mhurhangee/ep-ind-claims huggingface dataset:
A method of congestion handling in a mobile network, the method comprising: a base station receiving data packets from a transport network; the base station transmitting the data packets on at least one radio link (91, 93); the base station measuring a bitrate of the data packets received from the transport network; the base station calculating, on the basis of the measured bitrate, a maximum bitrate for said transmitting of the data packets on the at least one radio link (91, 93); the base station detecting a congestion in the transport network; and in response to the detected congestion, the base station scheduling transmissions on the at least one radio link (91, 93) to meet the maximum bitrate. a base station receiving data packets from a transport network; the base station transmitting the data packets on at least one radio link (91, 93); the base station measuring a bitrate of the data packets received from the transport network; the base station calculating, on the basis of the measured bitrate, a maximum bitrate for said transmitting of the data packets on the at least one radio link (91, 93); the base station detecting a congestion in the transport network; and in response to the detected congestion, the base station scheduling transmissions on the at least one radio link (91, 93) to meet the maximum bitrate.
A utensil for cooking food under pressure, said utensil comprising at least: - a vessel and a lid that is designed to be associated with said vessel to form a cooking enclosure; - a first orifice provided through the lid; - an opening safety means mounted to move between firstly a release position, in which it allows the lid and the vessel to be dissociated from each other while also opening up said first orifice so as to put the inside of the enclosure into communication with the outside, and secondly a blocking position, in which it prevents the lid and the vessel from being dissociated from each other while also closing off said first orifice in order to enable pressure to build up in the enclosure, said opening safety means being designed to be in the blocking position when the pressure prevailing in the enclosure is greater than or equal to a predetermined value referred to as the "rise pressure"; said utensil being characterized in that, when moving either way between the release position and the blocking position, said opening safety means is designed to go via a first intermediate position in which it opens up said first orifice so as to put the inside of the enclosure into communication with the outside, said utensil further comprising actuation means for actuating the opening safety means, which actuation means are designed to make it possible to bring the opening safety means into its first intermediate position from its release position, regardless of the level of pressure prevailing in the cooking enclosure, the opening safety means 9 being designed, once it is placed in its first intermediate position by the actuation means 13, to travel over a residual stroke to its sealed blocking position, under the effect of the pressure build-up in the enclosure. - a vessel and a lid that is designed to be associated with said vessel to form a cooking enclosure; - a first orifice provided through the lid; - an opening safety means mounted to move between firstly a release position, in which it allows the lid and the vessel to be dissociated from each other while also opening up said first orifice so as to put the inside of the enclosure into communication with the outside, and secondly a blocking position, in which it prevents the lid and the vessel from being dissociated from each other while also closing off said first orifice in order to enable pressure to build up in the enclosure, said opening safety means being designed to be in the blocking position when the pressure prevailing in the enclosure is greater than or equal to a predetermined value referred to as the "rise pressure";
A precoding method for a broadcast/multicast system generating, from a plurality of baseband signals, a plurality of precoded signals that are transmitted in the same frequency bandwidth at the same time, the precoding method characterized by selecting one matrix from among 2N matrices F[i], wherein i = 0, 1, 2,..., 2N-2, 2N-1, by hopping between the matrices, the 2N matrices F[i] defining a precoding process that is performed on the plurality of baseband signals; multiplying "u" by a first baseband signal s1 generated from a first set of bits, multiplying "v" by a second baseband signal s2 generated from a second set of bits, "u" and "v" denoting real numbers different from each other; and generating a first precoded signal z1 and a second