mhurhangee/patent-ind-claim-en huggingface dataset:
A spatial reuse, SR, method of a first station, STA, associated with a first basic service set, BSS, in a wireless local area network, WLAN, system, the SR method comprising: receiving (S910) an inter-BSS physical protocol data unit, PPDU, from an AP or a second STA associated with a second BSS different from the first BSS, wherein the inter-BSS PPDU comprises a physical, PHY, preamble and an inter-BBS frame, wherein a high efficiency, HE, -signal, SIG, A field of the PHY preamble comprises an SR indicator indicating whether SR is allowed; executing (S920) a clear channel assessment, CCA, on a channel based on a CCA level which is a criterion by which a busy or idle state of the channel is determined when the SR indicator indicates that SR is allowed, wherein, when the CCA level applied in a 20 MHz channel is set to a reference threshold value, the CCA level applied in a greater channel than the 20 MHz channel is calculated by adding a predetermined value to the reference threshold value; and wherein when the PPDU is an UL PPDU, a first CCA level is applied to the CCA level, and wherein when the PPDU is a DL PPDU, a second CCA level smaller than the first CCA level is applied to the CCA level; transmitting (S930) a signal through the channel when the channel is in the idle state as a result of the execution of the CCA. receiving (S910) an inter-BSS physical protocol data unit, PPDU, from an AP or a second STA associated with a second BSS different from the first BSS, wherein the inter-BSS PPDU comprises a physical, PHY, preamble and an inter-BBS frame, wherein a high efficiency, HE, -signal, SIG, A field of the PHY preamble comprises an SR indicator indicating whether SR is allowed; executing (S920) a clear channel assessment, CCA, on a channel based on a CCA level which is a criterion by which a busy or idle state of the channel is determined when the SR indicator indicates that SR is allowed, wherein, when the CCA level applied in a 20 MHz channel is set to a reference threshold value, the CCA level applied in a greater channel than the 20 MHz channel is calculated by adding a predetermined value to the reference threshold value; and wherein when the PPDU is an UL PPDU, a first CCA level is applied to the CCA level, and wherein when the PPDU is a DL PPDU, a second CCA level smaller than the first CCA level is applied to the CCA level; transmitting (S930) a signal through the channel when the channel is in the idle state as a result of the execution of the CCA.
A method of manufacturing a stent , in which a) the stent is cut out of a tubular material; b) the stent is widened up to its expanded state, characterized in that c) the shape of the cells of the stent is changed and fixed in the expanded state. a) the stent is cut out of a tubular material; b) the stent is widened up to its expanded state, c) the shape of the cells of the stent is changed and fixed in the expanded state.
A composition consisting of an extract of Plantago ovata or Plantago psyllium, glucomannan and an extract of Matricaria chamomilla in admixture with a suitable acceptable carrier.
Method of operation of a handheld optical device for capturing non-mydriatic retinal images from a patient using a smartphone having a camera, an inertial sensor and an electronic data processor, said device comprising a housing for coupling to the smartphone and an optical system for capturing retina images through said camera, said method comprising, for aligning the camera with the retina visual axis, the electronic data processor carrying out the steps of: capturing an image of the retina; using an image classification method configured by pre-training on previously captured images to detect whether the camera is lower or higher than the retina visual axis, by detecting whether a dark shadow is present on the top or on the bottom, respectively, of the captured image; if the camera was detected as being lower or higher than the retina visual axis, then inputting the value of the Y-axis component of the inertial sensor; if the camera was detected as being lower than the visual axis and the Y-axis value is levelled, instructing the user to translationally move up the device; if the camera was detected as being lower than the visual axis and the Y-axis value is not levelled, instructing the user to tilt up the device; if the camera was detected as being higher than the visual axis and the Y-axis value is levelled, instructing the user to translationally move down the device; and if the camera was detected as being higher than the visual axis and the Y-axis value is not levelled, instructing the user to tilt down the device. capturing an image of the retina; using an image classification method configured by pre-training on previously captured images to detect whether the camera is lower or higher than the retina visual axis, by detecting whether a dark shadow is present on the top or on the bottom, respectively, of the captured image; if the camera was detected as being lower or higher than the retina visual axis, then inputting the value of the Y-axis component of the inertial sensor; if the camera was detected as being lower than the visual axis and the Y-axis value is levelled, instructing the user to translationally move up the device; if the camera was detected as being lower than the visual axis and the Y-axis value is not levelled, instructing the user to tilt up the device; if the camera was detected as being higher than the visual axis and the Y-axis value is levelled, instructing the user to translationally move down the device; and if the camera was detected as being higher than the visual axis and the Y-axis value is not levelled, instructing the user to tilt down the device.
