mhurhangee/ep-ind-claims huggingface dataset:
A collection bag for a blowervac comprising an air tube and a fan for sucking in debris through the air tube, wherein the collection bag is adapted to be attached to the blowervac through a hose, the collection bag comprising at least one shoulder strap secured to the collection bag to allow the collection bag to be carried on a user's back, wherein the collection bag has a user side adjacent the user's back, and the user side of the collection bag is non-air permeable, and at least a portion of the side of the collection bag opposite the user's side includes a grill portion of air permeable material, wherein the collection bag comprises a closure (36, 56) for allowing access to the contents of the collection bag, the closure comprising a sleeve that is rolled up to close an opening to the collection bag. wherein the collection bag has a user side adjacent the user's back, and the user side of the collection bag is non-air permeable, and at least a portion of the side of the collection bag opposite the user's side includes a grill portion of air permeable material, wherein the collection bag comprises a closure (36, 56) for allowing access to the contents of the collection bag, the closure comprising a sleeve that is rolled up to close an opening to the collection bag.
A projector comprising: a solid-state light source that emits excitation light; a rotating phosphor plate that converts the excitation light into phosphor light, wherein the rotating phosphor plate includes a single phosphor material that converts the excitation light into the phosphor light and that is provided in a circumferential direction of a disc to be rotated by a motor; a light modulating device that modulates the light from the rotating phosphor plate; a projection optical system that projects the light modulated by the light modulating device onto a screen; and a control device that controls the rotating phosphor plate and the light modulating device so that any one of the following conditional expressions is satisfied: n * C = 2 B or |((n/2) * C) - B| is greater than or equal to 20 where n is an integer greater than or equal to 1, B represents a rotation frequency in hertz of the rotating phosphor plate and C represents a driving frequency in hertz of the light modulating device. a solid-state light source that emits excitation light; a rotating phosphor plate that converts the excitation light into phosphor light, wherein the rotating phosphor plate includes a single phosphor material that converts the excitation light into the phosphor light and that is provided in a circumferential direction of a disc to be rotated by a motor; a light modulating device that modulates the light from the rotating phosphor plate; a projection optical system that projects the light modulated by the light modulating device onto a screen; and a control device that controls the rotating phosphor plate and the light modulating device so that any one of the following conditional expressions is satisfied: n * C = 2 B or |((n/2) * C) - B| is greater than or equal to 20 where n is an integer greater than or equal to 1, B represents a rotation frequency in hertz of the rotating phosphor plate and C represents a driving frequency in hertz of the light modulating device.
Method for forming spacers of a transistor gate of a field effect transistor, the gate being located above a layer in a semiconductor material, comprising a step of forming directly in contact with the layer in a semiconductor material of a nitride layer covering the gate of the transistor, with the method being characterised in that it comprises: after the step of forming the dielectric layer, at least one modification step of the nitride layer by implanting light ions in the nitride layer in order to form a modified nitride layer, with the modification step being carried out in such a way as to not modify the nitride layer over its entire thickness on the sidewalls of the gate; with the implantation being carried out using a plasma comprising light ions; the modification step carried out using a plasma modifies the nitride layer continuously from the surface of the nitride layer and over a thickness between 1 nm and 30 nm; at least one step of removing of the modified nitride layer using a selective etching of the modified nitride layer opposite said semiconductor material and opposite the non-modified nitride layer. after the step of forming the dielectric layer, at least one modification step of the nitride layer by implanting light ions in the nitride layer in order to form a modified nitride layer, with the modification step being carried out in such a way as to not modify the nitride layer over its entire thickness on the sidewalls of the gate; with the implantation being carried out using a plasma comprising light ions; the modification step carried out using a plasma modifies the nitride layer continuously from the surface of the nitride layer and over a thickness between 1 nm and 30 nm; at least one step of removing of the modified nitride layer using a selective etching of the modified nitride layer opposite said semiconductor material and opposite the non-modified nitride layer.
