mhurhangee/patent-ind-claim-en huggingface dataset:
Milk delivery device , in particular for use in a fully automatic coffee machine and/or as a milk-frothing device , having a steam nozzle for generating a steam flow , and a mixing chamber adjoining a steam outlet opening of the steam nozzle , wherein the milk is guided at an entry point into the mixing chamber , wherein the entry point is upstream with respect to a direction of the steam flow of the steam outlet opening , characterized - in that the entry point is formed by means of a constriction , wherein - the constriction forms a structural boundary which separates an intake chamber upstream of the mixing chamber from the mixing chamber , - wherein the mixing chamber and the intake chamber are arranged annularly around the steam nozzle , and wherein - the mixing chamber has a greater opening cross section than the constriction . - in that the entry point is formed by means of a constriction , wherein - the constriction forms a structural boundary which separates an intake chamber upstream of the mixing chamber from the mixing chamber , - wherein the mixing chamber and the intake chamber are arranged annularly around the steam nozzle , and wherein - the mixing chamber has a greater opening cross section than the constriction .
A wound dressing apparatus comprising: a wound contact layer configured to be positioned in contact with a wound; a first area over the wound contact layer comprising: a lower spacer layer; an absorbent layer; a second area over the wound contact layer comprising a plurality of spacer layers and a negative pressure source and/or electronic components positioned within or between the plurality of spacer layers, wherein the first area is positioned adjacent to the second area and separated by a partition; an upper spacer layer configured to cover the first area and the second area and to allow air to be communicated between the first area and second area around the partition; and a cover layer configured to cover and form a seal over the wound contact layer, the upper spacer layer, the first area, and the second area. a wound contact layer configured to be positioned in contact with a wound; a first area over the wound contact layer comprising: a lower spacer layer; an absorbent layer; a lower spacer layer; an absorbent layer; a second area over the wound contact layer comprising a plurality of spacer layers and a negative pressure source and/or electronic components positioned within or between the plurality of spacer layers, wherein the first area is positioned adjacent to the second area and separated by a partition; an upper spacer layer configured to cover the first area and the second area and to allow air to be communicated between the first area and second area around the partition; and a cover layer configured to cover and form a seal over the wound contact layer, the upper spacer layer, the first area, and the second area.
An electronic device comprising: a rotation body rotatably installed in the electronic device ; at least one body to be detected disposed at a specific gap in the rotation body; at least one detection sensor for detecting the at least one body to be detected according to a rotation of the rotation body; and at least one processor that controls to perform a preset function based on detection of the detection sensor ; and either: an ear jack housing for housing an ear jack plug , or an input pen mounting device for housing an input pen , wherein the ear jack housing or the input pen mounting device is not moved while the rotation body rotates. a rotation body rotatably installed in the electronic device ; at least one body to be detected disposed at a specific gap in the rotation body; at least one detection sensor for detecting the at least one body to be detected according to a rotation of the rotation body; and at least one processor that controls to perform a preset function based on detection of the detection sensor ; and either: an ear jack housing for housing an ear jack plug , or an input pen mounting device for housing an input pen , wherein the ear jack housing or the input pen mounting device is not moved while the rotation body rotates.
A laser processing system comprising: a laser source; at least one galvo system for directing at least one laser beam to a work piece; at least one air flow pathway configured to cool the at least one galvo with a galvo cooling air flow, and a mounting plate comprising a plurality of cavities positioned along a length of the mounting plate , wherein one or more of the plurality of cavities has a window received therein and wherein at least one side of each cavity is configured with an opening extending through a thickness of the plate to provide an airflow passageway through the plate , characterised in that the or each air flow in the mounting plate is configured to receive the galvo cooling air flow from the air flow pathway and to direct the galvo cooling air flow through a thickness of the mounting plate into and across the cavity to purge the window of debris. a laser source; at least one galvo system for directing at least one laser beam to a work piece; at least one air flow pathway configured to cool the at least one galvo with a galvo cooling air flow, and a mounting plate comprising a plurality of cavities positioned along a length of the mounting plate , wherein one or more of the plurality of cavities has a window received therein and wherein at least one side of each cavity is configured with an opening extending through a thickness of the plate to provide an airflow passageway through the plate , characterised in that the or each air flow in the mounting plate is configured to receive the galvo cooling air flow from the air flow pathway and to direct the galvo cooling air flow through a thickness of the mounting plate into and across the cavity to purge the window of debris.
A crystalline form of 6-[(4 R )-4-methyl-1,1-dioxido-1,2,6-thiadiazinan-2-yl]isoquinoline-1-carbonitrile.
