mhurhangee/ep-ind-claims huggingface dataset:
A method in a network device for hybrid automatic repeat request,HARQ, processes, comprising: receiving from a terminal device one or more indications indicating one or more data processing capabilities of the terminal device; estimating the number of available soft buffer memory parts in the terminal device, wherein the estimating comprises: determining how many HARQ processes are waiting for feedback at the network device; estimating the probability of receiving an acknowledgement, ACK, signal according to the error rate in a previous time window; and estimating the number of available soft buffer memory parts based on the number of HARQ processes awaiting feedback and the estimated probability of receiving an ACK signal; and scheduling HARQ data according to the estimated number of available soft buffer memory parts. receiving from a terminal device one or more indications indicating one or more data processing capabilities of the terminal device; estimating the number of available soft buffer memory parts in the terminal device, wherein the estimating comprises: determining how many HARQ processes are waiting for feedback at the network device; estimating the probability of receiving an acknowledgement, ACK, signal according to the error rate in a previous time window; and estimating the number of available soft buffer memory parts based on the number of HARQ processes awaiting feedback and the estimated probability of receiving an ACK signal; and determining how many HARQ processes are waiting for feedback at the network device; estimating the probability of receiving an acknowledgement, ACK, signal according to the error rate in a previous time window; and estimating the number of available soft buffer memory parts based on the number of HARQ processes awaiting feedback and the estimated probability of receiving an ACK signal; and scheduling HARQ data according to the estimated number of available soft buffer memory parts.
Method for detecting topology changes of a computer network, characterized in that it comprises the following steps: - acquisition of the raw data from the configuration tables of the network elements (m1,...m5) during successive primary pollings, the following steps being carried out between two successive primary pollings: - calculation and storage of a checksum value for each network element having raw data which are considered to be sensitive, - at least one secondary polling, allowing said sensitive data to be retrieved again from each corresponding element, - comparison of the previously-stored checksum value, at each secondary polling and for each element termed sensitive, with a new checksum value calculated with the new sensitive data, - for each sensitive element, when the two checksum values differ, updating in a topology database only the topology data relative to the corresponding element. - acquisition of the raw data from the configuration tables of the network elements (m1,...m5) during successive primary pollings, the following steps being carried out between two successive primary pollings: - calculation and storage of a checksum value for each network element having raw data which are considered to be sensitive, - at least one secondary polling, allowing said sensitive data to be retrieved again from each corresponding element, - comparison of the previously-stored checksum value, at each secondary polling and for each element termed sensitive, with a new checksum value calculated with the new sensitive data, - for each sensitive element, when the two checksum values differ, updating in a topology database only the topology data relative to the corresponding element. - calculation and storage of a checksum value for each network element having raw data which are considered to be sensitive, - at least one secondary polling, allowing said sensitive data to be retrieved again from each corresponding element, - comparison of the previously-stored checksum value, at each secondary polling and for each element termed sensitive, with a new checksum value calculated with the new sensitive data, - for each sensitive element, when the two checksum values differ, updating in a topology database only the topology data relative to the corresponding element.
A method of restoring dimensions of a vane segment, having an outer shroud, an inner shroud, and a plurality of airfoils extending therebetween, wherein said inner shroud has shifted in a distortion direction relative to said outer shroud due to operation in a gas turbine engine, said method comprising the following consecutive steps: heating said vane segment to a temperature within a range of 871.11°C to 1121.11°C (1600°F to 2050°F); rigidly clamping said heated vane segment such that said outer shroud of said vane segment is clamped to a first holding fixture secured to a base, thereby preventing movement between said outer shroud of said vane segment and said base; slidably receiving said inner shroud in an inner shroud holding fixture; driving said inner shroud away from said base in a direction that is opposite that of said distortion direction until such inner shroud reaches a predetermined distance from said base; allowing said vane segment to cool; and releasing said outer shroud of said vane segment from said first holding fixture, wherein said inner shroud includes a flange extending therefrom, said flange includes a bolt hole extending therethrough, and said predetermined distance is reached when said bolt hole is located coaxial with a pin hole in a face plate of the inner shroud holding fixture secured to said base.
