mhurhangee/patent-ind-claim-en huggingface dataset:
A separation device to separate contaminants from contaminated water, comprising a container to receive the contaminated water, the container further comprising: - a contaminated water inlet , - a filter to filter contaminants from the contaminated water, - a presser for compressing and/or dewatering contaminants separated from the contaminated water, - a contaminant outlet to eject the contaminants, - a gas inlet for generating gas bubbles into the contaminated water to further separate contaminants from the contaminated water, - a water outlet allowing the water separated along the filter to be led to a specific point, thereby controlling where the water is ejected, wherein the gas inlet is arranged to supply gas substantially through the filter , preferably completely through the filter , characterized in that the contaminant outlet is located adjacent to the filter and the presser is arranged to sweep off contaminants from the filter and compress them into the adjacent contaminant outlet , the filter is placed along an axial extension of the presser and in such proximity to it that the presser is configured to move away contaminants from the filter while in operation, the filter has a plurality of filter openings in a range size of 0.1 - 15 mm, the presser goes sideways in the container in a direction substantially perpendicular to gravity and the filter is put along a bottom of the container . - a contaminated water inlet , - a filter to filter contaminants from the contaminated water, - a presser for compressing and/or dewatering contaminants separated from the contaminated water, - a contaminant outlet to eject the contaminants, - a gas inlet for generating gas bubbles into the contaminated water to further separate contaminants from the contaminated water, - a water outlet allowing the water separated along the filter to be led to a specific point, thereby controlling where the water is ejected, wherein the gas inlet is arranged to supply gas substantially through the filter , preferably completely through the filter , characterized in that the contaminant outlet is located adjacent to the filter and the presser is arranged to sweep off contaminants from the filter and compress them into the adjacent contaminant outlet , the filter is placed along an axial extension of the presser and in such proximity to it that the presser is configured to move away contaminants from the filter while in operation, the filter has a plurality of filter openings in a range size of 0.1 - 15 mm, the presser goes sideways in the container in a direction substantially perpendicular to gravity and the filter is put along a bottom of the container .
A metal component comprising a compressed decorative surface which is formed by compression in a gently planar or curved form, a plurality of small sectional faces on which a coating material as coated remains and, ridges joining between two adjacent small sectional faces on which the coated coating material is removed, wherein the small sectional faces and the ridges are outside the compressed decorative surface , wherein said compressed decorative surface has a pattern which is composed of a plurality of small sectional parts on which the coated coating material remains and boundaries between adjacent small sectional parts on which the coated coating material is removed.
A computer-implemented method comprising: receiving (S101) a geographic location of a vehicle ; identifying (S105) a roadway condition based on the geographic location and the direction of travel of the vehicle , wherein a roadway condition is a scenario at a fixed location along the roadway that requires the vehicle to adjust its velocity; receiving (S103) a reaction profile of an operator of the vehicle , wherein the reaction profile comprises a reaction time of the vehicle operator which refers to the time it takes from when an operator is notified or alerted of a roadway condition before reacting to the notification or alert, and wherein the reaction profile of the operator is received from an apparatus carried by the operator upon entering the vehicle ; calculating (S107) an optimal warning distance from the location of the roadway condition based on a braking distance of the vehicle and the reaction time of the vehicle operator; and generating an alert to the roadway condition when the vehicle is located at the optimal warning distance from the location of the roadway condition , wherein the alert is for (i) a navigation system of the vehicle wherein the vehicle is an autonomous vehicle, or (ii) the operator of the vehicle. receiving (S101) a geographic location of a vehicle ; identifying (S105) a roadway condition based on the geographic location and the direction of travel of the vehicle , wherein a roadway condition is a scenario at a fixed location along the roadway that requires the vehicle to adjust its velocity; receiving (S103) a reaction profile of an operator of the vehicle , wherein the reaction profile comprises a reaction time of the vehicle operator which refers to the time it takes from when an operator is notified or alerted of a roadway condition before reacting to the notification or alert, and wherein the reaction profile of the operator is received from an apparatus carried by the operator upon entering the vehicle ; calculating (S107) an optimal warning distance from the location of the roadway condition based on a braking distance of the vehicle and the reaction time of the vehicle operator; and generating an alert to the roadway condition when the vehicle is located at the optimal warning distance from the location of the roadway condition , wherein the alert is for (i) a navigation system of the vehicle wherein the vehicle is an autonomous vehicle, or (ii) the operator of the vehicle.
