mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for forming a non-pneumatic tire carcass comprising an inner hub , an outer band , and a plurality of spokes extending between the inner hub and the outer band , the inner hub and outer band each being annular, the inner hub being arranged radially inward of the outer band , each of the inner hub and the outer band having a width (W 20 , W 30 ) extending in an axial direction (A d ) and defined by opposing lateral sides , characterised by the apparatus comprising: a first support base (110 1 ) having a first outer band abutment and a first inner hub abutment ; a second support base (110 2 ) having a second outer band abutment and a second inner hub abutment ; a first plurality of elongate spoke supports extending axially from the first support base (110 1 ) and to the second support base (110 2 ), the first plurality arranged in a first annular array; a second plurality of elongate spoke supports extending axially from the first support base (110 1 ) and to the second support base (110 2 ), the second plurality arranged in a second annular array, the first plurality being arranged concentrically within the second plurality ; each of the first and second plurality of elongate spoke supports having at least one spoke-engaging portion ; and, a plurality of radially-extendable members arranged between the first plurality of elongate spoke supports and the second plurality of elongate spoke supports , where one or more radially-extendable members of the plurality of radially extendable members are arranged on opposing axial sides of the spoke-engaging portions of each of the first and second plurality of elongate spoke supports . a first support base (110 1 ) having a first outer band abutment and a first inner hub abutment ; a second support base (110 2 ) having a second outer band abutment and a second inner hub abutment ; a first plurality of elongate spoke supports extending axially from the first support base (110 1 ) and to the second support base (110 2 ), the first plurality arranged in a first annular array; a second plurality of elongate spoke supports extending axially from the first support base (110 1 ) and to the second support base (110 2 ), the second plurality arranged in a second annular array, the first plurality being arranged concentrically within the second plurality ; each of the first and second plurality of elongate spoke supports having at least one spoke-engaging portion ; and, a plurality of radially-extendable members arranged between the first plurality of elongate spoke supports and the second plurality of elongate spoke supports , where one or more radially-extendable members of the plurality of radially extendable members are arranged on opposing axial sides of the spoke-engaging portions of each of the first and second plurality of elongate spoke supports .
A laminate comprising a support, a resin layer formed on the support, a metal layer formed on the resin layer, an insulating layer and a redistribution layer formed on the metal layer, the resin layer comprising a photo-decomposable resin having light-shielding properties and having a transmittance of up to 20% with respect to light of wavelength 355 nm, measured according to the method specified in the description, wherein the resin layer is formed of a cured product of a resin composition (A) comprising a resin (A) comprising repeating units having the formula : wherein R 1 to R 3 are each independently hydrogen, hydroxyl or a C 1 -C 20 monovalent organic group, at least one of R 1 to R 3 being hydroxyl, and R 4 is hydrogen or an optionally substituted C 1 -C 30 monovalent organic group.
A method for providing Internet protocol, IP services based at least in part on a domain for a mobile device, comprising: receiving a domain identifier related to a user of a mobile device indicating compatible IP protocols that can be utilized by the device to communicate in the domain from an authentication, authorization, and accounting, AAA server following authentication/authorization of the mobile device by the AAA server ; determining , based at least in part on the received domain identifier, one or more IP protocols compatible with the domain according to the domain identifier, wherein the one or more compatible IP protocols include a simple and/or a mobile IP protocol; and configuring communication parameters related to the one or more IP protocols for the mobile device to facilitate subsequent communication in the domain; wherein the authentication of the mobile device comprises additional authentication for a user of the mobile device at a disparate AAA server , wherein the authentication for the user from the disparate AAA server is obtained by determining and configuring a protocol compatible with the domain of the disparate AAA server based on protocol authorization information provided by the AAA server and facilitating communication between the mobile device and the disparate AAA server based on the determined protocol compatible with the domain of the disparate AAA server. receiving a domain identifier related to a user of a mobile device indicating compatible IP protocols that can be utilized by the device to communicate in the domain from an authentication, authorization, and accounting, AAA server following authentication/authorization of the mobile device by the AAA server ; determining , based at least in part on the received domain identifier, one or more IP protocols compatible with the domain according to the domain identifier, wherein the one or more compatible IP protocols include a simple and/or a mobile IP protocol; and configuring communication parameters related to the one or more IP protocols for the mobile device to facilitate subsequent communication in the domain; wherein the authentication of the mobile device comprises additional authentication for a user of the mobile device at a disparate AAA server , wherein the authentication for the user from the disparate AAA server is obtained by determining and configuring a protocol compatible with the domain of the disparate AAA server based on protocol authorization information provided by the AAA server and facilitating communication between the mobile device and the disparate AAA server based on the determined protocol compatible with the domain of the disparate AAA server.
