mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid run-off disposal system comprising: an infiltration chamber having first and second sidewalls, in cross-sectional view the first and second sidewalls each include an inner surface facing an inside of the chamber and outer surface facing an outside of the chamber , and wherein the infiltration chamber is manufactured from a moulded plastics material; the first and second sidewalls each include a plurality of louvre-shaped apertures provided integrally therein, wherein in cross-sectional view each louvre-shaped aperture includes an upper surface and a lower surface which are angled upwards from the outer surface towards the inside of the chamber ; and, the upper and lower surfaces each comprising one or more angled sections , each angled section extending at an angle relative to an adjacent section of the upper and lower surfaces respectively and being arranged so as to form a substantially vertical flow path through a portion only of the louvre-shaped aperture resulting in a serpentine flow path through the louvre-shaped aperture , the angled sections of the upper and lower surfaces facing each other and being substantially parallel and arranged at an angle and of a length so as to substantially overlap when viewed in a horizontal direction so that the apertures admit the exit of water but substantially inhibit the entry of soil wherein, in use, when liquid run-off is piped into the infiltration chamber it can drain away by passing through the apertures and infiltrating into the surrounding soil. an infiltration chamber having first and second sidewalls, in cross-sectional view the first and second sidewalls each include an inner surface facing an inside of the chamber and outer surface facing an outside of the chamber , and wherein the infiltration chamber is manufactured from a moulded plastics material; the first and second sidewalls each include a plurality of louvre-shaped apertures provided integrally therein, wherein in cross-sectional view each louvre-shaped aperture includes an upper surface and a lower surface which are angled upwards from the outer surface towards the inside of the chamber ; and, the upper and lower surfaces each comprising one or more angled sections , each angled section extending at an angle relative to an adjacent section of the upper and lower surfaces respectively and being arranged so as to form a substantially vertical flow path through a portion only of the louvre-shaped aperture resulting in a serpentine flow path through the louvre-shaped aperture , the angled sections of the upper and lower surfaces facing each other and being substantially parallel and arranged at an angle and of a length so as to substantially overlap when viewed in a horizontal direction so that the apertures admit the exit of water but substantially inhibit the entry of soil wherein, in use, when liquid run-off is piped into the infiltration chamber it can drain away by passing through the apertures and infiltrating into the surrounding soil.
Solar cell having a front side for light incidence and a back side opposite to the front side , said solar cell comprising: - a crystalline semiconductor substrate of a first conductivity type or a second conductivity type being opposite to the first conductivity type; - a front side passivating region formed by at least one passivating layer and at least one conductive layer of the first conductivity type; - a back side passivating region formed by at least one passivating layer and at least one conductive layer of the second conductivity type; - a front side contact formed on the front sided surface of the conductive layer of the passivating region by a front side transparent conductive oxide material and by a pattern of front side electrical contacts formed on top of the front side conductive material ; - at least one front side light coupling layer on the front side of the solar cell ; - a back side contact being opposite the front side contact and being formed by a back side conductive material and at least one back side electrical contact formed thereon, characterized in that the front side transparent conductive oxide material is thinner in regions between and/or besides the front side electrical contacts than in regions below the front side electrical contacts , wherein the front side transparent conductive oxide material in regions between and/or besides the front side electrical contacts has a thickness between 0 and 30 nm. - a crystalline semiconductor substrate of a first conductivity type or a second conductivity type being opposite to the first conductivity type; - a front side passivating region formed by at least one passivating layer and at least one conductive layer of the first conductivity type; - a back side passivating region formed by at least one passivating layer and at least one conductive layer of the second conductivity type; - a front side contact formed on the front sided surface of the conductive layer of the passivating region by a front side transparent conductive oxide material and by a pattern of front side electrical contacts formed on top of the front side conductive material ; - at least one front side light coupling layer on the front side of the solar cell ; - a back side contact being opposite the front side contact and being formed by a back side conductive material and at least one back side electrical contact formed thereon,
Heat exchanger unit , comprising at least one thermoelectric element , in particular a Peltier element, at least one heat exchanger element for heat exchange with the thermoelectric element , and at least one distributor element for supplying and conveying away a heat exchanger medium flowing through the at least one heat exchanger element , characterised in that at least one holding frame for holding at least the at least one heat exchanger element and the at least one thermoelectric element is provided, wherein the at least one distributor element can be connected or is connected to the at least one heat exchanger element and to the at least one holding frame .