An armrest assembly , comprising: an insert ; an arm comprising a top cutout ; a front arm cap affixed atop the arm and extending from near a front of the arm to one end of the insert ; a rear arm cap affixed atop the arm and extending from near a back of the arm to an opposing end of the insert ; and an insert bracket affixed within the arm adjacent the top cutout and wherein the insert is removably supported by the insert bracket ; characterized in that the armrest assembly further comprises: a rail affixed atop the insert bracket ; and a retainer assembly disposed within the arm , the retainer assembly comprising: a retainer cover affixed to the insert bracket ; a retainer slidably engaged with the rail with one end of the retainer extending through an opening through one end of the insert ; and a biasing member disposed between the retainer cover and the retainer biasing the retainer toward the insert . an insert ; an arm comprising a top cutout ; a front arm cap affixed atop the arm and extending from near a front of the arm to one end of the insert ; a rear arm cap affixed atop the arm and extending from near a back of the arm to an opposing end of the insert ; and an insert bracket affixed within the arm adjacent the top cutout and wherein the insert is removably supported by the insert bracket ; characterized in that the armrest assembly further comprises: a rail affixed atop the insert bracket ; and a retainer assembly disposed within the arm , the retainer assembly comprising: a retainer cover affixed to the insert bracket ; a retainer slidably engaged with the rail with one end of the retainer extending through an opening through one end of the insert ; and a biasing member disposed between the retainer cover and the retainer biasing the retainer toward the insert . a retainer cover affixed to the insert bracket ; a retainer slidably engaged with the rail with one end of the retainer extending through an opening through one end of the insert ; and a biasing member disposed between the retainer cover and the retainer biasing the retainer toward the insert .
An apparatus comprising at least one semiconductor photoanode comprising electric conducting macroscopic material coated at least in part by electric conducting nanoscopic material, whereby the electric conducting nanoscopic material of the photoanode is entirely coated with semiconductor layer and whereby the photoanode being positioned to receive light and to receive ambient air, and at least one cathode characterized in that the at least one cathode comprises electric conducting macroscopic material coated at least in part by conduction nanoscopic material, wherein photoanode and cathode being conductively interconnected for electron flow and further being separated by a proton exchange membrane, forming a membrane electrode assembly (MEA) comprising such proton exchange membrane for the proton flow there through to the cathode and whereby the membrane electrode assembly comprises a self-hydrating or water capturing material of the group consisting of water capturing microporous material and self-hydrating monolithic membrane, and in that the apparatus further comprises an illumination controller, wherein the controller is an illumination intensity controller or a filter to filter out visible light.
A method of manufacturing a woven multi-layer fabric prepreg for use in constructing a composite laminate , comprising the steps of: providing two sheets of woven fabric having tows of fibres in a satin weave, such that said tows create long floats on each side of each sheet , being elongate and having a longitudinal direction; impregnating each sheet of fabric with a polymer matrix ; placing the sheets together face-to-face or back-to-back with the long floats parallel, such that the tows pack together and enclosed free space between the sheets is minimised, and so that the longitudinal directions are aligned; and adhering said sheets together to form the woven multi-layer fabric prepreg . , characterized in that the fabric prepreg has a fabric weight of over 1000 g/m 2 and in that each sheet has a weight of over 500 g/m 2 . providing two sheets of woven fabric having tows of fibres in a satin weave, such that said tows create long floats on each side of each sheet , being elongate and having a longitudinal direction; impregnating each sheet of fabric with a polymer matrix ; placing the sheets together face-to-face or back-to-back with the long floats parallel, such that the tows pack together and enclosed free space between the sheets is minimised, and so that the longitudinal directions are aligned; and adhering said sheets together to form the woven multi-layer fabric prepreg . , characterized in that the fabric prepreg has a fabric weight of over 1000 g/m 2 and in that each sheet has a weight of over 500 g/m 2 .