Carriage of a public transport vehicle, in particular a railway vehicle, comprising at least one reception room for passengers, said reception room comprising: - first and second side walls, and a floor , - the floor comprising a first fixed side portion , forming a first platform , and extending laterally between the first side wall and a first edge , the first platform being intended to receive passenger seats , - the floor comprising a fixed second side portion , forming a second platform , and extending laterally between the second side wall and a second edge opposite the first edge , the second platform being intended to receive passenger seats , and - the floor comprising a third central part , in which the third central part comprises a low floor member and a raised floor member relative to the low floor member , and in that the third central part is removably attached to the first platform and the second platform , first platform having a first width (L1), defined in a transverse direction (Y), and the second platform (L2) having a second width, defined in the transverse direction (Y), the first width (L1) being different from the second width (L2), and preferably greater than the second width (L2) and the raised floor element of the third central part of the floor having a third width (L3) defined in the transverse direction (Y), characterised in that the first width (L1) is substantially equal to the sum of the second (L2) and third (L3) widths. - first and second side walls, and a floor , - the floor comprising a first fixed side portion , forming a first platform , and extending laterally between the first side wall and a first edge , the first platform being intended to receive passenger seats , - the floor comprising a fixed second side portion , forming a second platform , and extending laterally between the second side wall and a second edge opposite the first edge , the second platform being intended to receive passenger seats , and - the floor comprising a third central part , in which the third central part comprises a low floor member and a raised floor member relative to the low floor member , and in that the third central part is removably attached to the first platform and the second platform , first platform having a first width (L1),
A data transmission method, wherein the method comprises: sending (S210), by a network device, first indication information, wherein the first indication information comprises N bits, the N bits are corresponding to M time units, wherein the N bits comprises M groups, each of the M groups comprises L consecutive bits, L is a quantity of frequency domain units, the j th bit in the i th group is corresponding to the j th frequency domain unit in the i th time unit, the i th group belongs to the M groups, the i th time unit belongs to the M time units, i∈[1, M], j∈[1, L], M is less than or equal to N, and L is a positive integer, the j th bit in the i th group indicates whether a corresponding time frequency unit is used to transmit data of a terminal device, M is a positive integer, and N is a positive integer, the corresponding time frequency unit of the j th bit in the i th group is the j th frequency domain unit in the i th group; and sending (S220), by the network device, downlink data in a time frequency unit to the terminal device, wherein the time frequency unit is indicated by the N bits. sending (S210), by a network device, first indication information, wherein the first indication information comprises N bits, the N bits are corresponding to M time units, wherein the N bits comprises M groups, each of the M groups comprises L consecutive bits, L is a quantity of frequency domain units, the j th bit in the i th group is corresponding to the j th frequency domain unit in the i th time unit, the i th group belongs to the M groups, the i th time unit belongs to the M time units, i∈[1, M], j∈[1, L], M is less than or equal to N, and L is a positive integer, the j th bit in the i th group indicates whether a corresponding time frequency unit is used to transmit data of a terminal device, M is a positive integer, and N is a positive integer, the corresponding time frequency unit of the j th bit in the i th group is the j th frequency domain unit in the i th group; and sending (S220), by the network device, downlink data in a time frequency unit to the terminal device, wherein the time frequency unit is indicated by the N bits.
