mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a Unified Data Management or User Data Repository, the method for determining remote unit behavior parameters, the method comprising: receiving from an Application Function or a Network Exposure Function, a message comprising parameters associated with an application in a remote unit; determining a first set of parameters comprising a first portion of the parameters, wherein each parameter of the first set of parameters corresponds to a remote unit behavior; transmitting the first set of parameters to an access and mobility management function; determining a second set of parameters comprising a second portion of the parameters, wherein each parameter of the second set of parameters corresponds to an application behavior; associating the second set of parameters with a data network name, a single network slice selection assistance information, or a combination thereof; and transmitting the second set of parameters to a session management function. receiving from an Application Function or a Network Exposure Function, a message comprising parameters associated with an application in a remote unit; determining a first set of parameters comprising a first portion of the parameters, wherein each parameter of the first set of parameters corresponds to a remote unit behavior; transmitting the first set of parameters to an access and mobility management function; determining a second set of parameters comprising a second portion of the parameters, wherein each parameter of the second set of parameters corresponds to an application behavior; associating the second set of parameters with a data network name, a single network slice selection assistance information, or a combination thereof; and transmitting the second set of parameters to a session management function.
A battery module, comprising: a battery body; an outer housing, the battery body being disposed in the outer housing; a heat conduction assembly, the heat conduction assembly being connected between the outer housing and the battery body in a heat conduction manner; a first heating member, the first heating member being connected to the battery body and configured to heat the battery body; a second heating member, the second heating member being connected to the heat conduction assembly and configured to heat the heat conduction assembly; a temperature sensor, the temperature sensor being configured to detect a temperature of the battery body and generate a temperature signal according to the detected temperature of the battery body; and a control assembly, the control assembly being electrically connected to the first heating member, the second heating member and the temperature sensor separately, and being configured to receive the temperature signal and control the first heating member and the second heating member according to the temperature signal. a battery body; an outer housing, the battery body being disposed in the outer housing; a heat conduction assembly, the heat conduction assembly being connected between the outer housing and the battery body in a heat conduction manner; a first heating member, the first heating member being connected to the battery body and configured to heat the battery body; a second heating member, the second heating member being connected to the heat conduction assembly and configured to heat the heat conduction assembly; a temperature sensor, the temperature sensor being configured to detect a temperature of the battery body and generate a temperature signal according to the detected temperature of the battery body; and a control assembly, the control assembly being electrically connected to the first heating member, the second heating member and the temperature sensor separately, and being configured to receive the temperature signal and control the first heating member and the second heating member according to the temperature signal.
An endoprosthesis designed for delivery into a body lumen, the endoprosthesis being formed of a polymer, wherein the polymer of the endoprosthesis includes cross-linked polycyclooctene, wherein the endoprosthesis is in a collapsed state so that the endoprosthesis can be delivered into the body lumen, and wherein the endoprosthesis is capable of reverting from the collapsed state to an expanded state when warmed after delivery to the body lumen.
A needle-less fluid injection mechanism , comprising: a nozzle head for accepting a dose of fluid to be injected into the skin of a patient; a plunger that is adapted to be pushed into the nozzle to inject the dose of fluid from the nozzle ; a hammer that is adapted to be thrust at and to collide with said plunger to cause the release of a first amount of fluid from the nozzle at a high pressure and then to release the rest of the fluid from the nozzle by continuing to push said plunger at a lower pressure until injecting the entire dose of fluid ; characterized in that the needle-less fluid injection mechanism further comprises a position motor to position said plunger before thrusting said hammer . a nozzle head for accepting a dose of fluid to be injected into the skin of a patient; a plunger that is adapted to be pushed into the nozzle to inject the dose of fluid from the nozzle ; a hammer that is adapted to be thrust at and to collide with said plunger to cause the release of a first amount of fluid from the nozzle at a high pressure and then to release the rest of the fluid from the nozzle by continuing to push said plunger at a lower pressure until injecting the entire dose of fluid ; characterized in that the needle-less fluid injection mechanism further comprises a position motor to position said plunger before thrusting said hammer .
Baler having a longitudinal direction extending in the traveling direction of the baler, and a transverse direction, the baler comprising a frame, a gearbox , and a cross member extending in the transverse direction for coupling a top part of the gearbox to the frame and having a first end coupled to the frame and a second end coupled to the frame , wherein said top part of the gearbox is coupled to the cross member between said first end and said second end ; the cross member is provided with a coupling flange (216; 316a,316b) extending perpendicular on the transverse direction, wherein said coupling flange is coupled with the top part of the gearbox ; characterized in that the coupling flange (216; 316a,316b) is clamped around the cross member in a weld-free manner.
