mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operation of network node of a Fifth Generation, 5G, cellular communications network to enable coordinated User Plane Function, UPF, and Packet Processing Function, PPF, selection, wherein the network node is a Radio Control Function, RCF, comprising: receiving information indicative of a first network function selected for a protocol data unit session of a wireless device ; and selecting a second network function for the protocol data unit session of the wireless device based on the information indicative of the first network function; the first network function being one of a pair of network functions and the second network function being the other of the pair of network functions, the pair of network functions comprising: a UPF being part of a core network of the cellular communications network ; and a PPF being part of a radio access network of the cellular communications network . receiving information indicative of a first network function selected for a protocol data unit session of a wireless device ; and selecting a second network function for the protocol data unit session of the wireless device based on the information indicative of the first network function; the first network function being one of a pair of network functions and the second network function being the other of the pair of network functions, the pair of network functions comprising: a UPF being part of a core network of the cellular communications network ; and a PPF being part of a radio access network of the cellular communications network . a UPF being part of a core network of the cellular communications network ; and a PPF being part of a radio access network of the cellular communications network .
A method for manufacturing a photomask blank having a functional film on a transparent substrate, wherein the functional film is made of a chromium-containing material including a chromium element and one or more metallic elements selected from indium, tin, bismuth, thallium, lithium, sodium, potassium and mercury; and, in a step of forming the functional film, a chromium target (target A) and a target (target B) mainly containing at least one kind of the metallic element are simultaneously sputtered, wherein S B < S A where S A is the total area of the target A and S B is the total area of the target B and a ratio (S B /S A ) between the total surface area S A and the total surface area S B is set to 0.7 or lower and 0.01 or higher.
A method comprising: obtaining an image ; identifying a rotation angle for the image by processing the image with a first neural network, wherein the first neural network is a convolutional neural network that determines a rotational offset of an object depicted in the image relative to a base orientation; rotating the image by the identified rotation angle to generate a rotated image ; and classifying the rotated image with a second neural network; and outputting an indication of an outcome of the classification, wherein the first neural network is trained, at least in part, based on a sum of a categorical cross-entropy term that is associated with an output of the first neural network and a categorical distance between training data and the output that is produced by the first neural network, wherein the categorical distance is defined as follows: l θ = min ξ y − ξ y ^ % K , ξ y ^ − ξ y % K , where ξ y is an index of a one-hot representation of an output vector that is generated by the first neural network for a training image, ξ ŷ is an index of a one-hot representation of a label that is associated with the training image, and K is a count of classes that are associated with the first neural network. obtaining an image ; identifying a rotation angle for the image by processing the image with a first neural network, wherein the first neural network is a convolutional neural network that determines a rotational offset of an object depicted in the image relative to a base orientation; rotating the image by the identified rotation angle to generate a rotated image ; and classifying the rotated image with a second neural network; and outputting an indication of an outcome of the classification, wherein the first neural network is trained, at least in part, based on a sum of a categorical cross-entropy term that is associated with an output of the first neural network and a categorical distance between training data and the output that is produced by the first neural network, wherein the categorical distance is defined as follows: l θ = min ξ y − ξ y ^ % K , ξ y ^ − ξ y % K , where ξ y is an index of a one-hot representation of an output vector that is generated by the first neural network for a training image, ξ ŷ is an index of a one-hot representation of a label that is associated with the training image, and K is a count of classes that are associated with the first neural network.
A stabilizing rotatable support wheel device for stabilization of an industrial truck , said device comprising a rotatable part and a mount , said rotatable part comprising a yoke holding a support wheel and a swivel shank connected to said yoke , and said mount comprising a tubular compartment arranged to rotatably receive and hold said shank , wherein said shank is axially displaceable within said mount , the stabilizing support wheel device further comprising a circumferential restriction surface and a protruding abutment , one of said restriction surface and abutment being arranged on the mount and the other on the rotatable part , the restriction surface having a varying height to provide at least some rotational positions where the abutment is relatively closer to the restriction surface , thereby restricting axial movement of the shank , and at least some rotational positions where the abutment is relatively farther away from the restriction surface , thereby allowing more axial movement, characterized in that the restriction surface is arranged not to restrict the axial movement at rotational positions where the support wheel is directed essentially straight forward and/or straight backward, but to restrict the axial movement at at least some, and preferably essentially all, other rotational positions.
