mhurhangee/ep-ind-claims huggingface dataset:
A method (1200, 1300, 1400, 1500) for wireless communication at a wireless device (105, 115), comprising: identifying an energy detection threshold for a sensing beam (205, 310, 410, 510, 605) associated with a channel access procedure; identifying a set of transmit power parameters for a transmit beam (210, 305, 405, 505, 610) used for performing wireless transmissions associated with the channel access procedure; determining a set of channel sensing parameters associated with the sensing beam (205, 310, 410, 510, 605) based at least in part on a transmission opportunity associated with the transmit beam (210, 305, 405, 505, 610); selecting a beam pattern for the sensing beam (205, 310, 410, 510, 605) based at least in part on the set of channel sensing parameters; adjusting the set of transmit power parameters, the energy detection threshold, or both, based at least in part on a degree of overlap between a beam shape of the transmit beam (210, 305, 405, 505, 610) and a beam shape of the sensing beam (205, 310, 410, 510, 605); and performing the channel access procedure based at least in part on the adjusting. identifying an energy detection threshold for a sensing beam (205, 310, 410, 510, 605) associated with a channel access procedure; identifying a set of transmit power parameters for a transmit beam (210, 305, 405, 505, 610) used for performing wireless transmissions associated with the channel access procedure; determining a set of channel sensing parameters associated with the sensing beam (205, 310, 410, 510, 605) based at least in part on a transmission opportunity associated with the transmit beam (210, 305, 405, 505, 610); selecting a beam pattern for the sensing beam (205, 310, 410, 510, 605) based at least in part on the set of channel sensing parameters; adjusting the set of transmit power parameters, the energy detection threshold, or both, based at least in part on a degree of overlap between a beam shape of the transmit beam (210, 305, 405, 505, 610) and a beam shape of the sensing beam (205, 310, 410, 510, 605); and performing the channel access procedure based at least in part on the adjusting.
Method for remotely controlling a motor vehicle (12, 14) using a mobile communication terminal, comprising the steps of: - using the mobile communication terminal to display all of the motor vehicles (12, 14) to which said mobile communication terminal has already been coupled in the form of a wireless connection; characterised in that - in cases where it is currently possible to establish a wireless connection with more than one of the displayed motor vehicles (12, 14): - as soon as it has been detected that one of these motor vehicles (12, 14) has been selected: establishing a wireless connection between said selected motor vehicle (12, 14) and the mobile communication terminal; - and while none of these motor vehicles (12, 14) has been selected: preventing a wireless connection from being established automatically between said mobile communication terminal and these motor vehicles (12, 14). - using the mobile communication terminal to display all of the motor vehicles (12, 14) to which said mobile communication terminal has already been coupled in the form of a wireless connection; - in cases where it is currently possible to establish a wireless connection with more than one of the displayed motor vehicles (12, 14): - as soon as it has been detected that one of these motor vehicles (12, 14) has been selected: establishing a wireless connection between said selected motor vehicle (12, 14) and the mobile communication terminal; - and while none of these motor vehicles (12, 14) has been selected: preventing a wireless connection from being established automatically between said mobile communication terminal and these motor vehicles (12, 14).
A DC/DC converter comprising: - two input terminals (2, 3) for receiving a DC input voltage (U E), - two output terminals (4, 5) for providing a DC output voltage (U A), - an inverter converting a DC voltage into an AC voltage at its output, and - a rectifier connected to the output of the inverter at its input end and connected between a first one of the input terminals and a first one of the two output terminals at its output end, the rectifier converting an AC voltage applied to its input into a DC voltage between the first one of the two input terminals and the first one of the two output terminals, - at least one galvanically isolating element being arranged between the output of the inverter and the input of the rectifier, and - a capacity being operative between the two output terminals (4, 5), wherein the inverter converts a partial DC voltage dropping over a capacity which is operative between the second one of the two input terminals and the second one of the two output terminals, the partial DC Voltage being smaller than the full DC input voltage (U E). - two input terminals (2, 3) for receiving a DC input voltage (U E), - two output terminals (4, 5) for providing a DC output voltage (U A), - an inverter converting a DC voltage into an AC voltage at its output, and - a rectifier connected to the output of the inverter at its input end and connected between a first one of the input terminals and a first one of the two output terminals at its output end, the rectifier converting an AC voltage applied to its input into a DC voltage between the first one of the two input terminals and the first one of the two output terminals, - at least one galvanically isolating element being arranged between the output of the inverter and the input of the rectifier, and - a capacity being operative between the two output terminals (4, 5),
An image formation device having two or more network interfaces (18, 19), each of which is assigned unique identification information, the image formation device comprising: a combined identification information generating unit which generates combined identification information for each network interface by combining the unique identification information assigned to each of the network interfaces; a presence check request receiving unit which receives presence check requests, transmitted from a management device via a network, for a check on the presence or absence of each network interface on the network, with the network interfaces, respectively; and a combined identification information transmitting unit which transmits the combined identification information for each network interface individually from each of the corresponding network interfaces. a combined identification information generating unit which generates combined identification information for each network interface by combining the unique identification information assigned to each of the network interfaces; a presence check request receiving unit which receives presence check requests, transmitted from a management device via a network, for a check on the presence or absence of each network interface on the network, with the network interfaces, respectively; and a combined identification information transmitting unit which transmits the combined identification information for each network interface individually from each of the corresponding network interfaces.
