mhurhangee/patent-ind-claim-en huggingface dataset:
A holding plate for a vacuum cleaner filter bag, which is attachable to a holding device in a vacuum cleaner housing for holding the vacuum cleaner filter bag, comprising a base plate in which a through hole is formed, and a closing flap for closing the through hole , wherein the closing flap is biased into the closed position via an elastic element , and wherein the elastic element is arranged in front of the closing flap as seen in the closing direction, and wherein the elastic element is a helical spring ; characterized in that the helical spring is at least partially surrounded by a sheathing , the sheathing radially surrounding the helical spring along its entire circumference. wherein the closing flap is biased into the closed position via an elastic element , and wherein the elastic element is arranged in front of the closing flap as seen in the closing direction, and wherein the elastic element is a helical spring ; characterized in that
A method in which a router carries out steps comprising: establishing a serial-over-Transmission Control Protocol / Internet Protocol, TCP/IP, communication session between terminal units (110 and 115) using raw-TCP encapsulation; mapping serial characters to TCP out-of-band,OOB, communication fields; mapping serial flow control signals to TCP/IP receiver- window advertisements; dynamically adjusting a TCP/IP priority based on serial payload priority; and communicating data over the serial-over- TCP/IP session based on the mapped serial characters, the mapped serial flow control signals and the adjusted TCP/IP priority. mapping serial characters to TCP out-of-band,OOB, communication fields; mapping serial flow control signals to TCP/IP receiver- window advertisements; dynamically adjusting a TCP/IP priority based on serial payload priority; and communicating data over the serial-over- TCP/IP session based on the mapped serial characters, the mapped serial flow control signals and the adjusted TCP/IP priority.
Method for measuring the temperature of a preform in an installation for manufacturing containers by forming preforms made of thermoplastic material, notably PET, the installation comprising: - a device for conveying the preforms that moves the preforms continuously in a line along a production path; - a station for heating the preforms which is passed through by the production path; - a device for contactlessly measuring the temperature of a part of the preforms comprising a sensor which is capable of measuring the temperature of the preforms running continuously over a measurement section of the production path; characterized in that the measurement device is equipped with an optical device which allows an image of the sensor to be projected in a measurement direction (Y) in a zone for measuring the temperature of the preforms , the measurement zone having a section of dimensions smaller than the outer diameter of the part of the preform to be measured in order to individually measure the temperature of each preform . - a device for conveying the preforms that moves the preforms continuously in a line along a production path; - a station for heating the preforms which is passed through by the production path; - a device for contactlessly measuring the temperature of a part of the preforms comprising a sensor which is capable of measuring the temperature of the preforms running continuously over a measurement section of the production path;
A method for determining a status of a multilane data link of a data transmission system for a computer network, the method comprising: a) receiving a packet including a start of packet, an end of packet, and a check code from a multilane data link of the data transmission system ; b) assigning a lane polarity to each lane of the multilane data link; c) calculating an error code for the received packet utilizing at least one lane polarity; d) comparing the error code with the check code of the received packet ; e) if there is a difference between the check code and the error code, then incrementing a realignment parameter ; f) comparing the realignment parameter with a predetermined threshold value ; g) if the realignment parameter is greater than the predetermined threshold value then determining that the multilane data link is down ; and repeating steps a through g to determine if the multilane data link is down. a) receiving a packet including a start of packet, an end of packet, and a check code from a multilane data link of the data transmission system ; b) assigning a lane polarity to each lane of the multilane data link; c) calculating an error code for the received packet utilizing at least one lane polarity; d) comparing the error code with the check code of the received packet ; e) if there is a difference between the check code and the error code, then incrementing a realignment parameter ; f) comparing the realignment parameter with a predetermined threshold value ; g) if the realignment parameter is greater than the predetermined threshold value then determining that the multilane data link is down ; and
A coiling machine comprising: a helix forming unit , configured to form a wire into a helical shape while feeding the wire thereto; a laser heating machine configured to irradiate the wire with laser light to thereby heat a portion of the wire ; and cutting components including a mandrel configured to support thereon an inner circumferential surface of the wire formed into a helical shape, and a cutter configured to apply an impact to an outer circumferential surface of a part of the wire protruding from an end part of the mandrel to thereby cut the wire , and a control unit including a controller configured to control the helix forming unit , the laser heating machine and the cutting components ,ö wherein a clearance (G) is provided between the cutter and the end part of the mandrel in a feed direction of the wire , characterized in that the controller is configured to control the helix forming unit , the laser heating machine and the cutting components to cut said portion of the wire heated to a temperature higher than or equal to 500 °C after the irradiation of the laser light is stopped, so that when the cutter applies an impact to the wire , a center (C) of the clearance (G) and a center (O) of an irradiated area irradiated with the laser light on the wire are shifted from each other in the feed direction and so that said center (O) of the irradiated area is positioned on the cutter side of the center (C) of the clearance (G) in the feed direction. a helix forming unit , configured to form a wire into a helical shape while feeding the wire thereto; a laser heating machine configured to irradiate the wire with laser light to thereby heat a portion of the wire ; and cutting components including a mandrel configured to support thereon an inner circumferential surface of the wire formed into a helical shape, and a cutter configured to apply an impact to an outer circumferential surface of a part of the wire protruding from an end part of the mandrel to thereby cut the wire , and a control unit including a controller configured to control the helix forming unit , the laser heating machine and the cutting components ,ö wherein a clearance (G) is provided between the cutter and the end part of the mandrel in a feed direction of the wire , characterized in that the controller is configured to control the helix forming unit , the laser heating machine and the cutting components to cut said portion of the wire heated to a temperature higher than or equal to 500 °C after the irradiation of the laser light is stopped, so that when the cutter applies an impact to the wire , a center (C) of the clearance (G) and a center (O) of an irradiated area irradiated with the laser light on the wire are shifted from each other in the feed direction and so that said center (O) of the irradiated area is positioned on the cutter side of the center (C) of the clearance (G) in the feed direction.
