mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission device comprising: a transmission unit that includes an antenna coil and performs communication with an external device by electromagnetic coupling; a signal output unit that generates a signal of a predetermined frequency and outputs the generated signal to the transmission unit ; a communication monitor unit that monitors information about a current flowing through the antenna coil and determines a communication state based on the monitored information; and a communication correction unit that corrects a communication characteristic based on a determination result of the communication state in the communication monitor unit , characterized in that the communication correction unit corrects the communication characteristic by changing a Q factor of the transmission unit , based on the determination result of the communication state in the communication monitor unit , from a first Q factor to a second Q factor greater than the first Q factor, and wherein the communication monitor unit has a first determination threshold value of the communication state, which is used when the Q factor of the transmission unit is the first Q factor, and a second determination threshold value of the communication state, which is used when the Q factor of the communication unit is the second value. a transmission unit that includes an antenna coil and performs communication with an external device by electromagnetic coupling; a signal output unit that generates a signal of a predetermined frequency and outputs the generated signal to the transmission unit ; a communication monitor unit that monitors information about a current flowing through the antenna coil and determines a communication state based on the monitored information; and a communication correction unit that corrects a communication characteristic based on a determination result of the communication state in the communication monitor unit , characterized in that the communication correction unit corrects the communication characteristic by changing a Q factor of the transmission unit , based on the determination result of the communication state in the communication monitor unit , from a first Q factor to a second Q factor greater than the first Q factor, and wherein the communication monitor unit has a first determination threshold value of the communication state, which is used when the Q factor of the transmission unit is the first Q factor, and a second determination threshold value of the communication state, which is used when the Q factor of the communication unit is the second value.
A combination of a soldering iron , a soldering iron control device that allows electrical connection to the soldering iron and controls a temperature of a tip of the soldering iron , and a temperature measurement device for measuring the temperature of the tip , the soldering iron including: a handle part ; and a cartridge that is attachable to and detachable from the handle part and includes the tip and a temperature sensor to be used for measuring the temperature of the tip , a storage unit being included either in the soldering iron control device or in the cartridge and being characterised by : the soldering iron control device comprising: a control unit configured to control the temperature of the tip at a set temperature based on the temperature measured by the temperature sensor ; and a storage processing unit configured to perform a process of causing the storage unit to store whether the temperature measurement device different from the temperature sensor has succeeded in calibration of the temperature of the tip as a calibration result in a state where the temperature of the tip is controlled at the set temperature. a soldering iron control device that allows electrical connection to the soldering iron and controls a temperature of a tip of the soldering iron , and a temperature measurement device for measuring the temperature of the tip , the soldering iron including: a handle part ; and a cartridge that is attachable to and detachable from the handle part and includes the tip and a temperature sensor to be used for measuring the temperature of the tip , a storage unit being included either in the soldering iron control device or in the cartridge and being characterised by : the soldering iron control device comprising: a control unit configured to control the temperature of the tip at a set temperature based on the temperature measured by the temperature sensor ; and a storage processing unit configured to perform a process of causing the storage unit to store whether the temperature measurement device different from the temperature sensor has succeeded in calibration of the temperature of the tip as a calibration result in a state where the temperature of the tip is controlled at the set temperature. a control unit configured to control the temperature of the tip at a set temperature based on the temperature measured by the temperature sensor ; and a storage processing unit configured to perform a process of causing the storage unit to store whether the temperature measurement device different from the temperature sensor has succeeded in calibration of the temperature of the tip as a calibration result in a state where the temperature of the tip is controlled at the set temperature.
A housing for an air cycle machine, the housing comprising: a first housing portion adjacent a first end of the housing ; a second housing portion adjacent a second end of the housing and attached to the first housing portion; a first duct in the first housing portion adjacent the first end of the housing with an air inlet and an air outlet ; a second duct in the second housing portion adjacent the second end of the housing with an air inlet and an air outlet ; a bolt hole positioned in the second end of the housing; and a bulged area on the second housing portion, characterized in that the bulged area is aligned with the bolt hole, wherein the radially outer wall of the second housing portion has a first thickness T 1 , wherein the bulged area has a second thickness T 2 , and wherein a ratio of the first thickness T 1 to the second thickness T 2 is between 0.1250 and 0.2414. a first housing portion adjacent a first end of the housing ; a second housing portion adjacent a second end of the housing and attached to the first housing portion; a first duct in the first housing portion adjacent the first end of the housing with an air inlet and an air outlet ; a second duct in the second housing portion adjacent the second end of the housing with an air inlet and an air outlet ; a bolt hole positioned in the second end of the housing; and a bulged area on the second housing portion, characterized in that the bulged area is aligned with the bolt hole, wherein the radially outer wall of the second housing portion has a first thickness T 1 , wherein the bulged area has a second thickness T 2 , and wherein a ratio of the first thickness T 1 to the second thickness T 2 is between 0.1250 and 0.2414.
