mhurhangee/ep-ind-claims huggingface dataset:
A head-mounted display apparatus comprising: a deformable stepped lens that: provides a first optical power when a shape of the deformable stepped lens comprises a first state; and provides a second optical power different from the first optical power when the shape of the deformable stepped lens comprises a second state different from the first state; and characterised by, an actuator coupled to the deformable stepped lens that is configured to apply an amount of force identified with the second optical power to the deformable stepped lens to alter the shape of the deformable stepped lens from the first state to the second state. provides a first optical power when a shape of the deformable stepped lens comprises a first state; and provides a second optical power different from the first optical power when the shape of the deformable stepped lens comprises a second state different from the first state; and characterised by, an actuator coupled to the deformable stepped lens that is configured to apply an amount of force identified with the second optical power to the deformable stepped lens to alter the shape of the deformable stepped lens from the first state to the second state.
An arrangement comprising: a base having a bore disposed therein extending from a first surface of the base through a second surface of the base; and a fluid transport tube having a first end, a second end opposite the first end, and a lumen having an inner diameter, at least the second end of the tube being received within the bore of the base; characterized in that the arrangement comprises: at least one fluid transport-enhancing groove comprising at least a first section disposed in the second surface of the base and in fluid communication with the bore; an assay pad containing a chemical reagent and in direct fluid communication with the bore and the at least one fluid transport-enhancing groove; and a cap configured to secure the assay pad to the base, the cap constructed to permit optical communication with the assay pad. a base having a bore disposed therein extending from a first surface of the base through a second surface of the base; and a fluid transport tube having a first end, a second end opposite the first end, and a lumen having an inner diameter, at least the second end of the tube being received within the bore of the base; at least one fluid transport-enhancing groove comprising at least a first section disposed in the second surface of the base and in fluid communication with the bore; an assay pad containing a chemical reagent and in direct fluid communication with the bore and the at least one fluid transport-enhancing groove; and a cap configured to secure the assay pad to the base, the cap constructed to permit optical communication with the assay pad.
Parameterizable automation technology device, with: a memory in which a device parameter of the parameterizable automation technology device is pre-stored; a wireless communication interface for receiving update data for updating the prestored device parameter through a communication network; and a processor configured to update the prestored device parameter based on the received update data and to set operation of the parameterizable automation technology device based on the updated device parameter, characterized in that the memory is partitioned into a data partition and a communication partition, wherein the data partition and the communication partition are configured, so that the prestored device parameter, the updated device parameter and/or the update data can be stored in the data partition, and information about receiving the update data can be stored in the communication partition, the processor being adapted to detect receiving the update data by reading out the information about receiving the update data from the communication partition of the memory, and to erase or overwrite the information stored in the communication partition about receiving the update data, wherein the processor is further adapted to check the received update data for data transmission errors, and to discard the received update data in the presence of a data transmission error. a memory in which a device parameter of the parameterizable automation technology device is pre-stored; a wireless communication interface for receiving update data for updating the prestored device parameter through a communication network; and a processor configured to update the prestored device parameter based on the received update data and to set operation of the parameterizable automation technology device based on the updated device parameter, characterized in that the memory is partitioned into a data partition and a communication partition, wherein the data partition and the communication partition are configured, so that the prestored device parameter, the updated device parameter and/or the update data can be stored in the data partition, and information about receiving the update data can be stored in the communication partition, the processor being adapted to detect receiving the update data by reading out the information about receiving the update data from the communication partition of the memory, and to erase or overwrite the information stored in the communication partition about receiving the update data, wherein the processor is further adapted to check the received update data for data transmission errors, and to discard the received update data in the presence of a data transmission error.
A method of handling a hybrid automatic repeat request, HARQ feedback by a user equipment in a mobile communication system, the method comprising: receiving, from a base station, uplink resource allocation information for an uplink carrier through a downlink carrier; transmitting uplink data based on the uplink resource allocation information through the uplink carrier; receiving, when the transmission of the uplink data is performed based on a cross carrier scheduling, HARQ feedback information corresponding to the uplink data by monitoring the downlink carrier through which the uplink resource allocation information is received; and receiving, when the transmission of the uplink data is not performed based on the cross carrier scheduling, HARQ feedback information corresponding to the uplink data through a downlink carrier having a feedback relation with the uplink carrier. receiving, from a base station, uplink resource allocation information for an uplink carrier through a downlink carrier; transmitting uplink data based on the uplink resource allocation information through the uplink carrier; receiving, when the transmission of the uplink data is performed based on a cross carrier scheduling, HARQ feedback information corresponding to the uplink data by monitoring the downlink carrier through which the uplink resource allocation information is received; and receiving, when the transmission of the uplink data is not performed based on the cross carrier scheduling, HARQ feedback information corresponding to the uplink data through a downlink carrier having a feedback relation with the uplink carrier.
