquid container that includes a liquid containing chamber capable of containing the liquid supplied to the printing unit; an exterior member (15, 17) that covers at least part of the liquid container and defines a horizontal surface; and a liquid receiving portion (32,61) that includes a liquid inlet formed in the liquid container and an open portion formed in the horizontal surface of the exterior member (15, 17), wherein the liquid containing chamber is able to receive the liquid through the liquid receiving portion (32, 61); the liquid inlet includes a first opening, which is an inner end opening at an inner end of the liquid inlet, which opens in the liquid containing chamber, wherein the liquid container includes an upper wall that is provided with the first opening, and a second opening located at an opposite side of the first opening; the open portion is located at a position corresponding to the liquid inlet and includes an outer end opening at an outer end of the open portion, which is located at an opposite side of the first opening; and the outer end opening has an opening width in one direction that is greater than or equal to a width of the upper wall in the one direction, and that is greater than or equal to a width of the second opening in the one direction.
An insert at least a part of which is configured to be inserted into a subject, comprising: an insert body comprising an opening and an inner cavity thereinside; a light guide member configured to be inserted into the inner cavity of the insert body and guide light emitted from a light source; a light emitting portion configured to emit light guided by the light guide member; a light absorption member configured to generate photoacoustic waves by absorbing the light emitted from the light emitting portion; a proximal end portion comprising an inlet of liquid and a chamber communicating with the inlet and the inner cavity of the insert body (15 1), and a hollow tube in which the light guide member is housed, the hollow tube comprising the light absorption member in a distal end portion, wherein a diameter of the inner cavity of the insert body is larger than an outer diameter of the hollow tube, the inner cavity has a space for flow of the liquid, characterized in that the hollow tube is configured to be inserted into the inner cavity of the insert body, so that said space is formed between the hollow tube and the inner cavity of insert body, and liquid injected through the inlet is configured to flow from the opening of the insert body through the chamber and said space between the inner cavity of the insert body and the hollow tube, and the insert body comprising a protruding portion configured to protrude in a convex shape to the inner cavity side. an insert body comprising an opening and an inner cavity thereinside; a light guide member configured to be inserted into the inner cavity of the insert body and guide light emitted from a light source; a light emitting portion configured to emit light guided by the light guide member; a light absorption member configured to generate photoacoustic waves by absorbing the light emitted from the light emitting portion; a proximal end portion comprising an inlet of liquid and a chamber communicating with the inlet and the inner cavity of the insert body (15 1), and a hollow tube in which the light guide member is housed, the hollow tube comprising the light absorption member in a distal end portion, wherein a diameter of the inner cavity of the insert body is larger than an outer diameter of the hollow tube, the inner cavity has a space for flow of the liquid, characterized in that the hollow tube is configured to be inserted into the inner cavity of the insert body, so that said space is formed between the hollow tube and the inner cavity of insert body, and liquid injected through the inlet is configured to flow from the opening of the insert body through the chamber and said space between the inner cavity of the insert body and the hollow tube, and the insert body comprising a protruding portion configured to protrude in a convex shape to the inner cavity side.
A rubber crawler having a metal core for improvement of wheel separation and durability, comprising: a lug which is formed to protrude on an external side surface and grounded on the ground; a steel cord which is disposed internally for enduring compressive load and driving load of a tracked vehicle; and a metal core which is embedded within the steel cord so as to transfer the driving force of an engine, characterized in that two metal core extensions (142, 144, 146, 148) are respectively formed to be protruded from both side surfaces along lengthwise direction of the rubber crawler, and a pair of the adjacent metal cores are disposed so as to be contacted with each one inclined surface of the two pair of metal core extensions (142, 144, 146, 148), and when seeing from a front direction of the metal core along the lengthwise direction of the rubber crawler, all of the inclined surfaces have the same inclined angle with respect to each other so as to support X axis, Y axis, and Z axis displacements. a lug which is formed to protrude on an external side surface and grounded on the ground; a steel cord which is disposed internally for enduring compressive load and driving load of a tracked vehicle; and a metal core which is embedded within the steel cord so as to transfer the driving force of an engine, characterized in that two metal core extensions (142, 144, 146, 148) are respectively formed to be protruded from both side surfaces along lengthwise direction of the rubber crawler, and a pair of the adjacent metal cores are disposed so as to be contacted with each one inclined surface of the two pair of metal core extensions (142, 144, 146, 148), and when seeing from a front direction of the metal core along the lengthwise direction of the rubber crawler, all of the inclined surfaces have the same inclined angle with respect to each other so as to support X axis, Y axis, and Z axis displacements.
