mhurhangee/ep-ind-claims huggingface dataset:
A first communication apparatus comprising: circuitry (702, 703), which in operation, determines a first set of subframes available for a sidelink operation; and a transmitter, which in operation, transmits a sidelink signal in a subframe among the first set of subframes, wherein the first set of subframes is comprised of subframes within 10240 subframes except both of a second set of subframes and reserved subframes, the second set of subframes including subframes in which sidelink synchronization signal, SLSS, is configured, the reserved subframes being determined based on a length of a bitmap configured for resource pools of the sidelink operation, characterized in that a number of the reserved subframes within the 10240 subframes is determined by a following formula: Y = X mod the length of the bitmap, where X=10240 - (a number of the second set of subframes), and the reserved subframes are set per n subframes to subframes except the second set of subframes within the 10240 subframes, the n subframes not containing the second set, n being determined by a following formula: n = FLOOR X / Y where FLOOR is the operation of round down to the nearest integer, wherein, the second set of subframes includes at least one of downlink subframes and special subframes in TDD. circuitry (702, 703), which in operation, determines a first set of subframes available for a sidelink operation; and a transmitter, which in operation, transmits a sidelink signal in a subframe among the first set of subframes, wherein the first set of subframes is comprised of subframes within 10240 subframes except both of a second set of subframes and reserved subframes, the second set of subframes including subframes in which sidelink synchronization signal, SLSS, is configured, the reserved subframes being determined based on a length of a bitmap configured for resource pools of the sidelink operation, characterized in that a number of the reserved subframes within the 10240 subframes is determined by a following formula: Y = X mod the length of the bitmap, where X=10240 - (a number of the second set of subframes), and the reserved subframes are set per n subframes to subframes except the second set of subframes within the 10240 subframes, the n subframes not containing the second set, n being determined by a following formula: n = FLOOR X / Y where FLOOR is the operation of round down to the nearest integer, wherein, the second set of subframes includes at least one of downlink subframes and special subframes in TDD.
A transmission method, comprising: in an information transmission period, causing a light source to transmit an optical signal by causing the light source to alternately emit light having a second luminance and light having a third luminance lower than the second luminance; characterized in that in a lighting period, causing the light source to emit light having a first luminance, the lighting period being provided between two consecutive information transmission periods, the second luminance being lower than the first luminance; controlling the light source to provide a guard interval between the lighting period and the information transmission period, a fourth luminance in the guard period being lower than the first luminance in the lighting period. in an information transmission period, causing a light source to transmit an optical signal by causing the light source to alternately emit light having a second luminance and light having a third luminance lower than the second luminance; characterized in that in a lighting period, causing the light source to emit light having a first luminance, the lighting period being provided between two consecutive information transmission periods, the second luminance being lower than the first luminance; controlling the light source to provide a guard interval between the lighting period and the information transmission period, a fourth luminance in the guard period being lower than the first luminance in the lighting period.
A non-contact power feeding coil (1, 2) provided with a coil (31, 32) and a core (41, 42) that forms a part of a circulating magnetic path that is interlinked to the coil (31, 32), and usable in at least one of a power feeding-side device and a power receiving-side device of a non-contact power feeding system, wherein the core (41, 42) is configured to connect three or more core units (5, 6) in one row, and the core units (5, 6) include one or more interlinked core units, which are interlinked to the coil (31, 32) and through which the coil (31, 32) passes in a linear direction, and two non-interlinked core units (6, 7), which are not interlinked to the coil (31, 32) and in which the coil changes its direction, respectively disposed on both ends in a connection direction of the one or more interlinked core units, characterized in that at least one of the two non-interlinked core units (6, 7) is an L-shaped L-type core having one side leg section in side view, and lead lines (311, 312) on both ends of the coil (31, 32) pass through the L-type core, and are drawn out in a direction that is a right angle to the connection direction on an opposite side of the side leg section.
