mhurhangee/ep-ind-claims huggingface dataset:
A molded case circuit breaker, comprising: a fixed contact (120, 121); a movable contact configured to be brought into contact with or separated from the fixed contact (120, 121); an insulating barrier configured to enter between the fixed contact (120, 121) and the movable contact during interruption, wherein the insulating barrier comprises a free end portion and is formed of a flexible material, an wherein the insulating barrier is coupled to the movable contact to rotate along a circumferential surface of a shaft body, characterized by a guide portion protruded on part of a base mold and configured to guide the free end portion of the insulating barrier, wherein the guide portion comprises a pair of protrusion portions spaced apart from each other, wherein when an external force does not act on the insulating barrier, the insulating barrier is configured to maintain a shape of surrounding the circumferential surface of the shaft body, and be bent by being brought into contact with the guide portion, and wherein when the movable contact is connected to the fixed contact (120, 121), the free end portion of the insulating barrier is configured to be lifted up from the shaft body by the guide portion. a fixed contact (120, 121); a movable contact configured to be brought into contact with or separated from the fixed contact (120, 121); an insulating barrier configured to enter between the fixed contact (120, 121) and the movable contact during interruption, wherein the insulating barrier comprises a free end portion and is formed of a flexible material, an wherein the insulating barrier is coupled to the movable contact to rotate along a circumferential surface of a shaft body, characterized by a guide portion protruded on part of a base mold and configured to guide the free end portion of the insulating barrier, wherein the guide portion comprises a pair of protrusion portions spaced apart from each other, wherein when an external force does not act on the insulating barrier, the insulating barrier is configured to maintain a shape of surrounding the circumferential surface of the shaft body, and be bent by being brought into contact with the guide portion, and wherein when the movable contact is connected to the fixed contact (120, 121), the free end portion of the insulating barrier is configured to be lifted up from the shaft body by the guide portion.
Device for securing cargo which is located on a loading surface of a vehicle, the device consisting of a beam-like profile having a first and a second end (3, 4), the respective ends (3, 4) comprising latching elements by means of which said ends can be locked into counter-latching elements which are associated with the vehicle, at least one of the ends (3, 4) comprising a latching head which can pivot about a pivot shaft and is formed of two sheet-metal legs which are oriented counter to one another so as to have opposing faces, are spaced apart from one another by a predetermined length of the pivot shaft and, as the latching element associated with the latching head, surround, in the gap between said legs, a pawl which comprises an engagement knob, can rotate about a rotational shaft and can be pivoted from an engagement position, in which the engagement knob engages in a latching recess designed as a counter-latching element, counter to a spring force into an unlocked position which is guided out of the latching recess, characterised in that the sheet-metal legs are formed from punched parts which are initially flat and designed so as to be congruent with respect to one another and mirror-symmetrical with respect to the mirror axis that lies in the vertical plane which is transverse to the direction of travel of the vehicle and in which the pivot shaft also lies.
An analysis station for conducting agglutination assays, comprising: a rotating support, concentric with a rotation axis and being adapted to pivotally hold a set of reaction vessels, each reaction vessel of said set of reaction vessels comprising an upper chamber configured for receiving fluid reactants and/or sample, and a lower chamber; a drive shaft arranged to drivingly hold said rotating support coaxially and rotate it at a predetermined rotation speed such that the reactants and/or sample can flow from the upper chamber to the lower chamber when the rotating support is rotated at a centrifugation rotation speed; and a stationary heating device for heating the set of reaction vessels; said heating device comprising a plurality of heating elements (51, 52, 53) being thermally separated from each other and controlled separately in temperature, the heating elements (51, 52, 53) being arranged such as to selectively heat subsets of said set of reaction vessels at predetermined incubation temperatures, when the rotating support is held on the drive shaft; the heating device is arranged concentric with the rotation axis and having an outer diameter small enough such as to allow the reaction vessels to pivot when the rotating support is rotated; and said heating device is at an elevation corresponding to said upper chamber. a rotating support, concentric with a rotation axis and being adapted to pivotally hold a set of reaction vessels, each reaction vessel of said set of reaction vessels comprising an upper chamber configured for receiving fluid reactants and/or sample, and a lower chamber; a drive shaft arranged to drivingly hold said rotating support coaxially and rotate it at a predetermined rotation speed such that the reactants and/or sample can flow from the upper chamber to the lower chamber when the rotating support is rotated at a centrifugation rotation speed; and a stationary heating device for heating the set of reaction vessels; said heating device comprising a plurality of heating elements (51, 52, 53) being thermally separated from each other and controlled separately in temperature, the heating elements (51, 52, 53) being arranged such as to selectively heat subsets of said set of reaction vessels at predetermined incubation temperatures, when the rotating support is held on the drive shaft; the heating device is arranged concentric with the rotation axis and having an outer diameter small enough such as to allow the reaction vessels to pivot when the rotating support is rotated; and said heating device is at an elevation corresponding to said upper chamber.
