mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling system for a shafting of a wind turbine, the shafting comprising a stationary shaft , a rotating shaft , and a bearing provided between the stationary shaft and the rotating shaft , the bearing comprising an outer ring , rollers and an inner ring , the outer ring being connected to the stationary shaft , and the inner ring being connected to the rotating shaft , wherein the cooling system comprises: a cold air supply unit; and a rotating-shaft air blow box , wherein the rotating-shaft air blow box is mountable on an inner surface of the stationary shaft and is in a shape of a circular ring-shaped box, a plurality of first air blow openings are uniformly distributed in a surface, facing the rotating shaft , of the rotating-shaft air blow box in a circumferential direction, to blow cold air from the cold air supply unit to the rotating shaft , and wherein each of the plurality of the first air blow openings is in a shape of a slit, to form a jet. a cold air supply unit; and a rotating-shaft air blow box , wherein the rotating-shaft air blow box is mountable on an inner surface of the stationary shaft and is in a shape of a circular ring-shaped box, a plurality of first air blow openings are uniformly distributed in a surface, facing the rotating shaft , of the rotating-shaft air blow box in a circumferential direction, to blow cold air from the cold air supply unit to the rotating shaft , and wherein each of the plurality of the first air blow openings is in a shape of a slit, to form a jet.
A meta-material comprising: a unit cell comprising a first electromagnetically resonant structure and a second electromagnetically resonant structure , each configured to have inherent material inductance and resistance , and each comprising a capacitance element 70, 111, 113, 122), characterized in that the second electromagnetically resonant structure comprises only one capacitance element , said capacitance element comprising a non-linear dielectric material , and said capacitance element coupling the second electromagnetically resonant structure to the first electromagnetically resonant structure . a unit cell comprising a first electromagnetically resonant structure and a second electromagnetically resonant structure , each configured to have inherent material inductance and resistance , and each comprising a capacitance element 70, 111, 113, 122), characterized in that the second electromagnetically resonant structure comprises only one capacitance element , said capacitance element comprising a non-linear dielectric material , and said capacitance element coupling the second electromagnetically resonant structure to the first electromagnetically resonant structure .
A data replacement apparatus for replacing attribute values with representative values for each of groups, the data replacement apparatus comprising: a joined set generation unit that generates a joined set which is formed by arranging record numbers associated with the attribute values such that the attribute values in each of the groups are consecutive; a rearrangement unit that rearranges the attribute values in a secondary storage device based on the joined set; and a representative value replacement unit that sequentially executes processing for retrieving some of the rearranged attribute values from the secondary storage device into a primary storage device , and replaces the attribute values retrieved into the primary storage device with the representative values, wherein the attribute values are sequentially read from the secondary storage device when they are replaced with the representative values, wherein the secondary storage device is slower than the primary storage device . a joined set generation unit that generates a joined set which is formed by arranging record numbers associated with the attribute values such that the attribute values in each of the groups are consecutive; a rearrangement unit that rearranges the attribute values in a secondary storage device based on the joined set; and a representative value replacement unit that sequentially executes processing for retrieving some of the rearranged attribute values from the secondary storage device into a primary storage device , and replaces the attribute values retrieved into the primary storage device with the representative values, wherein the attribute values are sequentially read from the secondary storage device when they are replaced with the representative values, wherein the secondary storage device is slower than the primary storage device .
