mhurhangee/patent-ind-claim-en huggingface dataset:
A cutting tool comprising a cutting insert comprising a top surface , a bottom surface , a clamping surface , a cutting edge , and a toolholder comprising a toolholder body having a pocket for receiving the insert , and a clamp for contacting the clamping surface and clamping the insert in the pocket, wherein a hole extends through the insert from the bottom surface and forms at least part of the clamping surface , wherein the toolholder comprises a toolholder passage in the body in flow communication with the hole in the insert , wherein the hole comprises a first portion having a substantially constant diameter along its length, wherein the first portion of the hole forms at least part of the clamping surface , characterized in that the hole comprises a second portion having a diameter that changes over at least part of its length, that the insert comprises a channel extending from the clamping surface to proximate the cutting edge , the channel has a radius of curvature (R) and a depth of the channel is greater at the clamping surface than proximate the cutting edge .
A method of controlling an electronic device comprising: providing an image as input into an artificial intelligence model; obtaining a feature map for the image as output from the artificial intelligence model; identifying a type of the feature map based on histogram information of the feature map; obtaining a lookup table for the type of the feature map among a plurality of lookup tables, wherein the plurality of lookup tables are generated in a process of training the artificial intelligence model by inputting a plurality of input images and obtaining a learning feature map for each input image, and analysing histogram information of the learning feature maps and determining the types of the learning feature maps, wherein each of the plurality of lookup tables is generated such that the maximum residual among pixel values included in a learning feature map is decreased, and wherein each of the plurality of lookup tables corresponds to a respective type of learning feature map; converting the feature map to a converted feature map using the obtained lookup table, wherein a standard deviation of pixel values of the pixels of the converted feature map is less than a standard deviation of pixel values of the pixels of the feature map; compressing the converted feature map using a compression mode corresponding to the type of the feature map among a plurality of compression modes; and storing the compressed feature map in a memory of the electronic device. providing an image as input into an artificial intelligence model; obtaining a feature map for the image as output from the artificial intelligence model; identifying a type of the feature map based on histogram information of the feature map; obtaining a lookup table for the type of the feature map among a plurality of lookup tables, wherein the plurality of lookup tables are generated in a process of training the artificial intelligence model by inputting a plurality of input images and obtaining a learning feature map for each input image, and analysing histogram information of the learning feature maps and determining the types of the learning feature maps, wherein each of the plurality of lookup tables is generated such that the maximum residual among pixel values included in a learning feature map is decreased, and wherein each of the plurality of lookup tables corresponds to a respective type of learning feature map; converting the feature map to a converted feature map using the obtained lookup table, wherein a standard deviation of pixel values of the pixels of the converted feature map is less than a standard deviation of pixel values of the pixels of the feature map; compressing the converted feature map using a compression mode corresponding to the type of the feature map among a plurality of compression modes; and storing the compressed feature map in a memory of the electronic device.
An oven comprising a walled enclosure having a sealable aperture providing an access passageway to the interior of the walled enclosure, and a door for selectively sealing the sealable aperture, a heating element , a thermostat and a heating element controller responsive to the thermostat, wherein the walls of the walled enclosure and the door each comprise an inner layer, an outer layer, and an insulation layer intermediate the inner layer and the outer layer, in which the insulation layer comprises an aerogel material, characterized in that the aerogel material is encapsulated in a packaging material and in that the packaging material encapsulating the aerogel material comprises a metal foil material.
A tissue paper comprising: 3-ply tissue paper having an internal layer and two outer layers; and an aqueous moisturizer contained in the 3-ply tissue paper, wherein the tissue paper has a basis weight of 15.0 to 18.5 g/m 2 per ply, wherein the tissue paper has a paper thickness of 176 to 230 um in 3 plies, wherein an amount of a moisturizing chemical solution comprising the aqueous moisturizer applied to base paper is 18.5 to 26.8 % by mass with respect to the base paper, wherein the tissue paper has an arithmetic mean roughness Sa of 0.007 to 0.020 mm as measured using Wide-Area 3D Measurement System VR-3200 (One-shot 3D shape measurement system VR-3200) manufactured by KEYENCE CORPORATION, and wherein the tissue paper has a compression work of 1.70 to 2.40 gf · cm/cm 2 and a compression recovery rate of 46.0 to 54.5% for four sets of three plies, twelve plies in total. 3-ply tissue paper having an internal layer and two outer layers; and an aqueous moisturizer contained in the 3-ply tissue paper, wherein the tissue paper has a basis weight of 15.0 to 18.5 g/m 2 per ply, wherein the tissue paper has a paper thickness of 176 to 230 um in 3 plies, wherein an amount of a moisturizing chemical solution comprising the aqueous moisturizer applied to base paper is 18.5 to 26.8 % by mass with respect to the base paper, wherein the tissue paper has an arithmetic mean roughness Sa of 0.007 to 0.020 mm as measured using Wide-Area 3D Measurement System VR-3200 (One-shot 3D shape measurement system VR-3200) manufactured by KEYENCE CORPORATION, and wherein the tissue paper has a compression work of 1.70 to 2.40 gf · cm/cm 2 and a compression recovery rate of 46.0 to 54.5% for four sets of three plies, twelve plies in total.
