mhurhangee/ep-ind-claims huggingface dataset:
A drive assembly for a medication delivery device, comprising - a piston rod movable from a start position to an end position for medication delivery and resettable from the end position to the start position and - a guide member being in engagement with the piston rod, characterized in that the drive assembly further comprises - an impeding element for impeding a movement of the guide member during a reset of the piston rod, thereby impeding a reset of the piston rod. - a piston rod movable from a start position to an end position for medication delivery and resettable from the end position to the start position and - a guide member being in engagement with the piston rod, - an impeding element for impeding a movement of the guide member during a reset of the piston rod, thereby impeding a reset of the piston rod.
A method comprising: causing, at least in part, a generation of token data associated with at least one scheduled meeting between at least one first user and at least one second user; causing, at least in part, a transmission of the token data to at least one first device associated with the at least one first user and at least one second device associated with the at least one second user; causing, at least in part, an activation of at least one device detection means for the at least one first device, the at least one second device, or a combination thereof; causing, at least in part, a broadcasting of the token data in at least one custom field of a wireless protocol for a detection and/or an authentication by the at least one first device, the at least one second device, or a combination thereof; and causing, at least in part, a sharing of location information between the at least one first device and the at least one second device based, at least in part, on the token data. causing, at least in part, a generation of token data associated with at least one scheduled meeting between at least one first user and at least one second user; causing, at least in part, a transmission of the token data to at least one first device associated with the at least one first user and at least one second device associated with the at least one second user; causing, at least in part, an activation of at least one device detection means for the at least one first device, the at least one second device, or a combination thereof; causing, at least in part, a broadcasting of the token data in at least one custom field of a wireless protocol for a detection and/or an authentication by the at least one first device, the at least one second device, or a combination thereof; and causing, at least in part, a sharing of location information between the at least one first device and the at least one second device based, at least in part, on the token data.
Remotely actuatable bolt trailer coupling having a coupling body, comprising a bolt housing and a coupling jaw adjacent to the bolt housing, into which a towing eye can be introduced for the designated use along a coupling axis, wherein a coupling bolt can be moved along a motion axis between an inactive position more retracted from the coupling jaw and more introduced into the bolt housing and an active position more introduced into the coupling jaw and more retracted from the bolt housing, wherein the bolt trailer coupling comprises an actuating shaft rotatable around a shaft axis, which is coupled to the coupling bolt by way of a transmission device transferring force and motion in such a way that actuating the actuating shaft in at least one rotating direction causes the coupling bolt to move between its inactive position and its active position in at least one direction, wherein the bolt trailer coupling comprises a bolt drive with a piston-cylinder arrangement (26, 30) featuring a piston rod (26b, 30b) extensible along its longitudinal piston rod axis (K26, K30) from a cylinder (26a, 30a), wherein the piston-cylinder arrangement (26, 30) is coupled to an thrust bearing (44, 46) affixed to the coupling body on one end and connected to the actuating shaft on the other end, in such a way that an extension and/or retraction motion of the piston rod (26b, 30b) relative to the cylinder (26a, 30a) enables the rotating actuation of the actuating shaft relative to the motion of the coupling bolt between the inactive position and the active position in at least one rotating direction around the shaft axis, wherein the bolt drive further comprises a drive shaft (52, 62) rotatably mounted around a drive axis (A, B), separate from the actuating shaft, which is coupled to the actuating shaft for joint rotation, wherein the piston-cylinder arrangement (26, 30) is coupled on the other end to a rotation drive formation (50, 60) of the drive shaft (52, 62), in such a way that an extension and/or retraction motion of the piston rod (26b, 30b) relative to the cylinder (26a, 30a) causes the drive shaft (52, 62) to rotate around its drive axis (A, B) and thus, the actuating shaft to rotate around its shaft axis, characterized in that the piston rod (26b, 30b) is also retractable into the cylinder (26a, 30a) and can, at least during an extension or retraction motion, be pivoted around a pivot axis forming an angle with the longitudinal piston rod axis (K26, K30).