precoded signal z2 by performing a precoding process, which corresponds to the matrix selected from among the 2N matrices F[i], on the signal obtained by multiplying "u" by the first baseband signal s1 and the signal obtained by multiplying "v" by the second baseband signal s2, the first precoded signal z1 and the second precoded signal z2 satisfying (z1, z2) T = F[i] (u × s1, v × s2) T, the 2N matrices F[i] being expressed as: for i = 0, 1, 2,..., N-2, N-1: F i = 1 α 2 + 1 e jθ 11 i α × e j θ 11 i + λ α × e jθ 21 i e j θ 21 i + λ + π for i = N, N+1, N+2,..., 2N-2, 2N-1: F i = 1 α 2 + 1 α × e jθ 11 i e j θ 11 i + λ e jθ 21 i α × e j θ 21 i + λ + π λ representing an arbitrary angle, α representing a positive real number excluding 1, θ 11 (i) and θ 21 (i) satisfying: e j θ 11 x − θ 21 x ≠ e j θ 11 y − θ 21 y for ∀ x, ∀ y x ≠ y; x, y = 0, 1, 2, ⋯, N − 2, N − 1 and e j θ 11 x − θ 21 x ≠ e j θ 11 y − θ 21 y for ∀ x, ∀ y x ≠ y; x, y = N, N + 1, N + 2, ⋯, 2 N − 2, 2 N − 1, and each of the 2N matrices being selected at least once in a predetermined number of slots, the predetermined number of slots being at least 2N slots. for i = 0, 1, 2,..., N-2, N-1: F i = 1 α 2 + 1 e jθ 11 i α × e j θ 11 i + λ α × e jθ 21 i e j θ 21 i + λ + π for i = N, N+1, N+2,..., 2N-2, 2N-1: F i = 1 α 2 + 1 α × e jθ 11 i e j θ 11 i + λ e jθ 21 i α × e j θ 21 i + λ + π λ representing an arbitrary angle, α representing a positive real number excluding 1, θ 11 (i) and θ 21 (i) satisfying: e j θ 11 x − θ 21 x ≠ e j θ 11 y − θ 21 y for ∀ x, ∀ y x ≠ y; x, y = 0, 1, 2, ⋯, N − 2, N − 1 and e j θ 11 x − θ 21 x ≠ e j θ 11 y − θ 21 y for ∀ x, ∀ y x ≠ y; x, y = N, N + 1, N + 2, ⋯, 2 N − 2, 2 N − 1, and each of the 2N matrices being selected at least once in a predetermined number of slots, the predetermined number of slots being at least 2N slots.
A method of operating in a node a data processing system for routing a data unit through a chain of nodes (101, 102, 103, 104, 105, 106,..., 10i,..., 10N) in a network with one-dimensional topology wherein each node is connected to its first hop neighbours (102, 104) through first hop links (132, 134) and each node is connected to its second hop neighbours (101, 105) through second hop links (131, 135), and wherein nodes (101, 102, 103, 104, 105, 106,..., 10i,..., 10N) are assigned unique addresses (1, 2, 3, 4, 5, 6,..., i,..., N) that are increasing in one direction of appearance of said nodes (101, 102, 103, 104, 105, 106,..., 10i,..., 10N) in said chain, said method comprising: A. verifying at said node if a destination address of said data unit corresponds with an address (2, 4) of a first hop neighbour (102, 104) or an address (1, 5) of a second hop neighbour (101, 105) of said node; and either: B. routing by said node said data unit directly to said first hop neighbour (102, 104) or said second hop neighbour (101, 105) if said destination address respectively corresponds with an address (2, 4, 1, 5) of said first hop neighbour or said second hop neighbour; or: C1. determining at said node a difference between said destination address and an address of said node, or between said destination address and an origin address of said data unit; C2. selecting by said node a routing direction depending on the sign of said difference; C3. selecting by said node a first hop link (132, 134) when the magnitude of said difference is below a threshold value or selecting a second hop link (131, 135) when the magnitude of said difference is above said threshold value; and C4. routing said data unit in said routing direction through a first hop link (132, 134) or a second hop link (131, 135) as selected. A. verifying at said node if a destination address of said data unit corresponds with an address (2, 4) of a first hop neighbour (102, 104) or an address (1, 5) of a second hop neighbour (101, 105) of said node; and B. routing by said node said data unit directly to said first hop neighbour (102, 104) or said second hop neighbour (101, 105) if said destination address respectively corresponds with an address (2, 4, 1, 5) of said first hop neighbour or said second hop neighbour; C1. determining at said node a difference between said destination address and an address of said node, or between said destination address and an origin address of said data unit; C2. selecting by said node a routing direction depending on the sign of said difference; C3. selecting by said node a first hop link (132, 134) when the magnitude of said difference is below a threshold value or selecting a second hop link (131, 135) when the magnitude of said difference is above said threshold value; and C4. routing said data unit in said routing direction through a first hop link (132, 134) or a second hop link (131, 135) as selected.
