mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication at a user equipment, UE, comprising: receiving a first uplink grant for transmitting over a shared radio frequency spectrum band, the first uplink grant associated with a first listen before talk, LBT, priority class; performing a first LBT procedure based at least in part on the first LBT priority class to contend for access to the shared radio frequency spectrum band, the first LBT procedure concluding at a LBT state; determining, based at least in part on the LBT state, to not transmit over the shared radio frequency spectrum band in accordance with the first uplink grant; receiving a second uplink grant for transmitting over the shared radio frequency spectrum band, the second uplink grant associated with a second LBT priority class; and performing a second LBT procedure based at least in part on the second LBT priority class, the first LBT priority class, and the LBT state to contend for access to the shared radio frequency spectrum band. receiving a first uplink grant for transmitting over a shared radio frequency spectrum band, the first uplink grant associated with a first listen before talk, LBT, priority class; performing a first LBT procedure based at least in part on the first LBT priority class to contend for access to the shared radio frequency spectrum band, the first LBT procedure concluding at a LBT state; determining, based at least in part on the LBT state, to not transmit over the shared radio frequency spectrum band in accordance with the first uplink grant; receiving a second uplink grant for transmitting over the shared radio frequency spectrum band, the second uplink grant associated with a second LBT priority class; and performing a second LBT procedure based at least in part on the second LBT priority class, the first LBT priority class, and the LBT state to contend for access to the shared radio frequency spectrum band.
Method for increasing fail-safe operation of an industrial input/output assembly, wherein an external mechanical load that acts on the input/output assembly is determined by means of an acceleration sensor, wherein a check is performed as to whether the load exceeds a predeterminable limit value and if that is the case, then a value of a load sum is accordingly increased corresponding to an extent to which the value is exceeded, wherein the load sum is continuously compared to a maximum load value (B Max) that characterises a service life of the input/output assembly, and for the case that the maximum load value (B Max) is reached, a maintenance message is output.
A phonon transistor comprising: electrical contacts on an electrically conductive medium; first and second quantum dots embedded in the electrically conductive medium such that in the presence of an electric field provided by an electric potential on the electrical contacts, a state of the first quantum dot couples with a state of a combination of the second quantum dot and the electrically conductive medium; and a phononic wave guide coupled to the electrically conductive medium, the phononic wave guide configured to transport phonons therethrough. electrical contacts on an electrically conductive medium; first and second quantum dots embedded in the electrically conductive medium such that in the presence of an electric field provided by an electric potential on the electrical contacts, a state of the first quantum dot couples with a state of a combination of the second quantum dot and the electrically conductive medium; and a phononic wave guide coupled to the electrically conductive medium, the phononic wave guide configured to transport phonons therethrough.
A method for capturing the spatial molecular profiling of a biological mass formed from biological material, comprising the steps of: a) providing a transected biological mass, for example a tumour, the transection exposing at least a portion of the mass; b) providing a solid support of an area at least equalling the area of said portion of the mass, said solid support is formed from a fibrous material or a porous polymer material; c) transferring biological material from the portion of the mass to the support to provide on the support a two dimensional imprint of the biological material present at the portion of the mass; and d) performing more than one biological assay of the transferred biological material from different predetermined locations of the imprint in order to determine the spatial molecular profile of the portion of the mass; the method being characterised in that the material surface of the solid support is impregnated with chemicals, said chemicals including: a weak base; a chelating agent; an anionic surfactant; or a chaotropic agent such as guanidinium thiocyanate; and in that the solid support is allowed to dry following step c); and in that said one or more assay is performed on a portion of the solid support material that is excised from the remainder of the material. a) providing a transected biological mass, for example a tumour, the transection exposing at least a portion of the mass; b) providing a solid support of an area at least equalling the area of said portion of the mass, said solid support is formed from a fibrous material or a porous polymer material; c) transferring biological material from the portion of the mass to the support to provide on the support a two dimensional imprint of the biological material present at the portion of the mass; and d) performing more than one biological assay of the transferred biological material from different predetermined locations of the imprint in order to determine the spatial molecular profile of the portion of the mass; the method being characterised in that the material surface of the solid support is impregnated with chemicals, said chemicals including: a weak base; a chelating agent; an anionic surfactant; or a chaotropic agent such as guanidinium thiocyanate; and in that the solid support is allowed to dry following step c); and in that said one or more assay is performed on a portion of the solid support material that is excised from the remainder of the material.