A sulfur-modified chloroprene rubber comprising a functional group A represented by General Formula (A) below and positioned at a molecular terminal, wherein a mass ratio B/A of a content of a functional group B represented by General Formula (B) below and positioned at a molecular terminal with respect to a content of the functional group A is 12.00 or less, and a total amount of the functional group A and the functional group B is 0.10 to 1.00% by mass. (In the formula, R a1 and R a2 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, an alkoxy group, a carboxy group, a carboxylate group, a cyano group, an alkyl group which may have a substituent, or an arylthio group which may have a substituent, and R a1 and R a2 may bond with each other to form a ring which may have a substituent.) (In the formula, R b1 and R b2 each independently represent an alkyl group which may have a substituent or an aryl group which may have a substituent.) a mass ratio B/A of a content of a functional group B represented by General Formula (B) below and positioned at a molecular terminal with respect to a content of the functional group A is 12.00 or less, and a total amount of the functional group A and the functional group B is 0.10 to 1.00% by mass. (In the formula, R a1 and R a2 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, an alkoxy group, a carboxy group, a carboxylate group, a cyano group, an alkyl group which may have a substituent, or an arylthio group which may have a substituent, and R a1 and R a2 may bond with each other to form a ring which may have a substituent.) (In the formula, R b1 and R b2 each independently represent an alkyl group which may have a substituent or an aryl group which may have a substituent.)
Bar for a for an incinerator furnace hearth grate roll , comprising: - a plate of arcuate shape in the longitudinal direction of the bar and whose upper surface is intended to receive waste to be incinerated, said plate extending at two respectively rear and front ends , - a longitudinal core formed integrally with the plate , located under this plate and extending on the one hand perpendicularly from the lower surface of the plate to a lower edge, and on the other hand at least partially between the rear and front ends of the plate , - a first and a second group of several fins , arranged under the plate respectively on each side of the longitudinal core , each fin extending on the one hand from the longitudinal core and on the other hand from the lower surface of the plate , characterized in that each fin extends from the longitudinal core so as to present a portion which protrudes from the plate , and in that each fin of the first group has a overall shape substantially identical and parallel to the overall shape of a determined fin of the second group and is arranged offset relative to this determined fin of the second group according to a given offset, so that, when the bar is placed on a roll of an incinerator furnace grate juxtaposed with a neighbouring bar , the portion of each fin of the first group of the bar protruding from the plate defines, with the portion of the fin determined from the second group of the neighbouring bar protruding from the plate of this neighbouring bar , a channel of calibrated air circulation. - a plate of arcuate shape in the longitudinal direction of the bar and whose upper surface is intended to receive waste to be incinerated, said plate extending at two respectively rear and front ends , - a longitudinal core formed integrally with the plate , located under this plate and extending on the one hand perpendicularly from the lower surface of the plate to a lower edge, and on the other hand at least partially between the rear and front ends of the plate , - a first and a second group of several fins , arranged under the plate respectively on each side of the longitudinal core , each fin extending on the one hand from the longitudinal core and on the other hand from the lower surface of the plate ,
A method for transmitting a Relay Physical Downlink Control Channel, R-PDCCH, by a base station, BS, in a wireless communication system, the method comprising: transmitting (S1210), to a relay node, RN, through a radio resource control, RRC, signaling, information associated with at least one virtual resource block, VRB, configured as search space for a R-PDCCH transmission; mapping the at least one VRB to at least one Physical Resource Block, PRB, according to a localized VRB, LVRB, mapping method or a distributed VRB, DVRB, mapping method; and transmitting (S1220) the R-PDCCH to the RN on the at least one PRB. transmitting (S1210), to a relay node, RN, through a radio resource control, RRC, signaling, information associated with at least one virtual resource block, VRB, configured as search space for a R-PDCCH transmission; mapping the at least one VRB to at least one Physical Resource Block, PRB, according to a localized VRB, LVRB, mapping method or a distributed VRB, DVRB, mapping method; and transmitting (S1220) the R-PDCCH to the RN on the at least one PRB.
