mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-purpose baby blanket having a first side and a second side , said blanket comprising multiple sets of mutually corresponding fastening means, each set comprising a first fastening member and a second fastening member arranged on a line which is substantially perpendicular with a center axis of the blanket, the center axis running from a point on the edge of the blanket to another point on the opposite edge of the blanket through the center point of the blanket, the center axis dividing the blanket into two halves, and the first and second fas-tening member of each set of mutually corresponding fastening means being located on the same blanket half, characterized in that the multi-purpose baby blanket has a baby nest configuration comprising a circumferential wall configured to limit the movement of a baby and wherein the first side of the blanket abuts the second side of the blanket to provide a rolled portion , and wherein each set of mutually corresponding fastening means are engageable by rolling the blanket from a point on the edge of the blanket, which is on the line of that set of mutually corresponding fastening means, along said line of that set of mutually corresponding fastening means to provide the rolled portion, wherein when all sets of mutually corresponding fastening means are engaged, the rolled portion of the blanket will form the circumferential wall thereby defining a baby nest . multiple sets of mutually corresponding fastening means, each set comprising a first fastening member and a second fastening member arranged on a line which is substantially perpendicular with a center axis of the blanket, the center axis running from a point on the edge of the blanket to another point on the opposite edge of the blanket through the center point of the blanket, the center axis dividing the blanket into two halves, and the first and second fas-tening member of each set of mutually corresponding fastening means being located on the same blanket half, characterized in that the multi-purpose baby blanket has a baby nest configuration comprising a circumferential wall configured to limit the movement of a baby and wherein the first side of the blanket abuts the second side of the blanket to provide a rolled portion , and wherein each set of mutually corresponding fastening means are engageable by rolling the blanket from a point on the edge of the blanket, which is on the line of that set of mutually corresponding fastening means, along said line of that set of mutually corresponding fastening means to provide the rolled portion, wherein when all sets of mutually corresponding fastening means are engaged, the rolled portion of the blanket will form the circumferential wall thereby defining a baby nest .
Non-therapeutic use of a Lythrum salicaria extract for maintaining and/or increasing the firmness of the skin and/or of the mucous membranes, the Lythrum salicaria extract being applied topically to a healthy area of skin and/or of mucous membrane.
A communication method, comprising: determining, by a second device, sidelink control information, wherein the sidelink control information comprises indication information of a second resource set, and the second resource set is for sending data; sending (S210), by the second device, the sidelink control information and the data to one or more devices, wherein the second device and the one or more devices belong to a first communication group; and receiving, by the second device, feedback information for the data from the one or more devices on one or more frequency domain resources, wherein each identifier of the one or more devices in the first communication group corresponds to one of the one or more frequency domain resources ; characterized in that the sidelink control information further comprises trigger information, and the trigger information is used to indicate whether the one or more devices need to send the feedback information. determining, by a second device, sidelink control information, wherein the sidelink control information comprises indication information of a second resource set, and the second resource set is for sending data; sending (S210), by the second device, the sidelink control information and the data to one or more devices, wherein the second device and the one or more devices belong to a first communication group; and receiving, by the second device, feedback information for the data from the one or more devices on one or more frequency domain resources, wherein each identifier of the one or more devices in the first communication group corresponds to one of the one or more frequency domain resources ; characterized in that the sidelink control information further comprises trigger information, and the trigger information is used to indicate whether the one or more devices need to send the feedback information.
A method for designing an orthodontic appliance for repositioning a tooth of a patient, the method comprising: obtaining an appliance digital model characterizing the orthodontic appliance in an initial configuration, wherein the appliance is substantially planar in the initial configuration; obtaining a fixture digital model characterizing a fixture for setting a shape of the appliance ; and performing a finite element analysis (FEA) to virtually deform the appliance digital model based on the fixture digital model . obtaining an appliance digital model characterizing the orthodontic appliance in an initial configuration, wherein the appliance is substantially planar in the initial configuration; obtaining a fixture digital model characterizing a fixture for setting a shape of the appliance ; and performing a finite element analysis (FEA) to virtually deform the appliance digital model based on the fixture digital model .