A drone fleet management system, the system comprising: a drone remote control center comprising: a cellular transceiver to communicate with a drone fleet (i) to transmit a set of parameters to the drone fleet to configure an assisted navigation task for the drone fleet to execute, wherein the set of parameters includes user preferences defining a set of hazards to avoid while traversing a path, and wherein the drone fleet scouts the path to identify a hazard from the set of hazards, and (ii) to receive information related to the assisted navigation task, wherein the information including visual data from multiple drones in the drone fleet, the assisted navigation task received from a user of the drone remote control center; and a user interface device comprising: a display; and module to: composite the visual data from the multiple drones in the drone fleet to produce composited visual data; and present, on the display, a user interface based on the information received from the drone fleet, the user interface including the composited visual data and controls for the user to selectively deploy the drones with a cooperative or distributed plan. a cellular transceiver to communicate with a drone fleet (i) to transmit a set of parameters to the drone fleet to configure an assisted navigation task for the drone fleet to execute, wherein the set of parameters includes user preferences defining a set of hazards to avoid while traversing a path, and wherein the drone fleet scouts the path to identify a hazard from the set of hazards, and (ii) to receive information related to the assisted navigation task, wherein the information including visual data from multiple drones in the drone fleet, the assisted navigation task received from a user of the drone remote control center; and a user interface device comprising: a display; and module to: composite the visual data from the multiple drones in the drone fleet to produce composited visual data; and present, on the display, a user interface based on the information received from the drone fleet, the user interface including the composited visual data and controls for the user to selectively deploy the drones with a cooperative or distributed plan. a display; and module to: composite the visual data from the multiple drones in the drone fleet to produce composited visual data; and present, on the display, a user interface based on the information received from the drone fleet, the user interface including the composited visual data and controls for the user to selectively deploy the drones with a cooperative or distributed plan. composite the visual data from the multiple drones in the drone fleet to produce composited visual data; and present, on the display, a user interface based on the information received from the drone fleet, the user interface including the composited visual data and controls for the user to selectively deploy the drones with a cooperative or distributed plan.
An in-vehicle ventilation system comprising: a power window mechanism (11A to 11D) configured to open and close a window of a vehicle; and a control unit configured to control the power window mechanism, wherein the control unit is further configured to: acquire a first environmental information representing an environment inside the vehicle and a second environmental information representing an environment outside the vehicle (i23, i60), characterized in that the control unit is configured to: automatically select, based on the first environmental information and the second environmental information, a specific ventilation adjustment mode suitable for at least one occupant of the vehicle out of a plurality of ventilation adjustment modes (M1 to M5); and control the power window mechanism according to the selected ventilation adjustment mode (S82, S84, S86, S88, S89), wherein the control unit has the plurality of ventilation adjustment modes (M1 to M5) in which opening degrees of one or more windows out of a plurality of windows of the vehicle are different from each other. a power window mechanism (11A to 11D) configured to open and close a window of a vehicle; and a control unit configured to control the power window mechanism, wherein the control unit is further configured to: acquire a first environmental information representing an environment inside the vehicle and a second environmental information representing an environment outside the vehicle (i23, i60), characterized in that the control unit is configured to: automatically select, based on the first environmental information and the second environmental information, a specific ventilation adjustment mode suitable for at least one occupant of the vehicle out of a plurality of ventilation adjustment modes (M1 to M5); and control the power window mechanism according to the selected ventilation adjustment mode (S82, S84, S86, S88, S89), automatically select, based on the first environmental information and the second environmental information, a specific ventilation adjustment mode suitable for at least one occupant of the vehicle out of a plurality of ventilation adjustment modes (M1 to M5); and control the power window mechanism according to the selected ventilation adjustment mode (S82, S84, S86, S88, S89), wherein the control unit has the plurality of ventilation adjustment modes (M1 to M5) in which opening degrees of one or more windows out of a plurality of windows of the vehicle are different from each other.
A method for producing heating in a high temperature heat pump operated according to a supercritical or a transcritical cycle, said method comprising cooling a supercritical working fluid comprising Z-1,1,1,4,4,4-hexafluoro-2-butene.