A cooking system having a temperature measurement system for measuring food temperature, the cooking system comprising: a housing defining a hollow chamber configured to receive food, and having a lid that defines a cooking volume within the hollow chamber when the lid is in a closed position relative to the housing ; at least one heating element associated with at least one of said housing and said lid ; a temperature probe including a probe end insertable into food disposed within the hollow chamber, and a data transmission end ; and a connector mounted within an interior of the lid , the connector including a data receiving orifice, said data transmission end of said temperature probe being insertable into said data receiving orifice, wherein an interior of said connector is sealed from an environment within the lid surrounding said connector and is in fluid communication with the cooking volume when said data transmission end of said temperature probe is not inserted therein; wherein said data transmission end of said probe is insertable into said data receiving orifice to form a pressure tight seal in said data receiving orifice to seal off the interior of the connector from the cooking volume. a housing defining a hollow chamber configured to receive food, and having a lid that defines a cooking volume within the hollow chamber when the lid is in a closed position relative to the housing ; at least one heating element associated with at least one of said housing and said lid ; a temperature probe including a probe end insertable into food disposed within the hollow chamber, and a data transmission end ; and a connector mounted within an interior of the lid , the connector including a data receiving orifice, said data transmission end of said temperature probe being insertable into said data receiving orifice, wherein an interior of said connector is sealed from an environment within the lid surrounding said connector and is in fluid communication with the cooking volume when said data transmission end of said temperature probe is not inserted therein; wherein said data transmission end of said probe is insertable into said data receiving orifice to form a pressure tight seal in said data receiving orifice to seal off the interior of the connector from the cooking volume.
A surgical system, comprising: an access device having a working channel and a visualization channel ; and a visualization system at least partially disposed in the visualization channel, the visualization system comprising a camera module and a housing in which the camera module is mounted, wherein the housing includes a main body and a distal end cap , and the main body includes therein a camera lumen in which the camera module is disposed and first and second fluid lumens , and the main body has a sidewall having a concave inner surface disposed adjacent the working channel and a convex outer surface disposed opposite the inner surface . an access device having a working channel and a visualization channel ; and a visualization system at least partially disposed in the visualization channel, the visualization system comprising a camera module and a housing in which the camera module is mounted, wherein the housing includes a main body and a distal end cap , and the main body includes therein a camera lumen in which the camera module is disposed and first and second fluid lumens , and the main body has a sidewall having a concave inner surface disposed adjacent the working channel and a convex outer surface disposed opposite the inner surface .
A light-emitting apparatus, comprising: a LED light source configured to emit light; a reflector having a reflective surface facing a light emitting surface of the LED light source , a curved-shaped phosphor layer arranged between the LED light source and the reflector , the curved-shaped phosphor layer being spaced away from the LED light source and having an inner surface facing the LED light source and an outer surface radiating transmitted radiation for impinging on the reflector ; wherein the reflector is wider than the curved-shaped phosphor layer , wherein the curved-shaped phosphor layer and the reflector are arranged in a similar geometric shape, wherein the curved-shaped phosphor layer and the reflector are arranged in the same orientation, wherein the curved-shaped phosphor layer is configured to convert the light emitted from the LED light source into forward transferred radiation and back transferred radiation, the reflector is configured to reflect the forward transferred radiation while the back transferred radiation is substantially not reflected by the reflector; characterized in that the curved-shaped phosphor layer is spaced apart from the reflector , and a transparent medium is disposed in a space between the curve-shaped phosphor layer and the reflector . a LED light source configured to emit light; a reflector having a reflective surface facing a light emitting surface of the LED light source , a curved-shaped phosphor layer arranged between the LED light source and the reflector , the curved-shaped phosphor layer being spaced away from the LED light source and having an inner surface facing the LED light source and an outer surface radiating transmitted radiation for impinging on the reflector ; wherein the reflector is wider than the curved-shaped phosphor layer , wherein the curved-shaped phosphor layer and the reflector are arranged in a similar geometric shape, wherein the curved-shaped phosphor layer and the reflector are arranged in the same orientation, wherein the curved-shaped phosphor layer is configured to convert the light emitted from the LED light source into forward transferred radiation and back transferred radiation, the reflector is configured to reflect the forward transferred radiation while the back transferred radiation is substantially not reflected by the reflector; characterized in that the curved-shaped phosphor layer is spaced apart from the reflector , and a transparent medium is disposed in a space between the curve-shaped phosphor layer and the reflector .