A camera arrangement for a motor vehicle , the arrangement comprising: a front housing for at least partially enclosing a camera system and having a housing opening formed therethrough for allowing light to pass through to the camera system ; a window at least partially transparent to the light and covering the housing opening ; and a retainer disposed adjacent to the window and comprising a snapfit arrangement that engages the front housing to help hold the window in place relative to the front housing ; wherein the retainer comprises: a plate that defines a retainer opening aligned with the housing opening and that has a perimeter portion surrounding the retainer opening ; and sidewalls extending from the perimeter portion generally transverse to the plate , wherein the sidewalls define the snapfit arrangement configured as a plurality of cantilevered clips correspondingly having positive snapfit features disposed distally on the cantilever clips , and wherein the front housing has recessed portions that receive the positive snapfit features , wherein the retainer is an internal retainer that mounts on an interior of the front housing such the retainer is disposed inside of the front housing with the plate rearward of the housing opening . a front housing for at least partially enclosing a camera system and having a housing opening formed therethrough for allowing light to pass through to the camera system ; a window at least partially transparent to the light and covering the housing opening ; and a retainer disposed adjacent to the window and comprising a snapfit arrangement that engages the front housing to help hold the window in place relative to the front housing ; wherein the retainer comprises: a plate that defines a retainer opening aligned with the housing opening and that has a perimeter portion surrounding the retainer opening ; and sidewalls extending from the perimeter portion generally transverse to the plate , wherein the sidewalls define the snapfit arrangement configured as a plurality of cantilevered clips correspondingly having positive snapfit features disposed distally on the cantilever clips , and wherein the front housing has recessed portions that receive the positive snapfit features , wherein the retainer is an internal retainer that mounts on an interior of the front housing such the retainer is disposed inside of the front housing with the plate rearward of the housing opening . a plate that defines a retainer opening aligned with the housing opening and that has a perimeter portion surrounding the retainer opening ; and sidewalls extending from the perimeter portion generally transverse to the plate , wherein the sidewalls define the snapfit arrangement configured as a plurality of cantilevered clips correspondingly having positive snapfit features disposed distally on the cantilever clips , and wherein the front housing has recessed portions that receive the positive snapfit features , wherein the retainer is an internal retainer that mounts on an interior of the front housing such the retainer is disposed inside of the front housing with the plate rearward of the housing opening .
Automatic obstruction device for closing a filling circuit for filling one or more tank(s) with a fluid, in a manner at least partially sealed to the fluid, so as to prevent the filling of the one or more tank(s) when a predetermined event occurs, the automatic obstruction device comprising: - at least one movable element , capable of being moved between a non-obstruction position of the filling circuit , in which the at least one movable element is able to be positioned so as to offer a resistance to the fluid compatible with the filling of the tank , and an obstruction position of the filling circuit , in which the at least one movable element is able to be positioned so as to offer a resistance to the fluid that is incompatible with the filling of the tank , - at least one holding element of the at least one movable element , capable - of holding the at least one movable element in the non-obstruction position, and - of being deformed or moved so as to allow the movement of the at least one movable element toward the obstruction position, characterized In that the automatic obstruction device further comprises: - at least a first means of non-reversible movement or of non-reversible modification of the at least one holding element so as to allow the movement of the at least one movable element only toward the obstruction position, the at least one first means of non-reversible movement or non-reversible modification being controllable by a control device . - at least one movable element , capable of being moved between a non-obstruction position of the filling circuit , in which the at least one movable element is able to be positioned so as to offer a resistance to the fluid compatible with the filling of the tank , and an obstruction position of the filling circuit , in which the at least one movable element is able to be positioned so as to offer a resistance to the fluid that is incompatible with the filling of the tank , - at least one holding element of the at least one movable element , capable - of holding the at least one movable element in the non-obstruction position, and - of being deformed or moved so as to allow the movement of the at least one movable element toward the obstruction position, - of holding the at least one movable element in the non-obstruction position, and - of being deformed or moved so as to allow the movement of the at least one movable element toward the obstruction position, - at least a first means of non-reversible movement or of non-reversible modification of the at least one holding element so as to allow the movement of the at least one movable element only toward the obstruction position,
A washing machine comprising a detergent dispenser having a first compartment where the liquid detergent is stored and which has an intake part allowing the loading of liquid detergent, a second compartment where the softener is stored and which has an intake part allowing the loading of softener and filling lids which cover the intake parts of the first compartment and the second compartment and a detergent box wherein the detergent dispenser is placed, characterized by a plurality of filters which have a hollow structure, which are positioned in a detachable manner on the intake parts of the first compartment and the second compartment and which have an impermeable lower wall and a side wall surrounding the lower wall and the side wall comprises an impermeable side wall lower part and an at least partially permeable side wall upper part .