A method for securing communications in a mobile network comprising: transmitting a message of a first type on a broadcast control channel, BCCH,; and after ciphering is started on a slow associated control channel, SACCH,, transmitting a variant of the message of the first type on the SACCH, wherein the variant of the message is different from the message; and wherein the SACCH is used to transmit a message (522, 524) comprising neighbor cell information before ciphering is started and wherein the message (522, 524) is unciphered, and the variant of the message of the first type is transmitted after ciphering is started. transmitting a message of a first type on a broadcast control channel, BCCH,; and after ciphering is started on a slow associated control channel, SACCH,, transmitting a variant of the message of the first type on the SACCH, wherein the variant of the message is different from the message; and wherein the SACCH is used to transmit a message (522, 524) comprising neighbor cell information before ciphering is started and wherein the message (522, 524) is unciphered, and the variant of the message of the first type is transmitted after ciphering is started.
Method for displaying an environment of a vehicle, the vehicle comprising a lateral rear-view camera comprising a field of view covering a lateral rear environment with respect to a driver of the vehicle, the vehicle further comprising a side camera comprising a transverse field of view with respect to the vehicle, a computer and a display, the method comprising: - a rear display step, in which the computer displays a non-distorted view from the lateral rear-view camera in a first zone of the display with a first magnification factor, and a distorted view from the lateral rear-view camera in a second zone of the display with a second magnification factor, different from the first magnification factor, characterized in that the method comprises the following steps: - a detection step in which the computer detects a display change condition, - an extended display step, in which the computer displays a view from the side camera in the second zone of the display. - a rear display step, in which the computer displays a non-distorted view from the lateral rear-view camera in a first zone of the display with a first magnification factor, and a distorted view from the lateral rear-view camera in a second zone of the display with a second magnification factor, different from the first magnification factor, characterized in that the method comprises the following steps: - a detection step in which the computer detects a display change condition, - an extended display step, in which the computer displays a view from the side camera in the second zone of the display.
A network-based system for decentralized, distributed storage of data, the system comprising: a hash table that includes a respective address associated with every node (10A-H; 30AN), wherein the hash table is distributed among the nodes (10A-H; 30A-N); a local cache and transport layer that receives a request to store a bit stream, and routes onto the network a stream store message containing the bit stream, wherein the bit stream has a bit stream identifier; and a stream store layer that receives the stream store message, divides the bit stream into a plurality of chunks, and sends onto the network a plurality of chunk store messages, each said chunk store message containing a respective one of the plurality of chunks; wherein the local cache and transport layer computes a hash value based on the concatenation of the bit stream identifier and a user identifier, and wherein the hash value is used to determine an address associated with a node (10A-H; 30A-N) to which the stream store message is intended to be sent; and wherein each node (10A-H; 30A-N) maintains a local routing table (14A-H) only for one or more neighboring nodes (10A-H; 30A-N), at least one of the local routing tables containing the hash value used to determine the address associated with the node (10A-H; 30A-N) to which the stream store message is intended to be sent; and wherein each of the chunks is stored on a respective one of a first plurality of network nodes (10A-H; 30A-N). a hash table that includes a respective address associated with every node (10A-H; 30AN), wherein the hash table is distributed among the nodes (10A-H; 30A-N); a local cache and transport layer that receives a request to store a bit stream, and routes onto the network a stream store message containing the bit stream, wherein the bit stream has a bit stream identifier; and a stream store layer that receives the stream store message, divides the bit stream into a plurality of chunks, and sends onto the network a plurality of chunk store messages, each said chunk store message containing a respective one of the plurality of chunks; wherein the local cache and transport layer computes a hash value based on the concatenation of the bit stream identifier and a user identifier, and wherein the hash value is used to determine an address associated with a node (10A-H; 30A-N) to which the stream store message is intended to be sent; and wherein each node (10A-H; 30A-N) maintains a local routing table (14A-H) only for one or more neighboring nodes (10A-H; 30A-N), at least one of the local routing tables containing the hash value used to determine the address associated with the node (10A-H; 30A-N) to which the stream store message is intended to be sent; and wherein each of the chunks is stored on a respective one of a first plurality of network nodes (10A-H; 30A-N).