A computer-implemented method of proving automatic quality control of a clinical diagnostic process, the method comprising: acquiring test data from one or more laboratory instruments; analyzing said test data by applying a patient monitoring rule to said test data; generating an internal alert signal when said test data exceeds a predetermined error threshold as calculated by said patient monitoring rule, wherein said patient monitoring rule comprises a Biometric Quality Control process, an exponentially weighted moving average (EWMA) rule, a cumulative sum control chart (CUSUM) rule, or combinations thereof; applying a confirmation rule to said test data in response to said internal alert signal; and generating an operator alert signal if said confirmation rule confirms said internal alert signal as valid. acquiring test data from one or more laboratory instruments; analyzing said test data by applying a patient monitoring rule to said test data; generating an internal alert signal when said test data exceeds a predetermined error threshold as calculated by said patient monitoring rule, wherein said patient monitoring rule comprises a Biometric Quality Control process, an exponentially weighted moving average (EWMA) rule, a cumulative sum control chart (CUSUM) rule, or combinations thereof; applying a confirmation rule to said test data in response to said internal alert signal; and generating an operator alert signal if said confirmation rule confirms said internal alert signal as valid.
A method comprising: obtaining a query execution plan for a received query , wherein optimality ranges for the cardinality of intermediate results are associated with the edges of the query execution plan; executing at least a portion of the query execution plan ; determining, at an edge including an intermediate result, a cardinality of the intermediate result; proceeding with the execution of the query execution plan , when the determined cardinality is within the optimality range associated with the edge ; and selecting an alternative query execution plan for execution, when the determined cardinality is outside the optimality range associated with the edge ; wherein the optimality range includes a lower cardinality bound and a higher cardinality bound, wherein the lower cardinality bound and the higher cardinality bound form a range, within which the query execution plan remains optimal; characterized in mapping, during the generation of the query execution plan, the lower cardinality bound to a first alternative query execution plan and the higher cardinality bound to a second alternative query execution plan ; and wherein when the determined cardinality is less than the lower cardinality bound, a query optimizer selects the first alternative query execution plan for execution as an optimal plan, and wherein when the determined cardinality is higher than the higher cardinality bound, the query optimizer selects the second alternative query execution plan for execution as the optimal plan. obtaining a query execution plan for a received query , wherein optimality ranges for the cardinality of intermediate results are associated with the edges of the query execution plan; executing at least a portion of the query execution plan ; determining, at an edge including an intermediate result, a cardinality of the intermediate result; proceeding with the execution of the query execution plan , when the determined cardinality is within the optimality range associated with the edge ; and selecting an alternative query execution plan for execution, when the determined cardinality is outside the optimality range associated with the edge ; wherein the optimality range includes a lower cardinality bound and a higher cardinality bound, wherein the lower cardinality bound and the higher cardinality bound form a range, within which the query execution plan remains optimal; characterized in mapping, during the generation of the query execution plan, the lower cardinality bound to a first alternative query execution plan and the higher cardinality bound to a second alternative query execution plan ; and wherein when the determined cardinality is less than the lower cardinality bound, a query optimizer selects the first alternative query execution plan for execution as an optimal plan, and wherein when the determined cardinality is higher than the higher cardinality bound, the query optimizer selects the second alternative query execution plan for execution as the optimal plan.
