mhurhangee/patent-ind-claim-en huggingface dataset:
An axial fan which comprises: a motor which includes a drive end , a non-drive end and a shaft which extends axially from the drive end , and an impeller which includes a number of impeller blades that extend radially; wherein in operation the motor spins the impeller to generate an airflow; the generated airflow moving in a direction from the non-drive end of the motor to the drive end of the motor; wherein the impeller further includes a cylindrical impeller cup from which the impeller blades extend radially, the impeller cup comprising an open upstream end and a closed downstream end which is connected to the shaft; wherein the impeller cup is configured to receive the motor therein and surround the drive end of the motor but not the non-drive end of the motor; whereby the non-drive end of the motor is exposed to the airflow during operation of the fan ; and wherein the motor is supported by a number of struts ; characterized in that the struts are connected to the motor at the drive end . a motor which includes a drive end , a non-drive end and a shaft which extends axially from the drive end , and an impeller which includes a number of impeller blades that extend radially; wherein in operation the motor spins the impeller to generate an airflow; the generated airflow moving in a direction from the non-drive end of the motor to the drive end of the motor; wherein the impeller further includes a cylindrical impeller cup from which the impeller blades extend radially, the impeller cup comprising an open upstream end and a closed downstream end which is connected to the shaft; wherein the impeller cup is configured to receive the motor therein and surround the drive end of the motor but not the non-drive end of the motor; whereby the non-drive end of the motor is exposed to the airflow during operation of the fan ; and wherein the motor is supported by a number of struts ;
A method for detecting an allergen in a sample, the method comprising treating the sample with a protease, and detecting the presence or absence of an allergen-derived polypeptide in the enzymatically treated sample by chromatographic separation analysis, wherein the allergen is buckwheat, and the allergen-derived polypeptide is any one or more of polypeptides consisting of amino acid sequences represented by SEQ ID NOs: 1 to 7.
A gateway, comprising: a receiving module , configured to receive a device management DM command for remotely managing a sensor network topology from a device management DM server that connects to a plurality of sensor devices within a sensor network via the gateway, wherein the DM command acts on a second management object MO node stored in a topology tree at the gateway, wherein the second MO node included in a preconstructed management object MO node, describes a characteristic of each of the plurality of the sensor devices and a connection relationship among the sensor devices, and wherein the topology tree corresponds to the sensor network topology; and a management module , configured to acquire the characteristic of each of the plurality of sensor devices and the connection relationship among the sensor devices stored in the second MO node, based on address information of the second MO node within the DM command, and to send said characteristic and said connection relationship to the DM server. a receiving module , configured to receive a device management DM command for remotely managing a sensor network topology from a device management DM server that connects to a plurality of sensor devices within a sensor network via the gateway, wherein the DM command acts on a second management object MO node stored in a topology tree at the gateway, wherein the second MO node included in a preconstructed management object MO node, describes a characteristic of each of the plurality of the sensor devices and a connection relationship among the sensor devices, and wherein the topology tree corresponds to the sensor network topology; and a management module , configured to acquire the characteristic of each of the plurality of sensor devices and the connection relationship among the sensor devices stored in the second MO node, based on address information of the second MO node within the DM command, and to send said characteristic and said connection relationship to the DM server.
An apparatus comprising at least one processor and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the processor, cause the apparatus to at least: determine an orientation of each of a plurality of segments of a multi-segment wearable accessory relative to an axis through the multi-segment wearable accessory; and determine a relative ordering of the plurality of segments of the multi-segment wearable accessory based upon the orientation of each of the plurality of segments relative to the axis; wherein one or more of the segments are removable relative to the multi-segment wearable accessory; and wherein determining the relative ordering comprises identifying segments adjacent to a particular segment and a sequence of adjacent segments. determine an orientation of each of a plurality of segments of a multi-segment wearable accessory relative to an axis through the multi-segment wearable accessory; and determine a relative ordering of the plurality of segments of the multi-segment wearable accessory based upon the orientation of each of the plurality of segments relative to the axis; wherein one or more of the segments are removable relative to the multi-segment wearable accessory; and wherein determining the relative ordering comprises identifying segments adjacent to a particular segment and a sequence of adjacent segments.
Heat exchanger plate comprising an edge , a groove running along the edge , and a corrugated area having tops and valleys between the groove and the edge , wherein the tops run substantially perpendicular to the edge and the groove comprises an external wall adjacent to the corrugated area and an internal wall , characterized in that the external wall is in form of a wavy shape.
