mhurhangee/ep-ind-claims huggingface dataset:
A method for a mobile station performing a periodic public land mobile network, PLMN, search in a CELL_PCH state or a URA_PCH state of radio resource control, RRC, connected mode in a universal mobile telecommunications system, UMTS, the method comprising: providing a Mobile station operating in the CELL_PCH state or the URA_PCH state, the mobile station camping on a serving cell belonging to a first PLMN utilizing a first PLMN identity (PLMN1); performing a periodic PLMN search with the mobile station and selecting a cell belonging to a second PLMN which has a higher network priority than the first PLMN has and which utilizes a second PLMN identity (PLMN3); and performing a CELL UPDATE procedure to register the mobile station with the selected cell utilizing the second PLMN identity (PLMN3) only if the serving cell has at least one PLMN identity that is common to a PLMN identity that the selected cell has and if the selected cell is in a neighboring cell list of the serving cell, wherein at least one of the serving cell and the selected cell belongs to multiple PLMNs and has multiple PLMN identities. providing a Mobile station operating in the CELL_PCH state or the URA_PCH state, the mobile station camping on a serving cell belonging to a first PLMN utilizing a first PLMN identity (PLMN1); performing a periodic PLMN search with the mobile station and selecting a cell belonging to a second PLMN which has a higher network priority than the first PLMN has and which utilizes a second PLMN identity (PLMN3); and performing a CELL UPDATE procedure to register the mobile station with the selected cell utilizing the second PLMN identity (PLMN3) only if the serving cell has at least one PLMN identity that is common to a PLMN identity that the selected cell has and if the selected cell is in a neighboring cell list of the serving cell, wherein at least one of the serving cell and the selected cell belongs to multiple PLMNs and has multiple PLMN identities.
A computer implemented correction method for a depth image of a battery, comprising: obtaining a depth image of a battery, wherein the depth image comprises two adjacent surfaces (502, 503) of a shell assembly (30, 40) of the battery and an intersecting line (301a, 301b, 301c, 301d, 401, 501, 601, 701, 801, 110) between the two adjacent surfaces (502, 503); characterized by extracting the intersecting line (301a, 301b, 301c, 301d, 401, 501, 601, 701, 801, 110) from the depth image; determining planes (602, 603, 702, 703, 802, 803) in the depth image in which the two adjacent surfaces (502, 503) are located; obtaining a datum plane (700, 800, 900) based on the intersecting line (301a, 301b, 301c, 301d, 401, 501, 601, 701, 801, 110) and the planes (602, 603, 702, 703, 802, 803) in which the two adjacent surfaces (502, 503) are located, wherein the datum plane (700, 800, 900) is parallel to the intersecting line (301a, 301b, 301c, 301d, 401, 501, 601, 701, 801, 110), and included angles (ω1, ω2) between the datum plane (700, 800, 900) and the planes (602, 603, 702, 703, 802, 803) in which the two adjacent surfaces (502, 503) are located are equal to each other; and projecting and mapping points in the depth image to the datum plane (700, 800, 900), to obtain depth information of the points in a corrected depth image. obtaining a depth image of a battery, wherein the depth image comprises two adjacent surfaces (502, 503) of a shell assembly (30, 40) of the battery and an intersecting line (301a, 301b, 301c, 301d, 401, 501, 601, 701, 801, 110) between the two adjacent surfaces (502, 503); characterized by extracting the intersecting line (301a, 301b, 301c, 301d, 401, 501, 601, 701, 801, 110) from the depth image; determining planes (602, 603, 702, 703, 802, 803) in the depth image in which the two adjacent surfaces (502, 503) are located; obtaining a datum plane (700, 800, 900) based on the intersecting line (301a, 301b, 301c, 301d, 401, 501, 601, 701, 801, 110) and the planes (602, 603, 702, 703, 802, 803) in which the two adjacent surfaces (502, 503) are located, wherein the datum plane (700, 800, 900) is parallel to the intersecting line (301a, 301b, 301c, 301d, 401, 501, 601, 701, 801, 110), and included angles (ω1, ω2) between the datum plane (700, 800, 900) and the planes (602, 603, 702, 703, 802, 803) in which the two adjacent surfaces (502, 503) are located are equal to each other; and projecting and mapping points in the depth image to the datum plane (700, 800, 900), to obtain depth information of the points in a corrected depth image.
