mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a rotor hub system comprising: a multilink constant velocity joint characterized in that the multilink constant velocity joint comprises: a floating plate; a plurality of drive link trunnions each comprising a pivoting arm fixed thereto, each drive link trunnion being positioned radially about the floating plate, wherein each drive link trunnion is coupled to the floating plate via the pivoting arm; and a housing disposed about the floating plate, coupled to each of the drive link trunnions, and configured to couple to a mast; wherein the drive link trunnions are configured to move the floating plate in response to a force applied to the drive link trunnions and configured to move a plurality of drive links coupled to a yoke. a rotor hub system comprising: a multilink constant velocity joint characterized in that the multilink constant velocity joint comprises: a floating plate; a plurality of drive link trunnions each comprising a pivoting arm fixed thereto, each drive link trunnion being positioned radially about the floating plate, wherein each drive link trunnion is coupled to the floating plate via the pivoting arm; and a housing disposed about the floating plate, coupled to each of the drive link trunnions, and configured to couple to a mast; wherein the drive link trunnions are configured to move the floating plate in response to a force applied to the drive link trunnions and configured to move a plurality of drive links coupled to a yoke. a multilink constant velocity joint characterized in that the multilink constant velocity joint comprises: a floating plate; a plurality of drive link trunnions each comprising a pivoting arm fixed thereto, each drive link trunnion being positioned radially about the floating plate, wherein each drive link trunnion is coupled to the floating plate via the pivoting arm; and a housing disposed about the floating plate, coupled to each of the drive link trunnions, and configured to couple to a mast; wherein the drive link trunnions are configured to move the floating plate in response to a force applied to the drive link trunnions and configured to move a plurality of drive links coupled to a yoke. a floating plate; a plurality of drive link trunnions each comprising a pivoting arm fixed thereto, each drive link trunnion being positioned radially about the floating plate, wherein each drive link trunnion is coupled to the floating plate via the pivoting arm; and a housing disposed about the floating plate, coupled to each of the drive link trunnions, and configured to couple to a mast; wherein the drive link trunnions are configured to move the floating plate in response to a force applied to the drive link trunnions and configured to move a plurality of drive links coupled to a yoke.
An anti-ballistic aerospace structure, said structure comprising a strike layer defining an outwardly facing surface and an opposing capture layer defining an inwardly facing surface and an intermediate structural layer arranged between the strike layer and capture layer, wherein the intermediate structural layer is spaced relative to the strike layer to define a space (d) between the intermediate structural layer and the strike layer, said space (d) comprising one or more reinforcement elements, wherein the strike layer, the intermediate structural layer and the one or more reinforcement elements together form a sandwich-structured composite(s) and wherein the strike layer is formed of a fibre reinforced plastic laminate comprising at least one metallic layer, wherein the metallic layer comprises a plurality of apertures passing all the way through the metallic layer.
Induction heating unit for a cooking device, in particular for an induction cooking device, more particularly for an induction hob, comprising - at least one resonant tank with at least one induction heating element, - a power requesting unit for requesting a power of the at least one induction heating element, - a driving unit for driving the resonant tank, in particular by oscillating the resonant tank by means of a switching element, by a driving signal comprising a series of subsequent sequences for generating a heating power, characterised by each sequence comprising o a first subsequence with a first alternating signal and with a first subsequence duration, causing an activation of the resonant tank with a predetermined power, o a subsequent second subsequence with an at least essentially non-alternating signal and with a second subsequence duration, causing a deactivation of the resonant tank and o a subsequent third subsequence with a second alternating signal and with a third subsequence duration, causing an activation of the resonant tank with less than the predetermined power. - at least one resonant tank with at least one induction heating element, - a power requesting unit for requesting a power of the at least one induction heating element, - a driving unit for driving the resonant tank, in particular by oscillating the resonant tank by means of a switching element, by a driving signal comprising a series of subsequent sequences for generating a heating power, characterised by o a first subsequence with a first alternating signal and with a first subsequence duration, causing an activation of the resonant tank with a predetermined power, o a subsequent second subsequence with an at least essentially non-alternating signal and with a second subsequence duration, causing a deactivation of the resonant tank and o a subsequent third subsequence with a second alternating signal and with a third subsequence duration, causing an activation of the resonant tank with less than the predetermined power.
