mhurhangee/patent-ind-claim-en huggingface dataset:
A station comprising: circuitry (1710; 1730) which, in operation, is configured to negotiate Wake-Up Radio, WUR, parameters with an access point , AP, and switch from WUR mode suspend to WUR mode by initiating and completing a WUR mode setup frame exchange; and a transmitter which, in operation, is configured to transmit a WUR mode setup frame to an the AP in the WUR mode setup frame exchange, wherein the circuitry (1720; 1730) is configured to maintain WUR parameters negotiated with the AP after entering the WUR mode suspend from the WUR mode, wherein the circuitry (1710; 1730) is configured to switch from WUR mode suspend to WUR mode after negotiation of WUR power management service, wherein an action type field of a WUR mode element contained in the WUR mode setup frame is configured to indicate that the station enters the WUR mode, characterized in that the WUR mode element is used to negotiate a first set of parameters related to WUR operation, and the station further comprises a receiver which, in operation, is configured to receive a beacon frame containing a WUR operation element which contains a second set of parameters necessary to support WUR operation, wherein each of the parameters in the first set is different from each of the parameters in the second set. circuitry (1710; 1730) which, in operation, is configured to negotiate Wake-Up Radio, WUR, parameters with an access point , AP, and switch from WUR mode suspend to WUR mode by initiating and completing a WUR mode setup frame exchange; and a transmitter which, in operation, is configured to transmit a WUR mode setup frame to an the AP in the WUR mode setup frame exchange, wherein the circuitry (1720; 1730) is configured to maintain WUR parameters negotiated with the AP after entering the WUR mode suspend from the WUR mode, wherein the circuitry (1710; 1730) is configured to switch from WUR mode suspend to WUR mode after negotiation of WUR power management service, wherein an action type field of a WUR mode element contained in the WUR mode setup frame is configured to indicate that the station enters the WUR mode, characterized in that the WUR mode element is used to negotiate a first set of parameters related to WUR operation, and the station further comprises a receiver which, in operation, is configured to receive a beacon frame containing a WUR operation element which contains a second set of parameters necessary to support WUR operation, wherein each of the parameters in the first set is different from each of the parameters in the second set.
A method comprising: recording a first location of a mobile device ; determining, by one or more processors of a geographic-positioning component of the mobile device , on a periodic basis, a current location (1 - 6) of the mobile device ; determining , by the processors of the geographic-positioning component, whether the current location (1 - 6) is outside a geographic region defined at least in part by the first location and a radius around the first location, wherein the radius is determined, by one or more client applications, based on: a detected velocity of the mobile device; time of day information; a battery level of the mobile device; and an error of the first location measurement; and if the current location (1 - 6) is outside the geographic region , then sending , by the processors of the geographic-positioning component, a message to one or more other processors of the mobile device , the message causing one or more of the other processors to transition from a sleep state to an active state. recording a first location of a mobile device ; determining, by one or more processors of a geographic-positioning component of the mobile device , on a periodic basis, a current location (1 - 6) of the mobile device ; determining , by the processors of the geographic-positioning component, whether the current location (1 - 6) is outside a geographic region defined at least in part by the first location and a radius around the first location, wherein the radius is determined, by one or more client applications, based on: a detected velocity of the mobile device; time of day information; a battery level of the mobile device; and an error of the first location measurement; and a detected velocity of the mobile device; time of day information; a battery level of the mobile device; and an error of the first location measurement; and if the current location (1 - 6) is outside the geographic region , then sending , by the processors of the geographic-positioning component, a message to one or more other processors of the mobile device , the message causing one or more of the other processors to transition from a sleep state to an active state.
