mhurhangee/ep-ind-claims huggingface dataset:
Method for automatically correcting a current time value of an internal system time of an on-board unit for a motor vehicle using time values determined from GNSS signals, having at least the following steps, specifically: a. the method is started, b. the on-board unit receives GNSS signals, c. the transmitted GNSS time values are determined from the GNSS signals, d. the determined GNSS time values are stored, e. starting from the reception of GNSS signals the steps are repeated until the on-board unit determines a situation which is suitable for correcting the values of the internal system time, f. if the on-board unit determines a situation which is suitable for correcting the value of the internal system time, the current value of the internal system time of the on-board unit is corrected by setting it to a current GNSS time value, wherein the determined GNSS time values are checked to determine whether they are suitable for correction, and wherein if the situation which is suitable for correcting a value of an internal system time is determined, correction is carried out only if at least one suitable GNSS time value is present, characterized in that the determined GNSS time values are additionally checked for a plausibility, and wherein only plausible GNSS time values are suitable values, wherein the plausibility of the determined GNSS time values is checked by comparing time intervals between GNSS time values determined from various reception events with time intervals of the values of the internal system time of the on-board unit which are present at the associated reception times. a. the method is started, b. the on-board unit receives GNSS signals, c. the transmitted GNSS time values are determined from the GNSS signals, d. the determined GNSS time values are stored, e. starting from the reception of GNSS signals the steps are repeated until the on-board unit determines a situation which is suitable for correcting the values of the internal system time, f. if the on-board unit determines a situation which is suitable for correcting the value of the internal system time, the current value of the internal system time of the on-board unit is corrected by setting it to a current GNSS time value, wherein the determined GNSS time values are checked to determine whether they are suitable for correction, and wherein if the situation which is suitable for correcting a value of an internal system time is determined, correction is carried out only if at least one suitable GNSS time value is present,
Gas pressure regulator comprising - a body with a gas inlet, a gas outlet and a passage fluidly interconnecting said inlet with said outlet; - a piston with a main portion (22.1) and a tubular portion (22.2), said tubular portion being sealingly and slidably housed in the body and forming a portion (20.1) of the passage in said body; - a valve seat in the body, said seat being configured to cooperate with a regulating edge of the tubular portion (22.2) of the piston for varying a flow section of the passage depending on the gas pressure in a regulating chamber delimited by the piston and downstream of said seat; wherein the tubular portion (22.2) traverses the main portion (22.1) of the piston and the regulating edge of said tubular portion (22.2) is on a downstream side of said tubular portion; and the body comprises a central shaft portion (4.3) carrying the valve seat, the piston being sealingly slidable around said central shaft portion; characterized in that the central shaft portion (4.3) comprises a venting channel for a chamber that is delimited by the side of the piston that is opposed to the regulating chamber. - a body with a gas inlet, a gas outlet and a passage fluidly interconnecting said inlet with said outlet; - a piston with a main portion (22.1) and a tubular portion (22.2), said tubular portion being sealingly and slidably housed in the body and forming a portion (20.1) of the passage in said body; - a valve seat in the body, said seat being configured to cooperate with a regulating edge of the tubular portion (22.2) of the piston for varying a flow section of the passage depending on the gas pressure in a regulating chamber delimited by the piston and downstream of said seat; wherein the tubular portion (22.2) traverses the main portion (22.1) of the piston and the regulating edge of said tubular portion (22.2) is on a downstream side of said tubular portion; and the body comprises a central shaft portion (4.3) carrying the valve seat, the piston being sealingly slidable around said central shaft portion; characterized in that the central shaft portion (4.3) comprises a venting channel for a chamber that is delimited by the side of the piston that is opposed to the regulating chamber. wherein the tubular portion (22.2) traverses the main portion (22.1) of the piston and the regulating edge of said tubular portion (22.2) is on a downstream side of said tubular portion; and the body comprises a central shaft portion (4.3) carrying the valve seat, the piston being sealingly slidable around said central shaft portion; characterized in that the central shaft portion (4.3) comprises a venting channel for a chamber that is delimited by the side of the piston that is opposed to the regulating chamber.
