mhurhangee/patent-ind-claim-en huggingface dataset:
A setting device configured to set information in each of a plurality of control devices connectable to a network of factory automation, wherein a communication protocol between a control device and other control devices among the control devices includes a publish/subscribe type, each of the control devices includes: a data storage unit (E3) in which control data of the factory automation is stored; a publisher unit that transmits data including a state of the control device of the publisher unit itself to each of the other control devices ; and a subscriber unit that receives data from each of the other control devices , the control data includes a plurality of types of control data, and the setting device includes a setting unit configured to set, in the control device, a reception allowing condition of the control data that is to be received by the subscriber unit of each of the other control devices such that the reception allowing condition is different for each of the types of control data and includes a state received from each of the other control devices, wherein, when a state of each of the other control devices that is received by the subscriber unit satisfies the reception allowing condition that is different for each of the types of control data, the publisher unit transmits the control data to each of the other control devices. a communication protocol between a control device and other control devices among the control devices includes a publish/subscribe type, each of the control devices includes: a data storage unit (E3) in which control data of the factory automation is stored; a publisher unit that transmits data including a state of the control device of the publisher unit itself to each of the other control devices ; and a subscriber unit that receives data from each of the other control devices , a data storage unit (E3) in which control data of the factory automation is stored; a publisher unit that transmits data including a state of the control device of the publisher unit itself to each of the other control devices ; and a subscriber unit that receives data from each of the other control devices , the control data includes a plurality of types of control data, and the setting device includes a setting unit configured to set, in the control device, a reception allowing condition of the control data that is to be received by the subscriber unit of each of the other control devices such that the reception allowing condition is different for each of the types of control data and includes a state received from each of the other control devices, wherein, when a state of each of the other control devices that is received by the subscriber unit satisfies the reception allowing condition that is different for each of the types of control data, the publisher unit transmits the control data to each of the other control devices.
Vehicle external control device comprising a housing with at least one rotary encoder , at least one display , at least one shortcut button , a control unit with a control logic module and a power module, wherein each shortcut button is configured to activate one of plurality pre-configured features of a vehicle when pressed, and the logic module of the control unit is configured to operate the device in two modes: - Home Menu Mode in which the logic module is configured at rotation of said at least one rotary encoder to change functionality of said at least one shortcut button that activates one of plurality pre-configured features of a vehicle when pressed, - Function Mode to be switched on by pressing said at least one shortcut button in the Home Menu Mode for activation of said pre-configured feature of the vehicle, wherein in the Function Mode the logic module is configured to control one or more of the pre-configured features of the vehicle and/or to adjust said one or more of the pre-configured features of the vehicle at rotation clockwise or counterclockwise of said at least one rotary encoder , wherein said at least one display is configured to receive from the control unit and display information for at least one of the following: current configuration of said at least one shortcut button in Home Menu Mode; current status of the activated pre-configured feature of the vehicle and/or adjusting and changing status of activated pre-configured feature of the car by rotating clockwise or counterclockwise of said at least one rotary encoder in Function Mode. - Home Menu Mode in which the logic module is configured at rotation of said at least one rotary encoder to change functionality of said at least one shortcut button that activates one of plurality pre-configured features of a vehicle when pressed, - Function Mode to be switched on by pressing said at least one shortcut button in the Home Menu Mode for activation of said pre-configured feature of the vehicle, wherein in the Function Mode the logic module is configured to control one or more of the pre-configured features of the vehicle and/or to adjust said one or more of the pre-configured features of the vehicle at rotation clockwise or counterclockwise of said at least one rotary encoder ,
A method of wireless communication by a wireless device, comprising: determining a number of symbols in a data field; distributing a first number of data bits to each encoder in a subset of encoders in a set of encoders, wherein each encoder in the subset of encoders is distributed the same first number of data bits; distributing a second number of data bits to a last encoder in the set of encoders; and transmitting data to a second wireless device, wherein the data is encoded based on the distributed first number of data bits to each encoder in the subset of encoders and the distributed second number of data bits to the last encoder in the set of encoders; characterized in that the set of encoders comprises N ES encoders, where N ES is an integer greater than 2, and the subset of encoders comprises N ES - 1 encoders, and further wherein the first number of data bits is different from the second number of data bits and wherein the first and second numbers of data bits are computed as functions of the determined number of symbols and of a Modulation and Coding Scheme, MCS, code rate. determining a number of symbols in a data field; distributing a first number of data bits to each encoder in a subset of encoders in a set of encoders, wherein each encoder in the subset of encoders is distributed the same first number of data bits; distributing a second number of data bits to a last encoder in the set of encoders; and transmitting data to a second wireless device, wherein the data is encoded based on the distributed first number of data bits to each encoder in the subset of encoders and the distributed second number of data bits to the last encoder in the set of encoders; characterized in that the set of encoders comprises N ES encoders, where N ES is an integer greater than 2, and the subset of encoders comprises N ES - 1 encoders, and further wherein the first number of data bits is different from the second number of data bits and wherein the first and second numbers of data bits are computed as functions of the determined number of symbols and of a Modulation and Coding Scheme, MCS, code rate.
