mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a Central Unit, CU-Control Plane, CP, of a Radio Access Network, RAN, node in a wireless communication system, the method comprising, transmitting (1302, 1402), to a CU-User Plane, UP, of the RAN node, a Bearer Context Setup Request message in order to request establishing a bearer for data transmission for an Multicast and/or Broadcast Service, MBS, between the CU-UP and a Distributed Unit, DU, of the RAN node, wherein the Bearer Context Setup Request message includes an MBS identity to indicate that the bearer is related to which MBS; receiving (1303, 1403), from the CU-UP, a Bearer Context Setup Response message in response to the Bearer Context Setup Request message; transmitting (1304, 1404), to the DU, a Context Setup Request message including (i) a request for setup of a bearer for data transmission for the MBS between the DU and a User Equipment, UE, and (ii) information informing a tunnel endpoint to which data for the MBS will be sent; and receiving, from the DU, a Context Setup Response message in response to the Context Setup Request message. transmitting (1302, 1402), to a CU-User Plane, UP, of the RAN node, a Bearer Context Setup Request message in order to request establishing a bearer for data transmission for an Multicast and/or Broadcast Service, MBS, between the CU-UP and a Distributed Unit, DU, of the RAN node, wherein the Bearer Context Setup Request message includes an MBS identity to indicate that the bearer is related to which MBS; receiving (1303, 1403), from the CU-UP, a Bearer Context Setup Response message in response to the Bearer Context Setup Request message; transmitting (1304, 1404), to the DU, a Context Setup Request message including (i) a request for setup of a bearer for data transmission for the MBS between the DU and a User Equipment, UE, and (ii) information informing a tunnel endpoint to which data for the MBS will be sent; and receiving, from the DU, a Context Setup Response message in response to the Context Setup Request message.
A battery pack comprising a plurality of battery cells and a bus bar electrically connected to the plurality of battery cells, wherein the bus bar comprises a single-layer portion and a multi-layer portion which have different numbers of stacks in the thickness direction, wherein the single-layer portion comprises a first material layer, and the multi-layer portion comprises a first material layer continuously connected from the first material layer of the single-layer portion and a second material layer formed on at least one of a surface or a rear surface of the first material layer, characterized in that the bus bar is configured such that the single-layer portion is arranged on a first connection position to electrically connect an electrode of each of the battery cells and the multi-layer portion is arranged on a second connection position to electrically connect a circuit board on the electrode of the battery cell and/or a third connection position to electrically connect a connecting member extending out of the battery cell. wherein the bus bar comprises a single-layer portion and a multi-layer portion which have different numbers of stacks in the thickness direction, wherein the single-layer portion comprises a first material layer, and the multi-layer portion comprises a first material layer continuously connected from the first material layer of the single-layer portion and a second material layer formed on at least one of a surface or a rear surface of the first material layer, characterized in that the bus bar is configured such that the single-layer portion is arranged on a first connection position to electrically connect an electrode of each of the battery cells and the multi-layer portion is arranged on a second connection position to electrically connect a circuit board on the electrode of the battery cell and/or a third connection position to electrically connect a connecting member extending out of the battery cell.
A method for identifying a loading bay towards which a vehicle is reversing, wherein the vehicle is a trailer and wherein the loading bay (410, 412, 414) is located at a facility, the method comprising: determining, at a sensor apparatus (110, 210) connected with the vehicle, that the vehicle is reversing; capturing, at the sensor apparatus (110, 210), an image of the loading bay into which the vehicle is reversing; transmitting, by the sensor apparatus (110, 210), the image in conjunction with supplemental information to a server (240, 242), wherein the supplemental information comprises location data for a last position fix of the vehicle and the orientation of the vehicle; receiving, by the server (240, 242), the image and the supplemental information; processing the image by using image recognition to identify at least one marking on the loading bay; performing a lookup procedure through a database, the lookup procedure being based on the identified at least one marking to determine the identity of the loading bay, wherein the supplemental information is utilized to narrow the potential locations that the vehicle is backing into; determining the identity of the loading bay towards which the vehicle is reversing; and determining a location of the vehicle based on the determined identity of the loading bay. determining, at a sensor apparatus (110, 210) connected with the vehicle, that the vehicle is reversing; capturing, at the sensor apparatus (110, 210), an image of the loading bay into which the vehicle is reversing; transmitting, by the sensor apparatus (110, 210), the image in conjunction with supplemental information to a server (240, 242), wherein the supplemental information comprises location data for a last position fix of the vehicle and the orientation of the vehicle; receiving, by the server (240, 242), the image and the supplemental information; processing the image by using image recognition to identify at least one marking on the loading bay; performing a lookup procedure through a database, the lookup procedure being based on the identified at least one marking to determine the identity of the loading bay, wherein the supplemental information is utilized to narrow the potential locations that the vehicle is backing into; determining the identity of the loading bay towards which the vehicle is reversing; and determining a location of the vehicle based on the determined identity of the loading bay.