Process for producing a thermoplastic molding material containing A) at least one aromatic polycarbonate and B) a further polymer which is chemically distinct from polymer A and which contains at least one type of functional group selected from ester, epoxy, hydroxyl, carboxyl and carboxylic anhydride groups, comprising the steps of a) melting and commixing the components A and B in the presence of a catalyst of component C at a temperature in the range from 200°C to 350°C and b) solidifying the composition by cooling the composition, wherein the component A has an average molecular weight M w measured by gel permeation chromatography at room temperature in methylene chloride with a bisphenol Abased polycarbonate standard of at least 3000 g/mol, characterized in that in process step a) at least a portion of the component A is reacted with the component B to afford a copolymer and wherein the catalyst C is a phosphonium salt according to formula wherein R 1 and R 2 each independently of one another represent C 1 -C 10 alkyl, R 3 and R 4 each independently of one another represent C 1 -C 10 -alkyl or C 6 -C 12 -aryl, A n- represents the anion of a carboxylic acid and n represents 1, 2 or 3. A) at least one aromatic polycarbonate and B) a further polymer which is chemically distinct from polymer A and which contains at least one type of functional group selected from ester, epoxy, hydroxyl, carboxyl and carboxylic anhydride groups, comprising the steps of a) melting and commixing the components A and B in the presence of a catalyst of component C at a temperature in the range from 200°C to 350°C and b) solidifying the composition by cooling the composition, a) melting and commixing the components A and B in the presence of a catalyst of component C at a temperature in the range from 200°C to 350°C and b) solidifying the composition by cooling the composition, wherein the component A has an average molecular weight M w measured by gel permeation chromatography at room temperature in methylene chloride with a bisphenol Abased polycarbonate standard of at least 3000 g/mol, characterized in that in process step a) at least a portion of the component A is reacted with the component B to afford a copolymer and wherein the catalyst C is a phosphonium salt according to formula wherein R 1 and R 2 each independently of one another represent C 1 -C 10 alkyl, R 3 and R 4 each independently of one another represent C 1 -C 10 -alkyl or C 6 -C 12 -aryl, A n- represents the anion of a carboxylic acid and n represents 1, 2 or 3. R 1 and R 2 each independently of one another represent C 1 -C 10 alkyl, R 3 and R 4 each independently of one another represent C 1 -C 10 -alkyl or C 6 -C 12 -aryl, A n- represents the anion of a carboxylic acid and n represents 1, 2 or 3.
A method for endoscopic imaging with an endoscopic imaging system which comprises a video endoscope having at least one CMOS image sensor , a light source unit designed to generate white light and at least one special light, an image evaluation unit , a control unit and a display device , characterized in that white light images are captured by means of the video endoscope under white light illumination and evaluated by the image evaluation unit in real time to check for the presence of at least one structure having at least one predefined characteristic, wherein, when the image evaluation unit detects the presence of at least one structure having at least one predefined characteristic in at least one white light image , a special light imaging mode is set in which the light source unit generates special light illumination using the at least one special light and one or more images of a video stream is or are captured under the special light illumination and is or are subjected to image processing in a special light processing mode that comprises identifying a subregion of the white light image that contains the structure with the predefined characteristic detected in the white light image and reading out only this subregion of the image sensor , wherein the image data read out from the subregion are further processed as a special light image or special light images . white light images are captured by means of the video endoscope under white light illumination and evaluated by the image evaluation unit in real time to check for the presence of at least one structure having at least one predefined characteristic, wherein, when the image evaluation unit detects the presence of at least one structure having at least one predefined characteristic in at least one white light image , a special light imaging mode is set in which the light source unit generates special light illumination using the at least one special light and one or more images of a video stream is or are captured under the special light illumination and is or are subjected to image processing in a special light processing mode that comprises identifying a subregion of the white light image that contains the structure with the predefined characteristic detected in the white light image and reading out only this subregion of the image sensor , wherein the image data read out from the subregion are further processed as a special light image or special light images .
A method performed by a wireless device for recommending a data rate on an uplink communication channel between the wireless device and a network node in a wireless communications system , comprising: determining to request that the network node recommend a data rate on the uplink communication channel for the wireless device; generating a first information element that indicates the request, wherein the first information element includes a first index that indicates a desired data rate, wherein the first index is an index to a table of data rates on the uplink communication channel; transmitting , to the network node, the first information element that indicates the request via a protocol layer on the uplink communication channel; in response to said transmitting the first information element that indicates the request, receiving , from the network node, a second information element that indicates the recommended data rate for the wireless device on the uplink communication channel, the second information element being received via the protocol layer on a downlink communication channel; extracting a second index that indicates the recommended data rate from the second information element, wherein the second index is an index to the table of data rates on the uplink communication channel; and determining the recommended data rate based on the second index. determining to request that the network node recommend a data rate on the uplink communication channel for the wireless device; generating a first information element that indicates the request, wherein the first information element includes a first index that indicates a desired data rate, wherein the first index is an index to a table of data rates on the uplink communication channel; transmitting , to the network node, the first information element that indicates the request via a protocol layer on the uplink communication channel; in response to said transmitting the first information element that indicates the request, receiving , from the network node, a second information element that indicates the recommended data rate for the wireless device on the uplink communication channel, the second information element being received via the protocol layer on a downlink communication channel; extracting a second index that indicates the recommended data rate from the second information element, wherein the second index is an index to the table of data rates on the uplink communication channel; and determining the recommended data rate based on the second index.