A lamp unit with - a reflector with a reflector wall, - and a linear light source unit with at least one LED light source, which is arranged in the output region at a distance in front of the reflector wall in such a way that it irradiates light in the direction of the reflector wall, - wherein the output region is sealed by a transmitting closure such that an enclosed reflector chamber is formed, - wherein the reflector, the closure, and the light source are permanently connected to one another, - and wherein a cooling element is provided at the light source unit, which projects from the output region, characterized in that, outside the unit, on a face side of the reflector, a detachable electrical connection is provided as a plug connection, clamp connection, or screw connection for conveying electrical power to the light source unit, and the edging of the reflector wall secures the outlet region. - a reflector with a reflector wall, - and a linear light source unit with at least one LED light source, which is arranged in the output region at a distance in front of the reflector wall in such a way that it irradiates light in the direction of the reflector wall, - wherein the output region is sealed by a transmitting closure such that an enclosed reflector chamber is formed, - wherein the reflector, the closure, and the light source are permanently connected to one another, - and wherein a cooling element is provided at the light source unit, which projects from the output region,
A congestion control method, applied to a dedicated core network, DCN, scenario having a DCN node of multiple DCN types, and comprising: determining a priority of each dedicated core network DCN type, based on DCN information received from the DCN node; receiving a load status of the DCN node from the DCN node; receiving an access request message sent by user equipment, UE; obtaining, based on the access request message, a type of a DCN that the UE requests to access, and determining of a status of the type of the DCN that the UE requests to access; and determining, based on the status of the type of the DCN that the UE requests to access, whether to allow access by the UE; wherein determining by the RAN a status of the DCN type comprises determining the status of each DCN type based on the priority of said DCN type and the network load status; wherein the network load status is a congestion grade, and the determining the status of each DCN type based on the priority of said DCN type and the network load status comprises: determining the status of each DCN type based on the priority of said DCN type and the congestion grade; wherein the method is performed by a radio access network RAN node. determining a priority of each dedicated core network DCN type, based on DCN information received from the DCN node; receiving a load status of the DCN node from the DCN node; receiving an access request message sent by user equipment, UE; obtaining, based on the access request message, a type of a DCN that the UE requests to access, and determining of a status of the type of the DCN that the UE requests to access; and determining, based on the status of the type of the DCN that the UE requests to access, whether to allow access by the UE; wherein determining by the RAN a status of the DCN type comprises determining the status of each DCN type based on the priority of said DCN type and the network load status; wherein the network load status is a congestion grade, and the determining the status of each DCN type based on the priority of said DCN type and the network load status comprises: determining the status of each DCN type based on the priority of said DCN type and the congestion grade; wherein the method is performed by a radio access network RAN node. determining the status of each DCN type based on the priority of said DCN type and the congestion grade; wherein the method is performed by a radio access network RAN node.
Pump (10, 110), in particular for dishwashers, comprising a housing consisting of a housing base (28, 128), a housing cover (16, 116) and a heating device (30, 130, 36, 136) disposed therebetween for the purpose of heating a washing fluid, the device forming a ring-shaped side wall (30, 130) of the housing, further comprising an impeller (40, 140) arranged in the housing, an intake port (18, 118) arranged axially in the housing cover (16, 116) relative to the axis of rotation of the impeller (40, 140), and a discharge port (20, 120), wherein the heating device (30, 130, 36, 136) has a tube (30, 130) made from metal for the purpose of heating the washing fluid flowing therein, and wherein the housing cover (16, 116) and the housing base (28, 128) are produced from plastic, characterised in that the discharge port (20, 120) is arranged in the housing cover (16, 116) and wherein the tube (30, 130) has a closed annular-shaped cross-section.
An oxygen reduction catalyst comprising a composite particle, the composite particle comprising a carbon structure and particles each comprising a Group 4 metal element M1, the composite particle containing a Group 4 metal element M1, carbon, nitrogen and oxygen, the particles each comprising a Group 4 metal element M1 being dispersed in the carbon structure, and the composite particle having a percentage of mass loss (a) and a percentage of mass loss (b), which are represented by the following formulae, of not more than 15% and 25 to 70%, respectively: percentage of mass loss a % = mass lost at 300 to 500 ° C / mass at 300 ° C × 100 percentage of mass loss b % = mass lost at 300 to 800 ° C / mass at 300 ° C × 100 wherein each mass is a mass observed when the composite particle is subjected to simultaneous thermogravimetry-differential thermal analysis (TG-DTA) under the following conditions: flow gas: air gas flow rate: 0.2 L/min temperature profile: the temperature is raised from 30°C to 100°C at a rate of 10°C/min, then maintained at 100°C for 30 minutes, and then raised from 100°C to 800°C at a rate of 10°C/min, wherein the oxygen reduction catalyst is obtainable by a process comprising a step of preparing a composite particle precursor containing a Group 4 metal element M1, carbon, nitrogen and oxygen and comprising a carbon structure and particles each of which comprises the Group 4 metal element M1 and which are dispersed in the carbon structure, and an oxidation step of bringing the composite particle precursor into contact with an oxidizing gas containing oxygen gas to oxidize and remove a part of carbon contained in the carbon structure. flow gas: air gas flow rate: 0.2 L/min temperature profile: the temperature is raised from 30°C to 100°C at a rate of 10°C/min, then maintained at 100°C for 30 minutes, and then raised from 100°C to 800°C at a rate of 10°C/min,
