mhurhangee/patent-ind-claim-en huggingface dataset:
A device for controlling and protecting against electrical failures in a power supply system of a three-phase network with a protective conductor, wherein the device comprises: - first acquisition means of each of the phases of the three-phase network; - second acquisition means of a signal from the protective conductor; characterized in that the device further comprises: - control means configured for detecting a voltage value between each of the phases and the protective conductor and determining a loss of ground reference if said voltage value exceeds a pre-established threshold; - at least one electrical cut-off element switchable between a closed state for conduction and an open state for interrupting power from the second acquisition means , wherein the switching from a closed state to an open state occurs as a result of the determination of the loss of ground reference; and - transmission means (8, 27 and 28) configured to transmit an electrical failure signal to external equipment, as a result of the determination of the loss of ground reference. - first acquisition means of each of the phases of the three-phase network; - second acquisition means of a signal from the protective conductor; - control means configured for detecting a voltage value between each of the phases and the protective conductor and determining a loss of ground reference if said voltage value exceeds a pre-established threshold; - at least one electrical cut-off element switchable between a closed state for conduction and an open state for interrupting power from the second acquisition means , wherein the switching from a closed state to an open state occurs as a result of the determination of the loss of ground reference; and - transmission means (8, 27 and 28) configured to transmit an electrical failure signal to external equipment, as a result of the determination of the loss of ground reference.
A bioplastic composition comprising biomass as a component comprising a. a plastic compound resin comprising i. 50-85 wt% of polybutylene succinate based on the total plastic compound resin weight ii. 10-50 wt% of polylactic acid based on the total plastic compound resin weight b. an additive selected from or comprising i. 1-80 parts per hundred plastic compound resin (phr) of biomass from coffee roasting process which is silver skin of coffee, and/or ii. 0.1-5 parts per hundred plastic compound resin (phr) of at least one fluoropolymer or fluoropolymer derivative as a friction reducing agent. a. a plastic compound resin comprising i. 50-85 wt% of polybutylene succinate based on the total plastic compound resin weight ii. 10-50 wt% of polylactic acid based on the total plastic compound resin weight i. 50-85 wt% of polybutylene succinate based on the total plastic compound resin weight ii. 10-50 wt% of polylactic acid based on the total plastic compound resin weight b. an additive selected from or comprising i. 1-80 parts per hundred plastic compound resin (phr) of biomass from coffee roasting process which is silver skin of coffee, and/or ii. 0.1-5 parts per hundred plastic compound resin (phr) of at least one fluoropolymer or fluoropolymer derivative as a friction reducing agent. i. 1-80 parts per hundred plastic compound resin (phr) of biomass from coffee roasting process which is silver skin of coffee, and/or ii. 0.1-5 parts per hundred plastic compound resin (phr) of at least one fluoropolymer or fluoropolymer derivative as a friction reducing agent.
A computer-implemented method to display an actual sized image of an object, the method comprising using a processor to: receive a representation of the object, the representation including measurements of the object in 3D space in reference to three mutually orthogonal axes X, Y and Z; determine a bounding box for the object to approximate the size and shape of the object, wherein the bounding box has dimensions along the X, Y, and Z axes and contains each point of the object, wherein the bounding box has a first dimension, E_Max[X], a second dimension, E_Max[Y] and a third dimension, E_Max[Z], wherein determining the bounding box comprises determining E_Max[X] by subtracting the minimum X coordinate of the object from the maximum X coordinate of the object, determining E_Max[Y] by subtracting the minimum Y coordinate of the object from the maximum Y coordinate of the object, determining E_Max[Z] by subtracting the minimum Z coordinate of the object from the maximum Z coordinate of the object, wherein the values of E_Max [X], E_Max[Y], E_Max[Z] have a unit of measurement; store the bounding box by storing E_Max[X], E_Max[Y] and E_Max[Z]; receive a size of a display, DPI_S, the size represented by pixels per the unit of measurement of the display; calculate an actual height of the object in pixels as E_Max[Y] * DPI_S; calculate an actual width of the object in pixels as E_Max[X] * DPI_S; scale an image of the object to an actual size based on the calculated actual height and the calculated actual width; and provide a projection of the scaled image of the object on the XY plane for display. receive a representation of the object, the representation including measurements of the object in 3D space in reference to three mutually orthogonal axes X, Y and Z; determine a bounding box for the object to approximate the size and shape of the object, wherein the bounding box has dimensions along the