A first communications device for instructing a second communications device to perform a service, the first communications device comprising a web browser adapted to run a script that is from a remote source, and being characterised in that the first communications device : is adapted to send, to the second communications device , a service instruction for the second communications device to perform a service required by the script running on the web browser ; includes a security module adapted to receive from the second communications device a request for verification of the service instruction, inform the script of the request, respond to a requirement of the script to communicate the request to a user of the first communications device , and in response to an indication from the user of the requested verification of the service instruction, send to the script a statement that the service instruction has been verified by the user, the statement being concealed from the script ; and is further adapted to send, to the second communications device , the concealed statement required to be returned by the script in response to the request. is adapted to send, to the second communications device , a service instruction for the second communications device to perform a service required by the script running on the web browser ; includes a security module adapted to receive from the second communications device a request for verification of the service instruction, inform the script of the request, respond to a requirement of the script to communicate the request to a user of the first communications device , and in response to an indication from the user of the requested verification of the service instruction, send to the script a statement that the service instruction has been verified by the user, the statement being concealed from the script ; and receive from the second communications device a request for verification of the service instruction, inform the script of the request, respond to a requirement of the script to communicate the request to a user of the first communications device , and in response to an indication from the user of the requested verification of the service instruction, send to the script a statement that the service instruction has been verified by the user, the statement being concealed from the script ; and is further adapted to send, to the second communications device , the concealed statement required to be returned by the script in response to the request.
A nozzle head for descaling rolling stock moving relative to said nozzle head ; wherein said nozzle head is adapted to be mounted for rotation about an axis of rotation (Z) relative to a surface of said rolling stock ; wherein said nozzle head comprises a plurality of nozzles (40a - 40e) adapted to spray a liquid on said rolling stock ; characterised in that : said nozzle head comprises a first group of at least three of said nozzles (40a - 40e) positioned at a first radial distance (r 1 , r 2 , r 3 ) from said axis of rotation (Z), and a second group of at least two of said nozzles (40a - 40e) positioned at a second radial distance (r 1 , r 2 , r 3 ) from said axis of rotation (Z), said second radial distance (r 1 , r 2 , r 3 ) being smaller than said first radial distance (r 1 , r 2 , r 3 ); and a number of nozzles in said second group of said nozzles (40a - 40e) being smaller than a number of nozzles in said first group of said nozzles (40a - 40e). wherein said nozzle head is adapted to be mounted for rotation about an axis of rotation (Z) relative to a surface of said rolling stock ; wherein said nozzle head comprises a plurality of nozzles (40a - 40e) adapted to spray a liquid on said rolling stock ; characterised in that : said nozzle head comprises a first group of at least three of said nozzles (40a - 40e) positioned at a first radial distance (r 1 , r 2 , r 3 ) from said axis of rotation (Z), and a second group of at least two of said nozzles (40a - 40e) positioned at a second radial distance (r 1 , r 2 , r 3 ) from said axis of rotation (Z), said second radial distance (r 1 , r 2 , r 3 ) being smaller than said first radial distance (r 1 , r 2 , r 3 ); and a number of nozzles in said second group of said nozzles (40a - 40e) being smaller than a number of nozzles in said first group of said nozzles (40a - 40e). said nozzle head comprises a first group of at least three of said nozzles (40a - 40e) positioned at a first radial distance (r 1 , r 2 , r 3 ) from said axis of rotation (Z), and a second group of at least two of said nozzles (40a - 40e) positioned at a second radial distance (r 1 , r 2 , r 3 ) from said axis of rotation (Z), said second radial distance (r 1 , r 2 , r 3 ) being smaller than said first radial distance (r 1 , r 2 , r 3 ); and a number of nozzles in said second group of said nozzles (40a - 40e) being smaller than a number of nozzles in said first group of said nozzles (40a - 40e).
