mhurhangee/ep-ind-claims huggingface dataset:
Interrupter unit for a gas-insulated high or medium voltage device comprising a first arcing contact and a second arcing contact, wherein at least one of the arcing contacts (12,14) is axially movable along a switching axis, a heating channel for guiding an arc extinguishing gas from a heating volume to an arcing region formed between the first arcing contact and the second arcing contact, wherein the heating channel is formed in between an auxiliary nozzle and an insulating nozzle, the auxiliary nozzle at least partially surrounding one of the arcing contacts (12, 14), wherein the interrupter unit comprises a transition region of the heating volume to the heating channel, characterised by a flow guiding element in the transition region of the heating volume to the heating channel, wherein the transition region is formed around the connection of the heating channel to the heating volume and is a region comprising a change of a distance between sidewalls (30, 32) enclosing the heating channel and/or sidewalls enclosing the heating volume in the course of the direction of the switching axis, wherein a cross section of the flow guiding element along a plane comprising the switching axis comprises a closed shape, and wherein an aspect ratio of a convex hull of the closed shape is in between 1:3 to 3:1. a first arcing contact and a second arcing contact, wherein at least one of the arcing contacts (12,14) is axially movable along a switching axis, a heating channel for guiding an arc extinguishing gas from a heating volume to an arcing region formed between the first arcing contact and the second arcing contact, wherein the heating channel is formed in between an auxiliary nozzle and an insulating nozzle, the auxiliary nozzle at least partially surrounding one of the arcing contacts (12, 14), wherein the interrupter unit comprises a transition region of the heating volume to the heating channel, characterised by a flow guiding element in the transition region of the heating volume to the heating channel, wherein the transition region is formed around the connection of the heating channel to the heating volume and is a region comprising a change of a distance between sidewalls (30, 32) enclosing the heating channel and/or sidewalls enclosing the heating volume in the course of the direction of the switching axis, wherein a cross section of the flow guiding element along a plane comprising the switching axis comprises a closed shape, and wherein an aspect ratio of a convex hull of the closed shape is in between 1:3 to 3:1.
A driving support device comprising: a radar configured to be installed in a vehicle, for detecting an object in a predetermined area; driving support control means for performing a driving support control for supporting driving of a driver based on object information on the object detected by the radar; detection means for detecting an axis tilt state of the radar in which the radar axis tilts from a designated position, wherein the axis tilt state of the radar is detected based on the up-down or horizontal position of the detected object; first prohibition means for prohibiting the driving support control means from performing the driving support control based on the object information without confirming an axis tilt error, at and after a time point at which the radar axis tilt state is detected by the detection means; determination means (S13, S20) for determining whether or not the axis tilt state of the radar has disappeared before a predetermined time period elapses from the time point at which the radar axis tilt state is initially detected, the predetermined time period being a time period within which a cause for a temporary axis tilt state is expected to be removed; and cancel means for stopping prohibiting the driving support control, when the determination means determines that the radar axis tilt state has disappeared before the predetermined time period elapses ("No" at S13). a radar configured to be installed in a vehicle, for detecting an object in a predetermined area; driving support control means for performing a driving support control for supporting driving of a driver based on object information on the object detected by the radar; detection means for detecting an axis tilt state of the radar in which the radar axis tilts from a designated position, wherein the axis tilt state of the radar is detected based on the up-down or horizontal position of the detected object; first prohibition means for prohibiting the driving support control means from performing the driving support control based on the object information without confirming an axis tilt error, at and after a time point at which the radar axis tilt state is detected by the detection means; determination means (S13, S20) for determining whether or not the axis tilt state of the radar has disappeared before a predetermined time period elapses from the time point at which the radar axis tilt state is initially detected, the predetermined time period being a time period within which a cause for a temporary axis tilt state is expected to be removed; and cancel means for stopping prohibiting the driving support control, when the determination means determines that the radar axis tilt state has disappeared before the predetermined time period elapses ("No" at S13).