A rotary atomizing painting device, comprising: a bell cup disposed at the most front side in a spraying direction, pivoted on a rotating shaft and having a back portion; and a shaping air ring disposed at the back side of the bell cup, comprising multiple discharge openings for blowing out a shaping air formed on a circle centered on the rotating shaft, wherein the direction of the discharge opening and the rotating shaft are skew, the discharge opening aims at the back portion of the bell cup, the bell cup comprises a straight portion located continuously to the front side in the spraying direction of the back portion, formed in a column shape centered on the rotating shaft, wherein the length of the straight portion along the rotating shaft is changeable and wherein an increase in a length of the straight portion results in a decrease in a width of a painting pattern formed by the rotary atomizing painting device. a bell cup disposed at the most front side in a spraying direction, pivoted on a rotating shaft and having a back portion; and a shaping air ring disposed at the back side of the bell cup, comprising multiple discharge openings for blowing out a shaping air formed on a circle centered on the rotating shaft, wherein the direction of the discharge opening and the rotating shaft are skew, the discharge opening aims at the back portion of the bell cup, the bell cup comprises a straight portion located continuously to the front side in the spraying direction of the back portion, formed in a column shape centered on the rotating shaft, wherein the length of the straight portion along the rotating shaft is changeable and wherein an increase in a length of the straight portion results in a decrease in a width of a painting pattern formed by the rotary atomizing painting device.
A transmission scheduling method, wherein the method comprises: generating, by a first access point AP, a scheduling request message, wherein the scheduling request message comprises information about at least one scheduling set and at least one transmission time identifier, the information about the at least one scheduling set is used to indicate the at least one scheduling set, and the scheduling set comprises at least one scheduling set element; and the at least one transmission time identifier is in a one-to-one correspondence with the at least one scheduling set, and the transmission time identifier is used to indicate a transmission time range in which at least one scheduling set element indicated by the scheduling set performs transmission; and sending, by the first AP, the scheduling request message to at least one second access point AP, so that the at least one second AP determines, based on the scheduling request message, whether to schedule a scheduling set element, served by the at least one second AP, in the at least one scheduling set element in the scheduling set to perform transmission in the transmission time range; characterized in that a type of any one of the at least one scheduling set element comprises a station and a specified direction of the station; wherein a scheduling set subfield corresponding to the scheduling set element comprises identifier information of the station, and an antenna identifier and/or a sector identifier of the station. generating, by a first access point AP, a scheduling request message, wherein the scheduling request message comprises information about at least one scheduling set and at least one transmission time identifier, the information about the at least one scheduling set is used to indicate the at least one scheduling set, and the scheduling set comprises at least one scheduling set element; and the at least one transmission time identifier is in a one-to-one correspondence with the at least one scheduling set, and the transmission time identifier is used to indicate a transmission time range in which at least one scheduling set element indicated by the scheduling set performs transmission; and sending, by the first AP, the scheduling request message to at least one second access point AP, so that the at least one second AP determines, based on the scheduling request message, whether to schedule a scheduling set element, served by the at least one second AP, in the at least one scheduling set element in the scheduling set to perform transmission in the transmission time range; characterized in that a type of any one of the at least one scheduling set element comprises a station and a specified direction of the station; wherein a scheduling set subfield corresponding to the scheduling set element comprises identifier information of the station, and an antenna identifier and/or a sector identifier of the station.