A heat keeping apparatus for a rolling transfer line comprising: a heat keeping cover configured to cover and heat the outside of a material being transferred along the transfer line, wherein the heat keeping cover comprises: an upper cover part provided to cover an upper side of the material ; characterized by first and second side cover parts provided to cover sides of the material and rotatably connected to opposite sides of the upper cover part; and at least one actuating part provided to adjust unfolding of the first or second side cover part by rotating the first or second side cover part. a heat keeping cover configured to cover and heat the outside of a material being transferred along the transfer line, wherein the heat keeping cover comprises: an upper cover part provided to cover an upper side of the material ; characterized by first and second side cover parts provided to cover sides of the material and rotatably connected to opposite sides of the upper cover part; and at least one actuating part provided to adjust unfolding of the first or second side cover part by rotating the first or second side cover part. an upper cover part provided to cover an upper side of the material ; characterized by first and second side cover parts provided to cover sides of the material and rotatably connected to opposite sides of the upper cover part; and at least one actuating part provided to adjust unfolding of the first or second side cover part by rotating the first or second side cover part.
A test result evaluating method for evaluating a reliability of a test result in a material test in which a test force is applied to a test subject (TP) by driving a load mechanism and a signal is detected by a force detector , the test result evaluating method comprising: selecting a predetermined time period within a time period in which there is a state in which the test force is being applied to the test subject; setting section data as being test data within said predetermined time period, wherein the test data are based on the signal detected by the force detector; and a representative value calculating process of calculating a representative value of the section data; a ratio calculating process of calculating a load natural vibration amplitude ratio that is a ratio between the representative value acquired in the representative value calculating process and a value based on an amplitude of a natural vibration; and a determination process of determining the reliability of the test result on the basis of the load natural vibration amplitude ratio. selecting a predetermined time period within a time period in which there is a state in which the test force is being applied to the test subject; setting section data as being test data within said predetermined time period, wherein the test data are based on the signal detected by the force detector; and a representative value calculating process of calculating a representative value of the section data; a ratio calculating process of calculating a load natural vibration amplitude ratio that is a ratio between the representative value acquired in the representative value calculating process and a value based on an amplitude of a natural vibration; and a determination process of determining the reliability of the test result on the basis of the load natural vibration amplitude ratio.
A urea water supply system including: a urea water injection valve ; a tank ; and a pump ; and including: a temperature raising device configured to raise a temperature of urea water (U1); a state acquisition device configured to acquire a state related to freezing of the urea water (U1); a control device which is connected to the urea water injection valve , the temperature raising device , and the state acquisition device , wherein the temperature of the urea water (U1) is raised by the temperature raising device when the control device is activated and wherein injection by the urea water injection valve is started if a result of determination whether the injection of the urea water (U1) by the urea water injection valve is permitted is positive in the control device based on a state of the urea water (U1) acquired from the state acquisition device , the urea water supply system comprising a heat generation temperature acquisition device , configured to acquire a heat generation temperature of the temperature raising device , wherein the control device is configured to be able to store the determination result, characterized in that after the system control on the urea water supply system including the temperature raising by the temperature raising device , the determination of the permission, and injection by the urea water injection valve is stopped and then a stop period is elapsed, when a system control is restarted from temperature raising by the temperature raising device , a shortening setting to shorten a time required for the determination of the permission is performed by the control device based on the determination result, which is stored in a time when the system control is stopped, and the heat generation temperature, which is acquired by the heat generation temperature acquisition device immediately after restarting.
