mhurhangee/ep-ind-claims huggingface dataset:
A full crowd detent apparatus of a wheel loader bucket, comprising: a bucket position holding unit configured to latch a joystick lever operating a bucket while a power is supplied; a bucket position detecting unit configured to detect the position of the bucket by acquiring a bucket angle value from an angle sensor for detecting a roational angle of the bucket; a bucket position judging unit configured to judge whether the detected position of the bucket is within a first on operation section, a second on operation section or first off operation section, wherein the first on operation section is within a range from a maximum dump position to a loading position, the second on operation section is within a range from the loading position to a full crowd position, and the first off operation section is between the first on operation section and the second operation section where is near the loading position; and a bucket detent controlling unit configured to control the power when the judged position of the bucket is within the first or second on operation sections so that an electromagnet of the bucket position holding unit holds the joystick lever, and interrupt the power when the judged position of the bucket is within the first off operation section so that the electromagnet of the bucket position holding unit releases the joystic lever. a bucket position holding unit configured to latch a joystick lever operating a bucket while a power is supplied; a bucket position detecting unit configured to detect the position of the bucket by acquiring a bucket angle value from an angle sensor for detecting a roational angle of the bucket; a bucket position judging unit configured to judge whether the detected position of the bucket is within a first on operation section, a second on operation section or first off operation section, wherein the first on operation section is within a range from a maximum dump position to a loading position, the second on operation section is within a range from the loading position to a full crowd position, and the first off operation section is between the first on operation section and the second operation section where is near the loading position; and a bucket detent controlling unit configured to control the power when the judged position of the bucket is within the first or second on operation sections so that an electromagnet of the bucket position holding unit holds the joystick lever, and interrupt the power when the judged position of the bucket is within the first off operation section so that the electromagnet of the bucket position holding unit releases the joystic lever.
A security device, comprising: one or more processors to: receive actual behavior information associated with an object from a user device, the actual behavior information identifying a first set of behaviors associated with executing the object in a live environment at the user device; determine test behavior information associated with the object, the test behavior information identifying a second set of behaviors associated with testing the object in a test environment at the security device; compare the first set of behaviors and the second set of behaviors to determine a difference between the first set of behaviors and the second set of behaviors; receive information associated with a user action associated with executing the object in the live environment; perform additional testing of the object based on the information associated with the user action, the additional testing being performed such that the user action is re-created in the test environment; identify whether the object is an evasive malicious object based on the difference between the first set of behaviors and the second set of behaviors, and based on the additional testing; and provide an indication of whether the object is the evasive malicious object. receive actual behavior information associated with an object from a user device, the actual behavior information identifying a first set of behaviors associated with executing the object in a live environment at the user device; determine test behavior information associated with the object, the test behavior information identifying a second set of behaviors associated with testing the object in a test environment at the security device; compare the first set of behaviors and the second set of behaviors to determine a difference between the first set of behaviors and the second set of behaviors; receive information associated with a user action associated with executing the object in the live environment; perform additional testing of the object based on the information associated with the user action, the additional testing being performed such that the user action is re-created in the test environment; identify whether the object is an evasive malicious object based on the difference between the first set of behaviors and the second set of behaviors, and based on the additional testing; and provide an indication of whether the object is the evasive malicious object.
Large roller bearing having at least two bearing rings (6, 7) that can be rotated with respect to one another, an actuating drive for adjusting the rotational position of the two bearing rings, at least one annular groove cylinder that is formed in or at one of the bearing rings and is interrupted at least once at the periphery and is provided at both sides of the interruption with a feed for hydraulic fluid, and at least one piston that is displaceably received in the annular groove cylinder and is drive-wise connected to the other one of the two bearing rings via a driving disk running around at least in the sealing gap of the annular groove cylinder, wherein the driving disk and/or the connection of the driving disk to the bearing ring to be taken along is formed in the peripheral direction as substantially free of play and movable and/or yielding, in particular subject to play, in the axial and radial directions.
A print system for receiving actuation requests having an arrangement of print nozzles driven by a succession of actuation events with a need for a minimum actuation period between the actuation events, the arrangement including: a means to queue actuation requests so that an actuation event can continue to be performed after the minimum actuation period has occurred; and a means to monitor the queue such that if the queue becomes longer than a defined discard threshold then the arrangement is configured to discard actuation requests from the queue and discard some stripe data. a means to queue actuation requests so that an actuation event can continue to be performed after the minimum actuation period has occurred; and a means to monitor the queue such that if the queue becomes longer than a defined discard threshold then the arrangement is configured to discard actuation requests from the queue and discard some stripe data.