A slide member for a drawer slide, comprising: a longitudinal web; a pair of longitudinal raceway structures about longitudinal edges of the longitudinal web, wherein each of the raceway structures is formed of a triple thickness material and has an S-shaped cross section, with a first portion about a first end of the S-shape being indented to form an outward facing (131, 133, 159) raceway and a second portion about a second end of the S-shape being indented to form an inward facing raceway (127, 129, 151), and wherein the S-shaped cross section has a first layer of the material forming the inward facing raceway, a third layer of the material forming the outward facing raceway, and a second layer (143, 155) of the material between the inward facing raceway and the outward facing raceway. a longitudinal web; a pair of longitudinal raceway structures about longitudinal edges of the longitudinal web, wherein each of the raceway structures is formed of a triple thickness material and has an S-shaped cross section, with a first portion about a first end of the S-shape being indented to form an outward facing (131, 133, 159) raceway and a second portion about a second end of the S-shape being indented to form an inward facing raceway (127, 129, 151), and wherein the S-shaped cross section has a first layer of the material forming the inward facing raceway, a third layer of the material forming the outward facing raceway, and a second layer (143, 155) of the material between the inward facing raceway and the outward facing raceway.
A working machine, wherein the working machine is a dumper vehicle, comprising: a frame; an open topped container mounted to the frame for carrying a load therein, and wherein the container is moveable between a transport position for transporting a load and a discharge position for discharging a load; a ground engaging propulsion system connected to the frame for propelling the working machine; a drive arrangement for providing motive power to the ground engaging propulsion system; and an operator platform pivotally connected to the frame and moveable between a deployed position for supporting an operator thereon and a stowed position; characterised in that the working machine further comprises a sensor arrangement configured to sense when an external force is applied to the operator platform when said operator platform is in the deployed position, wherein the working machine is configured to prevent movement of the ground engaging propulsion system when the sensor arrangement does not sense an external force applied to the operator platform when said operator platform is in the deployed position, wherein the sensor arrangement comprises a biasing element configured and arranged to urge the operator platform away from the deployed position and a limit switch arranged to engage a cam surface associated with the operator platform such that the limit switch is configured to determine when an external force is applied to the operator platform and the biasing element has been overcome. a frame; an open topped container mounted to the frame for carrying a load therein, and wherein the container is moveable between a transport position for transporting a load and a discharge position for discharging a load; a ground engaging propulsion system connected to the frame for propelling the working machine; a drive arrangement for providing motive power to the ground engaging propulsion system; and an operator platform pivotally connected to the frame and moveable between a deployed position for supporting an operator thereon and a stowed position; characterised in that the working machine further comprises a sensor arrangement configured to sense when an external force is applied to the operator platform when said operator platform is in the deployed position, wherein the working machine is configured to prevent movement of the ground engaging propulsion system when the sensor arrangement does not sense an external force applied to the operator platform when said operator platform is in the deployed position, wherein the sensor arrangement comprises a biasing element configured and arranged to urge the operator platform away from the deployed position and a limit switch arranged to engage a cam surface associated with the operator platform such that the limit switch is configured to determine when an external force is applied to the operator platform and the biasing element has been overcome.
Centrifuge having a rotor, a drive shaft on which the rotor is mounted, a motor driving the rotor via the drive shaft, a supporting unit having damping elements each of which comprises a spring axis, which supporting unit supports a rotational unit which comprises the motor together with the drive shaft and the rotor, a sensor unit (82, 84) for detecting the speed, an acceleration sensor for detecting imbalances of the rotational unit, a control and evaluation unit which evaluates data of the sensors (80, 82, 88), characterized in that a distance sensor is provided for detecting imbalances of the rotational unit which rotates about a rotational axis, said distance sensor detecting changes in distance in an operative axis, said operative axis being aligned relative to the rotational axis in such a way that - at least in a projection onto a plane which is parallel to the operative axis and extends through the rotational axis - the operative axis and the axis of rotation define an angle between them which is less than 90°, including 0°.
A cascading microwave isolator (300, 600) comprising a set of multi-path interferometric Josephson isolators (302 1,..., 302 N; 602 1,..., 602 N) based on nondegenerate three-wave-mixing Josephson devices, MPIJIS, each multi-path interferometric Josephson isolator device (302 1,..., 302 N; 602 1,..., 602 N) in the set having a corresponding operating bandwidth (BW 1,..., BW N) of microwave frequencies, wherein different operating bandwidths (BW 1,..., BW N) have different corresponding center frequencies (f 1,..., f N); and a series coupling between first multi-path interferometric Josephson isolator device (302 1; 602 1) from the set and an n th multi-path interferometric Josephson isolator device (302 N; 602 N) from the set, wherein the series coupling causes the first multi-path interferometric Josephson isolator device (302 1; 602 1) to isolate a signal at a first frequency (f 1) from a frequency multiplexed microwave signal in a first signal flow direction through the series coupling and the n th multi-path interferometric Josephson isolator device (302 N; 602 N) to isolate a signal at an n th frequency (f N) from the frequency multiplexed microwave signal in the first signal flow direction through the series. a set of multi-path interferometric Josephson isolators (302 1,..., 302 N; 602 1,..., 602 N) based on nondegenerate three-wave-mixing Josephson devices, MPIJIS, each multi-path interferometric Josephson isolator device (302 1,..., 302 N; 602 1,..., 602 N) in the set having a corresponding operating bandwidth (BW 1,..., BW N) of microwave frequencies, wherein different operating bandwidths (BW 1,..., BW N) have different corresponding center frequencies (f 1,..., f N); and a series coupling between first multi-path interferometric Josephson isolator device (302 1; 602 1) from the set and an n th multi-path interferometric Josephson isolator device (302 N; 602 N) from the set, wherein the series coupling causes the first multi-path interferometric Josephson isolator device (302 1; 602 1) to isolate a signal at a first frequency (f 1) from a frequency multiplexed microwave signal in a first signal flow direction through the series coupling and the n th multi-path interferometric Josephson isolator device (302 N; 602 N) to isolate a signal at an n th frequency (f N) from the frequency multiplexed microwave signal in the first signal flow direction through the series.