Adaptor for connecting a windscreen wiper unit to a driving arm , the adaptor comprising two substantially parallel walls connected together by means of at least one connecting element , said walls having first, inner, lateral faces between which said at least one connecting element extends, and outer lateral faces , said adaptor further having at least one stop element which is mounted on one of said walls, which projects at least partially from said outer lateral face of this wall, and which is connected by a hinge to said wall , said at least one element being movable between an operational stop position and a non-operational position, said hinge defining a hinging axis of the element, which is substantially parallel to an elongation axis of the adaptor, characterized in that said wall comprises a first upper longitudinal edge having a longitudinal end connected to an upper end of a second edge which is substantially perpendicular to said first edge and a lower end of which is connected to a longitudinal end of a third upper longitudinal edge , and said at least one element is connected to said third upper longitudinal edge.
A method for selecting an adhesive having excellent folding stability, which comprises measuring an initial stress and a strain recovery of the adhesive by using a dynamic mechanical analyzer (DMA) at a strain of 12% and a temperature of -20 °C for a strain time of 10 min and a recovery time of 20 min, and then calculating a predictive folding stability value of the adhesive by using Equation 1 below: Predictive folding stability = 1.587 × 10 19 Strain recovery − 4.722 Initial stress − 1.304 , wherein the predictive folding stability value is 40000 or more.
A characterization apparatus , comprising: an imaging location configured to receive a specimen container containing a specimen , wherein the specimen includes a settled blood portion and a serum or plasma portion; a light source configured to provide lighting of the imaging location ; a hyperspectral image capture device comprising a spectrally-resolving element and a spectral image capture device , the hyperspectral image capture device configured to generate and capture a spectrally-resolved image of a portion of the specimen container and specimen at the spectral image capture device ; and a computer configured and operable to process the spectrally-resolved image received at the spectral image capture device and determine a presence or absence of an interferent, the interferent being hemolysis, icterus and/or lipemia and at least one of: segmentation of the specimen , or segmentation of the specimen container and the specimen . an imaging location configured to receive a specimen container containing a specimen , wherein the specimen includes a settled blood portion and a serum or plasma portion; a light source configured to provide lighting of the imaging location ; a hyperspectral image capture device comprising a spectrally-resolving element and a spectral image capture device , the hyperspectral image capture device configured to generate and capture a spectrally-resolved image of a portion of the specimen container and specimen at the spectral image capture device ; and a computer configured and operable to process the spectrally-resolved image received at the spectral image capture device and determine a presence or absence of an interferent, the interferent being hemolysis, icterus and/or lipemia and at least one of: segmentation of the specimen , or segmentation of the specimen container and the specimen . segmentation of the specimen , or segmentation of the specimen container and the specimen .
A stimulation device for use in applying His bundle pacing of a patient's heart , the stimulation device comprising: a housing containing a memory and a controller ; a His bundle lead coupleable to each of the housing and the patient's heart and a His bundle of the patient's heart ; and a ventricular lead coupleable to each of the housing and a ventricle of the patient's heart ; wherein the controller is configured to: apply, through the His bundle lead , a pacing impulse to the His bundle ; and measure, using the ventricular lead , a response of the patient's heart to application of the impulse, the response including a response of the ventricle , characterized in that the controller is also configured to: calculate a ventricular delay, the ventricular delay being a time from application of the pacing impulse to onset of the response of the ventricle ; and apply, using the ventricular lead , a backup impulse to the ventricle when at least the ventricular delay exceeds a delay value stored in the memory . a housing containing a memory and a controller ; a His bundle lead coupleable to each of the housing and the patient's heart and a His bundle of the patient's heart ; and a ventricular lead coupleable to each of the housing and a ventricle of the patient's heart ; wherein the controller is configured to: apply, through the His bundle lead , a pacing impulse to the His bundle ; and measure, using the ventricular lead , a response of the patient's heart to application of the impulse, the response including a response of the ventricle , characterized in that the controller is also configured to: calculate a ventricular delay, the ventricular delay being a time from application of the pacing impulse to onset of the response of the ventricle ; and apply, using the ventricular lead , a backup impulse to the ventricle when at least the ventricular delay exceeds a delay value stored in the memory . apply, through the His bundle lead , a pacing impulse to the His bundle ; and measure, using the ventricular lead , a response of the patient's heart to application of the impulse, the response including a response of the ventricle , characterized in that the controller is also configured to: calculate a ventricular delay, the ventricular delay being a time from application of the pacing impulse to onset of the response of the ventricle ; and apply, using the ventricular lead , a backup impulse to the ventricle when at least the ventricular delay exceeds a delay value stored in the memory . calculate a ventricular delay, the ventricular delay being a time from application of the pacing impulse to onset of the response of the ventricle ; and apply, using the ventricular lead , a backup impulse to the ventricle when at least the ventricular delay exceeds a delay value stored in the memory .