An inlet connector , characterized in that it comprises: a housing defining a through hole extending in an axial direction (A), and a mounting portion is provided at a first end of the through hole; a bushing being configured to be inserted from a second end of the through hole, and the bushing defines a cavity therein; and a filter comprising a body , a proximal end , and a distal end , characterized in that the proximal end is configured to be fitted into the mounting portion , such that the body and the distal end are positioned within the cavity ; wherein, one or more spacers are provided between the outer surface of the filter and the inner surface of the bushing , such that the outer surface of the filter is spaced from the inner surfaces of the bushing , wherein the one or more spacers are positioned adjacent to the distal end . a housing defining a through hole extending in an axial direction (A), and a mounting portion is provided at a first end of the through hole; a bushing being configured to be inserted from a second end of the through hole, and the bushing defines a cavity therein; and a filter comprising a body , a proximal end , and a distal end , characterized in that the proximal end is configured to be fitted into the mounting portion , such that the body and the distal end are positioned within the cavity ; wherein, one or more spacers are provided between the outer surface of the filter and the inner surface of the bushing , such that the outer surface of the filter is spaced from the inner surfaces of the bushing , wherein the one or more spacers are positioned adjacent to the distal end .
An arrayed waveguide grating, comprising: a first star coupler; a second star coupler; an array of waveguides 2. connecting the first star coupler and the second star coupler; one or more first port waveguides connected to the first star coupler; and one or more second port waveguides connected to the second star coupler, wherein: a first optical path, from a first waveguide of the first port waveguides, through a first waveguide of the array of waveguides , to a first waveguide of the second port waveguides, includes a portion, having a first length, within hydrogenated amorphous silicon, the remainder of the first optical path is within crystalline silicon, a second optical path, from the first waveguide of the first port waveguides, through a second waveguide of the array of waveguides , to the first waveguide of the second port waveguides, includes a portion, having a second length, within hydrogenated amorphous silicon, the remainder of the second optical path is within crystalline silicon, and the second length is different from the first length. a first star coupler; a second star coupler; an array of waveguides 2. connecting the first star coupler and the second star coupler; one or more first port waveguides connected to the first star coupler; and one or more second port waveguides connected to the second star coupler, wherein: a first optical path, from a first waveguide of the first port waveguides, through a first waveguide of the array of waveguides , to a first waveguide of the second port waveguides, includes a portion, having a first length, within hydrogenated amorphous silicon, the remainder of the first optical path is within crystalline silicon, a second optical path, from the first waveguide of the first port waveguides, through a second waveguide of the array of waveguides , to the first waveguide of the second port waveguides, includes a portion, having a second length, within hydrogenated amorphous silicon, the remainder of the second optical path is within crystalline silicon, and the second length is different from the first length. a first optical path, from a first waveguide of the first port waveguides, through a first waveguide of the array of waveguides , to a first waveguide of the second port waveguides, includes a portion, having a first length, within hydrogenated amorphous silicon, the remainder of the first optical path is within crystalline silicon, a second optical path, from the first waveguide of the first port waveguides, through a second waveguide of the array of waveguides , to the first waveguide of the second port waveguides, includes a portion, having a second length, within hydrogenated amorphous silicon, the remainder of the second optical path is within crystalline silicon, and the second length is different from the first length.
A vacuum-assisted cutting tool , comprising: a core portion , the core portion comprising: a core flange having a top surface and an opposite bottom surface ; a knife portion , the knife portion comprising: a knife flange having a top surface and a bottom surface ; a knife edge , the knife edge forming a cutting perimeter of the knife portion ; and an insert aperture , the insert aperture extending through the knife portion from the knife flange bottom surface to the knife edge , characterized by one or more core flange apertures extending through the core flange from the top surface to the bottom surface ; and an insert , the insert extending from the core flange top surface to a top surface of the insert ; wherein the insert aperture is configured to receive the core portion insert and allow for fluid transmission of vacuum pressure from proximate the knife edge through the insert aperture and through the one or more core flange apertures . a core portion , the core portion comprising: a core flange having a top surface and an opposite bottom surface ; a knife portion , the knife portion comprising: a knife flange having a top surface and a bottom surface ; a knife edge , the knife edge forming a cutting perimeter of the knife portion ; and an insert aperture , the insert aperture extending through the knife portion from the knife flange bottom surface to the knife edge , characterized by one or more core flange apertures extending through the core flange from the top surface to the bottom surface ; and an insert , the insert extending from the core flange top surface to a top surface of the insert ; wherein the insert aperture is configured to receive the core portion insert and allow for fluid transmission of vacuum pressure from proximate the knife edge through the insert aperture and through the one or more core flange apertures .