Active implantable medical device comprising a processing unit able to be alternately operated during a determined period of activity and on standby during a period of standby in a cyclical manner, and means for acquiring data related to a physiological and/or physical activity, characterized in that the device further comprises calculating means for calculating a frequency analysis of the acquired data, said calculating means being able to successively execute a portion of the frequency analysis during periods of activity of the processing unit, and means for optimizing the frequency analysis by fractioning the frequency analysis into a plurality of elementary modules, the calculating means successively executing the elementary modules during periods of activity of the processing unit.
Connector arrangement, in particular for conducting liquid urea solutions, comprising a distributor with at least three connecting elements (4, 18) and a connecting component located between the connecting elements (4, 18), with inner channels running within this connecting component and three individual lines, wherein the individual lines exhibit connecting means, and the individual lines are connected to the connecting elements (4, 18) of the distributor by means of the connecting means, and a housing which surrounds the distributor and at least a part of the individual lines, wherein the distributor is disposed in the housing together with the end sections of the connected individual lines, wherein a channel line inner diameter (d) of the inner channels of the connecting component and a total length (l g) of the inner channels of the connecting component and a wall thickness (t) of the distributor in the connecting component are dimensioned such that ice pressure on the distributor which occurs as a result of the freezing of a liquid within the distributor does not result in any destruction, wherein the connecting elements (4, 18) are cylindrical sleeves, into each of them an individual line is inserted, wherein the inner channels of the connecting component extend all the way to the transitions from the connecting component to the cylindrical sleeve characterized in that the total length (l g) of the inner channels of the connecting component divided by the channel line inner diameter (d) of the connecting component of the distributor is less than or equal to 9 in the following formula: total length l g of the inner channels 5 channel line inner diameter d ≤ 9 and wherein the connecting component of the distributor exhibits a channel line inner diameter (d) which is less than or equal to a minimal connection line inner diameter of a connected individual line. a channel line inner diameter (d) of the inner channels of the connecting component and a total length (l g) of the inner channels of the connecting component and a wall thickness (t) of the distributor in the connecting component are dimensioned such that ice pressure on the distributor which occurs as a result of the freezing of a liquid within the distributor does not result in any destruction, wherein the connecting elements (4, 18) are cylindrical sleeves, into each of them an individual line is inserted, wherein the inner channels of the connecting component extend all the way to the transitions from the connecting component to the cylindrical sleeve characterized in that the total length (l g) of the inner channels of the connecting component divided by the channel line inner diameter (d) of the connecting component of the distributor is less than or equal to 9 in the following formula: total length l g of the inner channels 5 channel line inner diameter d ≤ 9 and wherein the connecting component of the distributor exhibits a channel line inner diameter (d) which is less than or equal to a minimal connection line inner diameter of a connected individual line.
A battery module, comprising: a plurality of battery cells, each having an accommodation portion in which an electrode assembly is accommodated and a sealing portion for sealing the accommodation portion; a thermal-conductive sheet configured to surround at least a part of the battery cells in surface contact with the battery cells; a side cooling fin located at an inner side of the thermal-conductive sheet and at least partially in contact with the accommodation portions of the battery cells; and a cooling plate in contact with the thermal-conductive sheet. a plurality of battery cells, each having an accommodation portion in which an electrode assembly is accommodated and a sealing portion for sealing the accommodation portion; a thermal-conductive sheet configured to surround at least a part of the battery cells in surface contact with the battery cells; a side cooling fin located at an inner side of the thermal-conductive sheet and at least partially in contact with the accommodation portions of the battery cells; and a cooling plate in contact with the thermal-conductive sheet.