A method of wireless communication, comprising: transmitting, by a base station (105, 404, 800), one or more enquiries for user equipment, UE, capabilities associated with one or more of: bands that are used by a network, a maximum number of carriers or bandwidth advertised by the network on uplink or downlink, or support of understanding skipped fall back band combinations by the network; receiving, by the base station, a basic UE capability set for establishing connection; and receiving, by the base station after connection establishment, one or more identifiers identifying one or more extensive UE capabilities, wherein each of the identifiers corresponds to a set of modes of operation that the UE is capable to perform. transmitting, by a base station (105, 404, 800), one or more enquiries for user equipment, UE, capabilities associated with one or more of: bands that are used by a network, a maximum number of carriers or bandwidth advertised by the network on uplink or downlink, or support of understanding skipped fall back band combinations by the network; receiving, by the base station, a basic UE capability set for establishing connection; and receiving, by the base station after connection establishment, one or more identifiers identifying one or more extensive UE capabilities, wherein each of the identifiers corresponds to a set of modes of operation that the UE is capable to perform.
A recording device that records an encoded stream in a recording medium, the recording device comprising: an obtainer that obtains the encoded stream; a decoder that decodes the encoded stream obtained; and a controller that selectively performs, in accordance with a predetermined setting, first control to record the encoded stream in the recording medium, when the encoded stream obtained is undecodable by the decoder, or second control to not record the encoded stream, when the encoded stream obtained is undecodable by the decoder, characterized in that the controller determines that the encoded stream is undecodable by the decoder, when a required processing capacity regarding a processing speed required for decoding the encoded stream exceeds a processing capacity of the decoder, wherein the encoded stream includes a video stream, and the required processing capacity is a processing capacity required for decoding the video stream having a resolution equal to or higher than a predetermined resolution, and, wherein when the predetermined setting indicates that the second control is to be performed and the video stream includes a first video stream having a resolution equal to or higher than the predetermined resolution and a second video stream having a resolution lower than the predetermined resolution, the controller records the second video stream in the recording medium without recording the first video stream. an obtainer that obtains the encoded stream; a decoder that decodes the encoded stream obtained; and a controller that selectively performs, in accordance with a predetermined setting, first control to record the encoded stream in the recording medium, when the encoded stream obtained is undecodable by the decoder, or second control to not record the encoded stream, when the encoded stream obtained is undecodable by the decoder, characterized in that the controller determines that the encoded stream is undecodable by the decoder, when a required processing capacity regarding a processing speed required for decoding the encoded stream exceeds a processing capacity of the decoder, wherein the encoded stream includes a video stream, and the required processing capacity is a processing capacity required for decoding the video stream having a resolution equal to or higher than a predetermined resolution, and, wherein when the predetermined setting indicates that the second control is to be performed and the video stream includes a first video stream having a resolution equal to or higher than the predetermined resolution and a second video stream having a resolution lower than the predetermined resolution, the controller records the second video stream in the recording medium without recording the first video stream.
A mass memory device comprising a plurality of mass memories and at least two bridge controllers for connecting the mass memory device with in each case one server, wherein each of the bridge controllers is physically connected to all mass memories of the mass memory device via a hard disk bus and the mass memories cannot be directly addressed via a host bus adaptor of a host system, but can be managed and physically addressed via the bridge controllers, characterized in that in the mass memory device a first and another common cache memory unit are provided, with which the bridge controllers are connected for storing data to be stored and the statuses thereof are connected on the mass memory units via an additional cache synchronization system of the mass memory device in the form of a data bus separate from the hard disk bus and comprising multiple ultrafast single connections, wherein the bridge controllers are connected to the first and the further common cache memory unit via the cache synchronization system and are set-up to operate in a "write-back-mode" and write the data to be stored into the first common cache storage unit via the separate data bus, which has a single connection, a so-called point-to-point-connection, to the first common cache memory unit for each bridge controller, wherein the further common cache memory unit for permanent synchronization of the memory unit contents, the so-called cache-mirroring, is physically connected to the first common memory unit via a separate data bus, wherein a battery backup unit is assigned to each common cache memory unit, which in the event of power failure protects the respective common cache memory unit from data losses, and the BBU is in each case implemented as an internal system within the respective cache memory unit, and wherein all common cache memory units can be removed and fitted during operation.