A harvester capable of autonomous travel in a field, the harvester comprising: a harvesting unit (11, H) for harvesting a crop from the field; a conveyance device for conveying, toward the rear of a harvester body, a whole culm of the harvested crop harvested by the harvesting unit; a detection sensor for detecting a drive speed of the conveyance device; a clog determining unit for determining a clog of the harvested crop in the conveyance device on the basis of the drive speed; and wherein the clog determining unit is configured to output a vehicle stop command that stops the harvester body when the drive speed becomes lower than a pre-set first threshold (R1) during the autonomous travel, the harvester being characterised in that it further comprises a travel mode managing unit configured to switch a travel mode to an autonomous travel mode in which the autonomous travel is executed and to a manual travel mode in which manual travel is executed; and in that the travel mode managing unit is configured to switch the travel mode to the manual travel mode when the vehicle stop command has been output by the clog determining unit . a harvesting unit (11, H) for harvesting a crop from the field; a conveyance device for conveying, toward the rear of a harvester body, a whole culm of the harvested crop harvested by the harvesting unit; a detection sensor for detecting a drive speed of the conveyance device; a clog determining unit for determining a clog of the harvested crop in the conveyance device on the basis of the drive speed; and wherein the clog determining unit is configured to output a vehicle stop command that stops the harvester body when the drive speed becomes lower than a pre-set first threshold (R1) during the autonomous travel, the harvester being characterised in that it further comprises a travel mode managing unit configured to switch a travel mode to an autonomous travel mode in which the autonomous travel is executed and to a manual travel mode in which manual travel is executed; and in that the travel mode managing unit is configured to switch the travel mode to the manual travel mode when the vehicle stop command has been output by the clog determining unit .
A power factor correcting method for correcting a power factor of an alternating current, AC, power supply, comprising: detecting zero-crossing points of an input voltage V AC of the AC power supply to obtain a period T of the V AC ; generating a half-wave symmetric periodic function f(t) by using the period T ; implementing a recursive low-pass filter y(t) by using the f(t), so that an output of the y(t) matches a target reactive current I xpap (t) flowing through an X-capacitor ; generating a reference current I ref ′ t for correcting the power factor by using a given reference current I ref ( t ) and the y(t) ; and correcting the power factor by using the reference current I ref ′ t . detecting zero-crossing points of an input voltage V AC of the AC power supply to obtain a period T of the V AC ; generating a half-wave symmetric periodic function f(t) by using the period T ; implementing a recursive low-pass filter y(t) by using the f(t), so that an output of the y(t) matches a target reactive current I xpap (t) flowing through an X-capacitor ; generating a reference current I ref ′ t for correcting the power factor by using a given reference current I ref ( t ) and the y(t) ; and correcting the power factor by using the reference current I ref ′ t .
A system comprising a substrate (W) and a device for processing the substrate (W) having a substrate cleaning chamber and a substrate drying chamber , wherein the substrate cleaning chamber includes a first table holding and rotating the substrate (W) such that a surface with a pattern (P) of the substrate (W) is directed upward, a cleaning liquid supply unit supplying a cleaning liquid to said upwardly directed surface of the substrate (W), and a solvent supply unit supplying a volatile solvent to the surface of the substrate (W) supplied with the cleaning liquid to replace the cleaning liquid on the surface of the substrate (W) with the volatile solvent, the substrate drying chamber includes a second table adapted for holding the substrate (W) horizontally such that the surface with the pattern (P) is directed downward, a heating and drying unit configured for heating the surface of the substrate (W) supplied with the volatile solvent in the substrate cleaning chamber and held by the second table , removing the volatile solvent from the surface of the substrate (W), and drying the surface of the substrate (W) , wherein the heating and drying unit includes a lamp located below the second table , the lamp irradiating upward with light having a peak intensity in wavelengths between 500 nm and 3000 nm, and wherein the substrate drying chamber is provided with a nozzle adapted for ejecting an inert gas toward said downwardly directed surface of the substrate (W) when the substrate (W) is heated by the heating and drying unit .
