mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: Receiving, at a device (10, 650) at a first location within an environment, at least two potential locations of the device (10, 650) that are within the environment, wherein the receiving at least two potential locations occurs in response to providing for transmission of a location request from the device (10, 650), wherein the location request comprises a wireless fingerprint corresponding to the first location; providing (10, 650) for display of a graphical representation of the environment including a visual indicator (670, 680) for each of the potential locations within the graphical representation of the environment; receiving an indication that one of the at least two potential locations corresponds to the first location; and providing, to a server to which the location request comprising the wireless fingerprint corresponding to the first location was transmitted, a selection that correlates the potential location indicated to correspond to the first location with the fingerprint. Receiving, at a device (10, 650) at a first location within an environment, at least two potential locations of the device (10, 650) that are within the environment, wherein the receiving at least two potential locations occurs in response to providing for transmission of a location request from the device (10, 650), wherein the location request comprises a wireless fingerprint corresponding to the first location; providing (10, 650) for display of a graphical representation of the environment including a visual indicator (670, 680) for each of the potential locations within the graphical representation of the environment; receiving an indication that one of the at least two potential locations corresponds to the first location; and providing, to a server to which the location request comprising the wireless fingerprint corresponding to the first location was transmitted, a selection that correlates the potential location indicated to correspond to the first location with the fingerprint.
An information processing apparatus, comprising: a memory configured to store a plurality of videos related to an index file; and an index information providing unit configured to provide the index file for reproducing a video comprising at least one segment, wherein the index file comprises a type of codec of the video, a bit rate of the video, width and height information of the video, and an ID information for the video, and wherein the index file has a hierarchical structure, and the type of codec, the bit rate of the video, the width and height of the video, and the ID information for the video are in a same layer. a memory configured to store a plurality of videos related to an index file; and an index information providing unit configured to provide the index file for reproducing a video comprising at least one segment, wherein the index file comprises a type of codec of the video, a bit rate of the video, width and height information of the video, and an ID information for the video, and wherein the index file has a hierarchical structure, and the type of codec, the bit rate of the video, the width and height of the video, and the ID information for the video are in a same layer.
A method for wireless communications performed by a user equipment, UE, comprising: receiving a multi-user physical, MUP, downlink shared channel, PDSCH, communication, MUPC, comprising a plurality of payloads; transmitting an acknowledgement, ACK, in response to decoding the MUPC; receiving a message requesting retransmission of at least one payload of the plurality of payloads, wherein the message comprises a group-radio network temporary identifier, RNTI, downlink control information, DCI, comprising a field for triggering the retransmission; retransmitting the at least one payload to one or more other UEs in response to the message; and determining a resource for the retransmission based on a time domain resource assignment, TDRA, or a frequency domain resource assignment, FDRA, in the group-RNTI DCI. receiving a multi-user physical, MUP, downlink shared channel, PDSCH, communication, MUPC, comprising a plurality of payloads; transmitting an acknowledgement, ACK, in response to decoding the MUPC; receiving a message requesting retransmission of at least one payload of the plurality of payloads, wherein the message comprises a group-radio network temporary identifier, RNTI, downlink control information, DCI, comprising a field for triggering the retransmission; retransmitting the at least one payload to one or more other UEs in response to the message; and determining a resource for the retransmission based on a time domain resource assignment, TDRA, or a frequency domain resource assignment, FDRA, in the group-RNTI DCI.
An optical disc device comprising: an optical pickup configured to emit light to an optical disc and detect the light reflected on the optical disc; and a controller configured to perform adjustment of at least one of spherical aberration, focus balance and lens tilt of the optical pickup based on a reproduction signal corresponding to the light detected by the optical pickup, the controller being further configured to perform adjustment-use recording, and, in the adjustment-use recording, the controller is configured to write test data on the optical disc, reproduce the test data while adjusting a parameter relating to at least one of the spherical aberration, the focus balance and the lens tilt of the optical pickup, and select the parameter at which a level of the reproduction signal of the adjustment-use recording is at its maximum, the controller being further configured to perform the adjustment based on the level of the reproduction signal of the adjustment-use recording, characterized in that the controller being further configured to perform re-adjustment after performing subsequent adjustment-use recording in response to the level of the reproduction signal of the adjustment-use recording after the adjustment being at or below a specific threshold. an optical pickup configured to emit light to an optical disc and detect the light reflected on the optical disc; and a controller configured to perform adjustment of at least one of spherical aberration, focus balance and lens tilt of the optical pickup based on a reproduction signal corresponding to the light detected by the optical pickup, the controller being further configured to perform adjustment-use recording, and, in the adjustment-use recording, the controller is configured to write test data on the optical disc, reproduce the test data while adjusting a parameter relating to at least one of the spherical aberration, the focus balance and the lens tilt of the optical pickup, and select the parameter at which a level of the reproduction signal of the adjustment-use recording is at its maximum, the controller being further configured to perform the adjustment based on the level of the reproduction signal of the adjustment-use recording, characterized in that the controller being further configured to perform re-adjustment after performing subsequent adjustment-use recording in response to the level of the reproduction signal of the adjustment-use recording after the adjustment being at or below a specific threshold.
