mhurhangee/ep-ind-claims huggingface dataset:
An unmanned aerial vehicle with audio filtering components, said UAV comprising: a central body (145, 230, 330); a plurality of arms (147, 220, 320), wherein the arms (147, 220, 320) extend outward from the central body (145, 230, 330) in a radial manner; at least one audio source collecting microphone (140, 250, 350) configured to detect a target audio signal; a plurality of background noise-producing components (150a-d, 240, 340), wherein each background noise-producing component (150a-d, 240, 340) is a propulsion unit of the UAV and is configured to produce background noise that is different from the target audio signal; a plurality of background microphones (260, 360) positioned within a proximity sufficiently close to collect interfering noise from the plurality of background noise-producing components (150a-d, 240, 340), wherein each arm (147, 220, 320) supports a propulsion unit of the plurality of propulsion units and a background microphone (260, 360) of the plurality of background microphones (260, 360); and at least one processor configured to (a) receive signals indicative of audio data collected by the at least one audio source collecting microphone (140, 250, 350) and audio data collected by at least one of the background microphones (260, 360), and (b) generate a processed signal based on the received signals, wherein the audio data collected by the at least one of the background microphones (260, 360) is used to reduce the background noise from the audio data collected by the at least one audio source collecting microphone (140, 250, 350) to generate the processed signal, a central body (145, 230, 330); a plurality of arms (147, 220, 320), wherein the arms (147, 220, 320) extend outward from the central body (145, 230, 330) in a radial manner; at least one audio source collecting microphone (140, 250, 350) configured to detect a target audio signal; a plurality of background noise-producing components (150a-d, 240, 340), wherein each background noise-producing component (150a-d, 240, 340) is a propulsion unit of the UAV and is configured to produce background noise that is different from the target audio signal; a plurality of background microphones (260, 360) positioned within a proximity sufficiently close to collect interfering noise from the plurality of background noise-producing components (150a-d, 240, 340), wherein each arm (147, 220, 320) supports a propulsion unit of the plurality of propulsion units and a background microphone (260, 360) of the plurality of background microphones (260, 360); and at least one processor configured to (a) receive signals indicative of audio data collected by the at least one audio source collecting microphone (140, 250, 350) and audio data collected by at least one of the background microphones (260, 360), and (b) generate a processed signal based on the received signals, wherein the audio data collected by the at least one of the background microphones (260, 360) is used to reduce the background noise from the audio data collected by the at least one audio source collecting microphone (140, 250, 350) to generate the processed signal,
Housing for a household refrigerating device, having an outer wall and an inner container, which is arranged at a distance from the outer wall, and a clearance formed between the outer wall and the inner container, in which at least one vacuum insulation element is arranged, wherein the inner container has at least one depression on an exterior, into which a backing part (9, 10) with finished dimensions is inserted prior to the insertion into the depression, wherein in the inserted state an outer surface (9a, 10a) of the backing part (9, 10) is flush with the surface of the exterior connecting to the depression, characterised in that the plate-type backing part is glued into the depression.
A solid-state imaging device comprising: a pixel section comprising a plurality of pixels arranged in a matrix form, the plurality of pixels configured to perform photoelectric conversion; column signal lines (21-1, 21-2) configured to transmit pixel signals output from the pixels in units of columns; an analog to digital, AD, converting section comprising a comparator that compares a reference signal serving as a ramp wave (RAMP) with the pixel signals transmitted via the column signal line, said AD converting section being configured to convert a reference level and a signal level of the pixel signals into digital signals based on a comparison result of the comparator; and a switch connected with the column signal lines (21-1, 21-2) and configured to cause the column signal lines (21-1, 21-2) to be short-circuited according to a control pulse (VSLCNT) input from a control section; characterized in that: the control section is configured to turn on the switch according to a gain of AD conversion performed by the AD converting section during a certain period of time in a period of time in which the comparator is reset and, when an AD conversion gain is set to be high, reduce a pulse width of a control pulse (VSLCNT) so that a reset level distribution is not widened or, when the AD conversion gain is set to be low, to increase the pulse width of the control pulse (VSLCNT) so that the reset level distribution is widened. a pixel section comprising a plurality of pixels arranged in a matrix form, the plurality of pixels configured to perform photoelectric conversion; column signal lines (21-1, 21-2) configured to transmit pixel signals output from the pixels in units of columns; an analog to digital, AD, converting section comprising a comparator that compares a reference signal serving as a ramp wave (RAMP) with the pixel signals transmitted via the column signal line, said AD converting section being configured to convert a reference level and a signal level of the pixel signals into digital signals based on a comparison result of the comparator; and a switch connected with the column signal lines (21-1, 21-2) and configured to cause the column signal lines (21-1, 21-2) to be short-circuited according to a control pulse (VSLCNT) input from a control section; characterized in that: the control section is configured to turn on the switch according to a gain of AD conversion performed by the AD converting section during a certain period of time in a period of time in which the comparator is reset and, when an AD conversion gain is set to be high, reduce a pulse width of a control pulse (VSLCNT) so that a reset level distribution is not widened or, when the AD conversion gain is set to be low, to increase the pulse width of the control pulse (VSLCNT) so that the reset level distribution is widened.