A method for reducing afucosylated species of a monoclonal antibody recombinantly expressed in a bioreactor, comprising culturing recombinant cells that express the monoclonal antibody in a bioreactor, beginning on the first, second, third, or fourth day of the culture, and continuing every other day until the conclusion of the culture, infusing the culture with from about 0.5 g/L to about 5 g/L of fucose such that afucosylated species of the monoclonal antibody expressed by the cells are reduced.
A ceiling-embedded air conditioner comprising: a ceiling-embedded casing main body that includes inside thereof a turbo fan and a heat exchanger disposed to surround an outer periphery of the turbo fan ; a decorative panel that is mounted on a bottom surface (B) of the casing main body and has an air blowoff opening ; a drain pan that is provided on the bottom surface (B) of the casing main body ; an air blowoff path that is a through hole with rectangular cross section, the air blowoff path being provided in the drain pan and guiding conditioned air heat-exchanged by the heat exchanger to the air blowoff opening ; and a reinforcement support column that is provided between long sides (64a and 64b) of the air blowoff path and includes a portion protruding more upward than an opening surface (F) of the air blowoff path on an inflow side, wherein the reinforcement support column is formed in an arch shape and has inclined portions (65a and 65b) extending from the long sides (64a and 64b) as base end portions to the center in an obliquely upward direction and has a peak portion connecting ends of the inclined portions (65a and 65b), and the peak portion is positioned more upward than the opening surface (F) of the air blowoff path on the inflow side. a ceiling-embedded casing main body that includes inside thereof a turbo fan and a heat exchanger disposed to surround an outer periphery of the turbo fan ; a decorative panel that is mounted on a bottom surface (B) of the casing main body and has an air blowoff opening ; a drain pan that is provided on the bottom surface (B) of the casing main body ; an air blowoff path that is a through hole with rectangular cross section, the air blowoff path being provided in the drain pan and guiding conditioned air heat-exchanged by the heat exchanger to the air blowoff opening ; and a reinforcement support column that is provided between long sides (64a and 64b) of the air blowoff path and includes a portion protruding more upward than an opening surface (F) of the air blowoff path on an inflow side, wherein the reinforcement support column is formed in an arch shape and has inclined portions (65a and 65b) extending from the long sides (64a and 64b) as base end portions to the center in an obliquely upward direction and has a peak portion connecting ends of the inclined portions (65a and 65b), and the peak portion is positioned more upward than the opening surface (F) of the air blowoff path on the inflow side.