An agent for use in a method of treating cancer in a subject wherein the method comprises decreasing, reducing, inhibiting, suppressing or limiting the direct physical interaction between Protein kinase C eta type (PKCη) and Cytotoxic T-lymphocyte protein 4 (CTLA-4) to decrease, reduce, inhibit, suppress or limit regulatory T cell function; wherein the agent inhibits the direct physical interaction of PKCη with CTLA-4, further wherein the agent is a protein or peptide comprising or consisting of the PKCη amino acid sequence: MSSGTMKFNGYLRVRIGEAVGLQPTRWSLRHSLFKKGHQLLDPYLTVSVDQVRVGQTSTKQKTNKPTYNEEFCANVTDGGHLELAVFHETPLGYDHFVANCTLQFQELLRTTGASDTFEGWVDLEPEGKVFVVITLTGSFTEATLQRDRIFKHFTRKRQRAMRRRVHQINGHKFMATYLRQPTYCSHCREFIWGVFGKQGYQCQVCTCVVHKRCHHLIVTACTCQNNINKVDSKIAEQRFGINIPHKFSIHNYKVPTFCDHCGSLLWGIMRQGLQCKICKMNVHIRCQANVAPNCGVNAVELAKTLAGMGLQPGNISPTSKLVSRSTLRRQGKESSKEGNGIGVNSSNRLGIDNFEFIRVLGKGSFGKVMLARVKETGDLYAVKVLKKDVILQDDDVECTMTEKRILSLARNHPFLTQLFCCFQTPDRLFFVMEFVNGGDLMFHIQKSRRFDEARARFYAAEIISALMFLHDKGIIYRDLKLDNVLLDHEGHCKLADFGMCKEGICNGVTTATFCGTPDYIAPEILQEMLYGPAVDWWAMGVLLYEMLCGHAPFEAENEDDLFEAILNDEVVYPTWLHEDATGILKSFMTKNPTMRLGSLTQGGEHAILRHPFFKEIDWAQLNHRQIEPPFRPRIKSREDVSNFDPDFIKEEPVLTPIDEGHLPMINQDEFRNFSYVSPELQP (SEQ ID NO: 1), or subsequence thereof, that binds directly to CTLA-4, and the method comprises contacting CTLA-4 with the agent.
A lock to be applied to a wall of a door leaf, comprising a box-like body having a rear wall applicable to said wall of said door leaf, a latch and/or a bolt positioned in the box-like body and extractable from a lateral wall of the box-like body , a means for actuating said latch and/or bolt positioned in said box-like body , a cylinder having a cam for commanding said actuating means , and a plate for fixing the cylinder engaged on the outer side of said rear wall of the box-like body and supporting the cylinder outside said box-like body , said cylinder being offset by a first primary midplane of the fixing plate in turn coinciding with a second primary midplane of the box-like body perpendicular to said lateral wall , said fixing plate and said rear wall of the box-like body having a means for adjusting the position of reciprocal engagement cooperating for the adjustment of the entry of the lock and handing of the lock .
A control system for a wind turbine comprising at least one blade , the control system comprising; a detecting system configured to determine at least one of a rotor load, a wind shear, a wind speed, and a load imbalance due to wind shear; a plurality of proximity sensors (304-310) configured for measuring a displacement of a main shaft flange ; and being characterized by a plurality of blade sensors configured for measuring a displacement of the at least one blade ; wherein the displacement of the main shaft flange and the at least one blade are translated into an indication of at least one of the rotor load, the wind shear, or the load imbalance; an adjusting system configured to adjust a shaft moment set point correction value based on the indication of the rotor load, the wind shear, the wind speed, or the load imbalance; a compensating system configured to compute a shaft moment correction command based on the shaft moment set point correction value output from the adjusting system; and a pitch system configured to adjust a pitch of said at least one blade of the wind turbine based on the shaft moment set point correction command or a yaw system configured to adjust the yaw position of a rotor based on the shaft moment set point correction command.