A punch processing method for a laminated iron core, the punch processing method sequentially feeding a plurality of steel sheets to a mold and performing a plurality of processes in the mold including punch processing on the steel sheets in a stacked state, comprising: fixing the steel sheets being stacked to each other at a first fixing part (F A ) that is positioned outside a closed curved line (L) corresponding to an outermost periphery of the laminated iron core and a second fixing part (F B ) that is positioned in a portion that finally serves as the laminated iron core; and performing punch processing on the outermost periphery of the laminated iron core; characterized in that a number of pairs of the first fixing part (F A ) and the second fixing part (F B ) in which a length of a line segment (AB) connecting the first fixing part with the second fixing part is 400 times or less of an average sheet thickness of the steel sheets, is 0.5 or more per 100 mm in length of the closed curved line on average, or in that for the pair of the first fixing part (F A ) and the second fixing part (F B ) in which a length of a line segment (AB) connecting the first fixing part and the second fixing part is 400 times or less of an average sheet thickness of the steel sheets, when a shorter distance out of a distance between the first fixing part (F A ) and the closed curved line (L) and a distance between the second fixing part (F B ) and the closed curved line (L) is determined to be a distance between a fixing part and the closed curved line, an average value of the distance between the fixing part and the closed curved line is made to 250 times or less of the average sheet thickness of the steel sheets. fixing the steel sheets being stacked to each other at a first fixing part (F A ) that is positioned outside a closed curved line (L) corresponding to an outermost periphery of the laminated iron core and a second fixing part (F B ) that is positioned in a portion that finally serves as the laminated iron core; and performing punch processing on the outermost periphery of the laminated iron core; characterized in that a number of pairs of the first fixing part (F A ) and the second fixing part (F B ) in which a length of a line segment (AB) connecting the first fixing part with the second fixing part is 400 times or less of an average sheet thickness of the steel sheets, is 0.5 or more per 100 mm in length of the closed curved line on average, or in that for the pair of the first fixing part (F A ) and the second fixing part (F B ) in which a length of a line segment (AB) connecting the first fixing part and the second fixing part is 400 times or less of an average sheet thickness of the steel sheets, when a shorter distance out of a distance between the first fixing part (F A ) and the closed curved line (L) and a distance between the second fixing part (F B ) and the closed curved line (L) is determined to be a distance between a fixing part and the closed curved line, an average value of the distance between the fixing part and the closed curved line is made to 250 times or less of the average sheet thickness of the steel sheets.
A beverage capsule , comprising: - a substantially cup-shaped capsule body having an open end and defining a cavity ; - an injection wall disposed upon said open end so as to enclose said cavity ; and - a quantity of a beverage ingredient disposed within said cavity ; - a partition disposed in said cavity , said partition dividing said cavity into a first chamber proximate to said injection wall, and a second chamber in which said quantity of beverage ingredient is disposed; and characterized in that the capsule further comprises - at least one channel extending from said partition , said at least one channel comprising a first end opening into said first chamber at the level of the partition , and a second end opening into said second chamber at a predetermined distance from said partition . - a substantially cup-shaped capsule body having an open end and defining a cavity ; - an injection wall disposed upon said open end so as to enclose said cavity ; and - a quantity of a beverage ingredient disposed within said cavity ; - a partition disposed in said cavity , said partition dividing said cavity into a first chamber proximate to said injection wall, and a second chamber in which said quantity of beverage ingredient is disposed; and characterized in that the capsule further comprises - at least one channel extending from said partition , said at least one channel comprising a first end opening into said first chamber at the level of the partition , and a second end opening into said second chamber at a predetermined distance from said partition .
A system comprising: a voice controlled device comprising a housing and a microphone ; a plurality of host appliances , each of the plurality of host appliances comprising a dock configured to connect the housing to the respective host appliance of the plurality of host appliances ; and a coupling mechanism (710, 711; 720, 722; 730, 734) configured to receive an identification value indicative of: docking between the voice controlled device and a currently connected host appliance of the plurality of host appliances , and the identity of the currently connected host appliance ; wherein the microphone is configured to receive one or more voice inputs for the currently connected host appliance , and wherein a command is provided based on the one or more voice inputs and the identification value. a voice controlled device comprising a housing and a microphone ; a plurality of host appliances , each of the plurality of host appliances comprising a dock configured to connect the housing to the respective host appliance of the plurality of host appliances ; and a coupling mechanism (710, 711; 720, 722; 730, 734) configured to receive an identification value indicative of: docking between the voice controlled device and a currently connected host appliance of the plurality of host appliances , and the identity of the currently connected host appliance ; wherein the microphone is configured to receive one or more voice inputs for the currently connected host appliance , and wherein a command is provided based on the one or more voice inputs and the identification value.
