mhurhangee/ep-ind-claims huggingface dataset:
A first device comprising: means (710, 720, 730) for receiving, from a second device, an indication to perform Msg3 transmission; means (710, 720, 730) for transmitting, to the second device, information of the first device for contention resolution; means (710, 720, 730) for, in case a configuration of a 4-step random access channel is unavailable in an active bandwidth part for the first device, determining a duration for monitoring a contention resolution message based on one of: a first configuration of a 2-step random access channel in the active bandwidth part, or a second configuration of a 4-step random access channel in a bandwidth part different from the active bandwidth part; and characterized in that, when the configuration of the 4-step random access channel is unavailable in the active bandwidth part for the first device, the first configuration of the 2-step random access channel in the active bandwidth part indicates a contention resolution timer for determining the duration and when the configuration of the 4-step random access channel is available in the active bandwidth part for the first device, the first configuration of the 2-step random access channel in the active bandwidth part does not indicate a contention resolution timer. means (710, 720, 730) for receiving, from a second device, an indication to perform Msg3 transmission; means (710, 720, 730) for transmitting, to the second device, information of the first device for contention resolution; means (710, 720, 730) for, in case a configuration of a 4-step random access channel is unavailable in an active bandwidth part for the first device, determining a duration for monitoring a contention resolution message based on one of: a first configuration of a 2-step random access channel in the active bandwidth part, or a second configuration of a 4-step random access channel in a bandwidth part different from the active bandwidth part; and a first configuration of a 2-step random access channel in the active bandwidth part, or a second configuration of a 4-step random access channel in a bandwidth part different from the active bandwidth part; and
A method performed by a User Equipment, UE, of determining a precoder codebook in a wireless communication system, the method comprising: receiving from a base station values of precoder parameters enabling the UE to determine the precoder codebook, wherein the precoder parameters are associated with a plurality of antenna ports of the base station and wherein the precoder parameters specify a number of antenna ports in a first dimension and an oversampling factor in the first dimension and specify a number of antenna ports in a second dimension and an oversampling factor in the second dimension; and determining the precoder codebook based on the received values of the precoder parameters and a parameter-based codebook, wherein a precoder in the precoder codebook comprises a first precoder matrix associated with the first dimension, a second precoder matrix associated with the second dimension, and a frequency-selective precoder. receiving from a base station values of precoder parameters enabling the UE to determine the precoder codebook, wherein the precoder parameters are associated with a plurality of antenna ports of the base station and wherein the precoder parameters specify a number of antenna ports in a first dimension and an oversampling factor in the first dimension and specify a number of antenna ports in a second dimension and an oversampling factor in the second dimension; and determining the precoder codebook based on the received values of the precoder parameters and a parameter-based codebook, wherein a precoder in the precoder codebook comprises a first precoder matrix associated with the first dimension, a second precoder matrix associated with the second dimension, and a frequency-selective precoder.
Method for forming a defined surface roughness in a region of a component which is to be produced or is produced additively, comprising the setting of an irradiation parameter (P, v) and/or of an irradiation pattern (KBV, FBV) such that a component material in the region below a surface of the component is provided with a certain porosity, characterized in that, to form the defined surface roughness in the region, an irradiation power, for example a laser power, and a scanning speed (v) are set in accordance with an expected surface roughness, and in that, to form the defined surface roughness in the region, a low irradiation power and a high scanning speed (v) are set, and in that the low irradiation power is at the lower bound of the irradiation power range between 100 W and 500 W, and in that the high scanning speed is at the upper bound of the scanning speed range between 100 mm/s and 1000 mm/s such that the component material is provided with the porosity in a depth of less than 500 μm below the surface.
An X-ray imaging device for an object, wherein the X-ray imaging device is configured to reduce noise in input data for a spectral decomposition, comprising: a receiving unit, and a processing unit, wherein the receiving unit is configured to receive attenuation data representing attenuation properties of the object for at least two different X-ray spectra, and wherein the processing unit is configured to decompose the attenuation data into decomposed data, reduce noise in the decomposed data to obtain de-noised data, back-convert the de-noised data into back-converted attenuation data, combine back-converted attenuation data and the attenuation data into combined attenuation data, and decompose the combined attenuation data into combined decomposed data. a receiving unit, and a processing unit, wherein the receiving unit is configured to receive attenuation data representing attenuation properties of the object for at least two different X-ray spectra, and wherein the processing unit is configured to decompose the attenuation data into decomposed data, reduce noise in the decomposed data to obtain de-noised data, back-convert the de-noised data into back-converted attenuation data, combine back-converted attenuation data and the attenuation data into combined attenuation data, and decompose the combined attenuation data into combined decomposed data.