Method for integrating structures in a support , the method comprising the following steps: a) supplying a support provided with two main faces designated, respectively, front face and rear face , the support comprising through cavities each delimited by a wall designated through wall; b) inserting into each of the through cavities at least one structure , the at least one structure being provided with two faces, designated respectively, first face and second face connected by a contour , the insertion of the at least one structure being carried out such that the first face and the front face are coplanar, the through cavities and/or the structures being laid out to leave, around each of the structures , a peripheral through space delimited by the through wall and the contour ; c) filling the peripheral space with a sealing material so as to maintain the structures to the support ; the method being characterised in that the peripheral space has a radial extension length which decreases from the rear face to the front face and in that the sealing material comprises a first sealing material and a second sealing material different from the first sealing material, step c) comprises the filling by the first sealing material of a section, designated first section , of the peripheral space , then by the second sealing material of another section, designated second section , of the peripheral space . a) supplying a support provided with two main faces designated, respectively, front face and rear face , the support comprising through cavities each delimited by a wall designated through wall; b) inserting into each of the through cavities at least one structure , the at least one structure being provided with two faces, designated respectively, first face and second face connected by a contour , the insertion of the at least one structure being carried out such that the first face and the front face are coplanar, the through cavities and/or the structures being laid out to leave, around each of the structures , a peripheral through space delimited by the through wall and the contour ; c) filling the peripheral space with a sealing material so as to maintain the structures to the support ;
A depth detection apparatus , comprising: an emitting assembly for emitting a speckle light signal to a detection object , wherein the emitting assembly is configured to cause the speckle light signal to generate positive distortion; an imaging lens for imaging, to a photoelectric sensor , a depth light signal returned after the speckle light signal strikes the detection object , wherein the imaging lens is configured to cause the imaging of the depth light signal to generate negative distortion; and the photoelectric sensor for converting the depth light signal into an electrical signal, characterized in that a difference between an absolute value of a distortion amount of the negative distortion and an absolute value of a distortion amount of the positive distortion does not exceed 0.05, and the negative distortion and the positive distortion each are distortion having a distortion amount whose absolute value is greater than or equal to 0.03; wherein the distortion amount is calculated by the formula: Dis = H real − H ideal H ideal ∗ 100 % wherein Dis denotes a distortion amount, Hreal denotes a real image height, Hideal denotes an ideal image height; wherein a distortion curve of the negative distortion satisfies a formula: y = A 1 ∗ x + A 2 ∗ x 2 + A 3 ∗ x 3 + A 4 ∗ x 4 + A 5 ∗ x 5 wherein y denotes a distortion amount, x denotes a normalized value of a field of view angle, and A1 to A5 are parameter coefficients, wherein 0.123 ≤ A1 ≤ 0.147, - 0.702 ≤ A2 ≤ - 0.686, 1.708 ≤ A3 ≤ 1.718, - 1.967 ≤ A4 ≤ - 1.961, and 0.679 ≤ A5 ≤ 0.683, 0 ≤ x ≤ 1. an emitting assembly for emitting a speckle light signal to a detection object , wherein the emitting assembly is configured to cause the speckle light signal to generate positive distortion; an imaging lens for imaging, to a photoelectric sensor , a depth light signal returned after the speckle light signal strikes the detection object , wherein the imaging lens is configured to cause the imaging of the depth light signal to generate negative distortion; and the photoelectric sensor for converting the depth light signal into an electrical signal, characterized in that a difference between an absolute value of a distortion amount of the negative distortion and an absolute value of a distortion amount of the positive distortion does not exceed 0.05, and the negative distortion and the positive distortion each are distortion having a distortion amount whose absolute value is greater than or equal to 0.03; wherein the distortion amount is calculated by the formula: Dis = H real − H ideal H ideal ∗ 100 % wherein Dis denotes a distortion amount, Hreal denotes a real image height, Hideal denotes an ideal image height; wherein a distortion curve of the negative distortion satisfies a formula: y = A 1 ∗ x + A 2 ∗ x 2 + A 3 ∗ x 3 + A 4 ∗ x 4 + A 5 ∗ x 5 wherein y denotes a distortion amount, x denotes a normalized value of a field of view angle, and A1 to A5 are parameter coefficients, wherein 0.123 ≤ A1 ≤ 0.147, - 0.702 ≤ A2 ≤ - 0.686, 1.708 ≤ A3 ≤ 1.718, - 1.967 ≤ A4 ≤ - 1.961, and 0.679 ≤ A5 ≤ 0.683, 0 ≤ x ≤ 1.
A system for producing and executing functional tests on equipment in a server cluster network , comprising at least one processor , storage means , a command line interface stored in the storage means and executable by the processor , as well as a software platform consisting of a plurality of functional modules stored in the storage means and executable by the processor , wherein: - the software platform comprises a functional module for producing a file of functional test commands for the command line interface and an associated interface (UI 18 ) dedicated to entering these functional test commands in at least one executable block of the command file , - the software platform comprises a functional module for executing the command file , designed to activate the command line interface and to execute therein said at least one executable block of the command file , characterized in that: - the interface (UI 18 ) associated with the functional module for producing the command file is additionally dedicated to entering descriptors of the functional test commands in at least one descriptive block of the command file and to identifying said at least one descriptive block in the command file as being different from said at least one executable block , and - the functional module for executing the command file is designed not to execute said at least one descriptive block of the command file in the command line interface . - the software platform comprises a functional module for producing a file of functional test commands for the command line interface and an associated interface (UI 18 ) dedicated to entering these functional test commands in at least one executable block of the command file , - the software platform comprises a functional module for executing the command file , designed to activate the command line interface and to execute therein said at least one executable block of the command file , characterized in that: - the interface (UI 18 ) associated with the functional module for producing the command file is additionally dedicated to entering descriptors of the functional test commands in at least one descriptive block of the command file and to identifying said at least one descriptive block in the command file as being different from said at least one executable block , and - the functional module for executing the command file is designed not to execute said at least one descriptive block of the command file in the command line interface . - the interface (UI 18 ) associated with the functional module for producing the command file is additionally dedicated to entering descriptors of the functional test commands in at least one descriptive block of the command file and to identifying said at least one descriptive block in the command file as being different from said at least one executable block , and - the functional module for executing the command file is designed not to execute said at least one descriptive block of the command file in the command line interface .