A vehicle battery system comprising a vehicle battery with a plurality of battery cells and a cooling device for cooling the vehicle battery, wherein the cooling device comprises a heat sink with at least one cooling duct for a coolant to flow through, wherein the heat sink is in thermal contact with the battery cells, so that heat can be transmitted from the battery cells to the heat sink, wherein a coolant distributor is provided at at least one end of the heat sink, wherein the coolant distributor is glued to the heat sink, wherein the coolant distributor has a receiving region for gluing to the heat sink, wherein adhesive is applied in the receiving region, wherein the receiving region of the coolant distributor surrounds connection ends of the heat sink, wherein the connection ends of the heat sink are formed by limits to the cooling duct of the heat sink, wherein the end faces of the limits to the cooling duct form stops for the coolant distributor, so that the limits to the cooling duct lie against contact faces on the coolant distributor, wherein adhesive is applied in the receiving region of the coolant distributor merely, with regard to the cooling duct, radially outside the contact faces, characterised in that the end faces of the limits to the cooling duct are formed in two tiers in the radial direction and the contact faces are formed on the radially inner tiers of the end faces of the limits to the cooling duct.
Method for reconstructing image data and textural features of an examination region to be mapped, having the following steps: - acquiring scan projection data from the examination region to be mapped, - carrying out an iterative reconstruction on the basis of the acquired scan projection data, wherein the following steps occur in the course of iterative reconstruction: - reconstructing preliminary image data and preliminary textural features, - determining anticipated preliminary structures, preferably anticipated preliminary contours, in the examination region on the basis of the obtained preliminary textural features, - taking into account the anticipated preliminary structures during iterative reconstruction of preliminary image data and preliminary textural features. - defining the preliminary image data and preliminary textural features most recently resulting from the iterative reconstruction as the reconstructed image data and textural features. - acquiring scan projection data from the examination region to be mapped, - carrying out an iterative reconstruction on the basis of the acquired scan projection data, wherein the following steps occur in the course of iterative reconstruction: - reconstructing preliminary image data and preliminary textural features, - determining anticipated preliminary structures, preferably anticipated preliminary contours, in the examination region on the basis of the obtained preliminary textural features, - taking into account the anticipated preliminary structures during iterative reconstruction of preliminary image data and preliminary textural features. - reconstructing preliminary image data and preliminary textural features, - determining anticipated preliminary structures, preferably anticipated preliminary contours, in the examination region on the basis of the obtained preliminary textural features, - taking into account the anticipated preliminary structures during iterative reconstruction of preliminary image data and preliminary textural features. - defining the preliminary image data and preliminary textural features most recently resulting from the iterative reconstruction as the reconstructed image data and textural features.
A method for automatic generation of a localization geometry, the method comprising: receiving point cloud data collected by a distance sensor and describing a vicinity of a pathway; reducing the point cloud data to a predetermined volume with respect to the pathway, in particular reducing the point cloud data to exclude data within a rectangular prism positioned in parallel with the pathway; projecting the point cloud data to a two-dimensional plane including at least one pixel formation, in particular the at least one pixel formation is an arrangement of data points in the two-dimensional plane that are projected from the point cloud; characterized in that the said method further comprising: defining a volumetric grid according to the at least one pixel formation; determining a voxel occupancy for each of a plurality of voxels forming the volumetric grid; and generating the localization geometry according to the voxel occupancy. receiving point cloud data collected by a distance sensor and describing a vicinity of a pathway; reducing the point cloud data to a predetermined volume with respect to the pathway, in particular reducing the point cloud data to exclude data within a rectangular prism positioned in parallel with the pathway; projecting the point cloud data to a two-dimensional plane including at least one pixel formation, in particular the at least one pixel formation is an arrangement of data points in the two-dimensional plane that are projected from the point cloud; defining a volumetric grid according to the at least one pixel formation; determining a voxel occupancy for each of a plurality of voxels forming the volumetric grid; and generating the localization geometry according to the voxel occupancy.