A method for manufacturing an antibody or antigen-binding fragment thereof comprising: a) culturing E. coli host cells under conditions such that they express the antibody or antigen-binding fragment thereof in the periplasm, b) releasing the antibody or antigen-binding fragment thereof from the periplasm, and c) purifying the antibody or antigen-binding fragment thereof from a mixture containing the host cells and other contaminants, wherein said purification comprises at least one chromatography step and wherein a reducing agent is added to said mixture and the antibody or antigen-binding fragment thereof is maintained in the presence of said reducing agent from the first chromatography step until the last chromatography step, d) removing the reducing agent, e) adding PEG to the antibody or antigen-binding fragment thereof f) coupling the antibody or antigen-binding fragment thereof to a polyethylene glycol molecule via a covalent binding to a cysteine residue of the antibody or antigen-binding fragment thereof, wherein said cysteine residue is in the antibody hinge and g) recovering said antibody or antigen-binding fragment thereof coupled to PEG, wherein the reducing agent is 0.5 mM to 2 mM glutathione. a) culturing E. coli host cells under conditions such that they express the antibody or antigen-binding fragment thereof in the periplasm, b) releasing the antibody or antigen-binding fragment thereof from the periplasm, and c) purifying the antibody or antigen-binding fragment thereof from a mixture containing the host cells and other contaminants, wherein said purification comprises at least one chromatography step and wherein a reducing agent is added to said mixture and the antibody or antigen-binding fragment thereof is maintained in the presence of said reducing agent from the first chromatography step until the last chromatography step, d) removing the reducing agent, e) adding PEG to the antibody or antigen-binding fragment thereof f) coupling the antibody or antigen-binding fragment thereof to a polyethylene glycol molecule via a covalent binding to a cysteine residue of the antibody or antigen-binding fragment thereof, wherein said cysteine residue is in the antibody hinge and g) recovering said antibody or antigen-binding fragment thereof coupled to PEG, wherein the reducing agent is 0.5 mM to 2 mM glutathione.
A mobile terminal comprising: a first frame; a second frame slidably movable with respect to the first frame in a first direction and in a second direction opposite the first direction; a slide frame movable with respect to the second frame in the first direction and in the second direction; a flexible display comprising a first region coupled to the first frame, a second region coupled to the slide frame, and a third region disposed between the first region and the second region, the third region being bent in a manner of surrounding the second frame; a guide rail extending in the first direction on a rear portion of the second frame, the guide rail having a first width; and a guide rivet protruding from a front surface of the slide frame and inserted into the guide rail, the guide rivet comprising a body portion having a diameter less than the first width and a head portion positioned at an end of the body portion and having a diameter greater than the first width, wherein the guide rail comprises an insertion hole at an end thereof facing in the second direction, the insertion hole having a larger width than the diameter of the head portion, and wherein the insertion hole is located outside the moving range of the guide rivet. a first frame; a second frame slidably movable with respect to the first frame in a first direction and in a second direction opposite the first direction; a slide frame movable with respect to the second frame in the first direction and in the second direction; a flexible display comprising a first region coupled to the first frame, a second region coupled to the slide frame, and a third region disposed between the first region and the second region, the third region being bent in a manner of surrounding the second frame; a guide rail extending in the first direction on a rear portion of the second frame, the guide rail having a first width; and a guide rivet protruding from a front surface of the slide frame and inserted into the guide rail, the guide rivet comprising a body portion having a diameter less than the first width and a head portion positioned at an end of the body portion and having a diameter greater than the first width, wherein the guide rail comprises an insertion hole at an end thereof facing in the second direction, the insertion hole having a larger width than the diameter of the head portion, and wherein the insertion hole is located outside the moving range of the guide rivet.
A computer-implemented method for assisting in the maintenance of a mobile platform by determining occurrence probabilities of one or more potential causes of an event detected onboard the mobile platform, the method performed by a ground based apparatus remote from the mobile platform while the mobile platform is in flight, the method comprising: receiving, at the ground based apparatus and from the mobile platform, an identification of the event associated with a system of the mobile platform; using the identification of the event and predefined diagnostic rules associated with the event, identifying the one or more potential causes of the event; using other data related to the event, computing an occurrence probability for each potential cause for the event; and generating an output, the output comprising an identification of each potential cause; the occurrence probability of each potential cause; and an indication of one or more types of other data used to compute the occurrence probability of each potential cause, wherein the other data comprises: - current data received from the mobile platform, the current data including a sensed parameter or a derived parameter associated with the system; - historical data; - environmental data, and - fleet data, wherein the occurrence probability of each potential cause is refined by weightings of one or more of the historical data and fleet data, and said weightings are refined by the current data and the environmental data. receiving, at the ground based apparatus and from the mobile platform, an identification of the event associated with a system of the mobile platform; using the identification of the event and predefined diagnostic rules associated with the event, identifying the one or more potential causes of the event; using other data related to the event, computing an occurrence probability for each potential cause for the event; and generating an output, the output comprising an identification of each potential cause; the occurrence probability of each potential cause; and an indication of one or more types of other data used to compute the occurrence probability of each potential cause, wherein the other data comprises: - current data received from the mobile platform, the current data including a sensed parameter or a derived parameter associated with the system; - historical data; - environmental data, and - fleet data, - current data received from the mobile platform, the current data including a sensed parameter or a derived parameter associated with the system; - historical data; - environmental data, and - fleet data, wherein the occurrence probability of each potential cause is refined by weightings of one or more of the historical data and fleet data, and said weightings are refined by the current data and the environmental data.