A humidity control insert for retaining moisture before insertion into a package , comprising a porous nonwoven fibrous substrate and a hygroscopic powder material dispersed within the porous nonwoven fibrous substrate; wherein the hygroscopic powder material is dispersed into the porous nonwoven fibrous substrate by a dry powder impregnation process using an alternating electric field, the porous nonwoven fibrous substrate is then heated and compacted to immobilize the hygroscopic powder material within the porous nonwoven fibrous substrate; and wherein the hygroscopic powder material accounts for 1-50 wt. % of the dry weight of the humidity control insert.
Method for manufacturing a part layer-upon-layer using Additive Manufacturing technology, wherein the method comprises performing at least once the following steps: a. forming a layer by depositing first type filaments which are made of fibrous material reinforcement embedded within a meltable material, preferably thermoplastic material, at least a portion of the first type filaments being deposited alongside each other thus creating at least one channel , and b. depositing at least a portion of a second type filament which are made of fibrous material reinforcement embedded within a meltable material, preferably thermoplastic material, along said channel ; wherein the second type filament differs from the first type filament at least in the cross-sectional dimension, and wherein the first type filaments have a fibre volume content above 50% and the second type filaments have a fibre volume content below 50%. a. forming a layer by depositing first type filaments which are made of fibrous material reinforcement embedded within a meltable material, preferably thermoplastic material, at least a portion of the first type filaments being deposited alongside each other thus creating at least one channel , and b. depositing at least a portion of a second type filament which are made of fibrous material reinforcement embedded within a meltable material, preferably thermoplastic material, along said channel ; wherein the second type filament differs from the first type filament at least in the cross-sectional dimension, and wherein the first type filaments have a fibre volume content above 50% and the second type filaments have a fibre volume content below 50%.
Device for separating sausages which are combined into a sausage strand via a twisting-off point , wherein the separation takes place at a cutting point , wherein a braking device for extending the twisting-off point is connected upstream of the cutting point , characterized in that the braking device has a hole , whose diameter is smaller than the diameter of the sausages , and wherein a plurality of slots (12.1-12.5) extend radially to the hole .
A method for handling a service request in a network, wherein the method is performed by a first service communication proxy, SCP, node that is configured to operate as an SCP between a first network function, NF, node of a service consumer and a second NF node of a service producer in the network, the method comprising: transmitting information towards the first NF node if no response is received from the second NF node to a first request transmitted towards the second NF node via the first SCP node , wherein the first request is for the second NF node to execute a service requested by the first NF node , and wherein the information is indicative that no response is received from the second NF node to the first request , and wherein the information is accompanied by an existing hypertext transfer protocol, HTTP, status code and the existing HTTP status code is a 504 Gateway Timeout. transmitting information towards the first NF node if no response is received from the second NF node to a first request transmitted towards the second NF node via the first SCP node , wherein the first request is for the second NF node to execute a service requested by the first NF node , and wherein the information is indicative that no response is received from the second NF node to the first request , and wherein the information is accompanied by an existing hypertext transfer protocol, HTTP, status code and the existing HTTP status code is a 504 Gateway Timeout.