An article comprising: a substrate that includes a physical surface; a multi-dimensional machine-readable optical code (100, 200, 400, 530) embodied on the physical surface, wherein the multi-dimensional machine-readable optical code comprises optical elements that represent binary or n -ary information and which are not readable to a human and/or contain no information meaningful to a human, each optical element representing an encoded value in a set of encoded values, wherein the optical elements of the multi-dimensional machine-readable optical code comprise a static data, SD, optical element set and a lookup data, LD, optical element set, each set being embodied on the physical surface, wherein the LD optical element set encodes a look-up value that references dynamically changeable data, wherein the SD optical element set encodes static data that does not reference other data, wherein the LD optical element set is not decodable at a distance greater than a threshold distance, wherein the SD optical element set is decodable at the distance greater than the threshold distance, and wherein the SD optical element set includes a first plurality of optical elements each of a first size and the LD optical element set includes a second plurality of optical elements each of a second size that is smaller than the first size. a substrate that includes a physical surface; a multi-dimensional machine-readable optical code (100, 200, 400, 530) embodied on the physical surface, wherein the multi-dimensional machine-readable optical code comprises optical elements that represent binary or n -ary information and which are not readable to a human and/or contain no information meaningful to a human, each optical element representing an encoded value in a set of encoded values, wherein the optical elements of the multi-dimensional machine-readable optical code comprise a static data, SD, optical element set and a lookup data, LD, optical element set, each set being embodied on the physical surface, wherein the LD optical element set encodes a look-up value that references dynamically changeable data, wherein the SD optical element set encodes static data that does not reference other data, wherein the LD optical element set is not decodable at a distance greater than a threshold distance, wherein the SD optical element set is decodable at the distance greater than the threshold distance, and wherein the SD optical element set includes a first plurality of optical elements each of a first size and the LD optical element set includes a second plurality of optical elements each of a second size that is smaller than the first size.
Road finisher for producing a paving layer on a subgrade on which the road finisher moves along a paving direction during a paving run, the road finisher comprising a height-adjustable paving screed for producing the paving layer and a leveling system configured to control a height of the paving screed, in order to compensate for unevenness of the subgrade, wherein the leveling system comprises a first measuring device comprising at least a first sensor unit configured to contactlessly measure at least a first distance to a surface of the subgrade during the paving run and at least one second sensor unit configured to contactlessly measure at least a second distance to a surface of the paving layer produced on the subgrade during the paving run, wherein the road finisher is adapted to determine a reference level based on the first and the second measured distance (A1, A2), on the basis of which a leveling actual value (13a, 13b) can be provided to the leveling system for controlling the height of the paving screed, characterized in that the road finisher is configured to further determine a layer thickness of the paving layer produced on the subgrade based on the first distance measured by means of the first sensor unit and on the second distance measured by means of the second sensor unit.
A medicament for treating hepatic ascites, comprising the following components in parts by weight: 15-55 parts of shiraia bambusicola, 15-55 parts of spina gleditsiae, 15-25 parts of cornu bubali, 15-45 parts of caulis bambusae in taeniam, 15-25 parts of angelica pubescens, 15-25 parts of fructus schizandrae, 15-25 parts of radix puerariae, 15-75 parts of hedyotis diffusa, 5-15 parts of glycyrrhiza uralensis, 15-55 parts of lotus leaf, 5-35 parts of semen cassiae, 5-15 parts of radix pseudostellariae, 5-15 parts of American ginseng, 5-35 parts of cortex eucommiae, 5-25 parts of radix paeoniae alba and 5-35 parts of sophora flavescens.
An abrasive slurry regeneration method for polishing a polishing target containing silicon oxide as a main component using an abrasive slurry containing abrasive particles and a plurality of kinds of additives and then regenerating a collected abrasive slurry (22, 32, 33), the method characterized by comprising a regeneration step of filtering the collected abrasive slurry to collect an additive having a molecular weight of 500 or more and an additive adsorbed by the abrasive particles among additives contained in the collected abrasive slurry (22, 32, 33) together with the abrasive particles while an abrasive concentration (% by mass) is maintained within a range of 0.2 to 3000% with respect to an abrasive concentration (% by mass) of an unused abrasive slurry when being used for polishing the polishing target.