A liquid-crystal laser formed of a droplet of liquid crystals forming a chiral phase, said droplet containing an active laser medium that, when stimulated with external light, emits laser light, characterised in that a refractive index of said droplet is modulated in a radial direction of the droplet forming optically different concentric layers, which act as a reflector for the laser light.
An electronic control unit configured to control at least one motor used to reposition a seat assembly within an automotive vehicle, the electronic control unit comprising: a mode manager configured to reposition the seat assembly from a first position to a second position; and a performance evaluation module configured to monitor the repositioning of the seat assembly; wherein the performance evaluation module detects and compensates for abrupt motor stops in the at least one motor. a mode manager configured to reposition the seat assembly from a first position to a second position; and a performance evaluation module configured to monitor the repositioning of the seat assembly; wherein the performance evaluation module detects and compensates for abrupt motor stops in the at least one motor.
Vinyl ester resin composition, characterized in that the vinyl ester resin composition comprises a vinyl ester resin and a. a manganese compound being a manganese carboxylate or a manganese acetoacetate, b. a 1,3-dioxo compound, c. a base; and the resin being curable with a peroxide. a. a manganese compound being a manganese carboxylate or a manganese acetoacetate, b. a 1,3-dioxo compound, c. a base;
A method of making a vacuum insulated refrigerator structure, the method comprising: forming a wrapper from a sheet of material whereby the wrapper has a first opening and a first edge extending around the first opening; forming a liner from a sheet of material whereby the liner has a second opening and a second edge extending around the second opening; positioning the liner inside the wrapper with the first and second edges (36, 50) being spaced apart to form a gap therebetween, and to form a cavity between the wrapper and the liner; positioning an insulating thermal bridge across the gap, wherein the thermal bridge includes elongated first and second channels (66, 68), and wherein the first and second edges (36, 50) are inserted into the first and second channels (66, 68), respectively; positioning curable sealant in the first and second channels (66, 68) such that the curable sealant extends around and encapsulates the first and second edges (36, 50); causing porous material to at least partially fill the cavity between the wrapper and the liner; forming a vacuum in the cavity; and sealing the cavity to maintain the vacuum, wherein at least one of the first and second channels (66, 68) includes a base surface (90, 94) and spaced-apart side surfaces (92A, 92B, 96A, 96B) extending transversely from the base surface (90, 94), and wherein at least one of the side surfaces (92A, 92B, 96A, 96B) includes a plurality of bosses protruding into the respective channel (66, 68). forming a wrapper from a sheet of material whereby the wrapper has a first opening and a first edge extending around the first opening; forming a liner from a sheet of material whereby the liner has a second opening and a second edge extending around the second opening; positioning the liner inside the wrapper with the first and second edges (36, 50) being spaced apart to form a gap therebetween, and to form a cavity between the wrapper and the liner; positioning an insulating thermal bridge across the gap, wherein the thermal bridge includes elongated first and second channels (66, 68), and wherein the first and second edges (36, 50) are inserted into the first and second channels (66, 68), respectively; positioning curable sealant in the first and second channels (66, 68) such that the curable sealant extends around and encapsulates the first and second edges (36, 50); causing porous material to at least partially fill the cavity between the wrapper and the liner; forming a vacuum in the cavity; and sealing the cavity to maintain the vacuum, wherein at least one of the first and second channels (66, 68) includes a base surface (90, 94) and spaced-apart side surfaces (92A, 92B, 96A, 96B) extending transversely from the base surface (90, 94), and wherein at least one of the side surfaces (92A, 92B, 96A, 96B) includes a plurality of bosses protruding into the respective channel (66, 68).