Method for manufacturing a calcium-magnesium composition in the form of briquettes, comprising the following steps: i. providing a homogeneous powder mixture comprising at least one quick calcium-magnesium compound, said mixture comprising at least 40 wt% of CaO+MgO equivalent with respect to the weight of said composition and having a Ca/Mg molar ratio of greater than or equal to 1, preferably greater than or equal to 2, more particularly greater than or equal to 3; ii. supplying a roller press with said homogeneous powder mixture, iii. compressing said homogeneous powder mixture in said roller press and obtaining a calcium-magnesium composition in the form of green briquettes, and iv. collecting said green briquettes; characterised in that said powder mixture further comprises an iron-based compound present in an amount of at least 12 wt%, preferably at least 20 wt%, preferably at least 30 wt%, more preferably at least 35 wt% of Fe 2 O 3 equivalent with respect to the weight of said composition, said iron-based compound having a very fine particle size distribution characterised by a median size dso of less than 100μm, preferably less than 50μm as well as a size d 90 of less than 200μm, preferably less than 150μm, preferably less than 130μm, more preferably less than 100μm, and in that said rollers of the roller press develop linear speeds on the circumfence of the rollers ranging between 10 and 100cm/s, preferably ranging between 20 and 80cm/s, and linear pressures ranging between 60 and 160kN/cm, preferentially ranging between 80 and 140kN/cm, and even more preferentially ranging between 80 and 120kN/cm. i. providing a homogeneous powder mixture comprising at least one quick calcium-magnesium compound, said mixture comprising at least 40 wt% of CaO+MgO equivalent with respect to the weight of said composition and having a Ca/Mg molar ratio of greater than or equal to 1, preferably greater than or equal to 2, more particularly greater than or equal to 3; ii. supplying a roller press with said homogeneous powder mixture, iii. compressing said homogeneous powder mixture in said roller press and obtaining a calcium-magnesium composition in the form of green briquettes, and iv. collecting said green briquettes;
An automated method for sealing a tube by a sealing system , the automated method comprising: directing illuminating rays from a source to the tube disposed between relatively movable first and second sealing plates , wherein at least one of the first and second sealing plates is coupled to a drive unit for causing said relative movement; capturing an image of at least a so illuminated portion of the tube at an image capturing device and transferring the captured image of the at least portion of the tube from the image capturing device to a processing device ; operating the processing device to determine a plurality of tube parameters based on the captured image , using an image processing technique; operating the processing device to determine a plurality of sealing parameters selected from a database and based on the determined plurality of tube parameters; and operating the processing device to control the drive unit and a heater , influenced at least in part by the determined plurality of sealing parameters, to respectively compress the tube and perform heat sealing of the tube . directing illuminating rays from a source to the tube disposed between relatively movable first and second sealing plates , wherein at least one of the first and second sealing plates is coupled to a drive unit for causing said relative movement; capturing an image of at least a so illuminated portion of the tube at an image capturing device and transferring the captured image of the at least portion of the tube from the image capturing device to a processing device ; operating the processing device to determine a plurality of tube parameters based on the captured image , using an image processing technique; operating the processing device to determine a plurality of sealing parameters selected from a database and based on the determined plurality of tube parameters; and operating the processing device to control the drive unit and a heater , influenced at least in part by the determined plurality of sealing parameters, to respectively compress the tube and perform heat sealing of the tube .
An ice protection system for an aerodynamic surface of an aircraft , the ice protection system comprising: a reservoir containing a coolant ; an electronics cooling system connected to the reservoir and comprising a first conduit , wherein: the electronics cooling system distributes coolant from the reservoir through the first conduit in thermal contact with electronics , whereby heat is transferred from the electronics to the coolant ; a pump operatively coupled to the reservoir ; and a second conduit in communication with the pump and including an outlet configured to be disposed at an aerodynamic surface which is located on an outside of an aircraft , wherein the pump pumps the coolant onto the aerodynamic surface and the coolant reduces or prevents ice formation on the aerodynamic surface , characterized in that the ice protection system further includes a fluid level sensor connected to the reservoir , the fluid level sensor configured to measure the coolant level in the reservoir and configured to send an alert when the level of the coolant falls below a threshold level. a reservoir containing a coolant ; an electronics cooling system connected to the reservoir and comprising a first conduit , wherein: the electronics cooling system distributes coolant from the reservoir through the first conduit in thermal contact with electronics , whereby heat is transferred from the electronics to the coolant ; a pump operatively coupled to the reservoir ; and a second conduit in communication with the pump and including an outlet configured to be disposed at an aerodynamic surface which is located on an outside of an aircraft , wherein the pump pumps the coolant onto the aerodynamic surface and the coolant reduces or prevents ice formation on the aerodynamic surface , the electronics cooling system distributes coolant from the reservoir through the first conduit in thermal contact with electronics , whereby heat is transferred from the electronics to the coolant ; a pump operatively coupled to the reservoir ; and a second conduit in communication with the pump and including an outlet configured to be disposed at an aerodynamic surface which is located on an outside of an aircraft , wherein the pump pumps the coolant onto the aerodynamic surface and the coolant reduces or prevents ice formation on the aerodynamic surface , characterized in that the ice protection system further includes a fluid level sensor connected to the reservoir , the fluid level sensor configured to measure the coolant level in the reservoir and configured to send an alert when the level of the coolant falls below a threshold level.