A progress-suppressing or improving agent for use in a method of treating chronic kidney disease, the progress-suppressing or improving agent containing 5-hydroxy-1-methylimidazolidin-2,4-dione as an active ingredient, characterized in that , the method includes oral administration of the progress-suppressing or improving agent in a dose of 800 ± 200 mg of 5-hydroxy-1-methylimidazolidin-2,4-dione per day to a human patient with chronic kidney disease where a lowering in the reciprocal serum creatinine value per month is 0.01 dL/mg or more.
A biocompatible material comprising: an alginate having a weight-average molecular weight of 1 million or more; an aluminum compound; a carboxyvinyl polymer; and an oil-based base material, wherein the biocompatible material is substantially free of water. an alginate having a weight-average molecular weight of 1 million or more; an aluminum compound; a carboxyvinyl polymer; and an oil-based base material, wherein the biocompatible material is substantially free of water.
A method for reusing paint-saturated filter aid comprising: providing paint-saturated filter aid, wherein the paint-saturated filter aid comprises milled alkaline earth metal carbonate; and milling the paint-saturated filter aid to a predetermined size to produce milled particles. providing paint-saturated filter aid, wherein the paint-saturated filter aid comprises milled alkaline earth metal carbonate; and milling the paint-saturated filter aid to a predetermined size to produce milled particles.
A punching method comprising: punching out a plurality of electrical steel sheets in a stacked state by a mold, wherein sheet thicknesses of the electrical steel sheets are set to be 0.35 mm or less, a Vickers hardness (test force 1 kg) of the sheets is set to be 150 to 400, and an average crystal grain size of the sheets as determined by the method specified in the description is set to be 50 to 250 μm, a clearance of the mold is set to be 7% or more of a minimum sheet thickness of the sheet thicknesses of the electrical steel sheets and 7% or less of a total sheet thickness of the electrical steel sheets, and a pressure that a sheet presser of the mold applies to the electrical steel sheets is set to be 0.10 MPa or more. punching out a plurality of electrical steel sheets in a stacked state by a mold, wherein sheet thicknesses of the electrical steel sheets are set to be 0.35 mm or less, a Vickers hardness (test force 1 kg) of the sheets is set to be 150 to 400, and an average crystal grain size of the sheets as determined by the method specified in the description is set to be 50 to 250 μm, a clearance of the mold is set to be 7% or more of a minimum sheet thickness of the sheet thicknesses of the electrical steel sheets and 7% or less of a total sheet thickness of the electrical steel sheets, and a pressure that a sheet presser of the mold applies to the electrical steel sheets is set to be 0.10 MPa or more.
A pouring fitting for fitting onto a mouth portion of a container, the pouring fitting having a flow passage for flowing fluid substance , characterized in that said flow passage is forming a liquid-permeable surface in at least the tip portion thereof that serves as a pouring port , wherein said liquid-permeable surface is holding a liquid different from, and immiscible with, said fluid substance intended to be flowed through said flow passage , and wherein a covering ratio F with the liquid is 0.35 to 0.91, said covering ratio F being represented by the following formula , F = cos θ − cos θ B / cos θ A − cos θ B wherein θ is a water contact angle on the liquid-permeable surface holding the liquid different from the fluid substance , θ A is a water contact angle on the liquid different from the fluid substance , and θ B is a water contact angle on a surface of the flow passage forming no liquid-permeable surface. wherein θ is a water contact angle on the liquid-permeable surface holding the liquid different from the fluid substance , θ A is a water contact angle on the liquid different from the fluid substance , and θ B is a water contact angle on a surface of the flow passage forming no liquid-permeable surface.