A thermally decoupled cryogenic microwave filter device, comprising: a dielectric having discontinuous channels in a pattern configured to facilitate a filter operation on a microwave signal propagated in a cryogenic environment having a temperature below about 77 degrees Kelvin, K, wherein the discontinuous channels comprise a first channel that is separated from a second channel by a wall of the dielectric; a conductive line comprising a first segment , situated in the first channel, and a second segment , situated in the second channel, separated by the wall configured to facilitate propagation of the microwave signal through the conductive line and reduce heat flow between the first segment and the second segment of the conductive line; and a housing formed of a housing material and configured to be coupled to refrigerator plates that facilitate a transfer of thermal energy away from the housing, wherein the housing material is oxygen-free or electrolytic copper. a dielectric having discontinuous channels in a pattern configured to facilitate a filter operation on a microwave signal propagated in a cryogenic environment having a temperature below about 77 degrees Kelvin, K, wherein the discontinuous channels comprise a first channel that is separated from a second channel by a wall of the dielectric; a conductive line comprising a first segment , situated in the first channel, and a second segment , situated in the second channel, separated by the wall configured to facilitate propagation of the microwave signal through the conductive line and reduce heat flow between the first segment and the second segment of the conductive line; and a housing formed of a housing material and configured to be coupled to refrigerator plates that facilitate a transfer of thermal energy away from the housing, wherein the housing material is oxygen-free or electrolytic copper.
Computer-implemented method for initializing a template for a moving object in a sequence of images, comprising: partitioning (S100) each of said images of said sequence into blocks; identifying (S102) moving blocks which have performed a movement between consecutive images of said sequence; determining (S103) a direction and a distance of said movement of said moving blocks; grouping (S104) adjacent moving blocks, for which directions within a predetermined direction interval and distances within a predetermined distance interval have been determined into a first group of blocks, wherein the predetermined distance interval and the predetermined direction interval define a movement in basically a same direction by basically a same distance; initializing (S106) a template for said moving object with said first group of blocks, wherein the template comprises pixels assigned to the first group of blocks; deciding whether an update of said template should be performed; and tracking (S108) said template in said sequence of images. partitioning (S100) each of said images of said sequence into blocks; identifying (S102) moving blocks which have performed a movement between consecutive images of said sequence; determining (S103) a direction and a distance of said movement of said moving blocks; grouping (S104) adjacent moving blocks, for which directions within a predetermined direction interval and distances within a predetermined distance interval have been determined into a first group of blocks, wherein the predetermined distance interval and the predetermined direction interval define a movement in basically a same direction by basically a same distance; initializing (S106) a template for said moving object with said first group of blocks, wherein the template comprises pixels assigned to the first group of blocks; deciding whether an update of said template should be performed; and tracking (S108) said template in said sequence of images.
A method of storing computer instructions for execution, the method comprising: regulating a memory region for execute-only access; storing a set of instructions in the memory region; executing an early instruction among the set of instructions , wherein the executing the early instruction comprises loading a secret value into a volatile register , characterised in that the volatile register is configured in hardware to protect its contents in response to events that indicate activity by malicious or invalid code; and executing a set of subsequent instructions among the set of instructions , wherein the secret value is a target address, or may be decoded for determining a target address, wherein a correct execution of the subsequent instructions depends on the secret value being loaded into the volatile register . regulating a memory region for execute-only access; storing a set of instructions in the memory region; executing an early instruction among the set of instructions , wherein the executing the early instruction comprises loading a secret value into a volatile register , characterised in that the volatile register is configured in hardware to protect its contents in response to events that indicate activity by malicious or invalid code; and executing a set of subsequent instructions among the set of instructions , wherein the secret value is a target address, or may be decoded for determining a target address, wherein a correct execution of the subsequent instructions depends on the secret value being loaded into the volatile register .