A host cell engineered to express a recombinant, heterologous Large ATP-binding regulator of the LuxR family having an amino acid sequence that has at least 95% identity to the sequence of SEQ ID NO: 1, wherein the host cell comprises a nucleic acid encoding said heterologous LAL; wherein the host cell is further genetically engineered to contain an LAL binding site in a nucleic acid, and wherein the LAL binding site has at least 90% identity to SEQ ID NO: 2 or the LAL binding site comprises at least 8 contiguous nucleotides of SEQ ID NO: 2, more preferably wherein the LAL binding site comprises the sequence of SEQ ID NO: 2; or wherein the LAL binding site comprises the sequence of SEQ ID NO: 3. wherein the host cell is further genetically engineered to contain an LAL binding site in a nucleic acid, and wherein the LAL binding site has at least 90% identity to SEQ ID NO: 2 or the LAL binding site comprises at least 8 contiguous nucleotides of SEQ ID NO: 2, more preferably wherein the LAL binding site comprises the sequence of SEQ ID NO: 2; or wherein the LAL binding site comprises the sequence of SEQ ID NO: 3.
A laser processing head, configured to transmit laser to a workpiece to be processed, wherein, the laser processing head comprises: a first-level nozzle, a focus lens, which is arranged at an upstream direction of the first-level nozzle, and a second-level nozzle, which is arranged at a downstream direction of the first-level nozzle and connected with the first-level nozzle; wherein, an inner diameter of the second-level nozzle gradually decreases in the downstream direction, and a minimum inner diameter of the first-level nozzle is larger than an inner diameter of a tail end of the second-level nozzle; the laser processing head further comprises a first cavity configured to receive a first fluid and a second cavity configured to receive a second fluid that envelops the first fluid; the first cavity is connected with the first-level nozzle; the second cavity is connected with the second-level nozzle; the first cavity is arranged at the upstream direction of the first-level nozzle; characterized in that: an outer wall of the first-level nozzle is designed to be curved surface forming a gradually decreased diameter; a section of the second-level nozzle, which has a greater inner diameter, is arranged to enclose a periphery of the first-level nozzle, forming an arc-shaped region between the outer wall of the first-level nozzle and an inner wall of the second-level nozzle; the second cavity is arranged between the outer wall of the first-level nozzle and the inner wall of the second-level nozzle, and in the arc-shaped region. a first-level nozzle, a focus lens, which is arranged at an upstream direction of the first-level nozzle, and a second-level nozzle, which is arranged at a downstream direction of the first-level nozzle and connected with the first-level nozzle; wherein, an inner diameter of the second-level nozzle gradually decreases in the downstream direction, and a minimum inner diameter of the first-level nozzle is larger than an inner diameter of a tail end of the second-level nozzle; the laser processing head further comprises a first cavity configured to receive a first fluid and a second cavity configured to receive a second fluid that envelops the first fluid; the first cavity is connected with the first-level nozzle; the second cavity is connected with the second-level nozzle; the first cavity is arranged at the upstream direction of the first-level nozzle; characterized in that: an outer wall of the first-level nozzle is designed to be curved surface forming a gradually decreased diameter; a section of the second-level nozzle, which has a greater inner diameter, is arranged to enclose a periphery of the first-level nozzle, forming an arc-shaped region between the outer wall of the first-level nozzle and an inner wall of the second-level nozzle; the second cavity is arranged between the outer wall of the first-level nozzle and the inner wall of the second-level nozzle, and in the arc-shaped region.