X, Y, and Z axes and contains each point of the object, wherein the bounding box has a first dimension, E_Max[X], a second dimension, E_Max[Y] and a third dimension, E_Max[Z], wherein determining the bounding box comprises determining E_Max[X] by subtracting the minimum X coordinate of the object from the maximum X coordinate of the object, determining E_Max[Y] by subtracting the minimum Y coordinate of the object from the maximum Y coordinate of the object, determining E_Max[Z] by subtracting the minimum Z coordinate of the object from the maximum Z coordinate of the object, wherein the values of E_Max [X], E_Max[Y], E_Max[Z] have a unit of measurement; store the bounding box by storing E_Max[X], E_Max[Y] and E_Max[Z]; receive a size of a display, DPI_S, the size represented by pixels per the unit of measurement of the display; calculate an actual height of the object in pixels as E_Max[Y] * DPI_S; calculate an actual width of the object in pixels as E_Max[X] * DPI_S; scale an image of the object to an actual size based on the calculated actual height and the calculated actual width; and provide a projection of the scaled image of the object on the XY plane for display.
A clutch control device comprising: an engine ; a transmission ; a clutch device configured to connect and disconnect motive power transmission between the engine and the transmission ; a clutch actuator configured to drive the clutch device and change a clutch capacity; a manual clutch operating element configured to enable the clutch device to be manually operated; and a control unit configured to calculate a target value of a control parameter of the clutch capacity in accordance with an amount of operation on the manual clutch operating element , wherein when the clutch device is operated on a connection side according to an operation on the manual clutch operating element and when a speed of the operation on the manual clutch operating element is higher than or equal to a predetermined specified speed, the control unit is configured to set the target value to a quick connection target value obtained by making a change to the connection side of the clutch device with respect to an operation correspondence target value according to the amount of operation on the manual clutch operating element , characterised in that a quick clutch connection mode in which the target value is set to the quick connection target value continues for a predetermined specified time period and/or when a rotational speed of the engine is higher than or equal to a predetermined specified rotational speed, the target value is set to the quick connection target value the specified time period changes with the speed of the operation on the manual clutch operating element . an engine ; a transmission ; a clutch device configured to connect and disconnect motive power transmission between the engine and the transmission ; a clutch actuator configured to drive the clutch device and change a clutch capacity; a manual clutch operating element configured to enable the clutch device to be manually operated; and a control unit configured to calculate a target value of a control parameter of the clutch capacity in accordance with an amount of operation on the manual clutch operating element , wherein when the clutch device is operated on a connection side according to an operation on the manual clutch operating element and when a speed of the operation on the manual clutch operating element is higher than or equal to a predetermined specified speed, the control unit is configured to set the target value to a quick connection target value obtained by making a change to the connection side of the clutch device with respect to an operation correspondence target value according to the amount of operation on the manual clutch operating element , characterised in that a quick clutch connection mode in which the target value is set to the quick connection target value continues for a predetermined specified time period and/or when a rotational speed of the engine is higher than or equal to a predetermined specified rotational speed, the target value is set to the quick connection target value the specified time period changes with the speed of the operation on the manual clutch operating element .
Method for testing and continuous tempering of a liquid, fat-containing, crystallizable confectionery mass, wherein a sample of the mass is extracted from the liquid mass before being tempered , further being cooled, crystallized and solidified, simultaneously providing a temper curve , characterized in that at least part of the size of the area above (9a, 10a, 11a, 12a, 12a+, 37) or below the temper curve is calculated, and in that the actual size of the area calculated is applied as representing the actual energy amount required to cool, crystallize and solidify the particular mass sample , that the actual size of the area calculated is applied in further production of mass articles as representing the actual energy amount required to cool, crystallize and solidify the particular mass, and in that during continuous tempering and solidification of the mass in a production line , samples are provided continuously from the tempered mass as the actual size of the area above or below the temper curve is continuously calculated by a computer and the tempering process is regulated so that the size of the area is maintained at a desired, constant level.
