mhurhangee/patent-ind-claim-en huggingface dataset:
A substrate support on which a substrate is placed, the substrate support comprising: a top plate portion having a surface on which a substrate is placed; a light irradiation mechanism that includes a plurality of light-emitting elements , is disposed to face the substrate placed on the top plate portion, and heats the substrate using light emitted from the light-emitting elements ; and a channel-forming member that transmits the light emitted from the light-emitting elements and is bonded to a rear surface of the top plate portion so as to be interposed between the top plate portion and the light irradiation mechanism , wherein refrigerant channels (R) are formed between the channel-forming member and the top plate portion, a refrigerant, which transmits the light emitted from the light-emitting elements , flows through the refrigerant channels (R), and the top plate portion and the channel-forming member are made of materials having different thermal expansion coefficients, characterized in that the substrate support further includes a temperature adjustment part configured to adjust a temperature of the channel-forming member , wherein the temperature adjustment part is a resistance heating heater made of a light-transmitting material and is provided on a surface of the channel-forming member opposite to the top plate portion or inside the channel-forming member . a top plate portion having a surface on which a substrate is placed; a light irradiation mechanism that includes a plurality of light-emitting elements , is disposed to face the substrate placed on the top plate portion, and heats the substrate using light emitted from the light-emitting elements ; and a channel-forming member that transmits the light emitted from the light-emitting elements and is bonded to a rear surface of the top plate portion so as to be interposed between the top plate portion and the light irradiation mechanism , wherein refrigerant channels (R) are formed between the channel-forming member and the top plate portion, a refrigerant, which transmits the light emitted from the light-emitting elements , flows through the refrigerant channels (R), and the top plate portion and the channel-forming member are made of materials having different thermal expansion coefficients, characterized in that the substrate support further includes a temperature adjustment part configured to adjust a temperature of the channel-forming member , wherein the temperature adjustment part is a resistance heating heater made of a light-transmitting material and is provided on a surface of the channel-forming member opposite to the top plate portion or inside the channel-forming member .
A combined electrospinning and microextrusion apparatus, comprising a robotic manipulator provided with a plurality of degrees of freedom, an end effector supported and movable by the robotic manipulator , a plurality of extruders housed on the end effector , each of said extruders being provided with an interchangeable nozzle for the extrusion of at least one material, a working plane configured for the deposition of the extruded material, a pneumatic circuit configured to supply a fluid flow to the extruders for controlling the extrusion of the material, and an electric generator selectively activatable to apply a potential difference between the nozzles of the extruders and the working plane , whereby the extruders are capable of operating selectively in microextrusion mode with inactive electric generator or in electrospinning mode with active electric generator, in an independent manner from each other. a robotic manipulator provided with a plurality of degrees of freedom, an end effector supported and movable by the robotic manipulator , a plurality of extruders housed on the end effector , each of said extruders being provided with an interchangeable nozzle for the extrusion of at least one material, a working plane configured for the deposition of the extruded material, a pneumatic circuit configured to supply a fluid flow to the extruders for controlling the extrusion of the material, and an electric generator selectively activatable to apply a potential difference between the nozzles of the extruders and the working plane , whereby the extruders are capable of operating selectively in microextrusion mode with inactive electric generator or in electrospinning mode with active electric generator, in an independent manner from each other.
A hemostatic composition comprising: cellulose-based fibers having a size distribution of D90 of less than 350μm, and D50 of less than 167μm, the fibers are at a concentration range of 83.5%-90.0% w/w of the entire composition; an omega amino carboxylic acid at a concentration range of 2.5%-5.0% w/w of the entire composition; protamine salt at a concentration range of 2.5%-5.0% w/w of the entire composition; a divalent cation, the cation concentration being 1.3%-1.8% w/w of the entire composition, wherein the composition is in the form of a powder and/or aggregates.