A change detection apparatus comprising: a parameter acquiring section configured to acquire a value of at least one setting parameter of a field device, at predetermined time intervals; a change detecting section configured to detect whether the value of the setting parameter has been changed; and a change information output section configured to output change information, in response to a change in the value of the setting parameter having been detected; characterised in that the parameter acquiring section is configured so as, in response to a change having been detected in the value of any setting parameter that is a change detection target, further acquire values of a plurality of non-target setting parameters that are not change detection targets, and the change information output section is configured to output the change information including the acquired values of the plurality of non-target setting parameters in response to the change having been detected in the value of any setting parameter that is the change detection target. a parameter acquiring section configured to acquire a value of at least one setting parameter of a field device, at predetermined time intervals; a change detecting section configured to detect whether the value of the setting parameter has been changed; and a change information output section configured to output change information, in response to a change in the value of the setting parameter having been detected; characterised in that the parameter acquiring section is configured so as, in response to a change having been detected in the value of any setting parameter that is a change detection target, further acquire values of a plurality of non-target setting parameters that are not change detection targets, and the change information output section is configured to output the change information including the acquired values of the plurality of non-target setting parameters in response to the change having been detected in the value of any setting parameter that is the change detection target.
A flame supporting cover formed by several separate parts which connect to form a functional unit, comprising of a lower part (1-image 5), an upper part (2-image 5) and an inverted dome (6-image 5), characterised by: a lower part (1-image 12), which includes a seat (3-image 1), a body (4-image 1,2) of smaller diameter, a formwork that has vertical openings (5-image 1) and that is vaulted by the Inverted dome (6-image 1,2), which optionally can be separable and inserted into the top of the body (4-Image 1,2); and an upper part (2-image 3), which includes a roofing (8-image 3) with horizontal openings (9-image 3) located on the edge of the roofing (8-image 3) with wings (11-image 3), a gutter (10-image 3) and a cape (7-image 3). a lower part (1-image 12), which includes a seat (3-image 1), a body (4-image 1,2) of smaller diameter, a formwork that has vertical openings (5-image 1) and that is vaulted by the Inverted dome (6-image 1,2), which optionally can be separable and inserted into the top of the body (4-Image 1,2); and an upper part (2-image 3), which includes a roofing (8-image 3) with horizontal openings (9-image 3) located on the edge of the roofing (8-image 3) with wings (11-image 3), a gutter (10-image 3) and a cape (7-image 3).
A computer-implemented method comprising: receiving, via an airborne network and by a computing device associated with a live-force aircraft in a training environment (10, 400), simulated data representing simulated attributes of a live adversary aircraft, wherein the simulated data transforms a digital representation of the live adversary aircraft into a combat adversary aircraft having the simulated attributes, and the simulated data are packet based; receiving sensor data from the live adversary aircraft; merging the sensor data with the simulated data based on differences between the sensor data and the simulated data using data fusion to retain sensor data that does not conflict with the simulated data and to override sensor data that conflicts with the simulated data; and executing, by the computing device, one or more operations based on receiving the simulated data for creating a training simulation for the live-force aircraft and on merging the sensor data with the simulated data, wherein the training simulation includes the adversary aircraft with the simulated attributes. receiving, via an airborne network and by a computing device associated with a live-force aircraft in a training environment (10, 400), simulated data representing simulated attributes of a live adversary aircraft, wherein the simulated data transforms a digital representation of the live adversary aircraft into a combat adversary aircraft having the simulated attributes, and the simulated data are packet based; receiving sensor data from the live adversary aircraft; merging the sensor data with the simulated data based on differences between the sensor data and the simulated data using data fusion to retain sensor data that does not conflict with the simulated data and to override sensor data that conflicts with the simulated data; and executing, by the computing device, one or more operations based on receiving the simulated data for creating a training simulation for the live-force aircraft and on merging the sensor data with the simulated data, wherein the training simulation includes the adversary aircraft with the simulated attributes.
Large household appliance in the form of a refrigeration appliance, comprising a carcass and a closure element fastened thereto with at least one hinge (5, 6), the large household appliance further comprising a support element (24, 25, 36) coupled to the hinge (5, 6), wherein the support element (24, 25, 36) which is separate with respect to the hinge (5, 6) has a connecting segment for coupling to the hinge (4, 5) and the connecting segment has one, two or more pins, which engage in receptacles of the hinge (5, 6) or the connecting segment has one, two or more receptacles, which are flush with receptacles of the hinge (5, 6), in order to enable a screw connection between the support element (24, 25, 36) and the hinge (5, 6), wherein the support element (24, 25, 36) has at least one coupling segment (31, 37, 38, 52, 74), by means of which the support element (24, 25, 36) is coupled to the carcass, in particular in a form-fit and/or force-fit manner, and wherein the at least one coupling segment (31, 37, 38) has a bearing surface in contact with a front surface of the carcass, characterised in that a screw opening is provided within the bearing surface in contact with the front surface of the carcass in order to embody a screw connection between the support element (24, 25, 36) and the carcass.