A method of analysing a video image of a subject to identify spatial areas which contain periodic temporal intensity variations representing valid temporal information about the subject, comprising the steps of: dividing said image into a plurality of spatial areas (31, 42) and obtaining respective signals representative of temporal variation in image intensity for each spatial area; spectrally analysing the temporal intensity variations of each representative signal; characterized by: fitting respective autoregressive models to the representative signals (34, 45), each of the fitted autoregressive models comprising a plurality of poles representing spectral components of the temporal intensity variations of each representative signal, each pole having a magnitude dependent upon the strength of the spectral component and a phase angle dependent upon the frequency of the spectral component; and selecting those spatial areas whose fitted autoregressive model has a dominant pole whose magnitude is greater than a predetermined threshold and identifying those spatial areas as containing periodic temporal intensity variations representing said valid temporal information (38, 48). dividing said image into a plurality of spatial areas (31, 42) and obtaining respective signals representative of temporal variation in image intensity for each spatial area; spectrally analysing the temporal intensity variations of each representative signal; fitting respective autoregressive models to the representative signals (34, 45), each of the fitted autoregressive models comprising a plurality of poles representing spectral components of the temporal intensity variations of each representative signal, each pole having a magnitude dependent upon the strength of the spectral component and a phase angle dependent upon the frequency of the spectral component; and selecting those spatial areas whose fitted autoregressive model has a dominant pole whose magnitude is greater than a predetermined threshold and identifying those spatial areas as containing periodic temporal intensity variations representing said valid temporal information (38, 48).
A charging control apparatus, comprising: a first charging channel, configured to charge a plurality of cells coupled in series according to a charging signal provided by a first-type power supply device; a second charging channel, configured to charge a part of the plurality of cells according to a charging signal provided by a second-type power supply device; and an equalizing circuit, configured to equalize voltages of the plurality of cells during an operating process of the second charging channel. a first charging channel, configured to charge a plurality of cells coupled in series according to a charging signal provided by a first-type power supply device; a second charging channel, configured to charge a part of the plurality of cells according to a charging signal provided by a second-type power supply device; and an equalizing circuit, configured to equalize voltages of the plurality of cells during an operating process of the second charging channel.
A heat exchanger plate for a plate heat exchanger, whereby the plate comprises a number of ports (8, 9, 10, 11), a distribution region, a heat transfer region, a first adiabatic region, a second adiabatic region and an edge region which extends outside the ports (8, 9, 10, 11) and said regions (12, 13, 14, 15), whereby the plate comprises a first packing groove extending in the edge region outside said regions (12, 13, 14, 15) and round the ports (8, 9, 10, 11), and a second packing groove extending between the adiabatic region and the adjacent distribution region, whereby the gasket grooves (20, 22) are connected together to accommodate a gasket for sealing abutment against an adjacent heat exchanger plate in the plate heat exchanger, characterised in that the gasket groove in a first section along the adiabatic region is positioned at a distance from a centreline in the longitudinal direction of the heat exchanger plate which is less than the distance from the gasket groove in a second section along the heat transfer region to the heat exchanger plate centreline and that the gasket groove, at an end of the first section which points towards the heat transfer region, connects to the second gasket groove at a point which divides the second gasket groove into a first section extending between the centreline and the point, and a second section extending between the point and the gasket groove at an end of the second section.
A patch preparation comprising a backing layer and a drug layer laminated on said backing layer, wherein said drug layer consists of a pressure-sensitive adhesive comprising polyisobutylene, a silicon-containing polymer and at least one compound selected from the group consisting of fentanyl and pharmaceutically acceptable salts thereof, and a mass ratio of said polyisobutylene and said silicon-containing polymer in said pressure-sensitive adhesive is 20:1 to 7:3.
A method for operating a three-dimensional metal object manufacturing system configured to eject drops of liquid metal from a printhead comprising: generating image data of a metal object being formed by the 3D metal object manufacturing system prior to completion of the metal object; comparing the generated image data of the metal object to original 3D object design data to identify a difference; identifying a displacement error as the identified difference when the identified difference is outside a predetermined difference range; modifying machine-ready instructions for forming metal object layers not yet formed to compensate for the identified displacement error; and operating the 3D metal object manufacturing system using the modified machine-ready instructions; characterised in that: modifying the machine-ready instructions comprises changing drop spacing parameters identified in the machine-ready instructions and in that the method further comprises: setting a maximum frequency for drop firing within a layer; and modifying a speed of movement for an ejector in the machine-ready instructions to ensure a frequency of ejection from the ejector does not exceed the maximum frequency. generating image data of a metal object being formed by the 3D metal object manufacturing system prior to completion of the metal object; comparing the generated image data of the metal object to original 3D object design data to identify a difference; identifying a displacement error as the identified difference when the identified difference is outside a predetermined difference range; modifying machine-ready instructions for forming metal object layers not yet formed to compensate for the identified displacement error; and operating the 3D metal object manufacturing system using the modified machine-ready instructions; characterised in that: modifying the machine-ready instructions comprises changing drop spacing parameters identified in the machine-ready instructions and in that the method further comprises: setting a maximum frequency for drop firing within a layer; and modifying a speed of movement for an ejector in the machine-ready instructions to ensure a frequency of ejection from the ejector does not exceed the maximum frequency. modifying the machine-ready instructions comprises changing drop spacing parameters identified in the machine-ready instructions and in that the method further comprises: setting a maximum frequency for drop firing within a layer; and modifying a speed of movement for an ejector in the machine-ready instructions to ensure a frequency of ejection from the ejector does not exceed the maximum frequency. setting a maximum frequency for drop firing within a layer; and modifying a speed of movement for an ejector in the machine-ready instructions to ensure a frequency of ejection from the ejector does not exceed the maximum frequency.