Electrically operated food processor, in particular a cooking-mixing appliance, for preparing cooked food, which processor comprises a base appliance, a vessel which has an agitator and can be inserted into the base appliance, a heating device that is associated with the vessel, a temperature sensor, a transceiver device for communicating with the temperature sensor, and an evaluation device for evaluating the measurement data received from the temperature sensor, characterised in that the temperature sensor is a surface acoustic wave sensor and in that the temperature sensor is arranged in and/or on an element of the food processor that is spatially variable relative to the base appliance.
A spindle and bearing combination for use in a drug delivery device with a cartridge comprising, a. a spindle having a distal end; and b. a disk-shaped bearing adapted to abut a piston moving in the cartridge having a second connection to the distal end of the spindle, wherein the second connection comprises a joint that allows the spindle to rotate freely relative to the bearing, characterized in that the bearing has a first connection to the distal end of the spindle, where the first connection comprises a web that fixedly attaches the bearing to the spindle to prevent independent movement of the bearing relative to the spindle and where the second connection is created and replaces the first connection when the web is sheared and disconnected from the bearing. a. a spindle having a distal end; and b. a disk-shaped bearing adapted to abut a piston moving in the cartridge having a second connection to the distal end of the spindle, wherein the second connection comprises a joint that allows the spindle to rotate freely relative to the bearing, characterized in that the bearing has a first connection to the distal end of the spindle, where the first connection comprises a web that fixedly attaches the bearing to the spindle to prevent independent movement of the bearing relative to the spindle and where the second connection is created and replaces the first connection when the web is sheared and disconnected from the bearing.
A process of making an absorbent core comprising the steps of: i. providing a mold comprising a 3D insert therein, said 3D insert being the inverse shape of the desired channels, wherein substantially the entire surface of the mold is in fluid communication with an under-pressure source except for the 3D insert; ii. applying a first nonwoven web to said mold; iii. applying a three-dimensional absorbent material over at least a portion of said nonwoven; iv. applying a second nonwoven web directly or indirectly over the three-dimensional absorbent material; v. applying a bonding step to form a laminate comprising said first nonwoven, said second nonwoven and said three-dimensional absorbent material therebetween; vi. optionally removing said laminate from the mold to form an absorbent core comprising channels having the inverse shape of said 3D insert; and characterized in that at least for the duration of step iii the underpressure source is arranged to provide a vacuum force forcing said three-dimensional absorbent material around the 3D insert such to substantially evacuate the surface thereof from three-dimensional absorbent material and form channels substantially free of three-dimensional absorbent material, and wherein the bonding step comprises applying an adhesive on a surface of the second nonwoven web and joining said web to said first nonwoven web and/or three-dimensional absorbent material, the adhesive being applied in continuous or discontinuous spaced apart stripes aligned with said channels such that the resulting core laminate comprises adhesive rich and adhesive poor regions, wherein the adhesive rich regions are substantially located along said channels and the adhesive poor regions are located in areas of the core other than said channels. i. providing a mold comprising a 3D insert therein, said 3D insert being the inverse shape of the desired channels, wherein substantially the entire surface of the mold is in fluid communication with an under-pressure source except for the 3D insert; ii. applying a first nonwoven web to said mold; iii. applying a three-dimensional absorbent material over at least a portion of said nonwoven; iv. applying a second nonwoven web directly or indirectly over the three-dimensional absorbent material; v. applying a bonding step to form a laminate comprising said first nonwoven, said second nonwoven and said three-dimensional absorbent material therebetween; vi. optionally removing said laminate from the mold to form an absorbent core comprising channels having the inverse shape of said 3D insert; and
A multi-mode composite gel marker for ultrasound imaging, comprising: a plurality of silica shells; an imaging material which is configured to produce an imaging signal that is distinct from surrounding tissue of a patient; and a gel material which is disposed about the plurality of silica shells and the imaging material and which forms an expandable gel marker body, characterized in that each silica shell includes a shell body which is formed from silica, a hollow void disposed within an inner surface of the shell body, and a coating disposed on an outer surface of the shell body in order to seal the hollow void within each silica shell. a plurality of silica shells; an imaging material which is configured to produce an imaging signal that is distinct from surrounding tissue of a patient; and a gel material which is disposed about the plurality of silica shells and the imaging material and which forms an expandable gel marker body, characterized in that each silica shell includes a shell body which is formed from silica, a hollow void disposed within an inner surface of the shell body, and a coating disposed on an outer surface of the shell body in order to seal the hollow void within each silica shell.