A switch unit, comprising: a switch having a movable electrode and a fixed electrode facing the movable electrode; a bushing conductor to be electrically connected to one of the movable electrode or the fixed electrode and to be connected to a bus bar; and a bushing conductor to be electrically connected to the other of the movable electrode or the fixed electrode and to be connected to a cable; wherein the switch unit is cast as one body with a resin, the resin is provided with resin fins (1, 41), characterized in that the resin fin has a height sloped in the longitudinal direction of the resin fin, wherein the height of the resin fin (1, 41) is large near a heat buildup region and small near a region having a small amount of heat generation. a switch having a movable electrode and a fixed electrode facing the movable electrode; a bushing conductor to be electrically connected to one of the movable electrode or the fixed electrode and to be connected to a bus bar; and a bushing conductor to be electrically connected to the other of the movable electrode or the fixed electrode and to be connected to a cable;
A friction plug welding method to plug a hole extending through a component part between front (Ff) and back faces (Fb) thereof, the method being characterized by the steps of: (a) positioning a sacrificial plate having an opening therethrough against the back face (Fb) of the component part, using a restraint part, so that the opening is coaxially aligned with the hole to be plugged; and (b) advancing a male plug of a plug rod into the hole under friction plug welding conditions to cause a friction weld region to be formed between the male plug and defining surfaces of both the hole extending through the component part and the opening extending through the sacrificial plate. (a) positioning a sacrificial plate having an opening therethrough against the back face (Fb) of the component part, using a restraint part, so that the opening is coaxially aligned with the hole to be plugged; and (b) advancing a male plug of a plug rod into the hole under friction plug welding conditions to cause a friction weld region to be formed between the male plug and defining surfaces of both the hole extending through the component part and the opening extending through the sacrificial plate.
Locking drive for locking and unlocking a sash of a window, a leaf of a door or the like, having a motorized drive unit; an in particular mechanical locking energy store which can be preloaded via the motorized drive unit and which, for locking the sash/leaf, can be coupled to a locking fitting assigned thereto; an in particular mechanical unlocking energy store which can be preloaded via the motorized drive unit and which, for unlocking the sash/leaf, can be coupled to the locking fitting; and a control device via which the motorized drive unit can be controlled in such a way and the unloading of a respective preloaded energy store (14, 16) can be triggered in such a way that, to lock the sash/leaf, with the motorized drive unit stationary, at first the unloading of the preloaded locking energy store is triggered by the energy stored in the preloaded locking energy store and, only after successful locking, the unlocking energy store is preloaded by the motorized drive unit, and, to unlock the sash/leaf, with the motorized drive unit stationary, at first the unloading of the preloaded unlocking energy store is triggered by the energy stored in the preloaded unlocking energy store and, only after successful unlocking, the locking energy store is preloaded by the motorized drive unit.
A method for transmitting a combined frequency reuse communication in a wireless network wherein said wireless network comprising at least two base stations each of which is operative to transmit communications to at least three sectors and wherein communications transmitted by each of said at least two base stations are transmitted along a plurality of sub-channels associated with given frequency channel partitions, wherein at least one of said transmitted combined frequency reuse communication frames comprises at least one sub-channel operative in accordance with a first reuse scheme and at least one other sub-channel operative in accordance with a reuse scheme which is different from said first reuse scheme, the method being characterized in that transmission power for conveying communications along at least one sub-channel assigned in each of said at least three sectors according to said first reuse scheme, is substantially equal to that used for conveying communications according to said first reuse scheme in each of the other sectors, and wherein the at least one other sub-channel operative in accordance with the other reuse scheme, is adapted to convey communications at a transmission power higher than a first pre-defined threshold in at least one of said at least 3 sectors and to convey communications in at least one other of said 3 sectors at a transmission power level being lower than said first pre-defined threshold but higher than a second pre-defined threshold.