Device for carrying an object having a smooth surface, which device comprises a first frame that is arranged to be able to manipulate the device and the object to be carried, as well as a second frame onto which a number of suction cups is attached, wherein the second frame is rotatable about an axis of rotation relative to the first frame in a plane that extends parallel to the smooth surface of the object to be carried, wherein furthermore a plurality of vacuum sources is provided for evacuating the suction cups during operation, and wherein the vacuum sources and the suction cups are pneumatically interconnected by means of a pneumatic connecting member, which is rotatable about said axis of rotation, characterized in that the pneumatic connecting member is formed by at least one spiral-shaped, hose assembly comprising a plurality of hoses and hose guiding means , wherein each hose at one end is connected to a vacuum source and at its other end is connected to at least one suction cup , and wherein for each spiral-shaped hose assembly all hoses are located in the same spiral plane . , by means of the hose guiding means . wherein the second frame is rotatable about an axis of rotation relative to the first frame in a plane that extends parallel to the smooth surface of the object to be carried, wherein furthermore a plurality of vacuum sources is provided for evacuating the suction cups during operation, and wherein the vacuum sources and the suction cups are pneumatically interconnected by means of a pneumatic connecting member, which is rotatable about said axis of rotation, characterized in that the pneumatic connecting member is formed by at least one spiral-shaped, hose assembly comprising a plurality of hoses and hose guiding means , wherein each hose at one end is connected to a vacuum source and at its other end is connected to at least one suction cup , and wherein for each spiral-shaped hose assembly all hoses are located in the same spiral plane . , by means of the hose guiding means .
An adapter attached to an attachment part in which a through-hole is formed and provided at a bottom part of a blood sampling holder which is a bottomed hollow cylinder, wherein the adapter comprises: a hollow body part which is connectable to a blood sampler for sampling blood from a human body and through which the sampled blood flows; a flange part which is provided at a base end side of the body part and which abuts the leading end surface of the attachment part; and a cylindrical protruding part which extends from the flange part in a direction opposite to the body part and which is inserted into the through-hole of the attachment part, and at an outer periphery of the protruding part, a male screw part is formed from the flange part side, characterized in that a cut-out part is formed by cutting out a portion in a peripheral direction, closer to a base end side than a leading end, of the male screw part. wherein the adapter comprises: a hollow body part which is connectable to a blood sampler for sampling blood from a human body and through which the sampled blood flows; a flange part which is provided at a base end side of the body part and which abuts the leading end surface of the attachment part; and a cylindrical protruding part which extends from the flange part in a direction opposite to the body part and which is inserted into the through-hole of the attachment part, and at an outer periphery of the protruding part, a male screw part is formed from the flange part side, characterized in that a cut-out part is formed by cutting out a portion in a peripheral direction, closer to a base end side than a leading end, of the male screw part.
An EZH2 inhibitor for use in treatment of a non-Hodgkin's lymphoma (NHL) wherein the NHL is diffuse large B-cell lymphoma (DLBCL), and wherein the EZH2 inhibitor is EPZ-6438 having the following formula: or a pharmaceutically acceptable salt thereof.
Method for demarcating image regions to be viewed in a picture of an environment, the image regions to be viewed being analysed for camouflage nets or objects having camouflage painting, having the following steps: creating the picture of the environment using an optical capture unit, the optical capture unit creating the picture in an RGB colour space; transforming the picture from the RGB colour space into an LAB colour space, having the colour components L, A and B, and subsequently into an LCH colour space, having the colour components L, C and H, to obtain a transformed picture; selecting a colour component, from the transformed picture, as a primary working component which is characteristic of the camouflage nets or the objects having camouflage painting, the primary working component being the H component from the LCH colour space; determining a plurality of image points in the transformed picture using a statistical binary segmentation of the working component; applying morphological operations to the plurality of image points, so as to obtain detection cores and associated binary detection masks which are drawn on as a basis for the demarcation of the image regions to be viewed; determining a value of at least one characteristic feature from the group of area, elongation, segmented bright/dark proportions from the primary working component for each detection core; verifying whether the value of the at least one characteristic feature is within a predefinable value range; discarding the detection cores for which the values are outside the predefinable value range; viewing the image regions which are demarcated after the remaining detection cores have been discarded. creating the picture of the environment using an optical capture unit, the optical capture unit creating the picture in an RGB colour space; transforming the picture from the RGB colour space into an LAB colour space, having the colour components L, A and B, and subsequently into an LCH colour space, having the colour components L, C and H, to obtain a transformed picture; selecting a colour component, from the transformed picture, as a primary working component which is characteristic of the camouflage nets or the objects having camouflage painting, the primary working component being the H component from the LCH colour space; determining a plurality of image points in the transformed picture using a statistical binary segmentation of the working component; applying morphological operations to the plurality of image points, so as to obtain detection cores and associated binary detection masks which are drawn on as a basis for the demarcation of the image regions to be viewed; determining a value of at least one characteristic feature from the group of area, elongation, segmented bright/dark proportions from the primary working component for each detection core; verifying whether the value of the at least one characteristic feature is within a predefinable value range; discarding the detection cores for which the values are outside the predefinable value range; viewing the image regions which are demarcated after the remaining detection cores have been discarded.