A cutting insert for milling square shoulders comprising: a top surface , a bottom surface and a peripheral side surface extending therebetween, the peripheral side surface comprising two pairs of opposing side surfaces (16-19), at least a first of said pairs of opposing side surfaces being provided with two opposing major cutting edges at the intersection of the respective side surface with the top surface and a second of said pairs of opposing side surfaces being provided with two opposing wiper edges at the intersection of the respective side surface with the top surface, each respective wiper edge being connected to its associated major cutting edge at one end of the respective side surface, each of said opposing side surfaces of said at least first pair of opposing side surfaces comprising two generally flat and non-coplanar support surfaces (23-26) arranged consecutively with respect to a direction of the extension of the respective said major cutting edge and making different angles (α, β) with a normal (N) to said bottom surface , characterized in that an upper border forming a limit of said support surfaces (23-26) of each said side surface most distant to said bottom surface is inclined with respect to said bottom surface so that the distance of said upper border to said bottom surface increases in a direction of extension of said major cutting edge towards said wiper edge connected to this associated major cutting edge. a top surface , a bottom surface and a peripheral side surface extending therebetween, the peripheral side surface comprising two pairs of opposing side surfaces (16-19), at least a first of said pairs of opposing side surfaces being provided with two opposing major cutting edges at the intersection of the respective side surface with the top surface and a second of said pairs of opposing side surfaces being provided with two opposing wiper edges at the intersection of the respective side surface with the top surface, each respective wiper edge being connected to its associated major cutting edge at one end of the respective side surface, each of said opposing side surfaces of said at least first pair of opposing side surfaces comprising two generally flat and non-coplanar support surfaces (23-26) arranged consecutively with respect to a direction of the extension of the respective said major cutting edge and making different angles (α, β) with a normal (N) to said bottom surface , characterized in that an upper border forming a limit of said support surfaces (23-26) of each said side surface most distant to said bottom surface is inclined with respect to said bottom surface so that the distance of said upper border to said bottom surface increases in a direction of extension of said major cutting edge towards said wiper edge connected to this associated major cutting edge.
A process of manufacturing a chromium alloyed molybdenum silicide portion of a heating element comprising the steps of: - forming a mixture of a chromium powder and a silicon powder; - reacting the mixture to a reaction product in an inert atmosphere at a temperature of at least 1100°C but not more than 1580°C; - converting the reaction product to a powder comprising CrSi 2 ; - forming a powder ceramic composition by mixing the powder comprising CrSi 2 with a MoSi 2 powder and optionally with an extrusion aid; - forming the portion of the heating element; and - sintering the portion of the heating element in a temperature of from 1450°C plus or minus 10% to 1700°C plus or minus 10%; characterized in that the chromium powder and the silicon powder are provided separately to the mixture. - forming a mixture of a chromium powder and a silicon powder; - reacting the mixture to a reaction product in an inert atmosphere at a temperature of at least 1100°C but not more than 1580°C; - converting the reaction product to a powder comprising CrSi 2 ; - forming a powder ceramic composition by mixing the powder comprising CrSi 2 with a MoSi 2 powder and optionally with an extrusion aid; - forming the portion of the heating element; and - sintering the portion of the heating element in a temperature of from 1450°C plus or minus 10% to 1700°C plus or minus 10%;
A method, performed by a user equipment, UE, for managing the UE's secondary serving cells, SCells, in a wireless network, the method comprising: receiving , from a first network node in the wireless network, a message to suspend a connection with the first network node, wherein: the connection is via a plurality of configured cells including a primary serving cell, PCell, and one or more SCells, and the SCells have respective first SCell states; in response to the suspend message, suspending the connection; and receiving , from the first network node or a second network node in the wireless network, a message to resume the connection, wherein the resume message includes indication of respective second SCell states for one or more of the following: the one or more SCells, and one or more further SCells to be added to the configured cells upon resuming the connection, wherein the indication indicates that, upon resuming the connection, the UE should determine the respective second SCell states for the one or more SCells based on signal quality measurements. receiving , from a first network node in the wireless network, a message to suspend a connection with the first network node, wherein: the connection is via a plurality of configured cells including a primary serving cell, PCell, and one or more SCells, and the SCells have respective first SCell states; the connection is via a plurality of configured cells including a primary serving cell, PCell, and one or more SCells, and the SCells have respective first SCell states; in response to the suspend message, suspending the connection; and receiving , from the first network node or a second network node in the wireless network, a message to resume the connection, wherein the resume message includes indication of respective second SCell states for one or more of the following: the one or more SCells, and one or more further SCells to be added to the configured cells upon resuming the connection, wherein the indication indicates that, upon resuming the connection, the UE should determine the respective second SCell states for the one or more SCells based on signal quality measurements. the one or more SCells, and one or more further SCells to be added to the configured cells upon resuming the connection, wherein the indication indicates that, upon resuming the connection, the UE should determine the respective second SCell states for the one or more SCells based on signal quality measurements.