An aircraft landing gear system, comprising: a landing gear extension and retraction system; a landing gear bay door; a landing gear bay door actuator to move the landing gear bay door between a closed position and an open position relative to a door frame; and a landing gear controller operatively connected to the landing gear extension and retraction system, wherein the landing gear controller is configured to control extension and retraction of a landing gear of an aircraft, the landing gear controller configured to cause, during an aircraft take-off procedure, the landing gear extension and retraction system to perform only a first portion of a landing gear retraction process, on the basis of a status of the aircraft and prior to receiving a command for the landing gear to be retracted, characterized in that the first portion of the landing gear retraction process comprises the landing gear extension and retraction system causing actuation of the landing gear bay door actuator to positively hold the landing gear bay door in the closed position, and in that the landing gear controller is further configured, on the basis of the command, to cause the landing gear extension and retraction system to perform a second portion of the landing gear retraction process, wherein the landing gear controller is configured to cause the landing gear bay door to move from the closed position towards the open position during the second portion of the landing gear retraction process. a landing gear extension and retraction system; a landing gear bay door; a landing gear bay door actuator to move the landing gear bay door between a closed position and an open position relative to a door frame; and a landing gear controller operatively connected to the landing gear extension and retraction system, wherein the landing gear controller is configured to control extension and retraction of a landing gear of an aircraft, the landing gear controller configured to cause, during an aircraft take-off procedure, the landing gear extension and retraction system to perform only a first portion of a landing gear retraction process, on the basis of a status of the aircraft and prior to receiving a command for the landing gear to be retracted, characterized in that the first portion of the landing gear retraction process comprises the landing gear extension and retraction system causing actuation of the landing gear bay door actuator to positively hold the landing gear bay door in the closed position, and in that the landing gear controller is further configured, on the basis of the command, to cause the landing gear extension and retraction system to perform a second portion of the landing gear retraction process, wherein the landing gear controller is configured to cause the landing gear bay door to move from the closed position towards the open position during the second portion of the landing gear retraction process.
A box comprising a microsystem and at least one set of interface connectors of the microsystem; the microsystem comprising a lower plate bearing the impression of at least one microstructured chamber of dynamic cellular culture, and an upper plate, characterized in that the at least one microstructured chamber is connected fluidically at inlet and/or at outlet by the at least one set of connectors inserted detachably into a hole of the upper plate, the box further comprising at least one well, the microstructured chamber being connected to a well via one of the sets of connectors.
A connection profile for mounting parts such as window frames, door frames or the like, which adjoin insulating material layers with plaster, wherein a facing shell, preferably made of aluminium or plastic, is fastened to the mounting part, and wherein the connection profile has a base leg fixed to the mounting part and is provided with a plastering leg having a cover web, characterised in that the plastering leg, including the cover web which engages beyond the facing shell on the reveal side, is formed to be displaceable in a direction normally to the fastening plane (ε) of the base leg.