Motorized assistance device for a cycle , comprising at least one carriage capable of being moved in a channel between a start position and an end position, said assistance device comprising a device for driving the movement of said at least one carriage in said channel , said device comprising a connection apparatus capable of being arranged between the carriage and said cycle , the connection apparatus comprising elements (50 ; 53) articulated to one another and being movably mounted between: - an active position in which said articulated elements of said connection apparatus are in a deployed position and in which said apparatus is in contact with a connection member capable of being fixed to said cycle , and - an inactive position in which the articulated elements of said connection apparatus are folded against one another and in which said apparatus is retractable so as to be inserted into said channel , and conversely, in that said carriage comprises said movement drive device , and in that said movement drive device comprises a drive wheel , the axis of rotation of which is fixed to said carriage and which is rotated by a motor connected to a power supply source. said device comprising a connection apparatus capable of being arranged between the carriage and said cycle , the connection apparatus comprising elements (50 ; 53) articulated to one another and being movably mounted between: - an active position in which said articulated elements of said connection apparatus are in a deployed position and in which said apparatus is in contact with a connection member capable of being fixed to said cycle , and - an inactive position in which the articulated elements of said connection apparatus are folded against one another and in which said apparatus is retractable so as to be inserted into said channel , and - an active position in which said articulated elements of said connection apparatus are in a deployed position and in which said apparatus is in contact with a connection member capable of being fixed to said cycle , and - an inactive position in which the articulated elements of said connection apparatus are folded against one another and in which said apparatus is retractable so as to be inserted into said channel , and conversely, in that said carriage comprises said movement drive device , and in that said movement drive device comprises a drive wheel , the axis of rotation of which is fixed to said carriage and which is rotated by a motor connected to a power supply source.
A disc filter with rotatable mounted central tube , the central tube having at least one row of radially along the circumference of the tube arranged filtration elements constituting a filtration disc , while the central tube is at both ends hung on an endless drive belt and each of the drive belts is girded around pulleys above the level of the maximum height of the fluid being filtered, the pulleys being rotatably mounted in the structure of the filter, characterized by that each of the endless drive belts is girded around two pulleys and only one of these four pulleys is coupled with a drive.
A robot cleaner comprising: a main body ; a traveling unit to move the main body; a light reception unit to receive the position of a light spot formed according to a control command of a user; and a controller to control the traveling unit so that the main body moves towards the light spot, characterized in that the robot cleaner further comprises an obstacle sensing unit to sense an obstacle, wherein, if an obstacle is sensed, the controller is configured to control the traveling unit to select, on the basis of the position of the light spot and the position of the obstacle, a minimum path around the obstacle from any one of a right tracing travelling in which a right side of the main body travels towards the obstacle to travel to the light spot position and a left tracing travelling in which a left side of the main body travels towards the obstacle to travel to the light spot position. a main body ; a traveling unit to move the main body; a light reception unit to receive the position of a light spot formed according to a control command of a user; and a controller to control the traveling unit so that the main body moves towards the light spot, characterized in that the robot cleaner further comprises an obstacle sensing unit to sense an obstacle, wherein, if an obstacle is sensed, the controller is configured to control the traveling unit to select, on the basis of the position of the light spot and the position of the obstacle, a minimum path around the obstacle from any one of a right tracing travelling in which a right side of the main body travels towards the obstacle to travel to the light spot position and a left tracing travelling in which a left side of the main body travels towards the obstacle to travel to the light spot position.
A crane that controls an actuator of a boom based on a target speed signal related to a moving direction and a speed of a load (W) suspended from the boom by a wire rope , the crane comprising: a swivel angle detection means of the boom ; a luffing angle detection means of the boom ; an extension/retraction length detection means of the boom ; a load position detection means that detects a current position of the load (W) relative to a reference position; and a control apparatus , wherein the control apparatus converts the target speed signal into a target position of the load (W) relative to the reference position, computes a current position of a boom tip relative to the reference position from a swivel angle detected by the swivel angle detection means , a luffing angle detected by the luffing angle detection means , and an extension/retraction length detected by the extension/retraction length detection means , computes a let-out amount of the wire rope from the current position of the load detected by the load position detection means and the current position of the boom tip , computes, from the current position of the load (W) and the target position of the load (W), a direction vector of the wire rope , computes a target position of the boom tip for the target position of the load (W) from the let-out amount of the wire rope and the direction vector of the wire rope , and generates an operation signal for the actuator based on the target position of the boom tip . a swivel angle detection means of the boom ; a luffing angle detection means of the boom ; an extension/retraction length detection means of the boom ; a load position detection means that detects a current position of the load (W) relative to a reference position; and a control apparatus , wherein the control apparatus converts the target speed signal into a target position of the load (W) relative to the reference position, computes a current position of a boom tip relative to the reference position from a swivel angle detected by the swivel angle detection means , a luffing angle detected by the luffing angle detection means , and an extension/retraction length detected by the extension/retraction length detection means , computes a let-out amount of the wire rope from the current position of the load detected by the load position detection means and the current position of the boom tip , computes, from the current position of the load (W) and the target position of the load (W), a direction vector of the wire rope , computes a target position of the boom tip for the target position of the load (W) from the let-out amount of the wire rope and the direction vector of the wire rope , and generates an operation signal for the actuator based on the target position of the boom tip .