Method for measuring the fill level of a fluid in a housing by using an ultrasound sensor, in which the measurement is carried out along a measurement path on which there is a reference point, and in which multiple echoes in relation to the signal reflected from the reference point and level echoes in relation to the signal reflected from the fluid level as a result of multiple measurements and located in the time domain of the multiple echoes are generated, comprising the following steps: • determining the amplitude of the signal echoes and storing the same; • checking the amplitudes to see whether these lie in a fixed fluctuation range for the multiple echoes from the reference point or in a fixed fluctuation range for the level echoes; and • registering the signal echoes lying in the fluctuation range for the level echoes as level signals, and determining the fill level from the associated propagation time while taking into account the speed of sound determined from the propagation time as far as the reference point. • determining the amplitude of the signal echoes and storing the same; • checking the amplitudes to see whether these lie in a fixed fluctuation range for the multiple echoes from the reference point or in a fixed fluctuation range for the level echoes; and • registering the signal echoes lying in the fluctuation range for the level echoes as level signals, and determining the fill level from the associated propagation time while taking into account the speed of sound determined from the propagation time as far as the reference point.
A system, comprising: a patient support unit having a patient environment; a heating module comprising a heater and a heating module controller operatively coupled to the heater, wherein the heater is configured to warm the patient environment; a sensor module comprising a skin temperature sensor and a skin temperature controller operatively coupled to the skin temperature sensor and to the heater, wherein the skin temperature sensor is configured to measure a skin temperature of a patient in the patient environment; and a control system comprising at least one processor, at least one memory coupled to the at least one processor and including at least one program stored thereon, and at least one input interface, characterized in that, the control system is configured to selectively operate the system in a pre-programmed warm-up mode configured to gradually warm the patient in the patient environment according to a series of pre-defined or pre-configured stepped skin temperature increases performed over a series of predefined or pre-configured stepped time durations to achieve a goal skin temperature in an automatic mode, wherein warm-up mode ends once the skin temperature of the patient measured equals the goal skin temperature. a patient support unit having a patient environment; a heating module comprising a heater and a heating module controller operatively coupled to the heater, wherein the heater is configured to warm the patient environment; a sensor module comprising a skin temperature sensor and a skin temperature controller operatively coupled to the skin temperature sensor and to the heater, wherein the skin temperature sensor is configured to measure a skin temperature of a patient in the patient environment; and a control system comprising at least one processor, at least one memory coupled to the at least one processor and including at least one program stored thereon, and at least one input interface, characterized in that, the control system is configured to selectively operate the system in a pre-programmed warm-up mode configured to gradually warm the patient in the patient environment according to a series of pre-defined or pre-configured stepped skin temperature increases performed over a series of predefined or pre-configured stepped time durations to achieve a goal skin temperature in an automatic mode, wherein warm-up mode ends once the skin temperature of the patient measured equals the goal skin temperature.
A vehicle information transmission device comprising: a display device characterized in that the display device is configured to display a first virtual image of light which has a predetermined color tone at a position on a vehicle body, at which visual recognition of a certain object is prompted, when the visual recognition is prompted, and configured to display a second virtual image of light which has a different color tone from the first virtual image of light at a position on the vehicle body which is different from the position, at which the first virtual image of light is displayed, irrespective of whether the visual recognition is prompted or not; further comprising a control unit configured to adjust the position at which the second virtual image of light is displayed on a basis of the position at which the first virtual image of light is displayed when the visual recognition is prompted, wherein when the visual recognition is prompted, the control unit is further configured to decrease a light level of only a portion, which corresponds to the position at which the visual recognition is prompted, of the second virtual image of light displayed on the vehicle body. a display device characterized in that the display device is configured to display a first virtual image of light which has a predetermined color tone at a position on a vehicle body, at which visual recognition of a certain object is prompted, when the visual recognition is prompted, and configured to display a second virtual image of light which has a different color tone from the first virtual image of light at a position on the vehicle body which is different from the position, at which the first virtual image of light is displayed, irrespective of whether the visual recognition is prompted or not; further comprising configured to display a first virtual image of light which has a predetermined color tone at a position on a vehicle body, at which visual recognition of a certain object is prompted, when the visual recognition is prompted, and configured to display a second virtual image of light which has a different color tone from the first virtual image of light at a position on the vehicle body which is different from the position, at which the first virtual image of light is displayed, irrespective of whether the visual recognition is prompted or not; further comprising a control unit configured to adjust the position at which the second virtual image of light is displayed on a basis of the position at which the first virtual image of light is displayed when the visual recognition is prompted, wherein when the visual recognition is prompted, the control unit is further configured to decrease a light level of only a portion, which corresponds to the position at which the visual recognition is prompted, of the second virtual image of light displayed on the vehicle body.