An assembly for frothing a fluid , including: - an air supply assembly including an air source and an air channel having an air inlet and a downstream end , the air source being connected to the air inlet , wherein the air supply assembly is configured to control the flow of air that is supplied to the downstream end ; - a fluid channel extending from a fluid inlet to a fluid outlet , the fluid channel including subsequently: ~ a first temperature sensor that is positioned adjacent or in the fluid inlet and that is configured to generate a first temperature signal that is associated with a sensed temperature of a fluid adjacent or in the fluid inlet ; ~ an air inlet emanation point to which the downstream end of the air channel is connected; ~ a frothing unit including a pump ; ~ a heater ; and wherein the assembly comprises: - an electronic controller assembly configured for: ~ receiving the first temperature signal, and ~ controlling the air supply assembly in response to at least the first temperature signal for controlling the flow of air that is supplied to the fluid channel , and ~ wherein the frothing unit comprises a fluid restriction . - an air supply assembly including an air source and an air channel having an air inlet and a downstream end , the air source being connected to the air inlet , wherein the air supply assembly is configured to control the flow of air that is supplied to the downstream end ; - a fluid channel extending from a fluid inlet to a fluid outlet , the fluid channel including subsequently: ~ a first temperature sensor that is positioned adjacent or in the fluid inlet and that is configured to generate a first temperature signal that is associated with a sensed temperature of a fluid adjacent or in the fluid inlet ; ~ an air inlet emanation point to which the downstream end of the air channel is connected; ~ a frothing unit including a pump ; ~ a heater ; ~ a first temperature sensor that is positioned adjacent or in the fluid inlet and that is configured to generate a first temperature signal that is associated with a sensed temperature of a fluid adjacent or in the fluid inlet ; ~ an air inlet emanation point to which the downstream end of the air channel is connected; ~ a frothing unit including a pump ; ~ a heater ; - an electronic controller assembly configured for: ~ receiving the first temperature signal, and ~ controlling the air supply assembly in response to at least the first temperature signal for controlling the flow of air that is supplied to the fluid channel , and ~ wherein the frothing unit comprises a fluid restriction . ~ receiving the first temperature signal, and ~ controlling the air supply assembly in response to at least the first temperature signal for controlling the flow of air that is supplied to the fluid channel , and ~ wherein the frothing unit comprises a fluid restriction .
Garbage truck comprising a hopper for collecting refuse, a compactor for compacting refuse inside the hopper , machine vision means , and a control unit connected to the machine vision means and configured for monitoring an area of the interior of the hopper so as to determine a volume of refuse present inside the hopper for controlling the compactor according to a given operating mode depending on the volume of refuse present in the hopper , characterized in that the machine vision means comprise: - a source of modulated light arranged for illuminating a volume in the interior of the hopper with modulated light; - a camera sensor connected to the source of modulated light and arranged for receiving light reflected by the hopper so as to determine distances from the camera sensor to different points in the hopper based on time difference between the emission of modulated light and its return to the camera sensor ; and - means for periodically generating three-dimensional geometries corresponding to the interior of the hopper from said determined distances so as to determine a volume of refuse present in the hopper , wherein the control unit is configured to automatically set the compactor to operate according to a mode in which it is manually operated by an operator when a profile of a volume of refuse in the hopper is considered not to have a normal distribution, associated to the presence of strange elements in the hopper . - a source of modulated light arranged for illuminating a volume in the interior of the hopper with modulated light; - a camera sensor connected to the source of modulated light and arranged for receiving light reflected by the hopper so as to determine distances from the camera sensor to different points in the hopper based on time difference between the emission of modulated light and its return to the camera sensor ; and - means for periodically generating three-dimensional geometries corresponding to the interior of the hopper from said determined distances so as to determine a volume of refuse present in the hopper ,
A Lactobacillus peptide, for use in therapeutically promoting epithelial barrier integrity in a patient, wherein the peptide comprises no more than 200 amino acids and comprising the sequence of SEQ ID NO:4 or SEQ ID NO:6, or a sequence that has greater than 80% sequence similarity to SEQ ID NO:4 or SEQ ID NO:6, and wherein the peptide is capable of promoting epithelial barrier integrity.
A battery comprising: a casing that houses a cell inside; and a terminal part that has connection terminals connectable to electrode terminals of a connection apparatus , wherein the casing includes a top face and a bottom face positioned on opposite sides in a height direction, two side faces positioned between the top face and the bottom face on opposite sides in a widthwise direction, and a front face and a rear face positioned on opposite sides in a longitudinal direction of the casing, wherein a notch is formed by a level difference face that is continuous from the side face and a groove forming face that is continuous from the bottom face , wherein the groove forming face and the level difference face are both formed continuously from the front face to the rear face in the longitudinal direction, wherein a guided groove that is open to the groove forming face is formed in the casing, and wherein the guided groove is positioned on a further bottom face side than the level difference face . a casing that houses a cell inside; and a terminal part that has connection terminals connectable to electrode terminals of a connection apparatus , wherein the casing includes a top face and a bottom face positioned on opposite sides in a height direction, two side faces positioned between the top face and the bottom face on opposite sides in a widthwise direction, and a front face and a rear face positioned on opposite sides in a longitudinal direction of the casing, wherein a notch is formed by a level difference face that is continuous from the side face and a groove forming face that is continuous from the bottom face , wherein the groove forming face and the level difference face are both formed continuously from the front face to the rear face in the longitudinal direction, wherein a guided groove that is open to the groove forming face is formed in the casing, and wherein the guided groove is positioned on a further bottom face side than the level difference face .