An electronic cigarette, comprising: an atomization assembly (A) and a battery assembly (B); the atomization assembly being disposed on the battery assembly; the atomization assembly comprising an e-liquid storage tank and a limit cover disposed in the e-liquid storage tank , and the limit cover comprising an air intake and an air passage; wherein: the e-liquid storage tank comprises a side wall, a vertical air passage disposed along the side wall, and a bottom air passage communicating with the vertical air passage and the air intake of the limit cover; and the side wall comprises an air inlet communicating with the vertical air passage; and when in use, air enters the atomization assembly via the air inlet, sinks along the vertical air passage and enters the bottom air passage of the atomization assembly, passes through the air intake of the limit cover, flows upwards in the air passage of the limit cover, and discharges from a top part of the atomization assembly; characterised in that: the atomization assembly further comprises a memory foam , a heating wire , and a fixed seat ; the memory foam is wrapped around the heating wire and disposed in the fixed seat . the e-liquid storage tank comprises a side wall, a vertical air passage disposed along the side wall, and a bottom air passage communicating with the vertical air passage and the air intake of the limit cover; and the side wall comprises an air inlet communicating with the vertical air passage; and when in use, air enters the atomization assembly via the air inlet, sinks along the vertical air passage and enters the bottom air passage of the atomization assembly, passes through the air intake of the limit cover, flows upwards in the air passage of the limit cover, and discharges from a top part of the atomization assembly;
A motorized suction head comprising a roller , the roller being rotatable and being configured to rub the surface to be cleaned, an electric motor and a transmission for connecting the roller to the electric motor so as to rotate the roller , an on/off switch for starting and stopping the rotation of the motor , wherein the suction head further comprises a speed selector for selecting one of a plurality of rotation speeds (V1, V2, V3, V4) of the electric motor , characterized in that the suction head further comprises an electronic board programmed to provide a rising ramp when the electric motor is turned on and/or a falling ramp when the electric motor is turned off.
A powder bed sensing system, comprising: a defect detection eddy current sensor array configured to be movably coupled with respect to a powder bed and to generate a first plurality of sensor signals while moving over a workpiece in the powder bed; a workpiece edge detection eddy current sensor array configured to be movably coupled with respect to the powder bed and to generate a second plurality of sensor signals while moving over the workpiece in the powder bed; and a controller coupled to the defect detection eddy current sensor array and the workpiece edge detection eddy current sensor array, and configured to: determine, based on the first plurality of sensor signals, a workpiece material layer quality of a current material layer of the workpiece; determine, based on the second plurality of sensor signals, a workpiece edge location quality of the current material layer of the workpiece; and initiate an action based on at least one of the workpiece material layer quality and the workpiece edge location quality. a defect detection eddy current sensor array configured to be movably coupled with respect to a powder bed and to generate a first plurality of sensor signals while moving over a workpiece in the powder bed; a workpiece edge detection eddy current sensor array configured to be movably coupled with respect to the powder bed and to generate a second plurality of sensor signals while moving over the workpiece in the powder bed; and a controller coupled to the defect detection eddy current sensor array and the workpiece edge detection eddy current sensor array, and configured to: determine, based on the first plurality of sensor signals, a workpiece material layer quality of a current material layer of the workpiece; determine, based on the second plurality of sensor signals, a workpiece edge location quality of the current material layer of the workpiece; and initiate an action based on at least one of the workpiece material layer quality and the workpiece edge location quality. determine, based on the first plurality of sensor signals, a workpiece material layer quality of a current material layer of the workpiece; determine, based on the second plurality of sensor signals, a workpiece edge location quality of the current material layer of the workpiece; and initiate an action based on at least one of the workpiece material layer quality and the workpiece edge location quality.