An implantable medical device, comprising: a multi-axis sensor having at least two real axes; and a processor configured to: receive signals from each real axis of the multi-axis sensor, and characterized by the processor configured to; generate from the real axis signals a virtual signal for each of a plurality of virtual axes of the multi-axis sensor; identify an optimal axis from the real axes and the plurality of virtual axes for monitoring a physiological signal of the patient; store coordinates defining the optimal axis as respective weighting factors of the signals from each axis of the multi-axis sensor; and determine a metric of the physiological signal of the patient using the multi-axis sensor signals and the weighting factors. a multi-axis sensor having at least two real axes; and a processor configured to: receive signals from each real axis of the multi-axis sensor, and characterized by the processor configured to; generate from the real axis signals a virtual signal for each of a plurality of virtual axes of the multi-axis sensor; identify an optimal axis from the real axes and the plurality of virtual axes for monitoring a physiological signal of the patient; store coordinates defining the optimal axis as respective weighting factors of the signals from each axis of the multi-axis sensor; and determine a metric of the physiological signal of the patient using the multi-axis sensor signals and the weighting factors. receive signals from each real axis of the multi-axis sensor, and characterized by the processor configured to; generate from the real axis signals a virtual signal for each of a plurality of virtual axes of the multi-axis sensor; identify an optimal axis from the real axes and the plurality of virtual axes for monitoring a physiological signal of the patient; store coordinates defining the optimal axis as respective weighting factors of the signals from each axis of the multi-axis sensor; and determine a metric of the physiological signal of the patient using the multi-axis sensor signals and the weighting factors.
A method for searching for an Enhanced Physical Downlink Control Channel, E-PDCCH, in a wireless access system, the method comprising; searching for a legacy Physical Downlink Control Channel, PDCCH, by blind-decoding a control channel region; calculating the allocation location of the E-PDCCH based on a starting position and a size of the legacy PDCCH; and decoding the E-PDCCH based on the calculated allocation location for the E-PDCCH, wherein the E-PDCCH is allocated not to the control channel region but to a data channel region, the E-PDCCH is allocated in unit of physical resource blocks, and the starting position of the legacy PDCCH is defined by a subcarrier index and a symbol index.
A calibration method comprising: acquiring a first image of a scene inside a medium, when there is no object along a line-of-sight, under illumination from a first location along the LOS; acquiring a second image of the scene inside the medium, when there is no object along the LOS, under illumination from a second, different location along the LOS; and computing attenuation coefficients, one per color channel, based on backscatter in the first and second images taken from the center of each image. acquiring a first image of a scene inside a medium, when there is no object along a line-of-sight, under illumination from a first location along the LOS; acquiring a second image of the scene inside the medium, when there is no object along the LOS, under illumination from a second, different location along the LOS; and computing attenuation coefficients, one per color channel, based on backscatter in the first and second images taken from the center of each image.
Bed mattress comprising a foil mattress of plastic material in a surrounding envelope of textile material, the foil mattress comprising channels extending transversely to the longitudinal direction of the mattress, and having a preferably self-closing valve for filling air into said channels, where said channels are interconnected via air passages, characterized in that the channels of the foil mattress are, in addition to air, entirely or partly filled with polyester fibres and/or with foam plastics, at least in such an amount that the plastic material (9, 10) in the foil mattress is mutually separated and in that foam plastics in the form of cylinders, and/or tubes, and/or rolled up sheets and having cover around the same, with the cover facing outward, are introduced into said channels from one long side of the mattress or in that polyester fibre is filled in a cylindrical envelope which is put or inserted into the channels of the mattress from one long side thereof.
A charge air cooler for motor vehicles, in particular for utility vehicles, with a heat exchanger unit, which consists of tubes having tube ends and fins arranged between the tubes, and at least one laterally arranged header box (3, 4) for introducing or discharging charge air, wherein the at least one header box (3, 4) has a bottom with openings for receiving the tube ends, a cover and an inlet or outlet connecting pipe (7, 11), wherein the header box (3, 4) is at least partially produced by internal high-pressure forming of a metallic semi-finished product, characterised in that the inlet or outlet connecting pipe (7, 11) is designed as an end-side extension of the header box, wherein a part of the cover of the header box has a longitudinal bead produced by pressing (from the outside) and/or IHF (from the inside) and wherein the longitudinal bead is of conical design and has a cross-section which increases in a direction pointing away from the connecting pipe while the cross-sectional area of the header box decreases.
A three-dimensional structure having a greatest dimension between 25 μm and 500 μm and comprising adipose derived stem cells and one or more adhesive agents, wherein the adhesive agent is a first cross-linked polymeric network, wherein the first cross-linked polymeric network is alginate, further comprising a second cross-linked polymeric network wherein said second cross-linked polymeric network encapsulates the first cross-linked network and wherein the second cross-linked polymeric network is chitosan.