A latex product composition comprising: an anionically-stabilized latex; and an addition product of at least one multifunctional amine compound reacted with one or more polyfunctional epoxy compounds, one or more monofunctional epoxy compounds, or a combination thereof; wherein the amine compound and the one or more epoxy compounds provide 1.3 to 3.8 amine functional group per epoxy functional group; wherein the addition product is water soluble, has a number average molecular weight in the range of 500 to 1,000,000 g/mol (Daltons), and comprises a nitrogen atom percentage of 5 to 35%. an anionically-stabilized latex; and an addition product of at least one multifunctional amine compound reacted with one or more polyfunctional epoxy compounds, one or more monofunctional epoxy compounds, or a combination thereof; wherein the amine compound and the one or more epoxy compounds provide 1.3 to 3.8 amine functional group per epoxy functional group; wherein the addition product is water soluble, has a number average molecular weight in the range of 500 to 1,000,000 g/mol (Daltons), and comprises a nitrogen atom percentage of 5 to 35%.
Method for conversion of an alcohol comprising the steps of: a. Converting said alcohol to an aldehyde or a ketone, b. Converting said aldehyde or ketone to an amine, wherein the conversion of said aldehyde or ketone to amine is catalyzed by an enzyme cascade system, and c. Converting said amine to said amide, wherein said enzyme cascade system comprises Amine Transaminase, wherein said enzyme cascade system preferably comprises ATA and an amine donor. a. Converting said alcohol to an aldehyde or a ketone, b. Converting said aldehyde or ketone to an amine, wherein the conversion of said aldehyde or ketone to amine is catalyzed by an enzyme cascade system, and c. Converting said amine to said amide,
A hearing assistance device (20, 100), comprising: a microphone adapted to receive sound and convert it to an input signal; a receiver adapted to play output sound based on an output signal; a digital signal processor adapted to process the input signal and generate the output signal, the digital signal processor being further adapted to run an acoustic feedback tracking algorithm on the hearing assistance device to monitor information relating to acoustic feedback events occurring over an extended period of use of the hearing assistance device, characterised in that the digital signal processor is further adapted to perform multiband or sub-band acoustic feedback cancellation to reduce the acoustic feedback between the receiver and the microphone on a frequency band-by-band basis, and the information includes collection per frequency band of the acoustic feedback events occurring over the extended period of use; wherein the information is accessible for analysis to determine aspects of the acoustic feedback experienced by the hearing assistance device over the extended period of use, the extended period of use including different acoustic environments experienced by a wearer of the hearing assistance device during use of the hearing assistance device; and wherein the hearing assistance device is configurable such that the feedback tracking algorithm is continually run, or is activated during a monitoring period, or is activated upon certain programmable events occurring. a microphone adapted to receive sound and convert it to an input signal; a receiver adapted to play output sound based on an output signal; a digital signal processor adapted to process the input signal and generate the output signal, the digital signal processor being further adapted to run an acoustic feedback tracking algorithm on the hearing assistance device to monitor information relating to acoustic feedback events occurring over an extended period of use of the hearing assistance device, characterised in that the digital signal processor is further adapted to perform multiband or sub-band acoustic feedback cancellation to reduce the acoustic feedback between the receiver and the microphone on a frequency band-by-band basis, and the information includes collection per frequency band of the acoustic feedback events occurring over the extended period of use; wherein the information is accessible for analysis to determine aspects of the acoustic feedback experienced by the hearing assistance device over the extended period of use, the extended period of use including different acoustic environments experienced by a wearer of the hearing assistance device during use of the hearing assistance device; and wherein the hearing assistance device is configurable such that the feedback tracking algorithm is continually run, or is activated during a monitoring period, or is activated upon certain programmable events occurring.