An apparatus for disinfecting water, comprising at least one primary reactor supplied with chemical reagents and adapted to generate disinfectant and oxidizing products, characterized in that it comprises at least one secondary reactor supplied with supply water and adapted to introduce said disinfectant and oxidizing products mixed with said supply water, into water to be disinfected; said primary and secondary reactors are fastened to a support (3, 6) and are immersed in said water to be treated, which flows in a pipe wherein said primary and secondary reactors are inserted; a supply duct adapted to feed water to said secondary reactor; said secondary reactor 4 providing a mixing chamber for the dilution of said disinfectant and oxidizing products with said water from said supply duct, said secondary reactor comprising an ejector from which said mixture of supply water and disinfectant and oxidizing products exits.
An external wall unit comprising at least one glass pane element having an outer surface constituting an external wall, and an inner surface, and a framework structure fastened to the inner surface of the glass pane element by gluing, by means of which framework structure the external wall unit is attachable directly to a body structure of a building or a structure and may be coupled and/or supported to a framework structure of an external wall unit arranged under it and/or above it, wherein the framework structure comprises first coupling means and second coupling means, the first coupling means being arranged to engage with the second coupling means of the second external wall unit installable underneath the external wall unit and the second coupling means are arranged to engage with the first coupling means of the third external wall unit installable above the external wall unit for generating an optimally uniform glass surface, and characterized in that the framework structure is made from thin sheet metal and implemented as a circumferential structure surrounding the glass pane element on the inner surface thereof at edges of the glass pane element or in the vicinity thereof.
A grating-coupled light guide comprising: a light guide configured to guide light; an optical concentrator configured to concentrate light (102") from a light source to provide concentrated light; and a grating coupler at an input of the light guide, the grating coupler configured to diffractively redirect the concentrated light into the light guide at a non-zero propagation angle as guided light having a first spread angle and a second spread angle, wherein the grating coupler comprises a diffraction grating having diffractive features, characterized in that characteristics of the optical concentrator and the grating coupler are configured in combination to determine the non-zero propagation angle, the first spread angle, and the second spread angle of the guided light within the light guide, the first spread angle being in a direction orthogonal to the second spread angle, wherein a variation in the pitch of the diffractive features along a length and across a width of the diffraction grating controls the first spread angle, and a variation in a lateral shape or the width of the diffraction grating controls the second spread angle. a light guide configured to guide light; an optical concentrator configured to concentrate light (102") from a light source to provide concentrated light; and a grating coupler at an input of the light guide, the grating coupler configured to diffractively redirect the concentrated light into the light guide at a non-zero propagation angle as guided light having a first spread angle and a second spread angle, wherein the grating coupler comprises a diffraction grating having diffractive features, characterized in that characteristics of the optical concentrator and the grating coupler are configured in combination to determine the non-zero propagation angle, the first spread angle, and the second spread angle of the guided light within the light guide, the first spread angle being in a direction orthogonal to the second spread angle, wherein a variation in the pitch of the diffractive features along a length and across a width of the diffraction grating controls the first spread angle, and a variation in a lateral shape or the width of the diffraction grating controls the second spread angle.
Method for operating an autonomously operating driving safety or driver assistance system of a motor vehicle, which continuously records vehicle-related and/or vehicle surroundings-related data, which continuously repeatedly makes a decision based on said data regarding whether a driving safety or driver assistance system process is to be autonomously initiated or carried out, and which carries out a checking process, during which sensor data and parameter settings that are necessary for the operation of the driving safety or driver assistance system are checked for the plausibility thereof, characterized in that the checking process is carried out immediately following the start of travel of the motor vehicle, wherein in the period of time between the start of travel of the motor vehicle and the start of the operation of the driving safety or driver assistance system an auxiliary method for an immediate and safe auxiliary mode of the driving safety or driver assistance system with slightly reduced functional scope is used during a checking period.