A monitoring device configured to monitor conditions to either side behind a vehicle, the monitoring device comprising: a radar configured to perform detection in two first detection areas for detecting a traveling object to either side behind the vehicle and in two second detection areas having a width in a vehicle width direction narrower than a width of each of the first detection areas; a detector configured to detect a traveling state of the vehicle, the traveling state including a traveling direction and traveling speed of the vehicle; and a controller configured to control the radar, characterized in that: the controller is configured to switch the detection areas from the first detection areas to the second detection areas in a case that the detector detects the vehicle traveling forward at a speed less than or equal to a predetermined speed, the first detection areas are respectively set on left and right sides behind the vehicle on either side of the vehicle and the second detection areas are respectively set on left and right sides behind the vehicle, and an end of the second detection areas closer to the vehicle is set to a position nearer to the vehicle than a position of an end of the first detection areas closer to the vehicle. a radar configured to perform detection in two first detection areas for detecting a traveling object to either side behind the vehicle and in two second detection areas having a width in a vehicle width direction narrower than a width of each of the first detection areas; a detector configured to detect a traveling state of the vehicle, the traveling state including a traveling direction and traveling speed of the vehicle; and a controller configured to control the radar, characterized in that: the controller is configured to switch the detection areas from the first detection areas to the second detection areas in a case that the detector detects the vehicle traveling forward at a speed less than or equal to a predetermined speed, the first detection areas are respectively set on left and right sides behind the vehicle on either side of the vehicle and the second detection areas are respectively set on left and right sides behind the vehicle, and an end of the second detection areas closer to the vehicle is set to a position nearer to the vehicle than a position of an end of the first detection areas closer to the vehicle. the controller is configured to switch the detection areas from the first detection areas to the second detection areas in a case that the detector detects the vehicle traveling forward at a speed less than or equal to a predetermined speed, the first detection areas are respectively set on left and right sides behind the vehicle on either side of the vehicle and the second detection areas are respectively set on left and right sides behind the vehicle, and an end of the second detection areas closer to the vehicle is set to a position nearer to the vehicle than a position of an end of the first detection areas closer to the vehicle.
An antioxidant agent for heating an alloy material, consisting of, in mass%, when converted into oxides, SiO 2: 40.0 to 80.0%, Al 2 O 3: 0 to 30.0%, MgO: 0 to 5.0%, 10.00 to 50.00% in total of one kind or more selected from a group consisting of Na 2 O: 9.0% or less, K 2 O: 20.00% or less, and CaO: 25.0% or less, B 2 O 3: 0 to less than 0.5%, and the balance being impurities, and satisfying Formula: (2SiO 2 + Al 2 O 3) / (0.1MgO + 0.2B 2 O 3 + 6Na 2 O + 1.4K 2 O + 2CaO) ≤ 2.50 where a content in mass% of a corresponding component is substituted for each chemical formula in Formula. in mass%, when converted into oxides, SiO 2: 40.0 to 80.0%, Al 2 O 3: 0 to 30.0%, MgO: 0 to 5.0%, 10.00 to 50.00% in total of one kind or more selected from a group consisting of Na 2 O: 9.0% or less, K 2 O: 20.00% or less, and CaO: 25.0% or less, B 2 O 3: 0 to less than 0.5%, and the balance being impurities, and satisfying Formula: (2SiO 2 + Al 2 O 3) / (0.1MgO + 0.2B 2 O 3 + 6Na 2 O + 1.4K 2 O + 2CaO) ≤ 2.50 where a content in mass% of a corresponding component is substituted for each chemical formula in Formula.