A gas and liquid phase contactor comprising a vessel (1, 31) comprising an inner wall; a pressurised source of liquid; and a gas inlet communicating with a gas and liquid phase contacting space within the vessel, a distributor apparatus for distributing liquid in the vessel (1, 31), comprising at least one housing (5, 20, 21) rotatable about an axis of the housing; each rotatable housing (5, 20, 21) having a distributor region comprising at least one liquid outlet or arrangement of liquid outlets arranged in a formation in and around the housing (5, 20, 21) for directing liquid through the gas liquid contacting space towards the inner wall of the vessel (1, 31), the distributor apparatus having a liquid inlet for introducing liquid into the housing from the pressurised source of liquid and providing pressurised liquid to the at least one liquid outlet or arrangement of liquid outlets, the pressurised liquid in the housing projecting from the housing (5, 20, 21) as at least one liquid sheet (100, 110, 150) rotating around a central axis of the housing towards the inner wall of the vessel (1, 31); the liquid sheets having two sides and the gas inlet directing gas through the gas liquid contacting space into contact with each side of the at least one liquid sheets (100, 110, 150) projected from the outlets in the housing (5, 20, 21); wherein the liquid outlets are a slit shaped orifice or arrangement of slit shaped orifices formed in the distributor region of the housing; wherein the formation of the outlets in and around the housing (5, 20, 21) is helical and creates a liquid sheet or sheets (100, 110, 150) in a helical pattern extending towards the radial boundaries of the gas and liquid phase contacting space; wherein the pitch of the liquid outlets is in the range of 0.2 to 6 times an outer diameter of the liquid distributor apparatus); and wherein the length of the liquid outlets or the formation of outlets extending around the housing over the length of the housing is at least 2 times the effective diameter of the housing (5, 20, 21), wherein the effective diameter of the housing is a diameter determined from converting a cross-section area of the housing into a circle.
A sport bra with an adjustable underband tightening assembly, the sport bra comprising: a front portion comprising at least: a pair of breast cups, a first pair of shoulder straps (414, 416) extending from an upper margin of the pair of breast cups, and a front underband segment extending from a lower margin of the pair of breast cups, wherein the front underband segment comprises a first wing and a second wing extending away from respective sides of the front underband segment, and wherein the first wing terminates in a first free end and the second wing terminates in a second free end; and a back portion comprising at least: a central body portion, a second pair of shoulder straps (514, 516) extending from an upper margin of the central body portion, the second pair of shoulder straps (514, 516) secured to the first pair of shoulder straps (414, 416) to define an opening, and a back underband segment extending from a lower margin of the central body portion, the back underband segment having a third end and a fourth end, wherein a length of the back underband segment as measured from the third end to the fourth end is less than a length of the front underband segment as measured from the first free end to the second free end, characterized in that the free ends (414, 416) of the front underband segment are adapted to be releasably and adjustably secured directly to each other; and the wings (420, 422) of the front underband segment are adapted to wrap around the sides of the wearer towards the back such that an inner-facing surface of the wings (420, 422) is adjacent to an outer-facing surface of the back underband segment.
A holding device for holding the body of a minting die being formed for the mintage of coins, medals and the like, which body has an axial direction of development and a radial face substantially orthogonal to said axial direction, characterised in that said holding device is suitable for use in an operation of punching the body of the minting die being formed by a reproducing punch which abuts at the transversal face of such body to transfer upon said face an effigy, which holding device has a containment seat of the body of the minting die being formed, within which containment seat the latter is held during the punching operation, which containment seat is defined by an interface surface generally in contact, in use, with the body of the minting die being formed, which interface surface comprises at least one shaped region defining one or more recesses which, in use, are not in contact with the body of the minting die being formed so as to allow both an axial and a radial deformation of the body itself so that the final curvature of the minting die is determined by such axial and radial deformation.