A method for controlling power of a cognitive radio system, comprising: measuring a system parameter of a cognitive radio system and a system parameter of a television system located in an adjacent channel of the cognitive radio system; determining a maximum transmission power of the cognitive radio system according to the system parameter of the cognitive radio system and the system parameter of the TV system; and controlling an actual transmission power of the cognitive radio system to be less than the maximum transmission power; wherein after controlling the actual transmission power of the cognitive radio system to be less than the maximum transmission power, the method further comprises: determining a maximum value of an interference power received by the cognitive radio system; judging whether the maximum value is less than a maximum interference power allowable in the cognitive radio system; if it is judged that the maximum value is less than the maximum interference power allowable in the cognitive radio system, determining that the cognitive radio system and the TV system coexist. measuring a system parameter of a cognitive radio system and a system parameter of a television system located in an adjacent channel of the cognitive radio system; determining a maximum transmission power of the cognitive radio system according to the system parameter of the cognitive radio system and the system parameter of the TV system; and controlling an actual transmission power of the cognitive radio system to be less than the maximum transmission power; determining a maximum value of an interference power received by the cognitive radio system; judging whether the maximum value is less than a maximum interference power allowable in the cognitive radio system; if it is judged that the maximum value is less than the maximum interference power allowable in the cognitive radio system, determining that the cognitive radio system and the TV system coexist.
A fan nacelle for a gas turbine engine comprising: a leading edge region that defines a flow path between an intake region in a nacelle outer surface and an exhaust region in a nacelle inner surface; a throat region, which is a radially narrow-most portion of the nacelle; and a tertiary region within said inner surface and within, or axially forward of the throat region, and wherein said tertiary region includes a porous structure and wherein the tertiary region is within said inner surface forward of said exhaust region. a leading edge region that defines a flow path between an intake region in a nacelle outer surface and an exhaust region in a nacelle inner surface; a throat region, which is a radially narrow-most portion of the nacelle; and a tertiary region within said inner surface and within, or axially forward of the throat region, and wherein said tertiary region includes a porous structure and wherein the tertiary region is within said inner surface forward of said exhaust region.
Vehicle, preferably an agricultural vehicle, such as a spreader for delivering spreadable materials, such as manure, comprising a truck box and a hydraulic system, comprising - means for connecting to a hydraulic pump, - a hydraulic motor for driving a propulsion device arranged in the bottom of the truck box, which comprises at least one bottom chain with associated idler wheels and chain tensioning device for tensioning the bottom chain through an essentially linear displacement of at least one of the idler wheels, - one or more hydraulic cylinders, which form part of the chain tensioning device, and which with a piston movement in one direction causes the chain to tension, wherein the vehicle has a first operating mode, in which the bottom chain has a first direction of operation and a second operating mode, in which the bottom chain has a second direction of operation, which is counter to the first direction of operation, characterised in that, the hydraulic cylinders have a first effective piston area in the first operating mode, the hydraulic cylinders have a second effective piston area in the second operating mode, and that the first and second effective piston area are different from each other. - means for connecting to a hydraulic pump, - a hydraulic motor for driving a propulsion device arranged in the bottom of the truck box, which comprises at least one bottom chain with associated idler wheels and chain tensioning device for tensioning the bottom chain through an essentially linear displacement of at least one of the idler wheels, - one or more hydraulic cylinders, which form part of the chain tensioning device, and which with a piston movement in one direction causes the chain to tension, wherein the vehicle has a first operating mode, in which the bottom chain has a first direction of operation and a second operating mode, in which the bottom chain has a second direction of operation, which is counter to the first direction of operation,
A portable camera for recording an image of an object such as printed paper, wherein the camera is arranged to be positioned on the object to be recorded, wherein the camera is provided with an outer lower surface which is arranged to be in contact with the object if the camera is positioned on the object, a light sensitive sensor for obtaining an image of at least a portion of the object, and processing means for processing the image obtained by means of the sensor, wherein the camera is provided with at least one lighting unit (14, 34) for lighting the object to be recorded when the camera is positioned on the object, wherein the at least one lighting unit is arranged within the camera on a position relative to the sensor such that if the object which is recorded would be a flat mirror whereon the camera is positioned for recording the reflective surface of the flat mirror, the at least one lighting unit is placed in an area where the sensor cannot see the at least one lighting unit and the at least one lighting unit is located outside a viewing field of the sensor which viewing field is formed in combination with the flat mirror, characterized in that, the camera is arranged such that light rays of the at least one lighting unit which are, in use, submitted to the object are not diffused, and are submitted to the object via at least one light mirror of the camera by means of specular reflection only and/or via at least one lens by means of specular transmission only.