A method of operating a cognitive radio, CR, unit, comprising: estimating an operating location of the CR unit; determining an operating location estimate accuracy; providing an allowed location determination error for the CR unit by a regulatory authority; determining an allowed location error region using the estimated operating location of the CR unit and the determined location estimate accuracy; determining at least one location-based system operating parameter by performing a optimum operating parameter search over the allowed location error region, wherein the allowed location error region is centered on the operating location of the CR unit, and extends outward to a distance equal to the difference between the allowed location determination error and the operating location estimate accuracy; and operating the CR unit with the determined location-based system operating parameter. estimating an operating location of the CR unit; determining an operating location estimate accuracy; providing an allowed location determination error for the CR unit by a regulatory authority; determining an allowed location error region using the estimated operating location of the CR unit and the determined location estimate accuracy; determining at least one location-based system operating parameter by performing a optimum operating parameter search over the allowed location error region, wherein the allowed location error region is centered on the operating location of the CR unit, and extends outward to a distance equal to the difference between the allowed location determination error and the operating location estimate accuracy; and operating the CR unit with the determined location-based system operating parameter.
A pharmaceutical composition comprising a substantially pure polypeptide comprising an ILY domain 4 polypeptide and a therapeutic antibody, wherein said substantially pure polypeptide and said therapeutic antibody are separate molecules, and wherein the said substantially pure polypeptide is at least 75 %, by weight, pure.
A system for irrigating an infected implant area, the system comprising: an irrigation tool; a navigation system for tracking movement of the irrigation tool; a robotic system comprising an articulated arm, wherein the irrigation tool is coupled to the articulated arm; and a processing circuit comprising a processor and non-transitory machine readable media with instructions stored thereon, the processing circuit configured to; determine an area to be irrigated, the irrigation area including at least a surface of an implant or patient tissue; generate a plan for irrigating the irrigation area; and monitor irrigation of the irrigation area, using data associated with the movement of the irrigation tool from the navigation system, to ensure that an entirety of the irrigation area receives at least minimum irrigation; and at adjust the speed and pressure of the spray of irrigation fluid from the irrigation tool to reduce the speed and pressure of the spray when patient tissues are being cleaned as opposed to implant surfaces. an irrigation tool; a navigation system for tracking movement of the irrigation tool; a robotic system comprising an articulated arm, wherein the irrigation tool is coupled to the articulated arm; and a processing circuit comprising a processor and non-transitory machine readable media with instructions stored thereon, the processing circuit configured to; determine an area to be irrigated, the irrigation area including at least a surface of an implant or patient tissue; generate a plan for irrigating the irrigation area; and monitor irrigation of the irrigation area, using data associated with the movement of the irrigation tool from the navigation system, to ensure that an entirety of the irrigation area receives at least minimum irrigation; and at adjust the speed and pressure of the spray of irrigation fluid from the irrigation tool to reduce the speed and pressure of the spray when patient tissues are being cleaned as opposed to implant surfaces.
A footwear scanning system comprising: a platform configured to contact footwear to be scanned; an antenna array configured to transmit electromagnetic waves through the platform into the footwear and to receive electromagnetic waves from the footwear and the platform; a transceiver coupled with antennas of the antenna array and configured to apply electrical signals to at least one of the antennas to generate the transmitted electromagnetic waves and to receive electrical signals from at least another of the antennas corresponding to the electromagnetic waves received by the another of the antennas; processing circuitry configured to process the received electrical signals from the transceiver to provide information regarding contents within the footwear; and characterized in that the platform comprises a conformal support surface configured to contact and support soles of the footwear and to conform to different surface features of the soles of the footwear; and wherein the conformal support surface comprises a retention layer over a plurality of movable members. a platform configured to contact footwear to be scanned; an antenna array configured to transmit electromagnetic waves through the platform into the footwear and to receive electromagnetic waves from the footwear and the platform; a transceiver coupled with antennas of the antenna array and configured to apply electrical signals to at least one of the antennas to generate the transmitted electromagnetic waves and to receive electrical signals from at least another of the antennas corresponding to the electromagnetic waves received by the another of the antennas; processing circuitry configured to process the received electrical signals from the transceiver to provide information regarding contents within the footwear; and characterized in that the platform comprises a conformal support surface configured to contact and support soles of the footwear and to conform to different surface features of the soles of the footwear; and