A method performed by a first network node , for managing channel access for a Wireless Device, WD, , which WD supports a plurality of Radio Access Technologies, RATs, wherein the method comprises: - receiving , from the WD , a radio channel access request comprising information regarding a number of requirements on the channel access, - measuring the channel status for all channels for all RATs within the geographical area served by the first network node , - storing the channel statuses measured, - sending , to a second network node, the channel status for all channels for all RATs within the geographical area served by the first network node , - receiving , from the second network node, the channel status for all channels for all RATs within the geographical area served by the second network node , - determining a channel access schedule based on the received information and channel statuses received and/or stored for the channels and RATs available within a geographical area served by the first network node and the second network node , which channel access schedule comprises information about a radio channel assigned to the WD , wherein the channel access schedule comprises a list of channels and RATs assigned to the WD for different time slots, wherein with the proviso that a combination of a velocity and a requested duration indicates that the WD is to be out of range of the first network node , then the first network node requests scheduling of resources from at least the second network node , and - sending , to the WD , the channel access schedule. - receiving , from the WD , a radio channel access request comprising information regarding a number of requirements on the channel access, - measuring the channel status for all channels for all RATs within the geographical area served by the first network node , - storing the channel statuses measured, - sending , to a second network node, the channel status for all channels for all RATs within the geographical area served by the first network node , - receiving , from the second network node, the channel status for all channels for all RATs within the geographical area served by the second network node , - determining a channel access schedule based on the received information and channel statuses received and/or stored for the channels and RATs available within a geographical area served by the first network node and the second network node , which channel access schedule comprises information about a radio channel assigned to the WD , wherein the channel access schedule comprises a list of channels and RATs assigned to the WD for different time slots, wherein with the proviso that a combination of a velocity and a requested duration indicates that the WD is to be out of range of the first network node , then the first network node requests scheduling of resources from at least the second network node , and - sending , to the WD , the channel access schedule.
A liquid composition for oral administration comprising saponin and chokeberry fruit juice for use in the treatment and/or prevention of metabolic conditions related to acetaldehyde toxicity, characterized in that saponin is β-escin, which is present in the composition at a concentration between 20 to 80 mg/l and the chokeberry fruit juice is present in the amount sufficient to mask the taste of β-escin, the chokeberry fruit juice concentration being between 50 and 200 g/l, and wherein the metabolic conditions related to acetaldehyde toxicity are selected from veisalgia and alcohol poisoning.
A photographing method, wherein the photographing method is applied to a mobile terminal that comprises a front-facing camera and a rear-facing camera, and the photographing method comprises: receiving a first input by a user when a current screen displays a photographing preview screen; in response to the first input, updating the photographing preview screen and displaying it as a first sub-preview-screen and a second sub-preview-screen ; receiving a second input by the user; in response to the second input, controlling a first photographing identifier displayed on the first sub-preview-screen and a second photographing identifier displayed on the second sub-preview-screen to move; and when the first photographing identifier and the second photographing identifier have an overlapping region with a preset area, controlling the front-facing camera and the rear-facing camera to capture a first image and a second image respectively, and displaying a composite image of the first image and the second image, wherein the first sub-preview-screen displays a preview image captured by the front-facing camera, and the second sub-preview-screen displays a preview image captured by the rear-facing camera. receiving a first input by a user when a current screen displays a photographing preview screen; in response to the first input, updating the photographing preview screen and displaying it as a first sub-preview-screen and a second sub-preview-screen ; receiving a second input by the user; in response to the second input, controlling a first photographing identifier displayed on the first sub-preview-screen and a second photographing identifier displayed on the second sub-preview-screen to move; and when the first photographing identifier and the second photographing identifier have an overlapping region with a preset area, controlling the front-facing camera and the rear-facing camera to capture a first image and a second image respectively, and displaying a composite image of the first image and the second image, wherein the first sub-preview-screen displays a preview image captured by the front-facing camera, and the second sub-preview-screen displays a preview image captured by the rear-facing camera.