A light output device, comprising a substrate having: a first segment provided with a first contact pad and a first light emitting element connected to the first contact pad; and a second segment provided with a second contact pad and a second light emitting element connected to the second contact pad, wherein said light output device, further comprises an optical system provided with a first optical element intended to receive light from the first light emitting element, and a second optical element intended to receive light from the second light emitting element, characterized in that the substrate is provided with at least one through-hole (6a-c) that extends from an edge (8,9) of said substrate to a point within said substrate, such that a relative movement, in a plane of the substrate, can be achieved between the first segment of the substrate and the second segment of the substrate by applying a mechanical force to said substrate, and wherein each of the first and second light emitting elements can be aligned with its respective optical element (11a, 11b) by applying a mechanical force to said substrate. a first segment provided with a first contact pad and a first light emitting element connected to the first contact pad; and a second segment provided with a second contact pad and a second light emitting element connected to the second contact pad,
Working machine for track construction work, the working machine having at least one working area at which ballast is moved characterized in that water nozzles operated at high pressure of ≥40 bar are arranged on the working machine in the vicinity of the working area, which are designed in such a way as to produce a standing water mist of defined width and length around the working area, the droplet size of the water mist being less than 1 mm.
A method of preparing a stream of articles for processing using an induction conveyor system, the induction conveyor system comprising: a singulating conveyor to form a series of singulated articles; an aligning conveyor comprising a narrow belt adjacent to a side of the aligning conveyor and an article pushing belt opposing the narrow belt for pushing articles towards the narrow belt; a buffer conveyor for receiving and buffering articles; a cull belt for conveying the articles past an operator at a selected paced rate; an array of sensors at an interface between the buffer and cull belt; and a controller for controlling a release of an article from the buffer to the cull belt based on a measurement from the array of sensors; the method comprising the steps of: singulating the articles using the singulating conveyor; aligning the series of singulated articles using the aligning conveyor; buffering the series of singulated, aligned articles using the buffer to form a series of buffered articles; and passing articles from the buffer to an operator at a selected paced rate, by controlling a release of an article from the buffer to the cull belt based on a measurement from the array of sensor. a singulating conveyor to form a series of singulated articles; an aligning conveyor comprising a narrow belt adjacent to a side of the aligning conveyor and an article pushing belt opposing the narrow belt for pushing articles towards the narrow belt; a buffer conveyor for receiving and buffering articles; a cull belt for conveying the articles past an operator at a selected paced rate; an array of sensors at an interface between the buffer and cull belt; and a controller for controlling a release of an article from the buffer to the cull belt based on a measurement from the array of sensors; the method comprising the steps of: singulating the articles using the singulating conveyor; aligning the series of singulated articles using the aligning conveyor; buffering the series of singulated, aligned articles using the buffer to form a series of buffered articles; and passing articles from the buffer to an operator at a selected paced rate, by controlling a release of an article from the buffer to the cull belt based on a measurement from the array of sensor. singulating the articles using the singulating conveyor; aligning the series of singulated articles using the aligning conveyor; buffering the series of singulated, aligned articles using the buffer to form a series of buffered articles; and passing articles from the buffer to an operator at a selected paced rate, by controlling a release of an article from the buffer to the cull belt based on a measurement from the array of sensor.
A glass, the glass comprising: from 50 mol% to 80 mol% SiO 2; from 5 mol% to 25 mol% Al 2 O 3; up to 15 mol% B 2 O 3; from 10 mol% to 25 mol% Na 2 O; up to 5 mol% K 2 O; from 0.1 mol% to 2.5 mol% Li 2 O; up to 5 mol% P 2 O 5; up to 10 mol% MgO; up to 10 mol% CaO; and up to 10 mol% ZnO; and wherein 10 mol% ≤ Li 2 O + Na 2 O + K 2 O ≤ 30 mol%, wherein the glass is ion exchanged and has a compressive layer extending from a surface of the glass to a depth of layer within the glass, and wherein the compressive layer includes a first region extending from the surface to a first depth that is less than the depth of layer, the first region comprising Ag 2 O.