A system for providing a mixed reality, MR, environment with collaborative and concurrent access to the MR environment, comprising: a display element ; memory storing a three dimensional, 3D, model ; and a processor running a collaboration control module configured to receive from a user a request to initiate a collaboration session with the 3D model or to join the collaboration session and, in response, operate the display element to display an image generated from the 3D model to augment a view of a physical space in which the user is positioned, wherein the collaboration control module is configured to operate the display element to display a prompt to register the user within the physical space, and characterised in that the collaboration control module is configured to receive a user selection of a location in the physical space and, in response, register the user to the physical space using a one-click registration algorithm that includes operating the display element to prompt the user to select a location on a vertical surface in a surface reconstruction mesh of the physical space. a display element ; memory storing a three dimensional, 3D, model ; and a processor running a collaboration control module configured to receive from a user a request to initiate a collaboration session with the 3D model or to join the collaboration session and, in response, operate the display element to display an image generated from the 3D model to augment a view of a physical space in which the user is positioned, wherein the collaboration control module is configured to operate the display element to display a prompt to register the user within the physical space, and characterised in that the collaboration control module is configured to receive a user selection of a location in the physical space and, in response, register the user to the physical space using a one-click registration algorithm that includes operating the display element to prompt the user to select a location on a vertical surface in a surface reconstruction mesh of the physical space.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station , configuration information including a list of minimum scheduling offset values for a downlink bandwidth part, DL BWP, or an uplink bandwidth part, UL BWP; receiving, from the base station , downlink control information, DCI, in a scheduling cell, the DCI including a field indicating a minimum scheduling offset value for the DL BWP or the UL BWP from the list of minimum scheduling offset values; and applying the minimum scheduling offset value indicated by the field included in the DCI, after an application delay from a slot in which the DCI is received in the scheduling cell, wherein the application delay is determined based on: a currently applied minimum scheduling offset value of an active DL BWP in a scheduled cell, a subcarrier spacing, SCS, configuration for a physical downlink control channel, PDCCH, of the active DL BWP in the scheduling cell, and a SCS configuration for a physical downlink shared channel, PDSCH, of an active DL BWP in the scheduled cell. receiving, from a base station , configuration information including a list of minimum scheduling offset values for a downlink bandwidth part, DL BWP, or an uplink bandwidth part, UL BWP; receiving, from the base station , downlink control information, DCI, in a scheduling cell, the DCI including a field indicating a minimum scheduling offset value for the DL BWP or the UL BWP from the list of minimum scheduling offset values; and applying the minimum scheduling offset value indicated by the field included in the DCI, after an application delay from a slot in which the DCI is received in the scheduling cell, wherein the application delay is determined based on: a currently applied minimum scheduling offset value of an active DL BWP in a scheduled cell, a subcarrier spacing, SCS, configuration for a physical downlink control channel, PDCCH, of the active DL BWP in the scheduling cell, and a SCS configuration for a physical downlink shared channel, PDSCH, of an active DL BWP in the scheduled cell. a currently applied minimum scheduling offset value of an active DL BWP in a scheduled cell, a subcarrier spacing, SCS, configuration for a physical downlink control channel, PDCCH, of the active DL BWP in the scheduling cell, and a SCS configuration for a physical downlink shared channel, PDSCH, of an active DL BWP in the scheduled cell.
A method for forming a fibrin matrix comprising a fusion peptide, wherein the method comprises the steps of: i) providing a first component comprising fibrinogen or a fibrinogen precursor and a transglutaminase (TG) or a transglutaminase precursor; ii) providing a second component comprising thrombin or a thrombin precursor; wherein neither the first component nor the second component comprises a fusion peptide comprising a first domain and a covalently crosslinkable transglutaminase substrate domain in a second domain; iii) providing a third component comprising the fusion peptide, wherein the third component does not contain fibrinogen, a fibrinogen precursor thrombin, nor a thrombin precursor, and wherein the fusion peptide comprises PTH in the first domain; iv) mixing the first, second, and third components; wherein step (iv) is carried out in a time frame of not more than 5 days, preferably not more than 3 days, not more than 2 days, or during 1 day. i) providing a first component comprising fibrinogen or a fibrinogen precursor and a transglutaminase (TG) or a transglutaminase precursor; ii) providing a second component comprising thrombin or a thrombin precursor; wherein neither the first component nor the second component comprises a fusion peptide comprising a first domain and a covalently crosslinkable transglutaminase substrate domain in a second domain; iii) providing a third component comprising the fusion peptide, wherein the third component does not contain fibrinogen, a fibrinogen precursor thrombin, nor a thrombin precursor, and wherein the fusion peptide comprises PTH in the first domain; iv) mixing the first, second, and third components;
A rotary atomizing painting device, comprising: a bell cup disposed at the most front side in a spraying direction, pivoted on a rotating shaft and having a back portion ; and a shaping air ring disposed at the back side of the bell cup , comprising multiple discharge openings for blowing out a shaping air (SA) formed on a circle centered on the rotating shaft , wherein the direction of the discharge opening and the rotating shaft are skew, the discharge opening aims at the back portion of the bell cup , the bell cup comprises a straight portion located continuously to the front side in the spraying direction of the back portion , formed in a column shape centered on the rotating shaft , wherein the length of the straight portion along the rotating shaft is changeable and wherein an increase in a length of the straight portion results in a decrease in a width of a painting pattern formed by the rotary atomizing painting device. a bell cup disposed at the most front side in a spraying direction, pivoted on a rotating shaft and having a back portion ; and a shaping air ring disposed at the back side of the bell cup , comprising multiple discharge openings for blowing out a shaping air (SA) formed on a circle centered on the rotating shaft , wherein the direction of the discharge opening and the rotating shaft are skew, the discharge opening aims at the back portion of the bell cup , the bell cup comprises a straight portion located continuously to the front side in the spraying direction of the back portion , formed in a column shape centered on the rotating shaft , wherein the length of the straight portion along the rotating shaft is changeable and wherein an increase in a length of the straight portion results in a decrease in a width of a painting pattern formed by the rotary atomizing painting device.