A float valve for maintaining a fluid level within a reservoir above a minimum level, the float valve further comprising: an actuating arm pivotable between a first pivotal position to open the valve when the minimum fluid level is reached, and a second pivotal position to close the valve, a weighted element of negative buoyancy, a line coupleable to the actuating arm and to the weighted element , and a float comprising a hollow body having a longitudinal axis and a transverse axis , wherein the float is asymmetric along its transverse axis, has a greater volume at or towards one end of its longitudinal axis and a smaller volume towards the other end of its longitudinal axis, and means along the length of the float for attaching the float to a line, the float attachable to the line between the actuating arm and the weighted element to cause the arm to pivot to the first pivotal position and open the valve when the minimum fluid level is reached and the float is no longer fully supported by the fluid within the reservoir characterised in that the float is slidably attachable to the line such that the float is slidable on the line as the fluid level changes, and wherein the float is attachable to the line in either a first orientation in which said greater volume is closer to the actuating arm than said smaller volume, or a second orientation in which said smaller volume is closer to the actuating arm than said greater volume. an actuating arm pivotable between a first pivotal position to open the valve when the minimum fluid level is reached, and a second pivotal position to close the valve, a weighted element of negative buoyancy, a line coupleable to the actuating arm and to the weighted element , and a float comprising a hollow body having a longitudinal axis and a transverse axis , wherein the float is asymmetric along its transverse axis, has a greater volume at or towards one end of its longitudinal axis and a smaller volume towards the other end of its longitudinal axis, and means along the length of the float for attaching the float to a line, the float attachable to the line between the actuating arm and the weighted element to cause the arm to pivot to the first pivotal position and open the valve when the minimum fluid level is reached and the float is no longer fully supported by the fluid within the reservoir characterised in that the float is slidably attachable to the line such that the float is slidable on the line as the fluid level changes, and wherein the float is attachable to the line in either a first orientation in which said greater volume is closer to the actuating arm than said smaller volume, or a second orientation in which said smaller volume is closer to the actuating arm than said greater volume.
A riding type lawnmower , comprising: an axle case accommodating an axle for driving a pair of right and left wheels ; and a lower frame forming a lower part of a vehicle body frame , wherein the lower frame is arranged lower than the axle case , the lower frame has at least two or more frame constituting members provided side by side in a right-and-left direction; characterized in that the axle case is provided capable of swinging around a swing shaft in the longitudinal direction; the swing shaft is provided in the middle in the right-and-left direction on a plan view with respect to the two or more of the frame constituting members ; and the frame constituting members are configured to regulate a swing range of the rear-wheel axle case swinging around the swing shaft . an axle case accommodating an axle for driving a pair of right and left wheels ; and a lower frame forming a lower part of a vehicle body frame , wherein the lower frame is arranged lower than the axle case , the lower frame has at least two or more frame constituting members provided side by side in a right-and-left direction; characterized in that the axle case is provided capable of swinging around a swing shaft in the longitudinal direction; the swing shaft is provided in the middle in the right-and-left direction on a plan view with respect to the two or more of the frame constituting members ; and the frame constituting members are configured to regulate a swing range of the rear-wheel axle case swinging around the swing shaft . a lower frame forming a lower part of a vehicle body frame , wherein the lower frame is arranged lower than the axle case , the lower frame has at least two or more frame constituting members provided side by side in a right-and-left direction; characterized in that the axle case is provided capable of swinging around a swing shaft in the longitudinal direction; the swing shaft is provided in the middle in the right-and-left direction on a plan view with respect to the two or more of the frame constituting members ; and the frame constituting members are configured to regulate a swing range of the rear-wheel axle case swinging around the swing shaft .