mhurhangee/ep-ind-claims huggingface dataset:
A method in a wireless LAN system, the method comprising: generating, by a transmitting device, a New Generation Vehicular, NGV, frame used for a vehicle to everything, V2X, at a 5.9GHz band; and transmitting, by the transmitting device, the NGV frame to a receiving device through a first band, wherein the NGV frame includes Legacy-Short Training Field, L-STF, Legacy-Long Training Field, L-LTF, Legacy-Signal, L-SIG, Repeated Legacy, RL,-SIG, NGV-SIG, NGV-STF, NGV-LTF, and NGV-Data, wherein the L-STF, the L-LTF, the L-SIG, the RL-SIG and the NGV-SIG are duplicated in units of a second band and transmitted through the first band, wherein the NGV-STF, the NGV-LTF and the NGV-Data are transmitted through a full band of the first band, wherein the L-STF, the L-LTF, the L-SIG, the RL-SIG and the NGV-SIG are generated by performing 2x DownClocking, DC, on a frame format for a 20MHz band defined in an 802.11a system, wherein the NGV-STF, the NGV-LTF and the NGV-Data are generated by performing 2x DC on a frame format for a 40MHz band defined in the 802.11ac system, wherein the first band is a 20MHz band, and wherein the second band is a 10MHz band. generating, by a transmitting device, a New Generation Vehicular, NGV, frame used for a vehicle to everything, V2X, at a 5.9GHz band; and transmitting, by the transmitting device, the NGV frame to a receiving device through a first band, wherein the NGV frame includes Legacy-Short Training Field, L-STF, Legacy-Long Training Field, L-LTF, Legacy-Signal, L-SIG, Repeated Legacy, RL,-SIG, NGV-SIG, NGV-STF, NGV-LTF, and NGV-Data, wherein the L-STF, the L-LTF, the L-SIG, the RL-SIG and the NGV-SIG are duplicated in units of a second band and transmitted through the first band, wherein the NGV-STF, the NGV-LTF and the NGV-Data are transmitted through a full band of the first band, wherein the L-STF, the L-LTF, the L-SIG, the RL-SIG and the NGV-SIG are generated by performing 2x DownClocking, DC, on a frame format for a 20MHz band defined in an 802.11a system, wherein the NGV-STF, the NGV-LTF and the NGV-Data are generated by performing 2x DC on a frame format for a 40MHz band defined in the 802.11ac system, wherein the first band is a 20MHz band, and wherein the second band is a 10MHz band.
A method for improving frequency prioritization in a wireless communication network, the method comprising: a user equipment, in the following referred to as UE (116, 122, 250, 300), setting a priority on whether to prioritize Multimedia Broadcast Multicast Service, in the following referred to as MBMS, reception over unicast; wherein the UE (116, 122, 250, 300) is receiving a MBMS service via Multicast Broadcast Single Frequency Network, in the following referred to as MBSFN, or is interested in receiving a MBMS service via MBSFN; characterized by the UE (116, 122, 250, 300) deciding whether to follow a redirection information or a de-prioritization information based on the UE's setting of prioritization of MBMS reception over unicast; wherein the redirection information or the de-prioritization information is in a received RRC Connection Reject message or a RRC Connection Release message; wherein the UE (116, 122, 250, 300) would follow the redirection information or the de-prioritization information if the UE does not prioritize MBMS reception over unicast. a user equipment, in the following referred to as UE (116, 122, 250, 300), setting a priority on whether to prioritize Multimedia Broadcast Multicast Service, in the following referred to as MBMS, reception over unicast; wherein the UE (116, 122, 250, 300) is receiving a MBMS service via Multicast Broadcast Single Frequency Network, in the following referred to as MBSFN, or is interested in receiving a MBMS service via MBSFN; characterized by the UE (116, 122, 250, 300) deciding whether to follow a redirection information or a de-prioritization information based on the UE's setting of prioritization of MBMS reception over unicast; wherein the redirection information or the de-prioritization information is in a received RRC Connection Reject message or a RRC Connection Release message; wherein the UE (116, 122, 250, 300) would follow the redirection information or the de-prioritization information if the UE does not prioritize MBMS reception over unicast.
Cleaning strip or card for cash and credit card machines, with a strip (12, 22) coated with flock fibers and made from a carrier material, wherein two opposing strip edges define a machine direction (x) and the width of the strip (12, 22) measured transverse to a direction of insertion into a cash and credit card machine corresponds substantially to the length of a side edge of a bill suitable for use in a cash and credit card machine to be cleaned, wherein the strip (12, 22) has on at least one of its surfaces at least three transverse strips (14, 15; 24, 25) that are arranged transversely to the machine direction (x) in a manner spaced from one another and that are coated with flock fibers, wherein the transverse strips (14, 15; 24, 25) are arranged on both surfaces of the strip (12, 22), characterized in that the transverse strips (14,24) arranged on the one surface of the strip (12, 22) are arranged between the transverse strips (15,25) arranged on the other surface of the strip (12,22).