A cell-image analysis method comprising: an image-acquisition step of capturing a plurality of cell images under different image-acquisition conditions; a cell position extracting step of extracting cell positions on the basis of the plurality of cell images; a feature extracting step of extracting features on the cells extracted in the cell position extracting step; and characterized by a statistics processing step of performing statistical analysis with the features extracted in the feature extracting step serving as parameters and verifying correlations of the features to select and/or design parameters appropriate for cell evaluation. an image-acquisition step of capturing a plurality of cell images under different image-acquisition conditions; a cell position extracting step of extracting cell positions on the basis of the plurality of cell images; a feature extracting step of extracting features on the cells extracted in the cell position extracting step; and characterized by a statistics processing step of performing statistical analysis with the features extracted in the feature extracting step serving as parameters and verifying correlations of the features to select and/or design parameters appropriate for cell evaluation.
A health monitoring device, comprising: a single-use structure having: a set of sensors configured to generate a set of health sensor data based on a body surface; a communications circuit configured to receive the set of health sensor data based on the body surface; and a second near-field antenna, coupled to the circuit, and configured to be conformally coupled to the body surface; wherein the single-use structure includes only externally powered passive circuits;. a re-useable structure, wherein the re-useable structure is wearable and has a near-field reader configured to process the set of health sensor data based on the body surface; wherein a first near-field antenna in the re-useable structure is configured to be conformally coupled to the body surface and is configured to communicate with the second near-field antenna in the single-use structure; wherein the single-use structure is wholly powered by a near-field signal from the re-useable structure; and wherein the first near-field antenna is spatially positioned with respect to the second near-field antenna so as to maximize a coupling factor between the first and second near-field antennas. a single-use structure having: a set of sensors configured to generate a set of health sensor data based on a body surface; a communications circuit configured to receive the set of health sensor data based on the body surface; and a second near-field antenna, coupled to the circuit, and configured to be conformally coupled to the body surface; wherein the single-use structure includes only externally powered passive circuits;. a set of sensors configured to generate a set of health sensor data based on a body surface; a communications circuit configured to receive the set of health sensor data based on the body surface; and a second near-field antenna, coupled to the circuit, and configured to be conformally coupled to the body surface; wherein the single-use structure includes only externally powered passive circuits;. a re-useable structure, wherein the re-useable structure is wearable and has a near-field reader configured to process the set of health sensor data based on the body surface; wherein a first near-field antenna in the re-useable structure is configured to be conformally coupled to the body surface and is configured to communicate with the second near-field antenna in the single-use structure; wherein the single-use structure is wholly powered by a near-field signal from the re-useable structure; and wherein the first near-field antenna is spatially positioned with respect to the second near-field antenna so as to maximize a coupling factor between the first and second near-field antennas.
An in vitro method of using (i) a value of an amount of CD4 + CD62L low T-cells of a subject or (ii) a relative value of an amount of X to an amount of CD4 + Foxp3 + CD25 + T-cells as an indicator for predicting a response to cancer immunotherapy of the subject, the method comprising: measuring the X; and optionally measuring the Y; wherein a comparison of (i) X with an ineffective group threshold value or (ii) a relative value of X to Y with an ineffective group threshold value is used as an indicator for predicting that the subject is not a part of an ineffective group to the cancer immunotherapy, wherein the cancer immunotherapy comprises administration of an immune checkpoint inhibitor. measuring the X; and optionally measuring the Y; wherein a comparison of (i) X with an ineffective group threshold value or (ii) a relative value of X to Y with an ineffective group threshold value is used as an indicator for predicting that the subject is not a part of an ineffective group to the cancer immunotherapy, wherein the cancer immunotherapy comprises administration of an immune checkpoint inhibitor.