A method for validating a depth-depth curve for matching corresponding events between a depth seismic and a model of a seismic trace, the depth-depth curve being used to calibrate seismic depths to true vertical depths, which comprises: computing a time-seismic-depth interval velocity curve using the depth-depth curve and a computer system; building an interval velocity difference curve using a difference between a time depth interval velocity curve and the time-seismic-depth interval velocity curve; validating the depth-depth curve using a correlation coefficient that represents a measure of similarity between a seismic-depth converted synthetic trace and depth seismic data, and using the time-seismic-depth interval velocity curve and the interval velocity difference curve; the method characterized in that validating the depth-depth curve further comprises determining whether the correlation coefficient, the time-seismic-depth interval velocity curve and the interval velocity difference curve are acceptable; editing the depth-depth curve; and repeating the steps of computing a time-seismic-depth interval velocity curve, of building an interval velocity difference curve, and of validating the depth-depth curve until the correlation coefficient, the time-seismic-depth interval velocity curve and the interval velocity difference curve are acceptable; and wherein the depth-depth curve is edited by adjusting one of one or more of the seismic depth values in the depth-depth curve while maintaining each respective true vertical depth value and one or more of the true vertical depth values in the depth-depth curve while maintaining each respective seismic depth value. computing a time-seismic-depth interval velocity curve using the depth-depth curve and a computer system; building an interval velocity difference curve using a difference between a time depth interval velocity curve and the time-seismic-depth interval velocity curve; validating the depth-depth curve using a correlation coefficient that represents a measure of similarity between a seismic-depth converted synthetic trace and depth seismic data, and using the time-seismic-depth interval velocity curve and the interval velocity difference curve; the method characterized in that validating the depth-depth curve further comprises determining whether the correlation coefficient, the time-seismic-depth interval velocity curve and the interval velocity difference curve are acceptable; editing the depth-depth curve; and repeating the steps of computing a time-seismic-depth interval velocity curve, of building an interval velocity difference curve, and of validating the depth-depth curve until the correlation coefficient, the time-seismic-depth interval velocity curve and the interval velocity difference curve are acceptable; and wherein the depth-depth curve is edited by adjusting one of one or more of the seismic depth values in the depth-depth curve while maintaining each respective true vertical depth value and one or more of the true vertical depth values in the depth-depth curve while maintaining each respective seismic depth value.
A testing head having vertical probes for testing the working of a device under test, said testing head comprising a plurality of contact probes, each contact probe having a rod-like body of a predetermined length that extends between a first end and a second end (21A, 21B) and being housed in respective guide holes (22A, 23A) made in at least one plate-like lower guide and one plate-like upper guide that are parallel to each other and spaced apart by a bending zone, wherein at least one of said lower guide and upper guide is equipped with at least one recessed portion (27, 27B) that includes a plurality of said guide holes (22A, 23A), characterized that said at least one recessed portion includes lowered portions (26A, 26B) corresponding said plurality of said guide holes, adapted to reduce a thickness of said plurality of said guide holes (22A, 23A).
A method of forming a pattern, the method comprising the steps of: a) applying coatings (9, 9a, 9b, 9c, 9d) containing an ionic component having a positive or negative electric charge on a first side of a first substrate; b) bringing the first side of the first substrate into contact with an uneven portion of a first side of a second substrate to transfer a portion of the coatings (9, 9a, 9b, 9c, 9d) that corresponds to projections of the second substrate from the first substrate onto the second substrate; and c) bringing the first side of the second substrate into contact with a print object to transfer the coatings (9, 9a, 9b, 9c, 9d) onto the print object, wherein an electrode (6, 1) is provided on a second side (8b, 2b), of the first substrate and the second substrate, which is opposite to the first side (8a, 2a) of the substrate (8, 2), wherein the electrode on the second substrate is electrified to have the electric charge opposite to the electric charge of the ionic component of the coatings (9, 9a, 9b, 9c, 9d) in step (b) and/or to have the same electric charge as the ionic component of the coatings (9, 9a, 9b, 9c, 9d) in step (c), and wherein a print object electrode is provided on another side of the print object that is opposite to a side of the print object on which a pattern is formed, and is electrified to have the electric charge opposite to the electric charge of the ionic component of the coatings (9, 9a, 9b, 9c, 9d) in step (c), characterized in that the electrode on the first substrate is electrified to have the same electric charge as the ionic component of the coatings (9, 9a, 9b, 9c, 9d) in step (b). a) applying coatings (9, 9a, 9b, 9c, 9d) containing an ionic component having a positive or negative electric charge on a first side of a first substrate; b) bringing the first side of the first substrate into contact with an uneven portion of a first side of a second substrate to transfer a portion of the coatings (9, 9a, 9b, 9c, 9d) that corresponds to projections of the second substrate from the first substrate onto the second substrate; and c) bringing the first side of the second substrate into contact with a print object to transfer the coatings (9, 9a, 9b, 9c, 9d) onto the print object,