Method for assessing the reliability of a dog-man pair, preferably a technical dog-man pair, constituted by a dog and a human leader, both wearing a positioning device suited to measure and store GNSS data, characterized in that it comprises the following steps: - defining a work area inside which said dog-man pair must work; - positioning in said work area at least one guinea pig suited to be found by said dog-man pair; - starting the search for said at least one guinea pig by said dog-man pair, measuring and storing at the same time instants and according to predefined time intervals said GNSS data concerning said dog and said leader through said GNSS positioning devices; - transferring said GNSS data concerning said dog and said leader to a data processing device; - processing latitude and longitude values belonging to said GNSS data of said dog and said leader in such a way as to define within said work area the layouts (7, 8) of the routes of said dog and said leader, respectively, and to define a graph of the instant distance between said dog and said leader for each one of said instants of time during said search; - interpreting said layouts (7, 8) and said graph of the instant distance in such a way as to define the degree of coverage of said work area granted by said dog in relation to the position of said leader and to define the degree of suitability of the route chosen by the leader within said work area; - planning the activities necessary to improve the operating efficiency of said dog-man pair based on said interpretation of said layouts (7, 8) and said graph of the instant distance. - defining a work area inside which said dog-man pair must work; - positioning in said work area at least one guinea pig suited to be found by said dog-man pair; - starting the search for said at least one guinea pig by said dog-man pair, measuring and storing at the same time instants and according to predefined time intervals said GNSS data concerning said dog and said leader through said GNSS positioning devices; - transferring said GNSS data concerning said dog and said leader to a data processing device; - processing latitude and longitude values belonging to said GNSS data of said dog and said leader in such a way as to define within said work area the layouts (7, 8) of the routes of said dog and said leader, respectively, and to define a graph of the instant distance between said dog and said leader for each one of said instants of time during said search; - interpreting said layouts (7, 8) and said graph of the instant distance in such a way as to define the degree of coverage of said work area granted by said dog in relation to the position of said leader and to define the degree of suitability of the route chosen by the leader within said work area; - planning the activities necessary to improve the operating efficiency of said dog-man pair based on said interpretation of said layouts (7, 8) and said graph of the instant distance.
System for assembling a mask on a motor vehicle light or headlight housing, comprising a mask, at least one reflector and a housing, wherein said assembly system comprises at least one fixing means present on the mask, in that the mask forms a single piece with said at least one reflector of the headlight, wherein the fixing means are of the fixing clip type, each fixing clip being associated with an element for retaining said clip, present on the housing of the headlight, wherein each fixing clip has a flexible clip foot and a clip head, disposed in line with the clip foot, having a thickness greater than the thickness of the clip foot, and terminating in a bevel, wherein each fixing clip has a guide element forming a projection at a locking face of the bevel, and wherein each retaining element has a first wall and a second wall parallel to each other, each having a clip-insertion face to facilitate an operation of inserting the associated clip, and a clip-retaining face for locking the bevel of the head of the associated clip.
A cap device configured to form a space surrounding an opening of a nozzle of a liquid ejecting head when the cap device is in contact with the liquid ejecting head including the nozzle for ejecting a liquid, the cap device comprising: a moisturizing chamber including an introduction portion for introducing a moisturizing fluid into the moisturizing chamber, the moisturizing fluid being for moisturizing the space; and a partition wall having gas permeability, the partition wall being made of a liquid-repellent elastomer resin and being configured to completely partition the space and the moisturizing chamber, wherein part of the partition wall is formed of a flexible portion, the flexible portion being able to deflect and displace due to pressure fluctuations in the space. a moisturizing chamber including an introduction portion for introducing a moisturizing fluid into the moisturizing chamber, the moisturizing fluid being for moisturizing the space; and a partition wall having gas permeability, the partition wall being made of a liquid-repellent elastomer resin and being configured to completely partition the space and the moisturizing chamber, wherein part of the partition wall is formed of a flexible portion, the flexible portion being able to deflect and displace due to pressure fluctuations in the space.
A belt buckle for a vehicle safety belt, comprising a housing which is formed by at least two housing shells (1,2) joined together and in which a locking mechanism is arranged, and a pushbutton, provided on said housing, for operating the locking mechanism, the at least two housing shells (1,2) are joined together at their shell rims and characterized in that elongated cover strips (8,9) made of solid material and covering the mutually abutting rims (17,18) of the housing shells (1,2) are fixed to the joined housing shells (1,2).