A paper sheet processing apparatus for processing a paper sheet with conveying the paper sheet having been fed, the apparatus main body comprising: a paper feed section for feeding the paper sheet; a conveyance section for conveying the fed paper sheet along a conveyance path; and at least one kind of paper sheet processing section (4, 5) for performing predetermined processing on the conveyed paper sheet, characterized by a paper passable region width (Wb) defined as a dimension of a paper passable region of the conveyance path in width directions perpendicular to a conveyance direction is set to be a maximum width dimension that permits conveyance of the paper sheet without a paper jam in the paper sheet processing section in a standby state, and wherein a prevention section for, when a feed paper sheet width defined as a width dimension of a paper sheet to be fed is greater than the paper passable region width, preventing the to-be-fed paper sheet from being conveyed intact to the paper sheet processing section is further provided.
A method for providing positron emission tomography detection structure with application adaptability, the positron emission tomography detection structure comprises at least two detector blocks and one detection ring for disposing the detector blocks, the at least two detector blocks are arranged on the detection ring and surround an object under detection, each detector block has properties comprising inherent spatial resolution, temporal characteristic, energy resolution, detection efficiency and maximum counting rate, wherein the method comprises the steps of: grading the properties of the detector blocks respectively into a plurality of levels, and arranging at least one of the detector blocks on the detection ring with a property being graded at a different level than the graded level of the respective property of another detector block arranged on the detection ring. grading the properties of the detector blocks respectively into a plurality of levels, and arranging at least one of the detector blocks on the detection ring with a property being graded at a different level than the graded level of the respective property of another detector block arranged on the detection ring.
A method of determining a property of a component, the method comprising: obtaining a strain state of the component, wherein the strain state has at least three degrees of freedom; and providing the strain state of the component to a trained statistical bandgap model of a material of the component and obtaining a corresponding output bandgap of the component. obtaining a strain state of the component, wherein the strain state has at least three degrees of freedom; and providing the strain state of the component to a trained statistical bandgap model of a material of the component and obtaining a corresponding output bandgap of the component.
A communication method, comprising: identifying, by a first central controller, a pattern for muting resource elements, REs, of a first type of control channel for user equipment, UE, according to a common references signal, CRS, pattern; identifying, by the first central controller, a set of subframes including the first type of control channel, the set of subframes having REs which, according to the pattern for muting REs, should be muted; muting, by the first central controller, the REs which, according to the pattern for muting REs, should be muted in the first type of control channel; frequency-division multiplexing, by the first central controller, the first type of control channel with data channels, wherein at least one of the data channels has data REs which, according to the pattern for muting REs, should be muted; transmitting, by the first central controller, the first type of control channel in the set of subframes with muted REs which, according to the pattern for muting REs, should be muted; and transmitting, by the first central controller, at least one of the data channels including data information on the data REs which, according to the pattern for muting REs, should be muted. identifying, by a first central controller, a pattern for muting resource elements, REs, of a first type of control channel for user equipment, UE, according to a common references signal, CRS, pattern; identifying, by the first central controller, a set of subframes including the first type of control channel, the set of subframes having REs which, according to the pattern for muting REs, should be muted; muting, by the first central controller, the REs which, according to the pattern for muting REs, should be muted in the first type of control channel; frequency-division multiplexing, by the first central controller, the first type of control channel with data channels, wherein at least one of the data channels has data REs which, according to the pattern for muting REs, should be muted; transmitting, by the first central controller, the first type of control channel in the set of subframes with muted REs which, according to the pattern for muting REs, should be muted; and transmitting, by the first central controller, at least one of the data channels including data information on the data REs which, according to the pattern for muting REs, should be muted.