A patient interface assembly, comprising: a substrate; a plurality of three-dimensionally contoured electrically conductive patient contacts attached to a first side of the substrate, each of the plurality of three-dimensionally contoured electrically conductive patient contacts having a front surface that is configured to be in contact with the patient, wherein the front surface has a curved surface, and wherein the plurality of three-dimensionally contoured electrically conductive patient contacts have one or more different sizes and a variety of shapes comprising bar contacts and button contacts ; an interconnecting circuit assembly on a side of the substrate opposite from the first side of the substrate that electrically connects the plurality of three-dimensionally contoured electrically conductive patient contacts to each other; and wherein the plurality of three-dimensionally contoured electrically conductive patient contacts are configured to provide contact with an uneven contact surface when the patient interface assembly is placed against the uneven contact surface. a substrate; a plurality of three-dimensionally contoured electrically conductive patient contacts attached to a first side of the substrate, each of the plurality of three-dimensionally contoured electrically conductive patient contacts having a front surface that is configured to be in contact with the patient, wherein the front surface has a curved surface, and wherein the plurality of three-dimensionally contoured electrically conductive patient contacts have one or more different sizes and a variety of shapes comprising bar contacts and button contacts ; an interconnecting circuit assembly on a side of the substrate opposite from the first side of the substrate that electrically connects the plurality of three-dimensionally contoured electrically conductive patient contacts to each other; and wherein the plurality of three-dimensionally contoured electrically conductive patient contacts are configured to provide contact with an uneven contact surface when the patient interface assembly is placed against the uneven contact surface.
An ice protection system , comprising: a blade having a leading edge , the blade extending from an inboard side to an outboard side ; a first heating element disposed proximate the inboard side along the leading edge, the first heating element configured to have a first resistive path and to provide heat; a second heating element disposed adjacent to the first heating element, the second heating element disposed distal to the inboard side, the second heating element configured to have a second resistive path and to provide heat; a second heater feed conductive element extending from the inboard side to the second heating element; and characterized by : a second heater return conductive element extending from the inboard side to the second heating element, the second heater feed conductive element and the second heater return conductive element each comprising a plurality of diagonal traces and a plurality of orthogonal traces extending from a first side to a second side , the plurality of diagonal traces configured to intersect the plurality of orthogonal traces , the second heater feed conductive element and the second heater return conductive element both configured for a conductive path and to provide little or no heat. a blade having a leading edge , the blade extending from an inboard side to an outboard side ; a first heating element disposed proximate the inboard side along the leading edge, the first heating element configured to have a first resistive path and to provide heat; a second heating element disposed adjacent to the first heating element, the second heating element disposed distal to the inboard side, the second heating element configured to have a second resistive path and to provide heat; a second heater feed conductive element extending from the inboard side to the second heating element; and characterized by : a second heater return conductive element extending from the inboard side to the second heating element, the second heater feed conductive element and the second heater return conductive element each comprising a plurality of diagonal traces and a plurality of orthogonal traces extending from a first side to a second side , the plurality of diagonal traces configured to intersect the plurality of orthogonal traces , the second heater feed conductive element and the second heater return conductive element both configured for a conductive path and to provide little or no heat.