An apparatus of an amusement park, comprising: a bogie system configured to be positioned on a track comprising a plurality of track members (26, 28) that define a ride path, wherein the bogie system comprises one or more bogies, each bogie comprising a track engagement mechanism configured to facilitate motion of the bogie along the plurality of track members (26, 28), to detach one or more track members of the plurality of track members (26, 28) from the track, to move the one or more track members relative to the track, and to attach the one or more track members to the track.
A pool cleaning robot, comprising: a main housing configured to be submerged in a pool; a propulsion unit within the main housing configured to move the pool cleaning robot along a pool surface; one or more germicidal light sources; and a power unit configured to power at least the propulsion unit and the one or more germicidal light sources characterized in that the one or more germicidal light sources are positioned on a bottom of the main housing and configured to disinfect at least a portion of a pool surface. a main housing configured to be submerged in a pool; a propulsion unit within the main housing configured to move the pool cleaning robot along a pool surface; one or more germicidal light sources; and a power unit configured to power at least the propulsion unit and the one or more germicidal light sources characterized in that the one or more germicidal light sources are positioned on a bottom of the main housing and configured to disinfect at least a portion of a pool surface.
A method for the desalination treatment of a lignocellulosic biomass which comprises the steps of subjecting a milled lignocellulosic biomass to: a) a washing step using an aqueous solution with a pH comprised between 8 and 11.5, preferably between 8.5 and 11, at a temperature comprised between 15°C and 90°C, a pressure comprised between 1 and 15 bars, preferably between 1 and 8 bars, and a contact time comprised between 1 and 50 minutes; b) a washing step using an aqueous solution with a pH comprised between 3 and 6, preferably between 4.5 and 5.5, at a temperature comprised between 20° and 100°C, preferably between 40 and 60°C, a pressure comprised between 1 and 15 bars, preferably between 1 and 8 bars, and a contact time comprised between 1 and 100 minutes, preferably between 3 and 30 minutes; and wherein said washing step b) precedes said washing step a). a) a washing step using an aqueous solution with a pH comprised between 8 and 11.5, preferably between 8.5 and 11, at a temperature comprised between 15°C and 90°C, a pressure comprised between 1 and 15 bars, preferably between 1 and 8 bars, and a contact time comprised between 1 and 50 minutes; b) a washing step using an aqueous solution with a pH comprised between 3 and 6, preferably between 4.5 and 5.5, at a temperature comprised between 20° and 100°C, preferably between 40 and 60°C, a pressure comprised between 1 and 15 bars, preferably between 1 and 8 bars, and a contact time comprised between 1 and 100 minutes, preferably between 3 and 30 minutes; and
A method for compression molding of composite materials consisting in preparing a lump formed of an amalgam of non-woven fibers, mixed randomly and associated, in a determined proportion, with a thermosetting or thermoplastic material, and in shaping this lump under pressure, wherein the preparation of said lump consists in mixing said fibers and said thermosetting or thermoplastic material under air vacuum, while said shaping is obtained by introducing said lump into a mold (1; 3; 4) designed and dimensioned in order to withstand high pressures, and which has a molding cavity (11; 34; 44) having the shape of the part to be produced and provided with at least one well (12; 35; 45) configured to tightly receive a plunger piston (13; 36; 48) the sliding of which is capable of performing the compression of said lump in said cavity (11; 34; 44) for its shaping in said mold (1; 3; 4), whereby the pressure does not remain installed in said mold (1; 3; 4).
Gas engine spark plug having a spark plug housing, a centre electrode and a ground electrode, wherein the ground electrode is annular in form or in the form of an annular section and surrounds the centre electrode, at least partially, to the outside, wherein the ground electrode is directly connected to the spark plug housing, characterised in that the spark plug housing has a sleeve-shaped housing section from which a wall extends inwards towards the centre electrode, wherein the wall is made of the same material as the sleeve-shaped housing section, and wherein the ground electrode is arranged on the wall, wherein the wall extends towards the centre electrode in such a way that an ignition gap remains between the ground electrode, which is arranged at the radially inner end of the wall, and the centre electrode.