Flotation apparatus comprising a flotation chamber having a sidewall and a base and serving to contain a pulp, a foam-collecting device (5, 5a) arranged in an upper region of the flotation chamber for the purpose of collecting a foam product formed during the flotation process, and a charge line for continuously charging the flotation chamber with pulp, characterised in that a two-stage flotation process can be performed in the flotation chamber with the aid of two mixing devices operating essentially independently of each other, in which the first flotation stage comprises a first mixing device and the second flotation stage comprises a second mixing device, wherein for the purpose of dispersing a gas in the pulp the first mixing device is present in the charge line which leads into the flotation chamber at a point disposed above a stirrer and the second mixing device comprising the stirrer and a sparging device associated with the stirrer is present inside the flotation chamber.
A conveyor belt cutting and splicing apparatus for joining the ends of one or more conveyor belts together, the conveyor belt cutting and splicing apparatus comprising: a frame assembly including a belt support for supporting conveyor belt ends (10, 15) generally adjacent to each other; an on-board cutting mechanism operatively mounted to the frame assembly for cutting an end portion of at least one of the conveyor belt ends with the at least one conveyor belt end supported by the belt support; and a splicing mechanism for joining the cut belt end to the other belt end with the belt ends supported on the belt support, characterised in that the belt support comprises a pair of elongate platen devices (60, 65) with each platen device supporting a respective one of the conveyor belt ends thereon, and the cutting mechanism includes a cutting device that is operable to travel in a longitudinal direction along the frame assembly between the pair of elongate platen devices with the platen devices in a belt cutting position, and wherein the platen devices are spaced from each other to form a gap therebetween for cutting of the belt end portion and the cutting device includes a carriage and a cutting blade extending upwardly from the carriage between and above the platen devices for cutting a portion of the at least one belt end extending over the gap between the spaced platens. a frame assembly including a belt support for supporting conveyor belt ends (10, 15) generally adjacent to each other; an on-board cutting mechanism operatively mounted to the frame assembly for cutting an end portion of at least one of the conveyor belt ends with the at least one conveyor belt end supported by the belt support; and a splicing mechanism for joining the cut belt end to the other belt end with the belt ends supported on the belt support, characterised in that
A cable tray connecting device made of metal that is formed as a U-formed groove with a flat central portion (2.1) and lateral sides (12, 12') extending substantially perpendicularly to the central portion (2.1), wherein each respective lateral side (12, 12') is connected in a form-locking manner with the central portion (2.1) through a first weakening line (3.1, 3.1') in the form of perforations; each lateral side (12, 12') comprises an outer lateral portion (2.2, 2.2') and an inner lateral portion (2.3, 2.3') in the form of a flap extending into the interior of the groove in parallel to the outer lateral portion (2.2, 2.2') and is connected to the outer lateral portion (2.2, 2.2') through a second weakening line (3.2, 3.2') in the form of perforations; the free end of the inner lateral portion (2.3, 2.3') has an edge (4, 4') formed as a set of teeth (7, 7'). each respective lateral side (12, 12') is connected in a form-locking manner with the central portion (2.1) through a first weakening line (3.1, 3.1') in the form of perforations; each lateral side (12, 12') comprises an outer lateral portion (2.2, 2.2') and an inner lateral portion (2.3, 2.3') in the form of a flap extending into the interior of the groove in parallel to the outer lateral portion (2.2, 2.2') and is connected to the outer lateral portion (2.2, 2.2') through a second weakening line (3.2, 3.2') in the form of perforations; the free end of the inner lateral portion (2.3, 2.3') has an edge (4, 4') formed as a set of teeth (7, 7').
A system for determining a force, comprising: a console comprising a processing logic, and a catheter, wherein the console is configured to couple to the catheter and to output at least one first signal to interact with at least two optical fiber sensors located at a distal end of the catheter, and wherein the console is configured to receive an output signal of the at least two optical fiber sensors corresponding to wavelength changes manifested in the optical fiber sensors due to external forces applied to the distal end of the catheter, said system being characterized in that the processing logic is programmed to compute at least a two-dimensional force vector from the output of the at least two sensors, and wherein the console is configured to output a second signal indicative of the force vector. a console comprising a processing logic, and a catheter, wherein the console is configured to couple to the catheter and to output at least one first signal to interact with at least two optical fiber sensors located at a distal end of the catheter, and wherein the console is configured to receive an output signal of the at least two optical fiber sensors corresponding to wavelength changes manifested in the optical fiber sensors due to external forces applied to the distal end of the catheter, said system being characterized in that the processing logic is programmed to compute at least a two-dimensional force vector from the output of the at least two sensors, and wherein the console is configured to output a second signal indicative of the force vector.
