mhurhangee/ep-ind-claims huggingface dataset:
A terminal control system comprising a plurality of terminal devices (3a-j) and a control device for controlling the plurality of terminal devices, wherein, a first one of the terminal devices is configured to: start up at a predetermined startup time, after a reference time that is a reference when the plurality of terminal devices perform predetermined terminal processings during the same period, complete a preparation for transmission of data as the terminal processing, after the startup time and before a predetermined offset time from the reference time is lapsed, and perform processing for transmitting predetermined data to the control device, after the offset time is lapsed and within a predetermined communication time, and the control device is configured to: calculate an offset time for a further one of the terminal devices for performing the terminal processing subsequently to said first one of the terminal devices, based on the communication time, and said further one of the terminal devices is configured to: set a startup time determined based on the calculated offset time as a next startup time, wherein each of the terminal devices (3a-e; 3f-g; 3h-j) belongs to any one of a plurality of groups (Group 1; Group 2; Group 3) among the plurality of terminal devices, there are first period terminal devices (3a, d, g, j) for performing the terminal processing at every first period, and second period terminal devices (3b, e, f, i) for performing the terminal processing at every second period, wherein the control device is configured to: calculate the offset time for the terminal devices belonging to a subsequent further one of the groups that performs the terminal processings subsequently to the terminal devices belonging to a previous one of the groups by, calculating a first period offset time, based on the communication time of the first period terminal devices in said previous one of the groups, wherein the communication time of the first period terminal devices is the sum of all the communication times of all the first period devices in said previous one of the groups, calculating a second period offset time, based on the communication time of the second period terminal devices in said previous one of the groups, wherein the communication time of the second period terminal devices is the sum of all the communication times of all the second period devices in said previous one of the groups, adopting a sum of the first period offset time and the second period offset time, as an offset time for the terminal devices of said subsequent further one of the groups. start up at a predetermined startup time, after a reference time that is a reference when the plurality of terminal devices perform predetermined terminal processings during the same period, complete a preparation for transmission of data as the terminal processing, after the startup time and before a predetermined offset time from the reference time is lapsed, and perform processing for transmitting predetermined data to the control device, after the offset time is lapsed and within a predetermined communication time, and
A bioactive substance-containing emulsified powder comprising 1 - 70 wt% of an oil component comprising coenzyme Q10 as a bioactive substance, 20 - 97.9 wt% of a water-soluble polymer, 1 - 20 wt% of a saccharide other than polysaccharides wherein the saccharide is at least one kind of sugar alcohol selected from the group consisting of sorbitol, mannitol, xylitol, erythritol, maltitol, lactitol and palatinit,and 0.1 - 30 wt% of a surfactant.
A method of controlling NOx purification system disposed with a first catalyst consisting of a lean NOx catalyst or a ternary catalyst and a selective reduction NOx catalyst from the upstream side in an exhaust gas passage, so as to form ammonia by said first catalyst when carrying out an ammonia formation control, and to make the formed ammonia adsorbed by said selective reduction catalyst and reduce NOx contained in the exhaust gas with the ammonia adsorbed by said selective reduction catalyst when not carrying out said ammonia formation control, wherein at said ammonia formation control, an ammonia adsorption target amount being a target value of ammonia adsorbed by said selective reduction catalyst is computed, and said ammonia formation control is carried out only when a cumulative value of an ammonia formation amount formed by said first catalyst at said ammonia formation control is under said ammonia adsorption target amount, characterized in that at said ammonia formation control, an intra-exhaust pipe fuel injection is carried out to perform either the catalyst temperature rise or an ammonia formation, or both of them.
Method for adjusting an operating parameter of an internal combustion engine in a motor vehicle, wherein - an electrical generator of the motor vehicle is driven by the internal combustion engine, - a current power value (P_gen_mech) of a mechanical drive power (Pgen) required by the generator is repeatedly determined from at least one current parameter value of the generator by an energy management unit, - on the basis of the power value (P_gen_mech) of the energy management unit a regulating setpoint value for regulating operation to regulate the operating parameter (Pm) is determined by an engine control device, characterised in that an operating quantity (DF, le) of the generator, which is dependent on an electrical load (Pel) acting at the generator, is monitored, and, after a load jump of the electrical load (Pel), a) a value of a relative change in the operating quantity (DF, le), caused by the load jump, is determined and b) a regulating setpoint value (R') for the regulating operation, which is adapted to the load jump, is determined independently of the current power value (P_gen_mech) of the energy management unit and on the basis of the value of the relative change in the monitored operating quantity (DF, le). - an electrical generator of the motor vehicle is driven by the internal combustion engine, - a current power value (P_gen_mech) of a mechanical drive power (Pgen) required by the generator is repeatedly determined from at least one current parameter value of the generator by an energy management unit, - on the basis of the power value (P_gen_mech) of the energy management unit a regulating setpoint value for regulating operation to regulate the operating parameter (Pm) is determined by an engine control device, a) a value of a relative change in the operating quantity (DF, le), caused by the load jump, is determined and b) a regulating setpoint value (R') for the regulating operation, which is adapted to the load jump, is determined independently of the current power value (P_gen_mech) of the energy management unit and on the basis of the value of the relative change in the monitored operating quantity (DF, le).