Corrugated cardboard plant, comprising a) at least one corrugated cardboard production device for producing at least one corrugated cardboard web laminated on one side, having a respective corrugated web and cover web ; b) a connection device , disposed downstream of the at least one corrugated cardboard production device , for connecting the at least one corrugated cardboard web laminated on one side and a lamination web to one another, while forming an at least three-ply corrugated cardboard web ; and c) at least one cutting device for generating corrugated cardboard sheets from the at least three-ply corrugated cardboard web , d) at least one individual code reading device (77, 78, 79; 94, 98, 102) for reading corrugated cardboard sheet individual codes on at least one of the webs of the at least three-ply corrugated cardboard web and/or on at least one of the webs for forming the at least three-ply corrugated cardboard web and/or on the corrugated cardboard sheets and e) at least one corrugated cardboard plant control device (83; 92, 96, 100) being connected in terms of information with the at least one individual code reading device (77, 78, 79; 94, 98, 102), characterized in that f) the at least one corrugated cardboard plant control device (83; 92) is capable of individually actuating a short transverse cutting device for diverting a defective piece of the at least three-ply corrugated cardboard web in a manner corresponding to the at least one read associated corrugated cardboard sheet individual code . a) at least one corrugated cardboard production device for producing at least one corrugated cardboard web laminated on one side, having a respective corrugated web and cover web ; b) a connection device , disposed downstream of the at least one corrugated cardboard production device , for connecting the at least one corrugated cardboard web laminated on one side and a lamination web to one another, while forming an at least three-ply corrugated cardboard web ; and c) at least one cutting device for generating corrugated cardboard sheets from the at least three-ply corrugated cardboard web , d) at least one individual code reading device (77, 78, 79; 94, 98, 102) for reading corrugated cardboard sheet individual codes on at least one of the webs of the at least three-ply corrugated cardboard web and/or on at least one of the webs for forming the at least three-ply corrugated cardboard web and/or on the corrugated cardboard sheets and e) at least one corrugated cardboard plant control device (83; 92, 96, 100) being connected in terms of information with the at least one individual code reading device (77, 78, 79; 94, 98, 102), characterized in that f) the at least one corrugated cardboard plant control device (83; 92) is capable of individually actuating a short transverse cutting device for diverting a defective piece of the at least three-ply corrugated cardboard web in a manner corresponding to the at least one read associated corrugated cardboard sheet individual code .
A washing machine with a leg rubber of a vulcanized anti-vibration rubber, wherein in temperature variance measurement of dynamic viscoelasticity at a frequency of 10 Hz, said vulcanized anti-vibration rubber has a maximum loss factor at a temperature of 0°C to 40 °C, both inclusive, and said vulcanized anti-vibration rubber has a loss factor of 0.5 or more in an entire temperature range of 0°C to 40°C, both inclusive, at the frequency of 10 Hz, wherein the measurement of the loss factor is carried out according to JIS K 6394 under the following conditions: test pieces of 15 mm long, 5 mm wide, and 2 mm thick are used and strained in the vertical direction at a test interval of 10 mm, initial strain of 1 mm, amplitude of ±2 μm, and a frequency of 10 Hz, the washing machine comprising a wash tub holding therein a spin tab that turns, and an outer cabinet accommodating the wash tub and having a natural frequency at less than 1,000 rpm, said vulcanized anti-vibration rubber contains a polymer component, mainly containing butyl rubber, wherein said vulcanized anti-vibration rubber further contains a tackifying resin having a melting point of 120 °C or higher.