A method, comprising: Sending, by an evolved Node B, eNB, data representative of a first radio link failure, RLF, report to a network manager, NM, said first RLF report including information related to a disconnection or reconnection of a first user equipment, UE, from an evolved universal terrestrial radio access network, E-UTRAN; sending, by the eNB, data representative of a second RLF report to the NM, said second RLF report including information related to a disconnection or reconnection of a second UE from the E-UTRAN; identifying, by the NM, a hole in a coverage area of the E-UTRAN based at least in part on the first and second RLF reports; characterized by initiating, by the NM, area-based minimization of drive test, MDT, protocols on one or more eNBs associated with cells that nominally cover the identified hole; and performing, by the NM, an automated coverage and capacity optimization, CCO, action to reconfigure cell resources of the E-UTRAN based on the identified hole, said CCO action including changing the power associated with a cell's antenna and/or changing the shape of the cell. Sending, by an evolved Node B, eNB, data representative of a first radio link failure, RLF, report to a network manager, NM, said first RLF report including information related to a disconnection or reconnection of a first user equipment, UE, from an evolved universal terrestrial radio access network, E-UTRAN; sending, by the eNB, data representative of a second RLF report to the NM, said second RLF report including information related to a disconnection or reconnection of a second UE from the E-UTRAN; identifying, by the NM, a hole in a coverage area of the E-UTRAN based at least in part on the first and second RLF reports; characterized by initiating, by the NM, area-based minimization of drive test, MDT, protocols on one or more eNBs associated with cells that nominally cover the identified hole; and performing, by the NM, an automated coverage and capacity optimization, CCO, action to reconfigure cell resources of the E-UTRAN based on the identified hole, said CCO action including changing the power associated with a cell's antenna and/or changing the shape of the cell.
A hearing aid device configured to be sealingly inserted into the bony region of the ear canal, which hearing aid device comprises a receiver and at least one microphone (4, 6) and means for processing sound signals detected by the at least one microphone (4, 6), characterised in that the hearing aid device comprises means for carrying out electronic feedback suppression by applying a frequency shift (ΔF) and/or a time delay to the sound signals detected by the at least one microphone (4, 6) the hearing aid device comprising means for setting individual time delay (At), frequency shift (ΔF) and amplification parameters of the user of the hearing aid device and that the hearing aid device is configured to carry out electronic feedback suppression on the basis of the individual time delay (At), frequency shift (ΔF) and amplification parameters.
Gas burner (14, 114, 214a) for a gas hob (11, 111, 211), having a gas burner body (15, 115, 215a) which has gas outlet openings (16, 116, 216a), wherein a thermogenerator (25, 125, 225) is arranged above the gas burner body (15, 115, 215a), wherein a lower first heat conduction element (23, 123, 223) is arranged between the gas burner body (15, 115, 215a) and the thermogenerator (25, 125, 225), wherein the thermogenerator (25, 125, 225) is arranged concentric relative to the gas burner (14, 114, 214a), characterized in that the lower first heat conduction element (23, 123, 223) is greater than the gas burner body (15, 115, 215a), wherein during operation the thermogenerator (25, 125, 225) on the hot side thereof is exposed to thermal energy from the gas burner body (15, 115, 215a) itself and the cold side of the thermogenerator (25, 125, 225) is cooled by a cooking vessel (30, 130, 230) placed over the gas burner (14, 114, 214a), and in that the thermogenerator is held above the gas burner body by resilient holding means and, during operation, is pushed upward by the action of a spring force to bear against the lower face of a pot which is located over the gas burner.
An apparatus (105, 205, 700) comprising: a transceiver that is configured to communicate using a first Vehicle-to-Everything, "V2X", resource while in a first serving cell having a first Radio Access Technology, "RAT"; and a processor that is configured to detect a mobility event of the first cell, and to switch to a second cell in response to the mobility event, the second cell being different than the first cell; communicate using the first V2X resource on the second cell until a trigger condition, in which the mobility event is resolved, occurs; and switch to a second V2X resource in response to occurrence of the trigger condition; wherein the mobility event comprises one of: a handover to a target cell, cell reselection, radio link failure, transitioning a Radio Resource Control, "RRC", state, and RRC connection re-establishment. a transceiver that is configured to communicate using a first Vehicle-to-Everything, "V2X", resource while in a first serving cell having a first Radio Access Technology, "RAT"; and a processor that is configured to detect a mobility event of the first cell, and to switch to a second cell in response to the mobility event, the second cell being different than the first cell; communicate using the first V2X resource on the second cell until a trigger condition, in which the mobility event is resolved, occurs; and switch to a second V2X resource in response to occurrence of the trigger condition; wherein the mobility event comprises one of: a handover to a target cell, cell reselection, radio link failure, transitioning a Radio Resource Control, "RRC", state, and RRC connection re-establishment.