A method for providing fast semantic proposals for image and video annotation, comprising: given an input image to be segmented for a region of interest, extracting one or more image planes from the input image, wherein the one or more images planes are handcrafted to provide significant region segmentation features; linearizing the input image in row-major order to generate a one-dimensional array corresponding to the one or more image planes to extract an input feature vector per image pixel for the one or more image planes; abstracting features for a region of interest using a modified echo state network model utilizing a reservoir including a layer of connections between reservoir nodes, wherein the reservoir increases feature dimensions per pixel location to multiple dimensions followed by feature reduction to one dimension per pixel location, wherein the echo state network model comprises both spatial and temporal state factors for the reservoir nodes associated with each pixel vector that incorporate spatial and temporal perturbations in the reservoir nodes for pixel neighborhood in an image and across training images, and wherein the echo state network model outputs a probability image that is subsequently thresholded; and post-processing the thresholded probability image by discarding selected small regions to obtain a segmented binary image corresponding to the region of interest. given an input image to be segmented for a region of interest, extracting one or more image planes from the input image, wherein the one or more images planes are handcrafted to provide significant region segmentation features; linearizing the input image in row-major order to generate a one-dimensional array corresponding to the one or more image planes to extract an input feature vector per image pixel for the one or more image planes; abstracting features for a region of interest using a modified echo state network model utilizing a reservoir including a layer of connections between reservoir nodes, wherein the reservoir increases feature dimensions per pixel location to multiple dimensions followed by feature reduction to one dimension per pixel location, wherein the echo state network model comprises both spatial and temporal state factors for the reservoir nodes associated with each pixel vector that incorporate spatial and temporal perturbations in the reservoir nodes for pixel neighborhood in an image and across training images, and wherein the echo state network model outputs a probability image that is subsequently thresholded; and post-processing the thresholded probability image by discarding selected small regions to obtain a segmented binary image corresponding to the region of interest.
An in vitro method for characterizing an antibody and complement profile, comprising: providing a sample comprising one or more immunoglobulins and native Immunoglobulin-C1q complex; providing a test surface comprising a food antigen coating, wherein the food antigen coating comprises a first food antigen, a second food antigen, and a third food antigen that have been applied to the test surface in a sequential manner; contacting the test surface with at least a portion of the sample; contacting the test surface with an antibody mixture, wherein the antibody mixture comprises a first antibody directed to C1q and a second antibody directed to at least one of the one or more immunoglobulins of the sample species; and obtaining a signal characteristic of binding of both at least one of the immunoglobulins and native Immunoglobulin-C1q complex from the sample to the test surface, wherein a signal intensity that exceeds a background cutoff is characterized as a positive result. providing a sample comprising one or more immunoglobulins and native Immunoglobulin-C1q complex; providing a test surface comprising a food antigen coating, wherein the food antigen coating comprises a first food antigen, a second food antigen, and a third food antigen that have been applied to the test surface in a sequential manner; contacting the test surface with at least a portion of the sample; contacting the test surface with an antibody mixture, wherein the antibody mixture comprises a first antibody directed to C1q and a second antibody directed to at least one of the one or more immunoglobulins of the sample species; and obtaining a signal characteristic of binding of both at least one of the immunoglobulins and native Immunoglobulin-C1q complex from the sample to the test surface, wherein a signal intensity that exceeds a background cutoff is characterized as a positive result.