An imaging station for capturing images of a subject in a given ambient lighting environment, comprising: a housing with an aperture a camera for capturing digital images; a light for illuminating the subject during image capture; a first display comprising a self-visualizing panel interior to the housing for displaying a digital image of the subject captured by said camera, and permitting the subject to see themselves as they appear when presented to said aperture; a second display on the exterior surface of the housing for displaying a digital image of the subject captured by said camera said second display presenting an operational interface through which the imaging station may be controlled; a computer for controlling the camera and the light, wherein the camera and the light are contained within the housing, the housing includes a tunnel extending from said aperture toward said camera and said light, and said tunnel is configured to limit, at least partially, ambient light during image capture and display on the first display. a housing with an aperture a camera for capturing digital images; a light for illuminating the subject during image capture; a first display comprising a self-visualizing panel interior to the housing for displaying a digital image of the subject captured by said camera, and permitting the subject to see themselves as they appear when presented to said aperture; a second display on the exterior surface of the housing for displaying a digital image of the subject captured by said camera said second display presenting an operational interface through which the imaging station may be controlled; a computer for controlling the camera and the light, wherein the camera and the light are contained within the housing, the housing includes a tunnel extending from said aperture toward said camera and said light, and said tunnel is configured to limit, at least partially, ambient light during image capture and display on the first display.
Hand or chair switch for controlling a control or operating current of electric motors in linear drives or the like, having a switch housing which has an upper part comprising at least one key (8, 10; 30, 32; 50; 60; 86) and a lower part for forming a receiving space, a circuit board (16, 48) which is accommodated in the receiving space and has microswitches which each have a microswitch housing and a tappet which is spring-loaded therein, wherein the keys (8, 10; 30, 32; 50; 60; 86) when operated by a user of the plungers actuate the respective microswitch to control the control or operating current, and wherein the hand or chair switch comprises at least one locking element which can be transferred between a locking position locking the key (8, 10; 30, 32; 50; 60; 86) and a release position releasing the key (8, 10; 30, 32; 50; 60; 86), the locking element being designed in such a way as to be able to transfer the pressure exerted on the key (8, 10; 30, 32; 50; 60); 86) to the switch housing and/or the circuit board (16, 48) over as large an area as possible, CHARACTERIZED IN THAT the locking element has a lifting device which transfers the locking element from the locking position into the release position when a translational movement is executed, in that the lifting device has a stationary lower plate and a lifting plate or keys which can be moved relative to this lower plate, and in that complementary ramp slopes (108, 112) are formed in pairs between the lower plate and the lifting plate or the keys.
Method for processing audio signals in an entertainment system, wherein audio signals from at least one audio source are modified during playback by the entertainment system for adjustment to a psychoacoustic loudness set value, wherein this modification is performed in each case on the basis of an average psychoacoustic loudness maximum EL determined over a predefined time interval for the audio source concerned, wherein, in order to determine the value EL, the current loudness is measured depending on the signal frequency for a specific audio track, the loudness values measured in this way are used to determine a local maximum within a fixed time interval, and the respective current loudness maxima are stored in a memory, with the result that the values present in the memory contain the respective loudness maxima of the audio signal of the sound track, and the value EL is calculated on the basis of the stored loudness maxima by subdividing the values present in the memory into individual blocks and applying a function to the individual sections, which function provides a value close to the maximum, and adding the values obtained in this way over the predefined time interval to form a sum, if necessary following prior squaring, in order to thus obtain the value EL.
One-piece plinth profile for the lower termination of insulating panels on a wall of a building, having a substantially L-shaped base profile part and an outer profile part connected thereto, wherein the base profile part has a wall limb which can be fastened to the wall and has a supporting limb aligned perpendicularly thereto, which, in the intended installation position, rests against the lower end face of the insulating panels, wherein the outer profile part has a plastering limb aligned parallel to the wall limb with a connecting limb aligned perpendicular thereto, characterised in that the base profile part and the outer profile part are separately produced parts of the plinth profile, in that the supporting limb of the base profile part has a plurality of first weld regions which are spaced apart from one another and extend in the longitudinal direction of the profile, in that the connecting limb of the outer profile part has a second weld region at its end facing the supporting limb, which is welded to one of the first weld regions to set a predeterminable distance between the wall limb and the plastering limb.