A synchronization signal block transmission method, the method performed by a terminal device and comprising: receiving a synchronization signal block, SSB, from a network device in a resource position of the SSB, wherein the resource position of the SSB is comprised in a candidate resource position set of the SSB, and the SSB comprises a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH, wherein one resource position in the candidate resource position set is mapped to one symbol in time domain, the PSS, the SSS, and the PBCH are frequency-division multiplexed in the resource position, and a subcarrier spacing corresponding to the resource position is 15 kHz, 30 kHz, or 60 kHz, characterized in that when the subcarrier spacing is 15 kHz, the candidate resource position set is a first set or a subset of the first set, and indexes of a symbol in the first set are +28×a, wherein a≥0 and a is an integer; when the subcarrier spacing is 30 kHz, the candidate resource position set is a second set or a subset of the second set, and indexes of a symbol in the second set are +28×b; or when the subcarrier spacing is 60 kHz, the candidate resource position set is a third set or a subset of the third set, and indexes of a symbol in the third set are +28×c, wherein c≥0 and c is an integer. receiving a synchronization signal block, SSB, from a network device in a resource position of the SSB, wherein the resource position of the SSB is comprised in a candidate resource position set of the SSB, and the SSB comprises a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH, wherein one resource position in the candidate resource position set is mapped to one symbol in time domain, the PSS, the SSS, and the PBCH are frequency-division multiplexed in the resource position, and a subcarrier spacing corresponding to the resource position is 15 kHz, 30 kHz, or 60 kHz, characterized in that when the subcarrier spacing is 15 kHz, the candidate resource position set is a first set or a subset of the first set, and indexes of a symbol in the first set are +28×a, wherein a≥0 and a is an integer; when the subcarrier spacing is 30 kHz, the candidate resource position set is a second set or a subset of the second set, and indexes of a symbol in the second set are +28×b; or when the subcarrier spacing is 60 kHz, the candidate resource position set is a third set or a subset of the third set, and indexes of a symbol in the third set are +28×c, wherein c≥0 and c is an integer.
An industrial truck having a communication network, comprising a first and a second network device which are connected to one another via a data line , characterized in that the first and/or the second network device is/are designed to determine a signal quality index of a data connection between the first and the second network device established via the data line , wherein a logic unit which is designed to determine a temporal progress of the signal quality index by repeatedly requesting the signal quality index at the first and/or second network device and to save said temporal progress of the signal quality index until a service event.
A screw compressor or expander comprising: a male rotor having an inlet portion , an outlet portion , a first axial length extending from the inlet portion to the outlet portion, and a set of lobes with a first helical profile extending along the first axial length; a female rotor having a second axial length and a set of grooves with a second helical profile extending along the second axial length, the set of grooves mating with the set of lobes , characterized by that the first helical profile is non-continuously variable over the entirety of the first axial length, so that the helical lead varies at different rates over the first axial length; and wherein a wrap-angle curve (C410, C510, C530) of the male rotor , being a graph of the profile rotation versus axial location of the male rotor, includes a convex portion and a concave portion. a male rotor having an inlet portion , an outlet portion , a first axial length extending from the inlet portion to the outlet portion, and a set of lobes with a first helical profile extending along the first axial length; a female rotor having a second axial length and a set of grooves with a second helical profile extending along the second axial length, the set of grooves mating with the set of lobes , characterized by that the first helical profile is non-continuously variable over the entirety of the first axial length, so that the helical lead varies at different rates over the first axial length; and wherein a wrap-angle curve (C410, C510, C530) of the male rotor , being a graph of the profile rotation versus axial location of the male rotor, includes a convex portion and a concave portion.
A method for preparing one or two nucleic acid(s) encoding the T cell receptor (TCR) alpha chain construct (TRA) and TCR beta chain construct (TRB) of a TCR construct specific for an epitope from a defined antigen presented on a human MHC, comprising (a) stimulating T cells isolated from a human donor with human professional antigen presenting cells presenting epitopes of said defined antigen, to enrich antigen-specific T cells; and (b) contacting said T cells enriched for antigen-specific T cells of step (a) with a library of cells, wherein each cell expresses a single human MHC allele, wherein the library comprises cells expressing all MHC I or MHC II alleles present in the donor, and wherein the cells of said library present epitopes of said defined antigen; and (c) selecting T cells activated by said contact; and (d) isolating the nucleic acids encoding the TCR alpha and TCR beta chains of the TCR of said T cells. (a) stimulating T cells isolated from a human donor with human professional antigen presenting cells presenting epitopes of said defined antigen, to enrich antigen-specific T cells; and (b) contacting said T cells enriched for antigen-specific T cells of step (a) with a library of cells, wherein each cell expresses a single human MHC allele, wherein the library comprises cells expressing all MHC I or MHC II alleles present in the donor, and wherein the cells of said library present epitopes of said defined antigen; and (c) selecting T cells activated by said contact; and (d) isolating the nucleic acids encoding the TCR alpha and TCR beta chains of the TCR of said T cells.