A compressor, comprising: a casing having a cylindrical shape; and a compression mechanism housed in the casing, wherein the compression mechanism has a housing including a pressing portion pressed against the casing and a weld portion welded to the casing, and at least part of the pressing portion and at least part of the weld portion are arranged side by side in a circumferential direction of the casing, characterized in that it further comprises: a communication passage (26 to 29) that allows the weld portion to communicate with an internal space of the casing. a casing having a cylindrical shape; and a compression mechanism housed in the casing, wherein the compression mechanism has a housing including a pressing portion pressed against the casing and a weld portion welded to the casing, and at least part of the pressing portion and at least part of the weld portion are arranged side by side in a circumferential direction of the casing, characterized in that it further comprises: a communication passage (26 to 29) that allows the weld portion to communicate with an internal space of the casing.
Laundry care appliance for caring for laundry, with a condensation device, with a dosing system for dosing laundry care substance, with a soap drawer for receiving the dosing system, with a shell-type casing for receiving the soap drawer, with an air intake device for taking air in from an outer region of the laundry care appliance, and with an air duct for feeding the drawn-in air to the condensation device, characterised in that a branch element relating to a flow direction of the drawn-in air is arranged upstream of the condensation device in the air duct, and that the branch element is connected by a feeding pipe to the shell-type casing in order to supply the drawn-in air to the dosing system in the soap drawer of the shell-type housing.
A method for sensing measurement performed by a first device, the method comprising: receiving, by the first device, an indication frame sent by a second device, wherein the indication frame is used for indicating a spatial mapping matrix to be used by the second device to transmit a measurement frame; and receiving, by the first device, the measurement frame, and obtaining, by the first device, a channel estimation result based on the measurement frame; and determining, by the first device, channel state information based on the spatial mapping matrix and the channel estimation result; wherein before the receiving, by the first device, an indication frame, the method further comprises: sending, by the first device, a request frame, wherein the request frame is used for requesting the second device to feed back the spatial mapping matrix. receiving, by the first device, an indication frame sent by a second device, wherein the indication frame is used for indicating a spatial mapping matrix to be used by the second device to transmit a measurement frame; and receiving, by the first device, the measurement frame, and obtaining, by the first device, a channel estimation result based on the measurement frame; and determining, by the first device, channel state information based on the spatial mapping matrix and the channel estimation result; wherein before the receiving, by the first device, an indication frame, the method further comprises: sending, by the first device, a request frame, wherein the request frame is used for requesting the second device to feed back the spatial mapping matrix.
A lamp comprising: a phosphor being substantially flat, a radiation source arranged to irradiate the phosphor with optical radiation for exciting the phosphor to produce visible light, an optical system arranged to concentrate the light produced by the phosphor and illuminate a target area, and a heatsink thermally connected to the phosphor and arranged to dissipate heat produced by the phosphor; wherein the radiation source comprises a radiation emitter and a propagation path, and wherein the optical system comprises a reflector; characterised in that: the reflector has a symmetry axis which constitutes the optical axis of the optical system; the radiation source is arranged to irradiate the phosphor with optical radiation such that the phosphor is tilted with respect to a direction of incidence of optical radiation on the phosphor; and the phosphor is inclined with respect to the optical axis. a phosphor being substantially flat, a radiation source arranged to irradiate the phosphor with optical radiation for exciting the phosphor to produce visible light, an optical system arranged to concentrate the light produced by the phosphor and illuminate a target area, and a heatsink thermally connected to the phosphor and arranged to dissipate heat produced by the phosphor; wherein the radiation source comprises a radiation emitter and a propagation path, and wherein the optical system comprises a reflector; the reflector has a symmetry axis which constitutes the optical axis of the optical system; the radiation source is arranged to irradiate the phosphor with optical radiation such that the phosphor is tilted with respect to a direction of incidence of optical radiation on the phosphor; and the phosphor is inclined with respect to the optical axis.