An article comprising: a substrate ; a barrier coating on the substrate , the barrier coating comprising: a matrix comprising a rare-earth disilicate, the matrix extending from an inner interface facing the substrate to an outer surface opposite the inner interface ; and a graded volumetric distribution of rare-earth oxide rich (REO-rich) phase regions in the matrix along a direction from the inner interface to the outer surface , wherein the REO-rich phase regions include rare-earth oxide in excess of stoichiometric rare-earth monosilicate, wherein the graded volumetric distribution defines a first volumetric density of the plurality of REO-rich phase regions at a first region of the matrix adjacent the outer surface and a second volumetric density of the plurality of REO-rich phase regions at a second region of the matrix adjacent the inner interface , and wherein the second volumetric density is different from the first volumetric density. a substrate ; a barrier coating on the substrate , the barrier coating comprising: a matrix comprising a rare-earth disilicate, the matrix extending from an inner interface facing the substrate to an outer surface opposite the inner interface ; and a graded volumetric distribution of rare-earth oxide rich (REO-rich) phase regions in the matrix along a direction from the inner interface to the outer surface , wherein the REO-rich phase regions include rare-earth oxide in excess of stoichiometric rare-earth monosilicate, wherein the graded volumetric distribution defines a first volumetric density of the plurality of REO-rich phase regions at a first region of the matrix adjacent the outer surface and a second volumetric density of the plurality of REO-rich phase regions at a second region of the matrix adjacent the inner interface , and wherein the second volumetric density is different from the first volumetric density. a matrix comprising a rare-earth disilicate, the matrix extending from an inner interface facing the substrate to an outer surface opposite the inner interface ; and a graded volumetric distribution of rare-earth oxide rich (REO-rich) phase regions in the matrix along a direction from the inner interface to the outer surface , wherein the REO-rich phase regions include rare-earth oxide in excess of stoichiometric rare-earth monosilicate, wherein the graded volumetric distribution defines a first volumetric density of the plurality of REO-rich phase regions at a first region of the matrix adjacent the outer surface and a second volumetric density of the plurality of REO-rich phase regions at a second region of the matrix adjacent the inner interface , and wherein the second volumetric density is different from the first volumetric density.
A method of fabricating a part based on carbon/carbon composite material, the method comprising making a preform of carbon fibers, densifying the preform with a carbon matrix, and during the fabrication process, introducing grains or particles of ceramic dispersed within the part, characterized in that , prior to completing densification, impregnation is performed using a liquid formed of a sol-gel type solution containing a precursor of a Zr-O-C system enabling, after heat treatment, one or more zirconium compounds to be dispersed in crystallite form and/or a colloidal suspension containing particles of one or more zirconium compounds, and in that the impregnation and the subsequent treatments, until the final part is obtained, are performed in such a manner as to have, in the final part, crystallites or particles representing a percentage by weight lying in the range 1% to 10% and of composition having at least a majority of the ZrO x C y type with 1 ≤ x ≤ 2 and 0 ≤ y ≤ 1.
A shift device comprising: a support body configured for installation to a vehicle; a shift body that is supported by the support body , and that is operated toward one side or another side in an operation direction to change a shift position; a restriction portion that is provided at the support body on the one side and the other side of the shift body ; a restriction body ; and a release portion , characterized in that the restriction body is disposed at the shift body , that is capable of moving together with operation of the shift body , that, in cases in which the restriction body is disposed on the one side of the shift body in the operation direction, is restricted from moving by the restriction portion on the one side so as to restrict operation of the shift body toward a shift position on the one side, and that, in cases in which the restriction body is disposed on the other side of the shift body in the operation direction, is restricted from moving by the restriction portion on the other side so as to restrict operation of the shift body toward a shift position on the other side, and in that in cases in which the restriction body is disposed on the one side of the shift body , the release portion is operated such that a movement restriction on the restriction body by the restriction portion on the one side is released, and, in cases in which the restriction body is disposed on the other side of the shift body , the release portion is operated such that a movement restriction on the restriction body by the restriction portion on the other side is released. a support body configured for installation to a vehicle; a shift body that is supported by the support body , and that is operated toward one side or another side in an operation direction to change a shift position; a restriction portion that is provided at the support body on the one side and the other side of the shift body ; a restriction body ; and a release portion ,
A non-coated air bag base cloth, the base cloth being constituted by a fabric formed using a yarn containing polyethylene terephthalate as a main raw material, wherein a single fiber strength of a yarn of the fabric is 7.70 to 8.50 cN/dtex, a single fiber fineness of a yarn of the fabric is 2.5 to 3.0 dtex inclusive, and a cover factor is 2500 to 2800, or a single fiber strength of a yarn of the fabric is 7.30 to 7.60 cN/dtex, a single fiber fineness of a yarn of the fabric larger than 3.0 dtex and up to 3.5 dtex, and a cover factor is 2400 to 2500, and the cover factor = warp density of fabric (per 2.54 cm) × √total fineness of warp (dtex) + weft density of fabric (per 2.54 cm) × √total fineness of weft (dtex). a single fiber strength of a yarn of the fabric is 7.70 to 8.50 cN/dtex, a single fiber fineness of a yarn of the fabric is 2.5 to 3.0 dtex inclusive, and a cover factor is 2500 to 2800, or a single fiber strength of a yarn of the fabric is 7.30 to 7.60 cN/dtex, a single fiber fineness of a yarn of the fabric larger than 3.0 dtex and up to 3.5 dtex, and a cover factor is 2400 to 2500, and the cover factor = warp density of fabric (per 2.54 cm) × √total fineness of warp (dtex) + weft density of fabric (per 2.54 cm) × √total fineness of weft (dtex).
