mhurhangee/patent-ind-claim-en huggingface dataset:
A home appliance comprising at least one functional module, further comprising: a communication module , the communication module being adapted to receive a control instruction from a cloud server ; wherein the control instruction includes operation parameters for the functional module, which are identifiable by the functional module, and a drive module for driving the at least one functional module; characterized in that a control module of the home appliance is removed from the home appliance and virtualized and integrated into the cloud server, wherein the drive module is adapted to acquire the control instruction from the communication module and drive the at least one functional module according to the operation parameters included in the control instruction, so that the functional module of the home appliance can directly adjust its operating state according to the operation parameters included in the control instruction. a communication module , the communication module being adapted to receive a control instruction from a cloud server ; wherein the control instruction includes operation parameters for the functional module, which are identifiable by the functional module, and a drive module for driving the at least one functional module; characterized in that a control module of the home appliance is removed from the home appliance and virtualized and integrated into the cloud server, wherein the drive module is adapted to acquire the control instruction from the communication module and drive the at least one functional module according to the operation parameters included in the control instruction, so that the functional module of the home appliance can directly adjust its operating state according to the operation parameters included in the control instruction.
A mount for mounting a component to a gas turbine engine , comprising: a central portion configured to attach to the component ; and a flange circumscribing the central portion and configured to extend to the gas turbine engine , the flange including a fusible region that breaks at a predetermined load; wherein: the mount further comprises a retention element for retaining the component to the gas turbine engine ; and the fusible region is a fusible link , wherein the retention element includes two retention flanges configured to engage with each other when the fusible link breaks, the fusible link positioned between the two retention flanges . a central portion configured to attach to the component ; and a flange circumscribing the central portion and configured to extend to the gas turbine engine , the flange including a fusible region that breaks at a predetermined load; wherein: the mount further comprises a retention element for retaining the component to the gas turbine engine ; and the fusible region is a fusible link , wherein the retention element includes two retention flanges configured to engage with each other when the fusible link breaks, the fusible link positioned between the two retention flanges . the mount further comprises a retention element for retaining the component to the gas turbine engine ; and the fusible region is a fusible link , wherein the retention element includes two retention flanges configured to engage with each other when the fusible link breaks, the fusible link positioned between the two retention flanges .
A liquid discharge device comprising: a liquid discharge head configured to discharge a liquid from a discharge port ; and a maintenance device comprising: a moisturizing cap configured to contact a discharge face of the liquid discharge head with a first capping end ; a suction cap inside the moisturizing cap , the suction cap configured to contact the discharge face with a second capping end to suck a liquid from the discharge port in the discharge face , wherein the maintenance device further comprises: a holder including: a first holding portion connected to the moisturizing cap with an elastic member ; and a second holding portion contacting a base of the suction cap to support the suction cap , wherein the maintenance device further comprises a mover configured to move the holder to move the moisturizing cap and the suction cap toward and away from the discharge face in a contact-separation direction, characterized in that the mover moves the moisturizing cap to a first contact position at which the first capping end is in contact with the discharge face while the second capping end of the suction cap is separated from the discharge face , and the mover moves the suction cap to a second contact position at which the second capping end is in contact with the discharge face while the first capping end of the moisturizing cap is in contact with the discharge face . a liquid discharge head configured to discharge a liquid from a discharge port ; and a maintenance device comprising: a moisturizing cap configured to contact a discharge face of the liquid discharge head with a first capping end ; a suction cap inside the moisturizing cap , the suction cap configured to contact the discharge face with a second capping end to suck a liquid from the discharge port in the discharge face , wherein the maintenance device further comprises: a moisturizing cap configured to contact a discharge face of the liquid discharge head with a first capping end ; a suction cap inside the moisturizing cap , the suction cap configured to contact the discharge face with a second capping end to suck a liquid from the discharge port in the discharge face , wherein the maintenance device further comprises: a holder including: a first holding portion connected to the moisturizing cap with an elastic member ; and a second holding portion contacting a base of the suction cap to support the suction cap , wherein the maintenance device further comprises a mover configured to move the holder to move the moisturizing cap and the suction cap toward and away from the discharge face in a contact-separation direction, characterized in that the mover moves the moisturizing cap to a first contact position at which the first capping end is in contact with the discharge face while the second capping end of the suction cap is separated from the discharge face , and the mover moves the suction cap to a second contact position at which the second capping end is in contact with the discharge face while the first capping end of the moisturizing cap is in contact with the discharge face .