A user equipment, wherein the user equipment comprises: an acquiring unit, configured to: when the user equipment is in idle mode, acquire a 2G/3G base station candidate set, wherein the 2G/3G base station candidate set comprises a standard and a frequency that correspond to a 2G/3G base station, the 2G/3G base station belongs to a 2G/3G network, and a signal strength of the 2G/3G base station is greater than a preset threshold; a sending unit, configured to: when the user equipment initiates, in an LTE network, a voice service, send a CSFB request message to a LTE base station, wherein the LTE base station is a base station currently connected to the user equipment, the LTE base station belongs to the LTE network, and the CSFB request message comprises a standard and a frequency of a target 2G/3G base station; a receiving unit, configured to receive the standard and the frequency of the target 2G/3G base station that are sent by the LTE base station to the user equipment; a determining unit, configured to determine, according to the standard and the frequency of the target 2G/3G base station, whether the 2G/3G base station candidate set comprises the target 2G/3G base station; and a switching unit, configured to: when the 2G/3G base station candidate set comprises the target 2G/3G base station, switch from the LTE base station to the target 2G/3G base station according to the standard and the frequency of the target 2G/3G base station. an acquiring unit, configured to: when the user equipment is in idle mode, acquire a 2G/3G base station candidate set, wherein the 2G/3G base station candidate set comprises a standard and a frequency that correspond to a 2G/3G base station, the 2G/3G base station belongs to a 2G/3G network, and a signal strength of the 2G/3G base station is greater than a preset threshold; a sending unit, configured to: when the user equipment initiates, in an LTE network, a voice service, send a CSFB request message to a LTE base station, wherein the LTE base station is a base station currently connected to the user equipment, the LTE base station belongs to the LTE network, and the CSFB request message comprises a standard and a frequency of a target 2G/3G base station; a receiving unit, configured to receive the standard and the frequency of the target 2G/3G base station that are sent by the LTE base station to the user equipment; a determining unit, configured to determine, according to the standard and the frequency of the target 2G/3G base station, whether the 2G/3G base station candidate set comprises the target 2G/3G base station; and a switching unit, configured to: when the 2G/3G base station candidate set comprises the target 2G/3G base station, switch from the LTE base station to the target 2G/3G base station according to the standard and the frequency of the target 2G/3G base station.
A method for estimating the distance (d) of a radio receiver from a radio transmitter, comprising the steps of: - receiving radio signals (103, 701) irradiated by said transmitter, said radio signals (103, 107) comprising components from which at least three tones (1,2,3,4) are extracted, each having a different frequency; - measuring a first phase difference (Δφ 21) between first two tones (1, 2) of said at least three tones, whose frequencies (f 1, f 2) have a first spacing, and measuring a second phase difference (Δφ 43) between second two tones (3, 4) of said at least three tones, whose frequencies (f 3, f 4) have a second spacing, wherein one of said first spacing or second spacing is greater than the other; - estimating (607, 611, 613) said distance (d) on the basis of said first phase difference (Δφ 21) and said second phase difference (Δφ 43). - receiving radio signals (103, 701) irradiated by said transmitter, said radio signals (103, 107) comprising components from which at least three tones (1,2,3,4) are extracted, each having a different frequency; - measuring a first phase difference (Δφ 21) between first two tones (1, 2) of said at least three tones, whose frequencies (f 1, f 2) have a first spacing, and measuring a second phase difference (Δφ 43) between second two tones (3, 4) of said at least three tones, whose frequencies (f 3, f 4) have a second spacing, wherein one of said first spacing or second spacing is greater than the other; - estimating (607, 611, 613) said distance (d) on the basis of said first phase difference (Δφ 21) and said second phase difference (Δφ 43).
A distributed patient monitoring system with multiple device processors communicatively connected to each other and at least a first processor of the processors configured to perform a computer-implemented method comprising: detecting a beacon signal in the first processor when at least one radio frequency signal received from a beacon equals or exceeds a predefined signal strength threshold, the beacon signal being associated with and unique to a single patient; determining a proximity to the beacon in the first processor based on the beacon signal strength that was detected; issuing an action request to observe the patient from the first processor based on the beacon signal strength that was detected being equal to or exceeding the predefined signal strength threshold; waiting a predetermined time period to receive a response to the action request, regardless of subsequently-received beacon signals continuing to exceed or not exceed the predefined signal strength; receiving a response to the action request; and recording the response to the action request that was received. detecting a beacon signal in the first processor when at least one radio frequency signal received from a beacon equals or exceeds a predefined signal strength threshold, the beacon signal being associated with and unique to a single patient; determining a proximity to the beacon in the first processor based on the beacon signal strength that was detected; issuing an action request to observe the patient from the first processor based on the beacon signal strength that was detected being equal to or exceeding the predefined signal strength threshold; waiting a predetermined time period to receive a response to the action request, regardless of subsequently-received beacon signals continuing to exceed or not exceed the predefined signal strength; receiving a response to the action request; and recording the response to the action request that was received.