A method for controlling an automatic operation of a working unit of a wheel loader, comprising: verifying a working state of the wheel loader through detection of a bucket position and a driving state and examining whether the verified working state is an excavation completed state; examining whether a current position of a driving direction operating lever is a backward-movement position when the verified working state is the excavation completed state as a result of the examination; and automatically moving up a position of a boom up to a predetermined position together with backward driving of the wheel loader depending on whether an automatic operation mode is set when the driving direction operating lever position is the backward-movement position. verifying a working state of the wheel loader through detection of a bucket position and a driving state and examining whether the verified working state is an excavation completed state; examining whether a current position of a driving direction operating lever is a backward-movement position when the verified working state is the excavation completed state as a result of the examination; and automatically moving up a position of a boom up to a predetermined position together with backward driving of the wheel loader depending on whether an automatic operation mode is set when the driving direction operating lever position is the backward-movement position.
An article of footwear comprising: an upper; and a sole assembly secured to the upper and comprising: a sole plate having a lower surface; a plurality of cleats extending downwardly from the lower surface, each cleat having a central recess formed therein, a core formed of a first material, and an outer layer on the core and formed of a second material that is softer than the first material; and characterised in that the sole assembly further comprises a circulation plate disposed on the lower surface of the sole plate and defining a circulation cavity between the sole plate and the circulation plate, a first plurality of apertures extending through a front portion of the circulation plate, and a second plurality of apertures extending through a rear portion of the circulation plate. an upper; and a sole assembly secured to the upper and comprising: a sole plate having a lower surface; a plurality of cleats extending downwardly from the lower surface, each cleat having a central recess formed therein, a core formed of a first material, and an outer layer on the core and formed of a second material that is softer than the first material; and characterised in that the sole assembly further comprises a circulation plate disposed on the lower surface of the sole plate and defining a circulation cavity between the sole plate and the circulation plate, a first plurality of apertures extending through a front portion of the circulation plate, and a second plurality of apertures extending through a rear portion of the circulation plate. a sole plate having a lower surface; a plurality of cleats extending downwardly from the lower surface, each cleat having a central recess formed therein, a core formed of a first material, and an outer layer on the core and formed of a second material that is softer than the first material; and characterised in that the sole assembly further comprises a circulation plate disposed on the lower surface of the sole plate and defining a circulation cavity between the sole plate and the circulation plate, a first plurality of apertures extending through a front portion of the circulation plate, and a second plurality of apertures extending through a rear portion of the circulation plate. a circulation plate disposed on the lower surface of the sole plate and defining a circulation cavity between the sole plate and the circulation plate, a first plurality of apertures extending through a front portion of the circulation plate, and a second plurality of apertures extending through a rear portion of the circulation plate.
Piezoelectric actuator, in particular actuator for fuel injection valves, comprising an actuator body having a multiplicity of piezoelectric layers (17, 18) and a multiplicity of electrically conductive layers (19, 20, 21, 22) arranged between the piezoelectric layers (17, 18), wherein a plurality of the electrically conductive layers (19, 20, 21, 22) serve as electrode layers (21, 22) which are led in the actuator body alternately to a first side and to a second side of the actuator body, wherein at the first side of the actuator body provision is made of a first electrode link for contacting the electrode layers led to the first side in the actuator body, characterized in that at least one of the electrically conductive layers (19, 20, 21, 22) serves as sensor layer (19, 20), wherein the sensor layer (19, 20) is contacted by a sensor link, which is electrically insulated from the first electrode link, and wherein the first electrode link has in the region of the sensor layer (19, 20) at least one cutout in which the sensor link is arranged at the first side of the actuator body.