A cleaning device, comprising: a holding portion configured to hold an imaging element; a light-transmissive body configured to be disposed in a field of view of the imaging element; a vibrator configured to vibrate the light-transmissive body; a drive unit configured to drive the vibrator ; a control unit configured to control the drive unit; and a detection unit configured to detect a value relating to an impedance of the vibrator driven by the drive unit, wherein the control unit determines that a foreign substance has adhered to a surface of the light-transmissive body based on at least two pieces of information among a temporal change in a resonant frequency when the vibrator is driven at a first voltage, a temporal change in the value relating to the impedance detected by the detection unit, and a temporal change in an image captured by the imaging element and cleans the surface of the light-transmissive body by controlling the vibrator in accordance with the determination, characterized in that the control unit is configured to identify a type of the foreign substance adhering to the surface of the light-transmissive body based on a gradient of a temporal change in the impedance detected by the detection unit with respect to a temporal change in a resonant frequency. a holding portion configured to hold an imaging element; a light-transmissive body configured to be disposed in a field of view of the imaging element; a vibrator configured to vibrate the light-transmissive body; a drive unit configured to drive the vibrator ; a control unit configured to control the drive unit; and a detection unit configured to detect a value relating to an impedance of the vibrator driven by the drive unit, wherein the control unit determines that a foreign substance has adhered to a surface of the light-transmissive body based on at least two pieces of information among a temporal change in a resonant frequency when the vibrator is driven at a first voltage, a temporal change in the value relating to the impedance detected by the detection unit, and a temporal change in an image captured by the imaging element and cleans the surface of the light-transmissive body by controlling the vibrator in accordance with the determination, characterized in that the control unit is configured to identify a type of the foreign substance adhering to the surface of the light-transmissive body based on a gradient of a temporal change in the impedance detected by the detection unit with respect to a temporal change in a resonant frequency.
A method for the production of derivatives of 4-hydroxy-2-ketobutyrate chosen among 1,3-propanediol and 2,4-dihydroxybutyrate by culturing a genetically modified microorganism for the production of the desired derivative of 4-hydroxy-2-ketobutyrate, wherein the genetically modified microorganism is able to produce 1,3 propanediol from 4-hydroxy-2-ketobutyrate and/or to produce 2,4-dihydroxybutyrate from 4-hydroxy-2-ketobutyrate by further comprising a gene coding for a mutant glutamate dehydrogenase converting by deamination L-homoserine into 4-hydroxy-2-ketobutyrate and wherein said mutant glutamate dehydrogenase comprises at least one mutation where amino acid K (Lys) at position 92, by reference to E. coli glutamate dehydrogenase of SEQ ID NO: 1, is replaced by amino acid V (Val).
A computing system , comprising: a computer readable storage medium with computer executable instructions , including: a segmentation standardizer configured to determine a standardized vascular tree, with vessel segments that have predetermined lengths after the last branching location, from a segmented vascular tree segmented of volumetric image data and a predetermined set of pruning rules , and a biophysical simulator configured to perform a biophysical simulation based on the standardized vascular tree; a processor configured to execute the segmentation standardizer to determine the standardized vascular tree from the segmented vascular tree segmented of volumetric image data and the predetermined set of pruning rules, and configured to execute the biophysical simulator to perform a biophysical simulation based on the standardized vascular tree; and a display configured to display at least one of the standardized vascular tree and a result of the biophysical simulation. a computer readable storage medium with computer executable instructions , including: a segmentation standardizer configured to determine a standardized vascular tree, with vessel segments that have predetermined lengths after the last branching location, from a segmented vascular tree segmented of volumetric image data and a predetermined set of pruning rules , and a biophysical simulator configured to perform a biophysical simulation based on the standardized vascular tree; a processor configured to execute the segmentation standardizer to determine the standardized vascular tree from the segmented vascular tree segmented of volumetric image data and the predetermined set of pruning rules, and configured to execute the biophysical simulator to perform a biophysical simulation based on the standardized vascular tree; and a display configured to display at least one of the standardized vascular tree and a result of the biophysical simulation.
A semi-product made of a prepreg, including at least a first prepreg layer and a second prepreg layer, wherein a magnetic material layer is laid between the first prepreg layer and the second prepreg layer, and wherein when thermoplastic resin contained in the first prepreg layer and the second prepreg layer is softened, the magnetic material layer still exhibits magnetic properties and can be attracted by a magnet, characterized in that at least one of the first prepreg layer and the second prepreg layer has a cut-out portion, and the magnetic material layer is at least laid in at least one of the cut-out portions.