A compound of the formula: or its ester, a protected compound at the amino on the ring in the 7-side chain, a pharmaceutically acceptable salt, or a solvate thereof.
A method of converting vulcanized rubber comprising sulphur bridges, the method comprising: heating in a reactor the vulcanized rubber and a solvent comprising water to a reaction temperature of between 230°C and 285°C and below a critical temperature of the solvent; providing a reaction pressure in the reactor that is higher than a saturated vapour pressure of the solvent at the reaction temperature, the reaction pressure provided in part by an inert gas over pressure of between 300 psi [2.07 MPa] and 4500 psi [31.03MPa]; and maintaining the reaction temperature and the reaction pressure for a reaction time sufficient to break at least a portion of the sulphur bridges of the vulcanized rubber. heating in a reactor the vulcanized rubber and a solvent comprising water to a reaction temperature of between 230°C and 285°C and below a critical temperature of the solvent; providing a reaction pressure in the reactor that is higher than a saturated vapour pressure of the solvent at the reaction temperature, the reaction pressure provided in part by an inert gas over pressure of between 300 psi [2.07 MPa] and 4500 psi [31.03MPa]; and maintaining the reaction temperature and the reaction pressure for a reaction time sufficient to break at least a portion of the sulphur bridges of the vulcanized rubber.
A radar device component containing a polybutylene terephthalate composition comprising: as component polybutylene terephthalate resin in an amount of from 40wt% to 90wt%, as component glass fiber having dielectric constant (Dk) of equal to or less than 4.6 and dissipation factor (Df) of less than 0.004 at a frequency from 1GHz to 78GHz, and Dk of equal to or less than 4.2 and Df of 0.001 to 0.0035 at a frequency of 79GHz to 85GHz, the dielectric constant Dk and dissipation factor Df of glass fibers is measured according to GB 9534-88 in an amount of 10wt% to 60wt%.
A dual coated optical fiber comprising: a glass fiber comprising a core region and a cladding region; a dual coating layer surrounding the glass fiber and comprising: an inner coating surrounding the glass fiber, the inner coating comprising a first polyimide material wherein the first polyimide material contains substituents selected from the group consisting of benzophenone tetracarboxylic dianhydrides, 4,4-oxydianilines, phenylenediamines or combinations thereof; and an outer coating surrounding and in direct contact with the inner coating, the outer coating comprising a second polyimide material having a decomposition threshold temperature greater than the first polyimide material; wherein a modulus of elasticity of the second polyimide material is greater than a modulus of elasticity of the first polyimide material, and wherein the second polyimide material contains substituents selected from the group consisting of biphenyldianhydrides, pheylenediamines, or combinations thereof a glass fiber comprising a core region and a cladding region; a dual coating layer surrounding the glass fiber and comprising: an inner coating surrounding the glass fiber, the inner coating comprising a first polyimide material wherein the first polyimide material contains substituents selected from the group consisting of benzophenone tetracarboxylic dianhydrides, 4,4-oxydianilines, phenylenediamines or combinations thereof; and an outer coating surrounding and in direct contact with the inner coating, the outer coating comprising a second polyimide material having a decomposition threshold temperature greater than the first polyimide material; an inner coating surrounding the glass fiber, the inner coating comprising a first polyimide material wherein the first polyimide material contains substituents selected from the group consisting of benzophenone tetracarboxylic dianhydrides, 4,4-oxydianilines, phenylenediamines or combinations thereof; and an outer coating surrounding and in direct contact with the inner coating, the outer coating comprising a second polyimide material having a decomposition threshold temperature greater than the first polyimide material; wherein a modulus of elasticity of the second polyimide material is greater than a modulus of elasticity of the first polyimide material, and wherein the second polyimide material contains substituents selected from the group consisting of biphenyldianhydrides, pheylenediamines, or combinations thereof