Device for passive alignment of a device platform (15; 115; 215) in a body moved through a medium with respect to a target aimed for by the moved body, - the device platform (15; 115; 215) being pivotable by means of a first pivot shaft (14; 114; 214) about a first pivot axis (X'; X"; X"') extending transversely in relation to the longitudinal axis of the body, - the first pivot shaft (14; 114; 214) being connected to at least one passive control rudder (12, 12'; 112; 112'), which is exposed to the medium and is driven by the flow of the medium in relation to the body, - the device platform (115; 215) being pivotable by means of a second pivot shaft (124; 224) about a second pivot axis (Y'; Y"; Y"') extending transversely in relation to the longitudinal axis of the body and aligned orthogonally in relation to the first pivot axis (X'; X"; X"'), and - the second pivot shaft (124; 224) being connected to at least one passive control rudder (122, 122'), which is exposed to the medium and is driven by the flow of the medium in relation to the body, characterized - in that the device platform (15; 115; 215) is pivotable about a third axis, which extends substantially parallel to the longitudinal direction of the body, and - in that the front region of the body is pivotable about the third axis, which runs parallel to the rolling axis or corresponds thereto. - the device platform (15; 115; 215) being pivotable by means of a first pivot shaft (14; 114; 214) about a first pivot axis (X'; X"; X"') extending transversely in relation to the longitudinal axis of the body, - the first pivot shaft (14; 114; 214) being connected to at least one passive control rudder (12, 12'; 112; 112'), which is exposed to the medium and is driven by the flow of the medium in relation to the body, - the device platform (115; 215) being pivotable by means of a second pivot shaft (124; 224) about a second pivot axis (Y'; Y"; Y"') extending transversely in relation to the longitudinal axis of the body and aligned orthogonally in relation to the first pivot axis (X'; X"; X"'), and - the second pivot shaft (124; 224) being connected to at least one passive control rudder (122, 122'), which is exposed to the medium and is driven by the flow of the medium in relation to the body, - in that the device platform (15; 115; 215) is pivotable about a third axis, which extends substantially parallel to the longitudinal direction of the body, and - in that the front region of the body is pivotable about the third axis, which runs parallel to the rolling axis or corresponds thereto.
Supporting structure for facade elements which comprises a supporting profile with an attachment channel, a seal guide (3; 3a, 3b) arranged on the supporting profile and a seal covering the attachment channel, mounted on the seal guide (3; 3a, 3b) and serving as an inner seal, wherein the seal guide (3; 3a, 3b) contains a mounting part covering the attachment channel and wherein the attachment channel is attached to project outwards in the centre of a transverse bar of the supporting profile, characterised in that clamping bars or other holding elements for engagement in an opening of the attachment channel are arranged on the mounting part.
A superconducting film-forming substrate having a tape shape, the substrate comprising: a film-forming face for forming a laminate including a superconducting layer thereon; a rear face that is a face at a side opposite to the film-forming face; a pair of end faces (10C, 10D) connected to the film-forming face and the rear face; and a pair of side faces (10E, 10F) connected to the film-forming face, the rear face, and the pair of end faces (10C, 10D), characterized in that each of the pair of side faces (10E, 10F) comprises a spreading face that is an inclined face having an interior angle with respect to the film forming face of greater than 90 degrees and smaller than 180 degrees. a film-forming face for forming a laminate including a superconducting layer thereon; a rear face that is a face at a side opposite to the film-forming face; a pair of end faces (10C, 10D) connected to the film-forming face and the rear face; and a pair of side faces (10E, 10F) connected to the film-forming face, the rear face, and the pair of end faces (10C, 10D), characterized in that each of the pair of side faces (10E, 10F) comprises a spreading face that is an inclined face having an interior angle with respect to the film forming face of greater than 90 degrees and smaller than 180 degrees.