A manufacturing plant for producing ammonium nitrate comprising: a) an oxidizer with a catalyst able to oxidize ammonia to nitrogen oxide comprising a vapour inlet and an outlet; b) a condenser fluidly connected to the outlet of the oxidizer; c) a phase separator fluidly connected to the condenser; wherein the phase separator comprises a gas outlet and a liquid outlet; d) an ammonium nitrate reaction chamber fluidly connected to the liquid outlet of the phase separator; e) an evaporator fluidly connected to the ammonium nitrate reaction chamber; f) an ammonium nitrate tank for containing an aqueous ammonium nitrate solution fluidly connected to the evaporator, wherein the ammonium nitrate tank comprises a vapour outlet fluidly connected to the vapour inlet of the oxidizer; and g) a start-up water-tank for containing an acidic aqueous fluid fluidly connected to the evaporator, wherein the start-up water tank is connected to a source of an acidic aqueous fluid or to a source of a pH adjusting agent, and wherein the start-up water-tank comprises a pH sensor for measuring pH of the acidic aqueous fluid. a) an oxidizer with a catalyst able to oxidize ammonia to nitrogen oxide comprising a vapour inlet and an outlet; b) a condenser fluidly connected to the outlet of the oxidizer; c) a phase separator fluidly connected to the condenser; wherein the phase separator comprises a gas outlet and a liquid outlet; d) an ammonium nitrate reaction chamber fluidly connected to the liquid outlet of the phase separator; e) an evaporator fluidly connected to the ammonium nitrate reaction chamber; f) an ammonium nitrate tank for containing an aqueous ammonium nitrate solution fluidly connected to the evaporator, wherein the ammonium nitrate tank comprises a vapour outlet fluidly connected to the vapour inlet of the oxidizer; and g) a start-up water-tank for containing an acidic aqueous fluid fluidly connected to the evaporator, wherein the start-up water tank is connected to a source of an acidic aqueous fluid or to a source of a pH adjusting agent, and wherein the start-up water-tank comprises a pH sensor for measuring pH of the acidic aqueous fluid.
A suspension coil spring device , comprising: a compression coil spring that has a coating film ; a rubber vibration isolator ; and an adhesive layer that joins the compression coil spring and the rubber vibration isolator to each other, characterised in that , the adhesive layer is a cured product of a hot melt adhesive that melts at 80°C to 100°C, a softening point of the hot melt adhesive is lower than a heat-resistant temperature of the coating film, and the softening point of the hot melt adhesive is lower than a heat-resistant temperature of the rubber vibration isolator. a compression coil spring that has a coating film ; a rubber vibration isolator ; and an adhesive layer that joins the compression coil spring and the rubber vibration isolator to each other, characterised in that , the adhesive layer is a cured product of a hot melt adhesive that melts at 80°C to 100°C, a softening point of the hot melt adhesive is lower than a heat-resistant temperature of the coating film, and the softening point of the hot melt adhesive is lower than a heat-resistant temperature of the rubber vibration isolator.
A tissue repair material derived from fish skin, comprising: an optically clear flake derived from a fish skin, the optically clear flake being cell clean and comprising a collagen matrix and water in the collagen matrix.
A short-circuit detecting device , comprising: a coil configured to detect a variation of magnetic flux intensity generated by a current variation of a current flowing through a power semiconductor switch unit and configured to generate an induced electromotive force based on the variation of magnetic flux intensity; and a processing circuit configured to generate a short-circuit signal (SCP) based on the induced electromotive force when an current variation rate of the current is greater than a predetermined value, so as to turn off the power semiconductor switch unit based on the short-circuit signal (SCP), and a first busbar (800; 800A) configured to be electrically coupled to the power semiconductor switch unit , wherein the coil is without a core and is disposed near the first busbar (800; 800A). a coil configured to detect a variation of magnetic flux intensity generated by a current variation of a current flowing through a power semiconductor switch unit and configured to generate an induced electromotive force based on the variation of magnetic flux intensity; and a processing circuit configured to generate a short-circuit signal (SCP) based on the induced electromotive force when an current variation rate of the current is greater than a predetermined value, so as to turn off the power semiconductor switch unit based on the short-circuit signal (SCP), and a first busbar (800; 800A) configured to be electrically coupled to the power semiconductor switch unit , wherein the coil is without a core and is disposed near the first busbar (800; 800A).