A method for determining antibiotic susceptibility of a microbe, the method comprising: (i) obtaining a sample comprising a microbe, wherein the microbe is bound to a microbe-targeting substrate, wherein the microbe-targeting substrate comprises a solid substrate and a microbe-binding molecule on a surface of the solid substrate, wherein the microbe-binding molecule comprises at least one carbohydrate recognition domain and N-terminus of the microbe-binding molecule is linked to the solid substrate; (ii) incubating the solid substrate-bound microbe in growth medium supplemented with at least one antibiotic agent for a pre-determined period of time; and (iii) detecting the growth, viability, or functional response of the microbe to the antibiotic agent, wherein reduced growth, viability, or function in the presence of the antibiotic agent relative to a reference or control sample indicates that the microbe is susceptible to the antibiotic agent. (i) obtaining a sample comprising a microbe, wherein the microbe is bound to a microbe-targeting substrate, wherein the microbe-targeting substrate comprises a solid substrate and a microbe-binding molecule on a surface of the solid substrate, wherein the microbe-binding molecule comprises at least one carbohydrate recognition domain and N-terminus of the microbe-binding molecule is linked to the solid substrate; (ii) incubating the solid substrate-bound microbe in growth medium supplemented with at least one antibiotic agent for a pre-determined period of time; and (iii) detecting the growth, viability, or functional response of the microbe to the antibiotic agent,
An article comprising: a glass-based substrate comprising a first surface, a second surface, and at least one hole extending from the first surface, wherein: the at least one hole comprises an interior wall having a surface roughness R a that is less than or equal to 1 μm; the at least one hole comprises a first opening having a first diameter that is present at the first surface; a first plane is defined by the first surface of the glass-based substrate based on an average thickness of the glass-based substrate; the at least one hole is surrounded by a depressed region in the first surface, whereby the depression depth D dep of the depressed region is less than or equal to 0.2 μm, wherein the depression depth is measured from the first plane to the first surface at the first opening of the at least one hole with the first surface being the location of a start of a vertical wall of the at least one hole, whereby the location of the start of the vertical wall of the at least one hole is the point where an angle α measured between a tangent line TL of a curved surface of the depressed region and the first plane is greater than 75 degrees; and a ratio of the depression depth D dep to the first diameter of the at least one hole is less than or equal to 0.007. the at least one hole comprises an interior wall having a surface roughness R a that is less than or equal to 1 μm; the at least one hole comprises a first opening having a first diameter that is present at the first surface; a first plane is defined by the first surface of the glass-based substrate based on an average thickness of the glass-based substrate; the at least one hole is surrounded by a depressed region in the first surface, whereby the depression depth D dep of the depressed region is less than or equal to 0.2 μm, wherein the depression depth is measured from the first plane to the first surface at the first opening of the at least one hole with the first surface being the location of a start of a vertical wall of the at least one hole, whereby the location of the start of the vertical wall of the at least one hole is the point where an angle α measured between a tangent line TL of a curved surface of the depressed region and the first plane is greater than 75 degrees; and a ratio of the depression depth D dep to the first diameter of the at least one hole is less than or equal to 0.007.
A service data storage method, applied to a computer device, and comprising: receiving service data of a user; determining, among a plurality of blockchains, a target blockchain corresponding to the service data based on a user attribute of the user; and generating, based on the service data and an eigenvalue of a block header of a first block in the target blockchain, a second block in the target blockchain, the first block being previous to the second block, and the second block being configured for recording the service data, characterised in that generating, based on the service data and the eigenvalue of the block header of the first block in the target blockchain, the second block in the target blockchain comprises: obtaining the eigenvalue of the block header of the first block based on the information in the block header of the first block, performing an eigenvalue calculation on the service data to be stored in a block body of the second block to obtain an eigenvalue of the block body of the second block, storing the eigenvalue of the block header of the first block and the eigenvalue of the block body of the second block into a block header of the second block, and storing the service data into the block body of the second block, to generate the second block. receiving service data of a user; determining, among a plurality of blockchains, a target blockchain corresponding to the service data based on a user attribute of the user; and generating, based on the service data and an eigenvalue of a block header of a first block in the target blockchain, a second block in the target blockchain, the first block being previous to the second block, and the second block being configured for recording the service data, characterised in that generating, based on the service data and the eigenvalue of the block header of the first block in the target blockchain, the second block in the target blockchain comprises: obtaining the eigenvalue of the block header of the first block based on the information in the block header of the first block, performing an eigenvalue calculation on the service data to be stored in a block body of the second block to obtain an eigenvalue of the block body of the second block, storing the eigenvalue of the block header of the first block and the eigenvalue of the block body of the second block into a block header of the second block, and storing the service data into the block body of the second block, to generate the second block. obtaining the eigenvalue of the block header of the first block based on the information in the block header of the first block, performing an eigenvalue calculation on the service data to be stored in a block body of the second block to obtain an eigenvalue of the block body of the second block, storing the eigenvalue of the block header of the first block and the eigenvalue of the block body of the second block into a block header of the second block, and storing the service data into the block body of the second block, to generate the second block.