A wireless transmit/receive unit, WTRU, comprising: a memory ; a processor , the processor configured to: detect, by the WTRU, one or more transmission points within a communication range of the WTRU; determine, by the WTRU, at least one WTRU-specific cell identifier, WCID, based on a detection by the WTRU of the one or more transmission points; determine one or more resources via which to indicate the at least one WCID; determine an occurrence of at least one condition relating to transmission to or from the WTRU or relating to operation of the WTRU; and initiate a transmission upon the occurrence of the at least one condition, the transmission indicating the at least one WCID; and a transceiver , the transceiver configured to: send the transmission using the one or more resources. a memory ; a processor , the processor configured to: detect, by the WTRU, one or more transmission points within a communication range of the WTRU; determine, by the WTRU, at least one WTRU-specific cell identifier, WCID, based on a detection by the WTRU of the one or more transmission points; determine one or more resources via which to indicate the at least one WCID; determine an occurrence of at least one condition relating to transmission to or from the WTRU or relating to operation of the WTRU; and initiate a transmission upon the occurrence of the at least one condition, the transmission indicating the at least one WCID; and detect, by the WTRU, one or more transmission points within a communication range of the WTRU; determine, by the WTRU, at least one WTRU-specific cell identifier, WCID, based on a detection by the WTRU of the one or more transmission points; determine one or more resources via which to indicate the at least one WCID; determine an occurrence of at least one condition relating to transmission to or from the WTRU or relating to operation of the WTRU; and initiate a transmission upon the occurrence of the at least one condition, the transmission indicating the at least one WCID; and a transceiver , the transceiver configured to: send the transmission using the one or more resources.
Method for preservation of food products in a container with a vent hole in which the food product is packed and sold, comprising the following method steps: - filling of wet food products that can be precooked or crude, - steam cooking and pasteurization of the food products with microwave, wherein the water steam produced escapes through the vent hole, further characterized by - application of a vacuum to the container in a vacuum chamber for at least partially removing the steam and - release of the vacuum, an inert gas being sucked off out of a storage container into the vacuum chamber and into the container through the vent hole . - filling of wet food products that can be precooked or crude, - steam cooking and pasteurization of the food products with microwave, wherein the water steam produced escapes through the vent hole, further characterized by - application of a vacuum to the container in a vacuum chamber for at least partially removing the steam and - release of the vacuum, an inert gas being sucked off out of a storage container into the vacuum chamber and into the container through the vent hole .
A method, comprising: - a node of a cellular network selecting a first modulation scheme setting for a first radio link to a first device being a normal user equipment, the first modulation scheme setting being selected from a set of modulation scheme settings, each identified by at least one corresponding index; - on the basis of a mapping of each of the indices to a corresponding set of transmission parameters, the node identifying a first set of link parameters mapped to the index corresponding to the selected first modulation scheme setting; - the node configuring the first radio link according to the identified first set of link parameters; - the node selecting a second modulation scheme setting for a second radio link to a second device at establishment of the second radio link the second device being a Machine Type Communication user equipment, the second modulation scheme setting being based on a modulation scheme of lower complexity than the set of modulation scheme settings; - the node indicating that an adapted mapping is to be applied on the second radio link to the second device; - the node re-assigning one of the indices to the selected second modulation scheme setting and adapting the mapping with respect to the set of link parameters mapped to re-assigned index; - on the basis of the adapted mapping, the node identifying a second set of link parameters mapped to the re-assigned index; and - the node configuring the second radio link according to the identified second set of link parameters. - a node of a cellular network selecting a first modulation scheme setting for a first radio link to a first device being a normal user equipment, the first modulation scheme setting being selected from a set of modulation scheme settings, each identified by at least one corresponding index; - on the basis of a mapping of each of the indices to a corresponding set of transmission parameters, the node identifying a first set of link parameters mapped to the index corresponding to the selected first modulation scheme setting; - the node configuring the first radio link according to the identified first set of link parameters; - the node selecting a second modulation scheme setting for a second radio link to a second device at establishment of the second radio link the second device being a Machine Type Communication user equipment, the second modulation scheme setting being based on a modulation scheme of lower complexity than the set of modulation scheme settings; - the node indicating that an adapted mapping is to be applied on the second radio link to the second device; - the node re-assigning one of the indices to the selected second modulation scheme setting and adapting the mapping with respect to the set of link parameters mapped to re-assigned index; - on the basis of the adapted mapping, the node identifying a second set of link parameters mapped to the re-assigned index; and - the node configuring the second radio link according to the identified second set of link parameters.