A base station test system, comprising: a base station radio unit configured with a plurality of antenna panels (Panel 1, Panel 2) positioned at a first end of a test chamber; wherein the plurality of antenna panels (Panel 1, Panel 2) includes a first antenna panel (Panel 1) and a second antenna panel (Panel 2) that are each configured to transmit a first beam to a first far field focal point and to transmit a second beam to a second far field focal point; a plurality of test antennas (Test Antenna 3, Test Antenna 4) positioned at a second end of the test chamber opposing the first end; wherein the plurality of test antennas (Test Antenna 3, Test Antenna 4) includes a first test antenna (Test Antenna 3) and a second test antenna (Test Antenna 4) associated with a first near field focal point and a second near field focal point respectively; and a microwave lens positioned between the plurality of antenna panels (Panel 1, Panel 2) and the plurality of test antennas (Test Antenna 3, Test Antenna 4) in the test chamber, wherein the microwave lens is configured to focus the first beam and the second beam transmitted from both of the first antenna panel (Panel 1) and the second antenna panel (Panel 2) toward the first near field focal point and the second near field focal point, respectively, based on steering of the plurality of antenna panels. a base station radio unit configured with a plurality of antenna panels (Panel 1, Panel 2) positioned at a first end of a test chamber; wherein the plurality of antenna panels (Panel 1, Panel 2) includes a first antenna panel (Panel 1) and a second antenna panel (Panel 2) that are each configured to transmit a first beam to a first far field focal point and to transmit a second beam to a second far field focal point; a plurality of test antennas (Test Antenna 3, Test Antenna 4) positioned at a second end of the test chamber opposing the first end; wherein the plurality of test antennas (Test Antenna 3, Test Antenna 4) includes a first test antenna (Test Antenna 3) and a second test antenna (Test Antenna 4) associated with a first near field focal point and a second near field focal point respectively; and a microwave lens positioned between the plurality of antenna panels (Panel 1, Panel 2) and the plurality of test antennas (Test Antenna 3, Test Antenna 4) in the test chamber, wherein the microwave lens is configured to focus the first beam and the second beam transmitted from both of the first antenna panel (Panel 1) and the second antenna panel (Panel 2) toward the first near field focal point and the second near field focal point, respectively, based on steering of the plurality of antenna panels.
A mold assembly for an injection molding machine having a stationary portion and a moving portion, and a nozzle assembly for conveying a fluid, comprising: a mold cavity being defined on the stationary portion, the stationary portion including a cavity plate including a bore operable to receive a cavity insert defining at least a portion of the mold cavity, a mold core being defined on the moving portion, a taper insert for substantially aligning the mold core with the mold cavity, wherein the taper insert retains the cavity insert within the bore in cooperation with a retaining member provided by a taper insert plate mounted to the cavity plate, wherein the taper insert includes a first land abutting against the cavity insert, a second land abutting against the cavity plate and a third land abutting against the taper insert plate,so that the taper insert is floatably arranged between the cavity insert and the taper insert plate. a mold cavity being defined on the stationary portion, the stationary portion including a cavity plate including a bore operable to receive a cavity insert defining at least a portion of the mold cavity, a mold core being defined on the moving portion, a taper insert for substantially aligning the mold core with the mold cavity, wherein the taper insert retains the cavity insert within the bore in cooperation with a retaining member provided by a taper insert plate mounted to the cavity plate, wherein the taper insert includes a first land abutting against the cavity insert, a second land abutting against the cavity plate and a third land abutting against the taper insert plate,so that the taper insert is floatably arranged between the cavity insert and the taper insert plate.
An in vitro method for increasing the pool of Ngn3 + endocrine progenitor cells obtained from stem cells, wherein said method comprises the step of contacting stem cells having the capacity to differentiate into pancreatic endocrine cells, except human embryonic stem cells, with a SUR1/Kir6.2 channel inhibitor selected from the group consisting of sulfonylureas and meglitinides, and any combination thereof.
A double-sided buffing pad for polishing surfaces comprising: a backing plate; two fibrous buffing media (12,13) with filaments of textiles extending therefrom that are affixed one media to each face of the backing plate; characterised by a seam that is intertwined by a portion of the filaments from each media. a backing plate; two fibrous buffing media (12,13) with filaments of textiles extending therefrom that are affixed one media to each face of the backing plate; characterised by a seam that is intertwined by a portion of the filaments from each media.