A component mounting system comprising: a component mounter for mounting a die on a circuit board in combination with a passive component with an appropriate characteristic for the die , wherein the component mounter is loaded with both a die supply device that is configured to supply to be mounted dies with variance in a characteristic, formed by dicing a wafer attached to a dicing sheet , and multiple feeders that are configured to supply the passive component to be combined with the die ; and a means for acquiring wafer map data which ranks each die of the wafer by the characteristic, and passive component combination data that specifies the passive component with an appropriate characteristic for each rank of die from multiple passive components with a different characteristic; wherein the component mounter is configured to mount the die and the passive component on the circuit board , wherein the multiple feeders are configured to supply the multiple passive components with a different characteristic to the component mounter ; wherein the die supply device is configured to supply each die of the wafer sequentially to the component mounter ; and wherein the component mounter is configured to mount the passive component to be combined with the die supplied from the die supply device on the circuit board , by selecting the passive component from the multiple passive components with a different characteristic based on the wafer map data and the passive component combination data. a component mounter for mounting a die on a circuit board in combination with a passive component with an appropriate characteristic for the die , wherein the component mounter is loaded with both a die supply device that is configured to supply to be mounted dies with variance in a characteristic, formed by dicing a wafer attached to a dicing sheet , and multiple feeders that are configured to supply the passive component to be combined with the die ; and a means for acquiring wafer map data which ranks each die of the wafer by the characteristic, and passive component combination data that specifies the passive component with an appropriate characteristic for each rank of die from multiple passive components with a different characteristic; wherein the component mounter is configured to mount the die and the passive component on the circuit board , wherein the multiple feeders are configured to supply the multiple passive components with a different characteristic to the component mounter ; wherein the die supply device is configured to supply each die of the wafer sequentially to the component mounter ; and wherein the component mounter is configured to mount the passive component to be combined with the die supplied from the die supply device on the circuit board , by selecting the passive component from the multiple passive components with a different characteristic based on the wafer map data and the passive component combination data.
Apparatus for separating a liquid from particulate solids, comprising: i) a tank for containing said particulate solids and liquid as a slurry; ii) an input to the interior of said tank for introduction of said particulate solids and liquid into said tank ; iii) a liquid outlet passage communicating with the interior of said tank ; iv) an agitator suspended within said tank for forming a suspension of said particulate solids in said liquid; v) said tank having a filter bed zone in a lower section thereof for formation of a filter bed from the settling of said particulate solids from said suspension and through which liquid drains from the tank ; and vi) a screen pipe extending upwardly through said filter bed zone and communicating with said outlet passage to receive at its upper end a flow of liquid from above said filter bed zone which is carried downwardly to flow out through said filter bed zone to said outlet passage or directly to said outlet passage. i) a tank for containing said particulate solids and liquid as a slurry; ii) an input to the interior of said tank for introduction of said particulate solids and liquid into said tank ; iii) a liquid outlet passage communicating with the interior of said tank ; iv) an agitator suspended within said tank for forming a suspension of said particulate solids in said liquid; v) said tank having a filter bed zone in a lower section thereof for formation of a filter bed from the settling of said particulate solids from said suspension and through which liquid drains from the tank ; and vi) a screen pipe extending upwardly through said filter bed zone and communicating with said outlet passage to receive at its upper end a flow of liquid from above said filter bed zone which is carried downwardly to flow out through said filter bed zone to said outlet passage or directly to said outlet passage.
A microsphere which is suitable for embolization, the microsphere comprising a polymer, wherein the polymer comprises a polymerized monomer of Formula I: wherein n is 0-12 and wherein R is either an oxygen-containing moiety or a nitrogen-containing moiety, wherein the polymer further comprises at least one of a polymerized N -[Tris(hydroxymethyl)methyl]acrylamide, a polymerized N,N '-Methylenebis(acrylamide), a polymerized diethyl aminoethyl acrylamide, or a polymerized triethyl aminoethyl acrylamide.
A pharmaceutical composition that comprises a compound capable of inhibiting the ROCK pathway, for use in the prophylactic or therapeutic treatment of dyskinesias induced by L-DOPA, wherein the compound capable of inhibiting the ROCK pathway is selected from fasudil, hydroxy fasudil, Ripasudil, Y-27632, Y-32885, AMA-0076, AR-12286, AR-13324 (Rhopressa), KD-025(Slx2119), LX7101, PG-324 (Roclatan) and SAR407899.