Casting installation enclosure, including: - a first body, and a second body that is removably joined to the first body along a bearing axis, the first and second bodies (10, 20) delimiting together an internal chamber, - at least one compression member, tightly joined to the first body; characterised in that it includes a sealing device comprising: - at least one seal, tightly joined to the second body, including a lateral contact face extending substantially parallel to the bearing axis; - the compression member and the seal being arranged with respect to one another such that the compression member is in contact with the lateral contact face of the seal and exerts a compression force thereon that is oriented substantially orthogonally to the bearing axis, thereby ensuring the tightness of the enclosure between the first and second bodies (10, 20). - a first body, and a second body that is removably joined to the first body along a bearing axis, the first and second bodies (10, 20) delimiting together an internal chamber, - at least one compression member, tightly joined to the first body; - at least one seal, tightly joined to the second body, including a lateral contact face extending substantially parallel to the bearing axis; - the compression member and the seal being arranged with respect to one another such that the compression member is in contact with the lateral contact face of the seal and exerts a compression force thereon that is oriented substantially orthogonally to the bearing axis, thereby ensuring the tightness of the enclosure between the first and second bodies (10, 20).
A semiconductor device comprising: a plurality of cores (10; 20); a sensor (TSH1; TSH2) for detecting a temperature; and a control circuit for obtaining each power consumption value of the respective cores (10; 20) in accordance with the temperature detected by the sensor (TSH1; TSH2), and for selecting the core as a control object in accordance with the obtained power consumption; wherein the control circuit obtains each power consumption value of the respective cores (10; 20) in response to a result of comparison between the temperature detected by the sensor and a predetermined temperature threshold; wherein the control circuit selects the core as the control object by using a result of comparison between each value of the power consumption of the cores (10; 20) and predetermined reference values of the power consumption for the cores; wherein the predetermined reference values of the power consumption for the respective cores (10; 20) are the respective power each core consumes such that the temperature detected by the sensor reaches the predetermined temperature threshold, wherein the temperature threshold is the temperature, at which the heat control starts. a plurality of cores (10; 20); a sensor (TSH1; TSH2) for detecting a temperature; and a control circuit for obtaining each power consumption value of the respective cores (10; 20) in accordance with the temperature detected by the sensor (TSH1; TSH2), and for selecting the core as a control object in accordance with the obtained power consumption; wherein the control circuit obtains each power consumption value of the respective cores (10; 20) in response to a result of comparison between the temperature detected by the sensor and a predetermined temperature threshold; wherein the control circuit selects the core as the control object by using a result of comparison between each value of the power consumption of the cores (10; 20) and predetermined reference values of the power consumption for the cores; wherein the predetermined reference values of the power consumption for the respective cores (10; 20) are the respective power each core consumes such that the temperature detected by the sensor reaches the predetermined temperature threshold, wherein the temperature threshold is the temperature, at which the heat control starts.
A valve that is sealable to an associated container having an interior, the valve adapted to permit and stop flow of fluid from the container interior, the valve comprising: a valve body sealable to the container, the valve body having a stem receiving region formed therein, the valve body including a fluid receiving region in communication with the container interior; a valve stem mounted to the valve body, the valve stem including a hollow tubular member defining a central bore, the valve stem positioned in the stem receiving region and adapted for rotation within the stem receiving region, the valve stem including a stem opening in a portion of a wall thereof, the valve stem being rotatable between an open position to align the stem opening with the valve body fluid receiving region to permit flow from the fluid storage region through the valve, and a closed position to misalign the stem opening with the valve body fluid receiving region to stop flow through the valve, the valve stem having a grasping portion spaced from the valve body, the grasping portion adapted to rotate the valve stem within the stem receiving region to move the valve between the open and closed positions, wherein at least a portion of the valve stem that is in contact with the stem receiving region is formed from a material comprising a polyethylene based polymer or a polypropylene based polymer, and characterised in that said at least a portion of the valve stem that is in contact with the stem receiving region is formed from a material comprising at least about 0.1 wt. % oleamide. a valve body sealable to the container, the valve body having a stem receiving region formed therein, the valve body including a fluid receiving region in communication with the container interior; a valve stem mounted to the valve body, the valve stem including a hollow tubular member defining a central bore, the valve stem positioned in the stem receiving region and adapted for rotation within the stem receiving region, the valve stem including a stem opening in a portion of a wall thereof, the valve stem being rotatable between an open position to align the stem opening with the valve body fluid receiving region to permit flow from the fluid storage region through the valve, and a closed position to misalign the stem opening with the valve body fluid receiving region to stop flow through the valve, the valve stem having a grasping portion spaced from the valve body, the grasping portion adapted to rotate the valve stem within the stem receiving region to move the valve between the open and closed positions, wherein at least a portion of the valve stem that is in contact with the stem receiving region is formed from a material comprising a polyethylene based polymer or a polypropylene based polymer, and characterised in that said at least a portion of the valve stem that is in contact with the stem receiving region is formed from a material comprising at least about 0.1 wt. % oleamide.