Lens for an LED module with one or several LEDs for generating a non-rotation-symmetric light distribution of the LED, having: a light incidence side and a light emergence side respective the LED; wherein at least the form of the light incidence side respective the optical axis (z) of the lens is non-rotation-symmetric, characterized in that at least the form of the non-rotation-symmetric light incidence side is formed by a non-rotation-symmetric profiling that is preferably a notch or recess, and wherein the non-rotation-symmetric profiling is a polyhedron that has at least five corners. a light incidence side and a light emergence side respective the LED; wherein at least the form of the light incidence side respective the optical axis (z) of the lens is non-rotation-symmetric, characterized in that at least the form of the non-rotation-symmetric light incidence side is formed by a non-rotation-symmetric profiling that is preferably a notch or recess, and wherein the non-rotation-symmetric profiling is a polyhedron that has at least five corners.
A tear meniscus test device comprising: (i) a body part having an elongated shape, wherein - the body part comprises a synthetic resin material or a synthetic rubber material; - a groove is formed in the body part along a length direction of the body part; and - the body part is flexible and the front end part thereof is rounded; (ii) a water absorbing member arranged in the groove, wherein a reinforcing film is provided on the surface of the water absorbing member, wherein the reinforcing film is in contact with the bottom part of the groove. (i) a body part having an elongated shape, wherein - the body part comprises a synthetic resin material or a synthetic rubber material; - a groove is formed in the body part along a length direction of the body part; and - the body part is flexible and the front end part thereof is rounded; - the body part comprises a synthetic resin material or a synthetic rubber material; - a groove is formed in the body part along a length direction of the body part; and - the body part is flexible and the front end part thereof is rounded; (ii) a water absorbing member arranged in the groove,
A mask assembly comprising: an interfacing structure; a manifold positioned in use on a top of the patient's head and adapted to connect with a supply of breathable gas; and two inlet conduits extending in use along respective sides of the patient's face, the two inlet conduits connected to the manifold and adapted to deliver the supply of breathable gas to the interfacing structure, wherein the manifold includes one or more vent orifices for gas washout. an interfacing structure; a manifold positioned in use on a top of the patient's head and adapted to connect with a supply of breathable gas; and two inlet conduits extending in use along respective sides of the patient's face, the two inlet conduits connected to the manifold and adapted to deliver the supply of breathable gas to the interfacing structure, wherein the manifold includes one or more vent orifices for gas washout.
A coilover shock absorber comprising a damper element and a coil spring where the damper element comprises a damper cylinder and a piston, where the coilover shock absorber comprises a first mount for the damper element and a second mount for the damper element, and where the coilover shock absorber comprises a first seat for the coil spring and a second seat for the coil spring, where the first mount for the damper element is operatively separate from the first seat for the coil spring, wherein the second mount for the damper element is operatively separate from the second seat for the coil spring, characterized in that the second seat for the coil spring is arranged on an elongated springseat having a first end, a body and a second end wherein the length of the elongated springseat is 15 at least half of the length of the damper cylinder and wherein the body of the elongated springseat is circular.
A method for identifying risk of acute kidney injury in subjects prior to cardiovascular surgical intervention comprising: a) detecting a level of gene expression of p14 ARF or p16 INK4a or p14 ARF and p16 INK4a in a blood sample obtained from a subject prior to the subject undergoing cardiovascular surgical intervention; and b) comparing the level of gene expression of p14 ARF or p16 INK4a or p14 ARF and p16 INK4a in the sample to a pre-determined threshold level of gene expression of p14 ARF or p16 INK4a or p14 ARF and p16 INK4a; wherein the subject is identified as being at risk of acute kidney injury when the level of gene expression of at least one of or both of p14 ARF or p16 INK4a is equal to or higher than the pre-determined threshold level of gene expression. a) detecting a level of gene expression of p14 ARF or p16 INK4a or p14 ARF and p16 INK4a in a blood sample obtained from a subject prior to the subject undergoing cardiovascular surgical intervention; and b) comparing the level of gene expression of p14 ARF or p16 INK4a or p14 ARF and p16 INK4a in the sample to a pre-determined threshold level of gene expression of p14 ARF or p16 INK4a or p14 ARF and p16 INK4a; wherein the subject is identified as being at risk of acute kidney injury when the level of gene expression of at least one of or both of p14 ARF or p16 INK4a is equal to or higher than the pre-determined threshold level of gene expression.