A process for the application of a heat flowable adhesive material to a substrate comprising extruding the heat flowable material from an extrusion die wherein the extrusion die and the substrate are moved relative to each other to deposit the heat flowable material on the surface of the substrate and a gas at a temperature in the range 40°C to 150°C is blown at a pressure in the range 1 to 8 bars (0.1 Mpa to 0.8 Mpa) onto the side of the heat flowable material remote from the substrate wherein a distance is provided between the die of the extruder and the surface of the substrate to prevent interaction between them, wherein the hot gas is applied from jets integrated with the extrusion die at a temperature below the activation temperature of the material, characterized in that the distance between the die of the extruder and the surface of the substrate is from 0.5mm to 2cm, wherein the residence time of the material within the extruder is less than 10 minutes preferably less than 5 minutes.
A method of isolating and preparing cellulose fibers of a desired length-weighted average fiber length Ic(l) from cereal straw, said method comprising the steps: (i) providing dewaxed straw material in aqueous suspension, (ii) solubilizing hemicellulose and lignin components of the solution in step (i) by adjusting the pH to 9-11.5 and increasing the temperature to 65-95□C, (iii) separating the material obtained in step (ii) into a solid cellulose fiber fraction and a liquid fraction comprising solubilized hemicellulose and lignin components, (iv) suspending said cellulose fiber fraction obtained in step (iii) in an aqueous liquid, adjusting the temperature to 65-95°C and pH to 9-11.5, adding a bleaching agent, and keeping said cellulose fiber fraction in suspension for 60-180 minutes (T1), (v) subjecting the bleached material obtained in step (iv) to a wet mechanical refining treatment, (vi) obtaining a cellulose fiber product by separating the material obtained in step (v) into a bleached-refined solid cellulose fiber fraction and an aqueous bleaching liquor fraction, and (vii) optionally washing the bleached-refined cellulose fiber fraction in an aqueous liquid. wherein the length-weighted fiber length Ic(l) of the cellulose fibers is >0.6 mm, and wherein said dewaxed straw material in aqueous suspension is obtained by subjecting said cereal straw to a pretreatment comprising dry mechanical treatment to remove parts of the cuticular wax followed by enzymatic treatment in aqueous suspension to remove remaining cuticular wax from the straw material. (i) providing dewaxed straw material in aqueous suspension, (ii) solubilizing hemicellulose and lignin components of the solution in step (i) by adjusting the pH to 9-11.5 and increasing the temperature to 65-95□C, (iii) separating the material obtained in step (ii) into a solid cellulose fiber fraction and a liquid fraction comprising solubilized hemicellulose and lignin components, (iv) suspending said cellulose fiber fraction obtained in step (iii) in an aqueous liquid, adjusting the temperature to 65-95°C and pH to 9-11.5, adding a bleaching agent, and keeping said cellulose fiber fraction in suspension for 60-180 minutes (T1), (v) subjecting the bleached material obtained in step (iv) to a wet mechanical refining treatment, (vi) obtaining a cellulose fiber product by separating the material obtained in step (v) into a bleached-refined solid cellulose fiber fraction and an aqueous bleaching liquor fraction, and (vii) optionally washing the bleached-refined cellulose fiber fraction in an aqueous liquid.
A beverage maker comprising: a fermentation module comprising a fermentation tank module having an opening formed in the fermentation tank module , and a fermentation lid configured to open/close the opening ; a temperature controller configured to control a temperature inside the fermentation tank module ; a blower fan configured to dissipate heat of the temperature controller; a rear cover arranged behind the fermentation module , and having a through-hole ; and a gas discharging channel module connected to the fermentation module to discharge gas inside the fermentation module ; wherein the through-hole is formed in the rear cover configured for discharging air blown by the blower fan and the gas discharged from the gas discharging channel module through the through-hole . a fermentation module comprising a fermentation tank module having an opening formed in the fermentation tank module , and a fermentation lid configured to open/close the opening ; a temperature controller configured to control a temperature inside the fermentation tank module ; a blower fan configured to dissipate heat of the temperature controller; a rear cover arranged behind the fermentation module , and having a through-hole ; and a gas discharging channel module connected to the fermentation module to discharge gas inside the fermentation module ; wherein the through-hole is formed in the rear cover configured for discharging air blown by the blower fan and the gas discharged from the gas discharging channel module through the through-hole .