An apparatus for manipulating an object in a borehole in an earthen formation, comprising a body configured to be conveyed along the borehole, the apparatus characterized by: a plurality of linear actuators (110, 112, 114) disposed in the body, wherein the plurality of linear actuators (110, 112, 114) includes a first, a second, and a third linear actuator; the first linear actuator and third linear actuator each having an end operatively connected to the body and an end operatively connected to the object, wherein each of the ends of first and third linear actuators operatively connected to the object comprise ajoint (138b; 138d) allowing relative rotational movement, and wherein each of the ends of the first and third linear actuators operatively connected to the body comprise a joint (138a; 138c) allowing relative rotational movement; the second linear actuator having a first end operatively connected to the first linear actuator and a second end operatively connected to the body, wherein the first end of the second linear actuator operatively connected to the first linear actuator comprises a joint allowing relative rotational movement, and wherein the second end of the second linear actuator operatively connected to the body is rigidly fixed to the body. the plurality of linear actuators (110, 112, 114) applying a translational and rotational movement to the object. a plurality of linear actuators (110, 112, 114) disposed in the body, wherein the plurality of linear actuators (110, 112, 114) includes a first, a second, and a third linear actuator; the first linear actuator and third linear actuator each having an end operatively connected to the body and an end operatively connected to the object, wherein each of the ends of first and third linear actuators operatively connected to the object comprise ajoint (138b; 138d) allowing relative rotational movement, and wherein each of the ends of the first and third linear actuators operatively connected to the body comprise a joint (138a; 138c) allowing relative rotational movement; the second linear actuator having a first end operatively connected to the first linear actuator and a second end operatively connected to the body, wherein the first end of the second linear actuator operatively connected to the first linear actuator comprises a joint allowing relative rotational movement, and wherein the second end of the second linear actuator operatively connected to the body is rigidly fixed to the body. the plurality of linear actuators (110, 112, 114) applying a translational and rotational movement to the object.
An optoelectronic sensor for detecting objects in a monitoring region, in particular a laser scanner, comprising at least a first transmission and reception unit and a second transmission and reception unit each having a light transmitter (22a-b) for transmitting transmission light (26a-b) and a light receiver (32a-b) for generating a reception signal from the remitted light (28a-b) remitted by objects in the monitoring region, a base unit, a movable scanning unit which is movable relative to the base unit about an axis of rotation and has the transmission and reception units (18a-b) for periodically scanning the monitoring area by the transmission and reception units (18a-b), and an evaluation unit (36, 46) for detecting information about the objects using the reception signals, wherein the first and second transmission and reception units (18a-b) are arranged opposite one another with 180° angular offset and opposite viewing direction, in particular orthogonal to the axis of rotation, characterized in that the first transmission and reception unit is configured for a more sensitive detection than the second transmission and reception unit, so that the first transmission and reception unit is also capable of detecting weakly remitting and/or distant objects and no or only slight overmodulation effects occur in the second transmission and reception unit.
A method for configuring sounding reference signal, SRS, resources of cooperating cells, comprising: grouping all cells into different cell groups; determining a SRS initial time domain resource configuration order of each cell group, wherein the SRS initial time domain resource configuration order comprises a sequential allocation of initial time domain resources according to a time division multiplexing scheme to each cell group; determining a SRS resource grouping policy of each cell according to state information of user equipments; and configuring SRS resources for user equipments accessing each cell according to the SRS initial time domain resource configuration order and the SRS resource grouping policy; said method characterised in that the determining the SRS resource grouping policy of each cell according to the state information of user equipments, UE, comprises: dividing each SRS time domain resource into S groups, wherein S=2M, and M is a ratio of a cell SRS bandwidth to a UE SRS bandwidth, the total code tree set corresponding to different frequency division resources and comb division resources resulting from said dividing being marked as Φ, wherein, Φ={k ∈ Z, 0≤k≤S-1, Z is the set of integers}; and when there are x kinds of state information of the UE, mapping each kind of state information of the UE to one code tree subset GroupAi, wherein, GroupAi={k|mod (k, x) = i}, i ∈ (0, 1,......, x-1), represents a set of remainder i obtained from k divided by x; wherein state information of user equipments comprises: user attributes and field strength information; wherein the user attributes comprise central users or edge users, and the field strength information comprises user power restricted or unrestricted. grouping all cells into different cell groups; determining a SRS initial time domain resource configuration order of each cell group, wherein the SRS initial time domain resource configuration order comprises a sequential allocation of initial