Box for containing bottles, comprising: - a bottom wall ; - a perimeter wall , which rises from said bottom wall , delimits with the latter a containment volume (V) for bottles and is provided with an upper edge which defines an access opening to said containment volume; - a vertical separation structure , placed within said containment volume (V) and comprising at least one first separation wall and at least one second separation wall , placed on intersecting planes and adapted to divide said containment volume (V) into multiple housing seats , each susceptible of containing at least one of said bottles; at least said first separation wall extended between a first lower end , placed in abutment against said bottom wall and a first upper end (41"), placed inside said containment volume (V); - at least one neck stop wall , placed within said containment volume (V), in abutment at least against the upper end (41") of said first separation wall and provided with retention openings susceptible of engaging the neck of said bottles in order to maintain them in position in said containment volume (V); said box being characterized in that it comprises at least one lateral band , which is extended with a first fold starting from a first side of the upper edge of said perimeter wall and comprises a closure wall , substantially parallel to said neck stop wall and at least one support wall , which is extended with a second fold starting from said closure wall , substantially orthogonal to the latter and is provided with a free end placed in abutment against said neck stop wall . - a bottom wall ; - a perimeter wall , which rises from said bottom wall , delimits with the latter a containment volume (V) for bottles and is provided with an upper edge which defines an access opening to said containment volume; - a vertical separation structure , placed within said containment volume (V) and comprising at least one first separation wall and at least one second separation wall , placed on intersecting planes and adapted to divide said containment volume (V) into multiple housing seats , each susceptible of containing at least one of said bottles; at least said first separation wall extended between a first lower end , placed in abutment against said bottom wall and a first upper end (41"), placed inside said containment volume (V); - at least one neck stop wall , placed within said containment volume (V), in abutment at least against the upper end (41") of said first separation wall and provided with retention openings susceptible of engaging the neck of said bottles in order to maintain them in position in said containment volume (V);
A testing device for testing a radar device, the testing device being configured to determine a first frequency difference between a frequency of a first signal or a second signal and a frequency of a third signal based on a first distance value, wherein the first distance value is a desired distance that the testing device is to test on the radar device, transmit to the radar device the first signal, receive the second signal from the radar device, transmit to the radar device the third signal at an offset relative to at least one of the first signal and the second signal based on the first frequency difference, and receive from the radar device a fourth signal , indicating either a) a second distance value for comparison with the first distance value, wherein the second distance value is an estimate, determined by the radar device, of a distance to a target object, or b) a second frequency difference between the frequency of the second signal and the frequency of the third signal, determined by the radar device, for comparison with the first frequency difference. determine a first frequency difference between a frequency of a first signal or a second signal and a frequency of a third signal based on a first distance value, wherein the first distance value is a desired distance that the testing device is to test on the radar device, transmit to the radar device the first signal, receive the second signal from the radar device, transmit to the radar device the third signal at an offset relative to at least one of the first signal and the second signal based on the first frequency difference, and receive from the radar device a fourth signal , indicating either a) a second distance value for comparison with the first distance value, wherein the second distance value is an estimate, determined by the radar device, of a distance to a target object, or b) a second frequency difference between the frequency of the second signal and the frequency of the third signal, determined by the radar device, for comparison with the first frequency difference. a) a second distance value for comparison with the first distance value, wherein the second distance value is an estimate, determined by the radar device, of a distance to a target object, or b) a second frequency difference between the frequency of the second signal and the frequency of the third signal, determined by the radar device, for comparison with the first frequency difference.
A male pin and female housing set for a display stand, developed for its application in display stands (D), comprising a male pin with a coupling end , wherein said male pin includes two rear hinged flaps and also lugs coinciding with a coupling cradle ; said male pin being complemented with the female housing featuring a frontal track characterised in that said two rear hinged flaps feature on their inner surfaces, upper swinging sections with studs coinciding with coupling cavities , and in that said female housing incorporates on its flat side , a rear clip .