An image decoding method for decoding a current block of image data included in a coded bitstream, the method comprising: obtaining (S112) a list of merging candidates on the basis of neighboring and collocated blocks of the current block, each merging candidate indicating a prediction direction, a motion vector, and a reference picture index; removing (S113) identical merging candidates and merging candidates that are not usable for merging from the list of merging candidates; determining (S131) whether a number of merging candidates in the list of merging candidates after the removing step (S113) is smaller than a fixed number, and, if so, adding (S133) new merging candidates to the list of merging candidates until the number of merging candidates is equal to the fixed number, the newly added merging candidates indicating a zero motion vector; decoding (S304), from the coded bitstream, a merging candidate index indicating a merging candidate of the list of merging candidates; and decoding (S306) the current block of image data on the basis of the prediction direction, the motion vector, and the reference picture index indicated by the indicated merging candidate; wherein the newly added merging candidates include at least two merging candidates that indicate the same reference picture index and the same prediction direction. obtaining (S112) a list of merging candidates on the basis of neighboring and collocated blocks of the current block, each merging candidate indicating a prediction direction, a motion vector, and a reference picture index; removing (S113) identical merging candidates and merging candidates that are not usable for merging from the list of merging candidates; determining (S131) whether a number of merging candidates in the list of merging candidates after the removing step (S113) is smaller than a fixed number, and, if so, adding (S133) new merging candidates to the list of merging candidates until the number of merging candidates is equal to the fixed number, the newly added merging candidates indicating a zero motion vector; decoding (S304), from the coded bitstream, a merging candidate index indicating a merging candidate of the list of merging candidates; and decoding (S306) the current block of image data on the basis of the prediction direction, the motion vector, and the reference picture index indicated by the indicated merging candidate; wherein the newly added merging candidates include at least two merging candidates that indicate the same reference picture index and the same prediction direction.
An aircraft speed information providing system , comprising: an airspeed measurement device that measures a present airspeed of an aircraft; an acceleration measurement device that measures present acceleration of the aircraft; a remote turbulence measurement device that is installed in the aircraft and measures remote turbulence in front of the aircraft; and a computation processing device that is configured to calculate a predicted airspeed of the aircraft on a basis of the measured present airspeed and present acceleration and the remote turbulence measured by the remote turbulence measurement device , wherein the computation processing device is configured to further calculate a variation amount of the predicted airspeed and to calculate a target airspeed on a basis of a difference between the calculated predicted airspeed and present airspeed, the calculated variation amount, and a reference speed. an airspeed measurement device that measures a present airspeed of an aircraft; an acceleration measurement device that measures present acceleration of the aircraft; a remote turbulence measurement device that is installed in the aircraft and measures remote turbulence in front of the aircraft; and a computation processing device that is configured to calculate a predicted airspeed of the aircraft on a basis of the measured present airspeed and present acceleration and the remote turbulence measured by the remote turbulence measurement device , wherein the computation processing device is configured to further calculate a variation amount of the predicted airspeed and to calculate a target airspeed on a basis of a difference between the calculated predicted airspeed and present airspeed, the calculated variation amount, and a reference speed.