time domain resources according to a time division multiplexing scheme to each cell group; determining a SRS resource grouping policy of each cell according to state information of user equipments; and configuring SRS resources for user equipments accessing each cell according to the SRS initial time domain resource configuration order and the SRS resource grouping policy; dividing each SRS time domain resource into S groups, wherein S=2M, and M is a ratio of a cell SRS bandwidth to a UE SRS bandwidth, the total code tree set corresponding to different frequency division resources and comb division resources resulting from said dividing being marked as Φ, wherein, Φ={k ∈ Z, 0≤k≤S-1, Z is the set of integers}; and when there are x kinds of state information of the UE, mapping each kind of state information of the UE to one code tree subset GroupAi, wherein, GroupAi={k|mod (k, x) = i}, i ∈ (0, 1,......, x-1), represents a set of remainder i obtained from k divided by x;
Dosing dispenser having a carrier structure, on which a liquid product container is held in an exchangeable manner, and having a housing structure, which is releasably fastened to the supporting structure and which covers the liquid product container in an assembled state, wherein the housing structure is assigned a mechanical adjusting device for manual setting of a liquid product specification, said adjusting device having a movable adjusting element on which at least two different product indication portions (11a, 11b, 11c) are provided in succession in a direction of movement of the adjusting element, and wherein the housing structure or the adjusting element have a visible marker, which are assigned to one another in such a way that, depending on an adjustment position of the adjusting element, a single product indication portion (11a, 11b, 11c) can be signalled in each case, characterized in that the movable adjusting element is designed as a circular-disc-shaped adjusting wheel rotatably mounted on the inner side of the housing structure, and in that, for the rotatable mounting of the adjusting wheel on the inner side of the housing structure, a concentrically arranged rotary bearing is provided which is formed, on the one hand, by a bearing profiled section formed integrally on the housing structure, and, on the other hand, by a complementary and likewise concentrically arranged bearing profiled section which latches with the bearing profiled section of the housing structure and which is formed integrally on the adjusting wheel.
Flexible profile comprising a plurality of lengthwise successive members (12, 14) and a plurality of connecting elements, wherein the members (12, 14) are connected via connecting elements, characterized in that the connecting elements are separated from one another, and that each pair of adjacent members (12, 14) is in each case connected via one connecting element which is connected to an adjacent member via a first bending edge, and to the other adjacent member via a second bending edge which is flush with the first bending edge at least in the linearly aligned state of the profile, and that the first and the second bending edges (32, 34) are aligned in the longitudinal direction of the profile and the connecting element comprises a third bending edge which is aligned perpendicular to the first and second bending edges (32, 34).
Anti-laser armour for protecting an object, in particular a vehicle, from laser weapons, having an armour element that can be arranged on the object, wherein the armour element can be arranged so as to be movable in respect of the object, having a sensor for identifying laser radiation, characterized by a screen concealing the movements of the armour element, wherein the laser armour is configured in such a manner that the laser radiation is detected by means of the sensor and when laser radiation is detected, the armour element is automatically set in relative motion with respect to the detected laser radiation, the laser radiation does not act on one and the same point over a prolonged period of time.
An X-ray imaging system, comprising: an X-ray tube having a centerline axis and arranged to emit X-rays; a roll mechanism to enable a roll rotation of the X-ray tube about the centerline axis; and a rotational collimator having a centerline axis that is a common centerline axis with the centerline axis of the X-ray tube and arranged to direct X-rays from the X-ray tube, wherein the collimator is rotatable about the common centerline axis with the X-ray tube; characterized in that the X-ray imaging system further comprises: a yaw mechanism to enable rotation of the rotational collimator and the X-ray tube about a yaw axis of rotation perpendicular to the common centerline axis, wherein rotation of the X-ray tube about the common centerline axis is independent of the rotation of the rotational collimator. an X-ray tube having a centerline axis and arranged to emit X-rays; a roll mechanism to enable a roll rotation of the X-ray tube about the centerline axis; and a rotational collimator having a centerline axis that is a common centerline axis with the centerline axis of the X-ray tube and arranged to direct X-rays from the X-ray tube, wherein the collimator is rotatable about the common centerline axis with the X-ray tube; characterized in that the X-ray imaging system further comprises: a yaw mechanism to enable rotation of the rotational collimator and the X-ray tube about a yaw axis of rotation perpendicular to the common centerline axis, wherein rotation of the X-ray tube about the common centerline axis is independent of the rotation of the rotational collimator. a yaw mechanism to enable rotation of the rotational collimator and the X-ray tube about a yaw axis of rotation perpendicular to the common centerline axis, wherein rotation of the X-ray tube about the common centerline axis is independent of the rotation of the rotational collimator.