Method for controlling a security system of a charging station for charging electric vehicles, the security system having the following elements: a charging plug , the charging plug having a sensor unit for detecting biometric data (D) of a user, which data are used to authenticate the user in the security system , and a control unit for evaluating biometric data (D) of the user, the control unit extracting a plurality of features (M1, M2, M3, M4, M5) from the biometric data (D) of the user, and the control unit evaluating the features (M1, M2, M3, M4, M5) of the biometric data (D) in a plurality of stages (I, II), characterized in that in a first stage, the evaluation makes it possible to roughly separate out erroneous authentication attempts, in a second stage the evaluation making it possible to carry out a refined evaluation of features (M1, M2, M3, M4, M5) of the biometric data (D), and, during the first stage (I) and the second stage (II), further steps being provided which make it possible to complete the evaluation rapidly, in that the plurality of stages (I, II) of the evaluation comprise a first stage (I) in which the features (M1, M2, M3, M4, M5) of the biometric data (D) are compared with corresponding threshold values (SW1, SW2, SW3, SW4, SW5), and in that the plurality of stages (I, II) of the evaluation comprise a second stage (II) in which the temporal progression of the biometric data (D) is analyzed by means of evaluation logic in order to detect gripping patterns for the purpose of authenticating the user. a charging plug , the charging plug having a sensor unit for detecting biometric data (D) of a user, which data are used to authenticate the user in the security system , and a control unit for evaluating biometric data (D) of the user, the control unit extracting a plurality of features (M1, M2, M3, M4, M5) from the biometric data (D) of the user, and the control unit evaluating the features (M1, M2, M3, M4, M5) of the biometric data (D) in a plurality of stages (I, II), characterized in that in a first stage, the evaluation makes it possible to roughly separate out erroneous authentication attempts, in a second stage the evaluation making it possible to carry out a refined evaluation of features (M1, M2, M3, M4, M5) of the biometric data (D), and, during the first stage (I) and the second stage (II), further steps being provided which make it possible to complete the evaluation rapidly, in that the plurality of stages (I, II) of the evaluation comprise a first stage (I) in which the features (M1, M2, M3, M4, M5) of the biometric data (D) are compared with corresponding threshold values (SW1, SW2, SW3, SW4, SW5), and in that the plurality of stages (I, II) of the evaluation comprise a second stage (II) in which the temporal progression of the biometric data (D) is analyzed by means of evaluation logic in order to detect gripping patterns for the purpose of authenticating the user.
A fuel injection control device that controls behavior of a fuel injection valve by detecting an injection characteristic of the fuel injection valve from physical quantity data relating to driving of the fuel injection valve , the fuel injection control device (20; 30) comprising: an input part (23; 33) to input the physical quantity data; an A/D conversion part (221; 321) that performs A/D conversion on the physical quantity data at a conversion timing having a predetermined time interval to acquire time series data; a detection part that detects a singular point with respect to a characteristic of the fuel injection valve from the time series data; and a variable control part that variably controls an input timing of the input part or a conversion timing of the A/D conversion part such that the conversion timing for the physical quantity data is shifted, wherein the A/D conversion part (221; 321) acquires a plurality of time series data by performing, at the conversion timing, A/D conversion on a plurality of physical quantity data input at an input timing before change and an input timing after change by the variable control part , or by performing A/D conversion on the physical quantity data at a conversion timing before change and at a conversion timing after change by the variable control part , and the detection part detects the singular point based on the plurality of time series data. an input part (23; 33) to input the physical quantity data; an A/D conversion part (221; 321) that performs A/D conversion on the physical quantity data at a conversion timing having a predetermined time interval to acquire time series data; a detection part that detects a singular point with respect to a characteristic of the fuel injection valve from the time series data; and a variable control part that variably controls an input timing of the input part or a conversion timing of the A/D conversion part such that the conversion timing for the physical quantity data is shifted, wherein the A/D conversion part (221; 321) acquires a plurality of time series data by performing, at the conversion timing, A/D conversion on a plurality of physical quantity data input at an input timing before change and an input timing after change by the variable control part , or by performing A/D conversion on the physical quantity data at a conversion timing before change and at a conversion timing after change by the variable control part , and the detection part detects the singular point based on the plurality of time series data.
A transport refrigeration system (TRS) , comprising: an undersized main power source configured to generate up to a maximum threshold power that is lower than an amount of power sufficient to run the TRS at a full cooling capacity, wherein the undersized main power source is not capable of supplying a sufficient amount of power by itself to run the TRS at the full cooling capacity; and a secondary power source configured to generate up to the maximum threshold power that is lower than the amount of power sufficient to run the TRS at the full cooling capacity, wherein the secondary power source is not capable of supplying a sufficient amount of power by itself to run the TRS at the full cooling capacity, a tertiary power source ; and a controller ; wherein the undersized main power source and the secondary power source are configured to cooperate with one another to supply power to the TRS at the full cooling capacity; wherein the controller is configured to determine whether a maximum current is drawn from the secondary power source; and wherein the tertiary power source is configured to supply power to the TRS to supplement the undersized main power source to allow the TRS to operate at the full cooling capacity when the controller determines that the maximum current is drawn from the secondary power source.