An apparatus for generating aerosol from an aerosolisable medium, the apparatus comprising: a housing ; a chamber for receiving an article , the article comprising: an aerosolisable medium; and a marker arrangement comprising a first marker and a second marker ; and a sensor arrangement configured to operate in a first mode and a second mode, wherein: in the first mode the sensor arrangement monitors non-continuously for the presence of the first marker; in the second mode the sensor arrangement is configured to read identification information from the second marker; and the sensor arrangement operates in the second mode responsive to the detection of the presence of the first marker in the first mode. a housing ; a chamber for receiving an article , the article comprising: an aerosolisable medium; and a marker arrangement comprising a first marker and a second marker ; and a sensor arrangement configured to operate in a first mode and a second mode, wherein: in the first mode the sensor arrangement monitors non-continuously for the presence of the first marker; in the second mode the sensor arrangement is configured to read identification information from the second marker; and the sensor arrangement operates in the second mode responsive to the detection of the presence of the first marker in the first mode. in the first mode the sensor arrangement monitors non-continuously for the presence of the first marker; in the second mode the sensor arrangement is configured to read identification information from the second marker; and the sensor arrangement operates in the second mode responsive to the detection of the presence of the first marker in the first mode.
An optical fiber cable with improved fire protection performance, comprising: - a cable core including at least one optical transmission element to transfer light, - a cable jacket surrounding the cable core , - wherein the cable jacket is embodied as a multilayered structure having a first sheath layer and one or more second sheath layers surrounded by the first sheath layer , - wherein the material of the first sheath layer and the material of the one or more second sheath layers are halogen free, - wherein the material of the first sheath layer and the material of the one or more second sheath layers each have a different flame retardant additive providing different flame retardant mechanisms, - wherein the cable core comprises a plurality of the at least one optical transmission element and a strength member , wherein each of the optical transmission elements includes a plurality of optical fibers surrounded by a buffer tube , wherein the optical transmission elements are placed around the strength member , - wherein at least one second sheath layer is configured as a bedding layer, - wherein the plurality of the at least one optical transmission element is embedded in the bedding layer so that the bedding layer is placed in gaps between the plurality of the at least one optical transmission element , characterized in that the material of the first sheath layer includes a first flame retardant additive of an intumescent-acting material, and the material of the one or more second sheath layers includes a second flame retardant additive which is a polymer based resin including a mineral filler. - a cable core including at least one optical transmission element to transfer light, - a cable jacket surrounding the cable core , - wherein the cable jacket is embodied as a multilayered structure having a first sheath layer and one or more second sheath layers surrounded by the first sheath layer , - wherein the material of the first sheath layer and the material of the one or more second sheath layers are halogen free, - wherein the material of the first sheath layer and the material of the one or more second sheath layers each have a different flame retardant additive providing different flame retardant mechanisms, - wherein the cable core comprises a plurality of the at least one optical transmission element and a strength member , wherein each of the optical transmission elements includes a plurality of optical fibers surrounded by a buffer tube , wherein the optical transmission elements are placed around the strength member , - wherein at least one second sheath layer is configured as a bedding layer, - wherein the plurality of the at least one optical transmission element is embedded in the bedding layer so that the bedding layer is placed in gaps between the plurality of the at least one optical transmission element , the material of the first sheath layer includes a first flame retardant additive of an intumescent-acting material, and the material of the one or more second sheath layers includes a second flame retardant additive which is a polymer based resin including a mineral filler.
Fluidic network for parallel performance of a multiplicity of analyses of biological samples, comprising a flow array having a multiplicity of reaction spaces , wherein the reaction spaces each have a first channel connection and a second channel connection , wherein the first channel connections are connected to a first supply channel and the second channel connections are connected to a second supply channel , wherein the first supply channel and the second supply channel are connected to one another by means of a circulation line , wherein the circulation line has connected thereto at least one component by means of which test reagents are introducible into the reaction spaces of the flow array .