A method for producing an immobilized allulose epimerase comprising a step of bringing an enzyme solution containing allulose epimerase having a specific activity of 50 U/mg or more into contact with a styrene-based porous-type weakly basic anion exchange resin or a styrene-based gel-type weakly basic anion exchange resin such that the total loaded protein amount is 2 to 15 mg/ml-R, wherein an ion exchange group of the styrene-based porous-type weakly basic anion exchange resin or the styrene-based gel-type weakly basic anion exchange is a tertiary amine, wherein the number of allulose epimerase units of the enzyme solution to be brought into contact with the ion exchange resin is 270 U or more per 1 ml of the ion exchange resin, wherein the specific activity of the immobilized allulose epimerase is 200 to 500 U/ml-R, and wherein the specific activity of allulose epimerase is measured according to the method disclosed in the description. wherein an ion exchange group of the styrene-based porous-type weakly basic anion exchange resin or the styrene-based gel-type weakly basic anion exchange is a tertiary amine, wherein the number of allulose epimerase units of the enzyme solution to be brought into contact with the ion exchange resin is 270 U or more per 1 ml of the ion exchange resin, wherein the specific activity of the immobilized allulose epimerase is 200 to 500 U/ml-R, and wherein the specific activity of allulose epimerase is measured according to the method disclosed in the description.
A method comprising: initializing , by a wireless device, a candidate resource set for a sidelink transmission; excluding a first resource from the candidate resource set based on the first resource being offset from a second resource by one or more reservation periods; and the second resource not being monitored in a sensing window; receiving a sidelink control information, SCI, indicating a resource reservation of the excluded first resource; determining, based on the SCI, to use the excluded first resource for transmitting the sidelink transmission; and transmitting , via the excluded first resource, the sidelink transmission. initializing , by a wireless device, a candidate resource set for a sidelink transmission; excluding a first resource from the candidate resource set based on the first resource being offset from a second resource by one or more reservation periods; and the second resource not being monitored in a sensing window; receiving a sidelink control information, SCI, indicating a resource reservation of the excluded first resource; determining, based on the SCI, to use the excluded first resource for transmitting the sidelink transmission; and transmitting , via the excluded first resource, the sidelink transmission. the first resource being offset from a second resource by one or more reservation periods; and the second resource not being monitored in a sensing window; receiving a sidelink control information, SCI, indicating a resource reservation of the excluded first resource; determining, based on the SCI, to use the excluded first resource for transmitting the sidelink transmission; and transmitting , via the excluded first resource, the sidelink transmission.
A computer-implemented method of training a multilayer neural network to detect and classify different cell types in biological images, the method comprising: identifying tissue regions in a sample image of a biological specimen, wherein each identified tissue region corresponds to a different type of tissue of a plurality of types of tissue; detecting and classifying cells in the sample image to provide proposed cell classifications, where each cell classification corresponds to different type of cell of a plurality of types of cells; correcting incorrectly classified proposed cell classifications using input from a user to provide final cell classifications; assigning a label for each pixel within the sample image, the label comprising the cell type and the region type to which the pixel belongs, wherein the pixel label is assigned only for those cell and region combinations which are biologically feasible; and training the multilayer neural network using the sample image and the labels assigned to the plurality of pixels. identifying tissue regions in a sample image of a biological specimen, wherein each identified tissue region corresponds to a different type of tissue of a plurality of types of tissue; detecting and classifying cells in the sample image to provide proposed cell classifications, where each cell classification corresponds to different type of cell of a plurality of types of cells; correcting incorrectly classified proposed cell classifications using input from a user to provide final cell classifications; assigning a label for each pixel within the sample image, the label comprising the cell type and the region type to which the pixel belongs, wherein the pixel label is assigned only for those cell and region combinations which are biologically feasible; and training the multilayer neural network using the sample image and the labels assigned to the plurality of pixels.
A device comprising one or more processors configured to: receive from one or more transceivers a wireless signal that was received from two or more antennas; determine a timing of data transmissions within the wireless signal from a serving cell; determine a timing of intervals between beam selection protocol transmissions in the wireless signal, wherein each of the intervals is a measurement gap which the device expects no transmission or reception from the serving cell; determine a testing period corresponding to an overlap of one data transmission selected from the data transmissions and one interval of the intervals; and measure a signal quality of the selected data transmission during the testing period using a candidate receive-beam setting from a plurality of predefined receive-beam settings for receiving the wireless signals via the two or more antennas. receive from one or more transceivers a wireless signal that was received from two or more antennas; determine a timing of data transmissions within the wireless signal from a serving cell; determine a timing of intervals between beam selection protocol transmissions in the wireless signal, wherein each of the intervals is a measurement gap which the device expects no transmission or reception from the serving cell; determine a testing period corresponding to an overlap of one data transmission selected from the data transmissions and one interval of the intervals; and measure a signal quality of the selected data transmission during the testing period using a candidate receive-beam setting from a plurality of predefined receive-beam settings for receiving the wireless signals via the two or more antennas.