A screen wakeup method , comprising: obtaining M image frames, wherein each image frame comprises a first face image, and M is an integer greater than or equal to 1; determining , based on a preconfigured neural network, whether a user corresponding to each first face image is gazing at a screen of a device, and whether each first face image matches a preset face image; and when each first face image matches the preset face image and corresponds to the user, switching the screen from a screen-off state to a screen-on state; wherein the determining , based on a preconfigured neural network, whether a user corresponding to each first face image is gazing at a screen of a device, and whether each first face image matches a preset face image comprises: determining, by using the preconfigured neural network, whether each first face image corresponds to the user gazing at the screen of the device; and when each first face image corresponds to the user gazing at the screen of the device, determining, by using the preconfigured neural network, whether each first face image matches the preset face image. obtaining M image frames, wherein each image frame comprises a first face image, and M is an integer greater than or equal to 1; determining , based on a preconfigured neural network, whether a user corresponding to each first face image is gazing at a screen of a device, and whether each first face image matches a preset face image; and when each first face image matches the preset face image and corresponds to the user, switching the screen from a screen-off state to a screen-on state; wherein the determining , based on a preconfigured neural network, whether a user corresponding to each first face image is gazing at a screen of a device, and whether each first face image matches a preset face image comprises: determining, by using the preconfigured neural network, whether each first face image corresponds to the user gazing at the screen of the device; and when each first face image corresponds to the user gazing at the screen of the device, determining, by using the preconfigured neural network, whether each first face image matches the preset face image. determining, by using the preconfigured neural network, whether each first face image corresponds to the user gazing at the screen of the device; and when each first face image corresponds to the user gazing at the screen of the device, determining, by using the preconfigured neural network, whether each first face image matches the preset face image.
A method of estimating the mass of material in a stockpile, the method including: obtaining an upper surface profile of said stockpile; the method being characterised by : defining a plurality of layers in the stockpile based on the upper surface profile, wherein each layer is defined to extend parallel to the upper surface profile, and estimating the volume of each defined layer; obtaining density characteristics of the stockpile material; estimating the density of each defined layer according to the density characteristics of the stockpile material; and calculating, using the estimated volume and estimated density of each defined layer, the mass of the stockpile. obtaining an upper surface profile of said stockpile; the method being characterised by : defining a plurality of layers in the stockpile based on the upper surface profile, wherein each layer is defined to extend parallel to the upper surface profile, and estimating the volume of each defined layer; obtaining density characteristics of the stockpile material; estimating the density of each defined layer according to the density characteristics of the stockpile material; and calculating, using the estimated volume and estimated density of each defined layer, the mass of the stockpile. defining a plurality of layers in the stockpile based on the upper surface profile, wherein each layer is defined to extend parallel to the upper surface profile, and estimating the volume of each defined layer; obtaining density characteristics of the stockpile material; estimating the density of each defined layer according to the density characteristics of the stockpile material; and calculating, using the estimated volume and estimated density of each defined layer, the mass of the stockpile.
A process for producing green coke from residual oil comprising: introducing residual oil and a solvent mixture into a mixing vessel to produce a feed mixture, the solvent mixture comprising at least one paraffinic solvent with a carbon number from 3 to 8 and at least one aromatic solvent, where the solvent mixture comprises from 3 to 5 % by volume of aromatic solvent and 95 to 97 % by volume of paraffinic solvent; passing the feed mixture to a solvent deasphalting unit to produce a deasphalted oil (DAO) fraction and an asphalt fraction; and passing the DAO fraction to a delayed coker to produce the green coke and a delayed coker effluent, preferably wherein the delayed coker operates at a temperature from 440 °C to 530 °C and a pressure from 1 to 5 Bars. introducing residual oil and a solvent mixture into a mixing vessel to produce a feed mixture, the solvent mixture comprising at least one paraffinic solvent with a carbon number from 3 to 8 and at least one aromatic solvent, where the solvent mixture comprises from 3 to 5 % by volume of aromatic solvent and 95 to 97 % by volume of paraffinic solvent; passing the feed mixture to a solvent deasphalting unit to produce a deasphalted oil (DAO) fraction and an asphalt fraction; and passing the DAO fraction to a delayed coker to produce the green coke and a delayed coker effluent, preferably wherein the delayed coker operates at a temperature from 440 °C to 530 °C and a pressure from 1 to 5 Bars.
A surface for culturing cells comprising: a substrate comprising a substantially planar top surface, wherein the surface comprises a plurality of divots; wherein each divot comprises an interior bottom surface and an interior sidewall surface, wherein the bottom surface is rounded and wherein each divot is between 100-200 μm in diameter (± 20%) and 50-150 μm in depth (± 20%); wherein cells are distributed into individual divots, and wherein the substrate surface is a non-adherent surface. a substrate comprising a substantially planar top surface, wherein the surface comprises a plurality of divots; wherein each divot comprises an interior bottom surface and an interior sidewall surface, wherein the bottom surface is rounded and wherein each divot is between 100-200 μm in diameter (± 20%) and 50-150 μm in depth (± 20%); wherein cells are distributed into individual divots, and wherein the substrate surface is a non-adherent surface.