A method, performed by a base station, for configuring uplink sounding signal transmissions by mobile terminals in a wireless communication network, the method comprising: determining multiple different sets of configuration parameters for the uplink sounding signal transmissions for a given mobile terminal of said mobile terminals, each of the multiple different sets of configuration parameters comprising frequency-domain and time-domain parameters, where the frequency-domain parameters comprise a first set of configuration parameters causing the mobile terminal to generate a first one of a sounding reference signal and a second set of configuration parameters causing the mobile terminal to generate a second one of sounding reference signal, where the time-domain parameters comprises a time offset, in number of subframes, of the sounding reference signal, position of the sounding reference signal within the subframe, and/or the period, in number of subframes, of the sounding reference signal; and transmitting the multiple different sets of configuration parameters to the mobile terminal, and receiving, from the mobile terminal, the sounding signals generated by the mobile terminal. determining multiple different sets of configuration parameters for the uplink sounding signal transmissions for a given mobile terminal of said mobile terminals, each of the multiple different sets of configuration parameters comprising frequency-domain and time-domain parameters, where the frequency-domain parameters comprise a first set of configuration parameters causing the mobile terminal to generate a first one of a sounding reference signal and a second set of configuration parameters causing the mobile terminal to generate a second one of sounding reference signal, where the time-domain parameters comprises a time offset, in number of subframes, of the sounding reference signal, position of the sounding reference signal within the subframe, and/or the period, in number of subframes, of the sounding reference signal; and transmitting the multiple different sets of configuration parameters to the mobile terminal, and receiving, from the mobile terminal, the sounding signals generated by the mobile terminal.
A method for identifying transcriptional repressor domains, comprising: a) preparing a domain library comprising a plurality of nucleic acid sequences each configured to express a fusion protein comprising a protein domain linked to an inducible DNA binding domain; b) transforming reporter cells with the domain library, wherein a reporter cell comprises a two-part reporter comprising a surface marker and a fluorescent protein, the expression being under the control of a strong promoter that is capable of being silenced by a putative transcriptional repressor domain following treatment with an agent configured to induce the inducible DNA binding domain; c) treating the reporter cells with the agent for a length of time necessary for protein and mRNA degradation in the cell, preferably for at least 3 days, further preferably for 5 days; d) separating reporter cells based on presence or absence of the surface marker, the fluorescent protein, or a combination thereof; e) sequencing the protein domains from the separated reporter cells; f) calculating for each protein domain sequence a ratio of sequencing counts from reporter cells not having the surface marker, the fluorescent protein, or a combination thereof to sequencing counts from reporter cells having the surface marker, the fluorescent protein, or a combination thereof; and g) identifying protein domains as transcriptional repressor, wherein the protein domain is preferably identified as a transcription repressor when log2 of the ratio is at least two standard deviations from the mean of a poorly expressed negative control. a) preparing a domain library comprising a plurality of nucleic acid sequences each configured to express a fusion protein comprising a protein domain linked to an inducible DNA binding domain; b) transforming reporter cells with the domain library, wherein a reporter cell comprises a two-part reporter comprising a surface marker and a fluorescent protein, the expression being under the control of a strong promoter that is capable of being silenced by a putative transcriptional repressor domain following treatment with an agent configured to induce the inducible DNA binding domain; c) treating the reporter cells with the agent for a length of time necessary for protein and mRNA degradation in the cell, preferably for at least 3 days, further preferably for 5 days; d) separating reporter cells based on presence or absence of the surface marker, the fluorescent protein, or a combination thereof; e) sequencing the protein domains from the separated reporter cells; f) calculating for each protein domain sequence a ratio of sequencing counts from reporter cells not having the surface marker, the fluorescent protein, or a combination thereof to sequencing counts from reporter cells having the surface marker, the fluorescent protein, or a combination thereof; and g) identifying protein domains as transcriptional repressor, wherein the protein domain is preferably identified as a transcription repressor when log2 of the ratio is at least two standard deviations from the mean of a poorly expressed negative control.