A method to determine the heading or orientation of a target vehicle by a host vehicle, said host vehicle equipped with a lidar or radar system, said system including a sensor unit adapted to receive signals emitted from said host vehicle and reflected by said target vehicle, comprising: a) determining at least one reference angle being an initial estimate of target heading or orientation (β); b) emitting a signal from said system and determining a plurality of point radar or lidar detections belonging to said target vehicle, said point detections having co-ordinates in the horizontal plane; c) formulating an initial rectangular boundary box from said point detections, where the boundary box is formulated such that two edges of the boundary box are drawn parallel to the reference angle and two sides are perpendicular to the reference angle and such that all the point detections are either on the boundary box sides or lay within the boundary box and each edge has at least one point detection on it; d) for each point detection lying on an edge of the boundary box, rotating a line coincident with the respective edge clockwise and anticlockwise about the respectively selected point detection until said line hits another point detection or until a maximum angle of rotation is performed; and each time when said line hits said another point detection, determining a correction angle (Δi), where the correction angle is such that applied to the reference angle it gives a candidate orientation angle (γi); f) determining a cost function in respect of each candidate orientation angle (γi) and/or correction angle (Δi); g) selecting that candidate orientation angle having the lowest cost function. a) determining at least one reference angle being an initial estimate of target heading or orientation (β); b) emitting a signal from said system and determining a plurality of point radar or lidar detections belonging to said target vehicle, said point detections having co-ordinates in the horizontal plane; c) formulating an initial rectangular boundary box from said point detections, where the boundary box is formulated such that two edges of the boundary box are drawn parallel to the reference angle and two sides are perpendicular to the reference angle and such that all the point detections are either on the boundary box sides or lay within the boundary box and each edge has at least one point detection on it; d) for each point detection lying on an edge of the boundary box, rotating a line coincident with the respective edge clockwise and anticlockwise about the respectively selected point detection until said line hits another point detection or until a maximum angle of rotation is performed; and each time when said line hits said another point detection, determining a correction angle (Δi), where the correction angle is such that applied to the reference angle it gives a candidate orientation angle (γi); f) determining a cost function in respect of each candidate orientation angle (γi) and/or correction angle (Δi); g) selecting that candidate orientation angle having the lowest cost function.
An aerosol-generating system comprising: an aerosol-generating device comprising: a housing having an air outlet and an air inlet; an airflow channel fluidly connecting the air outlet with the air inlet; a rotatable heating element coupled to the housing and along the airflow channel; a cartridge receiving cavity defined withing the housing and configured to receive a cartridge containing a tape; a cartridge received within the cartridge receiving cavity and the heating element in contact with the tape, the cartridge comprising; the tape extending from a first end to a second end; a rotatable supply reel fixed within the cartridge; a rotatable take-up reel fixed within the cartridge; and the first end of the tape fixed to the rotatable take-up reel and the second end of the tape fixed to the rotatable supply reel; a solid aerosol-generating substrate disposed on the tape, the solid aerosol-generating substrate comprising nicotine and glycerol. an aerosol-generating device comprising: a housing having an air outlet and an air inlet; an airflow channel fluidly connecting the air outlet with the air inlet; a rotatable heating element coupled to the housing and along the airflow channel; a cartridge receiving cavity defined withing the housing and configured to receive a cartridge containing a tape; a housing having an air outlet and an air inlet; an airflow channel fluidly connecting the air outlet with the air inlet; a rotatable heating element coupled to the housing and along the airflow channel; a cartridge receiving cavity defined withing the housing and configured to receive a cartridge containing a tape; a cartridge received within the cartridge receiving cavity and the heating element in contact with the tape, the cartridge comprising; the tape extending from a first end to a second end; a rotatable supply reel fixed within the cartridge; a rotatable take-up reel fixed within the cartridge; and the first end of the tape fixed to the rotatable take-up reel and the second end of the tape fixed to the rotatable supply reel; a solid aerosol-generating substrate disposed on the tape, the solid aerosol-generating substrate comprising nicotine and glycerol. the tape extending from a first end to a second end; a rotatable supply reel fixed within the cartridge; a rotatable take-up reel fixed within the cartridge; and the first end of the tape fixed to the rotatable take-up reel and the second end of the tape fixed to the rotatable supply reel; a solid aerosol-generating substrate disposed on the tape, the solid aerosol-generating substrate comprising nicotine and glycerol.