A computer implemented method, comprising the steps of: receiving Global Navigation Satellite System (GNSS) signals (145A, 145B) at a first antenna and a second antenna; and performing a signal power authentication procedure on the received GNSS signals (145A, 145B), wherein the signal power authentication procedure comprises: calculating a double difference value of a carrier-to-noise ratio (C/N 0) of the GNSS signals (145A, 145B); determining whether an absolute value of the double difference value of the C/N 0 exceeds a predefined C/N 0 threshold; and in response to determining that the absolute value of the double difference value of the C/N 0 exceeds a predefined C/N 0 threshold, determining that the GNSS signals (145A, 145B) are authentic. receiving Global Navigation Satellite System (GNSS) signals (145A, 145B) at a first antenna and a second antenna; and performing a signal power authentication procedure on the received GNSS signals (145A, 145B), wherein the signal power authentication procedure comprises: calculating a double difference value of a carrier-to-noise ratio (C/N 0) of the GNSS signals (145A, 145B); determining whether an absolute value of the double difference value of the C/N 0 exceeds a predefined C/N 0 threshold; and in response to determining that the absolute value of the double difference value of the C/N 0 exceeds a predefined C/N 0 threshold, determining that the GNSS signals (145A, 145B) are authentic. calculating a double difference value of a carrier-to-noise ratio (C/N 0) of the GNSS signals (145A, 145B); determining whether an absolute value of the double difference value of the C/N 0 exceeds a predefined C/N 0 threshold; and in response to determining that the absolute value of the double difference value of the C/N 0 exceeds a predefined C/N 0 threshold, determining that the GNSS signals (145A, 145B) are authentic.
A method for identifying marker associated points in an image, the method executed by an imaging system including a computed tomography scanner, a computer with an electronic processing unit, and a memory module (44, 46) storing a marker point identification module executable by the electronic processing unit, the method comprising: obtaining, at the computer, an image based on image data generated by the computed tomography scanner; applying, with the electronic processing unit, a two-dimensional high-pass filter with compensation for the exponential nature of x-ray attenuation to the image to suppress background and, thereby, create a background suppressed image; and extracting, with the electronic processing unit, marker associated points from the background suppressed image, wherein applying the two-dimensional high-pass filter to the image includes sequentially applying, for two or more filtering directions, a one-dimensional high-pass filter, each one-dimensional high-pass filter including performing one-dimensional low-pass filtering on an input image to create a filtered image and dividing the filtered image by the input image to create an output image to compensate for an exponential nature of x-ray attenuation; wherein the image is the input image to a first of the one-dimensional high-pass filters; and wherein the input image to each subsequent application of the one-dimensional high-pass filters is the output image of a respective preceding application of the one-dimensional high-pass filters. obtaining, at the computer, an image based on image data generated by the computed tomography scanner; applying, with the electronic processing unit, a two-dimensional high-pass filter with compensation for the exponential nature of x-ray attenuation to the image to suppress background and, thereby, create a background suppressed image; and extracting, with the electronic processing unit, marker associated points from the background suppressed image, wherein applying the two-dimensional high-pass filter to the image includes sequentially applying, for two or more filtering directions, a one-dimensional high-pass filter, each one-dimensional high-pass filter including performing one-dimensional low-pass filtering on an input image to create a filtered image and dividing the filtered image by the input image to create an output image to compensate for an exponential nature of x-ray attenuation; wherein the image is the input image to a first of the one-dimensional high-pass filters; and wherein the input image to each subsequent application of the one-dimensional high-pass filters is the output image of a respective preceding application of the one-dimensional high-pass filters.
A variant polypeptide having alpha-amylase activity, wherein the variant has an amino acid sequence having at least 70% identity with the polypeptide sequence as set out in SEQ ID NO: 2, which, when aligned with the sequence as set out in SEQ ID NO: 2, comprises at least one substitution of an amino acid residue corresponding to Q13E, I16T, M45L, W70Y, S72T, L75V, T94A, T94P, V129A, S133L, T134S, I174L, W177F, D178N, K186Q, L210F, N234P, V254F, V281L, L282F, L282M, L282T, D283N, D283S, F284W, T323N, I325F, F652I, said positions being defined with reference to SEQ ID NO: 2; and wherein the variant has an increased sucrose tolerance compared with the reference polypeptide as set out in SEQ ID NO: 2.