A method of processing an object by applying RF energy to the object placed in a cavity , the method comprising: applying RF energy to the cavity at a plurality of sets of respective values of one or more parameters that affect a field pattern in the cavity; characterised by receiving feedback on an average amount of energy absorbed or on an average power absorbed over the sets of respective values of one or more parameters that affect a field pattern in the cavity and monitoring the feedback during the processing to adjust energy application when a predetermined change in the feedback occurs. applying RF energy to the cavity at a plurality of sets of respective values of one or more parameters that affect a field pattern in the cavity; characterised by receiving feedback on an average amount of energy absorbed or on an average power absorbed over the sets of respective values of one or more parameters that affect a field pattern in the cavity and monitoring the feedback during the processing to adjust energy application when a predetermined change in the feedback occurs.
A method for monitoring a glucose concentration of a host using a continuous glucose sensor , the method comprising: receiving, from a continuous analyte sensor , a data stream comprising sensor data associated with the glucose concentration in a host; processing the data stream by comparing the sensor data from a first time period in a first mode and a second time period in a second mode; recording the data stream, wherein in the first mode the data stream is recorded without displaying any information associated with the data stream and wherein in the second mode the data stream is recorded and information associated with the data stream is displayed; triggering an alarm based at least in part on information associated with the processed data stream, wherein the alarm comprises a notification of a hypoglycemic event, wherein the alarm is triggerable in the first and second mode; and wherein the at least in part on information associated with the data stream further comprises certain defined measurement and operating conditions; and preparing and displaying a performance report disclosing changes in the sensor data over the first and second time periods. receiving, from a continuous analyte sensor , a data stream comprising sensor data associated with the glucose concentration in a host; processing the data stream by comparing the sensor data from a first time period in a first mode and a second time period in a second mode; recording the data stream, wherein in the first mode the data stream is recorded without displaying any information associated with the data stream and wherein in the second mode the data stream is recorded and information associated with the data stream is displayed; triggering an alarm based at least in part on information associated with the processed data stream, wherein the alarm comprises a notification of a hypoglycemic event, wherein the alarm is triggerable in the first and second mode; and wherein the at least in part on information associated with the data stream further comprises certain defined measurement and operating conditions; and preparing and displaying a performance report disclosing changes in the sensor data over the first and second time periods.
A fusion peptide in which a peptide comprising at least one motif sequence selected from the group consisting of an amino acid sequence shown in SEQ ID NO: 1, an amino acid sequence shown in SEQ ID NO: 2, and an amino acid sequence shown in SEQ ID NO: 3 is bound to an antigenic protein or an antigenic peptide.
Device for lifting and stabilizing loads, in particular suspension gear for vehicles or vehicle parts, composed of a frame as well as a cross-beam which lies below the latter and receives the load and, by way of lifting means fastened to the cross-beam , is adjustable for height, and which is able to be stabilized by means of two crossing telescopic struts that run substantially in an imaginary vertical plane parallel to the displacement direction of the frame and are pivotably articulated on the frame, on the one hand, and on the cross-beam , on the other hand, having in each case one internal tube and one external tube and in turn are connected to one another in a synchronized manner so as to counter undesirable length variations as a result of forces acting in the cross-beam longitudinal direction, characterized in that the connection of the telescopic struts is established by means of five form-fitting traction means , in that in each case one first form-fitting traction means in the internal tube of a telescopic strut is in each case mounted at both ends by way of a respective inner disc and an outer disc , in that a second form-fitting traction means is mounted on two rotatable discs so as to be horizontal between the two telescopic struts, in that the discs of the respective first traction means and of the second traction means that are in each case situated on one side are kinetically connected to one another in such a manner that rotating movements between both discs can be transmitted, and in that one further form-fitting traction means is in each case fastened in the two external tubes , said form-fitting traction means being kinetically connected to the inner disc of the respective first traction means such that a rotating movement of these first discs leads to a corresponding displacement of the respective telescopic strut. in that the connection of the telescopic struts is established by means of five form-fitting traction means , in that in each case one first form-fitting traction means in the internal tube of a telescopic strut is in each case mounted at both ends by way of a respective inner disc and an outer disc , in that a second form-fitting traction means is mounted on two rotatable discs so as to be horizontal between the two telescopic struts, in that the discs of the respective first traction means and of the second traction means that are in each case situated on one side are kinetically connected to one another in such a manner that rotating movements between both discs can be transmitted, and in that one further form-fitting traction means is in each case fastened in the two external tubes , said form-fitting traction means being kinetically connected to the inner disc of the respective first traction means such that a rotating movement of these first discs leads to a corresponding displacement of the respective telescopic strut.