A printing assembly, comprising a printing machine with a printing module having a flexographic printing mode and a gravure printing mode, wherein the printing module comprises at least two printing cylinders (34, 36) defining the printing mode of the printing module, a printing tool handling unit being configured for withdrawing and inserting the at least two printing cylinders (34, 36) from and into the printing module, respectively, wherein the printing tool handling unit comprises a coupling interface and the at least two printing cylinders (34, 36) each comprise a complementary coupling interface such that the printing tool handling unit can at least temporarily be coupled to one or more of the at least two printing cylinders (34, 36) via the respective coupling interfaces (58, 70), and wherein the coupling interface provided on the printing tool handling unit and each of the complementary coupling interfaces provided on the at least two printing cylinders (34, 36) are standardized such that the same coupling interface provided on the printing tool handling unit can be used to be coupled to the complementary coupling interface of each of the at least two printing cylinders (34, 36). a printing machine with a printing module having a flexographic printing mode and a gravure printing mode, wherein the printing module comprises at least two printing cylinders (34, 36) defining the printing mode of the printing module, a printing tool handling unit being configured for withdrawing and inserting the at least two printing cylinders (34, 36) from and into the printing module, respectively, wherein the printing tool handling unit comprises a coupling interface and the at least two printing cylinders (34, 36) each comprise a complementary coupling interface such that the printing tool handling unit can at least temporarily be coupled to one or more of the at least two printing cylinders (34, 36) via the respective coupling interfaces (58, 70), and wherein the coupling interface provided on the printing tool handling unit and each of the complementary coupling interfaces provided on the at least two printing cylinders (34, 36) are standardized such that the same coupling interface provided on the printing tool handling unit can be used to be coupled to the complementary coupling interface of each of the at least two printing cylinders (34, 36).
A spinning pack attached to a heating barrel of a melt-spinning apparatus, wherein the spinning pack comprises a link member attached to the heating barrel and having a plurality of first polymer conduits in the link member; a lid member disposed below the link member and having a plurality of second polymer conduits in the lid member; and a gasket (60, 70, 80) disposed between the lid member and the link member and having a plurality of polymer holes in the gasket (60, 70, 80) to communicate with the plurality of first and second polymer conduits, and wherein the number of the polymer holes is the same as that of the first and second polymer conduits, respectively, characterized in that the lid member comprising a groove-shaped gasket engagement portion on a surface of the lid member on which the gasket (60, 70, 80) is disposed, and wherein the gasket (60, 70, 80) is engaged with the groove-shaped gasket engagement portion.
A method for reducing residual soap in crude tall oil, wherein the method comprises the steps, where - crude tall is supplied to at least one vessel, - soap number of the crude tall oil is measured on-line, - an amount of sulphuric acid having concentration between 20-50wt%, needed for adjusting the soap number to a value of not more than 2 is determined, and - the determined amount of sulphuric acid is added to the crude tall oil at a site of blending whereby treated crude tall oil having soap number not more than 2 is obtained. - crude tall is supplied to at least one vessel, - soap number of the crude tall oil is measured on-line, - an amount of sulphuric acid having concentration between 20-50wt%, needed for adjusting the soap number to a value of not more than 2 is determined, and - the determined amount of sulphuric acid is added to the crude tall oil at a site of blending whereby treated crude tall oil having soap number not more than 2 is obtained.
A terminal comprising: a receiving unit configured to receive information related to a resource for transmitting a block including a synchronization signal and broadcast information for inter-terminal communication; and a control unit configured to determine a slot for transmitting the block in accordance with the information related to the resource, characterized wherein the information related to the resource includes a slot offset from a start of a radio frame. a receiving unit configured to receive information related to a resource for transmitting a block including a synchronization signal and broadcast information for inter-terminal communication; and a control unit configured to determine a slot for transmitting the block in accordance with the information related to the resource, characterized wherein the information related to the resource includes a slot offset from a start of a radio frame.