Lengthwise adjustment unit of a seat, in particular, of a seat in a motor vehicle, comprising: - a housing with a through opening that is disposed along a longitudinal axis and which comprises a first spindle opening and a second spindle opening, - a spindle with a spindle outer thread that can be inserted through the through opening along the longitudinal axis through the housing, - a spindle nut with a spindle inner thread, and - a screw that drives the spindle nut and that is mounted in the housing by means of a two-sided bearing flange, - wherein the spindle nut in the housing is rotatable in both directions and is axially mounted, - wherein at least one connection means is provided, by means of which the spindle is non-rotatably connected to the spindle nut, and - wherein the at least one connection means is a spindle locknut that can be tightened with the spindle nut in the manner of a counter nut. - a housing with a through opening that is disposed along a longitudinal axis and which comprises a first spindle opening and a second spindle opening, - a spindle with a spindle outer thread that can be inserted through the through opening along the longitudinal axis through the housing, - a spindle nut with a spindle inner thread, and - a screw that drives the spindle nut and that is mounted in the housing by means of a two-sided bearing flange, - wherein the spindle nut in the housing is rotatable in both directions and is axially mounted, - wherein at least one connection means is provided, by means of which the spindle is non-rotatably connected to the spindle nut, and - wherein the at least one connection means is a spindle locknut that can be tightened with the spindle nut in the manner of a counter nut.
A support plate device for bakery, pastry or cake products, comprising at least one lower plate and at least two molds supported by said lower plate, said device also comprising at least one upper plate overlapping said molds, its lower face coming into contact with the upper rims of their respective edges, characterized in that it comprises resilient return means of each mold with a force individually and independently repelling each mold against the lower face of the upper plate.
An apparatus for sensing information of an object, the apparatus comprising: a dynamic vision sensor (110; 410) configured to sense a change of light intensity in each pixel of the sensor; and a changer comprising an actuator (130; 413, 433) configured to apply a movement to the dynamic vision sensor (110; 410) as to change how light is being inputted to the dynamic vision sensor (110; 410), wherein the information of the object is sensed by the dynamic vision sensor (110; 410) based on light artificially changed by the actuator (130; 413, 433), said information comprising at least one of a position, a shape, or a size, of the object; wherein the apparatus is configured to calculate a spatial differential value of light generated from the object by the movement generated at the dynamic vision sensor (110; 410) when the movement is generated by the actuator (130; 413, 433), said spatial differential value of light corresponding to an edge or outline of the object. a dynamic vision sensor (110; 410) configured to sense a change of light intensity in each pixel of the sensor; and a changer comprising an actuator (130; 413, 433) configured to apply a movement to the dynamic vision sensor (110; 410) as to change how light is being inputted to the dynamic vision sensor (110; 410), wherein the information of the object is sensed by the dynamic vision sensor (110; 410) based on light artificially changed by the actuator (130; 413, 433), said information comprising at least one of a position, a shape, or a size, of the object; wherein the apparatus is configured to calculate a spatial differential value of light generated from the object by the movement generated at the dynamic vision sensor (110; 410) when the movement is generated by the actuator (130; 413, 433), said spatial differential value of light corresponding to an edge or outline of the object.
A method performed by an access and mobility function, AMF, configured for use in a wireless communication network, the method comprising: detecting one or more conditions under which non-access stratum, NAS, keys that protect NAS communication between the network equipment and a wireless device are to be refreshed; responsive to detecting the one or more conditions, deriving a new K AMF key on which fresh NAS keys are to be derived; and activating the new K AMF key, wherein the one or more conditions include one or more conditions that are detected before a value of a NAS COUNT for a NAS connection between the AMF and the wireless device wraps around from a maximum value to an initial value, wherein the NAS COUNT counts a number of NAS messages sent in an uplink or downlink direction over the NAS connection; and wherein said deriving comprises deriving the new K AMF key from a K AMF key on which the NAS keys were derived, and the value of the NAS COUNT. detecting one or more conditions under which non-access stratum, NAS, keys that protect NAS communication between the network equipment and a wireless device are to be refreshed; responsive to detecting the one or more conditions, deriving a new K AMF key on which fresh NAS keys are to be derived; and activating the new K AMF key, wherein the one or more conditions include one or more conditions that are detected before a value of a NAS COUNT for a NAS connection between the AMF and the wireless device wraps around from a maximum value to an initial value, wherein the NAS COUNT counts a number of NAS messages sent in an uplink or downlink direction over the NAS connection; and wherein said deriving comprises deriving the new K AMF key from a K AMF key on which the NAS keys were derived, and the value of the NAS COUNT.