A method for a base station, BS, scheduling uplink multi-antenna transmission, the method comprising: generating Downlink Control Information, DCI, including Modulation and Coding Scheme, MCS, information for each of first and second transport blocks; transmitting the generated DCI for scheduling uplink transmission of at least one of the first and second transport blocks on a downlink control channel; and receiving an uplink signal scheduled according to the DCI on an uplink data channel, wherein the MCS information includes a first MCS field in which a modulation order, a transport block size, TBS, and a redundancy version for the first transport block are jointly encoded, and a second MCS field in which a modulation order, a TBS and a redundancy version for the second transport block are jointly encoded, characterized in that: if the BS determined to disable one of the first and second transport blocks, the BS sets a corresponding one of the first MCS field and the second MCS field to a predetermined index other than indexes with a redundancy version 1, 2 or 3 for new data indicator, NDI, based retransmission, and wherein the predetermined index corresponds to a combination of a highest modulation order, a largest TBS and a redundancy version 0. generating Downlink Control Information, DCI, including Modulation and Coding Scheme, MCS, information for each of first and second transport blocks; transmitting the generated DCI for scheduling uplink transmission of at least one of the first and second transport blocks on a downlink control channel; and receiving an uplink signal scheduled according to the DCI on an uplink data channel, wherein the MCS information includes a first MCS field in which a modulation order, a transport block size, TBS, and a redundancy version for the first transport block are jointly encoded, and a second MCS field in which a modulation order, a TBS and a redundancy version for the second transport block are jointly encoded, characterized in that: if the BS determined to disable one of the first and second transport blocks, the BS sets a corresponding one of the first MCS field and the second MCS field to a predetermined index other than indexes with a redundancy version 1, 2 or 3 for new data indicator, NDI, based retransmission, and wherein the predetermined index corresponds to a combination of a highest modulation order, a largest TBS and a redundancy version 0. if the BS determined to disable one of the first and second transport blocks, the BS sets a corresponding one of the first MCS field and the second MCS field to a predetermined index other than indexes with a redundancy version 1, 2 or 3 for new data indicator, NDI, based retransmission, and wherein the predetermined index corresponds to a combination of a highest modulation order, a largest TBS and a redundancy version 0.
Filter device for filtering fluid, in particular in the form of an aqueous urea solution, having a filter housing and a filter element arranged therein as well as a compensating element for compensating pressure and/or volume fluctuations of the fluid, wherein at least one elastically yielding diaphragm is used as the compensating element, the diaphragm wall of which diaphragm, held in a retaining part, creates a separation between the fluid and a compressible filling medium, such as a working gas, characterised in that the retaining part has a filling device in the form of a filling valve for the compressible filling medium.
An in situ concrete safety barrier, comprising an in situ concrete body, wherein a profile of the in situ concrete body tapers from a base area of the in situ concrete body to a head area of the in situ concrete body, wherein the in situ concrete body is provided with a substantially continuous reinforcement, characterized in that at least one groove extends on a surface of the in situ concrete body substantially normally to the longitudinal extension of the in situ concrete safety barrier, and that a depth of the groove varies along the extension of the groove.
A catheter for monitoring a vena cava dimension, comprising: an elongate catheter body having proximal and distal ends, the distal end configured for placement within a patient's vena cava; a distal end region comprising an anchor element (612, 704, 808) configured and dimensioned to engage a wall of the vena cava to maintain the position of the distal end region with respect to the vena cava wall; and at least one detection element (508, 608, 708, 824) configured to detect vena cava diameter at a monitoring location disposed in the distal end region of said catheter body when the anchor element is engaging the wall of the vena cava to maintain the position of the distal end region with respect to the vena cava wall; wherein said distal end region is configured to position the at least one detection element with respect to the vena cava wall; and wherein the anchor element (612, 704, 808) is positioned at a longitudinal distance from the at least one detection element sufficient to isolate the at least one detection element from distortions of the vena cava wall caused by the anchor element engaging the wall of the vena cava. an elongate catheter body having proximal and distal ends, the distal end configured for placement within a patient's vena cava; a distal end region comprising an anchor element (612, 704, 808) configured and dimensioned to engage a wall of the vena cava to maintain the position of the distal end region with respect to the vena cava wall; and at least one detection element (508, 608, 708, 824) configured to detect vena cava diameter at a monitoring location disposed in the distal end region of said catheter body when the anchor element is engaging the wall of the vena cava to maintain the position of the distal end region with respect to the vena cava wall; wherein said distal end region is configured to position the at least one detection element with respect to the vena cava wall; and wherein the anchor element (612, 704, 808) is positioned at a longitudinal distance from the at least one detection element sufficient to isolate the at least one detection element from distortions of the vena cava wall caused by the anchor element engaging the wall of the vena cava.