Method for mounting a floor of a body structure of a motor vehicle comprising a separator crossmember and at least one reinforcing element for said separator crossmember arranged at an end (22a, 22b) of said separator crossmember, the reinforcing element being provided with first, second and third components (5a, 5b, 5c), the first and second components (5a, 5b) being assembled to one another while defining a dispersion-compensating fastening region comprising the third component configured to cooperate with a connection element of a rear seat of said vehicle, the method comprising a step of placing said at least one reinforcing element between the separator crossmember and a rear floor of the floor of the body structure and a step of fastening said at least one reinforcing element to said separator crossmember and to said rear floor.
A flexible printed circuit assembly for use in an electronic device, comprising: a flexible printed circuit (815,915) comprising conductors disposed on a flexible substrate and including at least one planar portion (827,928); a set of conductors configured to route a signal as a differential pair from a peripheral device utilized in the electronic device as an input to the flexible printed circuit; a connector (830,930) coupled to the set of conductors configured to route the signal as an output from the flexible circuit; a first radio frequency common-mode choke (835,935) connected in series with the differential pair of clock signal conductors (820,920) to attenuate common noise in the flexible printed circuit; and a second radio frequency common-mode choke (840,940) connected in series with the differential pair of data signal conductors (825,925) to attenuate common noise in the flexible printed circuit, wherein the first and second radio frequency common-mode chokes are mounted on the planar portion of the flexible printed circuit proximate to the connector. a flexible printed circuit (815,915) comprising conductors disposed on a flexible substrate and including at least one planar portion (827,928); a set of conductors configured to route a signal as a differential pair from a peripheral device utilized in the electronic device as an input to the flexible printed circuit; a connector (830,930) coupled to the set of conductors configured to route the signal as an output from the flexible circuit; a first radio frequency common-mode choke (835,935) connected in series with the differential pair of clock signal conductors (820,920) to attenuate common noise in the flexible printed circuit; and a second radio frequency common-mode choke (840,940) connected in series with the differential pair of data signal conductors (825,925) to attenuate common noise in the flexible printed circuit, wherein the first and second radio frequency common-mode chokes are mounted on the planar portion of the flexible printed circuit proximate to the connector.
An access device for placing a medical article within a body space, comprising: a needle having an elongated needle body with a distal end and a hub comprising a distal portion from which the needle body extends, the elongated needle body comprising at least one side fenestration; a dilator slideably disposed on the needle body and defining a space between the dilator shaft and the needle body in communication with the needle side fenestration, the dilator comprising a dilator hub and an elongated dilator shaft that extends from the dilator hub, wherein the dilator hub comprises a receiving portion and at least a portion of the dilator shaft is configured to allow visual determination of the presence of a body fluid within the space; and characterised in that an insert disposed within the dilator receiving portion, the insert comprising a through-hole configured to receive the needle body therethrough, the through-hole being slight larger than the needle body so as to form a passage between the insert and the needle body that allows gases to pass through the passage but hinders the passage of a body fluid. a needle having an elongated needle body with a distal end and a hub comprising a distal portion from which the needle body extends, the elongated needle body comprising at least one side fenestration; a dilator slideably disposed on the needle body and defining a space between the dilator shaft and the needle body in communication with the needle side fenestration, the dilator comprising a dilator hub and an elongated dilator shaft that extends from the dilator hub, wherein the dilator hub comprises a receiving portion and at least a portion of the dilator shaft is configured to allow visual determination of the presence of a body fluid within the space; and characterised in that an insert disposed within the dilator receiving portion, the insert comprising a through-hole configured to receive the needle body therethrough, the through-hole being slight larger than the needle body so as to form a passage between the insert and the needle body that allows gases to pass through the passage but hinders the passage of a body fluid.
Lighting device with a multicoloured light source, which couples light into a light guide via an elongate light mixer, for which purpose the light guide is fixed at its one end opposite the light mixer and the light source is directed towards the end face of the light mixer, wherein the light guide is designed as a light-guide bundle and the light mixer is designed along its length such that at least 60% of the incoming light undergoes at least two internal reflections before it is coupled into the light guide, characterized in that the light-guide bundle is formed by thread ends of a sheet-like textile structure and the light guide is permanently connected at its one end to the light mixer via an injection-moulded sprue, wherein the injection-moulded sprue of light guide and light mixer being fixed via a mechanical strain relief clamp.