A compressor, comprising: a casing ; a driving motor provided at an inner space of the casing ; a rotation shaft coupled to the driving motor; an orbiting scroll comprising an orbiting plate portion including a shaft coupling portion coupled to the rotating shaft , and an orbiting wrap that extends from the shaft coupling portion ; a fixed scroll comprising a fixed wrap , which forms a compression chamber (V) by being engaged with the orbiting wrap , a fixed plate portion including an inlet receiving the refrigerant and an outlet spaced apart from the inlet to discharge the refrigerant; an offset portion provided in at least one portion of the fixed wrap or the orbiting wrap and extending an interval between the fixed wrap and the orbiting wrap , characterized in that the offset portion is provided near the inlet , wherein the offset portion is formed only within a range of ±30° from a center of the fixed scroll , on the basis of a suction completion point of the fixed wrap . a casing ; a driving motor provided at an inner space of the casing ; a rotation shaft coupled to the driving motor; an orbiting scroll comprising an orbiting plate portion including a shaft coupling portion coupled to the rotating shaft , and an orbiting wrap that extends from the shaft coupling portion ; a fixed scroll comprising a fixed wrap , which forms a compression chamber (V) by being engaged with the orbiting wrap , a fixed plate portion including an inlet receiving the refrigerant and an outlet spaced apart from the inlet to discharge the refrigerant; an offset portion provided in at least one portion of the fixed wrap or the orbiting wrap and extending an interval between the fixed wrap and the orbiting wrap , characterized in that the offset portion is provided near the inlet , wherein the offset portion is formed only within a range of ±30° from a center of the fixed scroll , on the basis of a suction completion point of the fixed wrap .
A Treg cell activator for regulatory (Treg) cell activation via interaction with a Treg cell epitope as set forth in SEQ ID NO:1, said Treg cell activator is a polypeptide comprising an amino acid sequence as set forth in SEQ ID NO.: 3, SEQ ID NO.: 4, SEQ ID NO.: 6, SEQ ID NO.: 7, SEQ ID NO.: 8, SEQ ID NO.: 9, or SEQ ID NO.: 10 for use in a method for the prevention or treatment of a disease, which is characterized in that its clinical picture is influenced positively by an increase of activated Treg cells in response to the Treg cell activator, selected from the group consisting of allergic asthma, atopic dermatitis, food allergy, graft-versus-host disease, rheumatoid arthritis, rheumatic fever, systemic lupus erythematosus, ulcerative colitis, Crohn's disease, autoimmune inflammatory bowel disease, diabetes type I, multiple sclerosis, myasthenia gravis, psoriasis, pemphigus vulgaris, pemphigoid, an inflammatory disease due to organ transplantation or a bone marrow transplantation.
A white thermal control paint comprising a curable coating composition, the curable coating composition comprising: (a) a silicate; (b) a calcium phosphate; and (c) a metal oxide; wherein the metal oxide is non-thermochromic at temperatures up to 500°C. (a) a silicate; (b) a calcium phosphate; and (c) a metal oxide;
A saturator part adapted to a particle number counting apparatus which apparatus comprises: the saturator part including a flow path in which a working liquid is diffused in a vaporized state so as to render sample particles contained in a measurement targeted gas to flow in the flow path ; a condenser part for introducing the sample particles and vaporized working liquid from the flow path and condensing the working liquid with the sample particles as cores so as to produce droplets of the working liquid; and a counter part for counting the droplets of the working liquid, the saturator part including: a porous member in which the flow path is passed through to form an inlet at a lower side and an outlet at an upper side thereof so that the working liquid is supplied to a predetermined section of the porous member so as to be impregnated into the entire part of the porous member ; and a housing having an accommodating space for accommodating the porous member , characterized in that a gap (S) is formed between an outer peripheral surface of the porous member and an inner peripheral surface of the accommodating space of the housing at least above the predetermined section of the porous member which is supplied with working liquid, wherein the gap (S) has a width not to cause a capillary phenomenon. a porous member in which the flow path is passed through to form an inlet at a lower side and an outlet at an upper side thereof so that the working liquid is supplied to a predetermined section of the porous member so as to be impregnated into the entire part of the porous member ; and a housing having an accommodating space for accommodating the porous member , characterized in that a gap (S) is formed between an outer peripheral surface of the porous member and an inner peripheral surface of the accommodating space of the housing at least above the predetermined section of the porous member which is supplied with working liquid, wherein the gap (S) has a width not to cause a capillary phenomenon.