A method comprising: at a Fibre Channel switch, storing data that assigns a relative domain field value to a run-time domain in one of a plurality of virtual storage area networks; determining the relative domain field value to use for a Fibre Channel identifier for each of a plurality of devices connected to the Fibre Channel switch based on the run-time domain of the respective device and the virtual storage area network in which the respective device is active; and storing in a memory of the Fibre Channel switch the Fibre Channel identifier for each of the plurality of devices, the Fibre Channel identifier comprising the relative domain field value determined for the device together with area and port values for the device; further comprising determining when a change occurs in the run-time domain, and when a change has occurred, retrieving area and port values for the Fibre Channel identifiers in the run-time domain using the data stored in the memory. at a Fibre Channel switch, storing data that assigns a relative domain field value to a run-time domain in one of a plurality of virtual storage area networks; determining the relative domain field value to use for a Fibre Channel identifier for each of a plurality of devices connected to the Fibre Channel switch based on the run-time domain of the respective device and the virtual storage area network in which the respective device is active; and storing in a memory of the Fibre Channel switch the Fibre Channel identifier for each of the plurality of devices, the Fibre Channel identifier comprising the relative domain field value determined for the device together with area and port values for the device; further comprising determining when a change occurs in the run-time domain, and when a change has occurred, retrieving area and port values for the Fibre Channel identifiers in the run-time domain using the data stored in the memory.
An electric and/or electronic circuit including at least one printed circuit board, at least one separate circuit board and at least one power connector for said printed circuit board, wherein: - the at least one power connector is connected or connectable to a corresponding counterpart, - a number of electric and/or electronic components is soldered at the separate circuit board, - the at least one separate circuit board is connected to the printed circuit board by a number of solder joints, - the solder joints are connected to the separate circuit board by a through-hole-technology, and - the solder joints are connected to the printed circuit board by SMD (surface mount device) technology, characterized in that - at least one power connector is fastened at the separate circuit board by the through-hole-technology from the same side as the solder joints, and arranged between at least two solder joints, wherein the corresponding counterpart is connectable to or disconnectable from the power connector from the opposite side where the at least one power connector and the solder joints are fastened by a movement along a direction perpendicular to the plane of the printed circuit board and the separate circuit board. - the at least one power connector is connected or connectable to a corresponding counterpart, - a number of electric and/or electronic components is soldered at the separate circuit board, - the at least one separate circuit board is connected to the printed circuit board by a number of solder joints, - the solder joints are connected to the separate circuit board by a through-hole-technology, and - the solder joints are connected to the printed circuit board by SMD (surface mount device) technology, characterized in that - at least one power connector is fastened at the separate circuit board by the through-hole-technology from the same side as the solder joints, and arranged between at least two solder joints, wherein the corresponding counterpart is connectable to or disconnectable from the power connector from the opposite side where the at least one power connector and the solder joints are fastened by a movement along a direction perpendicular to the plane of the printed circuit board and the separate circuit board.
An electric power transmission system, characterized by at least comprising: a power transmission antenna that constitutes a series resonator with an inductance component of L 1 and a capacitance component of C 1, and to which AC power is input; a power receiving antenna that constitutes a series resonator with an inductance component of L 2 and a capacitance component of C 2, and which receives electromagnetic energy from the power transmission antenna via electromagnetic fields; a rectifying unit that rectifies an output of the power receiving antenna to output DC power; and a load to which an output of the rectifying unit is input, wherein at times including when a coupling coefficient between the power transmission antenna and the power receiving antenna is k, if a load resistance value is R, the following relationships are established: [Formula 2] L 1 C 1 = L 2 C 2 and [Formula 6] L 1 C 1 > L 2 C 2 and [Formula 7] k L 2 C 2 ≥ R a power transmission antenna that constitutes a series resonator with an inductance component of L 1 and a capacitance component of C 1, and to which AC power is input; a power receiving antenna that constitutes a series resonator with an inductance component of L 2 and a capacitance component of C 2, and which receives electromagnetic energy from the power transmission antenna via electromagnetic fields; a rectifying unit that rectifies an output of the power receiving antenna to output DC power; and a load to which an output of the rectifying unit is input, wherein at times including when a coupling coefficient between the power transmission antenna and the power receiving antenna is k, if a load resistance value is R, the following relationships are established: [Formula 2] L 1 C 1 = L 2 C 2 and [Formula 6] L 1 C 1 > L 2 C 2 and [Formula 7] k L 2 C 2 ≥ R
A device comprising: a training data generation unit adapted to generate training data associated with a captured image of waste stored in a waste pit; a model construction unit which is adapted to construct a model by performing learning using the training data; and an estimation unit which is adapted to input, in the model, data of a new captured image of waste stored in a waste pit, and to obtain a value representing composition of the waste corresponding to the new image. a training data generation unit adapted to generate training data associated with a captured image of waste stored in a waste pit; a model construction unit which is adapted to construct a model by performing learning using the training data; and an estimation unit which is adapted to input, in the model, data of a new captured image of waste stored in a waste pit, and to obtain a value representing composition of the waste corresponding to the new image.