A tip dressing cutter attached to a rotary holder that is configured to rotate with a central axis of an electrode tip of spot welding being aligned with a rotation axis (C1) of the rotary holder , the tip dressing cutter being configured to contact a distal end of the electrode tip brought into proximity to the rotary holder during the rotation of the rotary holder to cut the distal end , comprising a rake face extending to intersect with a circumferential extent around the rotation axis (C1); a flank face configured to face the distal end of the electrode tip when the electrode tip is brought into proximity to the rotary holder ;and a cutting blade portion formed on a continuous portion of the rake face and the flank face and extending along a direction intersecting with the rotation axis (C1); characterized in further comprising a plurality of recessed grooves formed on the rake face to be spaced at predetermined intervals along a direction intersecting with the rotation axis (C1), the plurality of recessed grooves extending along a direction of the rotation axis (C1) to be open at the flank face ; wherein the cutting blade portion includes a first region made up of an intersecting portion of the rake face and the flank face and a second region made up of a peripheral edge portion of an opening portion of the recessed grooves at the flank face . a rake face extending to intersect with a circumferential extent around the rotation axis (C1); a flank face configured to face the distal end of the electrode tip when the electrode tip is brought into proximity to the rotary holder ;and a cutting blade portion formed on a continuous portion of the rake face and the flank face and extending along a direction intersecting with the rotation axis (C1); characterized in further comprising a plurality of recessed grooves formed on the rake face to be spaced at predetermined intervals along a direction intersecting with the rotation axis (C1), the plurality of recessed grooves extending along a direction of the rotation axis (C1) to be open at the flank face ; wherein the cutting blade portion includes a first region made up of an intersecting portion of the rake face and the flank face and a second region made up of a peripheral edge portion of an opening portion of the recessed grooves at the flank face .
An implant comprising a metal body having a ceramic coating, in which the ceramic coating material contains monoclinic and orthorhombic phases of zirconium oxide ZrO 2 , and at least one multi-metal phosphate from the group comprising I-IV metal phosphates.
A current transformer , comprising a magnetic core , a first primary-side winding , a second primary-side winding , and a first secondary-side winding , wherein the magnetic core comprises a first magnetic core structure , a second magnetic core structure , and a third magnetic core structure , wherein the first magnetic core structure is connected to the second magnetic core structure to constitute a first closed magnetic circuit , the first magnetic core structure is connected to the third magnetic core structure to constitute a second closed magnetic circuit , and the first magnetic core structure is a magnetic core structure common to the first closed magnetic circuit and the second closed magnetic circuit ; the first closed magnetic circuit passes through the first primary-side winding , and the second closed magnetic circuit passes through the second primary-side winding ; and the first secondary-side winding is wound around the first magnetic core structure . the magnetic core comprises a first magnetic core structure , a second magnetic core structure , and a third magnetic core structure , wherein the first magnetic core structure is connected to the second magnetic core structure to constitute a first closed magnetic circuit , the first magnetic core structure is connected to the third magnetic core structure to constitute a second closed magnetic circuit , and the first magnetic core structure is a magnetic core structure common to the first closed magnetic circuit and the second closed magnetic circuit ; the first closed magnetic circuit passes through the first primary-side winding , and the second closed magnetic circuit passes through the second primary-side winding ; and the first secondary-side winding is wound around the first magnetic core structure .