A wool mattress set comprising, in combination: - a receiving mattress comprising a wool filling enclosed in a first envelope; and - a base mattress comprising a foam filling enclosed in a second envelope, the receiving mattress being laid on the base mattress, and the receiving mattress and the base mattress being independent and separable from each other, characterized in that the wool filling of the receiving mattress consists of a stack of a plurality of superposed wool mat layers (11a... 11e), essentially devoid of wool flakes. - a receiving mattress comprising a wool filling enclosed in a first envelope; and - a base mattress comprising a foam filling enclosed in a second envelope,
An integrated circuit, IC, structure, comprising: a fin, extending away from a base, comprising a SiGe material, the fin comprising a first portion, a second portion and a third portion, the second portion being closest to the base, the third portion being the portion farthest away from the base, where a concentration of germanium, Ge, near sidewalls of the third portion of the fin is at least 2 times higher than the concentration of Ge in a middle of the portion of the fin, wherein the fin comprises a tail shape in concentrations of germanium in the SiGe material at sidewalls of the first portion of the fin decreasing from the third portion towards the second portion; and a gate stack wrapping around the third portion of the fin, wherein all of the middle of the third portion of the fin that is wrapped around by the gate stack includes Ge and silicon, Si, with an atomic percentage of Ge being between 20 and 50%. a fin, extending away from a base, comprising a SiGe material, the fin comprising a first portion, a second portion and a third portion, the second portion being closest to the base, the third portion being the portion farthest away from the base, where a concentration of germanium, Ge, near sidewalls of the third portion of the fin is at least 2 times higher than the concentration of Ge in a middle of the portion of the fin, wherein the fin comprises a tail shape in concentrations of germanium in the SiGe material at sidewalls of the first portion of the fin decreasing from the third portion towards the second portion; and
An eyepiece for projecting an image light field to an eye of a viewer, the eyepiece comprising: a waveguide configured to propagate light via internal reflection; a dynamic input coupling grating formed on a first lateral region of the waveguide; a light source configured to generate a light beam transmitted to the dynamic ICG; a controller coupled to the light source and the dynamic ICG, the controller being configured to: modulate an intensity of the light beam in a sequence of time slots, each time slot of the sequence of time slots corresponding to a respective field angle of the image light field, the intensity of the light beam in each time slot of the sequence of time slots corresponding to an intensity of the image light field at the respective field angle; and control the dynamic ICG to, for each time slot of the sequence of time slots, diffract a respective portion of the light beam into the waveguide at a respective angle corresponding to the respective field angle; and an exit pupil expander coupled to a second lateral region of the waveguide and configured to direct each respective portion of the light beam out of the waveguide toward the eye of the viewer at the respective field angle, thereby projecting the image light field to the eye of the viewer. a waveguide configured to propagate light via internal reflection; a dynamic input coupling grating formed on a first lateral region of the waveguide; a light source configured to generate a light beam transmitted to the dynamic ICG; a controller coupled to the light source and the dynamic ICG, the controller being configured to: modulate an intensity of the light beam in a sequence of time slots, each time slot of the sequence of time slots corresponding to a respective field angle of the image light field, the intensity of the light beam in each time slot of the sequence of time slots corresponding to an intensity of the image light field at the respective field angle; and control the dynamic ICG to, for each time slot of the sequence of time slots, diffract a respective portion of the light beam into the waveguide at a respective angle corresponding to the respective field angle; and modulate an intensity of the light beam in a sequence of time slots, each time slot of the sequence of time slots corresponding to a respective field angle of the image light field, the intensity of the light beam in each time slot of the sequence of time slots corresponding to an intensity of the image light field at the respective field angle; and control the dynamic ICG to, for each time slot of the sequence of time slots, diffract a respective portion of the light beam into the waveguide at a respective angle corresponding to the respective field angle; and an exit pupil expander coupled to a second lateral region of the waveguide and configured to direct each respective portion of the light beam out of the waveguide toward the eye of the viewer at the respective field angle, thereby projecting the image light field to the eye of the viewer.
An electrode specially adapted for providing suitable electrical contact and fixation to the patient's skin in regions with irregular tissue structures, the electrode unit comprising: - a flexible nonconductive shell-member forming a body structure, - a flexible matrix-member, - a conductive member, - a connective member including means for connection to an external pulse generator, - a rubbery gel-member, where the shell-member comprises natural- or artificial- rubber of a durometer less than or equal to A shore 50 and where the flexible matrix-member is arranged in the shell-member and fixates the conductive member and supports the rubbery gel-member, the conductive member forming a means for evenly distributing electrical current from the connective member to the gel-member and where the rubbery gel-member is further providing mechanical fixation of the electrode unit to the patient's skin. - a flexible nonconductive shell-member forming a body structure, - a flexible matrix-member, - a conductive member, - a connective member including means for connection to an external pulse generator, - a rubbery gel-member, where the shell-member comprises natural- or artificial- rubber of a durometer less than or equal to A shore 50 and where the flexible matrix-member is arranged in the shell-member and fixates the conductive member and supports the rubbery gel-member, the conductive member forming a means for evenly distributing electrical current from the connective member to the gel-member and where the rubbery gel-member is further providing mechanical fixation of the electrode unit to the patient's skin.