Method for growing a single crystal by crystallizing the single crystal from a flow zone, the flow zone being inductively heated and the crystallizing single crystal being rotated in a direction of rotation and the direction of rotation being reversed at intervals in accordance with an alternating plan, and the rotational movement of the single crystal being initiated by a drive, in that force is transmitted from a drive shaft to a shaft holding the single crystal, characterized in that a dwell time during which the single crystal is in a state of rest because of the reversal of the direction of rotation is limited to no more than 60 ms, and a belt is used for the force transmission from the drive shaft to the shaft holding the single crystal.
A liquid material discharge device comprising: a liquid chamber that is communicated with a discharge port and is supplied with a liquid material; a plunger including a piston formed as part thereof and having a tip portion that is moved back and forth in the liquid chamber; an elastic member that applies an urging force to the plunger; a piston chamber in which the piston is disposed and to which pressurized gas is supplied; and a pressure supply device that supplies, to the piston chamber, air pressurized in excess of the urging force of the elastic member, or that purges pressurized air out of the piston chamber, the liquid material discharge device discharging the liquid material from the discharge port by causing the plunger to move forward and applying an inertial force to the liquid material, wherein the liquid material discharge device further comprises a booster circuit that communicates the pressure supply device and an air source with each other, the booster circuit includes a first booster system (81a to 84a) including a booster valve and a pressure reducing valve positioned downstream of the booster valve, characterized in that the booster circuit further includes a second booster system (81b to 84b) including a booster valve and a pressure reducing valve positioned downstream of the booster valve, and a merging section in which the first booster system (81a to 84a) and the second booster system (81b to 84b) merge together, and in that a pressure adjustment valve is disposed between the merging section and the pressure supply device. a liquid chamber that is communicated with a discharge port and is supplied with a liquid material; a plunger including a piston formed as part thereof and having a tip portion that is moved back and forth in the liquid chamber; an elastic member that applies an urging force to the plunger; a piston chamber in which the piston is disposed and to which pressurized gas is supplied; and a pressure supply device that supplies, to the piston chamber, air pressurized in excess of the urging force of the elastic member, or that purges pressurized air out of the piston chamber, the liquid material discharge device discharging the liquid material from the discharge port by causing the plunger to move forward and applying an inertial force to the liquid material, wherein the liquid material discharge device further comprises a booster circuit that communicates the pressure supply device and an air source with each other, the booster circuit includes a first booster system (81a to 84a) including a booster valve and a pressure reducing valve positioned downstream of the booster valve, characterized in that the booster circuit further includes a second booster system (81b to 84b) including a booster valve and a pressure reducing valve positioned downstream of the booster valve, and a merging section in which the first booster system (81a to 84a) and the second booster system (81b to 84b) merge together, and in that a pressure adjustment valve is disposed between the merging section and the pressure supply device.
A capillary pumping heat pipe comprising a channel and at least one groove opening into the channel, said heat pipe comprising a first end for being heated and a second end for being cooled, and a sealed enclosure extending between the first end and the second end, the enclosure comprising a stack of plates, said stack including two closing plates, and dividing plates (14, 16, 216, 214) between the closing plates, each dividing plate (14, 16, 216, 214) including at least one opening the edges of which partly delimit a channel, and wherein the openings of at least three dividing plates (14, 16, 216, 214) are dimensioned such that they delimit at least one groove (10, 210) extending between the first end and the second end of the heat pipe, said groove (10, 210) having a width in a stack direction lower than or equal to the depth in the plane direction of the plates (14, 16, 216, 214), the heat pipe being characterised in that, among the three dividing plates (14, 16), one is disposed between both other dividing plates and is in mechanical contact with both other dividing plates and wherein at least one edge of the opening of the dividing plate disposed between both other dividing plates forms the bottom of at least one groove in the plane direction, each face of the groove in the stack direction being defined by a dividing plate different from the dividing plate defining the bottom of the groove in the plane direction.
A heat exchanger, comprising: a shell defining an interior; manifolds (30, 31) coupled to the shell by which a first fluid is communicated with the interior; and first and second tubular bodies (400, 401 to transmit a second fluid through the interior whereby heat transfer occurs between the first and second fluids (32, 41), wherein each of the first and second tubular bodies (400, 401): extends longitudinally through the interior of the shell, has a non-circular cross-section, and is formed to define microchannels extending longitudinally through the tubular body (400, 401) through which the second fluid is transmitted; characterized in that the spacing between microchannels disposed in the first tubular body is different from the spacing between microchannels disposed in the second tubular body. a shell defining an interior; manifolds (30, 31) coupled to the shell by which a first fluid is communicated with the interior; and first and second tubular bodies (400, 401 to transmit a second fluid through the interior whereby heat transfer occurs between the first and second fluids (32, 41), wherein each of the first and second tubular bodies (400, 401): extends longitudinally through the interior of the shell, has a non-circular cross-section, and is formed to define microchannels extending longitudinally through the tubular body (400, 401) through which the second fluid is transmitted; characterized in that the spacing between microchannels disposed in the first tubular body is different from the spacing between microchannels disposed in the second tubular body. extends longitudinally through the interior of the shell, has a non-circular cross-section, and is formed to define microchannels extending longitudinally through the tubular body (400, 401) through which the second fluid is transmitted; characterized in that the spacing between microchannels disposed in the first tubular body is different from the spacing between microchannels disposed in the second tubular body.