A method for processing data in a message, comprising: receiving a message sent by a first sender, wherein the message comprises first data in a first data type and second data in a second data type; identifying the first data type of the first data and the second data type of the second data; extracting a first data attribute of the first data from the message and a second data attribute of the second data from the message, wherein the first data attribute comprises the first sender of the message and the second data attribute comprises the first sender of the message; storing the first data in the first data type in a corresponding first function module and the second data in the second data type in a corresponding second function module according to a corresponding relationship, wherein the corresponding relationship comprises correspondence between data types and function modules; displaying the first data in a first preset form and the first sender in a specific display form; and displaying the second data in a second preset form and the first sender in the specific display form. receiving a message sent by a first sender, wherein the message comprises first data in a first data type and second data in a second data type; identifying the first data type of the first data and the second data type of the second data; extracting a first data attribute of the first data from the message and a second data attribute of the second data from the message, wherein the first data attribute comprises the first sender of the message and the second data attribute comprises the first sender of the message; storing the first data in the first data type in a corresponding first function module and the second data in the second data type in a corresponding second function module according to a corresponding relationship, wherein the corresponding relationship comprises correspondence between data types and function modules; displaying the first data in a first preset form and the first sender in a specific display form; and displaying the second data in a second preset form and the first sender in the specific display form.
A printhead assembly comprising a datum for positioning the printhead assembly relative to a component external to the printhead assembly , the datum comprising stationary first and second points; and characterised in that the datum further comprises a movable third point , the first, second and third points defining a datum plane for the printhead assembly , the stationary first and second points defining a line in the datum plane and the third point movable so that the datum plane pivots on the line in response to movement of the third point .
A method for preparing a granular conductive carbon black, characterized in that the method for preparing a granular conductive carbon black comprises: making a raw material of the conductive carbon black undergo, in sequence, moistening with deionized water of a temperature of 80 °C or higher; performing wet granulation and drying, wherein the wet granulation comprises uniformly mixing the deionized water with the raw material of the conductive carbon black having been moistened by the deionized water of a temperature of 80 °C or higher. making a raw material of the conductive carbon black undergo, in sequence, moistening with deionized water of a temperature of 80 °C or higher; performing wet granulation and drying, wherein the wet granulation comprises uniformly mixing the deionized water with the raw material of the conductive carbon black having been moistened by the deionized water of a temperature of 80 °C or higher.
A method for monitoring the health of an AC-DC power converter , said AC-DC power converter comprising: a bridge circuit comprising a first phase leg formed by connecting first and second power switches to each other in series and a second phase leg formed by connecting third and fourth power switches to each other in series the first phase leg and the second phase leg connected in parallel to each other via a top-side connection and a bottom-side connection ; said method characterised by : turning on all of said switches and providing power to said bridge circuit via a low power source provided either on a bridging connection between intermediate points of the phase legs or between the top-side connection and the bottom-side connection ; and measuring a first output voltage and a second output voltage, the first and second voltages being measured at either the top-side connection and the low-side connection , respectively, or at a bridging connection to the first phase leg and the second phase leg , respectively, wherein a change or imbalance between said first voltage and said second voltage indicates a degradation in the health of the power converter , and wherein said step of measuring said voltage output is performed as part of a power down sequence, said power down sequence comprising the following steps: performing a power-down sequence comprising removing a main power source from the power switches , connecting the low power source to the power switches and turning on all of said switches , and providing said power as a secondary power source to the switches a bridge circuit comprising a first phase leg formed by connecting first and second power switches to each other in series and a second phase leg formed by connecting third and fourth power switches to each other in series the first phase leg and the second phase leg connected in parallel to each other via a top-side connection and a bottom-side connection ; said method characterised by : turning on all of said switches and providing power to said bridge circuit via a low power source provided either on a bridging connection between intermediate points of the phase legs or between the top-side connection and the bottom-side connection ; and measuring a first output voltage and a second output voltage, the first and second voltages being measured at either the top-side connection and the low-side connection , respectively, or at a bridging connection to the first phase leg and the second phase leg , respectively, wherein a change or imbalance between said first voltage and said second voltage indicates a degradation in the health of the power converter , and wherein said step of measuring said voltage output is performed as part of a power down sequence, said power down sequence comprising the following steps: performing a power-down sequence comprising removing a main power source from the power switches , connecting the low power source to the power switches and turning on all of said switches , and providing said power as a secondary power source to the switches