A method of modifying a composition of a surface portion of a glass article, the method comprising heating the surface portion of the glass article with a laser beam to a temperature within a range of 1100°C to 2200°C, such that the heating evaporates one or more metalloids and/or one or more alkali metals present at the surface portion, and modifies the composition of the surface portion such that the surface portion comprises a lower alkali metals concentration and/or a lower metalloids concentration as compared to a portion of the glass article that is not heated by the laser beam, wherein a laser power density of the laser beam is within a range of 2 W/mm 2 to 5 W/mm 2 and wherein the exposure time of the laser beam is within a range of 2 seconds to 4 seconds.
A method of identifying in an individual a rare variant genotype statistically associated with endometriosis, wherein the variant is detected in any of the genes of Figure 3, and wherein the rare variant is found to occur at < 1% frequency in the general population.
A kettle for boiling liquids comprising a main body , a lid , which main body is closeable by the lid , a heating element located at the bottom of the interior of the main body and a spout , wherein the spout is in fluid connection with the interior of the main body to enable liquids to be poured from the kettle, wherein the fluid connection comprises a first fluid connection to the interior of the main body and is located between the median of the main body and the heating element , wherein there is a second fluid connection between the interior of the main body and the spout , which second fluid connection is located between the median of the main body and the lid , wherein a baffle is provided, which baffle regulates flow of fluid from the first and the second fluid connections, said baffle comprising a tongue adapted to regulate flow from the first fluid connection and an upstand to regulate flow from the second fluid connection characterised in that the spout extends up the main body from a spout cavity entrance located near the base of the main body, below the median of the main body, until terminating in an opening at a short distance from the lid through which water will be poured from the kettle and in that the second fluid connection comprises a passage adjacent to the lid and is provided with a holder having a plurality of openings.
A rubber member comprising a nanomaterial, wherein the nanomaterial has a major axis of less than 100 nm in the case of being non-fibrous or a minor axis length of less than 100 nm and a major axis length of less than 1000 nm in the case of being fibrous, and has a content of a polar group of 750 mg/kg or more and 3000 mg/kg or less, the polar group includes an amino group, the nanomaterial is diamond modified with the polar group, a plurality of minute recesses are formed on a surface of the rubber member, wherein their maximum depth is 1 μm to 500 μm, and their longest diameter in a developed view of the surface of the rubber member is 1 μm to 500 μm, and the nanomaterial is provided on an inner surface of one or more minute recesses of the plurality of minute recesses, a plurality of minute cavities are formed inside the rubber member, and the nanomaterial is provided on an inner surface of one or more minute cavities of the plurality of minute cavities. a nanomaterial, wherein the nanomaterial has a major axis of less than 100 nm in the case of being non-fibrous or a minor axis length of less than 100 nm and a major axis length of less than 1000 nm in the case of being fibrous, and has a content of a polar group of 750 mg/kg or more and 3000 mg/kg or less, the polar group includes an amino group, the nanomaterial is diamond modified with the polar group, a plurality of minute recesses are formed on a surface of the rubber member, wherein their maximum depth is 1 μm to 500 μm, and their longest diameter in a developed view of the surface of the rubber member is 1 μm to 500 μm, and the nanomaterial is provided on an inner surface of one or more minute recesses of the plurality of minute recesses, a plurality of minute cavities are formed inside the rubber member, and the nanomaterial is provided on an inner surface of one or more minute cavities of the plurality of minute cavities.
A feeder duct assembly for a gas turbine engine comprising: an end fitting defining a fluid inlet to the gas turbine engine; a feeder duct fluidly coupled to the fluid inlet; a seal fluidly sealing the feeder duct to the end fitting; and a dynamic mount securing the feeder duct to the end fitting; wherein the feeder duct comprises an exterior flange , the end fitting has a face flange , and the seal is located between the exterior flange and the face flange , characterized in that the dynamic mount comprises at least one biasing element located between the exterior flange and the seal ; and wherein the at least one biasing element comprises at least one spring pair sandwiching the exterior flange . an end fitting defining a fluid inlet to the gas turbine engine; a feeder duct fluidly coupled to the fluid inlet; a seal fluidly sealing the feeder duct to the end fitting; and a dynamic mount securing the feeder duct to the end fitting; wherein the feeder duct comprises an exterior flange , the end fitting has a face flange , and the seal is located between the exterior flange and the face flange , characterized in that the dynamic mount comprises at least one biasing element located between the exterior flange and the seal ; and wherein the at least one biasing element comprises at least one spring pair sandwiching the exterior flange .