Flow bag machine for producing flow bag packaging made from paper, comprising: - a removal station for removing a paper web, - a grinding station for continuous grinding of at least one joining portion of the paper web, - a dampening station for dampening at least one joining portion of the paper web, - a shaping station for shaping a bag tube and - an ultrasonic sealing station for sealing the joining portion of the paper web. - a removal station for removing a paper web, - a grinding station for continuous grinding of at least one joining portion of the paper web, - a dampening station for dampening at least one joining portion of the paper web, - a shaping station for shaping a bag tube and - an ultrasonic sealing station for sealing the joining portion of the paper web.
A turbine combustor assembly, comprising: a primary combustion chamber in fluid communication with a primary fuel injector and a primary air inlet; and an igniter carried by the primary combustion chamber, comprising: a first igniter stage comprising an auxiliary combustion chamber housing comprising a mixing chamber and a tubular throat converging downstream of the mixing chamber, an ignition source projecting into the mixing chamber of the auxiliary combustion chamber, and a first auxiliary fuel outlet proximal the ignition source; and a second igniter stage comprising an auxiliary fuel outlet manifold (360,1051b) comprising at least one second auxiliary fuel outlet proximal to an outlet of the tubular throat, characterized in that the second igniter stage also comprises a third auxiliary fuel outlet proximal a midpoint of the tubular throat. a primary combustion chamber in fluid communication with a primary fuel injector and a primary air inlet; and an igniter carried by the primary combustion chamber, comprising: a first igniter stage comprising an auxiliary combustion chamber housing comprising a mixing chamber and a tubular throat converging downstream of the mixing chamber, an ignition source projecting into the mixing chamber of the auxiliary combustion chamber, and a first auxiliary fuel outlet proximal the ignition source; and a second igniter stage comprising an auxiliary fuel outlet manifold (360,1051b) comprising at least one second auxiliary fuel outlet proximal to an outlet of the tubular throat, characterized in that the second igniter stage also comprises a third auxiliary fuel outlet proximal a midpoint of the tubular throat. a first igniter stage comprising an auxiliary combustion chamber housing comprising a mixing chamber and a tubular throat converging downstream of the mixing chamber, an ignition source projecting into the mixing chamber of the auxiliary combustion chamber, and a first auxiliary fuel outlet proximal the ignition source; and a second igniter stage comprising an auxiliary fuel outlet manifold (360,1051b) comprising at least one second auxiliary fuel outlet proximal to an outlet of the tubular throat, characterized in that the second igniter stage also comprises a third auxiliary fuel outlet proximal a midpoint of the tubular throat.
A method of mounting at least one laser transceiver on an aircraft, the method comprising: determining whether there is a probe located in a desirable position on the aircraft: when a probe is not located in a desirable position, fabricating at least one hole in the desirable position; when a probe is located in a desirable position, removing the located probe such that at least one hole remains in a desirable position, wherein the located probe is selected from the group consisting of an angle of attack vane, a pitot probe, a static port, a pitot static probe, a temperature probe, or an ice detector probe; aligning the at least one laser transceiver with at least one hole that has been fabricated or that remains after removing the located probe; connecting the at least one laser transceiver to aircraft electronics; and attaching the at least one laser transceiver to the aircraft aligned with the at least one hole; wherein the at least one laser transceiver is configured to measure at least one air data parameter; and wherein the desirable position is a waterline location of the aircraft, wherein the waterline location is along the center of a fuselage of the aircraft wherein the center is in the middle between the top and the bottom of the fuselage. determining whether there is a probe located in a desirable position on the aircraft: when a probe is not located in a desirable position, fabricating at least one hole in the desirable position; when a probe is located in a desirable position, removing the located probe such that at least one hole remains in a desirable position, wherein the located probe is selected from the group consisting of an angle of attack vane, a pitot probe, a static port, a pitot static probe, a temperature probe, or an ice detector probe; aligning the at least one laser transceiver with at least one hole that has been fabricated or that remains after removing the located probe; connecting the at least one laser transceiver to aircraft electronics; and attaching the at least one laser transceiver to the aircraft aligned with the at least one hole; wherein the at least one laser transceiver is configured to measure at least one air data parameter; and wherein the desirable position is a waterline location of the aircraft, wherein the waterline location is along the center of a fuselage of the aircraft wherein the center is in the middle between the top and the bottom of the fuselage.