Method for manufacturing a semiconductor device via wet chemical etching the device comprising at least one layer of silicon (Si) and at least one layer of silicon-germanium (SiGe) and at least one layer of light-sensitive resin forming a mask partly covering the layer of silicon germanium (SiGe) and leaving free the layer of silicon germanium in certain zones, the method comprising a step of manufacturing an etching solution, having a pH between 3 and 6, from hydrofluoric acid, hydrogen peroxide (H 2 O 2), acetic acid (CH 3 COOH) and ammonia solution (NH 4 OH) and a step of removing the layer of silicon-germanium (SiGe) in said zones via exposure to said etching solution.
A method of measuring a photosynthetic parameter comprising integrated multiple sensors in a lighting system, wherein the lighting system comprises actinic illumination in a white spectrum in a range of about 380 nm to about 750 nm, said method comprising the steps: (a) illuminating a phototrophic organism with the actinic illumination; (b) switching off the actinic illumination for a period having a duration which is long enough to capture a high resolution image, being at least 5 microseconds, this period having also a duration which is short enough to minimize perturbations to photosynthesis, being of at most 120 microseconds; (c) pulsing the phototrophic organism with a measuring light within a period when the actinic illumination is switched off; (d) collecting chlorophyll fluorescence data within the period when the actinic illumination is switched off; and (e) determining a photosynthetic parameter from the fluorescence data; wherein the light source of the actinic illumination includes at least one compound parabolic concentrator, and wherein the multiple sensors are selected from a charge coupled device, a complementary metal oxide semiconductor (CMOS) camera, a silicon sensory array, and combinations thereof. (a) illuminating a phototrophic organism with the actinic illumination; (b) switching off the actinic illumination for a period having a duration which is long enough to capture a high resolution image, being at least 5 microseconds, this period having also a duration which is short enough to minimize perturbations to photosynthesis, being of at most 120 microseconds; (c) pulsing the phototrophic organism with a measuring light within a period when the actinic illumination is switched off; (d) collecting chlorophyll fluorescence data within the period when the actinic illumination is switched off; and (e) determining a photosynthetic parameter from the fluorescence data;
Motor vehicle having at least one main headlight for providing a static intersection light, wherein the motor vehicle has a control device for actuating the at least one main headlight, which is designed to activate the intersection light, if the motor vehicle falls short of a specifiable distance to an intersection or junction, characterised in that the at least one main headlight has a plurality of segments assigned to the intersection light, wherein in each segment at least one light source is arranged, wherein the control device is designed when the intersection light is activated and when the motor vehicle approaches the intersection or junction to actuate the segments, in such a manner that a dimension (A 1; A 2) of an area illuminated by the intersection light at a given distance (d) in the direction of travel in front of the motor vehicle increases stepwise in a horizontal direction perpendicular to the longitudinal axis of the motor vehicle in a plurality of steps, wherein a value for a width (R, L) to be illuminated at a location of the intersection or junction perpendicular to a road course of a currently travelled road is specified to the control device and the control device is designed to activate the segments in such a manner that when the motor vehicle approaches the intersection or junction the location of the intersection or junction with the width (R, L) is illuminated with the specified value.
A cartridge detachably mountable to a main assembly of an electrophotographic image forming apparatus including a main assembly side drive transmission member and a main assembly side urging member, comprising: (i) a rotatable developing roller configured to develop a latent image formed on a photosensitive member; (ii) an urging force receiving portion configured to receive the urging force from the main assembly side urging member; (iii) a cartridge side drive transmission member capable of coupling with the main assembly side drive transmission member to receive a rotational force for rotating said developing roller; and characterized by further comprising: (iv) a releasing member capable of urging the main assembly side drive transmission member to decouple said cartridge side drive transmission member from the main assembly side drive transmission member by said urging force receiving portion receiving the urging force from the main assembly side urging member. (i) a rotatable developing roller configured to develop a latent image formed on a photosensitive member; (ii) an urging force receiving portion configured to receive the urging force from the main assembly side urging member; (iii) a cartridge side drive transmission member capable of coupling with the main assembly side drive transmission member to receive a rotational force for rotating said developing roller; and