A system comprising: an imaging device comprising an optical coherence tomography light source, wherein the imaging device is configured to obtain an image of intravascular tissue comprising plaque; and a non-transitory computer readable medium configured to cause a processor to: analyze a pixel of the image with a first neural network configured to classify the plaque as a first tissue type of a plurality of tissue types; analyze the pixel of the image with a second neural network configured to classify the plaque as a second tissue type of the plurality of tissue types; and analyze the pixel of the image with a third neural network configured to classify the plaque as a third tissue type of the plurality of tissue types, wherein histological data from the plurality of tissue types is analyzed to characterize tissue types of pixels selected to train the first, second and third neural networks. an imaging device comprising an optical coherence tomography light source, wherein the imaging device is configured to obtain an image of intravascular tissue comprising plaque; and a non-transitory computer readable medium configured to cause a processor to: analyze a pixel of the image with a first neural network configured to classify the plaque as a first tissue type of a plurality of tissue types; analyze the pixel of the image with a second neural network configured to classify the plaque as a second tissue type of the plurality of tissue types; and analyze the pixel of the image with a third neural network configured to classify the plaque as a third tissue type of the plurality of tissue types, analyze a pixel of the image with a first neural network configured to classify the plaque as a first tissue type of a plurality of tissue types; analyze the pixel of the image with a second neural network configured to classify the plaque as a second tissue type of the plurality of tissue types; and analyze the pixel of the image with a third neural network configured to classify the plaque as a third tissue type of the plurality of tissue types, wherein histological data from the plurality of tissue types is analyzed to characterize tissue types of pixels selected to train the first, second and third neural networks.
A polymeric multilayer film having first and second generally opposed major surfaces (102, 104), and comprising first, second, and third layers (111, 112, 113), an array of blind openings between the first and second major surfaces (102, 104), and an average thickness (t), wherein the first, second, and third layers (111, 112, 113) each have a first average thickness (t 1, t 2, t 3) excluding any thickness said first, second, and third layers (111, 112, 113) having in any of the blind openings, wherein the first and second layers (111, 112) extend into the first average thickness of the third layer (t 3), wherein each of the first, second, and third layers (111, 112, 113) each have a second average thickness (t 1 ', t 2 ', t 3 ') in the blind holes, wherein the second average thickness of the first and third layers (t 1 ', t 3 ') are each greater than zero, and wherein the ratio of the first average thickness of the second layer (t 2) to the second average thickness of the second layer (t 2 ') is at least 2:1.
A biocompatible pharmaceutical composition comprising a therapeutic amount of a complex comprising a polymer in association with a hemoglobin (Hb), a Hb subunit(s), or a Hb fragment(s) that stores and releases oxygen in accordance with an oxygen dissociation curve; wherein the therapeutic amount of the complex is effective to treat a condition caused by blood loss, anemia, or a hemoglobin disorder, and to improve subject survival relative to a control, wherein the polymer is an elastin-like polypeptide, and wherein the ELP comprises a diblock copolymer comprising: a hydrophilic block comprising a pentameric amino acid motif (Val-Pro-Gly-Xaa-Gly)n, wherein n = 20-90, and Xaa is a hydrophilic amino acid; and a hydrophobic block comprising a pentameric amino acid motif (Val-Pro-Gly-Xaa-Gly)n, wherein n = 20-90, and Xaa is a hydrophobic amino acid. a hydrophilic block comprising a pentameric amino acid motif (Val-Pro-Gly-Xaa-Gly)n, wherein n = 20-90, and Xaa is a hydrophilic amino acid; and a hydrophobic block comprising a pentameric amino acid motif (Val-Pro-Gly-Xaa-Gly)n, wherein n = 20-90, and Xaa is a hydrophobic amino acid.
Insulated component having a profile strand for thermal insulation, wherein the profile strand has an insulating material of foamed polyethylene terephthalate, wherein a plurality of polyethylene terephthalate molecules are connected to each other indirectly or directly via a chain extender, characterised in that the profile strand is powder-coated together with other components of the insulated component.
A composition for use in the prevention and treatment of acute and/or recurrent urinary tract infections comprising a synergistic combination of Berberine, Betulin and Arbutin in an effective amount and an edible carrier.
Device for rotatable mounting of a camshaft of an internal combustion engine, comprising: a first bearing body with a receiver for rotatable mounting of the camshaft; a cylinder head or a fixing frame for fixing the first bearing body; a first fixing means which fixes the first bearing body to the cylinder head or fixing frame, wherein the first fixing means is the sole fixing means which fixes the first bearing body to the cylinder head or fixing frame, characterized by: a second bearing body with a receiver for mounting the camshaft, wherein: the first bearing body and the second bearing body together form a two-piece bearing block; and the receiver of the first bearing body and the receiver of the second bearing body form a common receiver for the camshaft. a first bearing body with a receiver for rotatable mounting of the camshaft; a cylinder head or a fixing frame for fixing the first bearing body; a first fixing means which fixes the first bearing body to the cylinder head or fixing frame, wherein the first fixing means is the sole fixing means which fixes the first bearing body to the cylinder head or fixing frame, the first bearing body and the second bearing body together form a two-piece bearing block; and the receiver of the first bearing body and the receiver of the second bearing body form a common receiver for the camshaft.