A method performed by a Radio Network Controller , RNC, for enabling a radio base station to adjust its Radio Access Network, RAN, capability by adjusting scheduling of one or more UEs served by the base station . dependent on a data transport characteristics of a backhaul network, wherein the data transport characteristics comprises at least one of data transfer rate, network delay and bandwidth, wherein the RAN and the backhaul network are parts of a telecommunication network, and the RNC is arranged in the telecommunication network to communicate data between the RAN and a core network node in the telecommunication network, said method comprising: • obtaining , by a RAN Aggregation Transport Characteristics unit of the RNC , information related to the data transport characteristics of the backhaul network, from one or more reporting units , wherein the information relates to at least one of: End-to-end measurements between the Radio Base Station and the core network node , and link characteristics reports for communication links in the backhaul network, • compiling , by the RAN Aggregation Transport Characteristics unit of the RNC , the information into a compiled backhaul characteristics value, • selecting by the RAN Adaptation Selection unit , RAS, of the RNC, that the RAN capability of the Radio Base Station will be adjusted, depending on the compiled backhaul characteristics value, and • when it is selected that the RAN capability will be adjusted, sending, by the RAS , a request to a RAN Adaptation unit to adjust the RAN capability, the RAN Adaptation unit being comprised in the Radio Base Station serving the RAN, where the request indicates that scheduling will be adjusted for one or more UEs served by the base station . • obtaining , by a RAN Aggregation Transport Characteristics unit of the RNC , information related to the data transport characteristics of the backhaul network, from one or more reporting units , wherein the information relates to at least one of: End-to-end measurements between the Radio Base Station and the core network node , and link characteristics reports for communication links in the backhaul network, • compiling , by the RAN Aggregation Transport Characteristics unit of the RNC , the information into a compiled backhaul characteristics value, • selecting by the RAN Adaptation Selection unit , RAS, of the RNC, that the RAN capability of the Radio Base Station will be adjusted, depending on the compiled backhaul characteristics value, and • when it is selected that the RAN capability will be adjusted, sending, by the RAS , a request to a RAN Adaptation unit to adjust the RAN capability, the RAN Adaptation unit being comprised in the Radio Base Station serving the RAN, where the request indicates that scheduling will be adjusted for one or more UEs served by the base station .
A plug for drains with facilitated adjustment, said plug comprises a plug body which is adapted to be inserted into a hole of a drain, said body being provided with a plurality of centering wings , an adjustment element being provided for coupling with said plug body , said centering wings defining an opening between them for the accommodation of said adjustment element , said adjustment element being provided with a shank which is provided with circumferential raised portions that are adapted to mesh in complementary circumferential slots defined in said opening , said opening being configured to accommodate said adjustment element inserted in said opening in an inclined position and its subsequent straightening to a vertical position along the axis of said plug body , characterized in that said opening defined between said centering wings is provided in a lower region with a pair of engagement fins which are mutually opposite and are adapted to retain said shank of the adjustment element .
A core shell particle comprising: a core which contains a Group 13 element and a Group 15 element; a first shell which covers at least a part of a surface of the core; and a second shell which contains a Group 12 element and covers at least a part of the first shell, wherein the molar ratio of the Group 12 element contained in the entirety of the core shell particle to the Group 13 element contained in the core, which is acquired using X-ray photoelectron spectroscopy, is 3.0 or greater, wherein the core further contains a Group 12 element. a core which contains a Group 13 element and a Group 15 element; a first shell which covers at least a part of a surface of the core; and a second shell which contains a Group 12 element and covers at least a part of the first shell, wherein the molar ratio of the Group 12 element contained in the entirety of the core shell particle to the Group 13 element contained in the core, which is acquired using X-ray photoelectron spectroscopy, is 3.0 or greater, wherein the core further contains a Group 12 element.
A therapeutic drug-polymer structure having a structure of the following formula and comprising a ligand bonded thereto: Formula 1 L-A-X-R-Y-B wherein A is a hydrophilic material; B is a hydrophobic material; X and Y are each a simple covalent bond or a linker-mediated covalent bond independently of each other; R is a double-helix oligo RNA; and L is a receptor-specific ligand having the property of enhancing internalization of the target cell by receptor-mediated endocytosis (RME), covalently bonded to the end of the hydrophilic material, said ligand being selected from among folate, N-acetylgalactosamine (NAG), and mannose.