Method for producing a cathode block as a multi-layer block, comprising the steps of a) providing a mixture of starting materials, comprising coke and pitch, wherein the coke comprises two types of coke which have different volume-change properties during carbonisation and/or graphitisation and/or cooling, wherein a first layer optionally contains a further carbonaceous material as the starting material and a second layer contains a fire-resistant hard material, in particular TiB2 as a further starting material, and optionally another carbonaceous material, b) shaping the layers to form a green body and c) carbonising the green body and graphitising the carbonised green body, without it being impregnated beforehand, to obtain a graphitised body, and cooling after graphitisation, wherein the hard material in step a) is present in a monomodal particle size distribution, having a d 50 between 10 and 20 μm, and wherein in step c), after graphitisation, the first layer has a bulk density of a carbon portion of more than 1.68 g/cm 3 and the second layer has a bulk density of more than 1.82 g/cm 3 . a) providing a mixture of starting materials, comprising coke and pitch, wherein the coke comprises two types of coke which have different volume-change properties during carbonisation and/or graphitisation and/or cooling, wherein a first layer optionally contains a further carbonaceous material as the starting material and a second layer contains a fire-resistant hard material, in particular TiB2 as a further starting material, and optionally another carbonaceous material, b) shaping the layers to form a green body and c) carbonising the green body and graphitising the carbonised green body, without it being impregnated beforehand, to obtain a graphitised body, and cooling after graphitisation, wherein the hard material in step a) is present in a monomodal particle size distribution, having a d 50 between 10 and 20 μm, and wherein in step c), after graphitisation, the first layer has a bulk density of a carbon portion of more than 1.68 g/cm 3 and the second layer has a bulk density of more than 1.82 g/cm 3 .
A method for checking a flexible line comprising at least one layer of armors surrounded with an external sheath , the external sheath delimiting an internal space receiving the layer of armors and comprising at least one medium (M) at the interface between the external sheath and the internal space , the method comprising: - the sending of an ultrasonic signal from the outside of the external sheath on a region to be checked of the external sheath , - the reception of the reflected signal (R) at the interface between the region to be checked of the external sheath and the internal space facing the region to be checked of the external sheath , characterized in that the method further comprises the analysis of the polarity of the reflected signal (R) at the interface and the determination , depending on the analyzed polarity, of at least the nature of the medium (M) at the interface. - the sending of an ultrasonic signal from the outside of the external sheath on a region to be checked of the external sheath , - the reception of the reflected signal (R) at the interface between the region to be checked of the external sheath and the internal space facing the region to be checked of the external sheath ,
A shock strut assembly , comprising: a strut cylinder ; a strut piston configured to telescope relative to the strut cylinder ; a first torque link pivotally coupled to the strut cylinder; a second torque link pivotally coupled to the first torque link and to the strut piston ; and a rotational position sensor configured to output a signal corresponding to an angle of at least one of the first torque link relative to the strut cylinder or the second torque link relative to the strut piston , characterised in that the rotational position sensor is oriented such that the rotational position sensor is rotated less than a predetermined number of degrees (D1°) from a null point of the rotational position sensor in response to a stroke length of the strut piston being less than a predetermined stroke length, and wherein the rotational position sensor is oriented such that the rotational position sensor is rotated more than the predetermined number of degrees (D1°) from the null point of the rotational position sensor in response to the stroke length of the strut piston being greater than the predetermined stroke length, and wherein the rotational position sensor exhibits a first error margin (E1) between the null point and the preselected number of degrees and a second error margin (E2) beyond the preselected number of degrees, the second error margin being greater than the first error margin. a strut cylinder ; a strut piston configured to telescope relative to the strut cylinder ; a first torque link pivotally coupled to the strut cylinder; a second torque link pivotally coupled to the first torque link and to the strut piston ; and a rotational position sensor configured to output a signal corresponding to an angle of at least one of the first torque link relative to the strut cylinder or the second torque link relative to the strut piston , characterised in that the rotational position sensor is oriented such that the rotational position sensor is rotated less than a predetermined number of degrees (D1°) from a null point of the rotational position sensor in response to a stroke length of the strut piston being less than a predetermined stroke length, and wherein the rotational position sensor is oriented such that the rotational position sensor is rotated more than the predetermined number of degrees (D1°) from the null point of the rotational position sensor in response to the stroke length of the strut piston being greater than the predetermined stroke length, and wherein the rotational position sensor exhibits a first error margin (E1) between the null point and the preselected number of degrees and a second error margin (E2) beyond the preselected number of degrees, the second error margin being greater than the first error margin.