A method for three-dimensional mapping of a geographical area comrpising capturing aerial images of a geographical area using a aircraft self-piloted according to a predetermined flight plan and an image capture apparatus mounted on the aircraft while being movable relative to the aircraft around a rotation axis to make it possible to modify the angular position of the image capture apparatus relative to the aircraft, the method comprising, during a single flyover of the geographical area by the aircraft: - capturing a first series of images by positioning the image capture apparatus relative to the aircraft iteratively according to a first sequence of angular position(s) including a first angular position or at least two distinct angular positions, a respective image being captured for each angular position of the first sequence upon each iteration of the sequence; then - capturing a second series of images by positioning the image capture apparatus relative to the aircraft iteratively according to a second sequence of angular position(s) including a first angular position or at least two distinct angular positions, a respective image being captured for each angular position of the second sequence upon each iteration of the sequence, the second sequence including at least one angular position distinct from each angular position of the first sequence, the method comprising calculating a three-dimensional map of the geographical area from the captured images. - capturing a first series of images by positioning the image capture apparatus relative to the aircraft iteratively according to a first sequence of angular position(s) including a first angular position or at least two distinct angular positions, a respective image being captured for each angular position of the first sequence upon each iteration of the sequence; then - capturing a second series of images by positioning the image capture apparatus relative to the aircraft iteratively according to a second sequence of angular position(s) including a first angular position or at least two distinct angular positions, a respective image being captured for each angular position of the second sequence upon each iteration of the sequence, the second sequence including at least one angular position distinct from each angular position of the first sequence,
A configuration apparatus for a bandwidth part indicator, configured in a network device, the apparatus comprising: a first configuring unit configured to configure a terminal equipment to receive multiple physical downlink control channels; and a transmitting unit configured to transmit downlink control information to the terminal equipment, for the terminal equipment to determine an active bandwidth part according to detected multiple pieces of downlink control information, wherein the transmitting unit is configured to transmit second downlink control information to the terminal equipment, the number of pieces of the second downlink control information transmitted in the same scheduling unit being greater than 1, and bandwidth parts indicated by bandwidth part indicator fields in multiple pieces of the second downlink control information transmitted in the same scheduling unit being identical. a first configuring unit configured to configure a terminal equipment to receive multiple physical downlink control channels; and a transmitting unit configured to transmit downlink control information to the terminal equipment, for the terminal equipment to determine an active bandwidth part according to detected multiple pieces of downlink control information, wherein the transmitting unit is configured to transmit second downlink control information to the terminal equipment, the number of pieces of the second downlink control information transmitted in the same scheduling unit being greater than 1, and bandwidth parts indicated by bandwidth part indicator fields in multiple pieces of the second downlink control information transmitted in the same scheduling unit being identical.
A roller board assembly, comprising: a first roller board comprising a plurality of grooves on a bottom face of the first roller board; a second roller board comprising a plurality of grooves on a top face of the second roller board; wherein said first roller board is a first roller board insert, said second roller board is a second roller board insert and said roller board assembly further comprises: a first housing configured to receive a top face of the first roller board insert, the top face of the first roller board insert located on a side of the first roller board insert opposing the bottom face; a first coupler configured to removably couple the first roller board insert to the first housing through an opening in the first housing; a second housing coupled to the first housing and configured to receive a bottom face of the second roller board insert, the bottom face of the second roller board insert located on a side of the second roller board insert opposing the top face; and a second coupler configured to removably couple the second roller board insert to the second housing through an opening in the second housing. a first roller board comprising a plurality of grooves on a bottom face of the first roller board; a second roller board comprising a plurality of grooves on a top face of the second roller board; a first housing configured to receive a top face of the first roller board insert, the top face of the first roller board insert located on a side of the first roller board insert opposing the bottom face; a first coupler configured to removably couple the first roller board insert to the first housing through an opening in the first housing; a second housing coupled to the first housing and configured to receive a bottom face of the second roller board insert, the bottom face of the second roller board insert located on a side of the second roller board insert opposing the top face; and a second coupler configured to removably couple the second roller board insert to the second housing through an opening in the second housing.