A safety helmet, comprising: - a head mountable shell defining a rear portion and a recessed front portion ; and - a transparent visor mounted on the shell so as to be movable between a first position and a second, operable position substantially at right angles to a user's eyeline; wherein the visor is mounted across the recessed front portion by pivot mechanisms located at opposite sides of the recessed portion ; and each pivot mechanism comprises a pair of elongate cam tracks defined in a plate mounted in the recessed portion , and a pair of projections on the surface of the visor , such that each projection engages a corresponding cam track so as to slide along the corresponding cam track when the visor is moved between the first and second positions; characterised in that the safety helmet further comprises a cover portion for mounting over the recessed front portion so as to define a cavity ; wherein the pivot mechanisms are located within the cavity , and the first position of the transparent visor is substantially within the cavity ; and wherein the pair of elongate cam tracks are aligned so as to extend downwardly from near an upper end of the plate at an incline to the vertical, towards a lower end of the plate . - a head mountable shell defining a rear portion and a recessed front portion ; and - a transparent visor mounted on the shell so as to be movable between a first position and a second, operable position substantially at right angles to a user's eyeline; wherein the visor is mounted across the recessed front portion by pivot mechanisms located at opposite sides of the recessed portion ; and each pivot mechanism comprises a pair of elongate cam tracks defined in a plate mounted in the recessed portion , and a pair of projections on the surface of the visor , such that each projection engages a corresponding cam track so as to slide along the corresponding cam track when the visor is moved between the first and second positions; characterised in that the safety helmet further comprises a cover portion for mounting over the recessed front portion so as to define a cavity ; wherein the pivot mechanisms are located within the cavity , and the first position of the transparent visor is substantially within the cavity ; and wherein the pair of elongate cam tracks are aligned so as to extend downwardly from near an upper end of the plate at an incline to the vertical, towards a lower end of the plate .
A coupling mechanism for an electric toothbrush comprising a handle and a replaceable refill having a longitudinal axis (A), the coupling mechanism comprising a handle coupling portion and a refill coupling portion structured and configured to engage one another thereby providing a secure connection between the handle and the refill ; wherein the handle coupling portion comprises a coupling stem extending in a direction substantially parallel to the longitudinal axis (A) at a first end of the handle and a coupling pin made of a hard-plastic material or from steel or another hard-surface, wear-resistant material such as a ceramics, a reinforced plastic or a hard-surface-coated material and protruding from the stem in a direction not parallel to the longitudinal axis (A), the coupling stem having outer walls terminating at a free end thereof; wherein the refill coupling portion comprises a generally tubular structure having refill walls defining an interior space therebetween structured and configured to receive therein the coupling stem of the handle coupling portion, and a pair of mutually opposite cantilevered arms disposed in the interior space, wherein each of the arms extends and curves around the longitudinal axis (A) in a plane substantially perpendicular thereto, is resiliently deformable and terminates with a coupling surface structured and configured to engage the coupling pin of the handle coupling portion for secure and disengageable connection therewith. wherein the handle coupling portion comprises a coupling stem extending in a direction substantially parallel to the longitudinal axis (A) at a first end of the handle and a coupling pin made of a hard-plastic material or from steel or another hard-surface, wear-resistant material such as a ceramics, a reinforced plastic or a hard-surface-coated material and protruding from the stem in a direction not parallel to the longitudinal axis (A), the coupling stem having outer walls terminating at a free end thereof; wherein the refill coupling portion comprises a generally tubular structure having refill walls defining an interior space therebetween structured and configured to receive therein the coupling stem of the handle coupling portion, and a pair of mutually opposite cantilevered arms disposed in the interior space, wherein each of the arms extends and curves around the longitudinal axis (A) in a plane substantially perpendicular thereto, is resiliently deformable and terminates with a coupling surface structured and configured to engage the coupling pin of the handle coupling portion for secure and disengageable connection therewith.
A programmable integrated circuit comprising: a plurality of clusters disposed on a plurality of cluster rows and a plurality of cluster columns, each cluster comprising programmable logic; an internal network on chip, iNOC , comprising iNOC rows and iNOC columns; and an external network on chip, eNOC , inside the programmable integrated circuit and outside the plurality of clusters , the eNOC surrounding the clusters in the periphery of the plurality of clusters and surrounding the iNOC , each iNOC row configured for transporting data, each iNOC row comprising connections to clusters in a cluster row, one connection to the eNOC at one end of the iNOC row, and another connection to the eNOC at the other end of the iNOC row, each iNOC column configured for transporting data, each iNOC column comprising connections to clusters in a cluster column, one connection to the eNOC at one end of the iNOC column, and another connection to the eNOC at the other end of the iNOC column. a plurality of clusters disposed on a plurality of cluster rows and a plurality of cluster columns, each cluster comprising programmable logic; an internal network on chip, iNOC , comprising iNOC rows and iNOC columns; and an external network on chip, eNOC , inside the programmable integrated circuit and outside the plurality of clusters , the eNOC surrounding the clusters in the periphery of the plurality of clusters and surrounding the iNOC , each iNOC row configured for transporting data, each iNOC row comprising connections to clusters in a cluster row, one connection to the eNOC at one end of the iNOC row, and another connection to the eNOC at the other end of the iNOC row, each iNOC column configured for transporting data, each iNOC column comprising connections to clusters in a cluster column, one connection to the eNOC at one end of the iNOC column, and another connection to the eNOC at the other end of the iNOC column.