A method of diagnosing melanoma in a patient comprising: a) measuring in a sample which has been obtained from a patient suspected of suffering from melanoma, the normalized expression of the genes PRAME, S100A9, S100A7, S100A8, S100A12, S100A10, S100A14, PI3, CCL5, CD38, CXCL10, CXCL9, IRF1, LCP2, PTPN22, and PTPRC; and b) calculating a score based on the sum of: (i) 0.9-1.5 multiplied by the normalized expression of PRAME; (ii) 0.40-1 multiplied by the average of the normalized expression of CCL5, CD38, CXCL10, CXCL9, IRF1, LCP2, PTPN22, and PTPRC; (iii) 0.9-1.5 multiplied by the average of the normalized expression of S 100A9, S100A7, S100A8, S100A12, S100A10, S100A14, and PI3; and (iv) a predefined adjustment factor arranged to adjust the score of a particular cut off value such that the cut off value is centred at zero; a score greater than zero is indicative of melanoma. a) measuring in a sample which has been obtained from a patient suspected of suffering from melanoma, the normalized expression of the genes PRAME, S100A9, S100A7, S100A8, S100A12, S100A10, S100A14, PI3, CCL5, CD38, CXCL10, CXCL9, IRF1, LCP2, PTPN22, and PTPRC; and b) calculating a score based on the sum of: (i) 0.9-1.5 multiplied by the normalized expression of PRAME; (ii) 0.40-1 multiplied by the average of the normalized expression of CCL5, CD38, CXCL10, CXCL9, IRF1, LCP2, PTPN22, and PTPRC; (iii) 0.9-1.5 multiplied by the average of the normalized expression of S 100A9, S100A7, S100A8, S100A12, S100A10, S100A14, and PI3; and (iv) a predefined adjustment factor arranged to adjust the score of a particular cut off value such that the cut off value is centred at zero; a score greater than zero is indicative of melanoma. (i) 0.9-1.5 multiplied by the normalized expression of PRAME; (ii) 0.40-1 multiplied by the average of the normalized expression of CCL5, CD38, CXCL10, CXCL9, IRF1, LCP2, PTPN22, and PTPRC; (iii) 0.9-1.5 multiplied by the average of the normalized expression of S 100A9, S100A7, S100A8, S100A12, S100A10, S100A14, and PI3; and (iv) a predefined adjustment factor arranged to adjust the score of a particular cut off value such that the cut off value is centred at zero;
A method for coordinated resource sharing among Internet of Things, IoT, devices, comprising: identifying, at a server, an IoT device group having one or more member IoT devices that operate on a shared IoT resource; receiving, at the server, a message requesting exclusive permission to occupy at least a portion of the shared IoT resource from a member IoT device in the identified IoT device group; and transmitting, from the server to the member IoT device, a message indicating that the member IoT device has been granted the requested exclusive permission to occupy at least the portion of the shared IoT resource. identifying, at a server, an IoT device group having one or more member IoT devices that operate on a shared IoT resource; receiving, at the server, a message requesting exclusive permission to occupy at least a portion of the shared IoT resource from a member IoT device in the identified IoT device group; and transmitting, from the server to the member IoT device, a message indicating that the member IoT device has been granted the requested exclusive permission to occupy at least the portion of the shared IoT resource.
Sewing machine having a drive arrangement for the drive elements of a threader for threading the upper thread into the eye of the needle, comprising a needle bar carrying the needle, a needle bar carrier, which is designed such as to be able to be coupled to and decoupled from the needle bar, a presser foot on a presser foot bar, which presser foot can be moved from a rest position into a working position by a lifting lever, and comprising an additional pressure device which can be driven by an electric motor, a lifting drive for a threader that is mounted in a vertically displaceable manner, a threading hook which is arranged at the lower end of the threader and can pivot about a vertical axis, and a thread brake for regulating the thread tension, characterised in that, in order to lower the threader for the threading operation, the threader is designed such as to be able to be connected to the needle bar carrier when the needle bar carrier is decoupled from the needle bar.