A method for compensating for disturbing torques for a movement simulator, said simulator including joints controlled by effector members about axes j as a function of movement set points θ r j on the axes, each effector member of a specific given axis of the effector member receiving a command U j and a sensor for the axis measuring θ j, the action of the effector member about said axis j, the simulator being in a system including, for each axis, a control law with a monovariable corrector block in a feedback loop, said monovariable corrector block of transfer function Corr ( q -1) receiving as an input a signal of difference between the set point θ r j and the measurement θ j for the corresponding axis and producing as an output the command U j, in which the disturbing torques are Coriolis, centrifugal and gravitational torques, characterized in that, for each axis, a control law is implemented, which includes, in addition to the monovariable corrector block per axis, a non-linear and multivariable compensation law combined to the monovariable correctors, the compensation law calculating, as a function of the command U j, an estimation P̂ j ( t) of the disturbing torques, said estimation P̂ j ( t) being injected into the command U j sent to the effector member, to compensate for the disturbing torques, and in that the estimation P̂ j ( t) of the disturbing torques being calculated based on the value of an error signal ε j ( t), which is a version of the command U j filtered by a transmittance filter H ( q -1) intended to eliminate at least the direct component from the command, and the movement simulator is previously modelled in order to obtain a dynamic model affinely expressing the torques with respect to a set of base parameters χ according to a matrix relation of the type: Φ j T θ θ ̇ θ ̈ χ j, the index j corresponding to the different axes, a sub-set α j of the base parameters corresponding to disturbing torques having a level higher than a determined disturbance threshold is determined, following to the previous modelling of the simulator, the estimation P̂ j ( t) of the disturbing torques being calculated by: P ^ j t = φ j T θ θ ̇ α ^ j, and in that the estimations of the sub-sets of base parameters are calculated in line by an iterative equation: α ^ j t + 1 = α ^ j t + μ j φ Fj T t ε j t with φ Fj t = H q − 1 T q − 1 φ j t the vector elements φ j T t being filtered by H j. Corr j. G j / (1+C j. H j) to obtain the vector φ Fj T t, T being defined by the relation (1 + Corr ( q -1) L ( q -1)) · T ( q -1) = Corr ( q -1) L ( q -1), with L j ( q -1) the discrete transmittance of the transform of the product 1 J j 1 S J j in the case of a sampled system where J j are the inertias and μ j is a defined positive real square matrix serving as an adjustment parameter for the speed of convergence of the estimation.
Charge air cooler having a housing, in which first flow channels for charge air to be cooled and separate second flow channels for a cooling medium are arranged, - wherein the first flow channels are formed by hollow metallic bodies, - wherein the second flow channels are bordered by external sides of the hollow metallic bodies, two tube bases (6, 6') and an inner side of the housing, - wherein the first flow channels at their longitudinal end sides (5, 5') are overmoulded with plastic respectively to form such a common tub base (6, 6'), - wherein the housing is made of plastic and comprises the two tube bases (6, 6'), two side walls (7, 7'), a cover and a base, wherein the cover and the base each comprise a cooling medium connection. - wherein the first flow channels are formed by hollow metallic bodies, - wherein the second flow channels are bordered by external sides of the hollow metallic bodies, two tube bases (6, 6') and an inner side of the housing, - wherein the first flow channels at their longitudinal end sides (5, 5') are overmoulded with plastic respectively to form such a common tub base (6, 6'), - wherein the housing is made of plastic and comprises the two tube bases (6, 6'), two side walls (7, 7'), a cover and a base, wherein the cover and the base each comprise a cooling medium connection.
Method for acquiring data transmitted in a computer network comprising at least one computer (2,3,4,5), wherein the transmitted data is transferred to an auxiliary computer, wherein the transmitted data is reactionlessly tapped and passed to a data acquisition device, characterised in that the data transmitted from the at least one computer (2,3,4,5) is that which had previously been received or sent by it, and which is repackaged and subsequently transferred to the auxiliary computer.
A sweat-collection device for application to a substantially flat area of the human body, comprising a solid body having a face thereof forming an concave sweat-collecting surface which gradually recedes from a rim lying wholly in a common plane to an axial bore that extends to the opposite face of said solid body, the maximum depth of said concave sweat-collecting surface being such that the skin and flesh of said flat area of a human body to which the device is applied will bulge into contact with said sweat-collecting surface over substantially the entire area thereof when said rim is placed firmly against the skin of said flat area of the human body, leaving substantially no dead space in the interface between the bulged skin and said sweat-collecting surface, whereby body secretion pressure of sweat will force said sweat through said interface to said axial bore, said axial bore being adapted to connect with a length of flexible, sweat collector tubing at said opposite face of the solid body, and said solid body being adapted to be fastened against the said flat area of a human body so as to maintain firm placement of said rim and sweat-collecting surface against the skin; characterized in that the concave sweat-collecting surface is elongate.
A building element such as a prefabricated concrete element or a sandwich element, characterized by comprising at least two internal nodes (2; 2a, 2b; 2c, 2d; 10) located inside the building element and capable of wireless radio communications, wherein at least one internal node (2; 2a, 2b; 2c, 2d; 10) is configured to determine condition information such as moisture and/or temperature information of the building element based on monitoring of change in power level and/or transmission time of at least one signal sent between the internal nodes (2; 2a, 2b; 2c, 2d; 10).