A pneumatic tire comprising a marking portion on an outer surface of a tire side portion, the marking portion including more than one marking constituted by a letter or a symbol, wherein in a side view of the tire, the marking portion has a curved shape; linear ridges are arranged in the markings of the marking portion; and all of the ridges in the marking portion are parallel, characterized in that 0° ≤ θ ≤ 5°, where θ is an angle between the ridges and a tire radial direction at a center of the marking portion in the tire circumferential direction.
A semiconductor integrated circuit, comprising: a plurality of memory cells arranged in a cell-placement row extending in a first direction; a first N well and a first P well arranged in a second direction perpendicular to the first direction in each area of the memory cells; and a second N well and a second P well each having the same length as a width of the cell-placement row and situated between a first memory cell and a second memory cell among the plurality of memory cells, the first memory cell and the second memory cell being adjacent to each other with no memory cell placed therebetween, the second N well being situated toward the first memory cell, and the second P well being situated toward the second memory cell, wherein the first N well of the first memory cell and the second N well are abutting and continuous with each other, and the first P well of the second memory cell and the second P well are abutting and continuous with each other. a plurality of memory cells arranged in a cell-placement row extending in a first direction; a first N well and a first P well arranged in a second direction perpendicular to the first direction in each area of the memory cells; and a second N well and a second P well each having the same length as a width of the cell-placement row and situated between a first memory cell and a second memory cell among the plurality of memory cells, the first memory cell and the second memory cell being adjacent to each other with no memory cell placed therebetween, the second N well being situated toward the first memory cell, and the second P well being situated toward the second memory cell, wherein the first N well of the first memory cell and the second N well are abutting and continuous with each other, and the first P well of the second memory cell and the second P well are abutting and continuous with each other.
A polymerization process for the preparation of a polymer material in which one monomer is a free acid monomer, having the general formula CH 2 =CR 1 COOH, wherein R 1 is selected from the group consisting of F, C 1 -C 5 alkyl, C 1 -C 5 fluoroalkyl and hydrogen, and the other monomer or monomers have acid labile groups being attached thereto and the polymerization is carried out using a chain transfer agent (RAFT) and a compatible first solvent, wherein the process comprises using a base material to prevent the degradation of the acid labile groups, and thereafter removing the base material from the copolymer material thus formed, said base material selected from the group consisting of alkali metal and alkaline earth metal carbonates, phosphates, hydroxides, amines and mixtures thereof.
A substance selected from the group consisting of d-methadone, d-methadol, d-alpha-acetylmethadol, d-alpha-normethadol, I-alpha-normethadol, pharmaceutically acceptable salts thereof, and mixtures thereof for use in treating psychological and psychiatric symptoms in a subject, wherein the psychological symptoms include depression, anxiety, fatigue, and/or mood instability including pseudo-bulbar affect; wherein the substance is isolated from its enantiomer or synthesized de novo; and wherein the substance is able to bind to: an NMDA (N-methyl-D-aspartate) receptor of the subject and/or an NE (norepinephrine) receptor of the subject.
A lithiation device for applying a lithium film on an electrode plate, comprising: a rolling mechanism, comprising a first roller and a second roller, wherein the first roller and the second roller are configured to roll the electrode plate and the lithium film so as to apply the lithium film on the electrode plate; an adjustment mechanism, connected to the rolling mechanism and configured to adjust a gap and/or a rolling force between the first roller and the second roller;a first monitoring mechanism, configured to monitor a length of the electrode plate after the electrode plate passes through the rolling mechanism; a controller, configured to control the adjustment mechanism based on a comparison result of the length monitored by the first monitoring mechanism and a target length so that the length of the electrode plate after the electrode plate passes through the rolling mechanism approximates to the target length; and wherein the electrode plate is provided with a plurality of spaced mark points along a length direction of the electrode plate, and the first monitoring mechanism is configured to monitor a distance between two adjacent ones of the mark points after the electrode plate passes through the rolling mechanism. a rolling mechanism, comprising a first roller and a second roller, wherein the first roller and the second roller are configured to roll the electrode plate and the lithium film so as to apply the lithium film on the electrode plate; an adjustment mechanism, connected to the rolling mechanism and configured to adjust a gap and/or a rolling force between the first roller and the second roller;a first monitoring mechanism, configured to monitor a length of the electrode plate after the electrode plate passes through the rolling mechanism; a controller, configured to control the adjustment mechanism based on a comparison result of the length monitored by the first monitoring mechanism and a target length so that the length of the electrode plate after the electrode plate passes through the rolling mechanism approximates to the target length; and wherein the electrode plate is provided with a plurality of spaced mark points along a length direction of the electrode plate, and the first monitoring mechanism is configured to monitor a distance between two adjacent ones of the mark points after the electrode plate passes through the rolling mechanism.