An aerosol generating device , comprising: a device body ; a heating assembly , detachably connected to the device body ; a storage assembly , detachably connected to the device body ; wherein, the storage assembly is configured to store a feature parameter, the feature parameter corresponds to one model of the heating assembly , the device body is configured to obtain the feature parameter from the storage assembly and to heat the heating assembly based on the feature parameter, allowing the heating assembly to heat an aerosol generating substrate to generate an aerosol; and the aerosol generating device is characterized in that , the feature parameter comprises a parameter of a heating body of the heating assembly and a heating parameter of the heating assembly , the parameter of the heating body indicates correspondence between a resistance value of the heating body and a temperature of the heating body ; and the device body is further configured to: detect the resistance value of the heating body , determine the temperature of the heating body based on the parameter of the heating body , and heat the heating assembly based on the temperature of the heating body and the heating parameter a device body ; a heating assembly , detachably connected to the device body ; a storage assembly , detachably connected to the device body ; wherein, the storage assembly is configured to store a feature parameter, the feature parameter corresponds to one model of the heating assembly , the device body is configured to obtain the feature parameter from the storage assembly and to heat the heating assembly based on the feature parameter, allowing the heating assembly to heat an aerosol generating substrate to generate an aerosol; and the aerosol generating device is characterized in that , the feature parameter comprises a parameter of a heating body of the heating assembly and a heating parameter of the heating assembly , the parameter of the heating body indicates correspondence between a resistance value of the heating body and a temperature of the heating body ; and the device body is further configured to: detect the resistance value of the heating body , determine the temperature of the heating body based on the parameter of the heating body , and heat the heating assembly based on the temperature of the heating body and the heating parameter
A post-tensioning tendon comprising: a tension member including a strand and a sheath , the sheath having an outer surface ; an anchor coupled to an end of the tension member , the anchor including a tubular extension through which the tension member is passed; and a sheathing retention assembly including: an outer cap , the outer cap having a tapered forcing surface , the outer cap coupled to the tubular extension ; and one or more holding elements positioned at least partially within the outer cap , the one or more holding elements each having a tapered outer surface , abutting the tapered forcing surface , the one or more holding elements each including an inner surface , that engages the outer surface of the sheath , the post tensioning tendon being characterized in that , as the outer cap is installed in the actuated position onto the tubular extension , the taper of the forcing surface and the taper of the outer surface of the holding elements serves to push or bias the holding elements inward into contact with the sheath . a tension member including a strand and a sheath , the sheath having an outer surface ; an anchor coupled to an end of the tension member , the anchor including a tubular extension through which the tension member is passed; and a sheathing retention assembly including: an outer cap , the outer cap having a tapered forcing surface , the outer cap coupled to the tubular extension ; and one or more holding elements positioned at least partially within the outer cap , the one or more holding elements each having a tapered outer surface , abutting the tapered forcing surface , the one or more holding elements each including an inner surface , that engages the outer surface of the sheath , the post tensioning tendon being characterized in that , as the outer cap is installed in the actuated position onto the tubular extension , the taper of the forcing surface and the taper of the outer surface of the holding elements serves to push or bias the holding elements inward into contact with the sheath . an outer cap , the outer cap having a tapered forcing surface , the outer cap coupled to the tubular extension ; and one or more holding elements positioned at least partially within the outer cap , the one or more holding elements each having a tapered outer surface , abutting the tapered forcing surface , the one or more holding elements each including an inner surface , that engages the outer surface of the sheath , the post tensioning tendon being characterized in that , as the outer cap is installed in the actuated position onto the tubular extension , the taper of the forcing surface and the taper of the outer surface of the holding elements serves to push or bias the holding elements inward into contact with the sheath .
A session management function, SMF, node, comprising: processing circuitry characterized in being configured to: receive, from an access and mobility management function, AMF, a message including a second indication indicating that the message was received with a first indication indicating that the message is exempt from congestion control, wherein the first indication is provided by a predefined request type included in the message and the second indication further indicates that congestion control at the AMF is active; determine whether the message is exempt from congestion control by validating that the request type is for reporting Data Off status change; and notify the AMF of the determination, wherein the message is accepted if the request type is for reporting Data Off status change and rejected if the request type is not for reporting Data Off status change. receive, from an access and mobility management function, AMF, a message including a second indication indicating that the message was received with a first indication indicating that the message is exempt from congestion control, wherein the first indication is provided by a predefined request type included in the message and the second indication further indicates that congestion control at the AMF is active; determine whether the message is exempt from congestion control by validating that the request type is for reporting Data Off status change; and notify the AMF of the determination, wherein the message is accepted if the request type is for reporting Data Off status change and rejected if the request type is not for reporting Data Off status change.